Abstract: An attachment system for roof-mounted equipment of this disclosure includes a pedestal having rails and corresponding channels at a top and bottom wall surface, the rails and channels located below the bottom wall surface configured to receive an adhesive for mounting the pedestal to a roof structure without penetrating the roof, the rails and channels located below the top wall surface including at least one channel configured to accept a fastener of the piece of equipment to be mounted on the pedestal.

Abstract: An attachment system for roof-mounted equipment of this disclosure includes a pedestal having rails and corresponding channels at a top and bottom wall surface, the rails and channels located below the bottom wall surface configured to receive an adhesive for mounting the pedestal to a roof structure without penetrating the roof, the rails and channels located below the top wall surface including at least one channel configured to accept a fastener of the piece of equipment to be mounted on the pedestal.

Abstract: An attachment system for roof-mounted equipment of this disclosure includes a pedestal having rails and corresponding channels at a top and bottom wall surface, the rails and channels located below the bottom wall surface configured to receive an adhesive for mounting the pedestal to a roof structure without penetrating the roof, the rails and channels located below the top wall surface including at least one channel configured to accept a fastener of the piece of equipment to be mounted on the pedestal.

Abstract: A system of capturing waste heat includes a heat recovery unit (20) having a heat exchanger (35) arranged to transfer heat between a fluid circulating in a refrigerant loop (60) and a fluid circulating in a solar loop (70) and another heat exchanger (39) arranged to transfer heat between the fluid in the solar loop (70) and a fluid circulating in a water loop (50). Controllable first, second, and third three-way valves (V1-V3) provide or prevent, depending on fluid temperatures, an A-B, B-C, and A-C flow path through the valve. The first valve (V1) is arranged in the water loop (50) upstream of the second heat exchanger (39). The second (V2) is arranged in the solar loop (70) upstream of the second heat exchanger (39). The third valve (V3) is arranged in the solar loop (70) between the first and second heat exchangers (35, 39).

Abstract: A system of capturing waste heat includes a heat recovery unit (20) having a heat exchanger (35) arranged to transfer heat between a fluid circulating in a refrigerant loop (60) and a fluid circulating in a solar loop (70) and another heat exchanger (39) arranged to transfer heat between the fluid in the solar loop (70) and a fluid circulating in a water loop (50). Controllable first, second, and third three-way valves (V1-V3) provide or prevent, depending on fluid temperatures, an A-B, B-C, and A-C flow path through the valve. The first valve (V1) is arranged in the water loop (50) upstream of the second heat exchanger (39). The second (V2) is arranged in the solar loop (70) upstream of the second heat exchanger (39). The third valve (V3) is arranged in the solar loop (70) between the first and second heat exchangers (35, 39).

Abstract: A barrier material has an upper, radiant barrier layer and a lower, corrugated surface layer. The radiant barrier layer is preferably a metalized film or an aluminum sheet with an emissivity rating 0.1 or less. The metalized film is laminated to one side of a middle layer using a high, heat-resistant adhesive. The corrugated surface layer, which can receive an insulating material, is preferably a corrugated medium. The corrugated medium is laminated to the other side of the middle layer with a water-resistant adhesive. The middle layer is preferably a fire-resistant, kraft linerboard. The barrier creates an air space or plenum between an external structure and the insulating material designed to prevent heat transfer between an insulated space and the external structure.

Abstract: A system of capturing waste heat includes a heat recovery unit (20) having a heat exchanger (35) arranged to transfer heat between a fluid circulating in a refrigerant loop (60) and a fluid circulating in a solar loop (70) and another heat exchanger (39) arranged to transfer heat between the fluid in the solar loop (70) and a fluid circulating in a water loop (50). Controllable first, second, and third three-way valves (V1-V3) provide or prevent, depending on fluid temperatures, an A-B, B-C, and A-C flow path through the valve. The first valve (V1) is arranged in the water loop (50) upstream of the second heat exchanger (39). The second (V2) is arranged in the solar loop (70) upstream of the second heat exchanger (39). The third valve (V3) is arranged in the solar loop (70) between the first and second heat exchangers (35, 39).

