Abstract: A solar module for transforming solar energy into electrical energy includes a substrate and a pair of solar cells formed on the substrate next to each other and electrically connected in series to each other through a top common back electrode. A first solar cell of the pair has a pin configuration, and a second solar cell of the pair has a nip configuration. The pin configuration has hole and electron transport layers located in a reverse order relative to the nip configuration.

Abstract: A photovoltaic, PV, module includes plural PV sections, each PV section including plural lamellas. A first lamella of the plural lamellas includes a back sheet, a first encapsulant material, a PV cell, a foldable material, a second encapsulant material, and a front sheet. The first encapsulant material bonds the PV cell to the back sheet, and the second encapsulant material bonds the PV cell to the front sheet. A first edge of the foldable material is sandwiched between the first and second encapsulant materials of the first lamella and a second edge of the foldable material is sandwiched between corresponding first and second encapsulant materials of a second lamella of the plural lamellas.

Abstract: A photovoltaic module for transforming an incident light into electrical energy includes plural solar cell configured to transform the incident light into the electrical energy; a first sheet that is transparent to the incident light; and a second sheet that is transparent to the incident light. The plural solar cell are sandwiched between the first sheet and the second sheet. At least one of the first and second sheets has a high transparency regarding the incident light and also a high scattering of the incident light.

Abstract: There is a dynamically adjustable photovoltaic (PV) system for transforming solar energy into electrical energy. The dynamically adjustable PV system includes a first PV fold including a first set of PV cells for generating electrical energy, and a first laminating film that encapsulates the first set of PV cells; a second PV fold including a second set of PV cells for generating electrical energy, and a second laminating film that encapsulates the second set of PV cells; and a connecting mechanism that connects the first laminating film to the second laminating film. The connecting mechanism includes a chamber.

Abstract: There is a dynamically adjustable photovoltaic (PV) system for transforming solar energy into electrical energy. The dynamically adjustable PV system includes a first PV fold including a first set of PV cells for generating electrical energy, and a first laminating film that encapsulates the first set of PV cells; a second PV fold including a second set of PV cells for generating electrical energy, and a second laminating film that encapsulates the second set of PV cells; and a connecting mechanism that connects the first laminating film to the second laminating film. The connecting mechanism includes a chamber.

Abstract: There is a dynamically adjustable photovoltaic (PV) system for transforming solar energy into electrical energy. The dynamically adjustable PV system includes a first PV fold including a first set of PV cells for generating electrical energy, and a first laminating film that encapsulates the first set of PV cells; a second PV fold including a second set of PV cells for generating electrical energy, and a second laminating film that encapsulates the second set of PV cells; and a connecting mechanism that connects the first laminating film to the second laminating film. The connecting mechanism includes a chamber.

Abstract: Embodiments of the present disclosure describe a method of energy storage and release based on crystallization-dissolution comprising heating a solute-solvent system to decrease a solubility of a solute in the solvent and induce crystal formation; cooling a solute-solvent system to increase the solubility of the solute in the solvent and induce crystal dissolution; wherein energy is stored in the crystal upon heating and released from the crystal upon cooling.

Abstract: Embodiments of the present disclosure describe a method of energy storage and release based on crystallization-dissolution comprising heating a solute-solvent system to decrease a solubility of a solute in the solvent and induce crystal formation; cooling a solute-solvent system to increase the solubility of the solute in the solvent and induce crystal dissolution; wherein energy is stored in the crystal upon heating and released from the crystal upon cooling.