Abstract: A solar window system for a building includes multiple heat generation encasements each including thermoelectric sheets, where the thermoelectric sheets are positioned inside a housing having an interior metal layer. Air inside each heat generation encasement is heated by solar energy. Inside each heat generation encasement, there are pipes filled with Phase-Change Material (PCM) materials that help provide heating to the building. The solar window system further includes a storage tank on top of the system filled with PCM materials for storing heat from the heated air, the storage tank being connected to the pipes of each heat generation encasement.

Abstract: A smart transformable shading system with adaptability to expand and retract in response to solar radiation comprises, in one implementation, a housing unit, a plurality of structural cells, and a plurality of modular units. The structural cells are within the housing unit, and are aligned in first and directions with respect to the housing unit. Each modular unit is placed within a corresponding structural cell, and includes a plurality of structural rings, a plurality of deployable shell panels, a plurality of control units, and a plurality of circuit units. Each circuit unit is connected to a corresponding control unit, which in turn is connected to a corresponding deployable shell panel, the combination of which is placed within a corresponding structural ring to transform into different geometries in response to light.

Abstract: A solar window system for a building is provided. The solar window system includes multiple heat generation encasements. Air inside each heat generation encasement is heated by solar energy. The solar window system further includes a storage tank for storing heat from the heated air. The solar window system also includes a set of connection pipes, wherein the set of connection pipes draw cold air from an indoor space inside the building into the plurality of heat generation encasements, connect each of the heat generation encasements to at least two other heat generation encasements, and transfer the heated air from the set of heat generation encasements to the storage tank.

Abstract: An improved double skin facade system for buildings is disclosed. In one embodiment, the double skin facade system is a multi-functional device that can be used in a variety of ways to provide heat, produce and store solar and wind electricity, take advantage of natural and biological properties of plants, and provide cooling and natural ventilation. In one embodiment, the device is comprised of a mounting structure, and multiple columns of interconnected modules. Through the interconnected movable modules, the double skin facade system can easily switch functionalities between a heater, ventilator and cooling system. The device is easy and inexpensive to operate and its functionalities can be changed with simple touches of buttons.

Abstract: An improved solar heater and ventilator device is disclosed. In one embodiment, the solar heater and ventilator system is a multi-functional device that can be used in a variety of ways to provide heat, produce and store electricity, and provide natural ventilation. In one embodiment, the device is comprised of a main frame, multiple columns of interconnected movable cubes and a distributor panel. Through the interconnected movable cubes, the solar heater and ventilator system can easily switch functionalities between a solar heater and a ventilator and cooling system. The device is easy and inexpensive to operate, as it does not require any external electricity, and its functionalities can be changed with simple touches of buttons.

Abstract: An environmental system is disclosed. The environmental system is configured to provide varying degrees of ventilation and shading. In addition, the environmental system can include provisions for collecting rainwater and holding greenery. The system can includes a mounting structure, a set of frames, a plurality of bars, skins, beams, and optionally one or more plants.

Abstract: A solar window system for a building includes multiple heat generation encasements each including thermoelectric sheets, where the thermoelectric sheets are positioned inside a housing having an interior metal layer. Air inside each heat generation encasement is heated by solar energy. Inside each heat generation encasement, there are pipes filled with Phase-Change Material (PCM) materials that help provide heating to the building. The solar window system further includes a storage tank on top of the system filled with PCM materials for storing heat from the heated air, the storage tank being connected to the pipes of each heat generation encasement.

Abstract: A smart transformable shading system with adaptability to expand and retract in response to solar radiation comprises, in one implementation, a housing unit, a plurality of structural cells, and a plurality of modular units. The structural cells are within the housing unit, and are aligned in first and directions with respect to the housing unit. Each modular unit is placed within a corresponding structural cell, and includes a plurality of structural rings, a plurality of deployable shell panels, a plurality of control units, and a plurality of circuit units. Each circuit unit is connected to a corresponding control unit, which in turn is connected to a corresponding deployable shell panel, the combination of which is placed within a corresponding structural ring to transform into different geometries in response to light.

