Bryan Francis Moran

US Patent:

20030147825, Aug 7, 2003

Filed:

May 31, 2002

Appl. No.:

10/161225

Inventors:

Joseph Chiarelli - Broadview Heights OH, US
Pravinchandra Shah - Westlake OH, US
Bryan Moran - Twinsburg OH, US
Thomas Routt - Garfield Heights OH, US
David Aebischer - Clinton OH, US

International Classification:

A61K007/06
A61K007/11

US Classification:

424/070110

Abstract:

Personal care compositions having excellent shear, shelf and use stability as well as excellent formulation aesthetics (such as skin feel, residue, moisturizing, emolliency, rub-in, absorption and adsorption characteristics, and the like) are made using inverse emulsion polymers having improved electrolyte tolerance and efficiency. The personal care compositions comprise (A) a topically acceptable liquid phase, and (B) at least one electrolyte tolerant inverse emulsion polymer comprising the reaction product of: (1) at least one complex associative monomer having ethylenic unsaturation in an end group, a hydrophilic midsection, and a hydrophobic moiety; (2) at least one pH sensitive monomer having ethylenic unsaturation and at least one carboxylic or sulfonic acid group; (3) an optional copolymerizable non-ionic monomer having ethylenic unsaturation; and (4) at least one crosslinking monomer.

US Patent:

20220262613, Aug 18, 2022

Filed:

Feb 12, 2021

Appl. No.:

17/175302

Inventors:

- Livermore CA, US
Joshua R. DEOTTE - Livermore CA, US
Nikola DUDUKOVIC - Hayward CA, US
Eric B. DUOSS - Danville CA, US
Bryan D. MORAN - Pleasanton CA, US

International Classification:

H01J 49/04
B33Y 80/00

Abstract:

The present disclosure relates to a lattice substrate adapted for use in direct ionization mass spectrometry. The substrate may have a plurality of tessellated unit cells forming an integral structure. Each tessellated unit cell may have a dimension of no more than about 1.5 mm and may include a plurality of pores arranged in an ordered pattern. The substrate may further include a form factor suitable for use with a direct ionization mass spectrometry system.

US Patent:

20210339473, Nov 4, 2021

Filed:

Jun 11, 2021

Appl. No.:

17/345158

Inventors:

- Livermore CA, US
Bryan D. MORAN - Pleasanton CA, US

International Classification:

B29C 64/268
B29C 64/277
B29C 64/393

Abstract:

The present disclosure relates to a method for forming a three dimensional (3D) component from a photopolymer resin. The method may involve generating a first optical beam at a first wavelength, with the first optical beam causing polymerization of a photopolymerizable resist. A second optical beam is generated at a second wavelength, different from the first wavelength, which inhibits polymerization of the photopolymerizable resist. A device is used to receive the first and second optical beams and to generate therefrom corresponding separate first and second light patterns, respectively, where the first light pattern forms a first image on the photopolymerizable resist to cause polymerization of a first portion of the photopolymerizable resist, while the second light pattern forms a second image on the photopolymerizable resist and inhibits polymerization of a second portion of the photopolymerizable resist.

US Patent:

20200317870, Oct 8, 2020

Filed:

Apr 4, 2019

Appl. No.:

16/375525

Inventors:

- Livermore CA, US
Theodore F. Baumann - Discovery Bay CA, US
Juergen Biener - San Leandro CA, US
Monika M. Biener - San Leandro CA, US
Bryan D. Moran - Pleasanton CA, US
James Oakdale - Castro Valley CA, US
Jianchao Ye - Tracy CA, US

International Classification:

C08J 3/075
C08L 57/00
C08K 3/04
C08F 2/48
B29C 64/153
B29C 64/112
C08J 9/28

Abstract:

In one embodiment, a mixture includes a polyfunctional monomer having at least one functional group amenable to polymerization, a porogen, and a polymerization initiator. In another embodiment, a product includes a porous three-dimensional structure formed by additive manufacturing, where the porous three-dimensional structure has ligaments arranged in a geometric pattern, the ligaments defining pores therebetween. The pores have an average diameter greater than about 10 microns, where an average length scale of the ligaments is greater than 100 nanometers. The ligaments are nanoporous, where at least 80% of a volume measured according to outer dimensions of the porous three-dimensional structure corresponds to the pores.

