Solmetric aims to deliver accurate and easy to use solar test and measurement equipment. The company offer a solar access and shade analysis tool, the Solmetric SunEye. The Solmetric SunEye is an invaluable tool for the professional Solar Installer, Architect, or anybody who needs an accurate measurement of site-specific solar access and shading. Compact, rugged and easy to use, the Solmetric SunEye is a powerful hand-held tool that produces monthly and annual solar access and shade information instantly with the press of a button.
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Expert Collections containing Solmetric
Expert Collections are analyst-curated lists that highlight the companies you need to know in the most important technology spaces.
Solmetric 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.
Solmetric has filed 11 patents.
Solar thermal energy, Renewable energy, Radiation health effects, Energy conversion, Geometrical optics
Solar thermal energy, Renewable energy, Radiation health effects, Energy conversion, Geometrical optics
Latest Solmetric News
Mar 30, 2015
Print When Vivint Solar acquired Solmetric Corporation in January 2014, the industry murmured concern. It was another in a string of “arms race-level” events between several top national solar installers. But while SolarCity’s purchase of Zep directly affected only a small percentage of the industry, Vivint Solar’s move to acquire Solmetric cast a more philosophical shadow. Almost everyone in the solar industry depends on a SunEye — released in the mid-2000s to automate and increase the accuracy of data recorded using the Solar Pathfinder , a long-standing industry standard for shade analysis — at some point in the project lifecycle to benchmark system performance and quantify shade impacts. From incentive programs to third-party financiers to performance modeling tools, measurement verification with Solmetric products has been deeply integrated into nearly the entire ecosystem of solar projects. Now, a year later, Vivint Solar announced its decision that the SunEye had “reached the end of the product lifecycle” and has discontinued the hardware as well as related software and services (e.g. PV Designer, Solmetric Shade Training, and SunEye Extension Platform). According to the press release from Vivint Solar , “the Solmetric team will be fully integrated into the Vivint Solar operating structure and be known as Vivint Solar Labs. The new research and development team will focus on proprietary photovoltaic installation instruments and software.” With the end of the SunEye, the industry must now address two critical questions: What is the future of performance benchmarking? What is the right level of accuracy needed across all aspects of system design and performance modeling? Solmetric Defined Measurement While Solar Pathfinder released PV Studio and Assistant Software, many installers in the new rapidly growing grid-tied PV market found working with the Pathfinder was error-prone and took too long to analyze afterwards. Installers easily lost or misfiled Sunpath trace sheets, holding up a customer from receiving a quote or a rebate reservation. When the first iPhone came out in the summer of 2007, many solar professionals commented how great it would be if Solmetric built software for the iPhone. Don’t forget, the SunEye 100 was built on a Hewlett-Packard iPAQ PDA and retailed at $1,355. In Feburary 2010, Solmetric released “iPV,” the evolution of the SunTracker App developed by Imeasure Systems and acquired by Solmetric. I was offered at $39.99. Why hasn’t someone built a software replacement for the SunEye? Even with advances in native panorama image-stitching now available in iOS 8.2, increased onboard processing capabilities, and higher-resolution cameras, the size of the addressable market is still so small that it would be challenging to build a business around such a tool, even at a $100 or $200 price point. Software-Based Competition A number of software-driven shade analysis solutions have come to market in the last few years including: Bright Harvest , a company that conducts remote system design with per-module production estimates for a given address based on 3D modeling of a property generated by photogrammetry techniques used on aerial imagery. Estimation of shade impacts via sunpath analysis are a subset of the Bright Harvest design process. SolarCensus , a technology company developing automated, LIDAR-based and analyzing the reflected light solutions to remote shade analysis. LIDAR is a remote sensing technology that measures distance by illuminating a target with a laser. Using this method, SolarCensus can develop an understanding of roof heights and slopes, obstructions, and then perform sunpath analysis on those areas, resulting in an insolation “heat map” of a roof. They currently hold several patents for their algorithms. Aurora , a cloud-based integrated proposal and design platform that leverages its patented algorithms to generate 3D images of customer sites complete with sunpath-based shade analysis on the resulting model. SunNumber uses publically available LIDAR datasets as part of their process to develop their proprietary SunNumber site suitability score. A solution like SunNumber is intended as feasibility and pre-qualification of customer sites as part of customer acquisition efforts. Aurora, Bright Harvest, or SolarCensus could substantially increase the accuracy of production estimations during the sales process. But could any of these tools eventually eliminate a site visit altogether? Estimating the average site visit truck roll at around $200, that adds up for installers operating at increasingly higher volumes and under more challenging price pressures. The trouble with eliminating the site visit is that currently only a qualified individual on premises can determine interconnection method and structural suitability. Currently, many other aspects can be estimated remotely except these two items. Many top solar companies are grappling with balancing the number of times to visit a site against potential savings or rework necessary later on. Viewing Page 1 of 2
Solmetric Frequently Asked Questions (FAQ)
When was Solmetric founded?
