Kyle C Hoff

8262981, Sep 11, 2012

Dec 17, 2007

11/957839

John Carberry - Talbott TN, US
Jennifer Norwood - Westville NJ, US
Katherine T. Leighton - Media PA, US
Kyle Hoff - Aston PA, US
Carl Cline - Danville CA, US
Edgar L. Aleshire - Elkton MD, US

Schott Corporation - Elmsford NY

C04B 35/83
C04B 35/563
C04B 35/567

264643, 264603, 264682, 501 88, 501 91, 501 93

A method for producing a ceramic material product. A filler material is provided. The filler material is divided into filler granules collectively having a median diameter approximately 10 microns or less. An amount of carbon is provided. The carbon is divided into carbon particles and the carbon particles are allowed to coat the filler granules. The mixture of carbon-coated filler granules is formed into a selected shape. The formed mixture is placed in a substantial vacuum. The mixture is introduced to a pre-selected amount of silicon and the mixture of carbon-coated filler granules and silicon is heated to a temperature at or above the melting point of the silicon.

8426767, Apr 23, 2013

Aug 31, 2009

12/550592

Gregory Scott Glaesemann - Corning NY, US
Kyle C Hoff - Painted Post NY, US
Xinghua Li - Horseheads NY, US

Corning Incorporated - Corning NY

B28D 5/0011

21912168, 21912169, 2191217

A method of forming a vent in a glass substrate includes forming a defect in the glass substrate on a scribe line. A beam spot of a laser may be directed onto the defect and advanced along the scribe line. A cooling jet may be directed onto the defect such that the surface of the glass substrate is cooled from a maximum temperature. Thereafter, the cooling spot may be advanced along the scribe line with the beam spot to form the vent in the glass substrate.

20110314997, Dec 29, 2011

Jan 24, 2008

12/019348

John Carberry - Talbott TN, US
Jennifer Norwood - Westville NJ, US
Katherine T. Leighton - Media PA, US
Kyle Hoff - Aston PA, US
Carl Cline - Danville CA, US

F41H 5/02

89 3602, 89903, 89917

A ceramic ballistic material and method of manufacture is disclosed. A filler material is provided. The filler material is divided into filler granules collectively having a median diameter approximately 10 microns or less. An amount of carbon is provided. The carbon is divided into carbon particles and the carbon particles are allowed to coat the filler granules. The mixture of carbon-coated filler granules is formed into a ballistic armor shape. The formed mixture is placed in a substantial vacuum. The mixture is introduced to a pre-selected amount of silicon and the mixture of carbon-coated filler granules and silicon is heated to a temperature at or above the melting point of the silicon.

20140065401, Mar 6, 2014

Aug 27, 2013

14/011146

Anthony John Furstoss - Corning NY, US
Kyle C. Hoff - Painted Post NY, US

Corning Incorporated - Corning NY

C03C 21/00
C03C 15/02

428220, 428410, 65 31, 65 3014

A strengthened glass article has a chemically-etched edge and a compressive stress layer formed in a surface region thereof. The compressive stress layer has a compressive stress and a depth of layer. A product of the compressive stress and depth of layer is greater than 21,000 μm-MPa. A method of making the strengthened glass article includes creating the compressive stress layer in a glass sheet, separating the glass article from the glass sheet, and chemically etching at least one edge of the glass article.

20230043558, Feb 9, 2023

Oct 4, 2022

17/959701

- Corning NY, US
Theresa Chang - Painted Post NY, US
Dana Craig Bookbinder - Corning NY, US
Santona Pal - Painted Post NY, US
Chandan Kumar Saha - Franklin MI, US
Steven Edward DeMartino - Painted Post NY, US
Christopher Lee Timmons - Big Flats NY, US
John Stephen Peanasky - Big Flats NY, US
Kyle Christopher Hoff - Painted Post NY, US

CORNING INCORPORATED - Corning NY

A61J 1/14
C09D 179/08
C03C 17/00
C03C 17/34

Glass articles with coatings are disclosed herein. According to embodiments, a glass article may include a glass body comprising glass and having a first surface and a second surface opposite the first surface, wherein the first surface is an exterior surface of the glass body. A coating disposed on at least a portion of the exterior surface of the glass body. The coated glass article may have an effective throughput rate greater than or equal to 1.10×R, wherein Ris the effective throughput rate of an uncoated glass article in units of parts per minute (ppm).

20210087103, Mar 25, 2021

Dec 8, 2020

17/115123

- Corning NY, US
Adam James Ellison - Corning NY, US
Kyle Christopher Hoff - Painted Post NY, US

CORNING INCORPORATED - Corning NY

C03C 15/00
C03C 23/00
B65D 1/02

According to one embodiment, a glass article may include a glass body having a first surface and a second surface opposite the first surface. The first surface of the glass body may be etched to a depth less than or equal to about 25% of the maximum initial flaw depth Ai of a flaw population present in the first surface. The flaw population of the first surface is etched to selectively remove material adjacent to each flaw of the flaw population along the maximum initial flaw depth Ai. When the glass article is under uniaxial compressive loading, at least a portion of the first surface is in tension and a uniaxial compressive strength of the glass article is greater than or equal to 90% of a uniaxial compressive strength of a flaw-free glass article.

20200339469, Oct 29, 2020

Jul 9, 2020

16/925297

- Corning NY, US
Dana Craig Bookbinder - Corning NY, US
Theresa Chang - Painted Post NY, US
Steven Edward DeMartino - Painted Post NY, US
Andrei Gennadyevich Fadeev - Elmira NY, US
Kyle Christopher Hoff - Painted Post NY, US
Jamie Lynne Morley - Corning NY, US
Santona Pal - Corning NY, US
John Stephen Peanasky - Big Flats NY, US
Chandan Kumar Saha - Franklin MI, US
Christopher Lee Timmons - Big Flats NY, US

CORNING INCORPORATED - Corning NY

C03C 17/30
B65D 1/09
B65D 23/08
A61J 1/00
B65D 65/42
B65D 25/14
C03C 17/00
C03C 17/32
C03C 17/42
C03C 21/00
C09D 179/08
A61J 1/14
C09D 183/08
C08L 77/02
C08G 73/10

Embodiments of the present disclosure are directed to coated glass articles which reduce glass particle formation caused by glass to glass contact in pharmaceutical glass filling lines.

20180116907, May 3, 2018

Dec 28, 2017

15/857557

- Corning NY, US
Theresa Chang - Painted Post NY, US
Dana Craig Bookbinder - Corning NY, US
Santona Pal - Painted Post NY, US
Chandan Kumar Saha - Franklin MI, US
Steven Edward DeMartino - Painted Post NY, US
Christopher Lee Timmons - Big Flats NY, US
John Stephen Peanasky - Big Flats NY, US
Kyle Christopher Hoff - Painted Post NY, US

CORNING INCORPORATED - Corning NY

A61J 1/00
B65D 23/08
A61J 1/14
C09D 179/08
C03C 17/32
C03C 17/30
B65D 25/14
C03C 21/00
C03C 17/42
C03C 17/00
B65D 65/42

Glass articles with coatings are disclosed herein. According to embodiments, a glass article may include a glass body comprising glass and having a first surface and a second surface opposite the first surface, wherein the first surface is an exterior surface of the glass body. A coating disposed on at least a portion of the exterior surface of the glass body. The coated glass article may have an effective throughput rate greater than or equal to 1.10×R, wherein Ris the effective throughput rate of an uncoated glass article in units of parts per minute (ppm).