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Title:
STACKABLE PANELS FOR A WALL PANEL ASSEMBLY
Document Type and Number:
WIPO Patent Application WO/2024/086940
Kind Code:
A1
Abstract:
Disclosed herein is a panel configured to define a first panel for co-operating with a second panel for establishing a stacked configuration. In the stacked configuration: (i) a first coupling configuration counterpart, of the first panel, is configured for co-operation with an upper receiving space-defining portion, of the second panel, such that a first nested configuration is established, wherein the upper receiving space-defining portion, of the second panel, is nested within a cavity defined within the first coupling configuration counterpart, of the first panel, and (ii) an upper receiving space-defining portion, of the first panel, is configured for co-operation with the first coupling configuration counterpart, that is respective to the second panel, such that a second nested configuration is established, wherein the upper receiving space-defining portion, of the first panel, is nested within a cavity defined within the first coupling configuration counterpart, of the second panel.

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Inventors:
PRIZZI GIUSEPPE (CA)
VENAFRO MARCELLO (CA)
Application Number:
PCT/CA2023/051429
Publication Date:
May 02, 2024
Filing Date:
October 26, 2023
Export Citation:
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Assignee:
2840629 ONTARIO INC (CA)
International Classes:
E04F13/08; B44C1/28; F16D1/02
Domestic Patent References:
WO2021170192A12021-09-02
Foreign References:
US20160230793A12016-08-11
CA3109041A12022-08-11
Attorney, Agent or Firm:
SMART & BIGGAR LP et al. (CA)
Download PDF:
Claims:
WHAT IS CLAIMED IS:

1 . A panel which is configured to define a first panel for coupling to a second panel, such that an assembled configuration is established, wherein the first panel is configured for cooperating with the second panel, a wall, and a fastener configuration for establishing a fastened panel assembly configuration, wherein, in the fastened panel assembly configuration, the assembled configuration is secured to the wall with the fastener configuration such that the assembled configuration covers at least a portion of a surface of the wall, and wherein the first panel is also configured for co-operating with the second panel for establishing a stacked configuration, wherein each one of the first and second panels, independently, comprises: a respective first coupling configuration counterpart; a respective second coupling configuration counterpart; and a respective mounting bracket-receiving space, recessed into a respective surface of the panel, for receiving emplacement of a mounting bracket with effect that the mounting bracket becomes vertically supported by the panel, wherein the respective mounting bracket-receiving space is defined within a respective receiving spacedefining portion of the panel; wherein: the first coupling configuration counterpart, that is respective to the first panel, is configured for coupling with the second coupling configuration counterpart, that is respective to the second panel, with effect that a first coupled configuration is established, and the second coupling configuration counterpart, that is respective to the first panel, is configured for coupling with the first coupling configuration counterpart, that is respective to the second panel, with effect that a second coupled configuration is established, wherein the establishing of either one of the first coupled configuration or the second coupled configuration establishes the assembled configuration; and the first coupling configuration counterpart, that is respective to the first panel, is configured for co-operation with the receiving space-defining portion, that is respective to the second panel, such that a first nested configuration is established, and the receiving space-defining portion, that is respective to the first panel, is configured for co-operation with the first coupling configuration counterpart, that is respective to the second panel, such that a second nested configuration is established, wherein the stacked configuration includes the first nested configuration and the second nested configuration. panel as claimed in claim 1 , wherein: the first coupling configuration counterpart, that is respective to the first panel, is configured for co-operation with the receiving space-defining portion, that is respective to the second panel, such that while the first nested configuration is established, the receiving space-defining portion, that is respective to the second panel, is nested within a cavity defined by the first coupling configuration counterpart, that is respective to the first panel; and the receiving space-defining portion, that is respective to the first panel, is configured for co-operation with the first coupling configuration counterpart, that is respective to the second panel, such that while the second nested configuration is established, the receiving space-defining portion, that is respective to the first panel, is nested within a cavity defined by the first coupling configuration counterpart, that is respective to the second panel. panel as claimed in claim 1 or claim 2, wherein: the first coupling configuration counterpart, that is respective to the first panel, and the second coupling configuration counterpart, that is respective to the second panel, are co-operatively configured such that, while the first coupled configuration is established:

(a) relative displacement between the first panel and the second panel, along an axis that is: (i) parallel to the wall surface, and (ii) perpendicular to the longitudinal axis of the first panel, is opposed; and

(b) relative displacement between the first panel and the second panel, along an axis that is parallel to an axis that is normal to the wall surface is opposed; and the second coupling configuration counterpart, that is respective to the first panel, and the first coupling configuration counterpart, that is respective to the second panel, are co-operatively configured such that, while the second coupled configuration is established: (a) relative displacement between the first panel and the second panel, along an axis that is: (i) parallel to the wall surface, and (ii) perpendicular to the longitudinal axis of the first panel, is opposed; and

(b) relative displacement between the first panel and the second panel, along an axis that is parallel to an axis that is normal to the wall surface is opposed. panel as claimed in any one of claims 1 to 3, wherein: the coupling of the first coupling configuration counterpart, that is respective to the first panel, to the second coupling configuration counterpart, that is respective to the second panel, is effectuated in response to snap-fit engagement between first coupling configuration counterpart, that is respective to the first panel, with the second coupling configuration counterpart, that is respective to the second panel; and the coupling of the coupling of the second coupling configuration counterpart, that is respective to the first panel, to the first coupling configuration counterpart, that is respective to the second panel, is effectuated in response to snap-fit engagement between the coupling of the second coupling configuration counterpart, that is respective to the first panel, with the first coupling configuration counterpart, that is respective to the second panel. panel as claimed in any one of claims 1 to 4, wherein; each one of the first and second panels, independently, further includes a respective front surface that includes a respective planar surface portion; the first panel is configured for co-operation with the second panel such that, in the stacked configuration, the planar surface portion of the first panel defines an outwardly facing surface of the stacked configuration and the planar surface portion of the second panel defines an outwardly facing surface of the stacked configuration. panel as claimed in claim 5, wherein: the first panel is configured for co-operation with the second panel such that, in the fastened panel assembly configuration, for each one of the first and second panels, independently, the respective planar surface portion defines a visible surface.

7. The panel as claimed in any one of claims 1 to 4, wherein: each one of the first and second panels, independently, further includes a respective front surface that includes a respective planar surface portion; and the first panel is configured for co-operation with the second panel such that, in the fastened panel assembly configuration, for each one of the first and second panels, independently, the respective planar surface portion defines a visible surface.

8. The panel as claimed in any one of claims 5 to 7, wherein: the first panel is configured for co-operation with the second panel such that, in the fastened panel assembly configuration, for each one of the first and second panels, independently, the respective planar surface portion is oriented in a parallel relationship with the wall surface.

9. A kit for producing a wall panel assembly, wherein the kit comprises a plurality of panels, wherein each one of the plurality of panels, independently, is defined by the panel as claimed in any one of claims 1 to 8.

10. A panel which is configured to define a first panel for coupling to a second panel, such that an assembled configuration is established, wherein the first panel is configured for cooperating with the second panel, a wall, and a fastener configuration for establishing a fastened panel assembly configuration, wherein, in the fastened panel assembly configuration, the assembled configuration is secured to the wall with the fastener configuration such that the assembled configuration covers at least a portion of a surface of the wall, and wherein the first panel is also configured for co-operating with the second panel for establishing a stacked configuration, wherein: the first panel is configured for co-operation with the second panel such that, in the stacked configuration, the first and second panels are co-operatively disposed in a nested relationship, and the first and second panels are offset relative to one another by a minimum distance of less than 1 inch.

11 . The panel as claimed in claim 10, wherein: the first panel is configured for co-operation with the second panel such that, in the stacked configuration, the minimum distance, by which the first and second panels are offset relative to one another, is less than 2 centimeters. panel as claimed in claim 10 or claim 11 , wherein: the offset is along an axis that is: (i) parallel to the wall surface, and (ii) perpendicular to the longitudinal axis of the first panel. panel as claimed in claim 12, wherein: the offset is along the axis that is perpendicular to the longitudinal axis of the second panel. panel as claimed in claim 10 or claim 11 , wherein: the offset is along an axis that is parallel to a lateral axis the first panel. panel as claimed in claim 14, wherein: the offset is along the axis that is parallel to a lateral axis the second panel. panel as claimed in any one of claims 10 to 15, wherein: each one of the first and second panels, independently, comprises: a respective first coupling configuration counterpart; and a respective second coupling configuration counterpart; wherein: the first coupling configuration counterpart, that is respective to the first panel, is configured for coupling with the second coupling configuration counterpart, that is respective to the second panel, with effect that a first coupled configuration is established, and the second coupling configuration counterpart, that is respective to the first panel, is configured for coupling with the first coupling configuration counterpart, that is respective to the second panel, with effect that a second coupled configuration is established, wherein the establishing of either one of the first coupled configuration or the second coupled configuration establishes the assembled configuration. panel as claimed in claim 16, wherein: the first coupling configuration counterpart, that is respective to the first panel, and the second coupling configuration counterpart, that is respective to the second panel, are co-operatively configured such that, while the first coupled configuration is established:

(a) relative displacement between the first panel and the second panel, along an axis that is: (i) parallel to the wall surface, and (ii) perpendicular to the longitudinal axis of the first panel, is opposed; and

(b) relative displacement between the first panel and the second panel, along an axis that is parallel to an axis that is normal to the wall surface is opposed; and the second coupling configuration counterpart, that is respective to the first panel, and the first coupling configuration counterpart, that is respective to the second panel, are co-operatively configured such that, while the second coupled configuration is established:

(a) relative displacement between the first panel and the second panel, along an axis that is: (i) parallel to the wall surface, and (ii) perpendicular to the longitudinal axis of the first panel, is opposed; and

(b) relative displacement between the first panel and the second panel, along an axis that is parallel to an axis that is normal to the wall surface is opposed. panel as claimed in claim 16 or claim 17, wherein: the coupling of the first coupling configuration counterpart, that is respective to the first panel, to the second coupling configuration counterpart, that is respective to the second panel, is effectuated in response to snap-fit engagement between first coupling configuration counterpart, that is respective to the first panel, with the second coupling configuration counterpart, that is respective to the second panel; and the coupling of the coupling of the second coupling configuration counterpart, that is respective to the first panel, to the first coupling configuration counterpart, that is respective to the second panel, is effectuated in response to snap-fit engagement between the coupling of the second coupling configuration counterpart, that is respective to the first panel, with the first coupling configuration counterpart, that is respective to the second panel.

19. The panel as claimed in any one of claims 10 to 18, wherein: each one of the first and second panels, independently, further includes a respective front surface that includes a respective planar surface portion; the first panel is configured for co-operation with the second panel such that, in the stacked configuration, the planar surface portion of the first panel defines an outwardly facing surface of the stacked configuration and the planar surface portion of the second panel defines an outwardly facing surface of the stacked configuration.

20. The panel as claimed in claim 19, wherein: the first panel is configured for co-operation with the second panel such that, in the fastened panel assembly configuration, for each one of the first and second panels, independently, the respective planar surface portion defines a visible surface.

21. The panel as claimed in any one of claims 10 to 18, wherein: each one of the first and second panels, independently, further includes a respective front surface that includes a respective planar surface portion; and the first panel is configured for co-operation with the second panel such that, in the fastened panel assembly configuration, for each one of the first and second panels, independently, the respective planar surface portion defines a visible surface.

22. The panel as claimed in any one of claims 19 to 21 , wherein: the first panel is configured for co-operation with the second panel such that, in the fastened panel assembly configuration, for each one of the first and second panels, independently, the respective planar surface portion is oriented in a parallel relationship with the wall surface.

23. A kit for producing a wall panel assembly, wherein the kit comprises a plurality of panels, wherein each one of the plurality of panels, independently, is defined by the panel as claimed in any one of claims 10 to 22.

24. A panel which is configured to define a first panel for coupling to a second panel, such that an assembled configuration is established, wherein the first panel is configured for cooperating with the second panel, a wall, and a fastener configuration for establishing a fastened panel assembly configuration, wherein, in the fastened panel assembly configuration, the assembled configuration is secured to the wall with the fastener configuration such that the assembled configuration covers at least a portion of a surface of the wall, and wherein the first panel is also configured for co-operating with the second panel for establishing a stacked configuration; wherein: each one of the first and second panels, independently, comprises: a respective front surface; a respective rear surface disposed, relative to the respective front surface, on an opposite side of the panel; and a respective plurality of legs depending from the rear surface; the first panel is configured for co-operation with the second panel such that, in the stacked configuration: the first and second panels are co-operatively disposed in a nested relationship; one of the first and second panels is an upper panel and the other one of the first and second panels is disposed below the upper panel such that the other one of the first and second panels is a lower panel; and for each one of the legs, that are respective to the upper panel, independently, the leg is co-operable with the rear surface that is respective to the lower panel, such that, while the upper panel, to which the leg is respective, is being urged in a downwardly direction by application, to the upper panel, of gravitational force only, the leg is supported by the rear surface that is respective to the lower panel.

25. The panel as claimed in claim 24, wherein: for each one of the legs, that are respective to the upper panel, independently, the supporting of the leg by the rear surface, that is respective to the lower panel, is effectuated in response to abutting engagement of the leg to the rear surface.

26. The panel as claimed in claim 25, wherein: for each one of the legs, that are respective to the upper panel, independently, a respective enlarged foot is disposed at a terminal end of the leg, such that the abutting engagement of the leg to the rear surface, that is respective to the lower panel, includes an abutting engagement of the enlarged foot to the rear surface. panel as claimed in claim 26, wherein: for each one of the legs, independently: the respective enlarged foot defines an engagement surface portion, such that an engagement surface portion, that is respective to the leg, is defined; the abutting engagement is established between the engagement surface portion and the rear surface, that is respective to the lower panel,; the supporting leg defines a longitudinal axis and a maximum cross-sectional area whose normal axis, at a respective cross-section at which the respective maximum cross-sectional area is defined, is parallel to the longitudinal axis; and the total surface area of the respective engagement surface portion exceeds the maximum cross-sectional area of the respective supporting leg. panel as claimed in claim 27, wherein: for each one of the legs, independently, the total surface area of the respective engagement surface portion exceeds the maximum cross-sectional area of the respective supporting leg by at least 25%. panel as claimed in any one of claims 24 to 28, wherein: the first panel is configured for co-operation with the second panel such that, in the stacked configuration, for each one of the legs, that are respective to the lower panel, independently, the leg is co-operable with the rear surface that is respective to the upper panel, such that, while the upper panel, to which the rear surface is respective, is being urged in a downwardly direction by application, to the upper panel, of gravitational force only, the rear surface is supported by the leg that is respective to the lower panel. panel as claimed in claim 29, wherein: for each one of the legs, that are respective to the lower panel, independently, the supporting of the rear surface, that is respective to the upper panel, by the leg, is effectuated in response to abutting engagement of the leg to the rear surface. panel as claimed in claim 30, wherein: for each one of the legs, that are respective to the lower panel, independently, a respective enlarged foot is disposed at a terminal end of the leg, such that the abutting engagement of the leg to the rear surface, that is respective to the upper panel, includes an abutting engagement of the enlarged foot to the rear surface. panel as claimed in claim 31 , wherein: for each one of the legs, independently: the respective enlarged foot defines an engagement surface portion, such that an engagement surface portion, that is respective to the leg, is defined; the abutting engagement is established between the engagement surface portion and the rear surface, that is respective to the upper panel,; the supporting leg defines a longitudinal axis and a maximum cross-sectional area whose normal axis, at a respective cross-section at which the respective maximum cross-sectional area is defined, is parallel to the longitudinal axis; and the total surface area of the respective engagement surface portion exceeds the maximum cross-sectional area of the respective supporting leg. panel as claimed in claim 32, wherein: for each one of the legs, independently, the total surface area of the respective engagement surface portion exceeds the maximum cross-sectional area of the respective supporting leg by at least 25%. panel as claimed in any one of claims 24 to 33, wherein: each one of the first and second panels, independently, comprises: a respective first coupling configuration counterpart; and a respective second coupling configuration counterpart; wherein: the first coupling configuration counterpart, that is respective to the first panel, is configured for coupling with the second coupling configuration counterpart, that is respective to the second panel, with effect that a first coupled configuration is established, and the second coupling configuration counterpart, that is respective to the first panel, is configured for coupling with the first coupling configuration counterpart, that is respective to the second panel, with effect that a second coupled configuration is established, wherein the establishing of either one of the first coupled configuration or the second coupled configuration establishes the assembled configuration. panel as claimed in claim 34, wherein: the first coupling configuration counterpart, that is respective to the first panel, and the second coupling configuration counterpart, that is respective to the second panel, are co-operatively configured such that, while the first coupled configuration is established:

(a) relative displacement between the first panel and the second panel, along an axis that is: (i) parallel to the wall surface, and (ii) perpendicular to the longitudinal axis of the first panel, is opposed; and

(b) relative displacement between the first panel and the second panel, along an axis that is parallel to an axis that is normal to the wall surface is opposed; and the second coupling configuration counterpart, that is respective to the first panel, and the first coupling configuration counterpart, that is respective to the second panel, are co-operatively configured such that, while the second coupled configuration is established:

(a) relative displacement between the first panel and the second panel, along an axis that is: (i) parallel to the wall surface, and (ii) perpendicular to the longitudinal axis of the first panel, is opposed; and (b) relative displacement between the first panel and the second panel, along an axis that is parallel to an axis that is normal to the wall surface is opposed. panel as claimed in claim 34 or claim 35, wherein: the coupling of the first coupling configuration counterpart, that is respective to the first panel, to the second coupling configuration counterpart, that is respective to the second panel, is effectuated in response to snap-fit engagement between first coupling configuration counterpart, that is respective to the first panel, with the second coupling configuration counterpart, that is respective to the second panel; and the coupling of the second coupling configuration counterpart, that is respective to the first panel, to the first coupling configuration counterpart, that is respective to the second panel, is effectuated in response to snap-fit engagement between the coupling of the second coupling configuration counterpart, that is respective to the first panel, with the first coupling configuration counterpart, that is respective to the second panel. panel as claimed in any one of claims 24 to 36, wherein: for each one of the first and second panels, independently, the respective front surface includes a respective planar surface portion; and the first panel is configured for co-operation with the second panel such that, in the stacked configuration, the planar surface portion of the first panel defines an outwardly facing surface of the stacked configuration and the planar surface portion of the second panel defines an outwardly facing surface of the stacked configuration. panel as claimed in claim 37, wherein: the first panel is configured for co-operation with the second panel such that, in the fastened panel assembly configuration, for each one of the first and second panels, independently, the respective planar surface portion defines a visible surface. panel as claimed in any one of claims 24 to 36, wherein: for each one of the first and second panels, independently, the respective front surface includes a respective planar surface portion; and the first panel is configured for co-operation with the second panel such that, in the fastened panel assembly configuration, for each one of the first and second panels, independently, the respective planar surface portion defines a visible surface.

40. The panel as claimed in any one of claims 37 to 39, wherein: the first panel is configured for co-operation with the second panel such that, in the fastened panel assembly configuration, for each one of the first and second panels, independently, the respective planar surface portion is oriented in a parallel relationship with the wall surface.

41 . The panel as claimed in any one of claims 24 to 40, wherein: the urging of the upper panel in the downwardly direction by the application, to the upper panel, of the gravitational forces only, is by only the weight of the upper panel.

42. The panel as claimed in any one of claims 24 to 41 , wherein: the gravitational force is defined exclusively by the weight of the upper panel.

43. The panel as claimed in any one of claims 24 to 42, wherein: the urging of the upper panel in the downwardly direction is further effectuated by application, to the upper panel, of the weight of the atmosphere.

44. A kit for producing a wall panel assembly, wherein the kit comprises a plurality of panels, wherein each one of the plurality of panels, independently, is defined by the panel as claimed in any one of claims 24 to 43.

45. A panel which is configured to define a first panel for coupling to a second panel for establishing an assembled configuration, wherein the first panel is configured for cooperating with the second panel, a wall that defines a wall surface, and a fastener configuration for establishing a fastened panel assembly configuration, wherein, in the fastened panel assembly configuration, the assembled configuration is secured to the wall with the fastener configuration such that the assembled configuration covers at least a portion of a surface of the wall; wherein: the first panel includes a respective first coupling configuration counterpart; the second panel includes: a second coupling configuration counterpart; a front surface, wherein the front surface includes a visible planar surface portion that is oriented such that, while the fastened panel assembly configuration is established, an axis, that is normal to the respective planar surface portion, is disposed within five (5) degrees, relative to an axis that is normal to the wall surface; a mounting bracket-receiving space recessed into the visible planar surface portion of the second panel for receiving emplacement of a mounting bracket with effect that the mounting bracket becomes vertically supported by the second panel; a recess-defining surface, extending from spaced-apart upper and lower edges for defining the mounting bracket-receiving receiving space, and including: a retaining surface configuration including a forwardly-disposed retaining surface portion and a rearwardly-disposed retaining surface portion; wherein: the forwardly-disposed retaining surface portion and the mounting bracket-receiving space are co-operatively configured such that, while the mounting bracket is disposed within the mounting bracket-receiving space such that the mounting bracket is supported by the second panel, displacement of the mounting bracket, relative to the second panel, in a forwardly direction that is normal to the wall, is opposed by the forwardly-disposed retaining surface portion; and the rearwardly-disposed retaining surface portion and the mounting bracket-receiving space are co-operatively configured such that, while the mounting bracket is disposed within the mounting bracket-receiving space such that the mounting bracket is supported by the second panel, displacement of the mounting bracket, relative to the second panel, in a rearwardly direction that is normal to the wall, is opposed by the rearwardly-disposed retaining surface portion; and an upper surface portion, extending from the upper edge to the forwardly-disposed retaining surface portion, and oriented such that an axis, that is normal to the upper surface portion, is disposed, relative to the axis that is normal to the planar surface portion, at an angle that is within a range, wherein the range is from 45 degrees to 135 degrees; the first coupling configuration counterpart, of the first panel, is configured for cooperation with the second coupling configuration counterpart, of the second panel, such that, in the assembled configuration, the first coupling configuration counterpart, of the first panel, is coupled to the second coupling configuration counterpart, of the second panel; and the first panel is configured for co-operation with the second panel such that, while the assembled configuration is established, the first coupling configuration counterpart, of the first panel, extends into the mounting bracket-receiving space, of the second panel, with effect that the upper surface portion, of the second panel, is concealed by the first coupling configuration counterpart, of the first panel. panel as claimed in claim 45, wherein: the first panel is configured for co-operation with the second panel such that, in the fastened panel assembly configuration, for each one of the first and second panels, independently, the planar surface portion defines a visible surface; and the planar surface portion defines a visual representation of a portion of an object. panel as claimed in claim 45 or 46, wherein: the first coupling configuration counterpart, of the first panel, is configured for cooperation with the second coupling configuration counterpart, of the second panel, such that the coupling is effectuated in response to snap-fit engagement between first coupling configuration counterpart, of the first panel, with the second coupling configuration counterpart, of the second panel.

