Schott Ag

Schott Glas

Schott Glass Technologies (suzhou) Co. Ltd.

Other

Schott Glass Technologies, Inc.

Rainer Liebald

Wolfram Beier

Clemens Ottermann

Dirk Sprenger

Andreas Ortner

Peter Nass

Thilo Zachau

Pengxiang Qian

Peter Brix

Simone Monika Ritter

Sabine Pichler-Wilhelm

Kurt Nattermann

Markus Heiss-Chouquet

Dieter Goedeke

Feng He

Andreas Habeck

Jürgen Vogt

Juergen Leib

Thomas Wiegel

Claudia Stolz

Sabrina Wimmer

Yunfei Hou

Ulrike Beer

Ulrich Peuchert

Joseph S Hayden

Bernd Hoppe

Edgar Pawlowski

Evelin Weiss

Marten Walther

Bianca Schreder

Jochen Heinz

Jochen Alkemper

Hauke Esemann

Volker Hagemann

Thorsten Damm

Dietrich Mund

Ulf Dahlmann

Ulrich Fotheringham

Yvonne Menke

Stefan Hubert

Ning Da

Roland Schnabel

Miriam Kunze

Junming Xue

Alexander J Marker, Iii

Wolfgang Pannhorst

Samuel David Conzone

Guenter Weidmann

Chong Wang

Thomas Roßmeier

Ruediger Sprengard

Dirk Springer

Nikolaus Schultz

Niko Schultz

Patrik Schober

Hiroshi Kuroki

Frank Macherey

Rüdiger Sprengard

F Nagler

Ulrich Battmer

Uwe Wilkens

Meike Lohmann

Tobias Kälber

Marren Walther

Ulrich Peuschert

Tobias Käleer

Dieter GÖDEKE

Alexander J Iii Marker

A method for making a bonded article, wherein a thin glass substrate is bonded on a support substrate in the absence of any interlayer by an electrostatic adhesion process with the assistance of external pressure, the pressure is applied constantly or stepwise during the adhesion process by use of a tool such as a roll or a wheel or other movable device with curved surface. The bonded article has no defects, e.g. bubbles or inclusions, in the bonded interface, which benefits transportation of the thin glass substrate and its post-processing as well. Such defect-free bonded article is also disclosed. Pressure supported electrostatic adhesion, initiated by electrostatic charges adhesion of a two members, e.g. a substrate member and a support member, is enabled to minimize, prevent and exclude defects, distortion between the adhered surfaces.

Bonded article of thin glass on support substrate, preparation method and use thereof

A low CTE boro-aluminosilicate glass having a low brittleness for use in wafer-level-packaging (WLP) applications is disclosed. The glass comprises a composition in mol-% of SiO: 60-85, AlO: 1-17, BO: 8-20, NaO: 0-5, KO: 0-5, MgO: 0-10, CaO: 0-10, SrO: 0-10, and BaO: 0-10. An average number of non-bridging oxygen per polyhedron (NBO) is equal to or larger than &#x2212;0.2 and a ratio BO/AlOis equal to or larger than 0.5. The NBO is defined as NBO=2&#xd7;O/(Si+Al+B)&#x2212;4. A glass carrier wafer made from the low CTE boro-aluminosilicate glass and a use thereof as a glass carrier wafer for the processing of a silicon substrate are also disclosed, as well as a method for providing a low CTE boro-aluminosilicate glass.

Low CTE boro-aluminosilicate glass for glass carrier wafers

A conversion material for a white or colored light source is provided. The material includes a matrix glass that, as bulk material, for a thickness of about 1 mm, has a pure transmission of greater than 80% in the wavelength region from 350 to 800 nm and in the region in which the primary light source emits light, wherein the sum of transmission and reflection of the sintered matrix glass without luminophore is at least greater than 80% in the spectral region from 350 nm to 800 nm and in the spectral region in which the primary light source emits light.

Conversion material for white or colored light source, method of production, and light source having the conversion material

A glass ribbon in the form of a glass roll is provided that is optimized with respect to the requirements of a long service life and at the same time compact dimensions. A bending radius on the inner side of the thin glass roll is determined by performing breakage tests on samples of the glass material, statistical parameters are determined on the basis of the breakage tests, and the statistical parameters are converted into a range of bending radii which meet the requirements on service life and the most compact dimensions possible of the thin glass roll.

Thin glass roll and method for producing same

An electrical storage system is provided that has a thickness of less than 2 mm, which includes at least one sheet-type discrete element. The sheet-type discrete element exhibits high resistance against an attack of transition metals or transition metal ions, in particular titanium, wherein the sheet-type discrete element contains titanium. The invention also relates to a sheet-type discrete element for use in an electrical storage system, which exhibits high resistance to the attack of transition metals or of transition metal ions, in particular titanium.

Electrical storage system comprising a disc-shaped discrete element, discrete element, method for the production thereof, and use thereof

A glass roll, as well as a device and a method for manufacturing the glass roll are provided. The glass roll includes a glass ribbon having a thickness, a length in an x-direction, and a width in a y-direction. The glass ribbon has at least one defect site at a position, as well as at least one error mark disposed on the glass ribbon, and is wound up into a glass roll.

