Abstract: An automated radiopharmaceutical production and quality control system includes a particle accelerator, a radiopharmaceutical micro-synthesis subsystem, and quality control subsystem. The micro-accelerator of the improved biomarker generator is optimized for producing radioisotopes useful in synthesizing radiopharmaceuticals in quantities on the order of multiple unit doses, allowing for significant reductions in size, power requirements, and weight when compared to conventional radiopharmaceutical cyclotrons. The radiopharmaceutical micro-synthesis subsystem encompasses a small volume chemical synthesis system comprising a microreactor and/or a microfluidic chip and optimized for synthesizing the radiopharmaceutical in small quantities, allowing for significant reductions in processing time and in the quantity of radioisotope required. The automated quality control subsystem is used to test the composition and characteristics of the radiopharmaceutical to ensure that it is safe to inject.

Abstract: An automated radiopharmaceutical production and quality control system includes a particle accelerator, a radiopharmaceutical micro-synthesis subsystem, and quality control subsystem. The micro-accelerator of the improved biomarker generator is optimized for producing radioisotopes useful in synthesizing radiopharmaceuticals in quantities on the order of multiple unit doses, allowing for significant reductions in size, power requirements, and weight when compared to conventional radiopharmaceutical cyclotrons. The radiopharmaceutical micro-synthesis subsystem encompasses a small volume chemical synthesis system comprising a microreactor and/or a microfluidic chip and optimized for synthesizing the radiopharmaceutical in small quantities, allowing for significant reductions in processing time and in the quantity of radioisotope required. The automated quality control subsystem is used to test the composition and characteristics of the radiopharmaceutical to ensure that it is safe to inject.

Abstract: A user interface is visibly displayed on a display device operatively connected to a first computer. The user interface enables an end user to enter at least one energy management rule for each of a plurality of electrical loads at a location, each rule including a command to be transmitted to the electrical load associated with the rule if a condition is met. The energy management rules for each of the plurality of electrical loads are received by a second computer. An energy management profile containing the energy management rules for each of the plurality of electrical loads at the location is created and stored using a second computer. The energy management profile is activated using the second computer. For each of the energy management rules where the condition has been met, the command associated with the rule is transmitted to the electrical load associated with the rule.

Abstract: A user interface is visibly displayed on a display device operatively connected to a first computer. The user interface enables an end user to enter at least one energy management rule for each of a plurality of electrical loads at a location, each rule including a command to be transmitted to the electrical load associated with the rule if a condition is met. The energy management rules for each of the plurality of electrical loads are received by a second computer. An energy management profile containing the energy management rules for each of the plurality of electrical loads at the location is created and stored using a second computer. The energy management profile is activated using the second computer. For each of the energy management rules where the condition has been met, the command associated with the rule is transmitted to the electrical load associated with the rule.