Intelligent insulating construction partition and construction process

An intelligent self-sufficient thermo-acoustic insulating construction partition that generates surplus energy CHARACTERIZED by:

• a. a frame (29) built with profiles whose planes form internal channels with an upper channel (1) on whose external sides of its vertical planes an inner panel (50) and an outer panel (50′) parallel, insulating, are glued with sealants, transparent like glass panes (3, 3′), or non-transparent, creating an airtight internal chamber (9) between said panels and the frame (29);
• b. external sides of the vertical planes of the upper channel (1) on which sealant-glue (4) is placed to glue the coextruded insulating panels with material softer than those of the rigid body of the profile;
• c. three coextruded with a flexible joint (10) with material softer than that of the rigid body of the profile in the horizontal planes that separate the upper channel (1), the lower channel (2) and the airtight internal chamber (9), which, by difference in material and geometry, they work as bridges to reduce thermal flows and sound waves;
• d. photovoltaic cells (13) glued to the internal planes of the frame (29) that forms the airtight internal chamber (9) where temperature sensors (5), pressure and luminance sensors (17), solar tracking sensor (21) are located;
• e. electric resistance (23) placed inside the upper channel (1).
• f. thermal sensors (5) glued to the interior panel (50) and to the exterior panel (50′) located in each corner of the external side of the panels in the upper internal side void (18) and the upper external void (18′), which they communicate with pressure and luminance sensors (17) that regulate fans (14), air inlet grid (6) and air outlet grid (7) and their opening for convection or forced ventilation and lowering or raising the blind (40) and solar tracking sensor (21);
• g. microprocessor (27) located in the lower channel (2) or in the upper internal side void (18) connected to the sensors with instructions and algorithms to receive information from sensors and activate automatically and by digital and voice commands using internet and commands of cell phone and Internet to optimize the performance of the partition or multiple partitions in real time depending on environment changes and user's needs;
• h. fan (14), rotation mechanism and solar tracking (20), electric resistance (23) connected to the photovoltaic cells and to the microprocessor (27);
• i. 90° airtight seal coupling (36) that airtightly seals the union of the corners of the upper channel (1) of the profile with which the frame is built, composed of an area in the corner (26) of soft material (45) formed by coextruded material softer than the walls (39) that secure it inside the upper channel (1), which by atmospheric pressure keeps the sealants in position on this angle joint and has spaces (38) for air flow;
• J. internal profile-cover (15) and external profile-cover (15′) that cover the perimeter of the upper internal lateral void (18), the upper external void (18′), the lower external void (19′), and the internal lower void (19) which are internal and external open spaces of the frame (29) to access to the electronic components (27) and commands for maintenance, repair, and replace;
• k. a container with desiccant (25) located in the upper channel (1) that communicates with the airtight internal chamber (9);
• I. communication valves (37) between the airtight internal chamber (9) and the outside, to extract air, remove moisture, defog and add some fluid in the airtight internal chamber (9);
• m. anchor frame (41) to fix the partition to the supporting structure.