- Livermore CA, US Sarah E. Baker - Dublin CA, US William L. Bourcier - Livermore CA, US Joshua K. Stolaroff - Oakland CA, US Maxwell R. Murialdo - Westminister CA, US Maira R. Cerón Hernández - Brentwood CA, US Jennifer M. Knipe - Oakland CA, US
A composite material for gas capture including COcapture and capture of other gases. The composite material includes solid or liquid reactive material, filler material, and a gas-permeable polymer coating such that the reactive material forms micron-scale domains in the filler material.
Large Scale Synthesis Of Resorcinol-Formaldehyde Aerogel
A product includes an aerogel having a single bulk structure, the single bulk structure having at least one dimension greater than 10 millimeters. The single bulk structure includes a plurality of pores, where each pore has a largest diameter defined as a greatest distance between pore walls of the respective pore. In addition, an average of the largest diameters of a majority of the pores is within a specified range, and the plurality of pores are distributed substantially homogenously throughout the single bulk structure.
Large Scale Synthesis Of Resorcinol-Formaldehyde Aerogel
A product includes an aerogel having a single bulk structure, the single bulk structure having at least one dimension greater than 10 millimeters. The single bulk structure includes a plurality of pores, where each pore has a largest diameter defined as a greatest distance between pore walls of the respective pore. In addition, an average of the largest diameters of a majority of the pores is within a specified range, and the plurality of pores are distributed substantially homogenously throughout the single bulk structure.
- Livermore CA, US Sarah BAKER - Dublin CA, US Eric DUOSS - Danville CA, US Jennifer Marie KNIPE - Oakland CA, US Fang QIAN - Santa Cruz CA, US Samantha RUELAS - Newberry Springs CA, US
International Classification:
B01L 3/00 C12M 3/06
Abstract:
An engineered unit cell is disclosed for flowing a fluid therethrough in three dimensions. The unit cell may have a substrate with a plurality of flow channels around and between struts formed within the substrate. The struts may each be formed with a desired shape and orientation within the substrate to achieve a desired degree of fluid flow through the flow channels, in each of one of three dimensions, through the unit cell.
Systems And Methods For Reaction And Transport Engineering Via Cellular Fluidics
- Livermore CA, US Sarah BAKER - Dublin CA, US Victor Alfred BECK - Livermore CA, US Swetha CHANDRASEKARAN - Dublin CA, US Joshua R. DEOTTE - Livermore CA, US Eric B. DUOSS - Danville CA, US Jeremy Taylor FEASTER - Fremont CA, US Jennifer Marie KNIPE - Oakland CA, US Julie MANCINI - Livermore CA, US James OAKDALE - Castro Valley CA, US Fang QIAN - Santa Cruz CA, US Marcus A. WORSLEY - Hayward CA, US
International Classification:
B01L 3/00
Abstract:
The present disclosure relates to a computer aided design (CAD) manufactured lattice structure. The structure may have a plurality of tessellated cells formed from a plurality of interconnected struts, with the interconnected struts formed from a curable resin. The interconnecting struts form voids within each cell, with the voids communicating with one another. The struts may be formed such that the voids have a non-uniform dimension to create a varying porosity within the lattice structure.
Porous Ceramics For Additive Manufacturing, Filtration, And Membrane Applications
- Livermore CA, US Sarah Baker - Dublin CA, US Maira Ceron Hernandez - Livermore CA, US Jennifer Marie Knipe - Oakland CA, US Joshuah K. Stolaroff - Oakland CA, US
In accordance with one aspect of the presently disclosed inventive concepts, a porous ceramic structure includes a three-dimensional printed structure having predefined features, where the three-dimensional structure has a geometric shape. The average length of the features may be at least 10 microns. The three-dimensional structure includes a ceramic material having an open cell structure with a plurality of pores, where the pores form continuous channels through the ceramic material from one side of the ceramic material to an opposite side of the ceramic material.
Bio-Ink Structures And Methods Of Producing The Same
- Livermore CA, US Sarah Baker - Dublin CA, US Joshua R. Deotte - Livermore CA, US Eric Duoss - Dublin CA, US Jennifer Marie Knipe - Oakland CA, US Samantha Ruelas - Newberry Springs CA, US Christopher Spadaccini - Oakland CA, US Joshuah K. Stolaroff - Oakland CA, US Cheng Zhu - Livermore CA, US
In various embodiments, the present disclosure provides methods of making a living structure from a bio-ink material of freeze-dried cells and methods of using the living structure for biosensing, tissue regeneration, environment sensing, drug discovery, catalysis, and/or clinical implementation.
Composite 3D-Printed Reactors For Gas Absorption, Purification, And Reaction
- Livemore CA, US Sarah E. Baker - Dublin CA, US William L. Bourcier - Livermore CA, US Joshuah K. Stolaroff - Oakland CA, US Maxwell R. Murialdo - Westminster CA, US Maira R. Cerón Hernández - Brentwood CA, US Jennifer M. Knipe - Oakland CA, US
A composite material for gas capture including COcapture and capture of other gases. The composite material includes solid or liquid reactive material, filler material, and a gas-permeable polymer coating such that the reactive material forms micron-scale domains in the filler material.
Sep 2010 to 2000 Graduate Research AssistantUT-Austin
Sep 2011 to Nov 2011 Laboratory Teaching AssistantU.S. Department of Energy National Energy Technology Laboratory Morgantown, WV Jun 2009 to May 2010 Project Management InternDepartment of Chemical Engineering, West Virginia University
May 2007 to May 2010 Undergraduate Research Assistant
Education:
The University of Texas at Austin Austin, TX Sep 2010 PhD in Chemical EngineeringWest Virginia University Morgantown, WV BS in Chemical Engineering
Skills:
Laboratory: film and emulsion polymer particle synthesis, polymer purification, particle characterization, dynamic light scattering, UV-vis spectroscopy, thermal gravimetric analysis, scanning electron microscopy, confocal microscopy, drug delivery, biodegradation, protein and RNA assays, gel electrophoresis, lyophilization, mammalian cell culture, cytotoxicity assays, RNA interference, hazardous and biological waste management. Proficient with MATLAB and R programming. Management: project management, equipment procurement, grant writing, training and mentoring of assistants Communication: public presentation, technical reports, SOP, literature review
Jennifer Knipe (1987-1991), Ana Dasilva (1980-1984), John Misiag (1976-1976), Mike Callahan (1981-1985), Joan Magenheimer (1971-1975), Monica Benitez (1981-1985)