The SRT Group Management Team
2 Team Members
The SRT Group has 2 executives. The SRT Group's current Chief Executive Officer is Robin Parker.
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Princeton Power Systems offers an array of products and services available for high-performance power electronics. The company's advance converters are used for military and commercial distributed generation applications, including solar systems, energy storage, critical load control, backup power, and other advance features. PPS' talented and dedicated staff is ready to assist and tackle any difficulties our customers may face.Princeton Power Systems (PPS) is developing a inverter that regulates DC power from PV strings to 13.8kV AC without a grid side transformer. The inverter includes control algorithms to provide consistent power flow from the solar installation as well as grid support functions and advanced communications.
NEI Corporation is a Somerset, NJ based company that has received a grant(s) from the Department of Energy's SBIR/STTR program. The abstract(s) for these grant award(s) are provided as well since they provide insights into NEI Corporation's business and areas of expertise. This project will develop a mercury remediation solution for use in contaminated U. S. Department of Energy waste sites, thereby leading to cost savings and reducing the time for treating waste. This project will develop a nanoparticle-based technology that will enable coal-fired power plants to use sources of water other than conventional rivers or lakes. The nanoparticle-based technology also will be a cost-effective means of reducing the amount of toxic metals in waste water streams. This project will develop a nanotechnology-based coating for industrial vapor-to-liquid heat exchangers to enhance their performance by an order of magnitude and improve the energy efficiency of associated industrial processes. This project will enhance the properties of elastomeric seals for use in geothermal energy production and has the potential to prevent failure of equipment and to allow the down-hole equipment to run unattended for extended periods of time, greater than 5 to 10 years, without maintenance. This project will develop nanoparticle-enabled fluid technology to enhance the performance of heat exchangers used in small refining operations across the nation. The enhanced performance of the heat exchangers will lead to cost and energy savings. This project will develop technology to enable a new generation of lithium-ion batteries to deliver the required energy storage capacity at an economical price, making Li-ion batteries for electric utility and vehicles applications more affordable. This project will develop non-chromate corrosion inhibiting coating systems to enable the use of light weight magnesium alloys in automobiles. The result will lead to a reduction in greenhouse gas emissions and fuel costs to consumers. This project will develop a nanotechnology-based, self-healing industrial coating. Self-healing coatings will have significantly enhanced operational lives, thereby reducing installation and repair costs. There is a present need for sorbent technologies to enable coal-fired power plants to reduce mercury emissions. This project will develop a novel environmentally friendly sorbent technology to meet this emerging market need. This project will develop and implement a new class of 5V high voltage Li-ion battery cathode material for next generation plug in hybrid electric vehicles (PHEVs). This project will develop advanced materials for use as the internal wall of a fusion power reactor is expected to enable fusion power to be developed as a sustainable source of energy. This project will develop a new chemistry for Flow Batteries so that it is highly efficient, has long cycle life, and is low cost and non-toxic. The flow batteries can be used by utilities, in conjunction with green power generation, such as solar, wind turbine and fuel cell. The proposed technology will reduce the cost of the mercury removal from coal fired power plants, thereby allowing power plant utility companies to comply with mercury regulation. The proposed novel modified dielectric percolative composites will be reliable and will have high dielectric constant, thereby delivering high energy density to future solid state pulsed power systems.
Octillion Corp., together with its wholly owned subsidiaries, is a technology incubator focused on the identification, acquisition, development, and commercialization of alternative and renewable energy technologies. Through established relationships with universities, research institutions, government agencies and start-up companies, the company strive to identify technologies and business opportunities on an edge of innovation that have the potential of serving and unmet market needs. nOnce a technology has been identified, the company fund the research and development activities relating to the technology with the intention of ultimately, if warranted, licensing, commercializing and marketing the subject technology, either through internal resources, collaborative agreements or otherwise. Unique to the company's business model is the use of established research infrastructure owned by the various organizations the company deal with, saving us capital which would otherwise be required for such things as land and building acquisition, equipment and furniture purchases, and other incidental start up costs. As a result, the company are able to conduct research in development. nnAmong the company's current research and development activities is the development of a patent-pending technology that could adapt existing home and office glass windows into ones capable of generating electricity from solar energy without losing transparency or requiring major changes in manufacturing infrastructure. The company are also developing a system to harness the kinetic energy of vehicles in motion as part of a broader effort to enhance the sustainability and energy efficiency of transportation infrastructures and systems.