48. A first panel and a second panel, wherein the first and second panels are co-operatively configured for coupling such that an assembled configuration is established, and wherein the first panel and the second panel are configured for co-operating with a wall, that defines a wall surface, and a fastener configuration for establishing a fastened panel assembly configuration, wherein, in the fastened panel assembly configuration, the assembled configuration is secured to the wall with the fastener configuration such that the assembled configuration covers at least a portion of a surface of the wall; wherein: the first panel includes a respective first coupling configuration counterpart; the second panel includes: a second coupling configuration counterpart; a front surface, wherein the front surface includes a visible planar surface portion that is oriented such that, while the fastened panel assembly configuration is established, an axis, that is normal to the respective planar surface portion, is disposed within five (5) degrees, relative to an axis that is normal to the wall surface; a mounting bracket-receiving space recessed into the visible planar surface portion of the second panel for receiving emplacement of a mounting bracket with effect that the mounting bracket becomes vertically supported by the second panel; a recess-defining surface, extending from spaced-apart upper and lower edges which defining the mounting bracket-receiving space, and including: a retaining surface configuration including a forwardly-disposed retaining surface portion and a rearwardly-disposed retaining surface portion; wherein: the forwardly-disposed retaining surface portion and the mounting bracket-receiving space are co-operatively configured such that, while the mounting bracket is disposed within the mounting bracket-receiving space such that the mounting bracket is supported by the second panel, displacement of the mounting bracket, relative to the second panel, in a forwardly direction that is normal to the wall, is opposed by the forwardly-disposed retaining surface portion; and the rearwardly-disposed retaining surface portion and the mounting bracket-receiving space are co-operatively configured such that, while the mounting bracket is disposed within the mounting bracket-receiving space such that the mounting bracket is supported by the second panel, displacement of the mounting bracket, relative to the second panel, in a rearwardly direction that is normal to the wall, is opposed by the rearwardly-disposed retaining surface portion; and an upper surface portion, extending from the upper edge to the forwardly-disposed retaining surface portion, and oriented such that an axis, that is normal to the upper surface portion, is disposed, relative to the axis that is normal to the planar surface portion, at an angle that is within a range, wherein the range is from 45 degrees to 135 degrees; the first coupling configuration counterpart, of the first panel, and the second coupling configuration counterpart, of the second panel, are co-operatively configured such that, in the assembled configuration, the first coupling configuration counterpart, of the first panel, is coupled to the second coupling configuration counterpart, of the second panel; and the first panel and the second panel are co-operatively configured such that, while the assembled configuration is established, the first coupling configuration counterpart, of the first panel, extends into the mounting bracket-receiving space, of the second panel, with effect that the upper surface portion, of the second panel, is concealed by the first coupling configuration counterpart, of the first panel. panel as claimed in claim 48, wherein: the first panel and the second panel are co-operatively configured such that, in the fastened panel assembly configuration, for each one of the first and second panels, independently, the respective planar surface portion defines a respective visible surface; and for each one of the first and second panels, independently, the respective planar surface portion defines a visual representation of a respective portion of an object. panel as claimed in claim 49, wherein: the first panel and the second panel are co-operatively configured such that, in the fastened panel assembly configuration, merger of the visual representations, of the planar surface portions, merge to establish a merged visual representation. panel as claimed in any one of claims 48 to 50, wherein; the first coupling configuration counterpart, of the first panel, is configured for cooperation with the second coupling configuration counterpart, of the second panel, such that the coupling is effectuated in response to snap-fit engagement between the first coupling configuration counterpart, of the first panel, with the second coupling configuration counterpart, of the second panel. it for producing a wall panel assembly, wherein the kit comprises: a plurality of panels; wherein: each one of the plurality of panels, independently, includes: a respective front surface; and a respective rear surface disposed, relative to the respective front surface, on an opposite side of the panel; wherein: the respective front surface includes a respective panel image-defining surface portion which defines a respective panel image, such that the plurality of panels define a plurality of panel image-defining surface portions; and the respective panel image defines a respective visual representation of a portion of an image; the panels are configured for coupling to one another for establishing a wall panel assembly comprising the panels, disposed in adjacent relationship to one another, in series such that at least one pair of adjacent panels is established within the wall panel assembly, wherein the panels are configured for co-operating with a wall and a fastener configuration, for establishing a fastened wall panel assembly configuration, wherein, in the fastened panel assembly configuration, the wall panel assembly is secured to the wall with the fastener configuration such that the wall panel assembly covers at least a portion of a surface of the wall and, for each one of the panels of the wall panel assembly, independently, the respective front surface defines a respective visible surface which defines the respective panel imagedefining surface portion, such that the wall panel assembly defines a wall panel assembly-defined visible surface, defined by the plurality of panel image-defining surface portions, such that the wall panel assembly-defined visible surface defines a visual representation of the entirety of the image; for each one of the plurality of panels, independently, the respective panel image-defining surface portion is oriented such that, while the fastened panel configuration is established, a respective axis, that is normal to the respective panel image-defining surface portion, is disposed within five (5) degrees, relative to an axis that is normal to the wall surface; each one of the panels, independently, further includes: a respective first coupling configuration counterpart; and a respective second coupling configuration counterpart; wherein: the respective first coupling configuration counterpart is configured to co-operate with the second coupling configuration counterpart of another one of the panels, and the respective second coupling configuration counterpart is configured to co-operate with the first coupling configuration counterpart of another one of the panels, such that, while the wall panel assembly is established, for each one of the at least one pair of adjacent panels, independently, the coupling between the adjacent panels is established based on the coupling of the first coupling configuration counterpart, of a one of the adjacent panels, and the second coupling configuration counterpart, of the other one of the adjacent panels; each one of the panels, independently, further includes: a respective mounting bracket-receiving space recessed into the respective panel image-defining surface portion for receiving emplacement of a mounting bracket with effect that the mounting bracket becomes vertically supported by the panel; a respective recess-defining surface, extending from respective spaced-apart upper and lower edges which define the respective mounting bracket-receiving space, and including: a respective retaining surface configuration including a respective forwardly-disposed retaining surface portion and a respective rearwardly-disposed retaining surface portion; wherein: the respective forwardly-disposed retaining surface portion and the respective mounting bracket-receiving space are co-operatively configured such that, while the mounting bracket is disposed within the respective mounting bracketreceiving space such that the mounting bracket is supported by the panel, displacement of the mounting bracket, relative to the panel, in a forwardly direction that is normal to the wall, is opposed by the respective forwardly-disposed retaining surface portion; and the respective rearwardly-disposed retaining surface portion and the respective mounting bracket-receiving space are co-operatively configured such that, while the mounting bracket is disposed within the respective mounting bracketreceiving space such that the mounting bracket is supported by the panel, displacement of the mounting bracket, relative to the panel, in a rearwardly direction that is normal to the wall, is opposed by the respective rearwardly-disposed retaining surface portion; and a respective upper surface portion, extending from the respective upper edge to the respective forwardly-disposed retaining surface portion, and oriented such that a respective axis, that is normal to the respective upper surface portion, is disposed, relative to the respective axis that is normal to the respective panel image-defining surface portion, at an angle that is within a range, wherein the range is from 45 degrees to 135 degrees; wherein: and for each one of the at least one pair of adjacent panels, independently, the first coupling configuration counterpart, of a one of the adjacent panels, extends into the mounting bracket-receiving space, of the other one of the adjacent panels, with effect that the upper surface portion, of the other one of the adjacent panels, is concealed by a concealing portion of the first coupling configuration counterpart, of the one of the adjacent panels. kit as claimed in claim 52, wherein: for each one of the plurality of panels, independently, the respective first coupling configuration counterpart is configured to co-operate with the second coupling configuration counterpart of another one of the panels, and the respective second coupling configuration counterpart is configured to co-operate with the first coupling configuration counterpart of another one of the panels, such that, while the wall panel assembly is established, for each one of the at least one pair of adjacent panels of the wall panel assembly, independently, the concealing portion of the first coupling configuration counterpart, of the one of the adjacent panels, defines a portion of the panel image-defining surface portion that is respective to the one of the adjacent panels. kit as claimed in claim 52 or 53, wherein: at least one of the wall panels is an incomplete object-defining wall panel; and for each one of the at least one incomplete object-defining wall panel, independently, the visual representation, defined by the respective panel image of the front-facing surface of the partial image-defining wall panel, includes a visual representation of a portion of an object only. kit as claimed in claim 54, wherein: the establishment of the wall panel assembly is with effect that visual representation of the object is completed, such that the wall panel assembly includes a visual representation of the entirety of the object.

56. The kit as claimed in any one of claims 52 to 55, wherein: for each one of the plurality of panels, independently, the respective panel imagedefining surface portion includes a planar surface portion.

57. The kit as claimed in any one of claims 52 to 56, wherein: for each one of the at least one pair of adjacent panels, independently, the coupling is effectuated in response to snap-fit engagement.

58. The kit as claimed in any one of claims 52 to 57, wherein: the panels are further configured for co-operating with the wall and the fastener configuration, such that, while the fastened wall panel assembly configuration is established, the fastener configuration is concealed by the wall panel assembly.

59. The kit as claimed in any one of claims 52 to 58, wherein: the panels are further configured for co-operating with the wall and the fastener configuration, such that, while the fastened wall panel assembly configuration is established, the panels are disposed in adjacent relationship to one another in a vertically-oriented series.

60. A wall panel assembly assembled from the kit as claimed in any one of claims 52 to 59.

61 . A panel configured for co-operating with a wall and a fastener configuration for establishing a fastened panel configuration, wherein, in the fastened panel configuration, the fastened panel is secured to the wall with the fastener configuration and covers at least a portion of a surface of the wall, wherein the panel comprises: a front surface; a rear surface disposed, relative to the front surface, on an opposite side of the panel; and a plurality of legs depending from the rear surface; wherein: for each one of the plurality of legs, independently, a respective enlarged foot is disposed at a terminal end of the leg and is co-operable with the wall surface such that, in the fastened panel configuration, the enlarged foot is disposed in abutting engagement with the wall surface. panel as claimed in claim 61 , wherein: for each one of the legs, independently: the respective enlarged foot defines an engagement surface portion, such that an engagement surface portion, that is respective to the leg, is defined; the abutting engagement is established between the engagement surface portion and the wall surface; the supporting leg defines a longitudinal axis and a maximum cross-sectional area whose normal axis, at a respective cross-section at which the respective maximum cross-sectional area is defined, is parallel to the longitudinal axis; and the total surface area of the respective engagement surface portion exceeds the maximum cross-sectional area of the respective supporting leg. panel as claimed in claim 62, wherein: for each one of the legs, independently, the total surface area of the respective engagement surface portion exceeds the maximum cross-sectional area of the respective supporting leg by at least 25%. panel as claimed in any one of claims 61 to 63, wherein: the front surface includes a planar surface portion. panel as claimed in claim 64, wherein: in the fastened panel configuration, the planar surface portion defines a visible surface. panel as claimed in claim 64 or claim 65, wherein: in the fastened panel configuration, the planar surface portion is oriented in a parallel relationship with the wall surface. panel as claimed in any one of claims 61 to 66, wherein: the panel is configured to define a first panel for coupling to a second panel such that an assembled configuration is established, and each one of the first and second panels, independently, comprises: a first coupling configuration counterpart; and a second coupling configuration counterpart; wherein: the first coupling configuration counterpart, that is respective to the first panel, is configured for coupling with the second coupling configuration counterpart, that is respective to the second panel, with effect that a first coupled configuration is established, and the second coupling configuration counterpart, that is respective to the first panel, is configured for coupling with the first coupling configuration counterpart, that is respective to the second panel, with effect that a second coupled configuration is established, wherein the establishing of either one of the first coupled configuration or the second coupled configuration establishes the assembled configuration. panel as claimed in claim 67, wherein: the first coupling configuration counterpart, that is respective to the first panel, and the second coupling configuration counterpart, that is respective to the second panel, are co-operatively configured such that, while the first coupled configuration is established:

(a) relative displacement between the first panel and the second panel, along an axis that is: (i) parallel to the wall surface, and (ii) perpendicular to the longitudinal axis of the first panel, is opposed; and

(b) relative displacement between the first panel and the second panel, along an axis that is parallel to an axis that is normal to the wall surface is opposed; and the second coupling configuration counterpart, that is respective to the first panel, and the first coupling configuration counterpart, that is respective to the second panel, are co-operatively configured such that, while the second coupled configuration is established: (a) relative displacement between the first panel and the second panel, along an axis that is: (i) parallel to the wall surface, and (ii) perpendicular to the longitudinal axis of the first panel, is opposed; and

(b) relative displacement between the first panel and the second panel, along an axis that is parallel to an axis that is normal to the wall surface is opposed.

69. The panel as claimed in claim 67 or claim 68, wherein: the coupling of the first coupling configuration counterpart, that is respective to the first panel, to the second coupling configuration counterpart, that is respective to the second panel, is effectuated in response to snap-fit engagement between first coupling configuration counterpart, that is respective to the first panel, with the second coupling configuration counterpart, that is respective to the second panel; and the coupling of the coupling of the second coupling configuration counterpart, that is respective to the first panel, to the first coupling configuration counterpart, that is respective to the second panel, is effectuated in response to snap-fit engagement between the coupling of the second coupling configuration counterpart, that is respective to the first panel, with the first coupling configuration counterpart, that is respective to the second panel.

70. A panel which is configured to define a first panel for coupling to a second panel, such that an assembled configuration is established, wherein the first panel is configured for cooperating with the second panel, a wall, and a fastener configuration for establishing a fastened panel assembly configuration, wherein, in the fastened panel assembly configuration, the assembled configuration is secured to the wall with the fastener configuration such that the assembled configuration covers at least a portion of a surface of the wall, and wherein the first panel is also configured for co-operating with the second panel for establishing a stacked configuration, wherein each one of the first and second panels, independently, comprises: a respective first coupling configuration counterpart; a respective second coupling configuration counterpart; and a respective upper mounting bracket-receiving space, recessed into a respective upper surface of the panel, for receiving emplacement of a mounting bracket with effect that the mounting bracket becomes vertically supported by the panel, wherein the respective upper mounting bracket-receiving space is defined within a respective upper receiving space-defining portion of the panel; a respective lower mounting bracket-receiving space, recessed into a respective lower surface of the panel, for receiving emplacement of a mounting bracket with effect that the mounting bracket becomes vertically supported by the panel, wherein the respective lower mounting bracket-receiving space is defined within a respective lower receiving space-defining portion of the panel; a respective intermediate space, defined between the respective upper receiving space-defining portion and the respective lower receiving space-defining portion of the panel, wherein the respective intermediate space is defined by a respective intermediate space-defining portion of the panel; wherein: the first coupling configuration counterpart, that is respective to the first panel, is configured for coupling with the second coupling configuration counterpart, that is respective to the second panel, with effect that a first coupled configuration is established, and the second coupling configuration counterpart, that is respective to the first panel, is configured for coupling with the first coupling configuration counterpart, that is respective to the second panel, with effect that a second coupled configuration is established, wherein the establishing of either one of the first coupled configuration or the second coupled configuration establishes the assembled configuration; and

(i) the first coupling configuration counterpart, that is respective to the first panel, is configured for co-operation with the upper receiving space-defining portion, that is respective to the second panel, such that a first nested configuration is established;

(ii) the upper receiving space-defining portion, that is respective to the first panel, is configured for co-operation with the first coupling configuration counterpart, that is respective to the second panel, such that a second nested configuration is established;

(iii) the intermediate space-defining portion, that is respective to the first panel, is configured for co-operation with the lower receiving space-defining portion, that is respective to the second panel, such that a third nested configuration is established; and

(iv) the lower receiving space-defining portion, that is respective to the first panel, is configured for co-operation with the intermediate space-defining portion, that is respective to the second panel, such that a fourth nested configuration is established; wherein the stacked configuration includes the first nested configuration, the second nested configuration, the third nested configuration, and the fourth nested configuration. panel as claimed in claim 70, wherein: the first coupling configuration counterpart, that is respective to the first panel, is configured for co-operation with the upper receiving space-defining portion, that is respective to the second panel, such that while the first nested configuration is established, the upper receiving space-defining portion, that is respective to the second panel, is nested within a cavity defined by the first coupling configuration counterpart, that is respective to the first panel; and the upper receiving space-defining portion, that is respective to the first panel, is configured for co-operation with the first coupling configuration counterpart, that is respective to the second panel, such that while the second nested configuration is established, the upper receiving space-defining portion, that is respective to the first panel, is nested within a cavity defined by the first coupling configuration counterpart, that is respective to the second panel; the intermediate space-defining portion, that is respective to the first panel, is configured for co-operation with the lower receiving space-defining portion, that is respective to the second panel, such that while third nested configuration is established, the lower receiving space-defining portion, that is respective to the second panel, is nested within a space defined by the intermediate space-defining portion, that is respective to the first panel; and the lower receiving space-defining portion, that is respective to the first panel, is configured for co-operation with the intermediate space-defining portion, that is respective to the second panel, such that a fourth nested configuration is established, the lower receiving space-defining portion, that is respective to the first panel, is nested within a space defined by the intermediate space-defining portion, that is respective to the second panel. panel as claimed in claim 70 or claim 71 , wherein: the first coupling configuration counterpart, that is respective to the first panel, and the second coupling configuration counterpart, that is respective to the second panel, are co-operatively configured such that, while the first coupled configuration is established:

(a) relative displacement between the first panel and the second panel, along an axis that is: (i) parallel to the wall surface, and (ii) perpendicular to the longitudinal axis of the first panel, is opposed; and

(b) relative displacement between the first panel and the second panel, along an axis that is parallel to an axis that is normal to the wall surface is opposed; and the second coupling configuration counterpart, that is respective to the first panel, and the first coupling configuration counterpart, that is respective to the second panel, are co-operatively configured such that, while the second coupled configuration is established:

(a) relative displacement between the first panel and the second panel, along an axis that is: (i) parallel to the wall surface, and (ii) perpendicular to the longitudinal axis of the first panel, is opposed; and

(b) relative displacement between the first panel and the second panel, along an axis that is parallel to an axis that is normal to the wall surface is opposed. panel as claimed in any one of claims 70 to 72, wherein; each one of the first and second panels, independently, further includes a respective front surface that includes a respective planar surface portion; the first panel is configured for co-operation with the second panel such that, in the stacked configuration, the planar surface portion of the first panel defines an outwardly facing surface of the stacked configuration and the planar surface portion of the second panel defines an outwardly facing surface of the stacked configuration.

74. The panel as claimed in claim 73, wherein: the first panel is configured for co-operation with the second panel such that, in the fastened panel assembly configuration, for each one of the first and second panels, independently, the respective planar surface portion defines a visible surface.

75. The panel as claimed in any one of claims 70 to 72, wherein: each one of the first and second panels, independently, further includes a respective front surface that includes a respective planar surface portion; and the first panel is configured for co-operation with the second panel such that, in the fastened panel assembly configuration, for each one of the first and second panels, independently, the respective planar surface portion defines a visible surface.

76. The panel as claimed in any one of claims 73 to 75, wherein: the first panel is configured for co-operation with the second panel such that, in the fastened panel assembly configuration, for each one of the first and second panels, the respective planar surface portion is oriented in a parallel relationship with the wall surface.

77. A kit for producing a wall panel assembly, wherein the kit comprises a plurality of panels, wherein each one of the plurality of panels, independently, is defined by the panel as claimed in any one of claims 70 to 76.

78. A panel which is configured to define a first panel for coupling to a second panel, such that an assembled configuration is established, wherein the first panel is configured for cooperating with the second panel, a wall, and a fastener configuration for establishing a fastened panel assembly configuration, wherein, in the fastened panel assembly configuration, the assembled configuration is secured to the wall with the fastener configuration such that the assembled configuration covers at least a portion of a surface of the wall, and wherein the first panel is also configured for co-operating with the second panel for establishing a stacked configuration; wherein: each one of the first and second panels, independently, comprises: a respective front surface; a respective rear surface disposed, relative to the respective front surface, on an opposite side of the panel; and a respective mounting bracket-receiving space, recessed into a respective surface of the panel, for receiving emplacement of a mounting bracket with effect that the mounting bracket becomes vertically supported by the panel, wherein the respective mounting bracket-receiving space is defined within a respective receiving spacedefining portion of the panel; the first panel is configured for co-operation with the second panel such that, in the stacked configuration: one of the first and second panels is an upper panel and the other one of the first and second panels is disposed below the upper panel such that the other one of the first and second panels is a lower panel; and the receiving space-defining portion, that is respective to the upper panel, is co-operable with the rear surface that is respective to the lower panel, such that, while the upper panel, to which the receiving space-defining portion is respective, is being urged in a downwardly direction by application, to the upper panel, of gravitational force only, the receiving space-defining portion is supported by the rear surface that is respective to the lower panel. panel as claimed in claim 78, wherein: the first panel is configured for co-operation with the second panel such that, in the stacked configuration: the rear surface, that is respective to the upper panel, is co-operable with the receiving space-defining portion that is respective to the lower panel, such that, while the upper panel, to which the rear surface is respective, is being urged in a downwardly direction by application, to the upper panel, of gravitational force only, the rear surface is supported by the receiving spacedefining portion that is respective to the lower panel. panel as claimed in claim 78 or claim 79, wherein: the urging in the downwardly direction by the application, to the upper panel, of the gravitational forces only, is by only the weight of the upper panel. panel as claimed in any one of claims 78 to 80, wherein: the gravitational force is defined exclusively by the weight of the upper panel. panel as claimed in any one of claims 78 to 81 , wherein: the urging of the upper panel in the downwardly direction is further effectuated by application, to the upper panel, of the weight of the atmosphere. panel as claimed in any one of claims 78 to 82, wherein: the first panel is configured for co-operation with the second panel such that, in the stacked configuration, the first and second panels are co-operatively disposed in a nested configuration. panel as claimed in any one of claims 78 to 83, wherein: each one of the first and second panels, independently, comprises: a respective first coupling configuration counterpart; and a respective second coupling configuration counterpart; wherein: the first coupling configuration counterpart, that is respective to the first panel, is configured for coupling with the second coupling configuration counterpart, that is respective to the second panel, with effect that a first coupled configuration is established, and the second coupling configuration counterpart, that is respective to the first panel, is configured for coupling with the first coupling configuration counterpart, that is respective to the second panel, with effect that a second coupled configuration is established, wherein the establishing of either one of the first coupled configuration or the second coupled configuration establishes the assembled configuration. panel as claimed in claim 84, wherein: the first coupling configuration counterpart, that is respective to the first panel, and the second coupling configuration counterpart, that is respective to the second panel, are co-operatively configured such that, while the first coupled configuration is established:

(a) relative displacement between the first panel and the second panel, along an axis that is: (i) parallel to the wall surface, and (ii) perpendicular to the longitudinal axis of the first panel, is opposed; and

(b) relative displacement between the first panel and the second panel, along an axis that is parallel to an axis that is normal to the wall surface is opposed; and the second coupling configuration counterpart, that is respective to the first panel, and the first coupling configuration counterpart, that is respective to the second panel, are co-operatively configured such that, while the second coupled configuration is established:

(a) relative displacement between the first panel and the second panel, along an axis that is: (i) parallel to the wall surface, and (ii) perpendicular to the longitudinal axis of the first panel, is opposed; and

(b) relative displacement between the first panel and the second panel, along an axis that is parallel to an axis that is normal to the wall surface is opposed. panel as claimed in claim 84 or claim 85, wherein: the coupling of the first coupling configuration counterpart, that is respective to the first panel, to the second coupling configuration counterpart, that is respective to the second panel, is effectuated in response to snap-fit engagement between first coupling configuration counterpart, that is respective to the first panel, with the second coupling configuration counterpart, that is respective to the second panel; and the coupling of the coupling of the second coupling configuration counterpart, that is respective to the first panel, to the first coupling configuration counterpart, that is respective to the second panel, is effectuated in response to snap-fit engagement between the coupling of the second coupling configuration counterpart, that is respective to the first panel, with the first coupling configuration counterpart, that is respective to the second panel.

87. The panel as claimed in any one of claims 78 to 86, wherein: for each one of the first and second panels, independently, the respective front surface includes a respective planar surface portion; the first panel is configured for co-operation with the second panel such that, in the stacked configuration, the planar surface portion of the first panel defines an outwardly facing surface of the stacked configuration and the planar surface portion of the second panel defines an outwardly facing surface of the stacked configuration.

88. The panel as claimed in claim 87, wherein: the first panel is configured for co-operation with the second panel such that, in the fastened panel assembly configuration, for each one of the first and second panels, independently, the respective planar surface portion defines a visible surface.

89. The panel as claimed in any one of claims 78 to 86, wherein: for each one of the first and second panels, independently, the respective front surface includes a respective planar surface portion; and the first panel is configured for co-operation with the second panel such that, in the fastened panel assembly configuration, for each one of the first and second panels, independently, the respective planar surface portion defines a visible surface.

90. The panel as claimed in any one of claims 87 to 89, wherein: the first panel is configured for co-operation with the second panel such that, in the fastened panel assembly configuration, for each one of the first and second panels, independently, the respective planar surface portion is oriented in a parallel relationship with the wall surface.

91 . A kit for producing a wall panel assembly, wherein the kit comprises a plurality of panels, wherein each one of the plurality of panels, independently, is defined by the panel as claimed in any one of claims 78 to 90.

