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Noah Malmstadt

age ~49

from Altadena, CA

Noah Malmstadt Phones & Addresses

  • 3314 Alicia Ave, Altadena, CA 91001
  • Pasadena, CA
  • 8815 23Rd St, Seattle, WA 98115 • (206)5275538
  • 1519 Howell St, Seattle, WA 98122 • (206)3235869
  • 8200 Parkridge Ln, Greendale, WI 53129 • (414)4219646
  • Greentown, PA

Us Patents

  • Formation And Encapsulation Of Molecular Bilayer And Monolayer Membranes

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  • US Patent:
    8038885, Oct 18, 2011
  • Filed:
    Oct 13, 2006
  • Appl. No.:
    12/083410
  • Inventors:
    Jacob J. Schmidt - Sherman Oaks CA, US
    Noah Malmstadt - Pasadena CA, US
    Tae-joon Jeon - Los Angeles CA, US
    Jason Poulos - Los Angeles CA, US
  • Assignee:
    The Regents of the University of California - Oakland CA
  • International Classification:
    B01D 11/00
    G01N 1/18
  • US Classification:
    210639, 264 41, 264 46, 264 47, 427 211, 427 214, 435 4, 435 71, 4352871, 4352872, 4352873, 436 86, 436178, 436180, 977713, 977717, 977756
  • Abstract:
    Disclosed herein are compositions, methods, and devices related to bilayer and monolayer membranes, their encapsulation in a hydrogel, and their formation. Methods of using the disclose compositions and devices are also disclosed.
  • Stimuli-Responsive Polymer Conjugates And Related Methods

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  • US Patent:
    20060127925, Jun 15, 2006
  • Filed:
    Aug 3, 2005
  • Appl. No.:
    11/197771
  • Inventors:
    Patrick Stayton - Seattle WA, US
    Allan Hoffman - Seattle WA, US
    Noah Malmstadt - Pasadena CA, US
    Tsuyoshi Shimoboji - Nagaizumi, JP
    Samarth Kulkarni - Seattle WA, US
  • Assignee:
    University of Washington - Seattle WA
  • International Classification:
    C12Q 1/68
    G01N 33/53
    C12M 1/34
    B05D 3/02
  • US Classification:
    435006000, 435007100, 427002110, 435287200
  • Abstract:
    Conjugates that include polymers that are reversibly self-associative in response to a stimulus and methods for using the conjugates.
  • Formation And Encapsulation Of Molecular Bilayer And Monolayer Membranes

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  • US Patent:
    20120025414, Feb 2, 2012
  • Filed:
    Oct 7, 2011
  • Appl. No.:
    13/269433
  • Inventors:
    Jacob J. Schmidt - Sherman Oaks CA, US
    Noah Malmstadt - Pasadena CA, US
    Tae-joon Jeon - Los Angeles CA, US
    Jason Poulos - Los Angeles CA, US
  • International Classification:
    B29D 7/01
    B29C 31/10
    B82Y 40/00
  • US Classification:
    264212, 425130, 977962
  • Abstract:
    Disclosed herein are compositions, methods, and devices related to bilayer and monolayer membranes, their encapsulation in a hydrogel, and their formation. Methods of using the disclosed compositions and devices are also disclosed.
  • Continuous Flow Synthesis Of Nanomaterials Using Ionic Liquids In Microfluidic Reactors

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  • US Patent:
    20130087020, Apr 11, 2013
  • Filed:
    Oct 8, 2012
  • Appl. No.:
    13/647242
  • Inventors:
    University of Southern California - Los Angeles CA, US
    Noah Malmstadt - Altadena CA, US
    Laura Lazarus - Long Beach CA, US
    Astro S.-J. Yang - Los Angeles CA, US
    Carson Riche - Zionsville PA, US
    Steven Chu - Honolulu HI, US
    Brandon Marin - West Covina CA, US
  • Assignee:
    UNIVERSITY OF SOUTHERN CALIFORNIA - Los Angeles CA
  • International Classification:
    B22F 9/18
  • US Classification:
    75370
  • Abstract:
    A method for manufacturing metal nanoparticles includes the use of a microfluidic device. The microfluidic device has a first channel having a first inlet; a second channel having a second inlet; a third channel having a third inlet; and a main channel having a main inlet and an outlet. The first channel, second channel, and third channel all lead into the main channel. The method involves injecting a solution of a metal/ligand into the first inlet, injecting a solution of a reducing agent into the second inlet, injecting a solvent comprised of an ionic liquid into the third inlet, and injecting an inert carrier into the main inlet. The solution of the metal/ligand, the solution of the reducing agent, the solvent and the inert carrier are combined together in the main channel, and the metal/ligand and the reducing agent are reacted for a time sufficient to form a metal nanoparticle.
  • Microfluidic Devices Having Solvent-Resistant Coating And Method Of Manufacture Thereof

