METAL PANEL ELECTRICAL BONDING CLIP

Abstract

A clip for electrically bonding a pair of adjacently-disposed metal panels is disclosed. One embodiment entails such a clip (104) including a first clip member (112) and an oppositely disposed second clip member (116). The surface (114) of the first clip member (112) that faces the second clip member (116) includes at least one grounding projection (128), while the surface (118) of the second clip member (116) that faces the first clip member (112) also includes at least one grounding projection (128). The clip (104) may be installed on a standing seam (102) of a panel assembly (100), with its first clip member (112) engaging one of the metal panels 82″ that define this stand seam (102) and with its second clip member (116) engaging the other of the metal panels 82″ that define this same standing seam (102).

Claims

1. A panel assembly, comprising a first metal panel comprising a first edge portion; second metal panel comprising a second edge portion; a standing seam defined by an interconnection of said first edge portion and said second edge portion of said first metal panel and said second metal panel, respectively; and an electrical bonding clip that engages at least part of said first metal panel and that engages at least part of said second metal panel, wherein said electrical bonding clip provides an electrical connection between said first metal panel and said second metal panel.

2. The panel assembly of claim 1, wherein said electrical bonding clip is formed entirely of stainless steel.

3. The panel assembly of claim 1, wherein said electrical bonding clip is formed entirely of a conductive metal or metal alloy.

4. The panel assembly of claim 1, wherein said electrical bonding clip is of an integral construction.

5. The panel assembly of claim 1, wherein said electrical bonding clip comprises a first clip member, a second clip member disposed in opposing relation to said first clip member, and a living hinge between said first clip member and said second clip member.

6. The panel assembly of claim 5, wherein said first clip member is biased toward said second clip member.

7. The panel assembly of claim 5, wherein said first clip member comprises a first surface that faces said second clip member and that comprises a first grounding projection, and wherein said second clip member comprises a second surface that faces said first clip member and that comprises a second grounding projection.

8. The panel assembly of claim 7, wherein each of said first grounding projection and said second grounding projection is configured to break a coating of said panel assembly.

9. The panel assembly of claim 1, wherein said electrical bonding clip engages overlapping portions of said first metal panel and said second metal panel that define at least part of said standing seam.

10. The panel assembly of claim 1, wherein said electrical bonding clip engages said standing seam.

11. The panel assembly of claim 1, wherein said electrical bonding clip engages a section of said standing seam that is disposed orthogonal to a pitch defined by said panel assembly.

12. The panel assembly of claim 1, wherein said electrical bonding clip comprises first and second clip sections, wherein said first clip section engages only said first metal panel, and wherein said second clip section engages only said second metal panel.

13. The panel assembly of claim 12, wherein said first clip section engages said first metal panel at a location that is spaced from said standing seam and said second clip section engages said second panel at a location that is spaced from said standing seam.

14. The panel assembly of claim 13, wherein said standing seam is located between said first clip section and said second clip section in a lateral dimension that is orthogonal to a length dimension of said standing seam that coincides with a pitch of said panel assembly.

15. The panel assembly of claim 12, wherein each of said first clip section and said second clip section comprise a first clip member, a second clip member disposed in opposing relation to its corresponding said first clip member, and a living hinge between said first clip member and its corresponding said second clip member.

16. The panel assembly of claim 15, wherein said first clip member is biased toward its corresponding said second clip member for each of said first and second clip sections.

17. The panel assembly of claim 15, wherein said first clip member for each of said first and second clip sections comprises a first surface that faces its corresponding said second clip member and that comprises at least one first grounding projection, wherein said second clip member for each of said first and second clip sections comprises a second surface that faces its corresponding said first clip member, and wherein said second surface of said second clip member for each of said first and second clip sections lacks any type of grounding projection.

18. The panel assembly of claim 17, wherein each said first grounding projection is configured to break a coating of said panel assembly.

19. The panel assembly of claim 17, wherein said first clip member for said first clip section is disposed on and engages an underside of said first metal panel, and wherein said first clip member for said second clip section is disposed on and engages an underside of said second metal panel.

20. The panel assembly of claim 15, wherein electrical bonding clip comprises a plate which in comprises said first clip member for said first clip section and said first clip member for said second clip section.

Description

BRIEF DESCRIPTION OF THE FIGURES

[0049] FIG. 1 is a perspective view of a prior art roofing surface defined by a plurality of interconnected panels, where each interconnection of adjacent pairs of panels defines a standing seam.

[0050] FIG. 2A is a perspective view of one prior art standing seam panel assembly configuration, where the standing seams are in the form of hollow seam ribs.

[0051] FIG. 2B is an end view of a standing seam of the prior art standing seam panel assembly of FIG. 2A.

[0052] FIG. 3A is an end view of one embodiment of a standing seam panel assembly, where one embodiment of an electrical bonding clip is installed on a standing seam of the standing seam panel assembly.

[0053] FIG. 3B is an end view of a panel used by the standing seam panel assembly of FIG. 3A.

[0054] FIG. 3C is an enlarged perspective view of an electrical bonding clip that is installed on a standing seam of the standing seam panel assembly of FIG. 3A.

[0055] FIG. 3D is another enlarged perspective view of the electrical bonding clip and standing seam shown in FIG. 3C, viewed from an opposite side compared to FIG. 3C.

[0056] FIG. 3E is an enlarged side view of the electrical bonding clip used by the standing seam panel assembly of FIG. 3A.

[0057] FIG. 4 is an enlarged perspective view of a grounding projection/electrical contact that may be used by an electrical bonding clip that is installed on a standing seam panel assembly.