92. A panel which is configured to define a first panel for coupling to a second panel, such that an assembled configuration is established, wherein the first panel is configured for cooperating with the second panel, a wall, and a fastener configuration for establishing a fastened panel assembly configuration, wherein, in the fastened panel assembly configuration, the assembled configuration is secured to the wall with the fastener configuration such that the assembled configuration covers at least a portion of a surface of the wall, and wherein the first panel is also configured for co-operating with the second panel for establishing a stacked configuration, wherein each one of the first and second panels, independently, comprises: a respective front surface; a respective rear surface disposed, relative to the respective front surface, on an opposite side of the panel; and a respective first coupling configuration counterpart; a respective second coupling configuration counterpart; and a respective upper mounting bracket-receiving space, recessed into a respective upper surface of the panel, for receiving emplacement of a mounting bracket with effect that the mounting bracket becomes vertically supported by the panel, wherein the respective upper mounting bracket-receiving space is defined within a respective upper receiving space-defining portion of the panel; a respective lower mounting bracket-receiving space, recessed into a respective lower surface of the panel, for receiving emplacement of a mounting bracket with effect that the mounting bracket becomes vertically supported by the panel, wherein the respective lower mounting bracket-receiving space is defined within a respective lower receiving space-defining portion of the panel; wherein: the first coupling configuration counterpart, that is respective to the first panel, is configured for coupling with the second coupling configuration counterpart, that is respective to the second panel, with effect that a first coupled configuration is established, and the second coupling configuration counterpart, that is respective to the first panel, is configured for coupling with the first coupling configuration counterpart, that is respective to the second panel, with effect that a second coupled configuration is established, wherein the establishing of either one of the first coupled configuration or the second coupled configuration establishes the assembled configuration; the first panel is configured for co-operation with the second panel such that, in the stacked configuration: one of the first and second panels is an upper panel and the other one of the first and second panels is disposed below the upper panel such that the other one of the first and second panels is a lower panel; the first coupling configuration counterpart, that is respective to the upper panel, is configured for co-operation with the upper receiving space-defining portion, that is respective to the lower panel, such that the upper receiving space-defining portion, that is respective to the lower panel, is nested within a cavity defined by the first coupling configuration counterpart, that is respective to the upper panel; the upper receiving space-defining portion, that is respective to the upper panel, is configured for co-operation with the first coupling configuration counterpart, that is respective to the lower panel, such that the upper receiving space-defining portion, that is respective to the upper panel, is nested within a cavity defined by the first coupling configuration counterpart, that is respective to the lower panel; the lower receiving space-defining portion, that is respective to the upper panel, is co-operable with the rear surface that is respective to the lower panel, such that, while the upper panel, to which the lower receiving space-defining portion is respective, is being urged in a downwardly direction by application, to the upper panel, of gravitational force only, the lower receiving space-defining portion is supported by the rear surface that is respective to the lower panel; and the rear surface, that is respective to the upper panel, is co-operable with the lower receiving space-defining portion that is respective to the lower panel, such that, while the upper panel, to which the rear surface is respective, is being urged in a downwardly direction by application, to the upper panel, of gravitational force only, the rear surface is supported by the lower receiving space-defining portion that is respective to the lower panel. panel as claimed in claim 92, wherein: the urging in the downwardly direction by the application, to the upper panel, of the gravitational forces only, is by only the weight of the upper panel. panel as claimed in claim 92 or claim 93, wherein: the gravitational force is defined exclusively by the weight of the upper panel. panel as claimed in any one of claims 92 to 94, wherein: the upper panel is further urged in the downwardly direction by application, to the upper panel, of the weight of the atmosphere. panel as claimed in any one of claims 92 to 95, wherein: the first panel is configured for co-operation with the second panel such that, in the stacked configuration, the first and second panels are co-operatively disposed in a nested configuration. panel as claimed in any one of claims 92 to 96, wherein: the first coupling configuration counterpart, that is respective to the first panel, and the second coupling configuration counterpart, that is respective to the second panel, are co-operatively configured such that, while the first coupled configuration is established:

(a) relative displacement between the first panel and the second panel, along an axis that is: (i) parallel to the wall surface, and (ii) perpendicular to the longitudinal axis of the first panel, is opposed; and

(b) relative displacement between the first panel and the second panel, along an axis that is parallel to an axis that is normal to the wall surface is opposed; and the second coupling configuration counterpart, that is respective to the first panel, and the first coupling configuration counterpart, that is respective to the second panel, are co-operatively configured such that, while the second coupled configuration is established:

(a) relative displacement between the first panel and the second panel, along an axis that is: (i) parallel to the wall surface, and (ii) perpendicular to the longitudinal axis of the first panel, is opposed; and (b) relative displacement between the first panel and the second panel, along an axis that is parallel to an axis that is normal to the wall surface is opposed. panel as claimed in any one of claims 92 to 97, wherein: the coupling of the first coupling configuration counterpart, that is respective to the first panel, to the second coupling configuration counterpart, that is respective to the second panel, is effectuated in response to snap-fit engagement between first coupling configuration counterpart, that is respective to the first panel, with the second coupling configuration counterpart, that is respective to the second panel; and the coupling of the coupling of the second coupling configuration counterpart, that is respective to the first panel, to the first coupling configuration counterpart, that is respective to the second panel, is effectuated in response to snap-fit engagement between the coupling of the second coupling configuration counterpart, that is respective to the first panel, with the first coupling configuration counterpart, that is respective to the second panel. panel as claimed in any one of claims 92 to 98, wherein; for each one of the first and second panels, independently, the respective front surface includes a respective planar surface portion; the first panel is configured for co-operation with the second panel such that, in the stacked configuration, the planar surface portion of the first panel defines an outwardly facing surface of the stacked configuration and the planar surface portion of the second panel defines an outwardly facing surface of the stacked configuration. The panel as claimed in claim 99, wherein: the first panel is configured for co-operation with the second panel such that, in the fastened panel assembly configuration, for each one of the first and second panels, independently, the respective planar surface portion defines a visible surface. The panel as claimed in any one of claims 92 to 98, wherein: for each one of the first and second panels, independently, the respective front surface includes a respective planar surface portion; and the first panel is configured for co-operation with the second panel such that, in the fastened panel assembly configuration, for each one of the first and second panels, independently, the respective planar surface portion defines a visible surface.

102. The panel as claimed in any one of claims 99 to 101 , wherein: the first panel is configured for co-operation with the second panel such that, in the fastened panel assembly configuration, for each one of the first and second panels, independently, the respective planar surface portion is oriented in a parallel relationship with the wall surface.

103. A kit for producing a wall panel assembly, wherein the kit comprises a plurality of panels, wherein each one of the plurality of panels, independently, is defined by the panel as claimed in any one of claims 92 to 102.

104. A panel which is configured to define a first panel for coupling to a second panel, such that an assembled configuration is established, wherein the first panel is configured for co-operating with the second panel, a wall, and a fastener configuration for establishing a fastened panel assembly configuration, wherein, in the fastened panel assembly configuration, the assembled configuration is secured to the wall with the fastener configuration such that the assembled configuration covers at least a portion of a surface of the wall, and wherein the first panel is also configured for co-operating with the second panel for establishing a stacked configuration, wherein each one of the first and second panels, independently, comprises: a respective front surface that includes a respective planar surface portion; wherein: the first panel is configured for co-operation with the second panel such that, in the stacked configuration: one of the first and second panels is an upper panel and the other one of the first and second panels is disposed below the upper panel such that the other one of the first and second panels is a lower panel, and such that the lower panel is supporting only the upper panel; the planar surface portion of the upper panel defines an upper outwardly facing surface of the stacked configuration and the planar surface portion of the lower panel defines a lower outwardly facing surface of the stacked configuration; and the upper outwardly facing surface, defined by the planar surface portion of the upper panel, has a normal axis that is perpendicular to a linear axis, and the lower outwardly facing surface, defined by the planar surface portion of the lower panel, has a normal axis that is perpendicular to the linear axis. The panel as claimed in claim 104, wherein: the linear axis is parallel to a longitudinal axis of the first panel. The panel as claimed in claim 104 or claim 105, wherein: the linear axis is parallel to a longitudinal axis of the second panel. The panel as claimed in claim 104, wherein: the linear axis is parallel to a lateral axis of the first panel. The panel as claimed in claim 104 or claim 107, wherein: the linear axis is parallel to a lateral axis of the second panel. The panel as claimed in any one of claims 104 to 108, wherein: the first panel is configured for co-operation with the second panel such that, in the stacked configuration, the upper outwardly facing surface and the lower outwardly facing surface are disposed in a parallel relationship. The panel as claimed in any one of claims 104 to 109, wherein: the supporting of the upper panel by the lower panel is a supporting of only the weight of the upper panel and the weight of the atmosphere. The panel as claimed in any one of claims 104 to 110, wherein: the supporting of the upper panel by the lower panel is effected while the only force being exerted on the upper panel is a combination of a gravitational force and the weight of the atmosphere. The panel as claimed in any one of claims 104 to 111 , wherein: the supporting of the upper panel by the lower panel is effected while there is an absence of application of a force, to the upper panel, other than a gravitational force and the weight of the atmosphere. The panel as claimed in any one of claims 104 to 112, wherein: the supporting of the upper panel by the lower panel is effected while a downward force, being applied to the upper panel, is exclusively being applied by a gravitational force and the weight of the atmosphere. The panel as claimed in any one of claims 104 to 113, wherein: the first panel is configured for co-operation with the second panel such that, in the fastened panel assembly configuration, for each one of the first and second panels, independently, the respective planar surface portion defines a visible surface. The panel as claimed in claim 114, wherein: the first panel is configured for co-operation with the second panel such that, in the fastened panel assembly configuration, for each one of the first and second panels, independently, the respective planar surface portion is oriented in a parallel relationship with the wall surface. The panel as claimed in any one of claims 104 to 115, wherein: the first panel is configured for co-operation with the second panel such that, in the stacked configuration, the first and second panels are co-operatively disposed in a nested configuration. The panel as claimed in any one of claims 104 to 116, wherein: each one of the first and second panels, independently, comprises: a respective first coupling configuration counterpart; and a respective second coupling configuration counterpart; wherein: the first coupling configuration counterpart, that is respective to the first panel, is configured for coupling with the second coupling configuration counterpart, that is respective to the second panel, with effect that a first coupled configuration is established, and the second coupling configuration counterpart, that is respective to the first panel, is configured for coupling with the first coupling configuration counterpart, that is respective to the second panel, with effect that a second coupled configuration is established, wherein the establishing of either one of the first coupled configuration or the second coupled configuration establishes the assembled configuration. The panel as claimed in claim 117, wherein: the first coupling configuration counterpart, that is respective to the first panel, and the second coupling configuration counterpart, that is respective to the second panel, are co-operatively configured such that, while the first coupled configuration is established:

(a) relative displacement between the first panel and the second panel, along an axis that is: (i) parallel to the wall surface, and (ii) perpendicular to the longitudinal axis of the first panel, is opposed; and

(b) relative displacement between the first panel and the second panel, along an axis that is parallel to an axis that is normal to the wall surface is opposed; and the second coupling configuration counterpart, that is respective to the first panel, and the first coupling configuration counterpart, that is respective to the second panel, are co-operatively configured such that, while the second coupled configuration is established:

(a) relative displacement between the first panel and the second panel, along an axis that is: (i) parallel to the wall surface, and (ii) perpendicular to the longitudinal axis of the first panel, is opposed; and

(b) relative displacement between the first panel and the second panel, along an axis that is parallel to an axis that is normal to the wall surface is opposed.

119. The panel as claimed in claim 117 or claim 118, wherein: the coupling of the first coupling configuration counterpart, that is respective to the first panel, to the second coupling configuration counterpart, that is respective to the second panel, is effectuated in response to snap-fit engagement between first coupling configuration counterpart, that is respective to the first panel, with the second coupling configuration counterpart, that is respective to the second panel; and the coupling of the coupling of the second coupling configuration counterpart, that is respective to the first panel, to the first coupling configuration counterpart, that is respective to the second panel, is effectuated in response to snap-fit engagement between the coupling of the second coupling configuration counterpart, that is respective to the first panel, with the first coupling configuration counterpart, that is respective to the second panel.

120. A kit for producing a wall panel assembly, wherein the kit comprises a plurality of panels, wherein each one of the plurality of panels, independently, is defined by the panel as claimed in any one of claims 104 to 119.

121 . A panel which is configured to define a first panel for coupling to a second panel, such that an assembled configuration is established, wherein the first panel is configured for co-operating with the second panel, a wall, and a fastener configuration for establishing a fastened panel assembly configuration, wherein, in the fastened panel assembly configuration, the assembled configuration is secured to the wall with the fastener configuration such that the assembled configuration covers at least a portion of a surface of the wall, and wherein the first panel is also configured for co-operating with the second panel for establishing a stacked configuration, wherein each one of the first and second panels, independently, comprises: a respective front surface a respective rear surface disposed, relative to the front surface, on an opposite side of the panel; and a respective leg, depending from the rear surface, wherein a respective enlarged foot is disposed at a terminal end of the leg; wherein: the first panel is configured for co-operation with the second panel such that, in the stacked configuration: one of the first and second panels is an upper panel and the other one of the first and second panels is disposed below the upper panel such that the other one of the first and second panels is a lower panel, and such that the lower panel is supporting only the upper panel; and the foot, that is respective to the upper panel, is co-operable with the rear surface that is respective to the lower panel, such that, the foot, that is respective to the upper panel, is being supported by the rear surface that is respective to the lower panel. The panel as claimed in claim 121 , wherein: the first panel is configured for co-operation with the second panel such that, in the stacked configuration: the rear surface, that is respective to the upper panel, is co-operable with the foot that is respective to the lower panel, such that, the rear surface, that is respective to the upper panel, is supported by the foot that is respective to the lower panel. The panel as claimed in claim 121 or claim 122, wherein: the supporting of the upper panel by the lower panel is a supporting of only the weight of the upper panel and the weight of the atmosphere. The panel as claimed in any one of claims 121 to claim 123, wherein: the supporting of the upper panel by the lower panel is effected while the only force being exerted on the upper panel is a combination of a gravitational force and the weight of the atmosphere. The panel as claimed in any one of claims 121 to 124, wherein: the supporting of the upper panel by the lower panel is effected while there is an absence of application of a force, to the upper panel, other than a gravitational force and the weight of the atmosphere. The panel as claimed in any one of claims 121 to 125, wherein: the supporting of the upper panel by the lower panel is effected while a downward force, being applied to the upper panel, is exclusively being applied by a gravitational force and the weight of the atmosphere. The panel as claimed in any one of claims 121 to 126, wherein: the first panel is configured for co-operation with the second panel such that, in the stacked configuration, the first and second panels are co-operatively disposed in a nested configuration. The panel as claimed in any one of claims 121 to 127, wherein: each one of the first and second panels, independently, comprises: a respective first coupling configuration counterpart; and a respective second coupling configuration counterpart; wherein: the first coupling configuration counterpart, that is respective to the first panel, is configured for coupling with the second coupling configuration counterpart, that is respective to the second panel, with effect that a first coupled configuration is established, and the second coupling configuration counterpart, that is respective to the first panel, is configured for coupling with the first coupling configuration counterpart, that is respective to the second panel, with effect that a second coupled configuration is established, wherein the establishing of either one of the first coupled configuration or the second coupled configuration establishes the assembled configuration. The panel as claimed in claim 128, wherein: the first coupling configuration counterpart, that is respective to the first panel, and the second coupling configuration counterpart, that is respective to the second panel, are co-operatively configured such that, while the first coupled configuration is established: (a) relative displacement between the first panel and the second panel, along an axis that is: (i) parallel to the wall surface, and (ii) perpendicular to the longitudinal axis of the first panel, is opposed; and

(b) relative displacement between the first panel and the second panel, along an axis that is parallel to an axis that is normal to the wall surface is opposed; and the second coupling configuration counterpart, that is respective to the first panel, and the first coupling configuration counterpart, that is respective to the second panel, are co-operatively configured such that, while the second coupled configuration is established:

(a) relative displacement between the first panel and the second panel, along an axis that is: (i) parallel to the wall surface, and (ii) perpendicular to the longitudinal axis of the first panel, is opposed; and

(b) relative displacement between the first panel and the second panel, along an axis that is parallel to an axis that is normal to the wall surface is opposed. The panel as claimed in claim 128 or claim 129, wherein: the coupling of the first coupling configuration counterpart, that is respective to the first panel, to the second coupling configuration counterpart, that is respective to the second panel, is effectuated in response to snap-fit engagement between first coupling configuration counterpart, that is respective to the first panel, with the second coupling configuration counterpart, that is respective to the second panel; and the coupling of the coupling of the second coupling configuration counterpart, that is respective to the first panel, to the first coupling configuration counterpart, that is respective to the second panel, is effectuated in response to snap-fit engagement between the coupling of the second coupling configuration counterpart, that is respective to the first panel, with the first coupling configuration counterpart, that is respective to the second panel.

131 . The panel as claimed in any one of claims 121 to 130, wherein: for each one of the first and second panels, independently, the respective front surface includes a respective planar surface portion; the first panel is configured for co-operation with the second panel such that, in the stacked configuration, the planar surface portion of the first panel defines an outwardly facing surface of the stacked configuration and the planar surface portion of the second panel defines an outwardly facing surface of the stacked configuration.

132. The panel as claimed in claim 131 , wherein: the first panel is configured for co-operation with the second panel such that, in the fastened panel assembly configuration, for each one of the first and second panels, independently, the respective planar surface portion defines a visible surface.

133. The panel as claimed in any one of claims 121 to 130, wherein: for each one of the first and second panels, independently, the respective front surface includes a respective planar surface portion; and the first panel is configured for co-operation with the second panel such that, in the fastened panel assembly configuration, for each one of the first and second panels, independently, the respective planar surface portion defines a visible surface.

134. The panel as claimed in any one of claims 131 to 133, wherein: the first panel is configured for co-operation with the second panel such that, in the fastened panel assembly configuration, for each one of the first and second panels, independently, the respective planar surface portion is oriented in a parallel relationship with the wall surface.

135. A kit for producing a wall panel assembly, wherein the kit comprises a plurality of panels, wherein each one of the plurality of panels, independently, is defined by the panel as claimed in any one of claims 121 to 134.

Description:
Stackable Panels for a Wall Panel Assembly

FIELD

[0001] The present disclosure relates to a panel of a wall panel assembly, and in particular, panels of the wall panel assembly that are stackable.

BACKGROUND

[0002] Costs for transportation of goods, such as wall panels, to the marketplace can be significant. It would be meaningful to reduce such costs so that such goods are not cost prohibitive in the marketplace.

SUMMARY

[0003] In one aspect, there is provided a panel which is configured to define a first panel for coupling to a second panel, such that an assembled configuration is established, wherein the first panel is configured for co-operating with the second panel, a wall, and a fastener configuration for establishing a fastened panel assembly configuration, wherein, in the fastened panel assembly configuration, the assembled configuration is secured to the wall with the fastener configuration such that the assembled configuration covers at least a portion of a surface of the wall, and wherein the first panel is also configured for co-operating with the second panel for establishing a stacked configuration, wherein each one of the first and second panels, independently, comprises: a respective first coupling configuration counterpart; a respective second coupling configuration counterpart; and a respective mounting bracket-receiving space, recessed into a respective surface of the panel, for receiving emplacement of a mounting bracket with effect that the mounting bracket becomes vertically supported by the panel, wherein the respective mounting bracket-receiving space is defined within a respective receiving space-defining portion of the panel; wherein: the first coupling configuration counterpart, that is respective to the first panel, is configured for coupling with the second coupling configuration counterpart, that is respective to the second panel, with effect that a first coupled configuration is established, and the second coupling configuration counterpart, that is respective to the first panel, is configured for coupling with the first coupling configuration counterpart, that is respective to the second panel, with effect that a second coupled configuration is established, wherein the establishing of either one of the first coupled configuration or the second coupled configuration establishes the assembled configuration; and the first coupling configuration counterpart, that is respective to the first panel, is configured for co-operation with the receiving space-defining portion, that is respective to the second panel, such that a first nested configuration is established, and the receiving space-defining portion, that is respective to the first panel, is configured for cooperation with the first coupling configuration counterpart, that is respective to the second panel, such that a second nested configuration is established, wherein the stacked configuration includes the first nested configuration and the second nested configuration.

[0004] In another aspect, there is provided a panel which is configured to define a first panel for coupling to a second panel, such that an assembled configuration is established, wherein the first panel is configured for co-operating with the second panel, a wall, and a fastener configuration for establishing a fastened panel assembly configuration, wherein, in the fastened panel assembly configuration, the assembled configuration is secured to the wall with the fastener configuration such that the assembled configuration covers at least a portion of a surface of the wall, and wherein the first panel is also configured for co-operating with the second panel for establishing a stacked configuration, wherein: the first panel is configured for co-operation with the second panel such that, in the stacked configuration, the first and second panels are co-operatively disposed in a nested relationship, and the first and second panels are offset relative to one another by a minimum distance of less than 1 inch.

[0005] In another aspect, there is provided a panel which is configured to define a first panel for coupling to a second panel, such that an assembled configuration is established, wherein the first panel is configured for co-operating with the second panel, a wall, and a fastener configuration for establishing a fastened panel assembly configuration, wherein, in the fastened panel assembly configuration, the assembled configuration is secured to the wall with the fastener configuration such that the assembled configuration covers at least a portion of a surface of the wall, and wherein the first panel is also configured for co-operating with the second panel for establishing a stacked configuration; wherein: each one of the first and second panels, independently, comprises: a respective front surface; a respective rear surface disposed, relative to the respective front surface, on an opposite side of the panel; and a respective plurality of legs depending from the rear surface; the first panel is configured for co-operation with the second panel such that, in the stacked configuration: the first and second panels are co-operatively disposed in a nested relationship; one of the first and second panels is an upper panel and the other one of the first and second panels is disposed below the upper panel such that the other one of the first and second panels is a lower panel; and for each one of the legs, that are respective to the upper panel, independently, the leg is co-operable with the rear surface that is respective to the lower panel, such that, while the upper panel, to which the leg is respective, is being urged in a downwardly direction by application, to the upper panel, of gravitational force only, the leg is supported by the rear surface that is respective to the lower panel. [0006] In another aspect, there is provided a panel which is configured to define a first panel for coupling to a second panel for establishing an assembled configuration, wherein the first panel is configured for co-operating with the second panel, a wall that defines a wall surface, and a fastener configuration for establishing a fastened panel assembly configuration, wherein, in the fastened panel assembly configuration, the assembled configuration is secured to the wall with the fastener configuration such that the assembled configuration covers at least a portion of a surface of the wall; wherein: the first panel includes a respective first coupling configuration counterpart; the second panel includes: a second coupling configuration counterpart; a front surface, wherein the front surface includes a visible planar surface portion that is oriented such that, while the fastened panel assembly configuration is established, an axis, that is normal to the respective planar surface portion, is disposed within five (5) degrees, relative to an axis that is normal to the wall surface; a mounting bracket-receiving space recessed into the visible planar surface portion of the second panel for receiving emplacement of a mounting bracket with effect that the mounting bracket becomes vertically supported by the second panel; a recess-defining surface, extending from spaced-apart upper and lower edges for defining the mounting bracketreceiving receiving space, and including: a retaining surface configuration including a forwardly-disposed retaining surface portion and a rearwardly-disposed retaining surface portion; wherein: the forwardly-disposed retaining surface portion and the mounting bracketreceiving space are co-operatively configured such that, while the mounting bracket is disposed within the mounting bracket-receiving space such that the mounting bracket is supported by the second panel, displacement of the mounting bracket, relative to the second panel, in a forwardly direction that is normal to the wall, is opposed by the forwardly- disposed retaining surface portion; and the rearwardly-disposed retaining surface portion and the mounting bracket-receiving space are co-operatively configured such that, while the mounting bracket is disposed within the mounting bracket-receiving space such that the mounting bracket is supported by the second panel, displacement of the mounting bracket, relative to the second panel, in a rearwardly direction that is normal to the wall, is opposed by the rearwardly-disposed retaining surface portion; and an upper surface portion, extending from the upper edge to the forwardly-disposed retaining surface portion, and oriented such that an axis, that is normal to the upper surface portion, is disposed, relative to the axis that is normal to the planar surface portion, at an angle that is within a range, wherein the range is from 45 degrees to 135 degrees; the first coupling configuration counterpart, of the first panel, is configured for co-operation with the second coupling configuration counterpart, of the second panel, such that, in the assembled configuration, the first coupling configuration counterpart, of the first panel, is coupled to the second coupling configuration counterpart, of the second panel; and the first panel is configured for co- operation with the second panel such that, while the assembled configuration is established, the first coupling configuration counterpart, of the first panel, extends into the mounting bracket-receiving space, of the second panel, with effect that the upper surface portion, of the second panel, is concealed by the first coupling configuration counterpart, of the first panel.

[0007] In another aspect, there is provided a first panel and a second panel, wherein the first and second panels are co-operatively configured for coupling such that an assembled configuration is established, and wherein the first panel and the second panel are configured for co-operating with a wall, that defines a wall surface, and a fastener configuration for establishing a fastened panel assembly configuration, wherein, in the fastened panel assembly configuration, the assembled configuration is secured to the wall with the fastener configuration such that the assembled configuration covers at least a portion of a surface of the wall; wherein: the first panel includes a respective first coupling configuration counterpart; the second panel includes: a second coupling configuration counterpart; a front surface, wherein the front surface includes a visible planar surface portion that is oriented such that, while the fastened panel assembly configuration is established, an axis, that is normal to the respective planar surface portion, is disposed within five (5) degrees, relative to an axis that is normal to the wall surface; a mounting bracket-receiving space recessed into the visible planar surface portion of the second panel for receiving emplacement of a mounting bracket with effect that the mounting bracket becomes vertically supported by the second panel; a recess-defining surface, extending from spaced-apart upper and lower edges which defining the mounting bracket-receiving space, and including: a retaining surface configuration including a forwardly-disposed retaining surface portion and a rearwardly-disposed retaining surface portion; wherein: the forwardly-disposed retaining surface portion and the mounting bracket-receiving space are co-operatively configured such that, while the mounting bracket is disposed within the mounting bracket-receiving space such that the mounting bracket is supported by the second panel, displacement of the mounting bracket, relative to the second panel, in a forwardly direction that is normal to the wall, is opposed by the forwardly-disposed retaining surface portion; and the rearwardly- disposed retaining surface portion and the mounting bracket-receiving space are cooperatively configured such that, while the mounting bracket is disposed within the mounting bracket-receiving space such that the mounting bracket is supported by the second panel, displacement of the mounting bracket, relative to the second panel, in a rearwardly direction that is normal to the wall, is opposed by the rearwardly-disposed retaining surface portion; and an upper surface portion, extending from the upper edge to the forwardly-disposed retaining surface portion, and oriented such that an axis, that is normal to the upper surface portion, is disposed, relative to the axis that is normal to the planar surface portion, at an angle that is within a range, wherein the range is from 45 degrees to 135 degrees; the first coupling configuration counterpart, of the first panel, and the second coupling configuration counterpart, of the second panel, are co-operatively configured such that, in the assembled configuration, the first coupling configuration counterpart, of the first panel, is coupled to the second coupling configuration counterpart, of the second panel; and the first panel and the second panel are co-operatively configured such that, while the assembled configuration is established, the first coupling configuration counterpart, of the first panel, extends into the mounting bracket-receiving space, of the second panel, with effect that the upper surface portion, of the second panel, is concealed by the first coupling configuration counterpart, of the first panel.

