Guardian Industries Corporation

Centre Luxembourgeois De Recherches Pour Le Verre Et La Ceramique S.a. (c.r.v.c.)

Heliotrope Technologies, Inc.

Ois Optical Imaging Systems, Inc.

Vkr Holding A/s

Phoenicia America-israel (flat Glass) Ltd.

Guardian Glass, LLC

Phoenicia America-israel

Guardian Europe S.à.r.l.

Scott V Thomsen

Vijayen S Veerasamy

Ksenia A Landa

Leonid M Landa

Richard Hulme

Rudolph Hugo Petrmichl

Anthony V Longobardo

Jean-Marc Lemmer

Anton Dietrich

Guillermo Garcia

Jose Nunez-Regueiro

Philip J Lingle

Jason K Holt

Willem Den Boer

Jose Ferreira

Yiwei Lu

Bryce Corsner

Nancy Bassett

David R Hall, Jr

Alexey Krasnov

Hong Wang

Jens-Peter Müller

Anna Broughton

Henry A Luten

Nestor P Murphy

Jingyu Lao

Jens-Peter Muller

Yei-ping Wang

Jochen Butz

Yei-Ping (Mimi) H Wang

Daniel F Prone

Leonard L Boyer, Jr

Kevin R Fulton

Steven Aggas

David England

Joseph M Bienkiewicz

Cory Richardson

John Z Zhong

Annette J Krisko

Ronald E Laird

Eric Walter Akkashian

Amir Bayati

Kevin J O'Connor

Hong Yang Wang

Sourav Roger Basu

Jian-gang Weng

Bonil Koo

Raymond Nalepka

Hugh A Walton

Evelyn Rosen

Jeffrey D Gordon

Michael Andreasen

Leonld Landa

Jose Nunez Regueiro

David Lerin

Vljayan S Veerasamy

Peter Green

Ivano Gregoratto

Jean-Marp Lemmer

Abraham W Michaelis

Mario Resch

David Bird

Don Tullman

Leonid M Landa, Legal Representative

Rolf Hugo Petrmichl

Jose Nunez-Rugueiro

Jean-Peter Muller

Anthony V Longobado

Rudolph Hugo Petrmichi

An electrochromic (EC) device and method, the EC device including: an optically transparent first substrate; a working electrode disposed on the first substrate and including electrochromic nanoparticles and a flux material having a melting point ranging from about 25&#xb0; C. to about 500&#xb0; C.; and an electrolyte disposed on the working electrode. The flux material is configured to prevent or reduce sintering of the nanoparticles at a temperature of up to about 700&#xb0; C.

Electrochromic device including lithium-rich anti-perovskite material

Various embodiments may include methods of controlling a temperature of an electrochromic device. The methods may include determining a current temperature of the electrochromic device which includes a first transparent conductor electrically connected to a working electrode, and a second transparent conductor electrically connected to a counter electrode, and applying the heating current to the first transparent conductor and the second transparent conductor if the current temperature is below a minimum temperature to heat the electrochromic device. Further embodiments may include an electrochromic system including an electrochromic device and a controller configured to control the temperature of the electrochromic device.

Temperature control for electrochromic devices

An electrochromic device and method, the device including: a first transparent conductor layer; a working electrode disposed on the first transparent conductor layer and including nanostructures; a counter electrode; a solid state electrolyte layer disposed between the counter electrode and the working electrode; and a second transparent conductor layer disposed on the counter electrode. The nanostructures may include transition metal oxide nanoparticles and/or nanocrystals configured to tune the color of the device by selectively modulating the transmittance of near-infrared (NIR) and visible radiation as a function of an applied voltage to the device.

Electrochromic device containing color-tunable nanostructures

A monolithic method of forming an electrochromic (EC) pane unit, the method including: forming a first electrode via a solution deposition process, on a first conductive layer disposed on a transparent first substrate, forming an electrolyte layer on the first electrode via a sol-gel process, forming a second electrode on the electrolyte layer via a solution deposition process, and forming a second conductive layer on the second electrode.

Monolithic electrochromic window manufacturing methods

A vacuum insulated glazing unit comprising a first glass pane and a second glass pane arranged in parallel, the second glass pane spaced apart from the first glass pane, wherein each glass pane comprises inner and outer surfaces, wherein the inner surfaces define a gap therebetween; a plurality of spacers arranged in the gap between of the inner surface of the first glass pane and the inner surface of the second glass pane; and a side seal material attached around a periphery of the first glass pane and the second glass pane, thereby forming a sealed cavity between the glass panes, wherein at least a portion of the inner surface of the first glass pane comprises a strengthened portion that comprises a plurality of implanted ions, wherein the plurality of implanted ions are nitrogen ions, carbon ions, argon ions, or a combination comprising at least one of the foregoing.

