Research Study: MetaShieldPVTM Shatters Solar Panel Efficiency Forecasts with Innovative New Coating

Research Study: MetaShieldPV<sup>TM</sup> Shatters Solar Panel Efficiency Forecasts with Innovative New Coating

Coating Provides 1.2 Percent Absolute Enhancement to Triple Junction Solar Cells

NEW YORK/ST. GEORGE, Utah, Nov. 14, 2016 – MetaShield LLC, a market leader in advanced glass-based coating technology, today announced an independent research study indicating its proprietary MetaShieldPVTM nanotechnology coating can provide a 1.2 percent (absolute) efficiency boost for triple junction solar cells.

“The enhancement provided by MetaShieldPVTM represents a five-year technological leap forward based on recent yearly average increases of around .2% for solar PV module efficiency, ” said Martin Ben-Dayan, MetaShield LLC’s founder and CEO, referencing a research report on solar cell efficiency improvements published by GTM Research in its PV Pulse publication in April 2014.

MetaShieldPVTM is a nanoparticle embedded glass-based coating that increases solar cell efficiency using advanced light trapping technology. The patent pending formula is spray coated directly onto the existing anti-reflective coating on the solar cells and hardens at room temperature, forming a transparent ~200nm glass film. The embedded nanoparticles employ strong forward scattering to affect optical enhancement in solar cells.

MetaShield commissioned the study with a grant from the Utah Science Technology and Research Initiative (USTAR) TAP program. The research was conducted at the MetaShield R&D facilities and verified by OAI-Optical Associates, a leading testing company in San Jose, Calif.

Key insights from the study concluded:

“MetaShieldPVTM is the result of several years of research and development,” said Glenn Mesa, MetaShield LLC’s director of R&D. “We’ve created a patented nanostructured composition that is capable of being custom infused with various nanoparticles, and forms a coating that is ultra-thin, ultra-light, with enhanced properties produced by the infused particles.”

According to Mesa, MetaShieldPVTM is in beta production and available to solar cell manufacturers.

The tested solar cells, also known as triple junction photovoltaics, are primarily used for interstellar vehicles and communication satellites, although also used in solar “farms” to generate electricity and augment power plants; for off-grid power (traffic, emergency and construction road signs); and rooftop solar panels. Because of their use in space, solar cells must be highly efficient and lightweight.

MetaShield has begun testing MetaShieldPV’s ability to provide a similarly dramatic enhancement to crystalline silicon photovoltaic cells.“The findings thus far indicate that results will be as good or better for the type of PV cells which currently encompass 90% of the $90 billion+ global solar photovoltaics market, which is currently struggling with very narrow margins and desperate for innovative solutions,” Ben-Dayan said.

MetaShield will release the results of the crystalline silicon PV study upon its completion.

About MetaShield LLC

MetaShield LLC, (www.metashield.com) MetaShield LLC is a pioneer in “spray on” thin-film glass technology. The company, based in New York City with R&D and production facilities in St. George, Utah, was founded in 2011 as a nanotechnology company focused on enhancing solar cell efficiency. In 2015, its scientists discovered that the unique nanostructured MetaShield base formula was capable of increasing the break resistance of glass by up to four times. The formula can also be easily embedded with many different types of nanoparticles to provide enhanced effects, making MetaShield a highly scalable “wonder coating” for a multitude of industry uses. It produces MetaShieldPVTM, MetaShieldGLASSTM and MetaShieldUVTM, for the solar PV, consumer electronics, and defense & aerospace markets respectively. The company’s base MetaShieldTM formula, which is applied as a liquid using conventional coating methods and air-dries at room temperature, enjoys the durability and transparency of glass with the flexibility and versatility normally associated with polymer-based coatings.

Emily Clark / Makovsky
212.508.9607 / eclark@makovsky.com

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