[0008] In another aspect, there is provided a kit for producing a wall panel assembly, wherein the kit comprises: a plurality of panels; wherein: each one of the plurality of panels, independently, includes: a respective front surface; and a respective rear surface disposed, relative to the respective front surface, on an opposite side of the panel; wherein: the respective front surface includes a respective panel image-defining surface portion which defines a respective panel image, such that the plurality of panels define a plurality of panel image-defining surface portions; and the respective panel image defines a respective visual representation of a portion of an image; the panels are configured for coupling to one another for establishing a wall panel assembly comprising the panels, disposed in adjacent relationship to one another, in series such that at least one pair of adjacent panels is established within the wall panel assembly, wherein the panels are configured for cooperating with a wall and a fastener configuration, for establishing a fastened wall panel assembly configuration, wherein, in the fastened panel assembly configuration, the wall panel assembly is secured to the wall with the fastener configuration such that the wall panel assembly covers at least a portion of a surface of the wall and, for each one of the panels of the wall panel assembly, independently, the respective front surface defines a respective visible surface which defines the respective panel image-defining surface portion, such that the wall panel assembly defines a wall panel assembly-defined visible surface, defined by the plurality of panel image-defining surface portions, such that the wall panel assembly- defined visible surface defines a visual representation of the entirety of the image; for each one of the plurality of panels, independently, the respective panel image-defining surface portion is oriented such that, while the fastened panel configuration is established, a respective axis, that is normal to the respective panel image-defining surface portion, is disposed within five (5) degrees, relative to an axis that is normal to the wall surface; each one of the panels, independently, further includes: a respective first coupling configuration counterpart; and a respective second coupling configuration counterpart; wherein: the respective first coupling configuration counterpart is configured to co-operate with the second coupling configuration counterpart of another one of the panels, and the respective second coupling configuration counterpart is configured to co-operate with the first coupling configuration counterpart of another one of the panels, such that, while the wall panel assembly is established, for each one of the at least one pair of adjacent panels, independently, the coupling between the adjacent panels is established based on the coupling of the first coupling configuration counterpart, of a one of the adjacent panels, and the second coupling configuration counterpart, of the other one of the adjacent panels; each one of the panels, independently, further includes: a respective mounting bracket- receiving space recessed into the respective panel image-defining surface portion for receiving emplacement of a mounting bracket with effect that the mounting bracket becomes vertically supported by the panel; a respective recess-defining surface, extending from respective spaced-apart upper and lower edges which define the respective mounting bracket-receiving space, and including: a respective retaining surface configuration including a respective forwardly-disposed retaining surface portion and a respective rearwardly-disposed retaining surface portion; wherein: the respective forwardly-disposed retaining surface portion and the respective mounting bracket-receiving space are co-operatively configured such that, while the mounting bracket is disposed within the respective mounting bracket-receiving space such that the mounting bracket is supported by the panel, displacement of the mounting bracket, relative to the panel, in a forwardly direction that is normal to the wall, is opposed by the respective forwardly-disposed retaining surface portion; and the respective rearwardly- disposed retaining surface portion and the respective mounting bracket-receiving space are co-operatively configured such that, while the mounting bracket is disposed within the respective mounting bracket-receiving space such that the mounting bracket is supported by the panel, displacement of the mounting bracket, relative to the panel, in a rearwardly direction that is normal to the wall, is opposed by the respective rearwardly-disposed retaining surface portion; and a respective upper surface portion, extending from the respective upper edge to the respective forwardly-disposed retaining surface portion, and oriented such that a respective axis, that is normal to the respective upper surface portion, is disposed, relative to the respective axis that is normal to the respective panel image-defining surface portion, at an angle that is within a range, wherein the range is from 45 degrees to 135 degrees; wherein: and for each one of the at least one pair of adjacent panels, independently, the first coupling configuration counterpart, of a one of the adjacent panels, extends into the mounting bracket-receiving space, of the other one of the adjacent panels, with effect that the upper surface portion, of the other one of the adjacent panels, is concealed by a concealing portion of the first coupling configuration counterpart, of the one of the adjacent panels.

[0009] In another aspect, there is provided a panel configured for co-operating with a wall and a fastener configuration for establishing a fastened panel configuration, wherein, in the fastened panel configuration, the fastened panel is secured to the wall with the fastener configuration and covers at least a portion of a surface of the wall, wherein the panel comprises: a front surface; a rear surface disposed, relative to the front surface, on an opposite side of the panel; and a plurality of legs depending from the rear surface; wherein: for each one of the plurality of legs, independently, a respective enlarged foot is disposed at a terminal end of the leg and is co-operable with the wall surface such that, in the fastened panel configuration, the enlarged foot is disposed in abutting engagement with the wall surface.

[0010] In another aspect, there is provided a panel which is configured to define a first panel for coupling to a second panel, such that an assembled configuration is established, wherein the first panel is configured for co-operating with the second panel, a wall, and a fastener configuration for establishing a fastened panel assembly configuration, wherein, in the fastened panel assembly configuration, the assembled configuration is secured to the wall with the fastener configuration such that the assembled configuration covers at least a portion of a surface of the wall, and wherein the first panel is also configured for co-operating with the second panel for establishing a stacked configuration, wherein each one of the first and second panels, independently, comprises: a respective first coupling configuration counterpart; a respective second coupling configuration counterpart; and a respective upper mounting bracket-receiving space, recessed into a respective upper surface of the panel, for receiving emplacement of a mounting bracket with effect that the mounting bracket becomes vertically supported by the panel, wherein the respective upper mounting bracket-receiving space is defined within a respective upper receiving space-defining portion of the panel; a respective lower mounting bracket- receiving space, recessed into a respective lower surface of the panel, for receiving emplacement of a mounting bracket with effect that the mounting bracket becomes vertically supported by the panel, wherein the respective lower mounting bracket-receiving space is defined within a respective lower receiving space-defining portion of the panel; a respective intermediate space, defined between the respective upper receiving space-defining portion and the respective lower receiving space-defining portion of the panel, wherein the respective intermediate space is defined by a respective intermediate space-defining portion of the panel; wherein: the first coupling configuration counterpart, that is respective to the first panel, is configured for coupling with the second coupling configuration counterpart, that is respective to the second panel, with effect that a first coupled configuration is established, and the second coupling configuration counterpart, that is respective to the first panel, is configured for coupling with the first coupling configuration counterpart, that is respective to the second panel, with effect that a second coupled configuration is established, wherein the establishing of either one of the first coupled configuration or the second coupled configuration establishes the assembled configuration; and (i) the first coupling configuration counterpart, that is respective to the first panel, is configured for co-operation with the upper receiving space-defining portion, that is respective to the second panel, such that a first nested configuration is established; (ii) the upper receiving space-defining portion, that is respective to the first panel, is configured for cooperation with the first coupling configuration counterpart, that is respective to the second panel, such that a second nested configuration is established; (iii) the intermediate spacedefining portion, that is respective to the first panel, is configured for co-operation with the lower receiving space-defining portion, that is respective to the second panel, such that a third nested configuration is established; and (iv) the lower receiving space-defining portion, that is respective to the first panel, is configured for co-operation with the intermediate space-defining portion, that is respective to the second panel, such that a fourth nested configuration is established; wherein the stacked configuration includes the first nested configuration, the second nested configuration, the third nested configuration, and the fourth nested configuration.

[0011] In another aspect, there is provided a panel which is configured to define a first panel for coupling to a second panel, such that an assembled configuration is established, wherein the first panel is configured for co-operating with the second panel, a wall, and a fastener configuration for establishing a fastened panel assembly configuration, wherein, in the fastened panel assembly configuration, the assembled configuration is secured to the wall with the fastener configuration such that the assembled configuration covers at least a portion of a surface of the wall, and wherein the first panel is also configured for co-operating with the second panel for establishing a stacked configuration; wherein: each one of the first and second panels, independently, comprises: a respective front surface; a respective rear surface disposed, relative to the respective front surface, on an opposite side of the panel; and a respective mounting bracket-receiving space, recessed into a respective surface of the panel, for receiving emplacement of a mounting bracket with effect that the mounting bracket becomes vertically supported by the panel, wherein the respective mounting bracket-receiving space is defined within a respective receiving space-defining portion of the panel; the first panel is configured for co-operation with the second panel such that, in the stacked configuration: one of the first and second panels is an upper panel and the other one of the first and second panels is disposed below the upper panel such that the other one of the first and second panels is a lower panel; and the receiving space-defining portion, that is respective to the upper panel, is co-operable with the rear surface that is respective to the lower panel, such that, while the upper panel, to which the receiving space-defining portion is respective, is being urged in a downwardly direction by application, to the upper panel, of gravitational force only, the receiving space-defining portion is supported by the rear surface that is respective to the lower panel.

[0012] In another aspect, there is provided a panel which is configured to define a first panel for coupling to a second panel, such that an assembled configuration is established, wherein the first panel is configured for co-operating with the second panel, a wall, and a fastener configuration for establishing a fastened panel assembly configuration, wherein, in the fastened panel assembly configuration, the assembled configuration is secured to the wall with the fastener configuration such that the assembled configuration covers at least a portion of a surface of the wall, and wherein the first panel is also configured for co-operating with the second panel for establishing a stacked configuration, wherein each one of the first and second panels, independently, comprises: a respective front surface; a respective rear surface disposed, relative to the respective front surface, on an opposite side of the panel; and a respective first coupling configuration counterpart; a respective second coupling configuration counterpart; and a respective upper mounting bracket-receiving space, recessed into a respective upper surface of the panel, for receiving emplacement of a mounting bracket with effect that the mounting bracket becomes vertically supported by the panel, wherein the respective upper mounting bracket-receiving space is defined within a respective upper receiving space-defining portion of the panel; a respective lower mounting bracket-receiving space, recessed into a respective lower surface of the panel, for receiving emplacement of a mounting bracket with effect that the mounting bracket becomes vertically supported by the panel, wherein the respective lower mounting bracket-receiving space is defined within a respective lower receiving space-defining portion of the panel; wherein: the first coupling configuration counterpart, that is respective to the first panel, is configured for coupling with the second coupling configuration counterpart, that is respective to the second panel, with effect that a first coupled configuration is established, and the second coupling configuration counterpart, that is respective to the first panel, is configured for coupling with the first coupling configuration counterpart, that is respective to the second panel, with effect that a second coupled configuration is established, wherein the establishing of either one of the first coupled configuration or the second coupled configuration establishes the assembled configuration; the first panel is configured for co-operation with the second panel such that, in the stacked configuration: one of the first and second panels is an upper panel and the other one of the first and second panels is disposed below the upper panel such that the other one of the first and second panels is a lower panel; the first coupling configuration counterpart, that is respective to the upper panel, is configured for co-operation with the upper receiving space-defining portion, that is respective to the lower panel, such that the upper receiving space-defining portion, that is respective to the lower panel, is nested within a cavity defined by the first coupling configuration counterpart, that is respective to the upper panel; the upper receiving space-defining portion, that is respective to the upper panel, is configured for co-operation with the first coupling configuration counterpart, that is respective to the lower panel, such that the upper receiving space-defining portion, that is respective to the upper panel, is nested within a cavity defined by the first coupling configuration counterpart, that is respective to the lower panel; the lower receiving space-defining portion, that is respective to the upper panel, is co-operable with the rear surface that is respective to the lower panel, such that, while the upper panel, to which the lower receiving spacedefining portion is respective, is being urged in a downwardly direction by application, to the upper panel, of gravitational force only, the lower receiving space-defining portion is supported by the rear surface that is respective to the lower panel; and the rear surface, that is respective to the upper panel, is co-operable with the lower receiving space-defining portion that is respective to the lower panel, such that, while the upper panel, to which the rear surface is respective, is being urged in a downwardly direction by application, to the upper panel, of gravitational force only, the rear surface is supported by the lower receiving space-defining portion that is respective to the lower panel.

[0013] In another aspect, there is provided a panel which is configured to define a first panel for coupling to a second panel, such that an assembled configuration is established, wherein the first panel is configured for co-operating with the second panel, a wall, and a fastener configuration for establishing a fastened panel assembly configuration, wherein, in the fastened panel assembly configuration, the assembled configuration is secured to the wall with the fastener configuration such that the assembled configuration covers at least a portion of a surface of the wall, and wherein the first panel is also configured for co-operating with the second panel for establishing a stacked configuration, wherein each one of the first and second panels, independently, comprises: a respective front surface that includes a respective planar surface portion; wherein: the first panel is configured for co-operation with the second panel such that, in the stacked configuration: one of the first and second panels is an upper panel and the other one of the first and second panels is disposed below the upper panel such that the other one of the first and second panels is a lower panel, and such that the lower panel is supporting only the upper panel; the planar surface portion of the upper panel defines an upper outwardly facing surface of the stacked configuration and the planar surface portion of the lower panel defines a lower outwardly facing surface of the stacked configuration; and the upper outwardly facing surface, defined by the planar surface portion of the upper panel, has a normal axis that is perpendicular to a linear axis, and the lower outwardly facing surface, defined by the planar surface portion of the lower panel, has a normal axis that is perpendicular to the linear axis.

[0014] In another aspect, there is provided a panel which is configured to define a first panel for coupling to a second panel, such that an assembled configuration is established, wherein the first panel is configured for co-operating with the second panel, a wall, and a fastener configuration for establishing a fastened panel assembly configuration, wherein, in the fastened panel assembly configuration, the assembled configuration is secured to the wall with the fastener configuration such that the assembled configuration covers at least a portion of a surface of the wall, and wherein the first panel is also configured for co-operating with the second panel for establishing a stacked configuration, wherein each one of the first and second panels, independently, comprises: a respective front surface a respective rear surface disposed, relative to the front surface, on an opposite side of the panel; and a respective leg, depending from the rear surface, wherein a respective enlarged foot is disposed at a terminal end of the leg; wherein: the first panel is configured for co-operation with the second panel such that, in the stacked configuration: one of the first and second panels is an upper panel and the other one of the first and second panels is disposed below the upper panel such that the other one of the first and second panels is a lower panel, and such that the lower panel is supporting only the upper panel; and the foot, that is respective to the upper panel, is co-operable with the rear surface that is respective to the lower panel, such that, the foot, that is respective to the upper panel, is being supported by the rear surface that is respective to the lower panel.

[0015] Other aspects will be apparent from the description and drawings provided herein.

BRIEF DESCRIPTION OF DRAWINGS

[0016] In the figures, which illustrate example embodiments,

[0017] Figure 1 is a side view of an example embodiment of a panel;

[0018] Figure 2 is a side view of the panel of Figure 1 , identical to the view illustrated in Figure 1 , and illustrating a fastener having penetrated the fastener receiving portion;

[0019] Figure 3 is a side view of an example embodiment of an assembled configuration of two adjacent ones of the panel of Figure 1 ; [0020] Figure 4 is a side view of an example embodiment of a stacked configuration of two of the panels of Figure 1 ; and

[0021] Figure 5 is a side view of the panel of Figure 1 , identical to the view illustrated in Figure 1 , and identifying components of one panel that are effective for concealing a component of another panel;

[0022] Figure 6 is a front perspective view of an embodiment of a fastened panel assembly, secured to a wall, and depicting an image;

[0023] Figures 7A-G are schematic illustrations of an embodiment of an assembly of an assembled configuration of two adjacent ones of the panel of Figure 1 ;

[0024] Figure 8 is a side view of the panel of Figure 1 , identical to the view illustrated in Figure 1 , and identifying components of the first coupling configuration counterpart and the second coupling configuration counterpart;

[0025] Figure 9 is a side view of another example embodiment of a panel;

[0026] Figure 10 is a side view of the panel of Figure 9, identical to the view illustrated in Figure 9, and illustrating a fastener having penetrated the fastener receiving portion;

[0027] Figure 11 is a side view of an example embodiment of an assembled configuration of two adjacent ones of the panel of Figure 9;

[0028] Figure 12 is a side view of an example embodiment of a stacked configuration of two of the panels of Figure 9;

[0029] Figure 13 is a side view of the panel of Figure 9, identical to the view illustrated in Figure 9, and identifying components of the first coupling configuration counterpart and the second coupling configuration counterpart;

[0030] Figure 14 is a side view of the assembled configuration of Figure 11 , and illustrating an end trim connected to one of the panels of the assembled configuration;

[0031] Figures 15A-15B are schematic illustrations of an embodiment of an assembly of an assembled configuration of two adjacent ones of the panel of Figure 9;

[0032] Figure 16 is a side view of another example embodiment of a panel; [0033] Figure 17 is a side view of an example embodiment of an assembled configuration of two adjacent ones of the panel of Figure 16; and

[0034] Figure 18 is a side view of an example embodiment of a stacked configuration of two of the panels of Figure 16.

DETAILED DESCRIPTION

[0035] Figure 1 , 2, 3, 4, and 5, illustrate an embodiment of a panel 100 for covering at least a portion of a surface of a wall 10. The panel 100 is configured for coupling to the wall 10 with a fastener configuration 400, such that the covering of at least a portion of a surface 12 of the wall 10 is effectuated.

[0036] In some embodiments, for example, the panel 100 is configured to define a first panel 100 for coupling to a second panel 200, such that an assembled configuration 300 is established (see Figure 3). In some embodiments, for example, in the assembled configuration 300, the first panel 100 is disposed adjacent to the second panel 200. The first panel 100 is configured for co-operating with the second panel 200, a wall 10, and a fastener configuration 400 for establishing a fastened panel assembly configuration 304 (see Figure 6). In the fastened panel assembly configuration 304, the assembled configuration 300 is secured to the wall 10 with the fastener configuration 400 such that the assembled configuration 300 covers at least a portion of a surface 12 of the wall 10. The first panel 100 is also configured for co-operating with the second panel 200 for establishing a stacked configuration 302 (see Figure 4). In some embodiments, for example, the first panel 100 is identical to the second panel 200. In some embodiments, for example, the first panel 100 is different than the second panel 200.

[0037] In some embodiments, for example, the first and second panel 100, 200 are included within a plurality of panels (such that the plurality of panels include the first and second panel 100, 200), and the plurality of panels are connectible in series for establishing a second assembled configuration. In some embodiments, for example, the series is a vertically- oriented series. In some embodiments, for example, in the second assembled configuration, with the exception of the terminal panels of the series of panels, each one the series of panels are disposed adjacent to preceding and succeeding panels in the series, while the first panel 100 in the series is disposed adjacent to a succeeding panel, and the last panel in the series is disposed adjacent to a preceding panel.

[0038] The plurality of panels are configured for co-operating with a wall 10 and a fastener configuration 400 for establishing the fastened panel assembly configuration 304, wherein, in the fastened panel assembly configuration 304, the second assembled configuration is secured to the wall 10 with the fastener configuration 400 such that the assembled configuration 300 covers at least a portion of a surface 12 of the wall 10. The plurality of panels are configurable in a stacked configuration 302. In some embodiments, for example, the plurality of panels are identical. In some embodiments, for example, the plurality of panels are different, but sufficiently similar such that all of the panels are configured to cooperate with each other in the same manner as the co-operation of the first and second panel 100, 200, as described herein.

[0039] In some embodiments, for example, the material of any one of the panels described herein includes plastic, for example, polyvinyl chloride (PVC), polypropylene, or recycled plastic. In some embodiments, for example, the material includes a composite material, such as, for example, wood fibre composite, recycled material, or cellular foam. In some embodiments, for example, the material includes metal, such as aluminum. In some embodiments, for example, the material includes fibreglass.

[0040] In some embodiments, for example, any one of the panels described herein is manufactured by extrusion. In such embodiments, for example, any one of the panels described herein is an extruded lineal. In some embodiments, for example, any one of the panels described herein is manufactured by molding. In some embodiments, for example, any one of the panels described herein is manufactured by pultrusion. In some embodiments, for example, any one of the panels described herein is manufactured by casting. In some embodiments, for example, any one of the panels described herein is manufactured by rolling. In some embodiments, for example, any one of the panels described herein is manufactured by forging.

[0041] In some embodiments, for example, the first panel 100 includes: a front surface 104 and a rear surface 106 which is disposed, relative to the front surface 104, on an opposite side of the first panel 100; a fastener receiving portion 308; a first coupling configuration counterpart 310; a second coupling configuration counterpart 312 a mounting bracket-receiving space 314 recessed into the front surface 104; and a plurality of legs 316 depending from the rear surface 106. [0042] In some embodiments, for example, the second panel 200 includes: a front surface 104 and a rear surface 106 which is disposed, relative to the front surface 104, on an opposite side of the second panel 200; a fastener receiving portion 308; a first coupling configuration counterpart 310; a second coupling configuration counterpart 312 a mounting bracket-receiving space 314 recessed into the front surface 104; and a plurality of legs 316 depending from the rear surface 106.

[0043] In some embodiments, for example, for each one of the first and second panel 100, 200, independently, the respective front surface 104 defines a visible surface 320 that is visible while the fastened panel assembly configuration 304 is established. In some embodiments, for example, for each one of the first and second panel 100, 200, independently, the respective visible surface 320 includes a respective planar surface portion 322 having a total surface area of at least three (3) inches squared, such as, for example, at least five (5) inches squared, such as, for example, at least ten (10) inches squared. In some embodiments, for example, for each one of the first and second panel 100, 200, independently, while the panel 100 (200) is disposed in the fastened panel assembly configuration 304, the respective planar surface 322 portion is oriented in a parallel relationship with the wall surface 12.

[0044] As depicted in Figure 6, in some embodiments, for example, for each one of the first and second panel 100, 200, independently, the panel 100 (200) defines a longitudinal axis 16. As depicted, the longitudinal axis 16 extends along the length of the panel 100 (200). In some embodiments, for example, the longitudinal axis 16 is parallel to the planar surface portion 322 of the panel 100 (200) and normal to an axis 323 that is normal to the planar surface portion 322. In some embodiments, for example, wherein the panel 100 (200) is manufactured by extrusion, the axis of extrusion is parallel to the longitudinal axis 16 of the panel 100 (200).

[0045] As depicted in Figure 2, in some embodiments, for example, for each one of the first and second panel 100, 200, independently, the panel 100 (200) defines a lateral axis 18. As depicted, the lateral axis 18 extends along the width of the panel 100 (200). In some embodiments, for example, the lateral axis 18 extends between, for example, through, the first coupling configuration counterpart 310 and the second coupling configuration counterpart 312 of the panel 100 (200). In some embodiments, for example, the lateral axis 18 is parallel to the planar surface 322 of the panel 100 (200), normal to an axis 323 that is normal to the planar surface portion 322, and normal to the longitudinal axis 16.

[0046] Referring to Figure 2, in some embodiments, for example, for each one of the first and second panel 100, 200, independently, the respective fastener receiving portion 308 is configured for receiving one or more mechanical fasteners, for example, screws, bolts, pins, and the like, to connect the panel to a wall 10. In some embodiments, for example, for each one of the first and second panel 100, 200, independently, the respective fastener receiving portion 308 includes a respective fastener-engaging surface that is configured to engage with a head of a fastener, and further configured to oppose, for example, prevent, further displacement of the fastener through the respective panel 100 (200) while the fastenerengaging surface is engaged to the head of the fastener. In some embodiments, for example, for each one of the first and second panel 100, 200, independently, the connection of the respective panel 100 (200) to the wall 10 is effectuated by penetration of the respective fastener receiving portion 308 with the mechanical fastener such that the mechanical fastener extends through the respective fastener receiving portion 308 and into the wall 10, and the head of the mechanical fastener is bearing against the respective fastener-engaging surface, urging the panel 100 (200) into contact engagement with the wall 10.

[0047] In some embodiments, for example, for each one of the first and second panel 100, 200, independently, the respective fastener receiving portion 308 includes a respective fastener locator 120 for locating placement of a fastener in a fastener effective position, and for guiding the penetration of the respective panel 100 (200) by the mechanical fastener. In some embodiments, for example, for each one of the first and second panel 100, 200, independently, the respective fastener locator 120 includes a respective groove. In some embodiments, for example, for each one of the first and second panel 100, 200, independently, the respective fastener locator 120 is configured to receive the tip of a fastener. In some embodiments, for each one of the first and second panel 100, 200, independently example, the respective fastener locator 120 is sufficiently deep and wide to receive the tip of the fastener. In some embodiments, for example, for each one of the first and second panel 100, 200, independently, the respective fastener locator 120 is configured for co-operating with a tip of a fastener such that, while the tip of the fastener is received in the respective fastener locator 120, the position of the fastener receiving portion 308 is identified for a user to fasten the respective panel 100, 200 to a wall 10. In some embodiments, for example, for each one of the first and second panel 100, 200, independently, the respective fastener locator 120 is configured for co-operating with a tip of the fastener such that, while the tip of the fastener is received in the respective fastener locator 120, the fastener is oriented such that the fastener is able to fasten the panel 100 (200) to a wall 10 in response to penetration of the respective fastener receiving portion 308. In some embodiments, for example, the groove is defined on the fastener-engaging surface.

[0048] “Fastener configuration 400” means one or more fasteners 402. For example, for the fastened panel assembly configuration 304 that includes a plurality of panels, in some embodiments, for example, each one of the panels, independently, is fastened to the wall 10 with a respective fastener 402 such that, where there are ten (10) panels, then there are ten (10) fasteners 402 which are fastening the ten (10) panels to the wall 10, such that the fastener configuration 400 is defined by ten (10) fasteners 402.

