About Cool Earth Solar
Cool Earth Solar works on the development of concentrated photovoltaic cell (CPV) system. Instead of using rigid aluminum or glass structures to focus light, the company uses metallized plastic films. And, instead of using ribs, trusswork, or material heft to maintain the mirror shape, the company use active inflation air. The company also actively water cool the company's photovoltaic cells to remove waste heat in contrast to the large, material-intensive heat spreaders and sinks used by most other CPV companies.Serendipitously, inflation air aims to allow us to make an effective concentrator from nothing but thin clear and reflective plastic films bonded to each other like a conventional foil balloon. The inflated structure is lightweight and strong enough to survive 125 mph winds. The company optimize the optical properties of the balloon by actively controlling its inflation. The balloon also forms a protective barrier around the company's PV cell.
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Expert Collections containing Cool Earth Solar
Expert Collections are analyst-curated lists that highlight the companies you need to know in the most important technology spaces.
Cool Earth Solar is included in 1 Expert Collection, including Renewable Energy.
This collection contains upstream and downstream solar companies, as well as those who manufacture and sell products that are powered by solar technology.
Cool Earth Solar Patents
Cool Earth Solar has filed 5 patents.
Photovoltaics, Solar thermal energy, Energy conversion, Solar cells, Solar energy
Photovoltaics, Solar thermal energy, Energy conversion, Solar cells, Solar energy
Latest Cool Earth Solar News
Apr 13, 2020
CPV Solar Market reports provide crucial insights that facilitate the CEOs, Investors, Product Managers, Director, Traders, Business Specialists and Executives to draft their policies on varied parameters as well as expansion, acquisition and new product launch also as analyzing and understanding the market growth, trends and 6 forces forecast(2019-2025).CPV Solar industry report offers in-depth analysis of worldwide topmost key manufacturers (SolFocus USA, Emcore USA, LORENTZ Germany, Amonix USA, OPEL USA, Green Volts USA, Cool Earth Solar USA, Abengoa Spain, Isofoton Spain, Arima Eco Energy Taiwan, Comp Solar Taiwan, Everphoton Taiwan, Suntrix China, Sanan Optoelectronics Xiamen, Lida Optoelectronics Henan, Solar Systems Australia, WS Energia Portugal, ES System Korea, Whitfield UK, CPower Italy, Square Engineering India, Soitec France, Hanlong Group China, SKYSource China) to define, describe and analyze the Company Profiles, Product Picture and Specification, Capacity, Production, Price, Cost, Revenue and Contact Information. In the end, the report introduced Porter’s Five Forces Analysis (potential entrants, suppliers, substitutes, buyers, industry competitors) provides crucial information for knowing the CPV Solar market. CPV Solar Market Major Factors: CPV Solar Market Overview, Economic Impact on Market, Market Competition, CPV Solar Market Analysis by Application, Industrial Chain, Sourcing Strategy and Downstream Buyers, Marketing Strategy Analysis, Distributors/Traders, CPV Solar Market Effect, Factors, Analysis, CPV Solar Market Forecast. Scope of CPV Solar Market: In 2019, the market size of CPV Solar is million US$ and it will reach million US$ in 2025, growing at a CAGR of from 2019; while in China, the market size is valued at xx million US$ and will increase to xx million US$ in 2025, with a CAGR of xx% during forecast period. In this report, 2018 has been considered as the base year and 2019 to 2025 as the forecast period to estimate the market size for CPV Solar. On the basis of product, this report displays the sales volume, revenue (Million USD), product price, CPV Solar market share and growth rate of each type, primarily split into- LCPV(2-100) HCPV(>300) On the basis on the end users/applications, this report focuses on the status and outlook for major applications/end users, sales volume, CPV Solar market share and growth rate of CPV Solar for each application, including- Commercial Power Residential Power Geographically, the report includes the research on production, consumption, revenue, CPV Solar market share and growth rate, and forecast (2019-2025) of the following regions: United States, China, Japan, India, Other Regions Europe (Germany, UK, France, Italy, Spain, Russia, Poland) Southeast Asia (Malaysia, Singapore, Philippines, Indonesia, Thailand, Vietnam) Central and South America (Brazil, Mexico, Colombia) Middle East and Africa (Saudi Arabia, United Arab Emirates, Turkey, Egypt, South Africa, Nigeria) Key Questions Answered in the Report: What are the Competition Developments and Trends in the CPV Solar market? What are the Key Challenges, Opportunities, and Improvements faced by market players in the global CPV Solar market? What are the underlying Macro-Economic and Industry Factors impacting the growth of the CPV Solar market? How is the CPV Solar market expected to Grow In Terms Of Value during the study period? Contact:
Cool Earth Solar Frequently Asked Questions (FAQ)
When was Cool Earth Solar founded?