Glass roll, product having a glass roll, device and method for the manufacture thereof

The invention relates to a conversion material, in particular for a white or colored light source comprising a semiconductor light source as primary light source, comprising a matrix glass that, as bulk material, for a thickness d of about 1 mm, has a pure transmission &#x3c4;of greater than 80% in the wavelength region from 350 to 800 nm and in the region in which the primary light source emits light, wherein the sum of transmission and reflection of the sintered matrix glass without luminophore is at least greater than 80% in the spectral region from 350 nm to 800 nm and in the spectral region in which the primary light source emits light.

Conversion material, particularly for a white or colored light souce comprising a semiconductor light source, a method for the production thereof, as well as a light source comprising said conversion material

A method for processing a thin glass is provided. The thin glass is subjected to a tensile stress &#x3c3;smaller than whereinis a mean value of tensile stress at break for fractures in a surface of samples of the thin glass under bending stress, whereinis a mean value of tensile stress at break for fractures emanating from an edge of the samples, wherein Lis an edge length and Ais a surface area of the samples, wherein &#x394;and &#x394;denote standard deviations of the mean valuesand, respectively, and wherein Ais a surface area of the thin glass, Lis a summated edge length of opposite edges of the thin glass, and &#x3a6; is a predefined maximum fracture rate within a period of time of at least half a year.

Method for further processing thin glass and thin glass produced by such method

An optical converter for producing colored or white light from blue excitation light is provided. The converter has good scattering properties to be able to produce nearly white light from the scattered blue light components and the scattered, converted yellow light components. The optical converter includes material including one or more of a YAG ceramic, a LuAG ceramic, and a magnesium-aluminum ceramic exhibiting strong scattering.

Optical converter for high luminances

The invention relates to a glass ceramic armour material consisting (in % by weight in relation to oxide base) of 5-33 SiO, 20-50 AlO, 5-40 MgO, 0-15 BO, 0.1-30 YO, LnO, AsO, NbOand/or ScOand 0-10 PO. The inventive armour material can also be reinforced with inorganic reinforcing fibres in a quantity of 5-65% by weight, preferably consisting of C, SiC, SiN, AlO, ZrOor Sialon. Said armour material is characterised in that it exhibits a high elasticity modulus and is producible from green glass without to fear a premature crystallisation.

Armor material made of glass ceramics

The glass is advantageous for microstructuring, especially reactive ion etching with fluorine and fluorine compounds, and has a glass composition based on oxide content and expressed in mol % of: SiO, 40-70; GeO, 0-30; BO, 5-20; PO, 5-20; WO, 0-10; AsO, 0-10; YbO, 0-5; and LuO, 0-5. Microstructure components, such as micro arrays, Fresnel lenses, micro wafers, or micro lens wafers, made by a method including reactive ion etching from the glass are also part of the present invention.

Glass composition exclusively consisting of oxides which already at low temperatures form volatile fluorides by reaction with fluorine and its use

In the method for microstructuring flat glass substrates a substrate surface of a glass substrate is coated with at least one structured mask layer and subsequently exposed to a chemically reactive ion etching process (RIE) with at least one chemical etching gas. In order to provide the same or a higher quality etching and etching rate even for economical types of glass the chemical etching gas is mixed with at least one noble gas, so that the proportion of sputtering etching in the ion etching process is significantly increased.

Method for microstructuring flat glass substrates

A glass ceramic comprises (in wt.-% on oxide basis): SiO35 to 60, BO&#x3e;4 to 10, PO0 to 10, AlO16.5 to 40, TiO1 to 10, TaO0 to 8, YO0 to 6, ZrO1 to 10, MgO 6 to 20, CaO 0 to 10, SrO 0 to 4, BaO 0 to 8, ZnO 0 to 4, SnO+CeO0 to 4, SO+Cl0 to 4, wherein the total content (SnO+CeO+SO+Cl) is between 0.01 and 4 wt.-%. The glass ceramic may be processed by the float glass method, may be transparent and is, inter alia, suitable as a substrate for thin film semiconductors, in particular for display applications, solar cells etc.

Glass ceramic and method of producing the same

The invention relates to crystallizable aluminosilicate magnesium-containing glass which is used for producing extremely solid and break-resistant glass-ceramics having an easily polished surface. The inventive crystallizable glass contains 5-33 mass % of SiO, 25-40 mass % of AlO, 5-25 mass % of MgO, 0-15 mass % of BO, 0.1-30 mass % of YO, LnO, AsOand/or NbOand 0.1-10 mass % of PO.

Crystallizable glass and the use thereof for producing extremely solid and break resistant glass-ceramics having an easily polished surface

The invention relates to friction linings for structural and functional elements used in braking systems, especially in systems for motor vehicles. Said friction linings consist of an inorganic composite material which in turn consists of a glass or glass ceramics matrix, inorganic reinforcing fibers and one or more fillers, including one or more anti-friction substances with planar hexagonal structural elements.

Friction lining for braking system components

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Nauheim, Germany

Rainer Liebald