[0049] The first coupling configuration counterpart 310, that is respective to the first panel 100, is configured for coupling with the second coupling configuration counterpart 312, that is respective to the second panel 200, with effect that a first coupled configuration is established. The first coupling configuration counterpart 310, that is respective to the first panel 100, and the second coupling configuration counterpart 312, that is respective to the second panel 200, are co-operatively configured such that, while the first coupled configuration is established: (a) relative displacement between the first panel 100 and the second panel 200, along an axis that is: (i) parallel to the wall surface 12 or to the planar surface portion 322 of the panel 100 (200), and (ii) perpendicular to the longitudinal axis 16 (e.g. the axis of extrusion) of the first panel 100 or the second panel 200, such as along the lateral axis 18, is opposed (e.g. prevented); and (b) relative displacement between the first panel 100 and the second panel 200, along an axis that is parallel to an axis that is normal to the wall surface 12 or normal to the planar surface portion 322 of the panel 100 (200), is opposed (e.g. prevented). In this respect, in some embodiments, for example, the first coupling configuration counterpart 310, that is respective to the first panel 100, and the second coupling configuration counterpart 312, that is respective to the second panel 200, are co-operatively configured such that, while the first coupled configuration is established:

(a) pulling apart of the first panel 100 and the second panel 200 is opposed (e.g. prevented),

(b) pushing the first panel 100 and the second panel 200 towards each other is opposed (e.g. prevented), and (c) lifting of one of the first panel 100 and the second panel 200, away from the other one of the first panel 100 and the second panel 200, is opposed (e.g. prevented). In some embodiments, for example, the first coupling configuration counterpart 310, that is respective to the first panel 100, and the second coupling configuration counterpart 312, that is respective to the second panel 200, are co-operatively configured such that, while the first coupled configuration is established, the second coupling configuration counterpart 312, that is respective to the second panel 200, is emplaced within a cavity 318 defined within the first coupling configuration counterpart 310, that is respective to the first panel 100, such that the second coupling configuration counterpart 312, that is respective to the second panel 200, is releasably locked to the first coupling configuration counterpart 310 that is respective to the first panel 100. In some embodiments, for example, for transitioning between the unlocked state and the locked state, the first coupling configuration counterpart 310, that is respective to the first panel 100, includes a deflectable arm portion 324 with a terminal end defined by a rearwardly extending projection 326. In the locked state, the rearwardly extending projection 326 is bearing against the second coupling configuration counterpart 312, that is respective to the second panel 200, owing to the material bias of the deflectable arm portion 324. Transitioning between the locked state and the unlocked state is effectuated by deflection of the deflectable arm portion 324.

Transitioning from the unlocked state to the locked state is effectuated by a snap fit engagement.

[0050] Also, the second coupling configuration counterpart 312, that is respective to the first panel 100, is configured for coupling with the first coupling configuration counterpart 310, that is respective to the second panel 200, with effect that a second coupled configuration is established. The second coupling configuration counterpart 312, that is respective to the first panel 100, and the first coupling configuration counterpart 310, that is respective to the second panel 200, are co-operatively configured such that, while the second coupled configuration is established: (a) relative displacement between the first panel 100 and the second panel 200, along an axis that is: (i) parallel to the wall surface 12 or to the planar surface portion 322 of the panel 100 (200), and (ii) perpendicular to the longitudinal axis 16 (e.g. axis of extrusion) of the first panel 100 or the second panel 200, such as along the lateral axis 18, is opposed (e.g. prevented); and (b) relative displacement between the first panel 100 and the second panel 200, along an axis that is parallel to an axis that is normal to the wall surface 12 or normal to the planar surface portion 322 of the panel 100 (200), is opposed (e.g. prevented). In this respect, in some embodiments, for example, the second coupling configuration counterpart 312, that is respective to the first panel 100, and the first coupling configuration counterpart 310, that is respective to the second panel 200, are cooperatively configured such that, while the second coupled configuration is established: (a) pulling apart of the first panel 100 and the second panel 200 is opposed (e.g. prevented), (b) pushing the first panel 100 and the second panel 200 towards each other is opposed (e.g. prevented), and (c) lifting of one of the first panel 100 and the second panel 200, away from the other one of the first panel 100 and the second panel 200, is opposed (e.g. prevented). In some embodiments, for example, the first coupling configuration counterpart 310, that is respective to the second panel 200, and the second coupling configuration counterpart 312, that is respective to the first panel 100, are co-operatively configured such that, while the second coupled configuration is established, the second coupling configuration counterpart 312, that is respective to the first panel 100, is emplaced within a cavity 318 defined within the first coupling configuration counterpart 310, that is respective to the second panel 200, such that the second coupling configuration counterpart 312 is releasably locked to the first coupling configuration counterpart 310 that is respective to the second panel 200. In some embodiments, for example, for transitioning between the unlocked state and the locked state, the first coupling configuration counterpart 310, that is respective to the second panel 200, includes a deflectable arm portion 324 with a terminal end defined by a rearwardly extending projection 326. In the locked state, the rearwardly extending projection 326 is bearing against the second coupling configuration counterpart 312, that is respective to the first panel 100, owing to the material bias of the deflectable arm portion 324. Transitioning between the locked state and the unlocked state is effectuated by deflection of the deflectable arm portion 324. Transitioning from the unlocked state to the locked state is effectuated by a snap fit engagement.

[0051] In some embodiments, for example, for each one of the panels 100, 200, independently, the first coupling configuration counterpart 310 includes: an arm portion 324 that is biased in a rearwardly direction, a rearwardly extending projection 326, extending rearwardly from the arm portion 324, a leg 346, extending rearwardly from the arm portion 324, and a transversely extending projection 352, extending from the leg 346, transversely relative to the rearwardly extending projection 326. Correspondingly, for each one of the panels 100, 200, independently, the second coupling configuration counterpart 312 includes an uppermost edge portion 348, defined at an uppermost edge of the panel, and a forwardly extending projection 350. In some embodiments, for example, the leg 346 is defined by a leg 316 that depends from the rear surface 106. In some embodiments, for example, the leg 346 is defined by the leg 316 of the panel 100 (200) that is most proximate to the rearwardly extending projection 326.

[0052] The first coupling configuration counterpart 310, that is respective to the first panel 100, is configured for coupling with the second coupling configuration counterpart 312, that is respective to the second panel 200, with effect that the first coupled configuration is established, wherein, in the first coupled configuration, an upper surface of the rearwardly extending projection 326, that is respective to the first panel 100 is bearing against a lower surface portion of the forwardly extending projection 350, that is respective to the second panel 200, and the upper edge portion 348, that is respective to the second panel 200, is disposed between the transversely extending projection 352, that is respective to the first panel 100, and the arm portion 324, that is respective to the first panel 100. Defeating of the first coupled configuration is effectuated by deflection of the arm portion 324 of the first panel 100.

[0053] Also, the first coupling configuration counterpart 312, that is respective to the second panel 200, is configured for coupling with the second coupling configuration counterpart 312, that is respective to the first panel 100, with effect that the second coupled configuration is established, wherein, in the second coupled configuration, an upper surface of the rearwardly extending projection 326, that is respective to the second panel 200 is bearing against a lower surface portion of the forwardly extending projection 350, that is respective to the first panel 100, and the upper edge portion 348, that is respective to the first panel 200, is disposed between the transversely extending projection 352, that is respective to the second panel 200, and the arm portion 324, that is respective to the second panel 200. Defeating of the second coupled configuration is effectuated by deflection of the arm portion 324 of the second panel 200.

[0054] The establishing of either one of the first coupled configuration or the second coupled configuration establishes the assembled configuration 300.

[0055] In some embodiments, for example, the first panel 100 is configured for co-operating with the second panel 200 such that, while the fastened panel assembly configuration 304 is established, at least a portion of the visible surface 320 of the front surface 104 of the first panel 100 is co-planar with the front surface 104 of the second panel 200. In some embodiments, for example, the first panel 100 is configured for co-operation with the second panel 200 such that, in the fastened panel assembly configuration 304, for each one of the first and second panels, independently, the respective planar surface portion 322 is oriented in a parallel relationship with the wall surface 12. In some embodiments, for example, such relationship between the visible surfaces 320 of the panels, and between the planar surface portions 322 of the panels and the wall 10, are intended to provide an aesthetically pleasing appearance.

[0056] In some embodiments, for example, for each one of the first and second panel 100, 200, independently, the cavity 318 defined within the respective first coupling configuration counterpart 310 is defined between the leg 346 and the rearwardly extending projection 326 of the respective first coupling configuration counterpart 310. [0057] For each one of the first and second panel 100, 200, independently, the respective mounting bracket-receiving space 314 is recessed into the respective front surface 104 (e.g. a visible planar surface portion 322 of the front surface 104) for receiving emplacement of a mounting bracket with effect that the mounting bracket becomes vertically supported by the respective panel. In some embodiments, for example, for each one of the first and second panel 100, 200, independently, the respective mounting bracket-receiving space 314 is defined by a respective receiving space-defining portion 328 of the respective front surface 104 of the respective panel. In some embodiments, for example, for each one of the first and second panel 100, 200, independently, the respective receiving space-defining portion 328 defines a respective guide surface 330 and a respective retaining surface configuration 332, and, in some of these embodiments, for example, the respective mounting bracketreceiving space 314, the respective guide surface 330, and the respective retaining surface configuration 332 are co-operatively configured such that, while the respective panel is fastened to the wall 10 (e.g. the fastened panel assembly configuration 304 is established) and the mounting bracket is being inserted into the respective receiving space 314, the respective guide surface 330 engages the mounting bracket with effect that the mounting bracket is rotated, relative to the respective panel, such that movement of the mounting bracket, within the respective receiving space 314, is directed, with effect that a retained configuration is established, wherein, in the retained configuration, the mounting bracket is vertically supported by the respective panel, and the respective retaining surface configuration 332 is opposing displacement of the mounting bracket, relative to the respective panel, in both directions that are normal to the wall surface 12. In some embodiments, for example, the respective retaining surface configuration 332 including a respective forwardly-disposed retaining surface portion 332A and a respective rearwardly- disposed retaining surface portion 332B. The respective forwardly-disposed retaining surface portion 332A and the respective mounting bracket-receiving space 314 are cooperatively configured such that, while the mounting bracket is disposed within the respective mounting bracket-receiving space 314 such that the mounting bracket is supported by the second panel 200, displacement of the mounting bracket, relative to the second panel 200, in a forwardly direction that is normal to the wall 10, is opposed by the respective forwardly-disposed retaining surface portion 332A. The respective rearwardly- disposed retaining surface portion 332B and the respective mounting bracket-receiving space 314 are co-operatively configured such that, while the mounting bracket is disposed within the respective mounting bracket- receiving space 314 such that the mounting bracket is supported by the second panel 200, displacement of the mounting bracket, relative to the second panel 200, in a rearwardly direction that is normal to the wall 10, is opposed by the respective rearwardly-disposed retaining surface portion 332B. [0058] In some embodiments, for example, a mounting bracket-receiving space 314 of a panel 100 (200) is co-operatively configured to co-operate with a mounting bracket-receiving space 314 of another panel 100 (200) for securing the mounting bracket to the panels. In this respect, in some embodiments, for example, while the assembled configuration 300 is established, the upper bracket connector is configured to be disposed in the mounting bracket-receiving space of the panel 100 (200), and the lower bracket connector is configured to be disposed in the mounting bracket- receiving space of the other panel 100 (200). While the upper bracket connector is disposed in the mounting bracket-receiving space of the panel, and the lower bracket connector is disposed in the mounting bracketreceiving space of the other panel, the mounting bracket is vertically supported by the panel, the respective retaining surface configurations 332 are opposing displacement of the mounting bracket, relative to the panels, in both directions that are normal to the wall surface 12, and rotation of the mounting bracket, relative to the panels, is opposed (e.g. prevented).

[0059] In some embodiments, the first and second panel 100, 200 are co-operatively configured such that, while the assembled configuration 300 is established, and the assembled configuration 300 is the first coupled configuration, the first coupling configuration counterpart 310 (e.g. the rearwardly-extending projection 326), that is respective to the first panel 100, extends into the mounting bracket-receiving space 314 of the second panel 200.

[0060] In some embodiments, the first and second panel 100, 200 are co-operatively configured such that, while the assembled configuration 300 is established, and the assembled configuration 300 is the second coupled configuration, the first coupling configuration counterpart 310 (e.g. the rearwardly-extending projection 326), that is respective to the second panel 200, extends into the mounting bracket-receiving space 314 of the first panel 100.

[0061] Referring to Figures 1 , 3, and 5, in some of these embodiments, for example, for each one of the first and second panel 100, 200, independently, the respective front surface 104 includes a respective planar surface portion 322 that is oriented such that, while the fastened panel assembly configuration 304 is established, an axis that is normal to the respective planar surface portion 322, is disposed within five (5) degrees, relative to an axis 323 that is normal to the wall surface 12. In some embodiments, for example, the respective planar surface portion 322 is oriented such that, while the fastened panel assembly configuration 304 is established, the planar surface portion 322 is oriented in a co-planar relationship with the wall surface 12, such that the axis 323 is also normal to the planar surface 322. Also, for each one of the first and second panel 100, 200, independently, a respective receiving space-defining surface 334 extends from respective spaced-apart upper and lower edges 338, 339 for defining the respective mounting bracket-receiving space 314. The respective receiving space-defining surface 334 includes a respective upper surface portion 336, extending from the respective upper edge 338 to the respective retaining surface configuration 332, and oriented such that a respective axis 337, that is normal to the respective upper surface portion 336, is disposed, relative to the respective axis 323 that is normal to the respective planar surface portion 322, at an angle that is within a range, wherein the range is from 45 degrees to 135 degrees (such as, for example, from 60 degrees to 120 degrees, such as, for example, from 75 degrees to 105 degrees, such as, for example, 90 degrees). The first and second panel 100, 200 are co-operatively configured such that, while the assembled configuration 300 is established, and the assembled configuration 300 is the first coupled configuration, the first coupling configuration counterpart 310 (e.g. the rearwardly-extending projection), that is respective to the first panel 100, extends into the mounting bracket-receiving space 314 of the second panel 200 with effect that the upper surface portion 336, of the second panel 200, is concealed by the first coupling configuration counterpart 310 of the first panel 100. The first and second panel 100, 200 are co-operatively configured such that, while the assembled configuration 300 is established, and the assembled configuration 300 is the second coupled configuration, the first coupling configuration counterpart 310 (e.g. the rearwardly-extending projection 326), that is respective to the second panel 200, extends into the mounting bracket-receiving space 314 of the first panel 100 with effect that the upper surface portion 336, of the first panel 100, is concealed by the first coupling configuration counterpart 310 (e.g. the rearwardly-extending projection), that is respective to the second panel 200.

[0062] In some embodiments, for example, while the fastened panel assembly configuration 304 is established, for each one of the first and second panel 100, 200, the respective plurality of legs 316 are supported by the wall 10, and, in some of these embodiments, are disposed in abutting engagement with the wall 10, such as with the wall surface 12. In some of these embodiments, for example, for each one of the first and second panel 100, 200, and for at least one of the respective plurality of legs 316, such as, for example, for each one of the respective plurality of legs 316, independently, a respective enlarged foot 342 is disposed at a terminal end of the leg 316, such that the abutting engagement is that of the respective enlarged foot 342 with the wall 10, such as with the wall surface 12. In some embodiments, for example, the respective enlarged foot 342 defines an engagement surface portion, such that an engagement surface portion, that is respective to the leg 316, is defined. In some embodiments, for example, the abutting engagement between the leg 316 and the wall surface 12 is established between the engagement surface portion and the wall 10, for example, with the wall surface 12. [0063] In some of these embodiments, for example, for each one of the first and second panel 100, 200, each one of the respective plurality of legs 316 (of the panel 100 (200)), independently, defines a respective longitudinal axis and a respective maximum cross- sectional area whose normal axis, at a respective cross-section at which the respective maximum cross-sectional area is defined, is parallel to the respective longitudinal axis, and the total surface area of the respective engagement surface portion exceeds the maximum cross-sectional area of the respective supporting leg. In some of these embodiments, for example, the exceeding is by at least 25%, such as, for example, by at least 50%, such as, for example, at least 75%, such as, for example, by at least 100%. That is, for each one of the legs 316, independently, the total surface area of the respective engagement surface portion exceeds the maximum cross-sectional area of the respective supporting leg 316 by at least 25%, such as, for example, by at least 50%, such as, for example, at least 75%, such as, for example, by at least 100%.

[0064] In some embodiments, for example, the first panel 100 is also configured for cooperating with the second panel 200 for establishing a stacked configuration 302. In some embodiments, for example, the first panel 100 is also configured for co-operating with the second panel 200, such that, in the stacked configuration 302, the first and second panel 100, 200 are co-operatively disposed in a nested configuration or nested relationship.

[0065] In some embodiments, for example, the first panel 100 is configured for cooperation with the second panel 200 such that, in the stacked configuration 302, the first and second panel 100, 200 are offset 303 relative to one another by a minimum distance of less than 1 inch, such as, for example, less than 2.0 centimeters, such as, for example, less than 1 .5 centimeters, such as, for example, less than 1.0 centimeters.

[0066] In some embodiments, for example, the offset 303 is along an axis that is: (i) parallel to the wall surface 12 or to the planar surface portion 322 of the panel 100 (200), and (ii) perpendicular to the longitudinal axis 16 of the first panel 100. In some embodiments, for example, the offset 303 is along the axis that is: (i) parallel to the wall surface 12 or to the planar surface portion 322 of the panel 100 (200), and perpendicular to the longitudinal axis 16 of the second panel 200. In some embodiments, for example, the offset 303 is along an axis that is parallel to the lateral axis 18 of the first panel 100. In some embodiments, for example, the offset 303 is along an axis that is parallel to the lateral axis 18 of the second panel 200.

[0067] In some embodiments, for example, the first panel 100 is configured for co-operation with the second panel 200 such that, in the stacked configuration 302, one of the first and second panel 100, 200 is an upper panel and the other one of the first and second panel 100, 200 is disposed below the upper panel such that the other one of the first and second panel 100, 200 is a lower panel. In some embodiments, for example, in the stacked configuration 302, the lower panel is supporting only the upper panel.

[0068] In some embodiments, for example, for each one of the legs 316, that are respective to the upper panel, independently, the leg 316 is co-operable with the rear surface 106 that is respective to the lower panel, such that, while the upper panel, to which the leg 316 is respective, is being urged in a downwardly direction by application, to the upper panel, of gravitational force only, the leg 316 is supported by the rear surface 106 that is respective to the lower panel. In some embodiments, for example, for each one of the legs 316, that are respective to the upper panel, independently, while the leg 316 is supported by the rear surface 106 that is respective to the lower panel, bending of the stacked configuration 302, in response to a force applied to the upper panel, is opposed (e.g. prevented). In some embodiments, for example, the force that is applied to the upper panel includes the weight of one or more panels disposed on top of the upper panel. In some embodiments, for example, the force that is applied to the upper panel includes an external force, for example, an external force that is applied by a user or by a machine.

[0069] In some embodiments, for example, for each one of the legs 316, that are respective to the upper panel, independently, the supporting of the leg 316 by the rear surface 106, that is respective to the lower panel, is effectuated in response to abutting engagement of the leg 316 to the rear surface 106.

[0070] In some embodiments, for example, for each one of the first and second panel 100, 200, and for at least one of the respective plurality of legs 316, such as, for example, for each one of the respective plurality of legs 316, independently, a respective enlarged foot 342, as described herein, is disposed at a terminal end of the leg 316.

[0071] In some embodiments, for example, the abutting engagement of the leg 316, that is respective to the upper panel, to the rear surface 106, that is respective to the lower panel, includes an abutting engagement of the enlarged foot 342 to the rear surface 106. In some embodiments, for example, the respective enlarged foot 342 defines an engagement surface portion, such that an engagement surface portion, that is respective to the leg 316, is defined. In some embodiments, for example, the abutting engagement between the leg 316 and the rear surface 106 of the lower panel is established between the engagement surface portion of the leg 316 and the rear surface 106. [0072] In some embodiments, for example, the first panel 100 is configured for co-operation with the second panel 200 such that, in the stacked configuration, for each one of the legs 316, that are respective to the lower panel, independently, the leg 316 is co-operable with the rear surface 106 that is respective to the upper panel, such that, while the upper panel, to which the rear surface 106 is respective, is being urged in a downwardly direction by application, to the upper panel, of gravitational force only, the rear surface 106 is supported by the leg 316 that is respective to the lower panel. In some embodiments, for example, for each one of the legs 316, that are respective to the lower panel, independently, while the leg 316 is supporting the rear surface 106 that is respective to the upper panel, bending of the stacked configuration 302, in response to a force applied to the upper panel, is opposed (e.g. prevented). In some embodiments, for example, the force that is applied to the upper panel includes the weight of one or more panels disposed on top of the upper panel. In some embodiments, for example, the force that is applied to the upper panel includes an external force, for example, an external force that is applied by a user or by a machine.

[0073] In some embodiments, for example, for each one of the legs 316, that are respective to the lower panel, independently, the supporting of the rear surface 106, that is respective to the upper panel, by the leg 316, is effectuated in response to abutting engagement of the leg 316 to the rear surface 106.

[0074] In some embodiments, for example, the abutting engagement of the leg 316, that is respective to the lower panel, to the rear surface 106, that is respective to the upper panel, includes an abutting engagement of the enlarged foot 342 to the rear surface 106. In some embodiments, for example, the respective enlarged foot 342 defines an engagement surface portion, such that an engagement surface portion, that is respective to the leg 316, is defined. In some embodiments, for example, the abutting engagement between the leg 316 of the lower panel and the rear surface 106 of the upper panel is established between the engagement surface portion of the leg 316 and the rear surface 106.

[0075] In some embodiments, for example, the urging of the upper panel in the downwardly direction by the application, to the upper panel, of the gravitational forces only, is by only the weight of the upper panel. In some embodiments, for example, the gravitational force is defined exclusively by the weight of the upper panel. In some embodiments, for example, the urging of the upper panel in the downwardly direction is further effectuated by application, to the upper panel, of the weight of the atmosphere.

[0076] In some embodiments, for example, as depicted in Figure 4, the first coupling configuration counterpart 310, that is respective to the first panel 100, is configured for co- operation with the receiving space-defining portion 328, that is respective to the second panel 200, such that a first nested configuration or first nested relationship is established, and the receiving space-defining portion 328, that is respective to the first panel 100, is configured for co-operation with the first coupling configuration counterpart 310, that is respective to the second panel 200, such that a second nested configuration or second nested relationship is established, wherein the stacked configuration 302 includes the first nested configuration and the second nested configuration.

[0077] In some embodiments, for example, the first coupling configuration counterpart 310, that is respective to the first panel 100, is configured for co-operation with the receiving space-defining portion 328, that is respective to the second panel 200, such that while the first nested configuration is established, the receiving space-defining portion 328, that is respective to the second panel 200, is nested within a cavity 318 defined by the first coupling configuration counterpart 310, that is respective to the first panel 100. In some embodiments, for example, while the first nested configuration is established, the receiving space-defining portion 328, that is respective to the second panel 200, is disposed in abutting engagement with the deflectable arm portion 324, that is respective to the first panel 100. In some embodiments, for example, while the first nested configuration is established, the receiving space-defining portion 328, that is respective to the second panel 200, is disposed in abutting engagement with the transversely extending projection 352, that is respective to the first panel 100. In some embodiments, for example, while the first nested configuration is established, the receiving space-defining portion 328, that is respective to the second panel 200, is disposed in abutting engagement with the rearwardly extending projection 326, that is respective to the first panel 100. In some embodiments, for example, while the first nested configuration is established, relative displacement, between the first panel 100 and the second panel 200, along an axis that is parallel to the axis 16, is opposed, for example, prevented. In some embodiments, for example, wear and tear of the panels, and ratting, which is effectuated by such relative displacement between the panels, is opposed, for example, prevented.

[0078] In some embodiments, for example, the receiving space-defining portion 328, that is respective to the first panel 100, is configured for co-operation with the first coupling configuration counterpart 310, that is respective to the second panel 200, such that while the second nested configuration is established, the receiving space-defining portion 328, that is respective to the first panel 100, is nested within a cavity 318 defined by the first coupling configuration counterpart 310, that is respective to the second panel 200. In some embodiments, for example, while the second nested configuration is established, the 1 receiving space-defining portion 328, that is respective to the first panel 100, is disposed in abutting engagement with the deflectable arm portion 324, that is respective to the second panel 200. In some embodiments, for example, while the second nested configuration is established, the receiving space-defining portion 328, that is respective to the first panel 100, is disposed in abutting engagement with the transversely extending projection 352, that is respective to the second panel 200. In some embodiments, for example, while the second nested configuration is established, the receiving space-defining portion 328, that is respective to the first panel 100, is disposed in abutting engagement with the rearwardly extending projection 326, that is respective to the second panel 200. In some embodiments, for example, while the second nested configuration is established, relative displacement, between the first panel 100 and the second panel 200, along an axis that is parallel to the axis 16, is opposed, for example, prevented. In some embodiments, for example, wear and tear of the panels, and ratting, which is effectuated by such relative displacement between the panels, is opposed, for example, prevented.

[0079] In some embodiments, for example, the first panel 100 is configured for co-operation with the second panel 200 such that, in the stacked configuration 302, the planar surface portion 322 of the first panel defines an outwardly facing surface, for example, a first outwardly facing surface, of the stacked configuration 302, and the planar surface portion 322 of the second panel defines an outwardly facing surface, for example, a second outwardly facing surface, of the stacked configuration 302.

[0080] In some embodiments, for example, the first panel 100 is configured for co-operation with the second panel 200 such that, in the stacked configuration 302, the planar surface portion 322 of the upper panel defines an upper outwardly facing surface of the stacked configuration 302 and the planar surface portion 322 of the lower panel defines a lower outwardly facing surface of the stacked configuration 302. In some embodiments, for example, the upper outwardly facing surface, defined by the planar surface portion 322 of the upper panel, has a normal axis that is perpendicular to a linear axis (e.g. a horizontal axis), and the lower outwardly facing surface, defined by the planar surface portion 322 of the lower panel, has a normal axis that is perpendicular to a linear axis (e.g. a horizontal axis).

[0081] In some embodiments, for example, the linear axis is parallel to the longitudinal axis 16 of the first panel 100. In some embodiments, for example, the linear axis is parallel to the lateral axis 18 of the first panel 100. In some embodiments, for example, the linear axis is parallel to the longitudinal axis 16 of the second panel 200. In some embodiments, for example, the linear axis is parallel to the lateral axis 18 of the second panel 200. [0082] In some embodiments, for example, the upper outwardly facing surface, has a normal axis that is perpendicular to the longitudinal axis 16 and the lateral axis 18 of the upper panel. In some embodiments, for example, the lower outwardly facing surface, has a normal axis that is perpendicular to the longitudinal axis 16 and the lateral axis 18 of the lower panel.