[0058] FIG. 5A is a perspective top view of another embodiment of a standing seam panel assembly, where another embodiment of an electrical bonding clip engages an adjacent pair of panels on opposite sides of a corresponding standing seam.

[0059] FIG. 5B is a perspective bottom view of a portion of the standing seam panel assembly of FIG. 5A that incorporates an electrical bonding clip.

[0060] FIG. 5C is an enlarged perspective top view of an electrical bonding clip used by the standing seam panel assembly of FIG. 5A.

[0061] FIG. 5D is an enlarged bottom view of the electrical bonding clip shown in FIG. 5C.

[0062] FIG. 5E is an enlarged side view of the electrical bonding clip shown in FIG. 5C.

DETAILED DESCRIPTION

[0063] FIG. 1 illustrates a representative building/roofing surface 12. Generally, the roofing surface 12 may be defined in any appropriate manner and may be of any appropriate configuration. For instance, the roofing surface 12 may include one or more roofing sections, each of which may be of any appropriate pitch/slope and/or shape/size. The roofing surface 12 shown in FIG. 1 at least generally slopes downwardly in a direction denoted by arrow A from a peak 16 of the roofing surface 12 to an edge 14 of the roofing surface 12. Multiple panels 18 (e.g., metal panels) collectively define the roofing surface 12. The interconnection of each adjacent pair of panels 18 in the illustrated embodiment defines a standing seam 20 (only schematically illustrated in FIG. 1).

[0064] The standing seams 20 may at least generally proceed in the direction of or along the slope or pitch of the roofing surface 12 (e.g., the pitch of the length dimension of the standing seams 20 may match the pitch of the corresponding portion of the overall roofing surface 12). Each panel 18 includes at least one base section 22 that is at least generally flat or planar and that is disposed between each adjacent pair of standing seams 20 on the roofing surface 12. Each panel 18 could include one or more crests, minor ribs, intermediate ribs, partial ribs, striations, fluting, or flutes between its corresponding pair of standing seams 20 so as to provide multiple base sections 22 on each panel 18 (not shown).

[0065] The panels 18 may be of any appropriate configuration so to allow them to be interconnected or nested in a manner that defines a standing seam 20, and the standing seams 20 may be disposed in any appropriate orientation relative to the base sections 22 of the panels 18 that define the standing seam 20. Generally, each standing seam 20 is a protrusion of some sort that is defined at least in part by an adjacent pair of metal panels 18. For instance, the standing seams 20 may be characterized as at least initially extending orthogonally (e.g., perpendicularly) relative to the base sections 22 of the corresponding panels 18 (or relative to a pitch of the corresponding portion of the roofing surface 12). The illustrated standing seams 20 may be characterized as having a vertical end section, or as being of a vertical standing seam configuration. However, the end sections of the various standing seams 20 could also have portions that are horizontally disposed (e.g., at least generally parallel with the base sections 22 of the corresponding panels 18; at least generally parallel to a pitch of the corresponding portion of the roofing surface 12), or as being of a horizontal standing seam configuration.

[0066] FIG. 1 also shows a lateral dimension 30, a longitudinal dimension 32, and a vertical dimension 34. As such and in accordance with these coordinates: 1) the standing seams 20 are spaced from one another in the lateral dimension 30; 2) the length of the standing seams 20 is disposed in the longitudinal dimension 32 (e.g., extending between the peak 16 and edge 14 of the roofing surface 12); and 3) at least part of the standing seams 20 protrude in the vertical dimension 34 relative to adjacently-disposed base sections 22.

[0067] As noted, an edge portion (or longitudinal edge portion) of one panel may be interconnected with an edge portion (or longitudinal edge portion) of an adjacent panel to define a standing seam. Various types of standing seam configurations exist. One type of standing seam configuration has a larger space within the standing seam and may be referred to as a hollow seam rib configuration. FIGS. 2A and 2B illustrate one type of a panel assembly 80 that may be used to define a building or roofing surface, and that uses one type of hollow seam rib configuration. The panel assembly 80 of FIGS. 2A and 2B is defined by a plurality of panels 82. Each panel 82 includes a left seam rib section 83 (a rib section used to define a hollow seam rib 86), along with a right seam rib section 85 (a rib section used to define a standing seam 86). The left seam rib section 83 and right seam rib section 85 of a given panel 82 are spaced in the width dimension of the panel 82 (or in the lateral dimension 30). Each panel 82 may include one or more flat sections, as well as one or more other structures such as crests, minor ribs, intermediate ribs, pencil ribs, striations, fluting, or flutes. Generally, the right seam rib section 85 for the left panel 82 in the view of

[0068] FIG. 2B may be positioned over the left seam rib section 83 for the right panel 82 illustrated in the view of FIG. 2B to define a standing seam in the form of a hollow seam rib 86. Multiple panels 82 may be interconnected in this same general manner to define a panel assembly 80 of a desired size (both in the length dimension (longitudinal dimension 32) and width dimension (lateral dimension 30)).

[0069] Each hollow seam rib 86 of the panel assembly 80 may be characterized as having a first sidewall 88a and an oppositely disposed second sidewall 88b that are disposed in spaced relation (spaced in the lateral dimension 30). The first sidewall 88a includes an indentation 90a on an exterior of the seam rib 86, while the second sidewall 88b includes an indentation 90b on an exterior of the seam rib 86. The indentations 90a and 90b are disposed in opposing relation (e.g., disposed along a common axis that is orthogonal to the height of the hollow seam rib 86).