Abstract: An improved solar panel attachment system for a roof and method for its use include a pedestal that has a plurality of protrusions and keyways located along its bottom wall surface and extending along the length of the pedestal. The pedestal is placed into a paddy of foam adhesive laid along a roof underlayment and the keyways receive and engage with the expanding adhesive for bonding the pedestal directly to the roof without the need for mechanical fastening. The protrusions provide spacing between the bottom wall surface and the roof so that an adequate amount of foam adhesive resides between these wall surfaces and those structures. Attaching means are secured to the top wall surface so that the pedestal may be used to securely mount (or secure) a solar panel or other object to a roof.

Abstract: A system of capturing waste heat includes a heat recovery unit (20) having a heat exchanger (35) arranged to transfer heat between a fluid circulating in a refrigerant loop (60) and a fluid circulating in a solar loop (70) and another heat exchanger (39) arranged to transfer heat between the fluid in the solar loop (70) and a fluid circulating in a water loop (50). Controllable first, second, and third three-way valves (V1-V3) provide or prevent, depending on fluid temperatures, an A-B, B-C, and A-C flow path through the valve. The first valve (V1) is arranged in the water loop (50) upstream of the second heat exchanger (39). The second (V2) is arranged in the solar loop (70) upstream of the second heat exchanger (39). The third valve (V3) is arranged in the solar loop (70) between the first and second heat exchangers (35, 39).

Abstract: A sealed attic insulating and roof ventilating system has a receiver (lath) material attached to adjacent pairs of rafters and an insulation material secured to the lower surface of the receiver material. This arrangement creates an uninterrupted plenum between the receiver, rafters and roof decking through which air can circulate from the lower roof vents to the upper roof vents. The circulation of air through the plenum prevents moisture from accumulating or condensing under the roof decking and warping the decking, which ultimately leads to deterioration of the decking and failure of the roof covering. This air circulation also eliminates ice damming on the top surface of the roof covering.

Abstract: A solar hot water and recovery system includes a water loop, a refrigerant loop and a solar loop. Cross-heat exchange occurs in a first heat exchanger between the heat transfer mediums of the refrigerant loop and the solar loop to produce a super-heated fluid stream which is returned to the air conditioning or heat pump unit. Cross-heat exchange also takes place in a second heat exchanger between the now-lower temperature heat transfer medium of the solar loop and the water loop to produce a heated water stream. The main objective of the system is to superheat refrigerant and use all excess heat for heating the water. The heat exchangers are preferably housed in the same heat recovery unit and arranged so that the refrigerant heat exchange area is before the water heat exchange area, thereby maximizing solar potential.

Abstract: An improved solar panel attachment system for a roof and method for its use include a pedestal that has a plurality of protrusions and keyways located along its bottom wall surface and extending along the length of the pedestal. The pedestal is placed into a paddy of foam adhesive laid along a roof underlayment and the keyways receive and engage with the expanding adhesive for bonding the pedestal directly to the roof without the need for mechanical fastening. The protrusions provide spacing between the bottom wall surface and the roof so that an adequate amount of foam adhesive resides between these wall surfaces and those structures. Attaching means are secured to the top wall surface so that the pedestal may be used to securely mount (or secure) a solar panel or other object to a roof.

Abstract: A solar hot water and recovery system includes a water loop, a refrigerant loop and a solar loop. Cross-heat exchange occurs in a first heat exchanger between the heat transfer mediums of the refrigerant loop and the solar loop to produce a super-heated fluid stream which is returned to the air conditioning or heat pump unit. Cross-heat exchange also takes place in a second heat exchanger between the now-lower temperature heat transfer medium of the solar loop and the water loop to produce a heated water stream. The main objective of the system is to superheat refrigerant and use all excess heat for heating the water. The heat exchangers are preferably housed in the same heat recovery unit and arranged so that the refrigerant heat exchange area is before the water heat exchange area, thereby maximizing solar potential.

Abstract: An improved roof ridge apparatus and method for its use includes a longitudinally extending rigid member that has a plurality of keyways located along its top and bottom wall surfaces and extending along the length of the rigid member. The rigid member is placed into a continuous paddy of foam adhesive laid along a roof underlayment and the keyways receive and engage with the expanding adhesive for bonding the rigid member directly to the roof without the need for mechanical fastening. The keyways protrude from the top and bottom wall surfaces. The protrusions provide spacing between the bottom wall surface and the roof and between the top wall surface and a roof tile so that an adequate amount of foam adhesive resides between these wall surfaces and those structures.