[0083] In some embodiments, for example, the upper outwardly facing surface, has a normal axis that is parallel to the axis 323 of the upper panel. In some embodiments, for example, the lower outwardly facing surface, has a normal axis that is parallel to the axis 323 of the lower panel.

[0084] In some embodiments, for example, the first panel 100 is configured for co-operation with the second panel 200 such that, in the stacked configuration, the upper outwardly facing surface and the lower outwardly facing surface are disposed in a parallel relationship.

[0085] In some embodiments, for example, while the stacked configuration 302 is supported by a supporting surface, for each one of the upper outwardly facing surface and the lower outwardly facing surface, independently, the outwardly facing surface is parallel to the supporting surface. In some embodiments, for example, the supporting surface is defined by the floor or the ground. In some embodiments, for example, the supporting surface is defined by a table or work bench. In some embodiments, for example, the supporting surface is defined by a wall 10. In some embodiments, for example, the supporting surface is defined by a shipping container or box.

[0086] In some embodiments, for example, in the stacked configuration 302, the foot 342, that is respective to the upper panel, is co-operable with the rear surface 106 that is respective to the lower panel, such that, the foot 342, that is respective to the upper panel, is being supported by the rear surface 106 that is respective to the lower panel. In some embodiments, for example, while the foot 342, that is respective to the upper panel, is supported by the rear surface 106 that is respective to the lower panel, bending of the stacked configuration 302, in response to a force applied to the upper panel, is opposed (e.g. prevented). In some embodiments, for example, the force that is applied to the upper panel includes the weight of one or more panels disposed on top of the upper panel. In some embodiments, for example, the force that is applied to the upper panel includes an external force, for example, an external force that is applied by a user or by a machine.

[0087] In some embodiments, for example, in the stacked configuration 302, the rear surface 106, that is respective to the upper panel, is co-operable with the foot 342 that is respective to the lower panel, such that, the rear surface 106, that is respective to the upper panel, is supported by the foot 342 that is respective to the lower panel. In some embodiments, for example, while the foot 342, that is respective to the lower panel, is supporting the rear surface 106 that is respective to the upper panel, bending of the stacked configuration 302, in response to a force applied to the upper panel, is opposed (e.g. prevented). In some embodiments, for example, the force that is applied to the upper panel includes the weight of one or more panels disposed on top of the upper panel. In some embodiments, for example, the force that is applied to the upper panel includes an external force, for example, an external force that is applied by a user or by a machine.

[0088] In some embodiments, for example, the supporting of the upper panel by the lower panel is a supporting of only the weight of the upper panel and the weight of the atmosphere. In some embodiments, for example, the supporting of the upper panel by the lower panel is effected while the only force being exerted on the upper panel is a combination of a gravitational force and the weight of the atmosphere. In some embodiments, for example, the supporting of the upper panel by the lower panel is effected while there is an absence of application of a force, to the upper panel, other than a gravitational force and the weight of the atmosphere. In some embodiments, for example, the supporting of the upper panel by the lower panel is effected while a downward force, being applied to the upper panel, is exclusively being applied by a gravitational force and the weight of the atmosphere.

[0089] In some embodiments, for example, there is provided a kit for producing a fastened panel assembly configuration 304, and the kit includes a plurality of panels, and each one of the panels, independently, includes the features, described herein, for the first panel 100 (or, for that matter, the second panel 200), and are configured to co-operate with the other ones of the panels in the manner described herein.

[0090] In some embodiments, for example, there is provided a kit for producing an assembled configuration 300, and the kit includes a plurality of panels, and each one of the panels, independently, includes the features, described herein, for the first panel 100 (or, for that matter, the second panel 200), and are configured to co-operate with the other ones of the panels in the manner described herein.

[0091] Referring to Figures 1 , 3, 5, and 6, in some embodiments, for example, the wall panel assembly, obtained from the kit, defines a panel assembly-defined visible surface, which is defined by the visible surfaces 322 of the plurality of panels that are connected in series to produce the panel assembly, and the panel assembly-defined visible surface defines a visual representation of the entirety of an image. In some embodiments, for example, the kit includes end trims components 366 that are co-operatively connectible to the terminal panels 100 (200) in the series (via a similar connection as that for the panels 100 (200)).

[0092] In this respect, in some embodiments, for example, the kit includes a plurality of panels 100 (or 200), as described above, and, for each one of the plurality of panels, independently, the respective front surface 104 further includes a respective panel imagedefining surface portion 370 which defines a respective panel image, such that the plurality of panels define a plurality of panel image-defining surface portions 370, wherein the respective panel image defines a respective visual representation of a portion of an image.

[0093] Such panels are configured for coupling to one another for establishing a wall panel assembly comprising the panels, disposed in adjacent relationship to one another, in series such that at least one pair of adjacent panels is established within the wall panel assembly, wherein the panels are configured for co-operating with a wall 10 and a fastener configuration 400, for establishing a fastened wall panel assembly configuration, wherein, in the fastened panel assembly configuration 304, the wall panel assembly is secured to the wall 10 with the fastener configuration 400 such that the wall panel assembly covers at least a portion of a surface 12 of the wall 10.

[0094] Each one of the plurality of panels, independently, includes a respective front surface 104, and a respective rear surface 106 disposed, relative to the respective front surface 104, on an opposite side of the panel. The respective front surface 104 includes a respective panel image-defining surface portions 370 which defines a respective panel image, such that the plurality of panels define a plurality of panel image-defining surface portions 370. The respective panel image defines a respective visual representation of a portion of an image. For each one of the panels of the wall panel assembly, independently, the respective front surface 104 defines a respective visible surface 320 which defines the respective panel image-defining surface portion 370, such that the wall panel assembly defines a wall panel assembly-defined visible surface, defined by the plurality of panel image-defining surface portions 370. In some embodiments, for example, for each one of the plurality of panels, independently, the respective panel image-defining surface portion 370 includes a planar surface 322 portion. The wall panel assembly-defined visible surface defines a visual representation of the entirety of an image 372.

[0095] For each one of the plurality of panels, independently, the respective panel imagedefining surface portion 370 is oriented such that, while the fastened panel assembly configuration 304 is established, a respective axis, that is normal to the respective panel image-defining surface portion 370, is disposed within five (5) degrees, relative to an axis that is normal to the wall surface 12. In some embodiments, for example, the respective panel image-defining surface portion 370 is oriented such that, while the fastened panel assembly configuration 304 is established, the respective panel image-defining surface portion 370 is oriented in a co-planar relationship with the wall surface 12.

[0096] Each one of the panels, independently, further includes a respective first coupling configuration counterpart 310 and a respective second coupling configuration counterpart 312. The respective first coupling configuration counterpart 310 is configured to co-operate with the second coupling configuration counterpart 312 of another one of the panels, and the respective second coupling configuration counterpart 312 is configured to co-operate with the first coupling configuration counterpart 310 of another one of the panels, such that, while the wall panel assembly is established, for each one of the at least one pair of adjacent panels, independently, the coupling between the adjacent panels is established based on the coupling of the first coupling configuration counterpart 310, of a one of the adjacent panels, and the second coupling configuration counterpart 312, of the other one of the adjacent panels. In some embodiments, for example, for each one of the at least one pair of adjacent panels, independently, the coupling is effectuated in response to snap-fit engagement.

[0097] Each one of the panels, independently, further includes a respective mounting bracket-receiving space 314, a respective receiving space-defining surface 334, and a respective upper surface portion 336.

[0098] The respective mounting bracket-receiving space 314 is recessed into the respective panel image-defining surface portion 370 for receiving emplacement of a mounting bracket with effect that the mounting bracket becomes vertically supported by the panel.

[0099] The respective receiving space-defining surface 334 extends from respective spaced-apart upper and lower edges 338, 339 which define the respective mounting bracket-receiving space 314. The respective receiving space-defining surface 334 includes a respective retaining surface configuration 332 including a respective forwardly-disposed retaining surface portion 332A and a respective rearwardly-disposed retaining surface portion 332B. The respective forwardly-disposed retaining surface portion 332A and the respective mounting bracket-receiving space 314 are co-operatively configured such that, while the mounting bracket is disposed within the respective mounting bracket-receiving space 314 such that the mounting bracket is supported by the panel, displacement of the mounting bracket, relative to the panel, in a forwardly direction that is normal to the wall 10, is opposed by the respective forwardly-disposed retaining surface portion 332A. The respective rearwardly-disposed retaining surface portion 332B and the respective mounting bracket-receiving space 314 are co-operatively configured such that, while the mounting bracket is disposed within the respective mounting bracket-receiving space 314 such that the mounting bracket is supported by the panel, displacement of the mounting bracket, relative to the panel, in a rearwardly direction that is normal to the wall 10, is opposed by the respective rearwardly-disposed retaining surface portion 332B.

[00100] The respective upper surface portion 336 is extending from the respective upper edge 338 to the respective forwardly-disposed retaining surface portion 332A, and oriented such that a respective axis, that is normal to the respective upper surface portion 336, is disposed, relative to the respective axis that is normal to the respective panel imagedefining surface portion 370, at an angle that is within a range, wherein the range is from 45 degrees to 135 degrees (such as, for example, from 60 degrees to 120 degrees, such as, for example, from 75 degrees to 105 degrees, such as, for example, 90 degrees).

[00101] For each one of the at least one pair of adjacent panels, independently, the first coupling configuration counterpart 310, of a one of the adjacent panels, extends into the mounting bracket-receiving space 314, of the other one of the adjacent panels, with effect that the upper surface portion 336, of the other one of the adjacent panels, is concealed by a concealing portion 340 (e.g. defined by projection 326) of the first coupling configuration counterpart 310, of the one of the adjacent panels.

[00102] For each one of the plurality of panels, independently, the respective first coupling configuration counterpart 310 is configured to co-operate with the second coupling configuration counterpart 312 of another one of the panels, and the respective second coupling configuration counterpart 312 is configured to co-operate with the first coupling configuration counterpart 310 of another one of the panels, such that, while the wall panel assembly is established, for each one of the at least one pair of adjacent panels of the wall panel assembly, independently, the concealing portion 340 of the first coupling configuration counterpart 310, of the one of the adjacent panels, defines a portion of the panel imagedefining surface portion 370 that is respective to the one of the adjacent panels.

[00103] In some embodiments, for example, at least one of the wall panels is an incomplete object-defining wall panel. For each one of the at least one incomplete objectdefining wall panel, independently, the visual representation, defined by the respective panel image of the front-facing surface of the partial image-defining wall panel, includes a visual representation of a portion of an object only. In some of these embodiments, for example, the establishment of the wall panel assembly is with effect that visual representation of the object is completed, such that the wall panel assembly includes a visual representation of the entirety of the object.

[00104] In some embodiments, for example, the first panel 100 and the second panel 200 are co-operatively configured such that, while the assembled configuration 300 is established, for example, in the fastened panel assembly configuration 304, merger of the visual representations, of the planar surface portions 322, merge to establish a merged visual representation.

[00105] Referring to Figures 1 , 2, 3, 7A to 7G, and Figure 8, to connect the panel 100 to a wall 10, the panel 100 is emplaced in abutting engagement against the wall 10. While disposed in abutting engagement with the wall 10, the fastener 402 is emplaced via the fastener locator 120 in the fastening effective position, and is then forced to penetrate through the fastener receiving portion 308, and then through the wall 10, such the panel 100 becomes disposed in a coupled relationship with the wall 10 and a fastened panel configuration is defined. While the panel 100 is disposed in a coupled relationship with the wall 10, the second panel 200 is connected to the first panel 100, such as via snap-fit engagement. To do so, the second panel 200 is progressively slidingly displaced relative to the first panel 100 (see Figures 7A and 7B). The first panel 100 includes “lead-in” features for co-operating with corresponding features on the second panel 200 for encouraging transitioning of the panels 100, 200 to the assembled configuration 300. As the second panel 200 is being slidingly displaced across the front surface of the first panel 100 in the downwardly direction, the arm portion 324 of the second panel 200 is deflected as the rearwardly extending projection 326 of the second panel 200 is progressively elevated, in response to urging by a curved surface 354 defined on the second panel. In parallel, the transversely extending projection 352 of the second panel 200 approaches the upper edge portion of the first panel. Referring to Figure 7C, in response to continued sliding displacement of the second panel 200 across the front surface of the first panel 100 in the downwardly direction, a first chamfered surface 356 of the rearwardly extending projection 326 becomes disposed in abutting engagement with a second chamfered surface 358 defined on an upper surface portion 364 of the forwardly extending projection 350 of the first panel 100. Simultaneously, a third chamfered surface 360 of the transversely extending projection 352 of the second panel 200 becomes disposed in abutting engagement with a fourth chamfered surface 362 defined on the uppermost edge portion 348 of the first panel 100. Referring to Figures 7D and 7E, in response to further urging in a downwardly direction, the rearwardly extending projection 326 of the second panel 200 is displaced upwardly in response to the reaction force applied by the chamfered surface 358 of the forwardly extending projection 350 of the first panel 100, and the transversely extending projection 352 of the second panel 200 is displaced downwardly in response to the reaction force applied by the chamfered surface 362 of the uppermost edge portion 348 of the first panel. Referring to Figures 7F and 7G, as the rearwardly extending projection 326 of the second panel 200 is forced in a downwardly direction such that the rearwardly extending projection 326 of the first panel 100, clears the forwardly extending projection 350 of the second panel 200, the rearwardly extending projection 326 of the first panel 100 becomes emplaced on the other side of the forwardly extending projection 350 of the first panel 100, the bias of the arm portion 324 urges the rearwardly extending projection 326 of the second panel in a rearwardly direction to bear against the lower surface of the forwardly extending projection 350 of the first panel 100, thereby effectuating snap fit engagement. In parallel, the transversely extending projection 352 of the second panel 200 is urged into emplacement below the uppermost edge portion 348. The resultant configuration is operative with effect that: (a) relative displacement between the first panel 100 and the second panel 200, along an axis that is: (i) parallel to the wall surface 12 or to the planar surface portion 322 of the panel 100 (200), and (ii) perpendicular to the longitudinal axis (e.g. the axis of extrusion) of the first panel 100 or the second panel 200, such as along the lateral axis 18, is opposed (e.g. prevented); and (b) relative displacement between the first panel 100 and the second panel 200, along an axis that is parallel to an axis that is normal to the wall surface 12 or normal to the planar surface portion 322 of the panel 100 (200) is opposed (e.g. prevented).

[00106] While the second panel 200 is connected to the first panel 100, a fastener 402 is emplaced in alignment with the fastener locator 120 of the second panel 200, and is then forced to penetrate through the fastener receiving portion 308 of the panel, and then through the wall 10, with effect that the fastened panel assembly configuration 304 is established. In some embodiments, for example, while the panel 100 is disposed in a coupled relationship with the wall 10, the panel 100 is configured for co-operating with the second panel 200 for concealing the fastener. In this respect, while the fastened panel assembly configuration 304 is established, the second panel 200, in particular, the arm portion 324, is concealing the fastener 402 which is effectuating the coupling of the first panel 100 to the wall 10. Such concealing of the fastener 402 provides an aesthetically pleasing appearance. Also in this respect, the concealing of the fasteners 402 is effectuated in response to establishing of the assembled configuration 300. Further panels, such as, for example, panels identical to one or both of the first and second panel 100, 200 may be similarly connected such that the series of connected and fastened panels is established. [00107] Figure 9 to Figure 15 illustrate a panel 100A that is an alternate embodiment of the panel 100. The panel 100A substantially corresponds to the panel 100, except: (i) the connection between panels 100A is effectuated via a loose fit, friction fit, or interference fit, and (ii) the panel 100A includes two mounting bracket-receiving spaces 314. The panel 100A is configured to cover at least a portion of a surface of a wall 10. The panel 100A is configured for coupling to the wall 10 with a fastener configuration 400, such that the covering of at least a portion of a surface 12 of the wall 10 is effectuated.

[00108] In some embodiments, for example, the panel 100A is configured to define a first panel 100A for coupling to a second panel 200A, such that an assembled configuration 300A is established (see Figure 11). In some embodiments, for example, in the assembled configuration 300A, the first panel 100A is disposed adjacent to the second panel 200A. The first panel 100A is configured for co-operating with the second panel 200A, a wall 10, and a fastener configuration 400 for establishing a fastened panel assembly configuration 304A (see Figure 6). In the fastened panel assembly configuration 304A, the assembled configuration 300A is secured to the wall 10 with the fastener configuration 400 such that the assembled configuration 300A covers at least a portion of a surface 12 of the wall 10. The first panel 100A is also configured for co-operating with the second panel 200A for establishing a stacked configuration 302A (see Figure 12), which substantially corresponds to the stacked configuration 302. In some embodiments, for example, the first panel 100A is identical to the second panel 200A. In some embodiments, for example, the first panel 100A is different than the second panel 200A.

[00109] In some embodiments, for example, the first and second panel 100A, 200A are included within a plurality of panels (such that the plurality of panels include the first and second panel 100A, 200A), and the plurality of panels are connectible in series for establishing a second assembled configuration. In some embodiments, for example, the series is a vertically-oriented series. In some embodiments, for example, in the second assembled configuration, with the exception of the terminal panels of the series of panels, each one the series of panels are disposed adjacent to preceding and succeeding panels in the series, while the first panel 100A in the series is disposed adjacent to a succeeding panel, and the last panel in the series is disposed adjacent to a preceding panel.

[00110] The plurality of panels are configured for co-operating with a wall 10 and a fastener configuration 400 for establishing the fastened panel assembly configuration 304A, wherein, in the fastened panel assembly configuration 304A, the second assembled configuration is secured to the wall 10 with the fastener configuration 400 such that the assembled configuration 300A covers at least a portion of a surface 12 of the wall 10. The plurality of panels are configurable in a stacked configuration 302A. In some embodiments, for example, the plurality of panels are identical. In some embodiments, for example, the plurality of panels are different, but sufficiently similar such that all of the panels are configured to co-operate with each other in the same manner as the co-operation of the first and second panel 100A, 200A, as described herein.

[00111] As depicted in Figure 9 to Figure 15, the panel 100A substantially corresponds to the panel 100, except the panel 100A includes a first coupling configuration counterpart 310A and a second coupling configuration counterpart 312A.

[00112] The first coupling configuration counterpart 310A, that is respective to the first panel 100A, is configured for coupling with the second coupling configuration counterpart 312A, that is respective to the second panel 200A, with effect that a first coupled configuration is established. In some embodiments, for example, the first coupling configuration counterpart 310A, that is respective to the first panel 100A, and the second coupling configuration counterpart 312A, that is respective to the second panel 200A, are cooperatively configured such that, while the first coupled configuration is established: (a) relative displacement between the first panel 100A and the second panel 200A, along an axis that is: (i) parallel to the wall surface 12 or the planar surface portion 322 of the panel 100A (200A), and (ii) perpendicular to the longitudinal axis 16 (e.g. the axis of extrusion) of the first panel 100A or the second panel 200A, such as along the lateral axis 18, is opposed (e.g. prevented); and (b) relative displacement between the first panel 100A and the second panel 200A, along an axis that is parallel to an axis that is normal to the wall surface 12 or normal to the planar surface portion 322 of the panel 100A (200A) is opposed (e.g. prevented). In some embodiments, for example, the first coupling configuration counterpart 310A, that is respective to the first panel 100A, and the second coupling configuration counterpart 312A, that is respective to the second panel 200A, are co-operatively configured such that, while the first coupled configuration is established, the fastener receiving portion 308, that is respective to the second panel 200A, is emplaced within a cavity 318 defined within the first coupling configuration counterpart 310A, that is respective to the first panel 100A. In some embodiments, for example, the first coupling configuration counterpart 310A, that is respective to the first panel 100A, and the second coupling configuration counterpart 312A, that is respective to the second panel 200A, are co-operatively configured such that, while the first coupled configuration is established, the second coupling configuration counterpart 312A, that is respective to the second panel 200A, is releasably coupled to the first coupling configuration counterpart 310A that is respective to the first panel 100A. [00113] Also, the second coupling configuration counterpart 312A, that is respective to the first panel 100A, is configured for coupling with the first coupling configuration counterpart 31 OA, that is respective to the second panel 200A, with effect that a second coupled configuration is established. In some embodiments, for example, the second coupling configuration counterpart 312A, that is respective to the first panel 100A, and the first coupling configuration counterpart 310A, that is respective to the second panel 200A, are co-operatively configured such that, while the second coupled configuration is established: (a) relative displacement between the first panel 100A and the second panel 200A, along an axis that is: (i) parallel to the wall surface 12 or to the planar surface portion 322 of the panel 100A (200A), and (ii) perpendicular to the longitudinal axis 16 (e.g. axis of extrusion) of the first panel 100A or the second panel 200A, such as along the lateral axis 18, is opposed (e.g. prevented); and (b) relative displacement between the first panel 100A and the second panel 200A, along an axis that is parallel to an axis that is normal to the wall surface 12 or normal to the planar surface portion 322 of the panel 100A (200A) is opposed (e.g. prevented). In some embodiments, for example, the first coupling configuration counterpart 31 OA, that is respective to the second panel 200A, and the second coupling configuration counterpart 312A, that is respective to the first panel 100A, are co-operatively configured such that, while the second coupled configuration is established, the fastener receiving portion 308, that is respective to the first panel 100A, is emplaced within a cavity 318 defined within the first coupling configuration counterpart 310A, that is respective to the second panel 200A. In some embodiments, for example, the first coupling configuration counterpart 31 OA, that is respective to the second panel 200A, and the second coupling configuration counterpart 312A, that is respective to the first panel 100A, are co-operatively configured such that, while the second coupled configuration is established, the second coupling configuration counterpart 312A, that is respective of the first panel 100A, is releasably coupled to the first coupling configuration counterpart 31 OA that is respective to the second panel 200A.

[00114] In some embodiments, for example, as depicted in Figure 9 and Figure 13, for each one of the panels 100A, 200A, independently, the first coupling configuration counterpart 310A includes: an arm portion 324, a rearwardly extending projection 526, extending rearwardly from the arm portion 324, a leg 346, extending rearwardly from the arm portion 324, and a transversely extending projection 552, extending from the rearwardly extending projection 526, transversely relative to the rearwardly extending projection 526. In some embodiments, for example, the arm portion 324, the rearwardly extending projection 526, and the transversely extending projection 552 are co-operatively configured to define a recess 530. Correspondingly, for each one of the panels 100A, 200A, independently, the second coupling configuration counterpart 312A includes a retaining surface-defining member 540, which defines forwardly-disposed retaining surface portion 332A, a forwardly extending projection 542, extending forwardly from the retaining surface-defining member 540 and defining upper edge 338, and a transversely extending projection 544, extending from the forwardly extending projection 542, transversely relative to the forwardly extending projection 542. In some embodiments, for example, the retaining surface-defining member 540, the forwardly extending projection 542, and the transversely extending projection 544 are co-operatively configured to define a recess 550.

[00115] The first coupling configuration counterpart 310A, that is respective to the first panel 100A, is configured for coupling with the second coupling configuration counterpart 312A, that is respective to the second panel 200A, with effect that the first coupled configuration is established, wherein, in the first coupled configuration: (i) the transversely extending projection 552 of the first coupling configuration counterpart 310A, that is respective to the first panel 100A, is disposed in, for example, nested within, the recess 550 of the second coupling configuration counterpart 312A, that is respective to the second panel 200A, and (ii) the transversely extending projection 544 of the second coupling configuration counterpart 312A, that is respective to the second panel 200A, is disposed in, for example, nested within, the recess 530 of the first coupling configuration counterpart 310A, that is respective to the first panel 100A. In some embodiments, for example, while the first coupled configuration is established, the transversely extending projection 552 of the first coupling configuration counterpart 310A, that is respective to the first panel 100A, and the transversely extending projection 544 of the second coupling configuration counterpart 312A, that is respective to the second panel 200A, are co-operatively configured such that relative displacement between the first panel 100A and the second panel 200A, along an axis that is parallel to an axis that is normal to the wall surface 12 or normal to the planar surface portion 322 of the panel 100A (200A) is opposed, for example, prevented (e.g. lifting of the first panel 100A, relative to the second panel 200A, is opposed, for example, prevented).

[00116] In some embodiments, for example, while the first coupled configuration is established, friction is established between: (i) arm portion 324 and the transversely extending projection 552 of the first coupling configuration counterpart 310A, that is respective to the first panel 100A, and the transversely extending projection 544 of the second coupling configuration counterpart 312A, that is respective to the second panel 200A, and (ii) retaining surface-defining member 540 and the transversely extending projection 544 of the second coupling configuration counterpart 312A, that is respective of the second panel 200A, and the transversely extending projection 552 of the first coupling configuration counterpart 310A, that is respective to the first panel 100A, thereby effectuating friction fit engagement.

[00117] In some embodiments, for example, while the first coupled configuration is established, interference is established between: (i) arm portion 324 and the transversely extending projection 552 of the first coupling configuration counterpart 310A, that is respective to the first panel 100A, and the transversely extending projection 544 of the second coupling configuration counterpart 312A, that is respective to the second panel 200A, and (ii) retaining surface-defining member 540 and the transversely extending projection 544 of the second coupling configuration counterpart 312A, that is respective of the second panel 200A, and the transversely extending projection 552 of the first coupling configuration counterpart 310A, that is respective to the first panel 100A, thereby effectuating interference fit engagement.

