Quantumscape Corporation

Infinera Corporation

Quantumscape Battery, Inc.

Jagdeep Singh

Weston Arthur Hermann

Rainer Johannes Fasching

Timothy P Holme

Joseph Han

Karl M Brown

Bradley Owen Stimson

Cheng Chieh Chao

David F Welch

Fred A Kish, Jr

Stephen G Grubb

Tim Holme

Niall Donnelly

Vincent G Dominic

Zhebo Chen

Sriram Rangarajan Iyer

Matthew L Mitchell

Lei Cheng

Drew Daniel Perkins

Cheng-Chieh Chao

Kian Kerman

Gengfu Xu

James Richard Dodd, Jr

Tommy Huang

Mark Tehmin Yin

Harsh Maheshwari

Robert R Taylor

Friedrich B Prinz

Phil Reilly

Provided herein are detect-free solid-state separators which are useful as Liion-conducting electrolytes in electro-chemical cells and devices, such as, but not limited to, rechargeable batteries. In some examples, the separators have a Liion-conductivity greater than 1*10S/cm at room temperature.

Translucent and transparent separators

Provided herein are defect-free solid-state separators which are useful as Liion-conducting electrolytes in electrochemical cells and devices, such as, but not limited to, rechargeable batteries. In some examples, the separators have a Liion-conductivity greater than 1*10S/cm at room temperature.

Solid state energy storage systems and devices are provided. A solid state energy storage devices can include an active layer disposed between conductive electrodes, the active layer having one or more quantum confinement species (QCS), such as quantum dots, quantum particles, quantum wells, nanoparticles, nanostructures, nanowires and nanofibers. The solid state energy storage device can have a charge rate of at least about 500 V/s and an energy storage density of at least about 150 Whr/kg.

Solid state energy storage devices

The disclosure is related to battery systems. More specifically, embodiments of the disclosure provide a nanostructured conversion material for use as the active material in battery cathodes. In an implementation, a nanostructured conversion material is a glassy material and includes a metal material, one or more oxidizing species, and a reducing cation species mixed at a scale of less than 1 nm. The glassy conversion material is substantially homogeneous within a volume of 1000 nm.

Nanostructured materials for electrochemical conversion reactions

A digital optical network (DON) is a new approach to low-cost, more compact optical transmitter modules and optical receiver modules for deployment in optical transport networks (OTNs). One important aspect of a digital optical network is the incorporation in these modules of transmitter photonic integrated circuit (TxPIC) chips and receiver photonic integrated circuit (TxPIC) chips in lieu of discrete modulated sources and detector sources with discrete multiplexers or demultiplexers.

Digital optical network architecture

A digital optical network (DON) is a new approach to low-cost, more compact optical transmitter modules and optical receiver modules for deployment in optical transport networks (OTNs). One important aspect of a digital optical network is the incorporation in these modules of transmitter photonic integrated circuit (TxPIC) chips and receiver photonic integrated circuit (RxPIC) chips in lieu of discrete modulated sources and detector sources with discrete multiplexers or demultiplexers.

Growing community of inventors

Los Gatos, CA, United States of America

Jagdeep Singh