A new system of solar construction, technology and methods for making off structure constructed panel blocks are disclosed.

A method for fabricating a heat exchange construct is provided.

A method for fabricating a heat exchange construct is provided.

Disclosed is a system comprising an envelope of a structure, heat pipes and fluid conduits, the envelope of the structure including at least two shells spaced apart from one another which enclose an intermediate space being sealed against an interior and exterior of the structure. First and second pipes, embedded in the exterior-facing and interior-facing shell of the structure, respectively, penetrate the envelope of the structure and together form the heat pipe for the circulation of a fluid to increase, hold or decrease heat transition through the envelope of the structure or affect heat transport into or out of the envelope of the structure.

Disclosed is a system comprising an envelope of a structure, heat pipes and fluid conduits, the envelope of the structure including at least two shells spaced apart from one another which enclose an intermediate space being sealed against an interior and exterior of the structure. First and second pipes, embedded in the exterior-facing and interior-facing shell of the structure, respectively, penetrate the envelope of the structure and together form the heat pipe for the circulation of a fluid to increase, hold or decrease heat transition through the envelope of the structure or affect heat transport into or out of the envelope of the structure.

Three-dimensional solar power generation systems have a plurality of solar panels configured to include pole and equator facing panels and, in various embodiments additional top and/or side panels that form a segmented and dome-shaped assembly. The systems have improved efficiencies particularly with respect to early morning and evening power generation that enable improved power densities on a given land area as compared to traditional solar panel arrays. Methods of deploying the systems are also described.

A device for thermal separation between a conditioned environment and at least one external environment, which comprises a wall that has at least a first active layer-like region toward the conditioned environment, a second active layer-like region toward the external environment with respect to the first active layer-like region, a first insulating layer-like region, which is interposed between the active layer-like regions, a second insulating layer-like region, which is interposed between the second active layer-like region and the external environment. The active layer-like regions accommodate channels for the outflow of heat transfer fluids, which have, during the operation of the thermal separation device, temperatures that on average are different through the thickness of the wall.

A method for manufacture of a fire-proof and insulating prefabricated building wall comprising a wall core of an expanded, foamed plastic material, such as EPS (expanded polystyrene), with an integrated reinforcement structure and a coating of a cementitious material.

A panel (50) having a visible side and a rear side opposite to the visible side (3), wherein the rear side has at least one fastening portion (15, 16), wherein the panel (50) has a concrete covered area, wherein there is provided a capillary tube mat (5), which is incorporated into the concrete area such that the capillary tube mat (50) is completely concealed by the concrete covered area at least on the visible side (3).

The instant system is a panel made of several layers that is a highly decorative, fire resistant, water resistant, sound proof, R valued insulated, light weight, and energy efficient panel. Such layers include: glass fiber reinforced concrete, glass fiber reinforced concrete with alkaline resistant fibers, alkaline resistant hurricane tested scrim mesh, a solar powered radiant tubing, a fire resistant foam that contains a steel reinforcement, and an epoxy adhesive.