About Power & Energy
Power+Energy develops hydrogen purifiers, hydrogen separators, and fuel processing technology for the hydrogen economy.P+E has recently demonstrated its hydrogen gas processing technology, which is compatible with traditional, alternative and renewable fuels. The patented micro-channel separation membranes can be scaled to supply a range of hydrogen volumes, on-demand and at the point of use. This technology can be used to supply hydrogen from fuels in stationary, portable, and mobile applications.P+E's target markets include auxiliary power, back-up power, grid-independent power, hydrogen fueling stations, and on-board reforming.
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Expert Collections containing Power & Energy
Expert Collections are analyst-curated lists that highlight the companies you need to know in the most important technology spaces.
Power & Energy is included in 2 Expert Collections, including Renewable Energy.
Includes companies working on technology to support renewable energy generation.
Hydrogen Energy Tech
Startups in this collection are developing solutions to lower the cost and commercialize the use of hydrogen as a low carbon fuel for heat, manufacturing, fuel cell electric vehicles, seasonal energy storage, and energy transport.
Power & Energy Patents
Power & Energy has filed 5 patents.
Industrial gases, Hydrogen technologies, Gas technologies, Chemical processes, Analytical chemistry
Industrial gases, Hydrogen technologies, Gas technologies, Chemical processes, Analytical chemistry
Latest Power & Energy News
Jan 11, 2023
January 11, 2023 04:32 AM Eastern Standard Time This study focuses on the main implications of the Russo-Ukrainian War in core global regions for the most important sectors within the energy industry, including oil and gas, coal, nuclear, renewable energy, digital grids, and energy storage. The forecast period is 2023-2030 using the base year of 2022. Russia's invasion of Ukraine has caused significant disruption to global energy markets. Europe has felt the biggest impact as a significant buyer of oil, and particularly gas, from Russia. In fact, Russia accounted for 35.5% of Europe's gas supply in 2021. As the volume of gas coming from Russia has fallen, Europe has been scrambling to secure supplies on the wider global market. This has boosted the fortunes of liquid natural gas (LNG) suppliers such as Australia, Qatar, and the United States, all of whom have seen revenues increase substantially, which has boosted the business case for further investment in liquefaction terminals in these countries to increase exports. In Europe, countries have boosted investment in LNG regasification terminals, with demand for floating terminals, which can be brought online very fast. Even before the invasion, investment in renewable energy was forecast to be high, but the invasion has led a number of countries to increase their spending. In fact, the European Union has mandated the acceleration of renewable energy. China and India have both increased their renewable investment programs. Southeast Asian countries that had plans to make gas a significant part of their energy mix are now reconsidering this strategy and focusing more on renewable energy. In the United States, passage of the Inflation Reduction Act, which is essentially a support package for renewable energy, will lead to significantly higher investment (this could well have occurred even if the invasion had not happened). These increases in renewable investment will also boost investment in grid technologies such as transformers, switchgear, and technologies that facilitate renewable energy coming online. Nuclear is another low-carbon power source that has also seen accelerated investment activity since the invasion. A number of European countries that were going to close plants in the coming years have either decided to extend the lifetime of plants or will likely do so in 2023. In Eastern Europe countries such as Poland, whose plans for nuclear plants were slowly progressing for some years, have now accelerated them, with contracts being awarded. In the longer term, coal must decline because of its emission levels, and incentive programs are increasingly offered to less developed economies to enable earlier closures. However, the invasion is likely to see more coal plants remain online for longer, as countries are concerned about supply security. Key Topics Covered: The Strategic Imperative The Russo-Ukrainian War's Impact on North America The Russo-Ukrainian War's Impact on Latin America The Russo-Ukrainian War's Impact on the Middle East The Russo-Ukrainian War's Impact on China The Russo-Ukrainian War's Impact on India and the Rest of South Asia The Russo-Ukrainian War's Impact on APAC The Russo-Ukrainian War's Impact on Africa 6. Growth Opportunity Universe Growth Opportunity 2: Consumer to Prosumer: New Opportunities for End Users Growth Opportunity 3: Distributed Cybersecurity for Grid Reliability For more information about this report visit https://www.researchandmarkets.com/r/d44467 About ResearchAndMarkets.com ResearchAndMarkets.com is the world's leading source for international market research reports and market data. We provide you with the latest data on international and regional markets, key industries, the top companies, new products and the latest trends. Contacts
Power & Energy Frequently Asked Questions (FAQ)
When was Power & Energy founded?
Power & Energy was founded in 1993.
Where is Power & Energy's headquarters?
Power & Energy's headquarters is located at 106 Railroad Drive, Ivyland.
What is Power & Energy's latest funding round?
Power & Energy's latest funding round is Seed.
How much did Power & Energy raise?
Power & Energy raised a total of $380K.
Who are the investors of Power & Energy?
