Tufts University

Massachusetts Institute of Technology

Matthew J Panzer

Moungi G Bawendi

Vladimir Bulovic

Jonathan E Halpert

Vanessa Wood

Jean-Michel Caruge

Huan Qin

Anthony J D'Angelo

Ariel Horowitz

Morgan Taylor

Changqiong Zhu

A gel electrolyte composite containing a nonvolatile electrolyte and a zwitterionic polymer scaffold in which the non-volatile electrolyte is a non-lithium-containing ionic liquid, a sodium-containing ionic liquid, or a lithium-containing ionic liquid and the zwitterionic polymer scaffold is formed from one or more zwitterionic monomers only or both one or more zwitterionic monomers and one or more non-zwitterionic monomers. The zwitterionic polymer scaffold contains 8 mol % or higher of zwitterions relative to the total content of the gel electrolyte composite when the nonvolatile electrolyte is a non-lithium-containing ionic liquid, and contains 1 mol % or higher of zwitterions relative to the total content of the gel electrolyte composite when the nonvolatile electrolyte is a sodium-containing ionic liquid or a lithium-containing ionic liquid. Also disclosed are a method of preparing the above-described gel electrolyte composite and an electrochemical energy storage device containing same.

Gel electrolyte composite including ionic liquid and zwitterionic polymer scaffold

A method of preparing a cupric oxide semiconductor. The method includes providing a substrate having a first surface, forming a cuprous oxide layer on the first surface, converting the cuprous oxide layer into a cupric oxide layer via an oxidation reaction, and depositing additional cupric oxide on the cupric oxide layer, which serves as a seed layer, to yield a cupric oxide film, thereby obtaining a cupric oxide semiconductor. Also disclosed are a cupric oxide semiconductor thus prepared and a photovoltaic device including it.

Cupric oxide semiconductors

An ionic material that contains a crosslinked polydimethylsiloxane network and an ionic liquid and, optionally, a lithium salt. Also disclosed are a methods of preparing the above-described ionic material, as well as a battery and a capacitor each including the ionic material as an electrolyte.

Silicone-containing ionic materials

A voltage driven light emitting device includes an electroluminescent material and semiconductor nanocrystals, luminescent organic small molecules, mixtures of emissive species molecules, or conductive polymers. The semiconductor nanocrystals, luminescent organic small molecules, mixtures of emissive species molecules, or conductive polymers emit light. The semiconductor nanocrystals, luminescent organic small molecules, mixtures of emissive species molecules, or conductive polymers can be doped to provide desired emission characteristics. Devices that share a substrate and emit more than one color may be conveniently made.

Light emitting device including semiconductor nanocrystals

A light emitting device including semiconductor nanocrystals can have a unipolar construction. The semiconductor nanocrystals emit light during device operation. The size and chemical composition of the semiconductor nanocrystals can be chosen to provide desired emission characteristics. Devices that share a substrate and emit more than one color may be conveniently made.

Growing community of inventors

Cambridge, MA, United States of America

Matthew J Panzer