University of Massachusetts

The University of Texas System

Eastman-kodak Company

Basf Se Corporation

Todd Emrick

E Bryan Coughlin

Kurt Breitenkamp

Richard J Farris

Thangamani Ranganathan

Thomas P Russell

Bon-Cheol Ku

Michael R Beaulieu

Banishree Saha

Matthew Skinner

Sarah M Ward

Habib Skaff

Zachariah A Page

Yao Liu

Aabid A Mir

Joseph F Bringley

Lawrence P DeMejo

Peter John Ghyzel

Xiangji Chen

Joseph Zilberman

Terry C Schultz

David J Giacherio

Justin C Timmons

Megan Warner Szyndler

Umesh Choudhary

Marcel U Brown

Jayant Kumar

Motonori Yamamoto

Ramaswamy Nagarajan

Sunitha Grandhee

Peter Deglmann

Derek R Lovley

Benny D Freeman

Bryan D McCloskey

Sebastian Wagner

John Klier

Roland Helmut Krämer

Moira Caitlin Brown

Weeradech Kiratitanavit

Subhalakshmi Nagarajan

Shelly Peyton

Mengmeng Cui

Madhu Sheri

Samantha McRae

Yen Tran

Sethumadhavan Ravichandran

Beom-Young Ryu

Ravindra Revanur

Kevin Sill

Samantha Page

Anthony Dinsmore

Elizabeth Ganz Stubbs

Yao Lin

Brian Montz

Yun-Lu Sun

A temozolomide compound according to formula (I) is described, wherein R, L, and X are defined herein. The temozolomide compound can be used to prepare polymers comprising temozolomide. Additionally, the polymers comprising temozolomide can be particularly useful in the treatment of certain diseases.

Temozolomide compounds, polymers prepared therefrom, and method of treating a disease

The invention provides novel zwitterionic monomers and polymers (including copolymers) with pendent phosphonium-based zwitterionic moieties, and compositions and products comprising same, as well as related methods and uses of the compositions, for example, as surfactants, coatings, and interlayer materials, biomedical materials or agents.

Phosphonium-based zwitterionic monomers and polymers, and compositions and methods thereof

Electrically conductive polymeric composite materials include microbially produced protein nanowires. The conductive composites are useful in diverse electronic materials applications, particularly in applications requiring biocompatibility, such as sensors and wearable electronics.

Conductive composite materials fabricated with protein nanowires

A method for deblocking a blocked isocyanate is described herein. The method includes contacting a blocked isocyanate and a halide ion source under conditions effective to provide a deblocked isocyanate. A method of making a polyurethane is also disclosed. The method of making a polyurethane includes combining a blocked isocyanate, a polyol, and a halide ion source in the presence of solvent and under conditions effective to provide the polyurethane.

Method for deblocking a blocked isocyanate and method of making a polyurethane

The invention provides novel deoxybenzoin-containing polymers exhibiting branched (including hyperbranched) architectures, and related methods and uses thereof.

Deoxybenzoin monomers and branched polymers prepared therefrom

A crosslinkable polymer composition includes repeating units of formula (I) and repeating units derived from a monomer having an ethylenically unsaturated group and a crosslinkable functional group, wherein the crosslinkable functional group is capable of forming a covalent linkage with a crosslinkable functional group of an adjacent repeating unit. R' and Rare as defined herein. The crosslinkable polymer composition can be particularly useful, for example, for pressure sensitive adhesive or coating compositions. A method of making the polymer composition and a pressure sensitive adhesive and a coating are also described.

Crosslinkable polymer composition

The invention generally relates to zwitterionic polymers (including zwitterionic copolymers), such as polymethacrylic structures, with pendent functional moieties, such as therapeutic or biologic moieties. More particularly, the invention relates to phosphorylcholine-substituted methacrylic polymers prepared by free radical polymerization and click chemistry, for example, and compositions and products comprising same, as well as related methods and uses of the compositions, for example, as biological or therapeutic agents and in drug delivery thereof.

Zwitterionic polymers with therapeutic moieties

The present invention relates to specific deoxybenzoin containing flame retardant polyesters and flame retardant thermoplastic polymer molding compositions comprising deoxybenzoin containing flame retardant polyesters as well as their preparation and use for producing moldings, fibers or foils.

Deoxybenzoin containing flame retardant polymer compositions

The invention provides novel hydrophilic conjugated polymers, e.g., hydrophilic poly(arylene vinylenes) or PAVs, and preparation thereof, and methods and devices for their application in photovoltaics, and the resulting improved solar cells.

Hydrophilic conjugated polymers, and methods of preparation and use thereof

An unsaturated deoxybenzoin compound has the structure (I) wherein R, R, R, R, R, R, R, R, and n are defined herein. A polymer including at least one group derived from a deoxybenzoin compound having structure (I), (II), or a combination thereof is also described, wherein R, R, R, R, R, R, R, R, R, R, and n are defined herein.

Unsaturated deoxybenzoin compound, polymer prepared therefrom, and articles comprising the polymer

Deoxybenzoin compounds including unsaturation are disclosed. The unsaturated deoxybenxoin compounds have the structure (I), (II), or (III) wherein R, R, R, R, R, R, and n are defined herein. Also disclosed are polyesters including repeating units having the structure (IV), (V), or a combination thereof wherein Ar, R, and m are defined herein. The polyesters can be further functionalized, for example by various phosphorous-containing compounds. The polyesters described herein can be useful for the preparation of various articles having reduced flammability.

Unsaturated deoxybenzoin compounds and polymers prepared therefrom

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South Deerfield, MA, United States of America

Todd Emrick