California Institute of Technology

Liox Power, Inc.

Mario R Blanco

Margaret A Ryan

Shiao-Pin S Yen

Margie L Homer

Abhijit V Shevade

William A Goddard, Iii

Mitchell Guttman

Adam Kisor

April D Jewell

Charles Taylor

Kenneth S Manatt

Jean-Pierre Fleurial

Ratnakumar V Bugga

William Clark West

Daniel Choi

Strahinja K Zecevic

Richard P Vasquez

Sofia A Quinodoz

Gregory V Chase

Devdoot Majumdar

Jasim Uddin

Wely Floriano

Dan D Addison

William Goddard

Vyacheslav Bryantsev

Vincent Giordani

Minhee Yun

Wesley Walker

Nosang Myung

Tahir Cagin

Kenji A Sasaki

Ward Walkup, Iv

Gregory VE Chase

Jassim Uddin

In some embodiments, methods of detecting an association between a query protein and a target moiety are described. In some embodiments, compositions are described. In some embodiments, kits are described.

Detection of molecular associations

Methods of detecting an interaction between a macromolecule and an interaction partner are described. Kits are also described.

High-throughput identification of intermolecular interactions

The present invention generally relates to batteries and, in particular, to electrodes for use in batteries such as non-aqueous metal-air batteries, for example, lithium-air batteries, as well as in other electrochemical devices. Such devices may exhibit improved performance characteristics (e.g. power, cycle life, capacity, etc.). One aspect of the present invention is generally directed to electrodes for use in such devices containing one or more pores or channels for transport of gas and/or electrolyte therein, e.g., forming an open porous network. In certain embodiments, the electrolyte may be a gel or a polymer. In some embodiments, there may be network of such channels or pores within the electrode such that no active site within the electrode is greater than about 50 micrometers distant from a gas channel. In some embodiments, such systems may be created using electrodes containing gel or electrolyte polymers, and/or by forming electrodes having different wettabilities such that certain regions preferentially attract the electrolyte compared to other regions, thereby causing self-organization of the electrolyte within the electrode. Other aspects of the invention are generally directed to methods of making such batteries or electrochemical devices, methods of using such batteries or electrochemical devices, kits involving such batteries or electrochemical devices, or the like.

Gas diffusion electrodes for batteries such as metal-air batteries

Embodiments include a sensor comprising a co-polymer, the co-polymer comprising a first monomer and a second monomer. For some embodiments, the first monomer is poly-4-vinyl pyridine, and the second monomer is poly-4-vinyl pyridinium propylamine chloride. For some embodiments, the first monomer is polystyrene and the second monomer is poly-2-vinyl pyridinium propylamine chloride. For some embodiments, the first monomer is poly-4-vinyl pyridine, and the second monomer is poly-4-vinyl pyridinium benzylamine chloride. Other embodiments are described and claimed.

Co-polymer films for sensors

The present invention relates to a nanowire sensor and method for forming the same. More specifically, the nanowire sensor comprises at least one nanowire formed on a substrate, with a sensor receptor disposed on a surface of the nanowire, thereby forming a receptor-coated nanowire. The nanowire sensor can be arranged as a sensor sub-unit comprising a plurality of homogeneously receptor-coated nanowires. A plurality of sensor subunits can be formed to collectively comprise a nanowire sensor array. Each sensor subunit in the nanowire sensor array can be formed to sense a different stimulus, allowing a user to sense a plurality of stimuli. Additionally, each sensor subunit can be formed to sense the same stimuli through different aspects of the stimulus. The sensor array is fabricated through a variety of techniques, such as by creating nanopores on a substrate and electrodepositing nanowires within the nanopores.

Nanowire sensor, sensor array, and method for making the same

The present invention provides high capacity and high voltage Li-ion batteries that have a carbonaceous cathode and a nonaqueous electrolyte solution comprising LiF salt and an anion receptor that binds the fluoride ion. The batteries can comprise dual intercalating electrode Li ion batteries. Methods of the present invention use a cathode and electrode pair, wherein each of the electrodes reversibly intercalate ions provided by a LiF salt to make a high voltage and high specific capacity dual intercalating electrode Li-ion battery. The present methods and systems provide high-capacity batteries particularly useful in powering devices where minimizing battery mass is important.

High voltage and high specific capacity dual intercalating electrode Li-ion batteries

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Los Angeles, CA, United States of America

Mario R Blanco