Abstract:
Interconnectable solar photovoltaic appliance that can be connected to each other and other derivative products in multiple series and parallel configurations to supply a specific amount of electrical power to an application requiring electrical energy. The resultant design is modular and expandable. Examples include photovoltaic appliances that are variable in size in shape so as to accommodate the spatial constraints and power requirements of their intended applications.
Abstract:
A solar module comprising a substrate, a honeycomb structure on the substrate, a solar panel on the honeycomb structure, such that the substrate, honeycomb and solar panel form a sandwich having an exterior perimeter, a rotary junction box configured to be manipulated through the substrate between at least first and second electrical configurations, a plurality of electrical couplers along the exterior perimeter, and a plurality of electrical connectors connecting the solar panel, the rotary junction box, and the electrical couplers; wherein the honeycomb structure defines one or more channels and a pocket, the channels facilitating the electrical connectors and the pocket receiving the rotary junction box.
Abstract:
Light-weight, flexible solar panels adapted to prevent inadvertent stress on silicon solar photovoltaic cells inside solar panels. In some examples, a solar panel comprising solar cells includes a plurality of supports, such as one support for each solar cell, with gaps between the supports to allow the panel to flex when strained while protecting the individual cells. In other examples, a solar panel comprises a plurality of solar cells and a support or plural supports designed to accept force applied to the top of the panel and divert such force around the individual cells, without the use of a heavy glass support over top. Some examples may include both individual supports for each cell, with each individual support further adapted to direct applied forces around the individual cells.
Abstract:
An electrical energy storage system that can store both grid-based electrical power when electricity prices are low or renewable power generated on-site. It can release the stored electricity for consumer applications when necessary based on a software program and configuration. The system may be networked. The system comprises a port for receiving a central processing unit (CPU), and facilitates the use of different CPU products for different users and uses.
Abstract:
Methods and devices for interconnection of Printed Circuit Boards (PCB) and to one another or to other components using ultra low profile electrical connectors. Examples include male and female inserts for placement in the plane of a PCB, and PCB assemblies comprising one or the other of male or female inserts for such placement. Further examples include surface mounted male and female connectors and PCB assemblies, in which the connectors comprise base members and connector elements configured to couple to corresponding assemblies on other PCT assemblies by movement in a horizontal plane relative to the PCB.
Abstract:
An electrical energy storage system that can store both grid-based electrical power when electricity prices are low or renewable power generated on-site. It can release the stored electricity for consumer applications when necessary based on a software program and configuration. The system may be networked. The system comprises a port for receiving a central processing unit (CPU), and facilitates the use of different CPU products for different users and uses.
Abstract:
Methods and devices for interconnection of Printed Circuit Boards (PCB) and to one another or to other components using ultra low profile electrical connectors. Examples include male and female inserts for placement in the plane of a PCB, and PCB assemblies comprising one or the other of male or female inserts for such placement. Further examples include surface mounted male and female connectors and PCB assemblies, in which the connectors comprise base members and connector elements configured to couple to corresponding assemblies on other PCT assemblies by movement in a horizontal plane relative to the PCB.
Abstract:
Light-weight, flexible solar panels adapted to prevent inadvertent stress on silicon solar photovoltaic cells inside solar panels. In some examples, a solar panel comprising solar cells includes a plurality of supports, such as one support for each solar cell, with gaps between the supports to allow the panel to flex when strained while protecting the individual cells. In other examples, a solar panel comprises a plurality of solar cells and a support or plural supports designed to accept force applied to the top of the panel and divert such force around the individual cells, without the use of a heavy glass support over top. Some examples may include both individual supports for each cell, with each individual support further adapted to direct applied forces around the individual cells.
Abstract:
A solar module comprising a substrate, a honeycomb structure on the substrate, a solar panel on the honeycomb structure, such that the substrate, honeycomb and solar panel form a sandwich having an exterior perimeter, a rotary junction box configured to be manipulated through the substrate between at least first and second electrical configurations, a plurality of electrical couplers along the exterior perimeter, and a plurality of electrical connectors connecting the solar panel, the rotary junction box, and the electrical couplers; wherein the honeycomb structure defines one or more channels and a pocket, the channels facilitating the electrical connectors and the pocket receiving the rotary junction box.
Abstract:
Interconnectable solar photovoltaic appliance that can be connected to each other and other derivative products in multiple series and parallel configurations to supply a specific amount of electrical power to an application requiring electrical energy. The resultant design is modular and expandable. Examples include photovoltaic appliances that are variable in size in shape so as to accommodate the spatial constraints and power requirements of their intended applications.