[0070] The seam rib 86 is of a hollow configuration, and includes an open space 96. A portion 92a of an internal surface of the seam rib 86 that is opposite of the indentation 90a (on the exterior of the seam rib 86) is spaced from a portion 92b of an opposing internal surface of the seam rib 86 that is opposite of the indentation 90b (on the exterior of the seam rib 86). In one embodiment, the portions 92a, 92b of the opposing internal surfaces of the seam rib 86 are separated by a distance D.sub.1 of at least about 0.35 inches (prior to being engaged by any seam fasteners not shown) and that is measured in the lateral dimension 30. In one embodiment, the portions 92a, 92b of the opposing internal surfaces of the seam rib 86 are separated by a distance D.sub.1 within a range of about 0.35 inches to about 0.75 inches. The open space 96 occupies the entire distance between the portions 92a, 92b of the opposing internal surfaces of the hollow seam rib 86. No other structure exists in this open space 96 throughout the entirety of the span between the portions 92a, 92b for the illustrated embodiment.

[0071] Exposed metal components of various types of equipment may be installed on a standing seam panel assembly of the types described herein and may become electrically energized, which in turn may electrically energize the standing seam panel assembly. In this regard, disclosed herein are various embodiments of standing seam panel assemblies that utilize an electrical bonding clip to establish an electrical path between adjacent pairs of panels that define a standing seam, and that may be used to electrically ground the standing seam panel assembly.

[0072] One embodiment of a standing seam panel assembly is illustrated in FIGS. 3A-3E and is identified by reference numeral 100. The panel assembly 100 includes a plurality of panels 82′ (e.g., metal or metal alloy) that are interconnected with one another. The interconnection between each adjacent pair of panels 82′ of the panel assembly 100 defines a standing seam 102 (a length dimension of the standing seam 102 (coinciding with the longitudinal dimension 32) typically being orthogonal to the lateral dimension 30 addressed below, and would also typically coincide with a pitch of a roofing surface that includes the panel assembly 100). At least one electrical bonding clip 104 may be installed on each standing seam 102 of the panel assembly 100, including on each adjacent pair of panels 82′ for the standing seam panel assembly 100. Generally, each electrical bonding clip 104 of the panel assembly 100 electrically connects the corresponding pair of panels 82′. It should be appreciated any appropriate number of panels 82′ may be interconnected in the manner embodied by FIGS. 3A-3E to define a standing seam panel assembly 100 of any appropriate size and/or configuration.

[0073] The panels 82′ of the standing seam panel assembly 100 are interconnected to define a standing steam 102 that is of a configuration that is different from the hollow seam rib configuration depicted in FIGS. 2A and 2B. Referring to FIGS. 3A and 3B, a right edge section (or a right longitudinal edge section) 182b of one panel 82′ may be disposed over a left edge section (or a left longitudinal edge section) 182a of an adjacent panel 82′ to define a standing seam 102. The left edge section 182a includes a sidewall 188a that extends upwardly when the corresponding panel 82′ is horizontally disposed (e.g., disposed/oriented orthogonal to the pitch of the corresponding roofing surface; extending away from a reference plane that contains the main body of the corresponding panel 82′), along with an end section 183a that extends downwardly when the corresponding panel 82′ is horizontally disposed (extending toward a reference plane that contains the main body of the corresponding panel 82′). The sidewall 188a and the end section 183a of the left edge section 182a are interconnected by an arcuate section, and with the end section 183a being disposed “inwardly” of the sidewall 188a in the lateral dimension 30.

[0074] The right edge section 182b includes a sidewall 188b that extends upwardly when the corresponding panel 82′ is horizontally disposed (e.g., disposed orthogonal to the pitch of the corresponding roofing surface; extending away from a reference plane that contains the main body of the corresponding panel 82′), along with an end section 183b that extends downwardly when the corresponding panel 82′ is horizontally disposed (extending toward a reference plane that contains the main body of the corresponding panel 82′). The sidewall 188b and the end section 183b of the right edge section 182b are interconnected by an arcuate section, and with the end section 183b being disposed “outwardly” of the sidewall 188b in the lateral dimension 30. In the illustrated embodiment, the spacing between the sidewall 188b and its corresponding end section 183b is larger than the spacing between the sidewall 188a and its corresponding end section 183a.

[0075] Each panel 82′ further includes a first lateral edge or end 132 and a second lateral edge or end 136 that are spaced from one another, and each of which coincides with the lateral dimension 30. Typically the lateral dimension 30 will be that which coincides with a constant elevation when proceeding along a line in the lateral dimension 30 and when the panel assembly 100 is in an installed configuration to define a pitched roofing surface. In any case and as noted, a right edge section 182b of one panel 82′ is disposed over a left edge section 182a of an adjacent panel 82′ to define a standing seam 102 in the case of the panel assembly 100. At this time, the sidewall 188b of the right edge section 182b of one panel 82′ may be disposed in closely spaced relation (and/or actually in interfacing relation) with the sidewall 188a of the left edge section 182a of the adjacent panel 82′. An electrical bonding clip 104 may be installed on the standing seam 102 of the panel assembly 100, namely on corresponding portions of the sidewall 188b of one panel 82′ and the corresponding sidewall 188a of the adjacent panel 82′ that collectively define a standing seam 102. In the case of the standing seam panel assembly 100, the electrical bonding clip 104 may be characterized as being installed in a vertical orientation.

