A snow guard assembly heated within one or more snow guard tubes. Heating of the snow guard tube prevents excessive accumulation of snow and helps prevent snow build up and spill over above the top of the snow guard. The tubes can be length-wise separable to place and service the heating elements. The heating element can be standard heat tape or infrared LEDs. The snow guard tubes can optionally have a non-uniform cross-sectional thickness to direct the heat more efficiently in a desired orientation. The interior of the snow guard tubes can be selectively coated with infrared absorbing or reflective material to direct the heat in a desired orientation when infrared LEDs are used as a heat source. The snow guard can be attached to many types of roof surfaces including tile roofs, metal roofs with or without standing seams, and shingle roofs.

An ice breaker for installation on an architectural roof on a flat between the seams of a metal panel. The ice breaker has a pointed upslope end and an irregular polygon base with non-equilateral triangular faces extending from the irregular polygonal base that meet at a truncated top. The non-equilateral triangular faces at the upslope end being symmetrical about a centerline axis.

A method may include obtaining first ambient condition data corresponding to a first building in a first location. The method may further include obtaining a set of ice dam models. The method may further include predicting, based at least in part on the set of ice dam models, an ice dam formation on the first building. The method may further include obtaining a heating profile. The heating profile may be based at least in part on the first ambient condition data. The method may further include adjusting, based on the heating profile, a heating device of the first building.

Heating systems including heating elements and fastener materials covered and protected from the environment by a heating cap structure. The heating cap structure can interlock mating ribs or other structure in adjacent heating panels. Additional heating cap, transition, or flashing sections may further cover and protect heating system components. One or more heating elements may include heating cable or heating fluids or materials penetrating heating element bodies. The heating element bodies and heating cap panels and covers can include extruded or otherwise formed sections having a wide variety of shapes that can be varied to provide desired objectives, such as for example supporting strength, increased heat transfer, component cost minimization, component life, heating system weight, and ease of assembly, use, maintenance, expansion, contraction, and adaptability. The outer and other surfaces of the heating system may be painted, including to improve aesthetics. Sealing films and materials may be included.

A snow guard assembly heated within one or more snow guard tubes. Heating of the snow guard tube prevents excessive accumulation of snow and helps prevent snow build up and spill over above the top of the snow guard. The tubes can be length-wise separable to place and service the heating elements. The heating element can be standard heat tape or infrared LEDs. The snow guard tubes can optionally have a non-uniform cross-sectional thickness to direct the heat more efficiently in a desired orientation. The interior of the snow guard tubes can be selectively coated with infrared absorbing or reflective material to direct the heat in a desired orientation when infrared LEDs are used as a heat source. The snow guard can be attached to many types of roof surfaces including tile roofs, metal roofs with or without standing seams, and shingle roofs.

A snow guard assembly heated within one or more snow guard tubes. Heating of the snow guard tube prevents excessive accumulation of snow and helps prevent snow build up and spill over above the top of the snow guard. The tubes can be length-wise separable to place and service the heating elements. The heating element can be standard heat tape or infrared LEDs. The snow guard tubes can optionally have a non-uniform cross-sectional thickness to direct the heat more efficiently in a desired orientation. The interior of the snow guard tubes can be selectively coated with infrared absorbing or reflective material to direct the heat in a desired orientation when infrared LEDs are used as a heat source. The snow guard can be attached to many types of roof surfaces including tile roofs, metal roofs with or without standing seams, and shingle roofs.

Heating systems including heating elements and fastener materials covered and protected from the environment by a heating cap structure. The heating cap structure can interlock mating ribs or other structure in adjacent heating panels. Additional heating cap, transition, or flashing sections may further cover and protect heating system components. One or more heating elements may include heating cable or heating fluids or materials penetrating heating element bodies. The heating element bodies and heating cap panels and covers can include extruded or otherwise formed sections having a wide variety of shapes that can be varied to provide desired objectives, such as for example supporting strength, increased heat transfer, component cost minimization, component life, heating system weight, and ease of assembly, use, maintenance, expansion, contraction, and adaptability. The outer and other surfaces of the heating system may be painted, including to improve aesthetics. Sealing films and materials may be included.

Structure heating systems and methods of making and use. One embodiment has a unitary or integral roof edge heating element with a single heating cable mounted in a heating cable channel running laterally through the heating element and a roof edge heating panel extending from the portion of the heating element bearing the heating cable. Another embodiment includes a single heating cable mounted in a heating element surrounded by a heating element cover. Some embodiments can reduce the amount of heat transfer contact with supporting roof or adjacent structure, reducing heat transfer to the supporting roof or other adjacent structure.

A solar-collector roofing assembly (10) comprises a plurality of elongate spaced-apart primary support members (12) aligned in a horizontal plane and extending in a first direction A; a plurality of elongate spaced-apart secondary support members (14) having first and second end portions (38, 40) connected to corresponding said primary support members (12), first and second end portions (38, 40) on a respective primary support member (12) being vertically offset relative to each other; and at least one solar-energy collector panel (16) directly or indirectly supported by the secondary support members (14) so as to have a predetermined fall towards an associated primary support member (12).

A snow guard assembly heated within one or more snow guard tubes. Heating of the snow guard tube prevents excessive accumulation of snow and helps prevent snow build up and spill over above the top of the snow guard. The tubes can be length-wise separable to place and service the heating elements. The heating element can be standard heat tape or infrared LEDs. The snow guard tubes can optionally have a non-uniform cross-sectional thickness to direct the heat more efficiently in a desired orientation. The interior of the snow guard tubes can be selectively coated with infrared absorbing or reflective material to direct the heat in a desired orientation when infrared LEDs are used as a heat source. The snow guard can be attached to many types of roof surfaces including tile roofs, metal roofs with or without standing seams, and shingle roofs.