Vacuum insulated glazing unit

An electrochromic device may include a working electrode that includes a high temperature stable material and nanoparticles of an active core material, a counter electrode, and an electrolyte deposited between the working electrode and the counter electrode. The high temperature stable material may prevent fusing of the nanoparticles of the active core material at temperatures up to 700&#xb0; C. The high temperature stable material may include tantalum oxide. The high temperature stable material may form a spherical shell or a matrix around the nanoparticles of the active core material. A method of forming an electrochromic device may include depositing a working electrode onto a first substrate, in which the working electrode comprises a high temperature stable material and nanoparticles of an active core material, and heat tempering the working electrode and the first substrate.

Post-temperable nanocrystal electrochromic devices

An electrochromic (EC) privacy window includes an EC pane unit including a first EC device having a bright state and a dark state, and a privacy device facing the EC pane unit and having a bright state and a privacy state configured to attenuate visible radiation transmitted through the window. In some embodiments, when the privacy device is in the privacy state, the window has transmitted haze of greater that 80%. In other embodiments, when the privacy device is in the privacy state and the first EC device is in the dark state, the window has a visible transmittance of about 0.1% or less.

Electrochromic privacy window

An electrochromic device includes a nanostructured transition metal oxide bronze layer that includes one or more transition metal oxide and one or more dopant. The electrochromic device also includes nanoparticles containing one or more transparent conducting oxide (TCO), a solid state electrolyte, a counter electrode, and at least one protective layer to prevent degradation of the one or more nanostructured transition metal oxide bronze. The nanostructured transition metal oxide bronze selectively modulates transmittance of near-infrared (NIR) and visible radiation as a function of an applied voltage to the device.

Electrochromic device containing metal oxide nanoparticles and ultraviolet blocking material

Improved building-integrated photovoltaic systems according to certain example embodiments may include concentrated photovoltaic skylights or other windows having a cylindrical lens array. The skylight may include an insulated glass unit, which may improve the Solar Heat Gain Coefficient (SHGC). The photovoltaic skylight and lens arrays may be used in combination with strip solar cells. Arrangements that involve lateral displacement tracking systems, or static systems (e.g., that are fixed at one, two, or more predefined positions) are contemplated herein. Such techniques may advantageously help to reduce cost per watt related, in part, to the potentially reduced amount of semiconductor material to be used for such example embodiments. A photovoltaic skylight may permit diffuse daylight to pass through into an interior of a building so as to provide lighting inside the building, while the strip solar cells absorb the direct sunlight and convert it to electricity, providing for SHGC tuning.

Multifunctional static or semi-static photovoltaic skylight and/or methods of making the same

Certain example embodiments relate to a sunlight-scattering thin-film coating disposed on a substrate for greenhouse applications. The surface morphology of the coating promotes a better and more uniform light distribution. For instance, at least one thin-film layer disposed on a substrate may be textured so as to create surface features on the order of 0.1-5 microns, with the surface features being sized to cause (a) light having a wavelength of greater than or equal to about 800 nm incident thereon to primarily scatter to angles less than 30 degrees relative to a major surface of the substrate and (b) light having a wavelength of less than or equal to about 700 nm incident thereon to primarily scatter to angles greater than 20 degrees relative to the major surface of the substrate. This arrangement may advantageously direct beneficial light towards plant life while directing parasitic light away from the plant life.

Light scattering coating for greenhouse applications, and/or coated article including the same

A high transmission and low iron glass is provided for use in a solar cell. The glass substrate may be patterned on at least one surface thereof. Antimony (Sb) is used in the glass to improve stability of the solar performance of the glass upon exposure to ultraviolet (UV) radiation and/or sunlight. The combination of low iron content, antimony, and/or the patterning of the glass substrate results in a substrate with high visible transmission and excellent light refracting characteristics.

Solar cell using low iron high transmission glass with antimony and corresponding method

A high transmission and low iron glass is provided for use in a photovoltaic device such as a solar cell. The glass substrate may be patterned on at least one surface thereof. In certain example embodiments, a combination of lithium oxide, antimony oxide, and salt cake is used in the glass to improve the refining conditions by lowering the melting temperature of the batch, thereby resulting in a quicker seed free time in the manufacturing process.

Photovoltaic device having low iron high transmission glass with lithium oxide for reducing seed free time and corresponding method

A grey glass composition employing in its colorant portion at least iron (FeO/FeO), cobalt and selenium is provided. The glass allows high visible transmission, and good IR absorption, while at the same time achieving desired grey color. In certain example embodiments, the colorant portion includes, or may consist essentially of: 

Grey glass composition

Growing community of inventors

Milford, MI, United States of America

Scott V Thomsen