IP Library Granted Patent US 11,545,929
Granted Patent B2
US 11,545,929 · App. 17/233,388 · Granted Jan 3, 2023

Solar panel racking system

Inventors: Donald S. Scipione (Cleveland Heights, OH); Rob Martens (Cleveland, OH)
Assignee: UNITED STATES DEPARTMENT OF ENERGY
H02S30/10H02S40/34
View Patent ↗
Loading inventors, assignments & file history…
Monitor This Case
Get email alerts when status or documents change.
Order Certified Copies
Most orders are placed with the USPTO same day — all within 24 business hours.
Order via The Patent Place →
Pre-filled with this patent's details
Quick Facts
Patent No.
US 11,545,929
App. No.
17/233,388
Granted
Jan 3, 2023
Kind
B2
Abstract

A method of installing on a horizontal or near-horizontal support surface a solar panel array including multiple solar panels may include, at the deployment site, fabricating from metal coil stock longitudinally continuous rack channels each having upstanding legs of different heights, locating the channels in parallel rows with a spacing determined by a width of the solar panels with interior spaces of the channels facing upwardly, weighing the channels down on the support surface by placing ballast in the channel spaces, and positioning the solar panels each with an edge supported by a high leg of one channel of the channels and an opposite edge supported by a low leg of an adjacent channel of the channels.

Claims (54)

1. A method of installing on a horizontal or near-horizontal support surface a solar panel array including multiple solar panels, the method comprising:

at a deployment site, operating a coil roll-forming machine to fabricate from metal coil stock longitudinally continuous rack channels each having a length of over 40 feet and upstanding legs of different heights;

locating the channels in parallel rows with a spacing determined by a width of the solar panels with interior spaces of the channels facing upwardly;

weighing the channels down on the support surface by placing ballast in the interior spaces; and

positioning the solar panels each with an edge supported by a high leg of one channel of the channels and an opposite edge supported by a low leg of an adjacent channel of the channels,

the deployment site corresponding to (a) an area within which the support surface resides plus (b) an adjacent area corresponding to (i) a length of the coil roll-forming machine plus the length of the rack channel times (ii) a width of the coil roll-forming machine,

wherein the positioning the solar panels includes:

clamping a first longitudinal edge of a solar panel from the solar panels to the high leg of the respective one channel using clamps, wherein the clamps space the first longitudinal edge of the solar panel from the high leg to form a gap therebetween such that there is no vertical overlap between the solar panel and the respective one channel to which the solar panel is clamped.

2. The method of claim 1 , wherein the positioning the solar panels includes:

hingedly clamping a first longitudinal edge of a solar panel from the solar panels to the high leg of the respective one channel using hinged clamps, wherein the clamps space the first longitudinal edge of the solar panel from the high leg to form a gap therebetween and to permit a second longitudinal edge of the solar panel opposite the first longitudinal edge to be pivotably raised about the hinged clamps.

3. The method of claim 1 , comprising:

securing grounding circuitry for the solar panels to the channels.

4. The method of claim 1 , comprising:

keeping each of the rack channels within the deployment site from fabrication of the rack channel to operation of the solar panel array to produce electricity.

5. A method of installing on a horizontal or near-horizontal support surface a solar panel array including multiple solar panels, the method comprising:

converting metal coil stock to rack channels made of a single piece of sheet metal each having upstanding legs of different heights;

locating the channels in parallel rows with a spacing determined by a width of the solar panels with interior spaces of the channels facing upwardly;

weighing the channels down on the support surface by placing ballast in the interior spaces; and

securing the solar panels to the channels each with an edge supported by a high leg of one channel of the channels and an opposite edge supported by a low leg of an adjacent channel of the channels,

wherein the securing the solar panels includes:

hingedly clamping a first longitudinal edge of a solar panel from the solar panels to the high leg of the respective one channel using hinged clamps, wherein the clamps space the first longitudinal edge of the solar panel from the high leg to form a gap therebetween and to permit a second longitudinal edge of the solar panel opposite the first longitudinal edge to be pivotably raised about the hinged clamps.