[0076] Details of each electrical bonding clip 104 used by the standing seam panel assembly 100 are presented in FIGS. 3C-3E, and where each such electrical bonding 104 will typically be of the same configuration. As such, only one of the electrical bonding clips 104 will now be described. The electrical bonding clip 104 may be characterized as including a first clip member 112 and a second clip member 116 that is disposed in opposing relation to its corresponding first clip member 112. The first clip member 112 includes a first surface 114 that faces or projects toward the second clip member 116 (i.e., an interior surface of the electrical bonding clip 104) and that includes at least one electrical contact or grounding projection 128. The second clip member 116 includes a second surface 118 that faces or projects toward the first clip member 112 (i.e., an oppositely disposed interior surface 114 of the electrical bonding clip 104) and that includes at least one grounding projection 128. One end of the electrical bonding clip 104 is “open” and may be characterized as an inlet section 120 to the clip 104. The ends of the first clip member 112 and the second clip member 116 at the inlet section 120 may each flare in a direction away from one another to facilitate installation on a standing seam 102 as desired/required. An opposite end of the electrical bonding clip 104 is “closed” and may be characterized as a closed end or end section 124. In the case of the standing seam panel assembly 100 and as shown in FIGS. 3A, 3C, and 3D, the closed end 124 is vertically disposed/oriented when the clip 104 is installed on the corresponding standing seam 102 (e.g., disposed or oriented in the vertical dimension 34). At this time, one of the clip members 112, 116 will engage at least part of the sidewall 188a (one of the panels 82′) for the corresponding standing seam 102, while the other of the clip members 112, 116 will engage at least part of the sidewall 188b (an adjacent panel 82′) for the corresponding standing seam 102.

[0077] The first clip member 112 and the second clip member 116 of the electrical bonding clip 104 may be biased at least generally toward one another (e.g., via the elasticity of the end section 124 of the clip 104), including to the extent where the first clip member 112 and second clip member 116 are in contact with one another prior to being installed on a standing seam 102 of the panel assembly 100 (although such is not required). In any case, the spacing between the first clip member 112 and the second clip member 116 increases as/when the electrical bonding clip 104 is being installed on a standing seam 102. This “expansion” of the electrical bonding clip 104 may be realized by a flexing or bending (e.g., an elastic deformation) of the electrical bonding clip 104, may be characterized as a relative deflection of the first clip member 112 and the second clip member 116 at least generally away from one another, or both. For instance, the end section 124 of the electrical bonding clip 104 may be characterized as a “living hinge” (e.g., an arcuately-shaped, elastically-deformable, pliable portion) that allows relative movement between and interconnects the first clip member 112 and the second clip member 116. As such, the first clip member 112 and the second clip member 116 of the electrical bonding clip 104 may be characterized as being relatively deflectable away from one another (e.g., the second clip member 116 of the electrical bonding clip 104 may at least generally move away from the first clip member 112 by an elastic deformation of an interconnecting portion of the electrical bonding clip 104, for instance the noted living hinge in the form of the end section 124; pivotal or pivotal-like motion at least generally about the end section 124).

[0078] The first clip member 112 and the second clip member 116 of the electrical bonding clip 104 may at least at some point in time be biased toward one another as noted, and again this biasing force may be provided by the end section 124 (e.g., an elastic configuration). During at least a portion of the relative movement of the first clip member 112 and the second clip member 116 away from one another, the amount of biasing force may progressively increase (e.g., by an elastic “flexing” of the corresponding end section 124). Although a biasing force could be exerted on one or more of the first clip member 112 and the second clip member 116 prior to being installed on a standing seam 102 (including when the clip members 112, 116 are in contact with one another), such may not be required.

[0079] Referring now to FIG. 3E, the electrical bonding clip 104 may incorporate at least one electrical contact or grounding projection 128 on the first surface 114 of the first clip member 112, and at least one grounding projection 128 on the second surface 118 of the second clip member 116. These grounding projections 128 may be used to establish electrical connectivity between the two panels 82′ that are engaged by the electrical bonding clip 104 via being installed on the corresponding standing seam 102. At least one grounding projection 128 of the first clip member 112 will engage (and be in electrical contact with) one of the panels 82′ that define the standing seam 102 on which the clip 104 is mounted (either its sidewall 188a or its sidewall 188b), while at least one grounding projection 128 of the second clip member 116 will engage (and be in electrical contact with) the other of the panels 82′ that define the standing seam 102 on which the clip 104 is mounted (either its sidewall 188a or its sidewall 188b). Each of the grounding projections 128 that are used by the electrical bonding clip 104 may be of a size, shape, and/or configuration, but are preferably configured so as to scratch the corresponding surface of the standing seam 102 as the clip 104 is being installed on the standing seam 102. This should enhance/allow electrical communication between the first clip member 112 and the panel 82′ that is engaged thereby (at the standing seam 102—either its sidewall 188a or sidewall 188b), and which should enhance/allow electrical communication between the second clip member 116 and the panel 82′ that is engaged thereby (at the standing seam 102—either its sidewall 188a or sidewall 188b). The clip members 112, 116 may be characterized as engaging opposed surfaces of overlapping portions of the two panels 82′ that define at least part of the standing seam 102.

[0080] The noted grounding projections 128 for the first surface 114 and second surface 118 of the electrical bonding clip 104 may be characterized as providing electrical continuity between standing seam panels that are engaged by the electrical bonding clip 104 (e.g., an electrical path may encompass a first panel 82′ engaged with one or more grounding projections 128 on the first surface 114 of the electrical bonding clip 104, the first surface 114 of the electrical bonding clip 104 being electrically connected to the second surface 118 of the electrical bonding clip 104 through the end section 124, and one or more grounding projections 128 of the second surface 118 of the electrical bonding clip 104 being engaged with a second panel 82′). This may be referred to as “bonding” or “electrically bonding” a pair of adjacent panels 82′. In any case, the noted electrical connection provided by the grounding projections 128 of the electrical bonding clip 104 may be used to electrically connect standing seam panels, which in turn may be used to provide an electrical path to ground an entire building surface of standing seam panels (or any portion thereof).

