Lawrence Livermore National Security, LLC

University of California

The United States Government As Represented by the Department of Veterans Affairs

Paul Henderson

Kit S Lam

Matthew A Coleman

Juntao Luo

Wei He

Paul D Hoeprich

Brett A Chromy

Chong-Xian Pan

Maike Zimmermann

Ralph William De Vere White

Bruce D Hammock

Sarah Elyse Baker

George D Cimino

Sung Hee Hwang

Nicholas O Fischer

Craig D Blanchette

Kenneth W Turteltaub

R Holland Cheng

Hongyong Zhang

Amy Rasley

Li Xing

Ai-Hong Ma

Fuli Wang

Sean Fitzpatrick Gilmore

The present invention provides a nanodisc with a membrane scaffold protein. The nanodisc includes a membrane scaffold protein, a telodendrimer and a lipid. The membrane scaffold protein can be apolipoprotein. The telodendrimer has the general formula PEG-L-D-(R), wherein D is a dendritic polymer; L is a bond or a linker linked to the focal point group of the dendritic polymer; each PEG is a poly(ethylene glycol) polymer; each R is and end group of the dendritic polymer, or and end group with a covalently bound hydrophobic group, hydrophilic group, amphiphilic compound, or drug; and subscript n is an integer from 2 to 20. Cell free methods of making the nanodiscs are also provided.

Apolipoprotein nanodiscs with telodendrimer

Nanolipoprotein particles having at least a scaffold protein component and a membrane lipid component and related compositions, methods and systems are described. The membrane lipid component includes at least one or more membrane forming lipids, one or more polymerized lipids and/or one or more polymerizable lipids.

Stable nanolipoprotein particles and related compositions methods and systems

The present invention provides a nanodisc with a membrane scaffold protein. The nanodisc includes a membrane scaffold protein, a telodendrimer and a lipid. The membrane scaffold protein can be apolipoprotein. The telodendrimer has the general formula PEG-L-D-(R), wherein D is a dendritic polymer; L is a bond or a linker linked to the focal point group of the dendritic polymer; each PEG is a poly(ethylene glycol) polymer, each R is and end group of the dendritic polymer, or and end group with a covalently bound hydrophobic group, hydrophilic group, amphiphilic compound, or drug; and subscript n is an integer from 2 to 20. Cell free methods of making the nanodiscs are also provided.

The invention relates to methods, systems and kits for determining therapeutic effectiveness or toxicity of cancer-treating compounds that incorporate into or bind to DNA. In particular, the invention is directed to methods, systems and kits for predicting a patient's treatment outcome after administration of a microdose of therapeutic composition to the patient. The methods provides physicians with a diagnostic tool to segregate cancer patients into differential populations that have a higher or lower chance of responding to a particular therapeutic treatment.

Methods for cytotoxic chemotherapy-based predictive assays

Provided are methods and compositions for prolonging survival and/or reducing or inhibiting tumor growth in a cancer subject receiving a regimen of one or more chemotherapeutic agents, an inhibitor of soluble epoxide hydrolase (sEHi) and a non-steroidal anti-inflammatory drug (NSAID) that inhibits one or more enzymes selected from the group consisting of cyclo-oxygenase ('COX')-1, COX-2, and 5-lipoxygenase ('5-LOX'). The methods and compositions decrease toxicity and/or adverse side effects in subjects receiving a regimen of one or more chemotherapeutic agents.

Methods of improving cancer chemotherapy

The present invention provides a nanodisc with a membrane scaffold protein. The nanodisc includes a membrane scaffold protein, a telodendrimer and a lipid. The membrane scaffold protein can be apolipoprotein. The telodendrimer has the general formula PEG-L-D-(R), wherein D is a dendritic polymer; L is a bond or a linker linked to the focal point group of the dendritic polymer; each PEG is a polyethylene glycol) polymer; each R is and end group of the dendritic polymer, or and end group with a covalently bound hydrophobic group, hydrophilic group, amphiphilic compound, or drug; and subscript n is an integer from 2 to 20. Cell free methods of making the nanodiscs are also provided.

Provided herein are nanolipoprotein particles that comprise a membrane associated hydrogenase and related assemblies, devices, methods and systems.

Nanolipoprotein particles comprising hydrogenases and related products, methods and systems

Provided herein are methods and systems for assembling, solubilizing and/or purifying a membrane associated protein in a nanolipoprotein particle, which comprise a temperature transition cycle performed in presence of a detergent, wherein during the temperature transition cycle the nanolipoprotein components are brought to a temperature above and below the gel to liquid crystalling transition temperature of the membrane forming lipid of the nanolipoprotein particle.

Nanolipoprotein particles and related methods and systems for protein capture, solubilization, and/or purification

Growing community of inventors

Dublin, CA, United States of America

Paul Henderson