[00118] In some embodiments, for example, while the first coupled configuration is established: (i) the transversely extending projection 552 of the first coupling configuration counterpart 310A, that is respective to the first panel 100A, is loosely disposed in the recess 550 of the second coupling configuration counterpart 312A, that is respective to the second panel 200A, and (ii) the transversely extending projection 544 of the second coupling configuration counterpart 312A, that is respective to the second panel 200A, is loosely disposed in the recess 530 of the first coupling configuration counterpart 310A, that is respective to the first panel 100A.

[00119] Defeating of the first coupled configuration is effectuated by effectuating relative displacement between the first panel 100A and the second panel 200A, along an axis that is: (i) parallel to the wall surface 12 or to the planar surface portion 322 of the panel 100A (200A), and (ii) perpendicular to the longitudinal axis 16 (e.g. axis of extrusion) of the first panel 100A orthe second panel 200A, such as along the lateral axis 18 (e.g. pulling the first panel 100A and the second panel 200A away from each other). In some embodiments, for example, such relative displacement between the first panel 100A and the second panel 200A overcomes the friction or interference established between the first panel 100A and the second panel 200A.

[00120] Also, the first coupling configuration counterpart 310A, that is respective to the second panel 200A, is configured for coupling with the second coupling configuration counterpart 312A, that is respective to the first panel 100A, with effect that the second coupled configuration is established, wherein, in the second coupled configuration: (i) the transversely extending projection 552 of the first coupling configuration counterpart 31 OA, that is respective to the second panel 200A, is disposed in, for example, nested within, the recess 550 of the second coupling configuration counterpart 312A, that is respective to the first panel 100A, and (ii) the transversely extending projection 544 of the second coupling configuration counterpart 312A, that is respective to the first panel 100A, is disposed in, for example, nested within, the recess 530 of the first coupling configuration counterpart 31 OA, that is respective to the second panel 200A. In some embodiments, for example, while the second coupled configuration is established, the transversely extending projection 552 of the first coupling configuration counterpart 310A, that is respective to the second panel 200A, and the transversely extending projection 544 of the second coupling configuration counterpart 312A, that is respective to the first panel 200A, are co-operatively configured such that relative displacement between the first panel 100A and the second panel 200A, along an axis that is parallel to an axis that is normal to the wall surface 12 or normal to the planar surface portion 322 of the panel 100A (200A) is opposed, for example, prevented (e.g. lifting of the second panel 200A, relative to the first panel 100A, is opposed, for example, prevented).

[00121] In some embodiments, for example, while the second coupled configuration is established, friction is established between: (i) arm portion 324 and the transversely extending projection 552 of the first coupling configuration counterpart 310A, that is respective to the second panel 200A, and the transversely extending projection 544 of the second coupling configuration counterpart 312A, that is respective to the first panel 100A, and (ii) retaining surface-defining member 540 and the transversely extending projection 544 of the second coupling configuration counterpart 312A, that is respective of the first panel 100A, and the transversely extending projection 552 of the first coupling configuration counterpart 310A, that is respective to the second panel 200A, thereby effectuating friction fit engagement.

[00122] In some embodiments, for example, while the second coupled configuration is established, interference is established between: (i) arm portion 324 and the transversely extending projection 552 of the first coupling configuration counterpart 310A, that is respective to the second panel 200A, and the transversely extending projection 544 of the second coupling configuration counterpart 312A, that is respective to the first panel 100A, and (ii) retaining surface-defining member 540 and the transversely extending projection 544 of the second coupling configuration counterpart 312A, that is respective of the first panel 100A, and the transversely extending projection 552 of the first coupling configuration counterpart 31 OA, that is respective to the second panel 200A, thereby effectuating interference fit engagement.

[00123] In some embodiments, for example, while the second coupled configuration is established: (i) the transversely extending projection 552 of the first coupling configuration counterpart 31 OA, that is respective to the second panel 200A, is loosely disposed in the recess 550 of the second coupling configuration counterpart 312A, that is respective to the first panel 100A, and (ii) the transversely extending projection 544 of the second coupling configuration counterpart 312A, that is respective to the first panel 100A, is loosely disposed in the recess 530 of the first coupling configuration counterpart 31 OA, that is respective to the second panel 200A.

[00124] Defeating of the second coupled configuration is effectuated by effectuating relative displacement between the first panel 100A and the second panel 200A, along an axis that is: (i) parallel to the wall surface 12 or to the planar surface portion 322 of the panel 100A (200A), and (ii) perpendicular to the longitudinal axis 16 (e.g. axis of extrusion) of the first panel 100A orthe second panel 200A, such as along the lateral axis 18 (e.g. pulling the first panel 100A and the second panel 200A away from each other). In some embodiments, for example, such relative displacement between the first panel 100A and the second panel 200A overcomes the friction or interference established between the first panel 100A and the second panel 200A.

[00125] In some embodiments, for example, for each one of the first panel 100A and the second panel 200A, independently, the panel includes “lead-in” features that co-operate to encourage transitioning of the panels 100A, 200A to the assembled configuration 300A. In some embodiments, for example, as depicted in Figure 15A, for each one of the first panel 100A and the second panel 200A, independently, the transversely extending projection 552 of the first coupling configuration counterpart 310A defines a chamfered surface 553, and the transversely extending projection 544 of the second coupling configuration counterpart 312A defines a chamfered surface 545. The chamfered surface 553 and the chamfered surface 545 are co-operatively configured to guide the disposition of the transversely extending projection 552 of one of the first panel 100A and the second panel 200A into the recess 550 of the other one of the first panel 100A and the second panel 200A, and further co-operatively configured to guide the disposition of the transversely extending projection 544 of one of the first panel 100A and the second panel 200A into the recess 530 of the other one of the first panel 100A and the second panel 200A. [00126] The establishing of either one of the first coupled configuration or the second coupled configuration establishes the assembled configuration 300A.

[00127] In some embodiments, for example, the first panel 100A is configured for cooperating with the second panel 200A such that, while the fastened panel assembly configuration 304A is established, at least a portion of the visible surface 320 of the front surface 104 of the first panel 100A is co-planar with the front surface 104 of the second panel 200A. In some embodiments, for example, the first panel 100A is configured for cooperation with the second panel 200A such that, in the fastened panel assembly configuration 304A, for each one of the first and second panels, independently, the respective planar surface portion 322 is oriented in a parallel relationship with the wall surface 12. In some embodiments, for example, such relationship between the visible surfaces 320 of the panels, and between the planar surface portions 322 of the panels and the wall 10, are intended to provide an aesthetically pleasing appearance.

[00128] In some embodiments, for example, for each one of the first and second panel 100A, 200A, independently, the cavity 318 defined within the respective first coupling configuration counterpart 310A is defined between the leg 346 and the rearwardly extending projection 526 of the respective first coupling configuration counterpart 310A.

[00129] As depicted in Figure 9 to Figure 13, the panel 100A (200A) includes two mounting bracket receiving spaces 314, for example, an upper mounting bracket receiving space 3142 and a lower mounting bracket receiving space 3144. As depicted, in some embodiments, for example, the lower mounting bracket receiving space 3144 is disposed between the upper mounting bracket receiving space 3142 and the first coupling configuration counterpart 310A.

[00130] For each one of the first and second panel 100A, 200A, independently, the respective upper mounting bracket-receiving space 3142 is recessed into the respective front surface 104, such as an upper portion of the front surface 104 (e.g. a visible planar surface portion 322 of the front surface 104) for receiving emplacement of a mounting bracket with effect that the mounting bracket becomes vertically supported by the respective panel. In some embodiments, for example, for each one of the first and second panel 100A, 200A, independently, the respective upper mounting bracket-receiving space 3142 is defined by a respective upper receiving space-defining portion 3282 of the respective front surface 104 of the respective panel. In some embodiments, for example, for each one of the first and second panel 100A, 200A, independently, the respective upper receiving space-defining portion 3282 defines a respective guide surface 330 and a respective retaining surface configuration 332, substantially similar to the guide surface 330 and retaining surface configuration 332 of the first and second panel 100, 200. In some of these embodiments, for example, the respective upper mounting bracket-receiving space 3142, the respective guide surface 330, and the respective retaining surface configuration 332 are co-operatively configured such that, while the respective panel is fastened to the wall 10 (e.g. the fastened panel assembly configuration 304A is established) and the mounting bracket is being inserted into the respective upper receiving space 3142, the respective guide surface 330 engages the mounting bracket with effect that the mounting bracket is rotated, relative to the respective panel, such that movement of the mounting bracket, within the respective upper receiving space 3142, is directed, with effect that a retained configuration is established, wherein, in the retained configuration, the mounting bracket is vertically supported by the respective panel, and the respective retaining surface configuration 332 is opposing displacement of the mounting bracket, relative to the respective panel, in both directions that are normal to the wall surface 12. In some embodiments, for example, the respective retaining surface configuration 332 including a respective forwardly-disposed retaining surface portion 332A and a respective rearwardly-disposed retaining surface portion 332B. The respective forwardly-disposed retaining surface portion 332A and the respective upper mounting bracket-receiving space 3142 are co-operatively configured such that, while the mounting bracket is disposed within the respective upper mounting bracket-receiving space 3142 such that the mounting bracket is supported by the respective panel, displacement of the mounting bracket, relative to the respective panel, in a forwardly direction that is normal to the wall 10, is opposed by the respective forwardly-disposed retaining surface portion 332A. The respective rearwardly-disposed retaining surface portion 332B and the respective upper mounting bracket-receiving space 3142 are co-operatively configured such that, while the mounting bracket is disposed within the respective upper mounting bracketreceiving space 3142 such that the mounting bracket is supported by the respective panel, displacement of the mounting bracket, relative to the respective panel, in a rearwardly direction that is normal to the wall 10, is opposed by the respective rearwardly-disposed retaining surface portion 332B.

[00131] Also, for each one of the first and second panel 100A, 200A, independently, the respective lower mounting bracket-receiving space 3144 is recessed into the respective front surface 104, such as a lower portion of the front surface 104 (e.g. a visible planar surface portion 322 of the front surface 104) for receiving emplacement of a mounting bracket with effect that the mounting bracket becomes vertically supported by the respective panel. In some embodiments, for example, for each one of the first and second panel 100A, 200A, independently, the respective lower mounting bracket-receiving space 3144 is defined by a respective lower receiving space-defining portion 3284 of the respective front surface 104 of the respective panel. In some embodiments, for example, for each one of the first and second panel 100A, 200A, independently, the respective lower receiving space-defining portion 3284 defines a respective guide surface 330 and a respective retaining surface configuration 332, substantially similar to the guide surface 330 and retaining surface configuration 332 of the first and second panel 100, 200. In some of these embodiments, for example, the respective lower mounting bracket-receiving space 3144, the respective guide surface 330, and the respective retaining surface configuration 332 are co-operatively configured such that, while the respective panel is fastened to the wall 10 (e.g. the fastened panel assembly configuration 304A is established) and the mounting bracket is being inserted into the respective lower receiving space 3144, the respective guide surface 330 engages the mounting bracket with effect that the mounting bracket is rotated, relative to the respective panel, such that movement of the mounting bracket, within the respective lower receiving space 3144, is directed, with effect that a retained configuration is established, wherein, in the retained configuration, the mounting bracket is vertically supported by the respective panel, and the respective retaining surface configuration 332 is opposing displacement of the mounting bracket, relative to the respective panel, in both directions that are normal to the wall surface 12. In some embodiments, for example, the respective retaining surface configuration 332 including a respective forwardly-disposed retaining surface portion 332A and a respective rearwardly-disposed retaining surface portion 332B. The respective forwardly-disposed retaining surface portion 332A and the respective lower mounting bracket-receiving space 3144 are co-operatively configured such that, while the mounting bracket is disposed within the respective lower mounting bracket-receiving space 3144 such that the mounting bracket is supported by the respective panel, displacement of the mounting bracket, relative to the respective panel, in a forwardly direction that is normal to the wall 10, is opposed by the respective forwardly-disposed retaining surface portion 332A. The respective rearwardly-disposed retaining surface portion 332B and the respective lower mounting bracket- receiving space 3144 are co-operatively configured such that, while the mounting bracket is disposed within the respective lower mounting bracketreceiving space 3144 such that the mounting bracket is supported by the respective panel, displacement of the mounting bracket, relative to the respective panel, in a rearwardly direction that is normal to the wall 10, is opposed by the respective rearwardly-disposed retaining surface portion 332B.

[00132] In some embodiments, for example, for each one of the first and second panel 100A, 200A, independently, the respective upper mounting bracket-receiving space 3142 and the respective lower mounting bracket-receiving space 3144 are co-operatively configured to co-operate with upper and lower bracket connectors of a mounting bracket for securing the mounting bracket to the respective panel. In this respect, in some embodiments, for example, the upper bracket connector is configured to be disposed in the respective upper mounting bracket-receiving space 3142, and the lower bracket connector is configured to be disposed in the respective lower mounting bracket-receiving space 3144. While the upper bracket connector is disposed in the respective upper mounting bracketreceiving space 3142, and the lower bracket connector is disposed in the respective lower mounting bracket-receiving space 3144, the mounting bracket is vertically supported by the respective panel, the respective retaining surface configurations 332 are opposing displacement of the mounting bracket, relative to the respective panel, in both directions that are normal to the wall surface 12, and rotation of the mounting bracket, relative to the panel, is opposed (e.g. prevented).

[00133] In some embodiments, for example, a mounting bracket-receiving space of a panel 100A (200A), for example, an upper mounting bracket-receiving space 3142 or a lower mounting bracket-receiving space 3144, is co-operatively configured to co-operate with a mounting bracket-receiving space of another panel 100A (200A), for example, an upper mounting bracket-receiving space 3142 or a lower mounting bracket-receiving space 3144, for securing the mounting bracket to the panels. In this respect, in some embodiments, for example, while the assembled configuration 300A is established, the upper bracket connector is configured to be disposed in the mounting bracket-receiving space of the panel 100A (200A), and the lower bracket connector is configured to be disposed in the mounting bracket-receiving space of the other panel 100A (200A). While the upper bracket connector is disposed in the mounting bracket-receiving space of the panel, and the lower bracket connector is disposed in the mounting bracket-receiving space of the other panel, the mounting bracket is vertically supported by the panel, the respective retaining surface configurations 332 are opposing displacement of the mounting bracket, relative to the panels, in both directions that are normal to the wall surface 12, and rotation of the mounting bracket, relative to the panels, is opposed (e.g. prevented).

[00134] In some embodiments, for example, for each one of the first and second panel 100A, 200A, independently, the respective panel includes a respective intermediate space 560. In some embodiments, for example, the respective intermediate space 560 is defined between the respective upper receiving space-defining portion 3282 and the respective lower receiving space-defining portion 3284 of the panel. In some embodiments, for example, the respective intermediate space 560 and a respective member of the panel, which is disposed between the respective upper receiving space-defining portion 3282 and the respective lower receiving space-defining portion 3284 and defines at least a portion of the respective rear surface 106 of the panel, are disposed in opposing relationship. In some embodiments, for example, the respective intermediate space 560 is defined by a respective intermediate space-defining portion 562 of the panel. In some embodiments, for example, the respective intermediate space-defining portion 562 includes the respective upper receiving space-defining portion 3282 and the respective lower receiving space-defining portion 3284 of the panel. In some embodiments, for example, the respective intermediate space-defining portion 562 includes a respective member of the panel that defines at least a portion of the respective rear surface 106 of the panel.

[00135] In some embodiments, for example, the first panel 100A is also configured for co-operating with the second panel 200A for establishing a stacked configuration 302A, as depicted in Figure 11. In some embodiments, for example, the first panel 100A is also configured for co-operating with the second panel 200A, such that, in the stacked configuration 302A, the first and second panel 100A, 200A are co-operatively disposed in a nested configuration or nested relationship.

[00136] In some embodiments, for example, similar to the panel 100, the first panel 100A is configured for co-operation with the second panel 200A such that, in the stacked configuration 302A, the first and second panel 100A, 200A are offset 303 relative to one another by a minimum distance of less than 1 inch, such as, for example, less than 2.0 centimeters, such as, for example, less than 1 .5 centimeters, such as, for example, less than 1 .0 centimeters.

[00137] In some embodiments, for example, the offset 303 is along an axis that is: (i) parallel to the wall surface 12, and (ii) perpendicular to the longitudinal axis 16 of the first panel 100A. In some embodiments, for example, the offset 303 is along the axis that is: (i) parallel to the wall surface 12, and perpendicular to the longitudinal axis 16 of the second panel 200A. In some embodiments, for example, the offset 303 is along an axis that is parallel to the lateral axis 18 of the first panel 100A. In some embodiments, for example, the offset 303 is along an axis that is parallel to the lateral axis 18 of the second panel 200A.

[00138] In some embodiments, for example, the first panel 100A is configured for cooperation with the second panel 200A such that, in the stacked configuration 302A, one of the first and second panel 100A, 200A is an upper panel and the other one of the first and second panel 100A, 200A is disposed below the upper panel such that the other one of the first and second panel 100A, 200A is a lower panel. In some embodiments, for example, in the stacked configuration 302A, the lower panel is supporting only the upper panel. [00139] In some embodiments, for example, the first panel 100A is configured for cooperation with the second panel 200A such that, in the stacked configuration 302A, the receiving space-defining portion, for example, the lower receiving space-defining portion 3284, that is respective to the upper panel, is co-operable with the rear surface 106 that is respective to the lower panel, such that, while the upper panel, to which the receiving spacedefining portion is respective, is being urged in a downwardly direction by application, to the upper panel, of gravitational force only, the receiving space-defining portion is supported by the rear surface 106 that is respective to the lower panel. In some embodiments, for example, at least a portion of the rear surface 106 that is respective to the lower panel is defined between the upper receiving space-defining portion 3282 and the lower receiving space-defining portion 3284 of the lower panel. In some embodiments, for example, while the receiving space-defining portion, that is respective to the upper panel, is supported by the rear surface 106 that is respective to the lower panel, for example, the portion of the rear surface 106 that is defined between the upper receiving space-defining portion 3282 and the lower receiving space-defining portion 3284 of the lower panel, bending of the stacked configuration 302A, in response to a force applied to the upper panel, is opposed (e.g. prevented). In some embodiments, for example, the force that is applied to the upper panel includes the weight of one or more panels disposed on top of the upper panel. In some embodiments, for example, the force that is applied to the upper panel includes an external force, for example, an external force that is applied by a user or by a machine.

[00140] In some embodiments, for example, the first panel 100A is configured for cooperation with the second panel 200A such that, in the stacked configuration 302A, the rear surface 106, that is respective to the upper panel, is co-operable with the receiving spacedefining portion that is respective to the lower panel, for example, the lower receiving spacedefining portion 3284 of the lower panel, such that, while the upper panel, to which the rear surface 106 is respective, is being urged in a downwardly direction by application, to the upper panel, of gravitational force only, the rear surface 106 is supported by the receiving space-defining portion that is respective to the lower panel. In some embodiments, for example, at least a portion of the rear surface 106 that is respective to the upper panel is defined between the upper receiving space-defining portion 3282 and the lower receiving space-defining portion 3284 of the upper panel. In some embodiments, for example, while the rear surface 106 that is respective to the upper panel, for example, the portion of the rear surface 106 that is defined between the upper receiving space-defining portion 3282 and the lower receiving space-defining portion 3284 of the upper panel, is supported by the receiving space-defining portion that is respective to the lower panel, bending of the stacked configuration 302A, in response to a force applied to the upper panel, is opposed (e.g. prevented). In some embodiments, for example, the force that is applied to the upper panel includes the weight of one or more panels disposed on top of the upper panel. In some embodiments, for example, the force that is applied to the upper panel includes an external force, for example, an external force that is applied by a user or by a machine.

[00141] In some embodiments, for example, the first panel 100A is configured for cooperation with the second panel 200A such that, in the stacked configuration 302A, the leg 346, that is respective to the upper panel, is co-operable with the rear surface 106 that is respective to the lower panel, such that, while the upper panel, to which the leg 346 is respective, is being urged in a downwardly direction by application, to the upper panel, of gravitational force only, the leg 346 is supported by the rear surface 106 that is respective to the lower panel. In some embodiments, for example, at least a portion of the rear surface 106 that is respective to the lower panel is defined between the upper receiving spacedefining portion 3282 and the lower receiving space-defining portion 3284 of the lower panel. In some embodiments, for example, while the leg 346 is supported by the rear surface 106 that is respective to the lower panel, for example, the portion of the rear surface 106 that is defined between the upper receiving space-defining portion 3282 and the lower receiving space-defining portion 3284 of the lower panel, bending of the stacked configuration 302A, in response to a force applied to the upper panel, is opposed (e.g. prevented). In some embodiments, for example, the force that is applied to the upper panel includes the weight of one or more panels disposed on top of the upper panel. In some embodiments, for example, the force that is applied to the upper panel includes an external force, for example, an external force that is applied by a user or by a machine.

[00142] In some embodiments, for example, the first panel 100A is configured for cooperation with the second panel 200A such that, in the stacked configuration 302A, the leg 346, that is respective to the lower panel, is co-operable with the rear surface 106 that is respective to the upper panel, such that, while the upper panel, to which the rear surface 106 is respective, is being urged in a downwardly direction by application, to the upper panel, of gravitational force only, the rear surface 106 is supported by the leg 346 that is respective to the lower panel. In some embodiments, for example, at least a portion of the rear surface 106 that is respective to the upper panel is defined between the upper receiving spacedefining portion 3282 and the lower receiving space-defining portion 3284 of the upper panel. In some embodiments, for example, while the rear surface 106, for example, the portion of the rear surface 106 that is defined between the upper receiving space-defining portion 3282 and the lower receiving space-defining portion 3284 of the upper panel, is supported by the leg 346 that is respective to the lower panel, bending of the stacked configuration 302A, in response to a force applied to the upper panel, is opposed (e.g. prevented). In some embodiments, for example, the force that is applied to the upper panel includes the weight of one or more panels disposed on top of the upper panel. In some embodiments, for example, the force that is applied to the upper panel includes an external force, for example, an external force that is applied by a user or by a machine.

[00143] In some embodiments, for example, the first panel 100A is configured for cooperation with the second panel 200A such that, in the stacked configuration 302A: (i) the first coupling configuration counterpart 310A, that is respective to the upper panel, is configured for co-operation with the upper receiving space-defining portion 3282, that is respective to the lower panel, such that the upper receiving space-defining portion 3282, that is respective to the lower panel, is nested within a cavity 318 defined by the first coupling configuration counterpart 310A, that is respective to the upper panel; (ii) the upper receiving space-defining portion 3282, that is respective to the upper panel, is configured for cooperation with the first coupling configuration counterpart 310A, that is respective to the lower panel, such that the upper receiving space-defining portion 3282, that is respective to the upper panel, is nested within a cavity 318 defined by the first coupling configuration counterpart 310A, that is respective to the lower panel; (iii) the lower receiving spacedefining portion 3284, that is respective to the upper panel, is co-operable with the rear surface 106 that is respective to the lower panel, such that, while the upper panel, to which the lower receiving space-defining portion 3284 is respective, is being urged in a downwardly direction by application, to the upper panel, of gravitational force only, the lower receiving space-defining portion 3284 is supported by the rear surface 106 that is respective to the lower panel; and (iv) the rear surface 106, that is respective to the upper panel, is cooperable with the lower receiving space-defining portion 3284 that is respective to the lower panel, such that, while the upper panel, to which the rear surface 106 is respective, is being urged in a downwardly direction by application, to the upper panel, of gravitational force only, the rear surface 106 is supported by the lower receiving space-defining portion 3284 that is respective to the lower panel.

[00144] In some embodiments, for example, the urging of the upper panel in the downwardly direction by the application, to the upper panel, of the gravitational forces only, is by only the weight of the upper panel. In some embodiments, for example, the gravitational force is defined exclusively by the weight of the upper panel. In some embodiments, for example, the urging of the upper panel in the downwardly direction is further effectuated by application, to the upper panel, of the weight of the atmosphere. [00145] In some embodiments, for example, the first coupling configuration counterpart 310A, that is respective to the first panel 100A, is configured for co-operation with the upper receiving space-defining portion 3282, that is respective to the second panel 200A, such that a first nested configuration is established. In some embodiments, for example, while the first nested configuration is established, the upper receiving spacedefining portion 3282, that is respective to the second panel 200A, is disposed within the cavity 318 defined within the first coupling configuration counterpart 310A, that is respective to the first panel 100A. In some embodiments, for example, while the first nested configuration is established, the fastener receiving portion 308, that is respective to the second panel 200A, is disposed within the cavity 318 defined within the first coupling configuration counterpart 310A, that is respective to the first panel 100A. In some embodiments, for example, while the first nested configuration is established, the second coupling configuration counterpart 312A, that is respective to the second panel 200A, is disposed within the cavity 318 defined within the first coupling configuration counterpart 310A, that is respective to the first panel 100A. In some embodiments, for example, while the first nested configuration is established, the upper receiving space-defining portion 3282, that is respective to the second panel 200A, is disposed in abutting engagement with the deflectable arm portion 324, that is respective to the first panel 100A. In some embodiments, for example, while the first nested configuration is established, the upper receiving spacedefining portion 3282, that is respective to the second panel 200A, is disposed in abutting engagement with the leg 346, that is respective to the first panel 100A. In some embodiments, for example, while the first nested configuration is established, the fastener receiving portion 308, that is respective to the second panel 200A, is disposed in abutting engagement with the rearwardly extending projection 526, that is respective to the first panel 100A. In some embodiments, for example, while the first nested configuration is established, relative displacement, between the first panel 100A and the second panel 200A, along an axis that is parallel to the lateral axis 18, is opposed, for example, prevented. In some embodiments, for example, wear and tear of the panels, and ratting, which is effectuated by such relative displacement between the panels, is opposed, for example, prevented.