[0081] The electrical bonding clip 104 may be formed of any appropriate material or combination of materials to establish an electrical connection between a pair of panels 82′ that together define a standing seam 102 (e.g., a metal or a metal alloy, and including from an electrically conductive material). For example, the electrical bonding clip 104 may be formed entirely of stainless steel. Furthermore, the electrical bonding clip 104 may be fabricated in any appropriate manner. For instance, the electrical bonding clip 104 could be of a one-piece construction (e.g., being integrally formed from a piece of sheet metal).

[0082] In summary, an electrical bonding clip 104 of the panel assembly 100 may electrically engage overlapping portions of a first panel 82′ and a second panel 82′, namely at a standing seam 102 defined by the interconnection of these two panels 82′. In this regard, the electrical bonding clip 104 may be appropriate for installation on other standing seam configurations that are defined at least in part by overlapping portions from two adjacent panels, such as a double fold or double-folded standing seam configurations. The electrical bonding clip 104 provides what may be characterized as a “slide fit” for the pair of panels 82′ on which the clip 104 is installed. In this regard, the inlet section 120 of the electrical bonding clip 104 will be aligned with the adjacently disposed sidewalls 188a, 188b for the two panels 82′ at the lateral edges 132 of the two panels 82′ (another clip 104 could be installed on the same standing seam 102 at the oppositely disposed lateral edges 136 of the panels 82′ as desired/required). The electrical bonding clip 104 will then be advanced toward the standing seam 102 (e.g., at least generally in the direction of the opposing lateral edges 136 of the panels 82′) to position the first clip member 112 on one side of the standing seam 102 and to position the second clip member 116 on the other side of the standing seam 102. The electrical bonding clip 104 may be slid onto the standing seam 102 in the noted manner until the end section 124 of the electrical bonding clip 104 engages the lateral edges 132 of the two panels 82′ at the standing seam 102, although such may not be required in all instances.

[0083] In the embodiment shown in FIGS. 3C and 3D, the first clip member 112 of the electrical bonding clip 104 engages the sidewall 188b for the left panel 82′, while the second clip member 116 of the clip 104 engages the sidewall 188a for the right panel 82′ and in the views for FIGS. 3C and 3D, all as the clip 104 is slid onto a standing seam 102 in the noted manner. This installation may also increase the spacing between the first clip member 112 and the second clip member 116 as noted above, and which should generate a sufficient force so as to retain the electrical bonding clip 104 on the standing seam 102. Again, the first surface 114 of the first clip member 112 and the second surface 118 of the second clip member 116 each may include one or more grounding projections 128 (e.g., having one or more “sharp” edges). Such grounding projections 128 may facilitate establishing sufficient electrical contact with the corresponding panel 82′ (e.g., by configuring such grounding projections 128 to break a coating on the panel assembly 100 as the electrical bonding clip 104 is installed on a standing seam 102 in the foregoing manner). That is, the sliding motion that is used to install the electrical bonding clip 104 on the standing seam 102 may slide one or more grounding projections 128 along each side of the standing seam 102 (and while remaining in contact therewith) to enhance the electrical path between the clip 104 and each of the panels 82′ that are engaged by the clip 104.

[0084] When an electrical bonding clip 104 has been installed on a standing seam 102 in the noted manner, the two panels 82′ may be characterized as being “bonded” or “electrically bonded” via the electrical bonding clip 104. A series of panels 82′ that collectively define the panel assembly 100 may therefore be electrically connected by each associated electrical bonding clip 104, namely by installing at least one electrical bonding clip 104 on each adjacent pair of panels 82′ that collectively define a corresponding standing seam 102. This electrical path may be used to ground the entire panel assembly 100 (e.g., by running a grounding wire from one or more of the panels 82′ of the panel assembly 100 to ground, as each adjacent pair of standing seam panels 82′ in the panel assembly 100 should be electrically interconnected by at least one electrical bonding clip 104). The noted electrical path includes the left metal panel 82′ shown in FIGS. 3C and 3D, to the first clip member 112 (via the engagement of or more grounding projections 128 of the first clip member 112 that engages this left metal panel 82′), from the first clip member 112 to the second clip member 116 via the closed end section 124, and from the second clip member 116 to the right metal panel 82′ shown in Figured 3C and 3D (including via one or more grounding projections 128 of the second clip member 116 that engages this right metal panel 82′).

[0085] FIG. 4 presents a representative configuration for the electrical contacts or grounding projections 128 used by the electrical bonding clip 104 of FIGS. 3A-3E. Other configurations may be appropriate. The electrical contact 128′ shown in FIG. 4 cantilevers from a remainder of the corresponding clip member 112/116 of the electrical bonding clip 104 (e.g., each electrical contact 128′ may be “punched” from the corresponding clip member 112/116). That is, the electrical contact 128′ is partially separated from its corresponding clip member 112/116 to define an aperture 128a. The boundary between the electrical contact 128′ and the remainder of the clip member 112/116 (where the electrical contact 128′ remains attached to its corresponding clip member 112/116) is identified by reference numeral 128b in FIG. 4. The electrical contact 128′ may flex or bend relative to the corresponding clip member 112/116 at least generally about this boundary 128b, and as such this may also be referred to as “hinge 128b.”

[0086] In the illustrated embodiment, the electrical contact 128′ is at least generally triangularly-shaped, and in any case extends toward the opposing clip member 112, 116 at an angle. Other configurations may be appropriate. A free end section or point 128c of the electrical contact 128′ may be characterized as being disposed in the direction of the closed end section 124 of the electrical bonding clip 104, while the hinge 128b may be characterized as being disposed in the direction of the inlet 120. That is, the electrical contact 128′ may be characterized as extending from its hinge 128b at least generally in the direction of the closed end section 124. As noted, the electrical contact 128′ may also be characterized as extending from its hinge 128 associated with one of the clip members 112, 116, at least generally in the direction of the other of the clip members 112, 116.