Solarno is a company that received a STTR Phase I grant for a project entitled: Synthesis of multifunctional nanofibrous polyaniline/carbon composites. Their their award is funded under the American Recovery and Reinvestment Act of 2009 and their project will develop novel multifunctional materials based on polyaniline (PAni) nanofibers (PANFs) and carbon nanofibers(CNFs) for energy storage. Although PAni composites have been reported for a wide range of applications, including sensors, biosensors, photoelectrochromic cells, etc., due to their excellent electrical, thermal and mechanical properties, none capitalize on the enhanced properties expected from the combination of PANF with CNF. PANFs have greater electronic conductivity than PAni nanospheres and nanorods and can be synthesized on a variety of substrates. Solarno will use a proprietary process for synthesizing composites of PANFs on CNFs. In Phase I Solarno will use these composites as electrode materials for asymmetric supercapacitors, an enabling technology that provides both high energy and power, with the specific technical objectives of: synthesizing and characterizing PANFs on CNF substrates, and achieving supercapacitor performance of 15 Wh/kg, 10 kW/kg and >10 cycles, thus far exceeding current lead acid batteries in terms of power and cycle life. In Phase II we will improve the energy density of these devices to enable potential replacement of such batteries, and explore other functions for the composites, such as sensors and electro-chemical devices. The PANF/CNF composites developed by Solarno will be introduced to the supercapacitor market via materials sales, and partnering/licensing arrangements, and later to related electrochemical functions/applications. Solarno is targeting requirements of the Hybrid Electric Vehicle (HEV) market for its initial supercapacitor designs, and as such, the ultimate customers will be major automobile manufacturers. The market requires that capacitors provide higher energy density, reduced size, higher reliability, and lower cost. Commercially available EDLCs commonly provide energy densities around 4 Wh/kg, and power densities between 15-21 kW/kg. The supercapacitor developed here can excel in this market by providing energy density > 25 Wh/kg and better reliability (>2.0 x 104 cycles); the Phase I work will optimize the properties of our PANF/CNF composite to meet this goal. The supercapacitors will also be well-suited for load-leveling for renewable energy sources; direct societal benefits will come from improving the viability of HEVs and renewable sources, tied to reductions in fossil fuel consumption, providing bridge power for wind and solar power farms, and partially replacing lead acid storage batteries. The results of this work in optimizing PAni composites for supercapacitors will translate well into improved functionality for other applications.
microJoining Solutions (mJS) is an internationally provider of the field of packaging and assembling miniature and micro-miniature electro-mechanical components and assemblies using the latest feedback controlled resistance welding, pulsed YAG laser welding, and ultrasonic metal welding equipment. nnThe company's focus is on saving users money by improving yields in their present welding processes and preventing welding failures in their product design phase. nnmJS has developed a special expertise in welding automotive components and sensors, medical devices, and solar cell assemblies. mJS is very familiar with both automotive and FDA process documentation and validation.
Tisol is a company that received a SBIR Phase I grant for a project entitled: Scalable fabrication of mesoporous thin-films for production of efficient dye-sensitized solar cells. Their project aims to apply a specialized method to develop a rapid, large-scale and inexpensive thin film deposition technology. The goal is to enable the low-cost mass production and maintain the optimized nanostructures and film properties of efficient dye-sensitized solar cells. The broader societal/commercial impact of this project will be the potential to reduce production costs of materials used in dye-sensitized solar cells. Compared to other solar cell technologies, dye-sensitized solar cell technology has the potential of (1) low cost due to the abundance of elements that constitute the cell; (2) lightweight thus reduced installation cost and enhanced flexibility. However, recent advances in photovoltaics industry set a cost standard of < $1/Watt. If dye-sensitized solar cells were to be at par with current technologies on the market, the cost of thin film deposition has to be reduced. This project targets on the development of a high-throughput and large-scale thin film deposition process, which will make the solar electricity via dye-sensitized technology more cost-effective and thus more available.
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