公开(公告)号：US3923533A

公开(公告)日：1975-12-02

申请号：US44719974

申请日：1974-03-01

Applicant: PPG INDUSTRIES INC

Inventor： HAMMEL JOSEPH J ,  ALLERSMA TIES

IPC: B01D39/06 ,  B01D53/86 ,  B01J21/08 ,  B01J37/06 ,  C03C3/06 ,  C03C3/064 ,  C03C3/089 ,  C03C3/091 ,  C03C11/00 ,  C03C15/00 ,  C03C3/08 ,  C03C3/30

CPC classification number: B01D71/04 ,  B01D39/06 ,  B01D53/86 ,  B01D67/0058 ,  B01J21/08 ,  B01J37/06 ,  C03C3/06 ,  C03C3/064 ,  C03C3/089 ,  C03C3/091 ,  C03C11/005 ,  C03C15/00 ,  C03C2201/10 ,  C03C2201/32 ,  C03C2201/50 ,  C03C2201/80 ,  C03C2203/00 ,  C03C2203/10 ,  C03C2203/50

Abstract: Thermally stable, mechanically strong microporous glass articles with large pore volumes, surface areas, and varying pore sizes, and methods for making such articles are disclosed. In particle form, such as beads, the microporous glass articles are useful as catalyst supports in applications such as petroleum catalytic refiners, chemical processes and motor vehicle catalytic mufflers. The mechanical strength and the dimensional stability of the microporous glass articles at elevated temperatures can be improved if the articles are preshrunk, such as by brief exposure to high temperatures, before their intended use, and can be improved even further if treated with certain metal oxides.

Abstract translation: 公开了具有大孔体积，表面积和不同孔径的热稳定的机械强度微孔玻璃制品及其制造方法。 在颗粒形式如珠粒中，微孔玻璃制品可用作催化剂载体，例如石油催化精炼机，化学工艺和汽车催化消声器。 如果在预期的使用之前，如在短时间暴露于高温下预制物品，则可以提高微孔玻璃制品在高温下的机械强度和尺寸稳定性，并且如果用某些金属氧化物 。

公开(公告)号：US20240166547A1

公开(公告)日：2024-05-23

申请号：US18549129

申请日：2022-03-28

Applicant: Glassomer GmbH

Inventor： Bastian Rapp ,  Frederik Kotz-Helmer

IPC: C03B19/06 ,  C03C1/00 ,  C03C3/06

CPC classification number: C03B19/066 ,  C03C1/00 ,  C03C3/06 ,  C03B2201/06 ,  C03C2201/10 ,  C03C2201/32 ,  C03C2201/42 ,  C03C2201/50

Abstract: The present invention relates to a moldable nanocomposite for producing a transparent article made of multicomponent fused silica glass, the moldable nanocomposite comprising: an organic binder; and a fused silica glass powder dispersed in the organic binder, the fused silica glass powder comprising fused silica glass particles having a diameter in the range from 5 nm to 500 nm, wherein the fused silica glass powder is pre-modified with a dopant and/or wherein at least one non-crystalline modifying agent is contained in the moldable nanocomposite and one or more dopant reagents selected from organoelement compounds, metal complexes and salts are contained in the moldable nanocomposite as the at least one non-crystalline modifying agent, and wherein the content of the fused silica glass powder in the moldable nanocomposite is at least 5 parts per volume based on 100 parts per volume of the organic binder. Further, the present invention relates to a method of producing a transparent article made of multicomponent fused silica glass.