Cool Earth Solar was founded in 2006.
Where is Cool Earth Solar's headquarters?
Cool Earth Solar's headquarters is located at 7665 Hawthorne Place, Livermore.
What is Cool Earth Solar's latest funding round?
Cool Earth Solar's latest funding round is Other Investors.
Who are the investors of Cool Earth Solar?
Investors of Cool Earth Solar include Quercus Trust.
Who are Cool Earth Solar's competitors?
Competitors of Cool Earth Solar include NEI Corporation, Accustrata, Jem Enterprises, Meridian Deployment Corporation, M V Systems and 13 more.
Compare Cool Earth Solar to Competitors
Ambp Technology Corporation is a company that received a SBIR Phase I grant for a project entitled: Photovoltaic Laser Annealing System. Their project proposes to achieve recently reported gains in CIGS solar cell efficiency from in-situ laser deposition, by using an ex-situ laser annealing approach that is compatible with an existing pilot manufacturing system. The proposed ex-situ approach will not need to heat the substrate above the 425C value used to manufacture CIGS solar cells on flexible polyimide substrates. Solar cell technology is an energy alternative that can reduce America's dependence on fossil-fuel-generated electric power. A truly cost effective technology is to build cells using methods whose thermal budgets are low enough to enable the use of inexpensive polymer substrates, which enables large-area roll-to-roll processing and automated cell-to-cell connection techniques. AMBP Tech Corporation will develop and demonstrate a tool to improve solar cell performance that is immediately applicable in the solar-cell manufacturing marketplace.
Banpil Photonics is a company that received a SBIR Phase I grant for a project entitled: Significantly High-Efficiency a-Si Photovoltaic Cell. Their project seeks to develop significantly high-efficiency photovoltaic-cells (a.k.a. solar-cells) for clean electrical energy generation commercial applications. Conventional solar cell has the limitation in conversion efficiency, basically structured dependent. For example, it is ~18% for Si-crystal and 10% for amorphous-Si (a-Si) based Solar cell. It is required to develop solar cell utilizing material systems, which are matured, friendly to manufacturing, and can be fabricated using low-cost substrate (e.g. glass). A goal of the Phase I program is to carry on research and development of a-Si-solar cell for conversion efficiency of >25%, utilizing the glass-substrate. The design, performance simulation, and parameters optimization will be carried out during the Phase I activity period. The proposed high-efficiency a-Si solar cell structure is widely applicable to next generation commercial applications. According to the recent report from the US Department of Energy (DOE), today's global market for solar cells for all commercial applications is $7-billion and it is estimated to grow with >40% per year, reaching $39-billion in 2014. Commercial applications include residential applications (on-grid/off-grid), industrial applications (both on-grid and off-grid), and consumer products (e.g. cell phones, PDAs). Banpil Photonics is a company that received a SBIR Phase I grant for a project entitled: High Speed Flexible Printed Circuit (FPC). Their Project will investigate an innovative high-speed Flexible Printed Circuit (FPC) utilizing conventional material (like Polyimide) and standard manufacturing process. With the continued growth in integration density of CMOS (complementary metal-oxide semiconductor) technology and clock frequency of chips, the aggregate bandwidth required between future-generation chip and chipsets will increase sharply. Driving serial or parallel data at high speed over conventional flexible board (i.e. flexible) is becoming a severe design constraint in many applications. Today, divding high speed signal into several low speed signals and driving those signals in parallel are common. Utilizing this technique will not fully utilize the chip speed and thereby overall system performance will not be improved siginificantly. The proposed