Leland Stanford Junior University

Harvard College

Amprius, Inc.

Samsung Electronics Co., Ltd.

4c Air, Inc.

Eenotech, Inc.

Ennopure, Inc.

Honda Motor Co., Ltd.

Massachusetts Institute of Technology

Metagenesis, Ltd.

Lifelabs Design, Inc.

Yi Cui

Charles M Lieber

Song Han

Hongkun Park

Qingqiao Wei

Xiangfeng Duan

Yu Huang

Yuan Yang

Wenjie Liang

Zhenan Bao

Mark Charles Platshon

Guangyuan Zheng

Mauro Pasta

Ghyrn E Loveness

Liangbing Hu

Wei Chen

Shanhui Fan

Rainer Johannes Fasching

Lei Liao

Zhenda Lu

Chong Liu

Eugene Michael Berdichevsky

Ching-Mei Hsu

Candace K Chan

Minsang Song

Peter Peumans

Steven Chu

Stephen T Connor

Robert Alan Huggins

Michael David McGehee

Craig S Criddle

Hailin Peng

Jung-Yong Lee

Chao Wang

Qiqi Wang

Kai Liu

Friedrich B Prinz

Gang Paul Chen

Mark Luitzen Brongersma

Jun Li

Wei D Liu

Hadi Ghasemi

Constantin Ionel Stefan

Jang Wook Choi

Hui Wu

George Burkhard

Heather Deshazer

William S Delhagen

I-Kang Ding

Peter B Catrysse

Kai Yan

Zhi Wei Seh

Yongming Sun

Sangmoo Jeong

Jia Zhu

Weiyang Li

Zongfu Yu

Lili Xu Cai

Xing Xie

Wei Li

Yuanqing Li

Yayuan Liu

Dingchang Lin

Steve T Connor

Jeffrey Lopez

Li-Feng Cui

Colin Wessells

Yuzhang Li

Fabio La Mantia

Jie Zhao

Jin Xie

Allen Pei

Jinwei Xu

Meng Ye

Zheng Liang

H S Philip Wong

Yang Jin

Cindy Yee Cin Lau

Mark Greyson Christoforo

Riccardo Ruffo

Jialiang Lang

Cheng-Chieh Chao

William S DelHagen

Min Ah Lee

Gregory Alan Roberts

Sidi Huang

Vijay K Narasimhan

Bofei Liu

Bianxiao Cui

Ziliang Lin

Chong Xie

Jiangyan Wang

Seok Woo Lee

Zheng Chen

Thomas M Hymel

Ruby A Lai

Tong Wu

Chee Keong Tee

This application is aNational Stage of International Application No. PCT/US, filed Apr., which claims the benefit of U.S. Provisional Patent Application No., filed Apr., each of which are incorporated by reference herein in their entirety.

Membrane-free Zn/MnOflow battery for large-scale energy storage

Example implementations include a textile apparatus for transporting perspiration and heat, the textile apparatus including a substantially planar and heat-conducting substrate including at least one recess, and a textile film including one or more fibers disposed in contact with at least one substantially planar surface of the substrate and at least one surface of the recess. Example implementations also include a method of manufacturing a textile apparatus for transporting perspiration and heat, the method including forming a nanofiber solution, extruding one or more nanofibers from the nanofiber solution, forming one or more recesses in a substantially planar surface of a substrate, and integrating one or more of the nanofibers with the substantially planar surface of the substrate and at least one surface of the recesses.

Systems and methods for heat conducting and biofluid transporting textile

A conformal graphene-encapsulated battery electrode material is formed by: (1) coating a battery electrode material with a metal catalyst to form a metal catalyst-coated battery electrode material; (2) growing graphene on the metal catalyst-coated battery electrode material to form a graphene cage encapsulating the metal catalyst-coated battery electrode material; and (3) at least partially removing the metal catalyst to form a void inside the graphene cage.

Conformal graphene cage encapsulated battery electrode materials and methods of forming thereof

Described are aqueous rechargeable hydrogen batteries operating in the full pH range (e.g., pH: −1 to 15) with potential for electrical grid storage. The pH-universal hydrogen batteries operate with different redox chemistry on the cathodes and reversible hydrogen evolution/oxidation reactions (HER/HOR) on the anode. The reactions can be catalyzed by a highly active ruthenium-based electrocatalyst. The ruthenium-based catalysts exhibit comparable specific activity and superior long-term stability of HER/HOR to that of state-of-the-art Pt/C electrocatalyst in the full pH range. New chemistries for aqueous rechargeable hydrogen batteries are also provided.

pH-universal aqueous rechargeable hydrogen batteries

Disclosed herein are Fenton filters comprising a porous substrate and a catalyst coating the porous substrate, wherein the catalyst includes a matrix and single metal atoms incorporated in the matrix. Also disclosed herein are methods of generating radicals from an oxidant, electrolyzers, methods of generating hydrogen peroxide, and water treatment systems.

