Abstract: Systems, including methods and apparatus, for growing viable monoclonal colonies, identifying them as monoclonal after their viability has been demonstrated, and picking and placing them into a target environment. The methods may include plating cells at low density in a well, capturing at a first time shortly after plating a series of vertically spaced-apart images of the well showing locations of the cells, capturing at a second, later time images of the same well showing locations of candidate cell colonies, determining a likelihood that the candidate colonies are monoclonal based on information in the first set of images, and, based on the likelihood, picking candidate colonies using a picking head for transfer to a target environment.

Abstract: An apparatus provides a single split-bus electrical panel with back-feed circuit breakers arranged to allow connection of a Microgrid Interconnection Device (MID) for isolation of a critical loads section from a standards loads section during back-up operation due to a utility power outage. A first panel section of the split-bus electrical panel supplies power to non-critical standards loads in a residence. A second panel section of the split-bus electrical panel supplies power to critical loads in the residence, which must continue to be powered during a utility power outage.

Abstract: An apparatus provides a single split-bus electrical panel with back-feed circuit breakers arranged and sized so that, for example, a single 225A rated split-bus electrical panel with a 200A main breaker may be used to connect a far higher photovoltaic power source than conventional configurations. The circuit breakers are connected to a Microgrid Interconnection Device for isolation of critical loads during a utility power outage. A first panel section of the split-bus panel is connected to a utility and supplies power to non-critical loads. A second panel section is connected to a renewable power source with battery back-up to supply power to the critical loads and is connected through a relay to the utility, in parallel with the first panel section, to supply both utility power and renewable power when there is no outage. The relay is configured to isolate the second panel when there is a utility outage.

Abstract: A distributed energy resources compartment for an electrical panel is pre-wired for installation of a photovoltaic system for a residence. The compartment is mounted on a back plate in the interior of an electrical cabinet. A pre-wired connection within the compartment is configured to connect to a solar circuit breaker within the electrical cabinet, connected as a back-feed circuit breaker to an electrical panel. An opening on a backside of the compartment adjacent to the back plate of the electrical cabinet, is configured to receive connections within the compartment from a solar inverter, through the back plate of the electrical cabinet when the solar inverter is mounted to the back plate of the electrical cabinet.

Abstract: An apparatus provides a single split-bus electrical panel with back-feed circuit breakers arranged to allow connection of a Microgrid Interconnection Device (MID) for isolation of a critical loads section from a standards loads section during back-up operation due to a utility power outage. A first panel section of the split-bus electrical panel supplies power to non-critical standards loads in a residence. A second panel section of the split-bus electrical panel supplies power to critical loads in the residence, which must continue to be powered during a utility power outage.

Abstract: A method of treating a contaminated oil comprising preparing a brine solution, adding ozone to the brine solution to produce ozonated brine solution, adding a volume of ozonated brine solution to a volume of the contaminated oil, mixing the volumes of contaminated oil and ozonated brine solution with coagulant and surfactant at a shear rate sufficiently high so as to cause formation of an emulsion of the contaminated oil and the brine solution, stopping the mixing, thereby causing the emulsion to separate into an aqueous brine liquid phase and an oil liquid phase, separating the brine liquid phase from the oil liquid phase, and separating at least one contaminant from the oil liquid phase to produce a volume of purified oil.

Abstract: An apparatus provides a single split-bus electrical panel with back-feed circuit breakers arranged and sized so that, for example, a single 225 A rated split-bus electrical panel with a 200 A main breaker may be used to connect a far higher photovoltaic power source than conventional configurations. The circuit breakers are connected to a Microgrid Interconnection Device for isolation of critical loads during a utility power outage. A first panel section of the split-bus panel is connected to a utility and supplies power to non-critical loads. A second panel section is connected to a renewable power source with battery back-up to supply power to the critical loads and is connected through a relay to the utility, in parallel with the first panel section, to supply both utility power and renewable power when there is no outage. The relay is configured to isolate the second panel when there is a utility outage.

Abstract: Boot-strapping systems and techniques for circuits are described. One or more solid-state switches of a switched regulation circuit may be implemented using core transistors and the boot-strapping systems, rather than I/O transistors.

Abstract: An apparatus provides a single split-bus electrical panel with a first panel section that supplies power to non-critical loads and a second panel section to supply photoelectric power to critical loads. A patch panel associated with the split-bus electrical panel is configured to enable an installer to selectively connect factory installed connections to either: (1) connect each panel section directly to utility power for full utility power to both panel sections; (2) alternately to connect the second panel section to the utility power via a microgrid interconnection device when the second panel section is presently at least partially powered by back-up photovoltaic power, or (3) alternately connect both panel sections to full back-up photovoltaic power.

Abstract: An apparatus provides a single split-bus electrical panel with a first panel section that supplies power to non-critical loads and a second panel section to supply photoelectric power to critical loads. A patch panel associated with the split-bus electrical panel is configured to enable an installer to selectively connect factory installed connections to either: (1) connect each panel section directly to utility power for full utility power to both panel sections; (2) alternately to connect the second panel section to the utility power via a microgrid interconnection device when the second panel section is presently at least partially powered by back-up photovoltaic power, or (3) alternately connect both panel sections to full back-up photovoltaic power.