technology will produce the high speed FPC which will have high signal carrying capacity. Utilizing such FPC will help to increase the system performance significantly. The objectives of the project are to identify the best structural configuration and its optimization, to design the polymer-based FPC, and to establish the feasibility of high speed FPC board. In this project, prototypes will be made and evaluated, measurements of relevant characteristics will be conducted, and a development path for the next phase of the project will be identified. The project has the potential to produce the high speed interfaces suitable for next generation digital and RF system applications. The direct commercial potential of the project lies in interface products, manufactured using this technology for HDTV, flat-panel display, networking equipments, imaging and video systems, etc. Banpil Photonics is a company that received a SBIR Phase I grant for a project entitled: Multipurpose and Multispectral Sensor for Geo-science and Astronomical Instruments. Their research project will develop monolithic multicolor sensor array with high quantum efficiency, high speed for numerous system applications. Today's sensor arrays are designed to work either in visible or in near infrared region. None of these can provide broad spectral response (300 nm to 2500 nm). The goal is to identify suitable sensor array structures for broad range detection, with combined high quantum efficiency, and high speed. A second goal is to identify a photodiode or sensor array structure where each pixel can be addressed independently. The design, performance simulation, and also physical parameters optimization will also be carried out as a part of this research activity. The broader impact of this research is that broad spectral image sensors are required for various ground-based, air-borne, space-borne geo-science instruments for the atmospheric properties measurement, surface topography, range detection, remote sensing, and real-time monitoring of biological systems. To date, several sensors covering different spectral ranges are used for this purpose. Next generation geo-science and astronomical instrumentation require single sensor that can detect multiple spectral bands (300 to 2500 nm of wavelengths) and could be used for multiple earth-science measurements. Use of single sensor having multifunctional capability can make the instrument unusually small, light and low-power requirement. Banpil Photonics is a company that received a SBIR Phase I grant for a project entitled: Innovative High Speed Electrical Chip-to-Chip Interconnects for Next Generation Systems. Their project proposes chip-to-chip interconnects that can be applied in the mother boards/ backplanes of high performance networking systems and/or computing systems, where 10 Gb/s and beyond signal speed per channel (serial) is necessary. An innovative cost-effective high speed (> 20Gb/s per channel) electrical interconnect technology, which can increase the signal carrying capacity of the board-level interconnects more than 6 times than the conventional technology is proposed. This can help to route the signal longer distances (at given signal-speed) at lower cost by using standard dielectric material. The company will investigate the design, feasibility of the concept, process development, and data analysis approaches in order to create a high speed interconnect PCB board, and each can carry the signal as high as 20 Gb/s. The proposed high speed electrical chip-to-chip interconnects will have applications in high speed PCs, high-speed servers, networking systems, gaming machines, communications systems, imaging and video systems.
Bossa Nova Vision is specialized in the development of a polarization imaging system and cosmetic testing turn-key instruments. Strong expertise in polarization imaging and image processing have led Bossa Nova Vision to develop sensors for various applications and technologies, ranging from cosmetic testing for the hair care industry to detection of a magnetic signature on a hard drive.