6. The method of claim 5 , wherein the securing the solar panels includes:

clamping a first longitudinal edge of a solar panel from the solar panels to the high leg of the respective one channel using clamps, wherein the clamps space the first longitudinal edge of the solar panel from the high leg to form a gap therebetween such that there is no vertical overlap between the solar panel and the respective one channel to which the solar panel is clamped.

7. The method of claim 5 , comprising:

securing grounding circuitry for each of the solar panels to respective portions of the channels to which the solar panels are secured.

8. The method of claim 5 , comprising:

keeping each of the rack channels within a deployment site within which the support surface is located from the converting to operation of the solar panel array to produce electricity.

9. A solar panel array deployed on a deployment site, comprising:

multiple solar panels;

longitudinally continuous rack channels each having upstanding legs of different heights, the channels located on a support surface in parallel rows with a spacing determined by a width of the solar panels with interior spaces of the channels facing upwardly; and

ballasts disposed in the interior spaces to weigh the channels down on the support surface,

the solar panels each mounted with an edge supported by a high leg of one channel of the channels and an opposite edge supported by a low leg of an adjacent channel of the channels,

the solar panel array further comprising:

clamps clamping a first longitudinal edge of a solar panel from the solar panels to the high leg of the respective one channel using clamps, wherein the clamps space the first longitudinal edge of the solar panel from the high leg to form a gap therebetween such that there is no vertical overlap between the solar panel and the respective one channel to which the solar panel is clamped.

10. The solar panel array of claim 9 , comprising:

hinged clamps hingedly clamping a first longitudinal edge of a solar panel from the solar panels to the high leg of the respective one channel using hinged clamps, wherein the clamps space the first longitudinal edge of the solar panel from the high leg to form a gap therebetween and to permit a second longitudinal edge of the solar panel opposite the first longitudinal edge to be pivotably raised about the hinged clamps.

11. The solar panel array of claim 9 , comprising:

ground connections for securing grounding circuitry for the solar panels to the channels.

12. The solar panel array of claim 9 , comprising:

solar panels ground connections for securing grounding circuitry for solar panels mounted to a channel, the channel having a single ground connection to earth or a remote power system.

13. A solar panel array deployed on a deployment site, comprising:

multiple solar panels;

longitudinally continuous rack channels each having a length of over 40 feet and upstanding legs of different heights, the channels located on a support surface in parallel rows with a spacing determined by a width of the solar panels with interior spaces of the channels facing upwardly; and

ballasts disposed in the interior spaces to weigh the channels down on the support surface,

the solar panels each positioned with an edge supported by a high leg of one channel of the channels and an opposite edge supported by a low leg of an adjacent channel of the channels,

the deployment site corresponding to (a) an area within which the support surface resides plus (b) an adjacent area corresponding to (i) a length of a coil roll-forming machine plus the length of the rack channel times (ii) a width of the coil roll-forming machine,

the solar panel array further comprising:

hinged clamps hingedly clamping a first longitudinal edge of a solar panel from the solar panels to the high leg of the respective one channel using hinged clamps, wherein the clamps space the first longitudinal edge of the solar panel from the high leg to form a gap therebetween and to permit a second longitudinal edge of the solar panel opposite the first longitudinal edge to be pivotably raised about the hinged clamps.

14. The solar panel array of claim 13 , comprising:

clamps clamping a first longitudinal edge of a solar panel from the solar panels to the high leg of the respective one channel using clamps, wherein the clamps space the first longitudinal edge of the solar panel from the high leg to form a gap therebetween such that there is no vertical overlap between the solar panel and the respective one channel to which the solar panel is clamped.

15. The solar panel array of claim 13 , comprising:

ground connections for securing grounding circuitry for the solar panels to the channels.

16. The solar panel array of claim 14 , comprising:

solar panels ground connections for securing grounding circuitry for solar panel mounted to a channel, the channel having a single ground connection to earth or a remote power system.

Continuity (3)
Continuation In Part 16910848 · Jun 24, 2020
Continuation In Part 16269663 · Feb 7, 2019
Related Publication 20210242827A1 · Aug 5, 2021