Abstract: An apparatus provides a single split-bus electrical panel with back-feed circuit breakers arranged and sized so that, for example, a single 225 A rated split-bus electrical panel with a 200 A main breaker may be used to connect a far higher photovoltaic power source than conventional configurations. The circuit breakers are connected to a Microgrid Interconnection Device for isolation of critical loads during a utility power outage. A first panel section of the split-bus panel is connected to a utility and supplies power to non-critical loads. A second panel section is connected to a renewable power source with battery back-up to supply power to the critical loads and is connected through a relay to the utility, in parallel with the first panel section, to supply both utility power and renewable power when there is no outage. The relay is configured to isolate the second panel when there is a utility outage.

Abstract: The present disclosure is directed to methods for treating diseases for which cysteamine is indicated and compounds useful in such methods.

Abstract: A distributed energy resources compartment for an electrical panel is pre-wired for installation of a photovoltaic system for a residence. The compartment is mounted on a back plate in the interior of an electrical cabinet. A pre-wired connection within the compartment is configured to connect to a solar circuit breaker within the electrical cabinet, connected as a back-feed circuit breaker to an electrical panel. An opening on a backside of the compartment adjacent to the back plate of the electrical cabinet, is configured to receive connections within the compartment from a solar inverter, through the back plate of the electrical cabinet when the solar inverter is mounted to the back plate of the electrical cabinet.

Abstract: An apparatus provides a single split-bus electrical panel with back-feed circuit breakers arranged and sized so that, for example, a single 225A rated split-bus electrical panel with a 200A main breaker may be used to connect a far higher photovoltaic power source than conventional configurations. The circuit breakers are connected to a Microgrid Interconnection Device for isolation of critical loads during a utility power outage. A first panel section of the split-bus panel is connected to a utility and supplies power to non-critical loads. A second panel section is connected to a renewable power source with battery back-up to supply power to the critical loads and is connected through a relay to the utility, in parallel with the first panel section, to supply both utility power and renewable power when there is no outage. The relay is configured to isolate the second panel when there is a utility outage.

Abstract: A method of treating a contaminated oil comprising preparing a brine solution, adding ozone to the brine solution to produce ozonated brine solution, adding a volume of ozonated brine solution to a volume of the contaminated oil, mixing the volumes of contaminated oil and ozonated brine solution with coagulant and surfactant at a shear rate sufficiently high so as to cause formation of an emulsion of the contaminated oil and the brine solution, stopping the mixing, thereby causing the emulsion to separate into an aqueous brine liquid phase and an oil liquid phase, separating the brine liquid phase from the oil liquid phase, and separating at least one contaminant from the oil liquid phase to produce a volume of purified oil.

Abstract: A distributed energy resources compartment for an electrical panel is pre-wired for installation of a photovoltaic system for a residence. The compartment is mounted on a back plate in the interior of an electrical cabinet. A pre-wired connection within the compartment is configured to connect to a solar circuit breaker within the electrical cabinet, connected as a back-feed circuit breaker to an electrical panel. An opening on a backside of the compartment adjacent to the back plate of the electrical cabinet, is configured to receive connections within the compartment from a solar inverter, through the back plate of the electrical cabinet when the solar inverter is mounted to the back plate of the electrical cabinet.

Abstract: An apparatus provides homeowner selectable full or partial back-up power of a residential photovoltaic system to power critical loads during a utility power outage. A single split-bus electrical panel with a first panel section supplies utility power to non-critical loads and a second panel section supplies photovoltaic power to critical loads. A mechanical interlock in contact with interlocked circuit breakers of the first panel, prevents them from both being simultaneously on. A patch panel associated with the split-bus electrical panel enables an installer to selectively connect factory installed connections to either: connect the second panel section to utility power via a microgrid interconnection device when the second panel section is at least partially powered by back-up photovoltaic power, or connect the first panel section through one of the interlocked circuit breakers to utility power via the microgrid interconnection device to provide both panel sections with full back-up photovoltaic power.

Abstract: An apparatus provides homeowner selectable full or partial back-up power of a residential photovoltaic system to power critical loads during a utility power outage. A single split-bus electrical panel with a first panel section supplies utility power to non-critical loads and a second panel section supplies photovoltaic power to critical loads. A mechanical interlock in contact with interlocked circuit breakers of the first panel, prevents them from both being simultaneously on. A patch panel associated with the split-bus electrical panel enables an installer to selectively connect factory installed connections to either: connect the second panel section to utility power via a microgrid interconnection device when the second panel section is at least partially powered by back-up photovoltaic power, or connect the first panel section through one of the interlocked circuit breakers to utility power via the microgrid interconnection device to provide both panel sections with full back-up photovoltaic power.

Abstract: An apparatus provides a single split-bus electrical panel with back-feed circuit breakers arranged and sized so that, for example, a single 225A rated split-bus electrical panel with a 200A main breaker may be used to connect a far higher photovoltaic power source than conventional configurations. The circuit breakers are connected to a Microgrid Interconnection Device for isolation of critical loads during a utility power outage. A first panel section of the split-bus panel is connected to a utility and supplies power to non-critical loads. A second panel section is connected to a renewable power source with battery back-up to supply power to the critical loads and is connected through a relay to the utility, in parallel with the first panel section, to supply both utility power and renewable power when there is no outage. The relay is configured to isolate the second panel when there is a utility outage.

Abstract: An apparatus provides a single split-bus electrical panel with a first panel section that supplies power to non-critical loads and a second panel section to supply photoelectric power to critical loads. A patch panel associated with the split-bus electrical panel is configured to enable an installer to selectively connect factory installed connections to either: (1) connect each panel section directly to utility power for full utility power to both panel sections; (2) alternately to connect the second panel section to the utility power via a microgrid interconnection device when the second panel section is presently at least partially powered by back-up photovoltaic power, or (3) alternately connect both panel sections to full back-up photovoltaic power.