Method and apparatus for covering an area is disclosed. The apparatus includes a plurality of bases located near a first side of the area and positioned substantially normal to ground, a plurality of flexible rods connected to the bases, and covering material secured to the flexible rods. The covering material crumples into a compact form when not spread out. A stabilizer may be used to provide stability and strength to the bases. The flexible rods are bent toward a second side of the area and attached to attachment mechanisms at the second side. The covering material is spread over the area along the now bent the flexible rods, thereby covering the area. The covering material may be fastened to one of the bases, to one of the attachment mechanisms, or other structures. Guy lines may connect the flexible rods to stable articles to provide additional stability.

An inflatable booth for use in detecting dents on an automobile. The inflatable booth generally forms an archway or tunnel and has an exterior surface and an interior surface. Lights are mounted on the exterior surface of the booth. The exterior surface of the booth is transparent or clear at least in the areas where the lights are positioned. The interior surface has a repeating geometric pattern. To detect dents, an automobile is driven into the booth and the lights are turned on. The geometric pattern on the interior surface of the booth is reflected off the surface of the automobile forming a reflected pattern. Dents or mars in the surface of the automobile cause distortions in the reflected pattern, thus making them easy to detect and fix. The booth can be easily inflated, deflated, and transported.

A solar power generation assembly includes a vertical support column; a canopy including a plurality of solar modules for solar power generation; a first brace and a second brace on a first side of the support column to support the canopy; a third brace and a fourth brace on a second side of the support column to support the canopy; and a gutter system integrated into the canopy and directing precipitation along one or more of the second brace and the fourth brace to the support column. One or more of the first brace and the third brace manage electrical cables extending from the canopy to the support column.

To provide a roof structure free from generation of a dead space, capable of reducing a load moment.

A roof structure including a roof (1) supported by a post (2) is a cantilever structure having the front end of the roof (1) formed in a free end and the rear end connected to the upper end of the post (2). The lower end of the post (2) is fixed in a concrete foundation (5). The post (2) is tilted with the upper end directed backward and with the lower end directed forward. A counter moment cm generated on the post (2) at the time of application of a load to the roof (1) reduces a load moment (M) generated by the load, thereby bringing the post (2) into an advantageous state in strength. The configuration of the post (2) with two post members and a vertical connecting member (10) connecting the post members facilitates the construction of the post (2) to be tilted at a desired angle.

A shade structure assembly includes at least one column member. A horizontal beam is secured at a top end of the column member. A first rail is secured to a first end and a second rail is secured to a second end of each horizontal beam. At least one truss assembly is secured to the rails. The truss assembly includes at least two truss members arranged in spaced parallel relation. Structural supports connect the truss members along two of the truss beams and panel supports connect the truss members along two of the truss beams. The panel supports mount a panel array. Each truss member may comprise a center truss portion and one or both of a first and second truss extension. Each truss member may be comprised of a universal center truss portion and one or both of a first and second truss extension.

A solar array support structure includes a first vertical pile extending from a ground to a first pile end, a second vertical pile extending from the ground to a second pile end, and a first pile cap attached to each of the first and second vertical piles, the first pile cap configured to account for a misalignment of at least one of the first vertical pile and the second vertical pile by providing for adjustable attachment locations for each of the first and second pile ends.

Canopy structures and methods for erecting the same include a main support that is attached to a foot at a first pinned hinge point. A hub is attached to the main support at a second pinned hinge point. One or more arms are attached to the hub. One or more purlins are attached to the one or more arms. An upper surface mounted on the one or more purlins.

The embodiments are apparatuses, systems and methods of water management and icicle prevention for solar carports, and are designed to catch drips between rows of, and water run-off from, the low side of inclined photovoltaic modules arranged to form the roof of the solar carport or canopy.

A solar vehicle carport with LED sensor light, including a carport top cover, a horizontal pipe assembly, a foot pipe assembly, an LED light module, and a solar receiving module. The horizontal pipe assembly is disposed on two sides of the carport top cover. The foot pipe assembly is engaged with the horizontal pipe assembly to support the carport top cover. The LED light module includes at least one LED light and LED sensor module electrically connected. The solar receiving module is disposed above the carport top cover and electrically connected with the LED light module. The solar vehicle carport with LED sensor light provided by this invention can utilize the solar energy to supply power to the LED light module, which is green and environment friendly. In addition, the LED light is turned on or turned off by a way of sensing, which is energy efficient and humanized.