Stanley A. Langevin, † Zachary W. Bent, † Owen D. Solberg, Deanna J. Curtis, Pamela D. Lane, Kelly P. Williams, Joseph S. Schoeniger, Anupama Sinha, Todd W. Lane, and Steven S. Branda*
Top co-authorsView all Steven S Branda Steven S Branda 29.63 (9)Sandia National Laboratories Follow Douglas Faller Douglas Faller 45.62 (7)Boston University Follow Gerald V Denis Gerald V Denis 34.42 (7)Boston University Follow Kelly P Williams Kelly P Williams 38.08 (5)Sandia National Laboratories Follow Zachary Bent Zachary Bent 21.39 (4)
..... There seems to be lots of patents evolving out of Sandia National Labs and I would like Peregrine to clarify all the non Disclosed collaborations because I still stick with any and all groups that had access to PS Targeting data are realizing AFTER ....what was non obvious BEFORE access to PS Targeting research/data ...what protein pathways to concentrate on and much more....
We have Patents by Inventor Joseph S. Schoeniger which may be part of new knowledge ...after such new data learned with "Peregrine RNA-Seq library "
Methods and materials for deconstruction of biomass for biofuels production Patent number: 9024111 Abstract: The present invention relates to nucleic acids, peptides, vectors, cells, and plants useful in the production of biofuels. In certain embodiments, the invention relates to nucleic acid sequences and peptides from extremophile organisms, such as SSO1949 and Ce1A, that are useful for hydrolyzing plant cell wall materials. In further embodiments, the invention relates to modified versions of such sequences that have been optimized for production in one or both of monocot and dicot plants. In other embodiments, the invention provides for targeting peptide production or activity to a certain location within the cell or organism, such as the apoplast. In further embodiments, the invention relates to transformed cells or plants. In additional embodiments, the invention relates to methods of producing biofuel utilizing such nucleic acids, peptides, targeting sequences, vectors, cells, and/or plants. Type: Grant Filed: March 30, 2012 Date of Patent: May 5, 2015 Assignee: Sandia Corporation Inventors: Joseph S. Schoeniger, Masood Zia Hadi
The only way to gather ALL the information is to know ALL non disclosed collaborations and then sifting through ALL patents by the collaborating parties.....opportunities exist to target flipped PS in many places and Peregrine should be capitalizing on all such collaborations and hope to hear more about revenue streams that we have been left in the dark in....and clearly exist and easy to see.
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Lipid remodelling: Unravelling the response to cold stress in Arabidopsis and its extremophile relative Eutrema salsugineum Author links open overlay panelCristinaBarrero-Sicilia12SusanaSilvestre1Richard PHaslamLouise VMichaelson Plant Sciences, Rothamsted Research, West Common, Harpenden, AL5 2JQ, UK Received 24 April 2017, Revised 20 June 2017, Accepted 12 July 2017, Available online 27 July 2017.
Highlights • Higher plants rapidly remodel cellular lipids in response to environmental perturbation and abiotic stress.
• Lipids in plants perform many important functions including information exchange, protection, energy storage, signalling and light capture.
• Increases in unsaturation are a common response to cold stress, but not the only mechanism of adaptation.
• An increased understanding of lipid turnover is essential to establish the contribution made by the lipidome to plant stress resilience. • Opportunities exist to improve the resilience of crops by manipulating the lipidome.
Abstract Environmental constraints limit the geographic distribution of many economically important crops. Cold stress is an important abiotic stress that affects plant growth and development, resulting in loss of vigour and surface lesions. These symptoms are caused by, among other metabolic processes, the altered physical and chemical composition of cell membranes. As a major component of cell membranes lipids have been recognized as having a significant role in cold stress, both as a mechanical defence through leaf surface protection and plasma membrane remodelling, and as signal transduction molecules. We present an overview integrating gene expression and lipidomic data published so far in Arabidopsis and its relative the extremophile Eutrema salsugineum. This data enables a better understanding of the contribution of the lipidome in determining the ability to tolerate suboptimal temperature conditions. Collectively this information will allow us to identify the key lipids and pathways responsible for resilience, enabling the development of new approaches for crop tolerance to stress. ... ... http://www.sciencedirect.com/science/article/pii/S016894521730362X