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  • US Patent:
    20140030165, Jan 30, 2014
  • Filed:
    Jul 26, 2013
  • Appl. No.:
    13/951990
  • Inventors:
    Carson Riche - Zionsville PA, US
    Noah Malmstadt - Altadena CA, US
    Brandon Marin - West Covina CA, US
    Malancha Gupta - Pasadena CA, US
  • Assignee:
    UNIVERSITY OF SOUTHERN CALIFORNIA - Los Angeles CA
  • International Classification:
    B01L 3/00
  • US Classification:
    422502, 42725539, 427237
  • Abstract:
    A method of coating a substrate, such as a microfluidic device having an interior surface, includes heating a gas including a perfluoroacrylate, a crosslinker and an initiator at a first temperature, maintaining the substrate at a second temperature lower than the first temperature in a reaction chamber, exposing the heated gas to the substrate in the reaction chamber, and reacting the perfluoroacrylate with the initiator and crosslinker to form a polymer coating on the surface of the substrate.
  • Discrete Elements For 3D Microfluidics

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  • US Patent:
    20190270083, Sep 5, 2019
  • Filed:
    Nov 13, 2018
  • Appl. No.:
    16/189133
  • Inventors:
    - Los Angeles CA, US
    - Mountain View CA, US
    Noah Malmstadt - Altadena CA, US
  • International Classification:
    B01L 3/00
  • Abstract:
    A module may be provided with at least one opening, the opening being an endpoint of a microfluidic channel that passes through at least part of the module. A set of multiple such modules may be arranged into an arrangement of modules, which may be coupled together using one or more coupling mechanisms included on each module. The arrangement of modules may fit within a regular polyhedral grid, and each module within the arrangement of modules may have a form suitable for arrangement of the modules within the regular polyhedral grid. Fluid may then flow through at least a subset of the arrangement of modules via the microfluidic channel of each module of the subset of the arrangement of modules. Some modules may include sensors, actuators, or inner microfluidic channel surface coatings. The arrangement of modules may form a microfluidic circuit that can perform a microfluidic circuit function.
  • G Protein-Coupled Receptors Incorporated Into Rehydrated Polymer Vesicles Retain Functionality

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  • US Patent:
    20180177729, Jun 28, 2018
  • Filed:
    Dec 27, 2017
  • Appl. No.:
    15/855353
  • Inventors:
    - LOS ANGELES CA, US
    NOAH MALMSTADT - LOS ANGELES CA, US
    CARSON RICHE - ZIONSVILLE PA, US
  • International Classification:
    A61K 9/127
    A61K 47/42
  • Abstract:
    A G Protein Coupled Receptor (GPCR) is incorporated in polymeric giant unilamellar protein vesicles (pGUPs). By utilizing an agarose rehydration technique, the GPCR is inserted in the biased, physiological orientation with the C-terminus cytosolic and N-terminus extracellular. The GPCR is fully functional within the polymeric bilayer, exhibiting physiological responses to various ligands. The entire population of GPCRs in pGUPs remains fully functional after lyophilization for 120 hours.
  • Discrete Elements For 3D Microfluidics

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  • US Patent:
    20150352550, Dec 10, 2015
  • Filed:
    Jun 10, 2015
  • Appl. No.:
    14/735941
  • Inventors:
    - Los Angeles CA, US
    - Mountain View CA, US
    Noah Malmstadt - Altadena CA, US
  • Assignee:
    REOLAB INC. - Mountain View CA
    UNIVERSITY OF SOUTHERN CALIFORNIA - Los Angeles CA
  • International Classification:
    B01L 3/00
  • Abstract:
    A module may be provided with at least one opening, the opening being an endpoint of a microfluidic channel that passes through at least part of the module. A set of multiple such modules may be arranged into an arrangement of modules, which may be coupled together using one or more coupling mechanisms included on each module. The arrangement of modules may fit within a regular polyhedral grid, and each module within the arrangement of modules may have a form suitable for arrangement of the modules within the regular polyhedral grid. Fluid may then flow through at least a subset of the arrangement of modules via the microfluidic channel of each module of the subset of the arrangement of modules. Some modules may include sensors, actuators, or inner microfluidic channel surface coatings. The arrangement of modules may form a microfluidic circuit that can perform a microfluidic circuit function.

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Youtube

The "Membrane" Challenge with Noah Malmstadt

Could you explain synthetic biology to a 7th grader? Associate Profess...

  • Duration:
    1m 41s

When Good Oxygen Goes Bad

USC Viterbi Associate Professor Noah Malmstadt studies the damage oxyg...

  • Duration:
    2m 15s

Fluoropolymer surface coatings to control dro...

Noah Malmstadt et al., "Fluoropolymer surface coatings to control drop...

  • Duration:
    28s

Chemical Engineering Doctoral Program

Co-hosted by Associate Professor Noah Malmstadt. Learn more about the ...

  • Duration:
    35m 17s

Nanoparticle Production

A 3D-printed microfluidic chamber mass-produces nanoparticles. (Courte...

  • Duration:
    32s

Nanoparticle Factory

A 3D-printed microfluidic chamber mass-produces nanoparticles. (Courte...

  • Duration:
    32s

JOLIE ROUGE - Noah Clothing

Noah's first skate video by Alex Greenberg. Featuring: Bobby de Keyzer...

  • Duration:
    17m 51s

MILE HIGH - Noah North (Official Video)

MIle high performed by Noah North, Music video filmed by Michael Mcnam...

  • Duration:
    2m

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