公开(公告)号：US20190233324A1

公开(公告)日：2019-08-01

申请号：US15886671

申请日：2018-02-01

Applicant: GOODRICH CORPORATION

Inventor： Steven A. Poteet ,  John E. Holowczak ,  John Linck ,  John Weaver

IPC: C03C3/097 ,  C03C3/089 ,  C03C4/20 ,  F16D55/22

CPC classification number: C03C3/097 ,  C03C3/089 ,  C03C4/20 ,  C03C2201/10 ,  C03C2201/28 ,  C03C2203/20 ,  C04B41/009 ,  C04B41/52 ,  C04B41/89 ,  C04B2111/00362 ,  F16D55/22 ,  F16D69/023 ,  C04B35/83 ,  C04B41/4539 ,  C04B41/5022 ,  C04B41/5092

Abstract: Systems and methods for forming an oxidation protection system, on a composite structure is provided. In various embodiments, an oxidation protection system disposed on a substrate may comprise a borosilicate glass layer comprising a borosilicate glass, a base layer comprising a first pre-slurry composition comprising a first phosphate glass composition, and/or a sealing layer comprising a second pre-slurry composition comprising a second phosphate glass composition. The borosilicate glass layer, base layer, and/or sealing layer may be disposed in any suitable order relative to the composite structure.

公开(公告)号：US10017413B2

公开(公告)日：2018-07-10

申请号：US14950374

申请日：2015-11-24

Applicant: CORNING INCORPORATED

Inventor： Sezhian Annamalai ,  Carlos Alberto Duran ,  Kenneth Edward Hrdina ,  Lisa Anne Moore

IPC: C03C3/06 ,  C03C3/112 ,  C03C3/089 ,  G03F1/22 ,  C03B25/02 ,  C03B19/02 ,  C03C3/115 ,  C03C21/00 ,  C03C23/00 ,  C03B5/225 ,  C03B25/00

CPC classification number: C03C3/112 ,  C03B5/225 ,  C03B19/02 ,  C03B25/00 ,  C03B25/02 ,  C03B2201/10 ,  C03B2201/12 ,  C03B2201/14 ,  C03B2201/42 ,  C03C3/06 ,  C03C3/089 ,  C03C3/115 ,  C03C21/007 ,  C03C23/007 ,  C03C2201/10 ,  C03C2201/12 ,  C03C2201/14 ,  C03C2201/23 ,  C03C2201/30 ,  C03C2201/42 ,  C03C2203/10 ,  C03C2203/54 ,  G03F1/22

Abstract: A method of forming a doped silica-titania glass is provided. The method includes blending batch materials comprising silica, titania, and at least one dopant. The method also includes heating the batch materials to form a glass melt. The method further includes consolidating the glass melt to form a glass article, and annealing the glass article.

公开(公告)号：US20180105452A1

公开(公告)日：2018-04-19

申请号：US15559958

申请日：2016-03-22

Applicant: Corning Incorporated

Inventor： Sezhian Annamalai

IPC: C03C10/00 ,  C03C3/06 ,  C03C3/076 ,  G03F1/60 ,  B32B17/06 ,  C03B19/06 ,  C03B23/203 ,  C03B32/02

CPC classification number: C03C10/0009 ,  B32B3/28 ,  B32B5/16 ,  B32B5/30 ,  B32B7/04 ,  B32B17/06 ,  B32B37/04 ,  B32B2260/025 ,  B32B2260/04 ,  B32B2264/101 ,  B32B2264/102 ,  B32B2264/12 ,  B32B2307/30 ,  B32B2307/416 ,  B32B2307/704 ,  B32B2307/732 ,  B32B2551/00 ,  C03B19/066 ,  C03B23/203 ,  C03B32/02 ,  C03B2201/06 ,  C03B2201/42 ,  C03C3/06 ,  C03C3/076 ,  C03C27/06 ,  C03C2201/10 ,  C03C2201/11 ,  C03C2201/12 ,  C03C2201/23 ,  C03C2201/28 ,  C03C2201/42 ,  C03C2203/50 ,  C03C2203/52 ,  C03C2204/00 ,  G02B1/00 ,  G02B5/0891 ,  G03F1/60

Abstract: A glass composite for use in Extreme Ultra-Violet Lithography (EUVL) is provided. The glass composite includes a first silica-titania glass section. The glass composite further includes a second doped silica-titania glass section mechanically bonded to a surface of the first silica-titania glass section, wherein the second doped silica-titania glass section has a thickness of greater than about 1.0 inch.

