Patent classifications
H02S40/10
FLOOD AVOIDANCE ELECTRIC VEHICLE (EV) CHARGING STATION
A charging station for electric vehicles includes a solar array for converting solar energy into electricity. A curved column is provided for holding the solar array at an upper end of the column. Its lower end is affixed to a platform for stability. An equipment enclosure is attached to the upper end of the curved column for holding electronic and mechanical components that, respectively, collect and store solar energy from the solar array and operationally move the solar array for this purpose. Additionally, a control unit is included with the electronic and mechanical components in the equipment enclosure to monitor vehicle charging operations. For protective purposes, the equipment enclosure is located on the curved column at an elevated height above the stability platform, to prevent flood damage and avoid theft or vandalism.
Waterless cleaning system and method for solar trackers using an autonomous robot
A solar tracker waterless cleaning system for cleaning solar panels of a solar tracker being able to be positioned at a pre-determined angle, including a docking station and an autonomous robotic cleaner (ARC), the docking station coupled with an edge of the solar tracker, the ARC including at least one rechargeable power source, at least one cleaning cylinder, at least one edge sensor, at least one cleaning cylinder direct current (DC) drive motor including a built-in encoder, a cleaning cylinder drive belt and a controller, the cleaning cylinder including a plurality of fins which rotates for generating a directional air flow for pushing dirt off of the surface of the solar tracker without water, the cleaning cylinder DC drive motor for driving the cleaning cylinder, the controller for controlling a cleaning process of the ARC, the built-in encoder for determining a revolutions per minute (RPM) of the cleaning cylinder.
Waterless cleaning system and method for solar trackers using an autonomous robot
A solar tracker waterless cleaning system for cleaning solar panels of a solar tracker being able to be positioned at a pre-determined angle, including a docking station and an autonomous robotic cleaner (ARC), the docking station coupled with an edge of the solar tracker, the ARC including at least one rechargeable power source, at least one cleaning cylinder, at least one edge sensor, at least one cleaning cylinder direct current (DC) drive motor including a built-in encoder, a cleaning cylinder drive belt and a controller, the cleaning cylinder including a plurality of fins which rotates for generating a directional air flow for pushing dirt off of the surface of the solar tracker without water, the cleaning cylinder DC drive motor for driving the cleaning cylinder, the controller for controlling a cleaning process of the ARC, the built-in encoder for determining a revolutions per minute (RPM) of the cleaning cylinder.
Air blowing drone and dust cleaning device for solar panels
A rotary-wing drone and a method of blowing air by an air blowing device integrated with the rotary-wing drone are described. The rotary-wing drone includes a plurality of rotary propellers, an extendable cone, a centrifugal propeller unit, and one or more batteries, in the air blowing device. The rotary-wing drone further includes a camera configured to obtain images of surrounding environment of the rotary-wing drone, and a processing circuitry configured to analyze the images to determine dust characteristics on a solar panel and to obtain one or more parameters of the air blowing device and the rotary-wing drone, to enable the rotary-wing drone to clean the solar panel.
Air blowing drone and dust cleaning device for solar panels
A rotary-wing drone and a method of blowing air by an air blowing device integrated with the rotary-wing drone are described. The rotary-wing drone includes a plurality of rotary propellers, an extendable cone, a centrifugal propeller unit, and one or more batteries, in the air blowing device. The rotary-wing drone further includes a camera configured to obtain images of surrounding environment of the rotary-wing drone, and a processing circuitry configured to analyze the images to determine dust characteristics on a solar panel and to obtain one or more parameters of the air blowing device and the rotary-wing drone, to enable the rotary-wing drone to clean the solar panel.
SYSTEMS, CIRCUITS AND METHODS FOR AN INTERCONNECT FABRIC WITH PROGRAMMABLE CIRCUIT ROUTES FOR CONFIGURING SOLAR CELL STRINGS
A solar power system may comprise a back sheet that comprises an interconnect circuit coupling a plurality of cell tiles. A tiled solar cell, comprising a solar cell and encapsulating and glass layers, is inserted into the cell tiles of the back sheet. Each solar cell is individually addressable through the use of the interconnect circuit. Moreover, the interconnect circuit of the back sheet is programmable and allows for dynamic interconnect routing between solar cells.
SOLAR COLLECTOR CLEANING DEVICE
An autonomous solar collector cleaning device includes at least one main shaft, a first driver attached to a first end of the at least one main shaft, and a second driver attached to a second end of the at least one main shaft. The first and second drivers propel the cleaning device along a surface of the solar collector. A first sensor is attached to the first driver to detect an edge of the solar collector, and a second sensor is attached to the second driver to detect the edge of the solar collector. A control circuit maintains alignment of the cleaning device with respect to the solar collector based on outputs from the first and second sensors.
SOLAR COLLECTOR CLEANING DEVICE
An autonomous solar collector cleaning device includes at least one main shaft, a first driver attached to a first end of the at least one main shaft, and a second driver attached to a second end of the at least one main shaft. The first and second drivers propel the cleaning device along a surface of the solar collector. A first sensor is attached to the first driver to detect an edge of the solar collector, and a second sensor is attached to the second driver to detect the edge of the solar collector. A control circuit maintains alignment of the cleaning device with respect to the solar collector based on outputs from the first and second sensors.
FLOATING SOLAR SYSTEM
A floating solar system, comprising a floating base having, a buoyance and a lower base frame coupled to the buoyance, a center frame coupled to the lower base frame, an anchor coupled to the lower base frame, a plurality of solar panels affixed to the lower base frame and the center frame to provide electrical power, a lightning rod coupled to the center frame and a lightning rod cap coupled to the lightning rod.
FLOATING SOLAR SYSTEM
A floating solar system, comprising a floating base having, a buoyance and a lower base frame coupled to the buoyance, a center frame coupled to the lower base frame, an anchor coupled to the lower base frame, a plurality of solar panels affixed to the lower base frame and the center frame to provide electrical power, a lightning rod coupled to the center frame and a lightning rod cap coupled to the lightning rod.