Abstract:
A roof mounting system can include a roof substrate and flashing supportable on the substrate and including an outwardly extending projection having a concave interior side and an aperture extending through the projection between top and bottom surfaces of the flashing. A seal can extend through the aperture and contact at least a portion of the top surface and at least a portion of the bottom surface. The seal can be conformable with the concave interior side and can define a seal aperture substantially aligned with the flashing aperture. A mounting bracket can be supportable on the flashing and can define an aperture sized to receive at least a portion of each of the seal and the projection. A fastener can extend through the mounting bracket aperture, seal aperture, and flashing aperture to inhibit fluid flow through the flashing aperture.
Abstract:
An installation structure of a solar cell module comprising: a solar cell module including a solar panel, an eaves-side frame in a long shape holding an edge on an eaves side, a ridge-side frame in a long shape holding an edge on a ridge side opposite to the edge on the eaves side, and a lateral frame in a long shape holding edges of the solar panel different from the above edges; and a fixing member fixed to a predetermined structural member in a roof at a position on a ridge side further than the ridge-side frame and configured to prevent the ridge-side frame from moving towards the ridge side of the roof and in a direction perpendicular to a surface of the solar panel, the eaves-side frame of another solar cell module being positioned above the ridge-side frame and supported by the fixing member from outside.
Abstract:
A solar power system is mounted to a solar power componentry support structure (104) suspended above a pre-existing surface (101) by a collective of solar collector suspension base supports (103) Suspended solar power system row support structure members (105) and suspended solar power system column support structure members (106) may for a solar component position lattice (107) to which a matrix of individual solar power components such as solar panels (18) can be attached Solar module quick-fasten assemblages (111) may serve also as solar componentry emergency releases (118) and may include loose axis retainers (128) and firm axis fasteners (127) such as dual component, single point operative emergency releases (121) and fasteners Slide-in retainers and corner slot tabs (136) can be included as well as frame alignment notches (138) Fulcrum pivot fasteners (139) and slide wedge releases (142) can aid in installation and release
Abstract:
The present invention relates particularly to photovoltaic systems for use in photovoltaically generating electrical energy. One aspect of the invention is a photovoltaic roofing system disposed on a roof deck. The photovoltaic roofing system includes one or more photovoltaic elements contiguously disposed on the roof deck, the contiguously-disposed photovoltaic elements defining a photovoltaic area; a plurality of roofing elements disposed adjacent the contiguously-disposed photovoltaic elements, along their side edges; side flashing disposed along the side edges of the contiguously-disposed photovoltaic elements, the side flashing having a cross-sectional shape comprising a vertically-extending feature and a flange extending from each lateral side at the bottom of the vertically-extending feature, with the flange facing the photovoltaic area being at least partially disposed between a photovoltaic element and the roof deck, and the flange facing away from the photovoltaic area being at least partially disposed between a roofing element and the roof deck.
Abstract:
A protective covering helps to prevent fastener leaks from roof installed fasteners, which are used to mount roofing systems, such as a solar panel installation system, to roofs with a mounting bracket attached to the roof. The protective covering is a portion of flat, malleable waterproof material molded to form a cover, forming a triangular-shaped structure when viewed from the side. The triangular shaped structure includes a base and a hypotenuse portion where the line of the roof acts as a side which is covered by at least the hypotenuse portion. The hypotenuse portion meets the roof at an angle. The covering is adapted for insertion under portions of a roof shingle, and extends back in a slight rise (downwardly with respect to the roof) to cover the fastener and L-shaped bracket, which the fastener fastens to the roof.
Abstract:
To improve weathering and installation performances, a photovoltaic power generation outer surrounding structure comprises a plural long fixing members (1) having protruding portions (1b) in both sides in parallel to a portion (1a) fixed onto a base material (S) of a building, an outer surrounding body (2) arranged on the base material (S) between the fixing members (1, 1) and having fixing portions (2a) extending under the protruding portions (1b) in both ends, a photovoltaic power generation panel (3), and a zipper gasket (4) having pinching and fixing portions (4ac) in both sides for holding the protruding portions (1b) and the fixing portions (2a) together, panel groves (4ab) in both sides for holding the photovoltaic power generation panel (3) and a zipper fitting groove (4aa) and a zipper body (4a) in both sides for tightening the panel grooves (4ab) by insertion of the zipper body (4a) into the groove(4aa).
Abstract:
An apparatus for mounting an article to a roof includes a base plate, threaded stud, lag bolts, spacer, and flashing. The base plate includes bolt holes to accommodate the lag bolts to secure the base plate to the roof. The threaded stud is secured to and extends vertically from the base plate. The spacer is inserted over the stud so that the stud passes through an aperture in the spacer, and is secured by a nut. The spacer acts as a lift for mounting an article up off the roof, thereby permitting drainage. The spacer includes a recess to accommodate the head of a lag bolt. The wrap-around flashing is captured between the base plate and spacer, creating a water free environment underneath the assembled unit. The flashing slides up underneath the roofing shingles to prevent water from penetrating the structure, and includes a lip to accommodate the base plate, and a detent to accommodate the bolt heads beneath it.
Abstract:
Disclosed are methods and devices for securing a solar panel racking system to a tile roof, without removing roof tiles. The devices and method in combination may operate under severe weather conditions such as hurricanes, typhoons, and other tropical cyclones. An installer positions a stanchion through a hole in one of the roof tiles in the tile roof and onto a layer of polyurethane foam positioned over a layer of waterproof roof adhesive sealant. The installer extends the threaded fasteners obliquely through the stanchion, the layer of polyurethane foam, and the layer of waterproof roof adhesive sealant into the roof deck. The waterproof adhesive sealant bonds to the roof underlayment and creates a waterproof seal between the threaded fasteners and the roof deck.
Abstract:
A mounting assembly for securing fixtures to a mounting structure may include a first fastener, a washer, a mounting bracket, and second fastener. The first fastener may be coupled to the mounting structure through a mounting aperture. The washer may be disposed around shaft of the first fastener between a head of the first fastener and the mounting surface. The mounting bracket may be disposed on top of the first fastener. The second fastener may be disposed through the mounting bracket and coupled to head of the first fastener. The washer may be a sealing washer that dispenses liquid sealant under compressive force to moisture-proof the securement of the first fastener to the mounting surface.
Abstract:
A mounting bracket (320) for trapezoidal rib profiles is disclosed. This mounting bracket (320) includes an upper section (330) and a lower section (350). A first leg (352a) in a second leg (352b) extend from a lower portion of the upper section (330) in diverging relation to one another. Each of these legs (352a, 352b) is deflectable through a certain range of motion to accommodate installation of the mounting bracket (320) on a variety of different trapezoidal rib profiles.