[0087] Another embodiment of a standing seam panel assembly is illustrated in FIGS. 5A-5E and is identified by reference numeral 200. The panel assembly 200 includes a plurality of panels 82″ (e.g., metal or metal alloy) that are interconnected with one another. Each panel 82″ includes a first lateral edge or end 232 and a second lateral edge or end 236 that are spaced from one another in the longitudinal dimension 32. The interconnection between each adjacent pair of panels 82″ of the panel assembly 200 defines a standing seam 202 (a length dimension of the standing seam 202 typically being orthogonal to the lateral dimension 30, and would typically coincide with a pitch of a roofing surface that includes the panel assembly 200). At least one electrical bonding clip 204 may be installed for each standing seam 202 used by the panel assembly 200, including for each adjacent pair of panels 82″ of the standing seam panel assembly 200 that are interconnected to define a standing seam 202. Generally, each electrical bonding clip 204 of the panel assembly 200 electrically connects each pair of panels 82″ that are interconnected to define a standing seam 202. It should be appreciated any appropriate number of panels 82″ may be interconnected in the manner embodied by FIGS. 5A-5E to define a standing seam panel assembly 200 of any appropriate size and/or configuration.

[0088] The electrical bonding clips 104 used by the standing seam panel assembly 100 of FIGS. 3A-3E are each installed directly on a standing seam 102 in accordance with the foregoing. That is not the case for the electrical bonding clips 204 used by the standing seam panel assembly 200 of FIGS. 5A-5E. Generally, each electrical bonding clip 204 for the embodiment of FIGS. 5A-5E separately engages each panel 82″ that defines a standing seam 202 on each of the two sides of the standing seam 202, not on the standing seam 202 itself. As such and as will be addressed in more detail below, one portion of a given electrical bonding clip 204 will be positioned on one side of the corresponding standing seam 202 (and engages only one of the two panels 82″ that defines this standing seam 202), while another portion of this same electrical bonding clip 204 will be positioned on the opposite side of this same standing seam 202 (and engages only the other of the two panels 82″ that defines this same standing seam 202).

[0089] Referring now primarily to FIGS. 5A and 5B, a pair of panels 82″ of the standing seam panel assembly 200 are shown as being interconnected to define a standing seam 202. The standing seam 202 in this case is in the form of a hollow seam rib. A different hollow seam rib configuration is shown in

[0090] FIGS. 2A and 2B and was addressed above. The electrical bonding clip 204 can be used with any hollow seam rib configuration (including that which is presented in FIGS. 2A and 2B), and in fact could be used with the standing seam configuration used by the standing seam panel assembly 100 of FIGS. 3A-3E (or any other standing seam configuration for that matter). Generally, the electrical bonding clip 204 does not engage a standing seam, but instead separately engages the two panels that are on each side of this standing seam (where the two noted panels are interconnected to define this standing seam). In addition, the electrical bonding clip 204 is installed in a horizontal orientation (versus the vertical orientation used by the electrical bonding clip 104 for the panel assembly 100 of FIGS. 3A-3E).

[0091] The electrical bonding clip 204 of the panel assembly 200 includes a first clip section 248 and a second clip section 252 that are spaced from one another in the lateral dimension 30. The first clip section 248 is positioned on one side of the standing seam 202 and engages only one of the two panels 82″ that defines this standing seam 202. In the view shown in FIGS. 5A and 5B, the first clip section 248 is positioned on the left side of the standing seam 202 and engages only the left panel 82″. The second clip section 252 is positioned on the other side of the standing seam 202 and engages only one of the two panels 82″ that defines this standing seam 202. In the view shown in FIGS. 5A and 5B, the second clip section 252 is positioned on the right side of the standing seam 202 and engages only the right panel 82″. Any appropriate spacing may exist between the standing seam 202 and each of the clip sections 248, 252.

[0092] Additional details of the electrical bonding clip are shown in FIGS. 5C-5E. Each of the first clip section 248 and the second clip section 252 includes a first clip member 212 and a second clip member 216 that are disposed in opposing relation to one another in the same manner as discussed above regarding the electrical bonding clip 104 of FIGS. 3A-3E. The discussion presented above regarding the electrical bonding clip 104 is thereby equally applicable to each of the first clip section 248 and the second clip section 252 of the electrical bonding clip 204 unless otherwise noted herein to the contrary. The electrical bonding clip 204 includes a plate or base 256 that is disposed on an underside of a pair of adjacently disposed panels 82″ that are interconnected to define a standing seam 202 when the clip 204 is in an installed configuration. Generally, one part of the plate 256 defines one part of the first clip section 248 (its corresponding first clip member 212—discussed below), another part of this same plate 256 defines part of the second clip section 252 (its corresponding first clip member 212—discussed below), and yet another part of this same plate 256 is disposed under the standing seam 202 (an intermediate portion 260 that extends between the first clip member 212 for each of the first clip section 248 and the second clip section 252). The bottom plate 256 may be of any appropriate extent in the lateral dimension 30, and including where the bottom plate 256 extends beyond the first clip section 248 in the lateral dimension 30 and in a direction that is further away from the corresponding stand seam 202 (not shown) and/or including where the bottom plate 256 extends beyond the second clip section 252 in the lateral dimension 30 and in a direction that is further away from the corresponding stand seam 202 (not shown).