[00146] In some embodiments, for example, the upper receiving space-defining portion 3282, that is respective to the first panel 100A, is configured for co-operation with the first coupling configuration counterpart 310A, that is respective to the second panel 200A, such that a second nested configuration is established. In some embodiments, for example, while the second nested configuration is established, the upper receiving space-defining portion 3282, that is respective to the first panel 100A, is disposed within the cavity 318 defined within the first coupling configuration counterpart 310A, that is respective to the second panel 200A. In some embodiments, for example, while the second nested configuration is established, the fastener receiving portion 308, that is respective to the first panel 100A, is disposed within the cavity 318 defined within the first coupling configuration counterpart 310A, that is respective to the second panel 200A. In some embodiments, for example, while the second nested configuration is established, the second coupling configuration counterpart 312A, that is respective to the first panel 100A, is disposed within the cavity 318 defined within the first coupling configuration counterpart 310A, that is respective to the second panel 200A. In some embodiments, for example, while the second nested configuration is established, the upper receiving space-defining portion 3282, that is respective to the first panel 100A, is disposed in abutting engagement with the deflectable arm portion 324, that is respective to the second panel 200A. In some embodiments, for example, while the second nested configuration is established, the upper receiving spacedefining portion 3282, that is respective to the first panel 100A, is disposed in abutting engagement with the leg 346, that is respective to the second panel 200A. In some embodiments, for example, while the second nested configuration is established, the fastener receiving portion 308, that is respective to the first panel 100A, is disposed in abutting engagement with the rearwardly extending projection 526, that is respective to the second panel 200A. In some embodiments, for example, while the second nested configuration is established, relative displacement, between the first panel 100A and the second panel 200A, along an axis that is parallel to the lateral axis 18, is opposed, for example, prevented. In some embodiments, for example, wear and tear of the panels, and ratting, which is effectuated by such relative displacement between the panels, is opposed, for example, prevented.

[00147] In some embodiments, for example, the intermediate space-defining portion 562, that is respective to the first panel 100A, is configured for co-operation with the lower receiving space-defining portion 3284, that is respective to the second panel 200A, such that a third nested configuration is established. In some embodiments, for example, while the third nested configuration is established, the lower receiving space-defining portion 3284, that is respective to the second panel 200A, is disposed within the intermediate space 560 of the intermediate space-defining portion 562, that is respective to the first panel 100A. In some embodiments, for example, while the third nested configuration is established, the lower receiving space-defining portion 3284, that is respective to the second panel 200A, is disposed between the upper receiving space-defining portion 3282 and the lower receiving space-defining portion 3284, that are respective to the first panel 100A. In some embodiments, for example, while the third nested configuration is established, the lower receiving space-defining portion 3284, that is respective to the second panel 200A, is disposed in abutting engagement with the intermediate space-defining portion 562, for example, with the rear surface 106, that is respective to the first panel 100A. In some embodiments, for example, while the third nested configuration is established, the leg 346, that is respective to the second panel 200A, is disposed within the intermediate space 560 of the intermediate space-defining portion 562, that is respective to the first panel 100A. In some embodiments, for example, while the third nested configuration is established, the leg 346, that is respective to the second panel 200A, is disposed between the upper receiving space-defining portion 3282 and the lower receiving space-defining portion 3284, that are respective to the first panel 100A.

[00148] In some embodiments, for example, the lower receiving space-defining portion 3284, that is respective to the first panel 100A, is configured for co-operation with the intermediate space-defining portion 562, that is respective to the second panel 200A, such that a fourth nested configuration is established. In some embodiments, for example, while the fourth nested configuration is established, the lower receiving space-defining portion 3284, that is respective to the first panel 100A, is disposed within the intermediate space 560 of the intermediate space-defining portion 562, that is respective to the second panel 200A. In some embodiments, for example, while the fourth nested configuration is established, the lower receiving space-defining portion 3284, that is respective to the first panel 100A, is disposed between the upper receiving space-defining portion 3282 and the lower receiving space-defining portion 3284, that are respective to the second panel 200A. In some embodiments, for example, while the fourth nested configuration is established, the lower receiving space-defining portion 3284, that is respective to the first panel 100A, is disposed in abutting engagement with the intermediate space-defining portion 562, for example, the rear surface 106, that is respective to the second panel 200A. In some embodiments, for example, while the fourth nested configuration is established, the leg 346, that is respective to the first panel 100A, is disposed within the intermediate space 560 of the intermediate space-defining portion 562, that is respective to the second panel 200A. In some embodiments, for example, while the fourth nested configuration is established, the leg 346, that is respective to the first panel 100A, is disposed between the upper receiving spacedefining portion 3282 and the lower receiving space-defining portion 3284, that are respective to the second panel 200A.

[00149] In some embodiments, for example, the stacked configuration 302A includes the first nested configuration, the second nested configuration, the third nested configuration, and the fourth nested configuration. [00150] In some embodiments, for example, similar to the panel 100, the first panel 100A is configured for co-operation with the second panel 200A such that, in the stacked configuration 302A, the planar surface portion 322 of the upper panel defines an upper outwardly facing surface of the stacked configuration 302A and the planar surface portion

322 of the lower panel defines a lower outwardly facing surface of the stacked configuration 302A. In some embodiments, for example, the upper outwardly facing surface, defined by the planar surface portion 322 of the upper panel, has a normal axis that is perpendicular to a linear axis (e.g. horizontal axis), and the lower outwardly facing surface, defined by the planar surface portion 322 of the lower panel, has a normal axis that is perpendicular to a linear axis (e.g. horizontal axis).

[00151] In some embodiments, for example, the linear axis is parallel to the longitudinal axis 16 of the first panel 100A. In some embodiments, for example, the linear axis is parallel to the lateral axis 18 of the first panel 100A. In some embodiments, for example, the linear axis is parallel to the longitudinal axis 16 of the second panel 200A. In some embodiments, for example, the linear axis is parallel to the lateral axis 18 of the second panel 200A.

[00152] In some embodiments, for example, the upper outwardly facing surface, has a normal axis that is perpendicular to the longitudinal axis 16 and the lateral axis 18 of the upper panel. In some embodiments, for example, the lower outwardly facing surface, has a normal axis that is perpendicular to the longitudinal axis 16 and the lateral axis 18 of the lower panel.

[00153] In some embodiments, for example, the upper outwardly facing surface, has a normal axis that is parallel to the axis 323 of the upper panel. In some embodiments, for example, the lower outwardly facing surface, has a normal axis that is parallel to the axis

323 of the lower panel.

[00154] In some embodiments, for example, the first panel 100A is configured for cooperation with the second panel 200A such that, in the stacked configuration, the upper outwardly facing surface and the lower outwardly facing surface are disposed in a parallel relationship.

[00155] In some embodiments, for example, there is provided a kit for producing a fastened panel assembly configuration 304A, and the kit includes a plurality of panels, and each one of the panels, independently, includes the features, described herein, for the first panel 100A (or, for that matter, the second panel 200A), and are configured to co-operate with the other ones of the panels in the manner described herein.

[00156] In some embodiments, for example, there is provided a kit for producing an assembled configuration 300A, and the kit includes a plurality of panels, and each one of the panels, independently, includes the features, described herein, for the first panel 100A (or, for that matter, the second panel 200A), and are configured to co-operate with the other ones of the panels in the manner described herein.

[00157] Referring to Figure 6, in some embodiments, for example, a wall panel assembly, obtained from the kit, defines a panel assembly-defined visible surface, which is defined by the visible surfaces 322 of the plurality of panels that are connected in series to produce the panel assembly, and the panel assembly-defined visible surface defines a visual representation of the entirety of an image. In some embodiments, for example, the kit includes end trims components 566 that are co-operatively connectible to the terminal panels 100A (200A) in the series (via a similar connection as that for the panels 100A (200A)).

[00158] In this respect, in some embodiments, for example, the kit includes a plurality of panels 100A (or 200A), as described above, and, similar to panels 100 and 200, for each one of the plurality of panels, independently, the respective front surface 104 further includes a respective panel image-defining surface portion 370 which defines a respective panel image, such that the plurality of panels define a plurality of panel image-defining surface portions 370, wherein the respective panel image defines a respective visual representation of a portion of an image.

[00159] In some embodiments, for example, at least one of the wall panels is an incomplete object-defining wall panel. For each one of the at least one incomplete objectdefining wall panel, independently, the visual representation, defined by the respective panel image of the front-facing surface of the partial image-defining wall panel, includes a visual representation of a portion of an object only. In some of these embodiments, for example, the establishment of the wall panel assembly is with effect that visual representation of the object is completed, such that the wall panel assembly includes a visual representation of the entirety of the object.

[00160] Referring to Figure 15A and Figure 15B, to connect the panel 100A to a wall 10, the panel 100A is emplaced in abutting engagement against the wall 10. While disposed in abutting engagement with the wall 10, the fastener 402 is emplaced via the fastener locator 120 in the fastening effective position, and is then forced to penetrate through the fastener receiving portion 308, and then the wall 10, such the panel 100A becomes disposed in a coupled relationship with the wall 10 and a fastened panel configuration is defined. While the panel 100A is disposed in a coupled relationship with the wall 10, the second panel 200A is connected to the first panel 100A, such as via friction fit engagement, interference fit engagement, or loose fit engagement. To do so, the second panel 200A is progressively slidingly displaced relative to the first panel 100A (see Figure 15A and Figure 15B). As the second panel 200A is being slidably displaced relative to the first panel 100A, the chamfered surface 553 of the transversely extending projection 552 of the second panel 200A becomes disposed in abutting engagement with the chamfered surface 545 of the transversely extending projection 544 of the first panel 100A. In response to further urging of the second panel 200A towards the first panel 100A, a force is applied by the chamfered surface 553 of the transversely extending projection 552 of the second panel 200A to the chamfered surface 545 of the transversely extending projection 544 of the first panel 100A, and a reaction force is applied by the chamfered surface 545 of the transversely extending projection 544 of the first panel 100A to the chamfered surface 553 of the transversely extending projection 552 of the second panel 200A, and the transversely extending projection 552 of the second panel 200A is displaced downwardly in response to the reaction force applied by the chamfered surface 545 of the first panel 100A to the chamfered surface 553 of the second panel 200A, with effect that: (i) the transversely extending projection 552 of the second panel 200A becomes disposed in alignment with the recess 550 of the first panel 100A, and (ii) the transversely extending projection 544 of the first panel 100A becomes disposed in alignment with the recess 530 of the second panel 200A. At this point, further displacement of the second panel 200A towards the first panel 100A is with effect that: (i) the transversely extending projection 552 of the first coupling configuration counterpart 310A, of the second panel 200A, becomes disposed in the recess 550 of the second coupling configuration counterpart 312A, of the first panel 100A, and (ii) the transversely extending projection 544 of the second coupling configuration counterpart 312A, of the first panel 100A, is disposed in the recess 530 of the first coupling configuration counterpart 310A, that is respective to the second panel 200A, thereby effectuating friction fit engagement, interference fit engagement, or loose fit engagement. The resultant configuration is operative with effect that: (a) relative displacement between the first panel 100A and the second panel 200A, along an axis that is: (i) parallel to the wall surface 12 or to the planar surface portion 322 of the panel 100A (200A), and (ii) perpendicular to the longitudinal axis 16 (e.g. the axis of extrusion) of the first panel 100A or the second panel 200A, such as the lateral axis 18, is opposed (e.g. prevented); and (b) relative displacement between the first panel 100A and the second panel 200A, along an axis that is parallel to an axis that is normal to the wall surface 12 or normal to the planar surface portion 322 of the of the panel 100A (200A) is opposed (e.g. prevented).

[00161] While the second panel 200A is connected to the first panel 100A, a fastener 402 is emplaced in alignment with the fastener locator 120 of the second panel 200A, and is then forced to penetrate through the fastener receiving portion 308 of the panel, and then through the wall 10, with effect that the fastened panel assembly configuration 304 is established. In some embodiments, for example, while the panel 100A is disposed in a coupled relationship with the wall 10, the panel 100A is configured for co-operating with the second panel 200A for concealing the fastener 402. In this respect, while the fastened panel assembly configuration 304A is established, the second panel 200A, in particular, the arm portion 324, is concealing the fastener 402 which is effectuating the coupling of the panel 100A to the wall 10. Such concealing of the fastener 402 provides an aesthetically pleasing appearance. Also in this respect, the concealing of the fasteners 402 is effectuated in response to establishing of the assembled configuration 300A. Further panels, such as, for example, panels identical to one or both of the first and second panel 100A, 200A may be similarly connected such that the series of connected and fastened panels is established.

[00162] Figure 16 depicts a panel 100B that is an alternate embodiment of the panel 100. The panel 100B substantially corresponds to the panel 100, except the panel 100B includes a first coupling configuration counterpart 310B and a second coupling configuration counterpart 312B.

[00163] As depicted, the first coupling configuration counterpart 310B of the panel 100B substantially corresponds to the first coupling configuration counterpart 310 of the panel 100, except the surface area of the third chamfered surface 360 of the transversely extending projection 352 of the panel 100B is greater than the surface area of the third chamfered surface 360 of the transversely extending projection 352 of the panel 100.

[00164] As depicted, the second coupling configuration counterpart 312B of the panel 100B substantially corresponds to the second coupling configuration counterpart 312 of the panel 100, except the second coupling configuration counterpart 312B includes: (i) a plurality of structural members 380 for improving the structural strength of the second coupling configuration counterpart 312B, (ii) the curved surface 354B has a radius of curvature that is greater than the radius of curvature of the curved surface 354 of the panel 100, and (iii) the surface area of the fourth chamfered surface 362 defined on the uppermost edge portion 348 of the panel 100B is greater than the surface area of the fourth chamfered surface 362 defined on the uppermost edge portion 348 of the panel 100. Similar to the panel 100, the panel 100B is configured to cover at least a portion of a surface of a wall 10.

[00165] The panel 100B is configured for coupling to the wall 10 with a fastener configuration 400, such that the covering of at least a portion of a surface 12 of the wall 10 is effectuated.

[00166] In some embodiments, for example, the structural members 380 of the second coupling configuration counterpart 312B function to oppose (e.g. prevent) twisting or bending of the second coupling configuration counterpart 312B, for example, while the fastener 402 is being penetrated through the fastener receiving portion 308.

[00167] In some embodiments, for example, due to the increased radius of curvature of the curved surface 354B, relative to the radius of curvature of the curved surface 354, while the rearwardly extending projection 326 of the second panel 200B is disposed in contact engagement with the curved surface 354B of the first panel 100B (Figure 7A depicts the rearwardly extending projection 326 of the second panel 200 is disposed in contact engagement with the curved surface 354 of the first panel 100) and the second panel 200B is being slidingly displaced across the front surface of the first panel 100B in the downwardly direction to connect the first and second panels, the force that is applied to the rearwardly extending projection 326 of the second panel 200B, by the curved surface 354B of the first panel 100B, for progressively elevating the rearwardly extending projection 326 and outwardly deflecting the arm portion 324 of the second panel 200B, such that the second panel 200B is displaceable towards the first panel 100B for effectuating the connection between the first and second panels, decreases more gradually. Accordingly, due to such gradual decrease in force applied to the rearwardly extending projection 326 of the second panel 200B, by the curved surface 354B of the first panel 100B, the displacement of the second panel 200B towards the first panel 100B, for effectuating the connection between the first and second panels, is also more gradual. In some embodiments, for example, such gradual displacement of the second panel 200B towards the first panel 100B facilitates the connection between the first and second panels, and improve the ease with which the panels can be connected by a user.

[00168] By increasing the surface area of the third chamfered surface 360 of the transversely extending projection 352 and the surface area of the fourth chamfered surface 362 defined on the uppermost edge portion 348, contact engagement, between the third chamfered surface 360 of the transversely extending projection 352 of a panel, for example, the second panel 200B, and the fourth chamfered surface 362 defined on the uppermost edge portion 348 of another panel, for example, the first panel 100B, is facilitated, to better effectuate the downward displacement of the transversely extending projection 352 of the second panel 200B, in response to the reaction force applied by the chamfered surface 362 of the uppermost edge portion 348 of the first panel 100B, while the second panel 200B towards the first panel 100B, for effectuating the connection between the first and second panels. In some embodiments, for example, such improved effectuation of downward displacement of the transversely extending projection 352 of the second panel 200B facilitates the connection between the first and second panels, and improve the ease with which the panels can be connected by a user.

[00169] In some embodiments, for example, as depicted in Figure 16, the second coupling configuration counterpart 312B includes at least one foot 342, for example, two feet 342. In some embodiments, for example, as depicted, the panel 100B includes a foot 342 extending from the receiving space-defining portion 328.

[00170] In some embodiments, for example, the panel 100B is configured to define a first panel 100B for coupling to a second panel 200B, such that an assembled configuration 300B is established (see Figure 17), which substantially corresponds to the assembled configuration 300 as depicted in Figure 3. In some embodiments, for example, in the assembled configuration 300B, the first panel 100B is disposed adjacent to the second panel 200B. The first panel 100B is configured for co-operating with the second panel 200B, a wall 10, and a fastener configuration 400 for establishing a fastened panel assembly configuration 304B, substantially similar to the fastened panel assembly configuration 304 as depicted in Figure 6. In the fastened panel assembly configuration 304B, the assembled configuration 300B is secured to the wall 10 with the fastener configuration 400 such that the assembled configuration 300B covers at least a portion of a surface 12 of the wall 10. The first panel 100B is also configured for co-operating with the second panel 200B for establishing a stacked configuration 302B (see Figure 18), which substantially corresponds to the stacked configuration 302 as depicted in Figure 4. In some embodiments, for example, the first panel 100B is identical to the second panel 200B. In some embodiments, for example, the first panel 100B is different than the second panel 200B.

[00171] In some embodiments, for example, the first and second panel 100B, 200B are included within a plurality of panels (such that the plurality of panels include the first and second panel 100B, 200B), and the plurality of panels are connectible in series for establishing a second assembled configuration. In some embodiments, for example, the series is a vertically-oriented series. In some embodiments, for example, in the second assembled configuration, with the exception of the terminal panels of the series of panels, each one the series of panels are disposed adjacent to preceding and succeeding panels in the series, while the first panel 100B in the series is disposed adjacent to a succeeding panel, and the last panel in the series is disposed adjacent to a preceding panel.

[00172] The plurality of panels are configured for co-operating with a wall 10 and a fastener configuration 400 for establishing the fastened panel assembly configuration 304B, wherein, in the fastened panel assembly configuration 304B, the second assembled configuration is secured to the wall 10 with the fastener configuration 400 such that the assembled configuration 300B covers at least a portion of a surface 12 of the wall 10. The plurality of panels are configurable in a stacked configuration 302B, substantially similar to the stacked configuration 302 depicted in Figure 4. In some embodiments, for example, the plurality of panels are identical. In some embodiments, for example, the plurality of panels are different, but sufficiently similar such that all of the panels are configured to co-operate with each other in the same manner as the co-operation of the first and second panel 100B, 200B, as described herein.

[00173] Similar to the first panel 100 and the second panel 200, the first coupling configuration counterpart 310B, that is respective to the first panel 100B, is configured for coupling with the second coupling configuration counterpart 312B, that is respective to the second panel 200B, with effect that the first coupled configuration is established.

[00174] Also, similar to the first panel 100 and the second panel 200, the second coupling configuration counterpart 312B, that is respective to the first panel 100B, is configured for coupling with the first coupling configuration counterpart 310B, that is respective to the second panel 200B, with effect that the second coupled configuration is established.

[00175] The establishing of either one of the first coupled configuration or the second coupled configuration establishes the assembled configuration 300B.

[00176] In some embodiments, for example, similar to the first panel 100 and the second panel 200, the first panel 100B is also configured for co-operating with the second panel 200B for establishing a stacked configuration 302B, as depicted in Figure 18. In some embodiments, for example, the first panel 100B is also configured for co-operating with the second panel 200B, such that, in the stacked configuration 302B, the first and second panel 100B, 200B are co-operatively disposed in a nested configuration or nested relationship. In some embodiments, for example, the first panel 100B is configured for co-operation with the second panel 200B such that, in the stacked configuration 302B, one of the first and second panel 10OB, 200B is an upper panel and the other one of the first and second panel 100B, 200B is disposed below the upper panel such that the other one of the first and second panel 100B, 200B is a lower panel. In some embodiments, for example, in the stacked configuration 302B, the lower panel is supporting only the upper panel.

[00177] In some embodiments, for example, similar to the panel 100 and the panel

I OOA, as depicted in Figure 18, the first panel 100B is configured for co-operation with the second panel 200B such that, in the stacked configuration 302B, the first and second panel

I OOB, 200B are offset 303 relative to one another by a minimum distance of less than 1 inch, such as, for example, less than 2.0 centimeters, such as, for example, less than 1 .5 centimeters, such as, for example, less than 1 .0 centimeters. In some embodiments, for example, the offset 303 is along an axis that is: (i) parallel to the wall surface 12 or to the planar surface portion 322 of the panel 100B (200B), and (ii) perpendicular to the longitudinal axis 16 of the first panel 100B. In some embodiments, for example, the offset 303 of along the axis that is: (i) parallel to the wall surface 12 or to the planar surface portion 322 of the panel 100B (200B), and perpendicular to the longitudinal axis 16 of the second panel 200B. In some embodiments, for example, the offset 303 is along an axis that is parallel to the lateral axis 18 of the first panel 100B. In some embodiments, for example, the offset 303 is along an axis that is parallel to the lateral axis 18 of the second panel 200B.

[00178] In some embodiments, for example, similar to the panel 100, the first panel 100B is configured for co-operation with the second panel 200B such that, in the stacked configuration 302B, the planar surface portion 322 of the upper panel defines an upper outwardly facing surface of the stacked configuration 302B and the planar surface portion 322 of the lower panel defines a lower outwardly facing surface of the stacked configuration 302B. In some embodiments, for example, the upper outwardly facing surface, defined by the planar surface portion 322 of the upper panel, has a normal axis that is perpendicular to a linear axis (e.g. horizontal axis), and the lower outwardly facing surface, defined by the planar surface portion 322 of the lower panel, has a normal axis that is perpendicular to a linear axis (e.g. horizontal axis). In some embodiments, for example, the first panel 100B is configured for co-operation with the second panel 200B such that, in the stacked configuration, the upper outwardly facing surface and the lower outwardly facing surface are disposed in a parallel relationship.

[00179] In some embodiments, for example, similar to the panel 100 and the panel 100A, at least one of the wall panels 100B is an incomplete object-defining wall panel. For each one of the at least one incomplete object-defining wall panel, independently, the visual representation, defined by the respective panel image of the front-facing surface of the partial image-defining wall panel, includes a visual representation of a portion of an object only. In some of these embodiments, for example, the establishment of the wall panel assembly is with effect that visual representation of the object is completed, such that the wall panel assembly includes a visual representation of the entirety of the object.

[00180] In some embodiments, for example, there is provided a kit for producing a fastened panel assembly configuration 304B, and the kit includes a plurality of panels, and each one of the panels, independently, includes the features, described herein, for the first panel 100B (or, for that matter, the second panel 200B), and are configured to co-operate with the other ones of the panels in the manner described herein.

[00181] In some embodiments, for example, there is provided a kit for producing an assembled configuration 300B, and the kit includes a plurality of panels, and each one of the panels, independently, includes the features, described herein, for the first panel 100B (or, for that matter, the second panel 200B), and are configured to co-operate with the other ones of the panels in the manner described herein.

[00182] The first panel 100B and the second panel 200B are connected together in a manner substantially similar to the manner by which the first panel 100 and the second panel 200 are connected, which is depicted in Figure 7A to Figure 7G.

[00183] The stacking functionality of the panels described herein increase the number of panels that can be emplaced in a given space, for example, in a shipping container or box. Put in another way, the space of the shipping container or box is more efficiently used while storing and shipping the panels described herein. According, in some embodiments, for example, the transportation costs of the panels described herein is reduced. In addition, the stacking functionality of the panels described herein oppose (e.g. prevent) bending of the stacked configuration while additional panels are stacked on top of the stacked configuration.

[00184] The preceding discussion provides many example embodiments. Although each embodiment represents a single combination of inventive elements, other examples may include all suitable combinations of the disclosed elements. Thus if one embodiment comprises elements A, B, and C, and a second embodiment comprises elements B and D, other remaining combinations of A, B, C, or D, may also be used.

[00185] The term “connected” or "coupled to" may include both direct coupling (in which two elements that are coupled to each other contact each other) and indirect coupling (in which at least one additional element is located between the two elements). [00186] Although the embodiments have been described in detail, it should be understood that various changes, substitutions and alterations could be made herein.

[00187] Moreover, the scope of the present application is not intended to be limited to the particular embodiments of the process, machine, manufacture, and composition of matter, means, methods and steps described in the specification. As one of ordinary skill in the art will readily appreciate from the disclosure of the present invention, processes, machines, manufacture, compositions of matter, means, methods, or steps, presently existing or later to be developed, that perform substantially the same function or achieve substantially the same result as the corresponding embodiments described herein may be utilized. Accordingly, the appended claims are intended to include within their scope such processes, machines, manufacture, compositions of matter, means, methods, or steps.

[00188] As can be understood, the examples described above and illustrated are intended to be examples only. The invention is defined by the appended claims.