US Patent:

20200001531, Jan 2, 2020

Filed:

Jun 27, 2018

Appl. No.:

16/020529

Inventors:

- Livermore CA, US
Bryan D. MORAN - Pleasanton CA, US

International Classification:

B29C 64/268
B29C 64/277
B29C 64/393

Abstract:

The present disclosure relates to a digital light projector (DLP) system which has first and second light sources. The first optical source may generate a first beam at a first wavelength which causes polymerization of a photopolymerizable resist. The second optical source may generate a second beam at a second wavelength different from the first wavelength, and where the second beam inhibits polymerization of the photopolymerizable resist. A digital micromirror device (DMD) is included which has a plurality of micromirrors and is configured to be illuminated by the first and second beams and to generate a pattern on the micromirrors which has light from the first and second light wavelengths controlled by the micromirror position. The first light image causes polymerization of a first portion of the photopolymerizable resist, while the second image inhibits polymerization of a second portion of the photopolymerizable resist.

US Patent:

20180208467, Jul 26, 2018

Filed:

Jan 26, 2017

Appl. No.:

15/417134

Inventors:

- Livermore CA, US
Juergen Biener - San Leandro CA, US
Patrick Campbell - Oakland CA, US
Wen Chen - Livermore CA, US
Julie A. Jackson - Livermore CA, US
Bryan D. Moran - Pleasanton CA, US
James Oakdale - Castro Valley CA, US
William Smith - Oakland CA, US
Christopher Spadaccini - Oakland CA, US
Marcus A. Worsley - Hayward CA, US
Xiaoyu Zheng - Blacksburg VA, US

International Classification:

C01B 32/182
B33Y 10/00
B33Y 70/00
B82Y 30/00
B82Y 40/00

Abstract:

In one embodiment, a composition of matter includes: a plurality of ligaments each independently comprising one or more layers of graphene; where the plurality of ligaments are arranged according to a deterministic three-dimensional (3D) pattern. In another embodiment, a method of forming a deterministic three-dimensional (3D) architecture of graphene includes: forming or providing a substrate structurally characterized by a predefined 3D pattern; forming one or more layers of metal on surfaces of the substrate; and forming one or more layers of graphene on surfaces of the metal.

US Patent:

20160303797, Oct 20, 2016

Filed:

Apr 16, 2015

Appl. No.:

14/688187

Inventors:

- Livermore CA, US
Bryan D. Moran - Pleasanton CA, US

International Classification:

B29C 67/00

Abstract:

A large area projection micro stereolithography (LAPuSL) system uses an addressable spatial light modulator (SLM) in coordination with an optical scanning system to make very large stereolithographically produced objects. The SLM is imaged onto a photosensitive material with an optical system that has the ability to scan the image over a large area and speedily manufacture large scale complex three dimensional components with micro scale features.

US Patent:

20150316412, Nov 5, 2015

Filed:

Jun 23, 2014

Appl. No.:

14/311616

Inventors:

- Livewrmore CA, US
Mihail Bora - Livermore CA, US
Michael A. Engel - Ripon CA, US
James F. McCarrick - Dublin CA, US
Bryan D. Moran - Pleasanton CA, US

International Classification:

G01J 3/02
G01J 3/42
G01J 3/10

Abstract:

A method directs a gas of interest into a minicell and uses an emitting laser to produce laser emission light that is directed into the minicell and onto the gas of interest. The laser emission light is reflected within the cell to make multipasses through the gas of interest. After the multipasses through the gas of interest the laser light is analyzed to produces gas spectroscopy data. The minicell receives the gas of interest and a transmitting optic connected to the minicell that directs a beam into the minicell and onto the gas of interest. A receiving optic connected to the minicell receives the beam from the gas of interest and directs the beam to an analyzer that produces gas spectroscopy data.