Amyris, Inc.

Lawrence Livermore National Security, LLC

Amyris Biotechnologies, Inc.

Other

University of California

Barbara Ann Karmanos Cancer Institute

Karl Albert Fisher

Nicholas L Ohler

Jason A Ryder

Jin Ki Hong

Kevin D Ness

Dietrich A Dehlinger

Klint Aaron Rose

Raymond P Mariella, Jr

Frank X Woolard

Maxim Shusteff

Byoungsok Jung

Christopher G Bailey

Christopher Roland Candy

Douglas A Wajda

Neil Stephen Renninger

Jim Candy

David Braun Kanne

Aleksandr Noy

Christopher Lee

Susan Jessica Schofer

James Vincent Candy

Roberto Vazquez

Bruce Woods

Thomas L Moore

Ross Eppler

Shakeel Tirmizi

Stephan P Swierkowski

Nicholas Ohler

David B Kanne

Ross Keating Eppler

Provided herein are olefinic feedstocks derived from conjugated hydrocarbon terpenes (e.g., C-Cterpenes), methods for making the same, and methods for their use.

Olefins and methods for making the same

A system determines an event location of an event within an indoor environment based on an event sound generated by the event. The system employs time-reversal techniques based on a received event sound to identify the event location as being in the vicinity of one of a plurality of locator devices at locator locations in the environment. The system includes a base array located within the environment that receives an indication that an event has been detected. Upon receiving the event sound, the system generates a time-reversed event sound for each transceiver and transmits via each transceiver the time-reversed event sound for that transceiver. When a locator device receives a time-reversed event sound, the locator device determines whether the event is in the vicinity of that locator location of the locator device and, if so, outputs an indication that the event occurred at that locator location.

Localization based on time-reversed event sounds

An event detection unit (EDU) for detecting an explosive event is provided. The EDU includes different types of sensors for measuring characteristics of an explosive event. The EDU includes an event notification component. The EDU also includes a processor that receives a measurement from the sensors and generates a combined non-event probability and a combined event probability based on that measurement that indicates a likelihood that an explosive event has not occurred or has occurred. The processor determines whether an explosive event has occurred based on the non-event probabilities and event probabilities. When an explosive event has been determined to occur, the processor directs the event notification component to output a notification that an explosive event has occurred.

Event detection unit

Provided herein are compositions comprising partially hydrogenated farnesene. In certain embodiments, the compositions are useful as solvents, degreasers, cleaning products, personal care products, and for other uses. Also provided herein are methods of making the compositions and methods of their use.

Solvent compositions

Provided herein are isoparaffins derived from hydrocarbon terpenes such as myrcene, ocimene and farnesene, and methods for making the same. In certain variations, the isoparaffins have utility as lubricant base stocks.

Base oils and methods for making the same

An ultrasonic microfluidic system includes a separation channel for conveying a sample fluid containing small particles and large particles, flowing substantially parallel, adjacent to a recovery fluid, with which it is in contact. An acoustic transducer produces an ultrasound standing wave, that generates a pressure field having at least one node of minimum pressure amplitude. An acoustic extension structure is located proximate to said separation channel for positioning said acoustic node off center in said acoustic area and concentrating the large particles in said recovery fluid stream.

Microfluidic ultrasonic particle separators with engineered node locations and geometries

An ultrasonic microfluidic system includes a separation channel for conveying a sample fluid containing small particles and large particles, flowing substantially parallel, adjacent to a recovery fluid, with which it is in contact. An acoustic transducer produces an ultrasound standing wave, that generates a pressure field having at least one node of minimum, pressure amplitude. An acoustic extension structure is located proximate to said separation channel for positioning said acoustic node off center in said acoustic area and concentrating the large particles in said recovery fluid stream.

Farnesene dimers and/or farnesane dimers and compositions thereof are described. The compositions provided comprise conventional additives. Methods of making and using the compounds and composition are also disclosed.

Farnesene dimers and/or farnesane dimers and compositions thereof

Provided herein are methods comprising catalytic dimerization of &#x3b2;-farnesene to obtain squalane and/or isosqualane. Compositions comprising squalane and/or isosqualane are provided. In certain embodiments, squalane and isosqualane prepared by the methods provided herein can be useful for applications in cosmetic industry and/or in the lubricants industry.

Squalane and isosqualane compositions and methods for preparing the same

Provided herein are, among other things, jet fuel compositions and methods of making and using the same. In some embodiments, the fuel compositions comprise at least a fuel component readily and efficiently produced, at least in part, from a microorganism. In certain embodiments, the fuel compositions provided herein comprise a high concentration of at least a bioengineered fuel component. In further embodiments, the fuel compositions provided herein comprise a Cbicyclic isoprenoid such as carane, pinane, sabinane or a combination thereof.

Jet fuel compositions and methods of making and using same

Growing community of inventors

Brentwood, CA, United States of America

Karl Albert Fisher