公开(公告)号：US09822030B2

公开(公告)日：2017-11-21

申请号：US15003115

申请日：2016-01-21

Applicant: Corning Incorporated

Inventor： Sezhian Annamalai ,  Carlos Alberto Duran ,  Kenneth Edward Hrdina ,  William Rogers Rosch

IPC: C03C3/06 ,  C03C3/076 ,  C03C3/089 ,  C03C23/00 ,  C03B25/00 ,  C03C3/112 ,  C03B19/12 ,  C03B19/14 ,  C03B25/02

CPC classification number: C03C3/076 ,  C03B19/12 ,  C03B19/1453 ,  C03B25/00 ,  C03B25/02 ,  C03B2201/10 ,  C03B2201/12 ,  C03B2201/42 ,  C03C3/06 ,  C03C3/089 ,  C03C3/112 ,  C03C23/007 ,  C03C2201/10 ,  C03C2201/12 ,  C03C2201/14 ,  C03C2203/52

Abstract: Annealing treatments for modified titania-silica glasses and the glasses produced by the annealing treatments. The annealing treatments include an isothermal hold that facilitates equalization of non-uniformities in fictive temperature caused by non-uniformities in modifier concentration in the glasses. The annealing treatments may also include heating the glass to a higher temperature following the isothermal hold and holding the glass at that temperature for several hours. Glasses produced by the annealing treatments exhibit high spatial uniformity of CTE, CTE slope, and fictive temperature, including in the presence of a spatially non-uniform concentration of modifier.

公开(公告)号：US20170331245A1

公开(公告)日：2017-11-16

申请号：US15485836

申请日：2017-04-12

Applicant: Corning Incorporated

Inventor： Douglas Llewellyn Butler ,  Daniel Warren Hawtof

IPC: H01S3/067 ,  C03C3/04 ,  C03B37/027 ,  C03B37/014 ,  H01S3/16 ,  C03C13/04

CPC classification number: H01S3/06729 ,  C03B19/1453 ,  C03B19/1469 ,  C03B19/1492 ,  C03B23/023 ,  C03B23/051 ,  C03B33/06 ,  C03B2201/12 ,  C03B2201/28 ,  C03B2201/30 ,  C03B2201/31 ,  C03B2201/32 ,  C03B2201/34 ,  C03B2201/36 ,  C03B2201/42 ,  C03B2207/60 ,  C03C3/06 ,  C03C13/045 ,  C03C2201/10 ,  C03C2201/12 ,  C03C2201/14 ,  C03C2213/00 ,  G02B6/032 ,  G02B6/03605 ,  H01S3/063 ,  H01S3/06733 ,  H01S3/1603 ,  H01S3/176

Abstract: Laser waveguides, methods and systems for forming a laser waveguide are provided. The waveguide includes an inner cladding layer surrounding a central axis and a glass core surrounding and located outside of the inner cladding layer. The glass core includes a laser-active material. The waveguide includes an outer cladding layer surrounding and located outside of the glass core. The inner cladding, outer cladding and/or core may surround a hollow central channel or bore and may be annular in shape.

公开(公告)号：US20170144917A1

公开(公告)日：2017-05-25

申请号：US15297534

申请日：2016-10-19

Applicant: Corning Incorporated

Inventor： Sezhian Annamalai ,  Steven Bruce Dawes ,  Carlos Alberto Duran ,  Kenneth Edward Hrdina ,  William Rogers Rosch ,  Bryan Ray Wheaton

IPC: C03C3/089 ,  C03C4/00 ,  C03B25/02

CPC classification number: C03C3/089 ,  C03B19/14 ,  C03B25/02 ,  C03B2201/07 ,  C03B2201/075 ,  C03B2201/10 ,  C03B2201/42 ,  C03C3/06 ,  C03C4/00 ,  C03C23/007 ,  C03C2201/10 ,  C03C2201/12 ,  C03C2201/23 ,  C03C2201/42 ,  C03C2203/54

Abstract: A doped silica-titania (“DST”) glass article that includes a glass article having a glass composition comprising a silica-titania base glass containing titania at 7 to 14 wt. % and a balance of silica, and a dopant selected from the group consisting of (a) F at 0.7 to 1.5 wt. %, (b) B2O3 at 1.5 to 5 wt. %, (c) OH at 1000 to 3000 ppm, and (d) B2O3 at 0.5 to 2.5 wt. % and OH at 100 to 1400 ppm. The glass article has an expansivity slope of less than about 1.3 ppb/K2 at 20° C. For DST glass articles doped with F or B2O3, the OH level can be held to less than 10 ppm, or less than 100 ppm, respectively. In many aspects, the DST glass articles are substantially free of titania in crystalline form.