Ultrasonic Technologies is a company that received a SBIR Phase I grant for a project entitled: Resonance Ultrasonic Vibrations for Defect Characterization in Solar Silicon Wafers. Their Phase I research project addresses fundamentals of the innovative experimental methodology for quick and accurate assessment of mechanical defects in solar-grade full-size (up to 210 mm) silicon (Si) wafers. The objective is to justify a commercial prototype of the Resonance Ultrasonic Vibrations (RUV) system which ultimately will be used as a real-time in-line process control tool for identification and rejection from a solar cell production line of mechanically unstable, i.e. fragile wafers due to periphery cracks and high level of residual stress. The broader impact of the program will be in the commercialization of the RUV system to address critical needs of the photovoltaic (PV) industry. The world-wide PV market exhibits a steady yearly up to 40% growth rate in recent years. There is potential for applying this approach to other technologies, such as stress monitoring in Silicon-on isolator wafers and SiGe epitaxial layers in high-speed electronics and adhesion quality assessment in thin polycrystalline Si films on glass for flat panel displays.
Q1 Nanosystems Corp is a company that received a SBIR Phase I grant for a project entitled: Surface Engineering Processes of Au Nanostructures Array. Their project will investigate the feasibility of engineering surface treatments of nanowires in a nanostructure array. The project will explore smoothing and roughening surfaces for different applications using electrochemical treatments. This project will grow nanowire arrays using a patterned mask that create highly ordered and perfectly oriented nanowires of controlled dimensions, which conventional methods dont allow. This research will demonstrate consistently controllable pre-treatments of nanostructures and nanostructured arrays suitable for a variety of high-precision devices, like solar cells or sensors. Techniques to control and characterize surface properties of gold (Au) nanowire array obtained by template synthesis are the focus of this proposal. This project will use nanoimprinting as a cost-effective technology that enables tailored fabrication of nanostructures. This project will examine two surface engineering processes never before applied to nanostructures. These surface treatments are based on restricting surface treatments to the top-most atomic layers of nanoscale structures. Techniques to control and verify the quality of surfaces and interfaces are especially important when subsequent layers are extremely thin, as is the case with solar cells, the intended application. Results lay the foundation for creating economical and consistently high-precision nanostructure array templates and arrays. The broader impact/commercial potential of this project will be arrays of nanostructures of precise dimensions and surface quality; although this project has targeted solar cells, this technology has broad applicability in nanoelectronics and nanofabrication. Nanostructured devices, rather than bulk materials, are the key to realizing economical, reliable, high-performance solar cells. Results will be arrays of discrete structures but the same technique are applicable to circuitry, sensors, optical applications, etc. This research is a key step in establishing a new low-cost, high-performance photovoltaic cell and enables new capabilities and performance in sensing devices.
Silicon Photonics Group is a company that received a STTR Phase I grant for a project entitled: Advanced Si-Ge-Sn-based Photonic Materials and Devices. Their research project aims to demonstrate prototype infrared light detectors and photovoltaic (solar cell) devices based on technology developed at Arizona State University. The new technology to be explored consists in growing optical-quality alloys of tin and germanium (Ge1-ySny) directly on silicon wafers. These alloys act as infrared materials, and they can also be used as templates for the subsequent growth of other semiconductors on silicon. Of particular interest for this project is the ternary alloy Ge1-x-ySixSny, grown for the first time at Arizona State University. Using this technology, it should be possible to build infrared detectors covering a spectral range previously inaccessible to silicon-based detectors, and to build multijunction photovoltaic devices for a more efficient capture of solar photons. The fabrication of semiconductor devices on cheap silicon wafers is of great significance because of the potentially enormous cost reductions and the possibility of integrating optoelectronic and microelectronic functions, which further reduces costs and contributes to system miniaturization. The infrared detectors proposed here cover the so-called telecom C-,L-, and U-bands within the wavelength window around 1500 nm, a region of great interest to the telecommunications industry. In the photovoltaics arena, the proposed devices have the potential to offer increased efficiencies to make crystalline silicon-based devices competitive with amorphous silicon solutions.
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