Solmetric was founded in 2005.
Where is Solmetric's headquarters?
Solmetric's headquarters is located at 117 Morris Street, Sebastopol.
What is Solmetric's latest funding round?
Solmetric's latest funding round is Acquired.
How much did Solmetric raise?
Solmetric raised a total of $190K.
Who are the investors of Solmetric?
Investors of Solmetric include Vivint and Investors' Circle.
Who are Solmetric's competitors?
Competitors of Solmetric include Tioga Energy, Nanosolar, Accustrata, Meridian Deployment Corporation, M V Systems and 13 more.
Compare Solmetric to Competitors
Meridian Deployment Corporation is a company that received a SBIR Phase I grant for a project entitled: Motion-Free Tracking Solar Concentrator. Their project investigates novel optical element (OE) for Photovoltaic (PV) systems that uses refractive index modulation to steer sunlight. It addresses the fundamental challenge of tracking the motion of the sun while keeping the concentrated light on the target. For decades this has been accomplished electro-mechanically using motors and feedback circuitry to physically move the optics and/or the target so that the device is always aligned with the sun. This project develops a simple, motion-free tracking system that eliminates all the negative aspects of current mechanical trackers. It is suitable for deployment on any PV system by adapting the optical characteristics. The project goals are to optimize design elements of the OE including materials, configuration and manufacturing technique, and building prototypes for testing in both lab and field sites. Phase I will establish a prototype of a motion-free tracking collector and concentrator that will address three interconnected design issues. These are 1) maximizing throughput of the device by eliminating unwanted reflections from various interfaces, 2) maximizing the range of solar incidence angles, and 3) lowering the cost of the finished device for commercialization. The broader impact/commercial potential of this project will be to enable widespread adoption of localized solar power generation. This technology solves the inherent complexity of simultaneously realizing mechanical stability under wind and seismic loading, electro-mechanical tracking accuracy, and eliminates high costs associated with mechanical trackers. Phase I of this program will establish technical benchmarks to maximize the steering range and light concentration ratio for a novel motion-free tracking system. New conductive coatings are index-matched to minimize internal reflections that cause loss of light throughput, while lens geometries and other components will be engineered to maximize efficiency of the system. Because the device is low-profile and lightweight, it can be easily installed on existing rooftops without requiring substantial structural reinforcement, making commercial acceptance likely. This motion-free tracking technology has these commercial advantages over existing solar PV systems: simple, inexpensive installation, low profile esthetics, and more efficient solar power generation for commercial and residential installations. In summary, it will generate more electricity from a smaller footprint for lower overall cost.
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.
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.
Alenas Imaging is a company that received a STTR Phase I grant for a project entitled: Thermoreflectance for Defect Mapping and Process-Control of Solar Cells. Their project will demonstrate a new method of thermographic imaging to improve the manufacturing yield and energy conversion efficiency of silicon photovoltaic solar cells. Although thermographic imaging is an ideal method for locating the defects and shunts in solar cells which compromise their efficiency, conventional infrared cameras do not have sufficient spatial resolution to be effective as a production tool for NDE (Non-Destructive Evaluation). The proposed technology will produce 100X higher spatial resolution with 1 mK thermal resolution at much lower system cost than infrared cameras. project will demonstrate a new method of thermographic imaging to improve the manufacturing yield and energy conversion efficiency of silicon photovoltaic solar cells. Although thermographic imaging is an ideal method for locating the defects and shunts in solar cells which compromise their efficiency, conventional infrared cameras do not have sufficient spatial resolution to be effective as a production tool for NDE (Non-Destructive Evaluation). The proposed technology will produce 100X higher spatial resolution with 1 mK thermal resolution at much lower system cost than infrared cameras.
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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