Abstract: In an operation, the modular electrical power distribution panel (MEPP) is built and assembled with accessories of additional electrical components, instruments, and lighting controls installed in the MEPP. The MEPP can further include bus bars for circuit breakers to attach to as well as electrical rails constructed to allow one or more instruments that will be mounted in the MEPPs to electrically connect to the electrical rails. The MEPP rests on a floor and is supported through its frame from a ground up to be a free standing panel. The MEPP, the bus bars, electrical rails and accessories are modular shippable in five modular pieces or less that meet requirements set by a nationally recognized testing laboratory approval as assembled as a whole unit; and thus, eliminate a need for a second laboratory approval as the whole unit when assembled for a first time at a work site.

Abstract: An advanced system of cooperating solar module carrier robots for installing solar panels on a solar tracker is provided. The advanced system can include a computer vision system designed to route the cooperating solar module carrier robots to a solar tracker, a deck sized to fit one or more pallets of solar panels, and a robotic arm with a suction cup tool designed to pick up and hold a solar panel.

Abstract: An advanced system of cooperating solar module carrier robots for installing solar panels is provided. The system includes a computer vision system designed to route the cooperating solar module carrier robots to the solar tracker. The system also includes a robotic arm with a suction cup tool designed to pick up and hold a solar panel. The suction cup tool can include a set of suction cups, an actuator designed to create a vacuum in each suction cup of the set of suction cups. The suction cup tool also has an air nozzle designed to below off debris on a surface of the solar panel.

Abstract: An autonomous solar module installation platform can be used for solar module installation onto a solar tracker. The autonomous solar module installation platform can include an off-road capable base vehicle and a robotic arm, mounted on the off-road capable base vehicle, for the solar module installation onto the solar tracker. The off-road capable base vehicle and the robotic arm can communicate with each other and cooperate their movements to proceed to the solar tracker and align with the solar tracker in order for the robotic arm to pick up and lift the solar module during an installation of the solar module onto the solar tracker.

Abstract: An autonomous solar module installation platform can be used for solar module installation onto a solar tracker. The autonomous solar module installation platform can include an autonomous ground vehicle and a robotic arm for the solar module installation onto the solar tracker. The autonomous ground vehicle can autonomously drive itself to the solar tracker using a global positioning system and align itself with the solar tracker using at least a vision system in order to place one or more solar modules onto the solar tracker.

Abstract: An autonomous solar module installation platform can be used for solar module installation onto a solar tracker. The autonomous solar module installation platform can include an autonomous ground vehicle and a robotic arm for the solar module installation onto the solar tracker. The autonomous ground vehicle can autonomously drive itself to the solar tracker using a global positioning system and align itself with the solar tracker using at least a vision system in order to place one or more solar modules onto the solar tracker.

Abstract: A multiple part bracket can be constructed to provide an electrical power connection and a mechanical attachment. The multiple part bracket includes an upper portion and a lower portion of the bracket constructed to be assembled together on an arm of a solar tracker in the field. The lower portion is adaptable in shape and dimensions to attach onto solar trackers from two or more different manufacturers in order to mechanically capture a solar panel module on the arm and to retain the solar panel module in place on the arm of the solar tracker. The multiple part bracket can be used with an autonomous ground vehicle with a robotic arm in order to autonomously install the multiple part bracket onto a solar tracker with the robotic arm.

Abstract: In an operation, the modular electrical power distribution panel (MEPP) is built and assembled with accessories of additional electrical components, instruments, and lighting controls installed in the MEPP. The MEPP can further include bus bars for circuit breakers to attach to as well as electrical rails constructed to allow one or more instruments that will be mounted in the MEPPs to electrically connect to the electrical rails. The MEPP rests on a floor and is supported through its frame from a ground up to be a free standing panel. The MEPP, the bus bars, electrical rails and accessories are modular shippable in five modular pieces or less that meet requirements set by a nationally recognized testing laboratory approval as assembled as a whole unit; and thus, eliminate a need for a second laboratory approval as the whole unit when assembled for a first time at a work site.

Abstract: An autonomous solar module installation platform can be used for solar module installation onto a solar tracker. The autonomous solar module installation platform can include an autonomous ground vehicle and a robotic arm for the solar module installation onto the solar tracker. The autonomous ground vehicle can autonomously drive itself to the solar tracker using a global positioning system and align itself with the solar tracker using at least a vision system in order to place one or more solar modules onto the solar tracker.

Abstract: An autonomous solar module installation platform can be used for solar module installation onto a solar tracker. The autonomous solar module installation platform can include an off-road capable base vehicle and a robotic arm, mounted on the off-road capable base vehicle, for the solar module installation onto the solar tracker. The off-road capable base vehicle and the robotic arm can communicate with each other and cooperate their movements to proceed to the solar tracker and align with the solar tracker in order for the robotic arm to pick up and lift the solar module during an installation of the solar module onto the solar tracker.

Abstract: A process for making activated carbon monolith using PTFE as binder is disclosed and described. The process includes carbon-PTFE paste preparation, shearing the paste in a calender with hot rollers, and forming carbon monoliths using compression shaping equipment.

Abstract: This invention is to use knowledge pattern learning and search system for selecting microorganisms to produce useful materials and to generate clean energy from wastes, wastewaters, biomass or from other inexpensive sources. The method starts with an in silico screening platform which involves multiple steps. First, the organisms' profiles are compiled by linking the massive genetic and chemical fingerprints in the metabolic and energy-generating biological pathways (e.g. codon usages, gene distributions in function categories, etc.) to the organisms' biological behaviors. Second, a machine learning and pattern recognition system is used to group the organism population into characteristic groups based on the profiles. Lastly, one or a group of microorganisms are selected based on profile match scores calculated from a defined metabolic efficiency measure, which, in term, is a prediction of a desired capability in real life based on an organism's profile.