Abstract: An improved double skin facade system for buildings is disclosed. In one embodiment, the double skin facade system is a multi-functional device that can be used in a variety of ways to provide heat, produce and store solar and wind electricity, take advantage of natural and biological properties of plants, and provide cooling and natural ventilation. In one embodiment, the device is comprised of a mounting structure, and multiple columns of interconnected modules. Through the interconnected movable modules, the double skin facade system can easily switch functionalities between a heater, ventilator and cooling system. The device is easy and inexpensive to operate and its functionalities can be changed with simple touches of buttons.

Abstract: A window structure is configured to form a principal chamber enclosing a first window pane installed in an exterior wall of a building. The window structure includes a first surface configured to absorb solar energy and a main frame including a second window pane. An axial hinge is configured to allow to the main frame to tilt between a first position and a second position. When the main frame is tilted in the first position, the first surface is positioned in a first orientation that allows the first surface to directly receive sunlight through the second window pane. When the main frame is tilted in the second position, the first surface is positioned in a second orientation in which the first surface is prevented from directly receiving sunlight through the second window pane. The window structure may be used for ventilating the structure and shading during the warm weather.

Abstract: An environmental system is disclosed. The environmental system is configured to provide varying degrees of ventilation and shading. In addition, the environmental system can include provisions for collecting rainwater and holding greenery. The system can includes a mounting structure, a set of frames, a plurality of bars, skins, beams, and optionally one or more plants.

Abstract: A solar window system for a building is provided. The solar window system includes multiple heat generation encasements. Air inside each heat generation encasement is heated by solar energy. The solar window system further includes a storage tank for storing heat from the heated air. The solar window system also includes a set of connection pipes, wherein the set of connection pipes draw cold air from an indoor space inside the building into the plurality of heat generation encasements, connect each of the heat generation encasements to at least two other heat generation encasements, and transfer the heated air from the set of heat generation encasements to the storage tank.

Abstract: A window frame supports a central panel, with two adjacent pivoting side panels. The pivoting side panel includes two frames coupled by a hinge. Two side panel pivot actuators couple to the pivoting side panels. Movable awnings support photovoltaic modules to provide a power source. An awning open-close actuator couples to the movable awnings. Indoor and outdoor sensors send measurements to the controller that, based on the measurements, selectively operates the awning open-close actuator and the side panel pivot actuators.

Abstract: A roof system that includes a roof covering in the form of planting areas, a water storage, a wind turbine, a water turbine, a solar panel, and a water heater. The roof system includes a plurality of ceramic chambers each including a wind turbine and a recess for housing a planter area.

Abstract: A roof system that includes a roof covering in the form of planting areas, a water storage, a wind turbine, a water turbine, a solar panel, and a water heater. The roof system includes a plurality of ceramic chambers each including a wind turbine and a recess for housing a planter area.

Abstract: An improved solar heater and ventilator device is disclosed. In one embodiment, the solar heater and ventilator system is a multi-functional device that can be used in a variety of ways to provide heat, produce and store electricity, and provide natural ventilation. In one embodiment, the device is comprised of a main frame, multiple columns of interconnected movable cubes and a distributor panel. Through the interconnected movable cubes, the solar heater and ventilator system can easily switch functionalities between a solar heater and a ventilator and cooling system.

Abstract: A window frame supports a central panel, with two adjacent pivoting side panels. The pivoting side panel includes two frames coupled by a hinge. Two side panel pivot actuators couple to the pivoting side panels. Movable awnings support photovoltaic modules to provide a power source. An awning open-close actuator couples to the movable awnings. Indoor and outdoor sensors send measurements to the controller that, based on the measurements, selectively operates the awning open-close actuator and the side panel pivot actuators.

Abstract: A window structure is configured to form a principal chamber enclosing a first window pane installed in an exterior wall of a building. The window structure includes a first surface configured to absorb solar energy and a main frame including a second window pane. An axial hinge is configured to allow to the main frame to tilt between a first position and a second position. When the main frame is tilted in the first position, the first surface is positioned in a first orientation that allows the first surface to directly receive sunlight through the second window pane. When the main frame is tilted in the second position, the first surface is positioned in a second orientation in which the first surface is prevented from directly receiving sunlight through the second window pane. The window structure may be used for ventilating the structure and shading during the warm weather.