公开(公告)号：US20170139130A1

公开(公告)日：2017-05-18

申请号：US14944798

申请日：2015-11-18

Applicant: SUMITOMO ELECTRIC INDUSTRIES, LTD.

Inventor： Kazuhiro YONEZAWA ,  Tadashi ENOMOTO

IPC: G02B6/028 ,  G02B6/02 ,  C03C13/04 ,  G02B6/036

CPC classification number: G02B6/0288 ,  C03C13/045 ,  C03C2201/10 ,  C03C2201/11 ,  C03C2201/12 ,  C03C2201/28 ,  C03C2201/31 ,  G02B6/02214 ,  G02B6/03627 ,  G02B6/0365

Abstract: The present invention relates to an MMF with a structure for relaxing wavelength dependence of transmission bandwidth. In the MMF, a doping amount of a dopant for control of refractive index is adjusted, so as to make each of an OFL bandwidth at a wavelength of 850 nm and an OFL bandwidth at a wavelength of at least one of 980 nm, 1060 nm, and 1300 nm become not less than 1500 MHz·km, make the OFL bandwidth at the wavelength of at least one of 980 nm, 1060 nm, and 1300 nm become wider than the OFL bandwidth at the wavelength of 850 nm, and effectively suppress increase in transmission loss.

公开(公告)号：US20150259239A1

公开(公告)日：2015-09-17

申请号：US14637516

申请日：2015-03-04

Applicant: Corning Incorporated

Inventor： Sezhian Annamalai ,  Carlos Alberto Duran ,  Kenneth Edward Hrdina

IPC: C03C3/06 ,  C03B25/02 ,  C03C3/097 ,  C03C3/091 ,  C03C3/089 ,  C03C3/115

CPC classification number: C03C3/06 ,  C03B25/02 ,  C03C3/089 ,  C03C3/091 ,  C03C3/097 ,  C03C3/115 ,  C03C2201/10 ,  C03C2201/42 ,  C03C2203/40 ,  C03C2203/52 ,  G03F1/22 ,  G03F1/60

Abstract: A boron-doped titania-silica glass containing 0.1 wt % to 8.0 wt % boron, 9.0 wt % to 16.0 wt % TiO2, and 76.0 wt % to 90.9 wt % SiO2. The glass may further include F, Nb, Ta, Al, Li, Na, K, Ca, and Mg, individually or in combinations of two or more, at levels up to 4 wt %. The glass may have an OH concentration of more than 10 ppm. The glass features a CTE slope at 20° C. of less than 1 ppb/K2. The fictive temperature of the glass is less than 825° C. and the peak CTE of the glass is less than 30 ppb/K. The glass has two crossover temperatures and a wide temperature interval over which CTE is close to zero. The uniformity of each crossover temperature relative to its average over a volume of at least 50 cm3 is within ±5° C.

Abstract translation: 含有0.1重量％至8.0重量％硼，9.0重量％至16.0重量％TiO 2和76.0重量％至90.9重量％SiO 2的硼掺杂二氧化钛 - 二氧化硅玻璃。 玻璃还可包含F，Nb，Ta，Al，Li，Na，K，Ca和Mg，其含量可高达4wt％，分别或两种或多种组合。 玻璃的OH浓度可能超过10ppm。 玻璃在20°C时的CTE斜率小于1 ppb / K2。 玻璃的假想温度小于825℃，玻璃的峰值CTE小于30ppb / K。 玻璃具有两个交叉温度和CTE接近零的宽温度区间。 每个交叉温度相对于其在至少50cm 3的体积上的平均值的均匀度在±5℃以内