Investors of Power & Energy include Ben Franklin Technology Partners of Southeastern PA and U.S. Department of Defense.
Who are Power & Energy's competitors?
Competitors of Power & Energy include Fulcrum BioEnergy, Renew Financial, Proton OnSite, Terra-Gen, FlexEnergy and 13 more.
Compare Power & Energy to Competitors
Tempronics has developed and patented the thermoelectric Climate Ribbon and module technology that distributes heating and cooling, responds rapidly and performs effectively. The technology has applications in a number of different markets where heating and cooling is necessary.
ProteoGenesis, LLC is a Johnson City, TN 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 ProteoGenesis, LLC's business and areas of expertise. The United States is in need of a renewable and clean energy supply. This project will develop novel enzymes that could make the process of converting switchgrass into ethanol a commercially viable source of renewable energy and create a new energy sector and agricultural job base in America.
Renew Financial, founded in 2008, specializes in affordable financing for renewable energy and energy efficiency projects and is developing an array of financing products that will help move America toward a clean energy model.
Copernican Energy is a company that received a STTR Phase I grant for a project entitled: High Temperature Solar Thermal Biomass Gasification and Co-reduction of Iron Oxide to Produce Hydrogen. Their project applies renewable solar thermal energy as a novel way to provide the necessary energy for biomass gasification and will develop the science required to engineer an efficient solar biomass-to-hydrogen conversion facility. Central to this innovation is the use of a reduced oxide intermediate to chemically store solar energy in a solid, allowing continuous hydrogen generation when the sun is not shining. The operating conditions necessary to achieve economically viable conversion of biomass resources to hydrogen will be determined through in-depth study "on-sun" and in the laboratory of heat transfer, reaction rates, and rate controls. The proposed project provides a bridge between solar energy and biomass to surmount many of the challenges associated with conventional biomass processing technologies. The high temperatures available from solar thermal systems allow for high conversion and selectivity, maximizing utility of the valuable biomass resource and extending its ability to replace conventional fossil fuels. Use of a reduced metal oxide stretches the applicability of solar energy beyond the daylight hours. Combined use of solar energy with biomass has a larger potential than either renewable resource alone to provide renewable fuels for the future. Copernican Energy is a company that received a STTR Phase I grant for a project entitled: Rapid Solar Thermal Gasification and Pyrolysis of Cellulose and Lignin for Renewable Fuel Production. Their research uses solar thermal energy as a novel way to provide the necessary energy for renewable biomass conversion to energy or useful products, and develops the science required to engineer an efficient and commercial solar biomass conversion facility. Gasification and pyrolysis of representative biomass resources grown near solar regions (corn stover and sorghum) will be converted via thermogravimetry, controlled aerosol reaction, and on-sun demonstration of feasibility of this approach. Thermogravimetric experiments will determine chemical kinetics and necessary conditions for high selectivity to syngas and tar mitigation. Economic simulations will determine the main cost drivers for product price and highlight the syngas products with highest near-term scale-up potential. The broader impacts of the application of solar thermal energy to thermochemical conversion of biomass will provide a bridge between these sources of renewable energy that could surmount many of the challenges associated with conventional biomass processing technologies. Combined use of solar energy with biomass has a larger potential than either renewable resource alone and will help alleviate the nation's dependence on foreign petroleum, generate economic growth, create fuels that are environmentally sustainable, and have an impact on the overall human impact of energy use.
Bioprocessing Innovative Company is a company that received a STTR Phase I grant for a project entitled: Engineering Clostritrial Fermentation for Biobutanol Production. Their project will develop novel engineered Clostridia strains for fermentation to economically produce butanol as a biofuel from sugars derived from starchy and lignocellulosic biomass. Butanol is an important industrial solvent and potentially a better transportation fuel than ethanol. Recent rising oil prices and limited petroleum resources have generated high interest in the production of biobutanol by anaerobic Clostridial fermentation. However, the conventional acetone-butanol-ethanol (ABE) fermentation has low butanol yield (<20%), butanol concentration (<16 g/L) and reactor productivity (<0.5 g/L*h) due to a strong butanol inhibition, and the fermentation process is difficult to improve due to the complicated metabolic pathways and gene regulation involved in the production microorganisms, mainly Clostridium acetobutylicum. To develop a novel high-butanol producer, Clostridia mutant strains with inactivated ack (acetate kinase) and pta (phosphotransacetylase) will be cloned with an alcohol dehydrogenase gene in Phase I and the mutants will be further adapted in a fibrous bed bioreactor to attain a high butanol tolerance. Functional genomic studies of the mutants and further metabolic engineering and process development will be carried out in Phase II to evaluate the feasibility and advantages of producing butanol from glucose and xylose. The new fermentation process can double the butanol yield and concentration, thus reducing the product cost to an economically competitive level for fuel application. Broader Impact: Currently, butanol is almost exclusively produced via petrochemical routes. Its uses include