[0093] The first clip member 212 for each of the first clip section 248 and second clip section 252 includes a first surface 214 that faces or projects toward the corresponding second clip member 216 (i.e., an interior surface for the corresponding clip section 248, 252) and that includes at least one of the above-noted grounding projections 128. The second clip member 216 for each of the first clip section 248 and the second clip section 252 includes a second surface 218 that faces or projects toward the corresponding first clip member 212. In the illustrated embodiment, the second surface 218 of the second clip member 216 for each clip section 248, 252 lacks any type of grounding projection (e.g., in the form of a smooth surface). The first clip member 212 for each of the first clip section 248 and the second clip section 252 is disposed on and engages an underside (or interior side) of the corresponding panel 82″, while the second clip member 216 for each of the first clip section 248 and the second clip section 252 is disposed on and engages a topside (or exterior side) of the corresponding panel 82″. As the second clip member 216 for each of the first clip section 248 and the second clip section 252 does not include any ground projections in the illustrated embodiment, installation of the electrical bonding clip 204 should not scratch the top or upper surface of the corresponding panels 82″ to any significant degree.

[0094] As illustrated in FIG. 5E, a common end for each of the first clip section 248 and second clip section 252 is “open” and may be characterized as an inlet section 220 to the corresponding clip section 248, 252. An opposite common end for each of the first clip section 248 and second clip section 252 is “closed” and may be characterized as an end section 224. A free end portion of the first clip member 212, at the inlet section 220 for each of the clip sections 248, 252 may flare or diverge away from the corresponding second clip member 216 to facilitate installation of the electrical bonding clip 204 on the panels 82″ as desired/required. The entirety of each second clip member 216 may be an at least substantially planar structure such that when the electrical bonding clip 204 is engaged with a pair of panels 82″, each second clip member 216 should be at least substantially flush (i.e., in contact) with a topside of the corresponding panel 82″ (e.g., an exterior side of the panel 82″).

[0095] In the case of the standing seam panel assembly 200 and as shown in FIGS. 5A and 5B, the end section 224 for each of the clip sections 248, 252 is horizontally disposed when installed on an adjacent pair of panels 82″ that are interconnected to define a standing seam 202. As such, the second clip member 216 for each clip section 248, 252 will engage an upper surface of the corresponding panel 82″ on each side of the corresponding standing seam 202, while the first clip member 212 for each of the clip sections 248, 252 will engage a lower/bottom surface (or the underside) of the corresponding panel 82″ on each side of the corresponding standing seam 202.

[0096] The clip sections 248, 252 for the electrical bonding clip 204 will typically be of a common configuration. The following discussion is equally applicable to both clip sections 248, 252 unless otherwise noted. The first clip member 212 and the corresponding second clip member 216 may be biased at least generally toward one another (e.g., via the elasticity of the corresponding closed end 224), including to the extent where the first clip member 212 and the corresponding second clip member 216 are in contact with one another prior to being installed on an adjacent pair of panels 82″ of the panel assembly 200 (although such is not required). In any case, the spacing between the first clip member 212 and the corresponding second clip member 216 increases as/when the electrical bonding clip 204 is installed on an adjacent pair of panels 82″ of the panel assembly 200. This “expansion” of the clip sections 248, 252 may be realized by a flexing or bending (e.g., an elastic deformation) of the clip sections 248, 252, may be characterized as a relative deflection of the first clip member 212 and the corresponding second clip member 216 at least generally away from one another, or both. For instance, the end section 224 for each of the clip sections 248, 252 may be characterized as a “living hinge” (e.g., an arcuately-shaped, elastically-deformable, pliable portion) that allows relative movement between and interconnects a first clip member 212 and a corresponding second clip member 216. As such, the first clip member 212 and the corresponding second clip member 216 may be characterized as being relatively deflectable away from one another (e.g., the second clip member 216 may at least generally move away (relatively) from the corresponding first clip member 212 by an elastic deformation of an interconnecting portion of the corresponding clip section 248, 252, for instance the noted living hinge in the form of the corresponding end section 224; pivotal or pivotal-like motion at least generally about the end section 224). The first clip member 212 and the corresponding second clip member 216 may at least at some point in time be biased toward one another as noted, and again this biasing force may be provided by the corresponding end section 224 disposed therebetween (e.g., an elastic configuration). During at least a portion of the relative movement of the first clip member 212 and the corresponding second clip member 216 away from one another, the amount of the biasing force may progressively increase (e.g., by an elastic “flexing” of the corresponding end section 224). Although a biasing force could be exerted on one or more of the first clip member 212 and the corresponding second clip member 216 prior to being installed on an adjacent pair of panels 82″ of the panel assembly 200 (including when the corresponding clip members 212, 216 are in contact with one another), such is not required.

[0097] Referring now to FIG. 5E, the electrical bonding clip 204 may incorporate at least one electrical contact or grounding projection 128 on the first surface 214 of each first clip member 212. These grounding projections 128 may be used to establish electrical connectivity between the two panels 82″ that are engaged by the electrical bonding clip 204 via engaging a panel 82″ on each side of a standing seam 202 defined by a pair of adjacent panels 82″. At least one grounding projection 128 of the first clip member 212 for the first clip section 248 will engage (and be in electrical contact with) one of the panels 82″ associated with a particular standing seam 202, while at least one grounding projection 128 of the first clip member 212 for the second clip section 252 will engage (and be in electrical contact with) the other of the panels 82″ associated with this same standing seam 202. This should accommodate/allow electrical communication between the first clip member 212 of the first clip section 248 and the panel 82″ that is engaged thereby, and which should allow electrical communication between the first clip member 212 of the second clip section 252 and the panel 82″ that is engaged thereby. The clip sections 248, 252 are electrically connected by the common bottom plate 256 of the clip 204.