Organic wastewater treatment by a single-atom catalytic Fenton filter and electrolytically-generated HO

Devices and methods for purifying lithium from lithium salts, including those with low concentration of lithium salts, are provided. A molten composition comprising a lithium salt is electrolyzed with an anode in contact with the molten composition and a cathode separated from the molten composition by a solid electrolyte capable of conducting lithium ions.

Electrolytic production of high-purity lithium from low-purity sources

A textile includes: (1) a matrix; and (2) particulate fillers dispersed within the matrix. The textile has a transmittance of infrared radiation at a wavelength of 9.5 μm of at least about 40%, and the textile has a weighted average reflectivity of radiation over a wavelength range of 0.3 μm to 2 μm of at least about 40%.

Spectrally selective textile for passive radiative outdoor personal cooling

An anode includes: (1) a current collector; and (2) an interfacial layer disposed over the current collector. The interfacial layer includes an ion-conductive organic network including anionic coordination units, organic linkers bonded through the anionic coordination units, and counterions dispersed in the ion-conductive organic network.

Ion-conductive organic networks for battery applications

A coated cathode material includes a cathode active material and an interfacial layer coating the cathode active material. The interfacial layer includes a lithium-containing fluoride which includes at least one additional metal different from lithium.

Atomic layer deposition of stable lithium ion conductive interfacial layer for stable cathode cycling

A spectrally-selective clothing fabric is disclosed. The clothing fabric can comprise an outer layer, an intermediate layer, and an inner layer. The outer layer can be infrared-transmissive and can comprise a polyolefin fiber and particulate fillers dispersed within the polyolefin fiber. The intermediate layer can comprise an infrared-reflective porous metallic-film on an inner surface of an infrared-transmissive porous polyolefin-membrane, wherein the porous polyolefin membrane is coupled to an inner surface of the outer layer. The inner layer can comprise a fabric coupled to an inner surface of the porous metallic film. The particulate fillers can comprise inorganic particles having an average particle size in a range of 10 nm to 4,000 nm. The porous metallic film can have pores having an average pore size in a range of 10 nm to 4,000 nm.

Radiative-heating clothing fabric with colors

A metal-hydrogen battery includes a first electrode, a second electrode, and an electrolyte disposed between the first electrode and the second electrode. The second electrode includes a bi-functional catalyst to catalyze both hydrogen evolution reaction and hydrogen oxidation reaction at the second electrode.

Metal-hydrogen batteries for large-scale energy storage

A battery electrolyte solution is that includes an organic electrolyte solution, a lithium-sulfur (LiS) compound, soluble lithium polysulfide (LiS) microparticles, and a redox mediator comprising a soluble quinone derivative.

Rational design of redox mediator for fast and energy-efficient charging of sulfur cathodes

A lithium battery includes a cathode, a composite lithium metal anode, and an electrolyte in contact with the cathode and the composite lithium metal anode. The composite lithium metal anode includes a porous matrix and lithium metal disposed within the porous matrix.

Composite lithium metal anodes for lithium batteries with reduced volumetric fluctuation during cycling and dendrite suppression

A thermoregulation article includes a metal film, a polymer film disposed on the metal film, and a colorant film disposed on the metal film. The thermoregulation article has at least one side having an average reflectivity greater than 0.5 at a wavelength of 0.3-4 &#x3bc;m and an average emissivity less than 0.4 at a wavelength of 4-20 &#x3bc;m.

Thermoregulation articles for exteriors of buildings

An apparatus includes a conduit including an inlet to receive a liquid and an outlet to discharge the liquid. A first porous electrode, a second porous electrode, and a third porous electrode are disposed in the conduit between the inlet and the outlet. A first porous separator is interposed between the first porous electrode and the second porous electrode. A second porous separator is interposed between the second porous electrode and the third porous electrode. A power source configured to provide power to the first porous electrode, the second porous electrode, and the third porous electrode. While the liquid is flowing through the conduit, the power source supplies a first type of voltage to the first porous electrode and the third porous electrode, and supplies a second type of voltage to the second porous electrode, the second type being opposite to the first type.

Liquid sterilization apparatus

Growing community of inventors

Stanford, CA, United States of America

Yi Cui