industrial applications in solvent, rubber monomers and brake fluids. Butanol has also been shown to be a good alternative transportation fuel. Biobutanol will have a great potential to compete with ethanol as a transportation fuel when its production cost is reduced by using advanced fermentation technologies such as metabolically engineered butanol-tolerant mutants. By increasing the butanol yield from glucose and xylose from the current low of <20 % (w/w) to ~40%, the economics of biobutanol can be greatly improved. With the engineered mutants, the productivity and butanol product concentration can also be improved by at least 100%. Overall, the biobutanol product cost can be reduced to less than $2 per gallon. This technology thus can provide an economical and better biofuel than ethanol. This project will focus on generation of value-added products from industrial waste streams and low-cost biomass feedstocks to enhance the economic viability of the biorefinery industry. Successfully developing the proposed butanol fermentation technology will satisfy the public interest, especially in providing a safe, renewable energy, protecting natural resources and the environment, and enhancing economic opportunity and quality of life. There will be job creation throughout the commercial development and manufacturing phases. At least one postdoctoral scholar and one Ph.D. student will be trained in this project. Bioprocessing Innovative Company is a company that received a STTR Phase I grant for a project entitled: A Gas-Solid Spouted Bed Bioreactor for Solid State Fermentation to Produce Enzymes and Biochemicals from Plant Biomass. Their research project will develop a gas-solid spouted bed bioreactor (SBB) for solid state fermentations (SSF) to produce hydrolytic enzymes (e.g., amylases, phytase, chitinase) and biochemicals (e.g., lactic acid) from solid starch materials. SSF offers higher production rates and easier product recovery compared to submerged fermentation (SmF), along with the ability to use many agricultural commodities and byproducts, such as rice, corn and wheat bran, as substrates. By virtue of its use of plant biomass as a substrate, SSF can become a sustainable system of chemical production from natural resources, thereby providing economic benefit to US agriculture and increasing national competitiveness. The proposed gas-solid spouted bed bioreactor can overcome problems suffered by conventional SSF systems. Using SBB for enzyme production potentially can reduce enzyme costs by more than 75% and thus increase their applications. Commercially, this new solid state fermentation (SFF) process can be used for economical production of industrially important enzymes from solid plant biomass. Hydrolyases such as amylases, cellulases, phytase, and chitinase have wide applications in industry. These enzymes can be more economically produced from plant biomss in SSF using the spouted bed bioreactor. Amylases and many other hydrolase enzymes are used in bioprocessing, including corn wet-milling, which currently generates more than $24.4 billion market value. Reducing the costs of these hydrolyase enzymes is critical to the emerging biorefinery and bio-based industrial products. The gas-solid spouted bed bioreactor (SBB) also can be used in simultaneous saccharification and fermentation processes for biochemicals production from plant biomass containing starch or cellulose. Successfully developing the proposed SBB and SSF technologies will provide sustainable chemical production, protect natural resources and the environment, and enhance economic opportunity and quality of life. The project also will train high quality personnel in the much needed bioprocessing technology areas, and provide an infrastructure for timely commercialization of university research results. There will be job creation throughout the commercial development and manufacturing phases. Bioprocessing Innovative Company is a company that received a SBIR Phase I grant for a project entitled: Production and Separation of Galacto-Oligosaccharides from Lactose for Prebiotic Food Applications. Their project will develop a novel immobilized enzyme process to produce galactooligosaccharides (GOS) from whey lactose for probiotic food applications. The proposed GOS production process involves two immobilized enzyme reactors and product separation by nanofiltration and adsorption chromatography. Two different alpha-galactosidase enzymes with different GOS formation characteristics will be used to optimize GOS production and yield from lactose. The product stream from the second reactor will be sent to a nanofiltration (NF) separation unit, where GOS, lactose, galactose, and glucose could be separated to yield a product with a higher GOS composition. The process for adsorption with activated carbon and ion exchange liquid chromatography will be developed to further purify GOS. The commercial application of this project will be in the emerging probiotic and neutraceutical food market for use by both animals and humans. This market is estimated to be in excess of 2 billion dollars per year. The present use of GOS in foods is limited by the high production costs. These costs are attributed mainly to the high enzyme cost and low oligosaccharide yields (less than 30% w/w). The proposed technology is expected to reduce production costs by at least 50% due by improving reactor productivity and enzyme life. Further, the ability to use cheap whey precursor products (current price range : $ 0.12 - $ 0.40 per lb) to value added GOS product (curent price : $ 4 - $ 5 per lb) will be of great benefit to the diary industry.
Fulcrum BioEnergy provides ethanol production in the United States. The company focuses on developing, owning, and operating efficient, environmentally responsible facilities that convert municipal solid waste and other waste products to a much-needed low-cost, reliable, and environmentally clean renewable transportation fuel. The company was founded in 2007 and is based in Pleasanton, California.
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