[0098] The noted grounding projections 128 for the first surface 214 of the first clip member 212 for each of the clip sections 248, 252 of the electrical bonding clip 204 may be characterized as providing electrical continuity between a pair of standing seam panels that are engaged by the electrical bonding clip 204 (e.g., an electrical path may encompass one panel 82″ being engaged by one or more grounding projections 128 of the first clip member 212 for the first clip section 248 of the electrical bonding clip 204, by the first clip member 212 for the first clip section 248 of the electrical bonding clip 204 being electrically connected with the first clip member 212 for the second clip section 252 of the electrical bonding clip 204 by the intermediate portion 260 of the bottom plate 256, and the adjacent panel 82″ being engaged by one or more grounding projections 128 of the first clip member 212 for the second clip section 252 of the electrical bonding clip 204). Again, this may be referred to as “bonding” or “electrically bonding” an adjacent pair of panels 82″. In any case, the noted electrical connection provided by the grounding projections 128 of the electrical bonding clip 204 may be used to electrically connect adjacent pairs of standing seam panels, which in turn may be used to provide an electrical path to ground an entire building surface of standing seam panels (or any discrete portion thereof).

[0099] The electrical bonding clip 204 may be formed of any appropriate material or combination of materials to establish an electrical connection between a pair of panels 82″ that together define a standing seam 202 (e.g., a metal or a metal alloy, and including from an electrically conductive material). For example, the electrical bonding clip 204 may be formed entirely of stainless steel. Furthermore, the electrical bonding clip 204 may be fabricated in any appropriate manner. For instance, the electrical bonding clip 204 could be of a one-piece construction (e.g., being integrally formed from a piece of sheet metal).

[0100] In summary, an electrical bonding clip 204 electrically engages an adjacent pair of panels 82″ other than at the standing seam 202 defined by this adjacent pair of panels 82″ for the case of the panel assembly 200 of FIGS. 5A-5E. The electrical bonding clip 204 provides what may be characterized as a “slide fit” for an adjacent pair of panels 82″ on which the clip 204 is to be installed. In this regard, the inlet section 220 of the clip section 248 will be aligned with a lateral edge 232 of the left panel 82″ shown in FIG. 5A at a location other than at the standing seam 202, while the inlet section 220 of the clip section 252 will be aligned with a lateral edge 232 of the right panel 82″ shown in FIG. 5A at a location other than at the standing seam 202 (another clip 204 could be installed in the same general manner, but on the oppositely disposed lateral edge 236 of the panels 82″, as desired/required). The electrical bonding clip 204 will then be advanced to position a portion of the left panel 82″ shown in FIG. 5A between the first clip member 212 and the second clip member 216 of the first clip section 248, and to position a portion of the right panel 82″ shown in FIG. 5A between the first clip member 212 and the second clip member 216 of the second clip section 252 (e.g., a movement at least generally in the direction of the opposing lateral edge 236 of the corresponding panel 82″). The electrical bonding clip 204 may be slid onto the two panels 82″ shown in FIG. 5A in the noted manner until the end section 224 of the first clip section 248 engages the lateral edge 232 of the left panel 82″ shown in FIG. 5A and/or until the end section 224 of the second clip section 252 engages the lateral edge 232 of the right panel 82″ shown in FIG. 5A, although such may not be required in all instances. As such, the first clip section 248 for the clip 204 will be positioned on the left side of the standing seam 202 shown in FIG. 5A, while the second clip section 252 for the clip 204 will be positioned on the right side of the standing seam 202 shown in FIG. 5A. Although the electrical grounding clip 204 may be installed such that the clip sections 248, 252 will be equally spaced from the standing seam 202, such need not be the case for all circumstances.

[0101] When an electrical bonding clip 204 has been installed on an adjacent pair of panels 82″ in the above-noted manner, the two panels 82″ may be characterized as being “bonded” or “electrically bonded” via the electrical bonding clip 204. A series of panels 82″ that collectively define the panel assembly 200 may therefore be electrically connected by each associated electrical bonding clip 204, namely by installing at least one electrical bonding clip 204 on each adjacent pair of panels 82″ that collectively define a corresponding standing seam 202. This electrical path may be used to ground the entire panel assembly 200 (e.g., by running a grounding wire from one or more of the panels 82″ of the panel assembly 200 to ground, as each adjacent pair of standing seam panels 82″ in the panel assembly 200 should be electrically interconnected by at least one electrical bonding clip 204). An electrical path in accordance with the embodiment of FIGS. 5A-5E may be from the left metal panel 82″ in the views shown in FIGS. 5A and 5B, to the first clip member 212 of the clip section 248 (including via one or more grounding projections 128 of the first clip member 212 of the clip section 248 that engages the underside of this left metal panel 82″), from the first clip member 212 of the clip section 248 to the first clip member 212 of the clip section 252 via the intermediate portion 260 of the plate 256, and from the first clip member 212 of the clip section 252 to the right metal panel 82″ in the view of FIGS. 5A and 5B (including via one or more grounding projections 128 of the first clip member 212 for the clip section 252 that engages this right metal panel 82″).

[0102] The foregoing description of the present invention has been presented for purposes of illustration and description. Furthermore, the description is not intended to limit the invention to the form disclosed herein. Consequently, variations and modifications commensurate with the above teachings, and skill and knowledge of the relevant art, are within the scope of the present invention. The embodiments described hereinabove are further intended to explain best modes known of practicing the invention and to enable others skilled in the art to utilize the invention in such, or other embodiments and with various modifications required by the particular application(s) or use(s) of the present invention. It is intended that the appended claims be construed to include alternative embodiments to the extent permitted by the prior art.