A solar panel and associated method of removing heat from a solar panel are disclosed. The solar panel includes a housing, a heat shield, and a plurality of solar cells. The housing includes a front surface, a back surface disposed opposite the front surface, an air inlet configured to allow air to enter the housing, an air outlet configured to allow the air to exit the housing, and a first air channel fluidly communicating with the air inlet and the air outlet. The first air channel is disposed within the housing between the heat shield and the front surface. The heat shield is disposed within the housing and is configured to reduce heat transfer between the front and back surfaces of the housing. The plurality of solar cells are disposed adjacent the front surface of the housing.
F24J 2/00 - Use of solar heat, e.g. solar heat collectors (distillation or evaporation of water using solar energy C02F 1/14;roof covering aspects of energy collecting devices E04D 13/18;devices for producing mechanical power from solar energy F03G 6/00;semiconductor devices specially adapted for converting solar energy into electrical energy H01L 31/00;photovoltaic [PV] cells including means directly associated with the PV cell to utilise heat energy H01L 31/525;PV modules including means associated with the PV module to utilise heat energy H02S 40/44)
F24F 7/06 - Ventilation with ducting systems with forced air circulation, e.g. by fan
Disclosed systems and methods transmit and receive data encoded as optical signals that include a progression of symbols, with each symbol represented as a combination of light frequencies. Light is used as the carrier medium to limit reception to devices that are within visible range of the transmitting device. No mapping of data to symbols is required for generation of the symbol progression by the transmitter and no mapping of symbols to data for recognition of the symbols is required by the receiver. Disclosed embodiments allow arbitrary selection among a plurality of mappings between symbols sent and symbols received. Embodiments are robust to: ambient lighting conditions, differences in optical and temporal response of the first and second devices, and differences in relative orientation between the first and second devices. Embodiments enable a variety of functions including device discovery, feature discovery, beacon identification, status reporting, error readout, key exchange, and authentication.
A power controller assembly is disclosed that transfers alternating current (AC) power generated by solar panels to devices coupled to the power controller assembly. The power controller assembly includes a power connector assembly that is coupled to an AC power outlet and transfers AC power generated by the solar panels from the AC power outlet to a power cord that is coupled to the power controller configuration. The power cord transfers the AC power to the device that consumes the AC power. The power controller assembly also includes an outlet power controller that controls the device that consumes the AC power based on instructions received from a communications device via wireless communication between the outlet power controller and the communications device.
A solar panel is disclosed that detects conditions triggered by operational events and then selects behavioral actions for the solar panel to execute in response to the operational events. Condition detection devices detect conditions that the solar panel is exposed to where each condition is triggered by an operational event that the solar panel is encountering. The condition detection devices generate condition data that provides information as to each of the conditions that the solar panel is exposed to and each operational event that triggered each of the conditions that the solar panel is encountering. A personality engine analyzes the condition data provided by the condition detection devices to determine a behavioral action that the solar panel is to execute in response to each operational event that the solar panel is encountering and executes the determined behavioral action to respond to each operational event that the solar panel is encountering.
A solar panel is disclosed that detects conditions triggered by operational events and then selects behavioral actions for the solar panel to execute in response to the operational events. Condition detection devices detect conditions that the solar panel is exposed to where each condition is triggered by an operational event that the solar panel is encountering. The condition detection devices generate condition data that provides information as to each of the conditions that the solar panel is exposed to and each operational event that triggered each of the conditions that the solar panel is encountering. A personality engine analyzes the condition data provided by the condition detection devices to determine a behavioral action that the solar panel is to execute in response to each operational event that the solar panel is encountering and executes the determined behavioral action to respond to each operational event that the solar panel is encountering.
A solar panel (100a) is disclosed that can be daisy-chained with other solar panels (100b-100n). The solar panel (100a) automatically generates output alternative current (AC) power (195a) that is in parallel with input AC power (112a) coming into the solar panel (100a) when the solar panel (100a) senses the input AC power (112a) so that the solar panel (100a) operates as a slave in this state. The solar panel (100a) automatically generates standalone AC output power (195a) when the solar panel fails to detect input AC power (112a) coming into the solar panel (100a) where the solar panel (100a) operates as a master in this state. The solar panel (100a) generates the standalone output AC power (195a) without any reliance on input AC power (112a) generated by a utility grid and/or other AC power sources external to the solar panel (100a).
09 - Scientific and electric apparatus and instruments
42 - Scientific, technological and industrial services, research and design
Goods & Services
Solar powered electricity generators; solar powered electricity generators for the sharing and transmission of data and information between devices for the purposes of facilitating energy storage, conversion, monitoring, distribution, and automation. Solar panels and solar batteries for energy storage, conversion, monitoring, distribution, control, and automation; computer software for use in energy storage, conversion, distribution, control, and automation; solar electricity devices, namely, solar batteries and solar panels and computer software that allow the sharing and transmission of data and information between devices for the purposes of facilitating energy storage, conversion, monitoring, distribution, and automation. Providing a web site featuring technology for remote monitoring and control of solar electricity energy generators, solar batteries, solar panels, solar power distribution devices via wired or wireless technology; providing a website featuring technology that facilitates the automated monitoring and control of devices for energy generation, storage, conversion, monitoring, and control, namely solar electricity generators, solar panels, and power distribution devices.
An auto-synchronous isolated inlet power converter is disclosed that can be daisy-chained with other power converters and/or an alternating current (AC) power source. The power converter automatically generates output AC power that is in parallel with external input AC power coming into the power converter when the power converter senses the external input AC power so that the power converter operates as a slave in this state. The power converter automatically generates output AC power when the power converter fails to detect the external input AC power coming into the power converter where the power converter operates as a master in this state. The power converter generates the output AC power without any reliance on the external input AC power generated by a utility grid and/or other AC power sources external to the power converter.
H02J 9/06 - Circuit arrangements for emergency or stand-by power supply, e.g. for emergency lighting in which the distribution system is disconnected from the normal source and connected to a standby source with automatic change-over
H02J 7/35 - Parallel operation in networks using both storage and other DC sources, e.g. providing buffering with light sensitive cells
A solar panel is disclosed that can be daisy-chained with other solar panels. The solar panel automatically generates output alternative current (AC) power that is in parallel with input AC power coming into the solar panel when the solar panel senses the input AC power so that the solar panel operates as a slave in this state. The solar panel automatically generates standalone AC output power when the solar panel fails to detect input AC power coming into the solar panel where the solar panel operates as a master in this state. The solar panel generates the standalone output AC power without any reliance on input AC power generated by a utility grid and/or other AC power sources external to the solar panel.
