Gabriel M Rubinstein
Overview
Explore the profile of Gabriel M Rubinstein including associated specialties, affiliations and a list of published articles.
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8
Citations
90
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Recent Articles
1.
Zhang K, Zhao W, Rodionov D, Rubinstein G, Nguyen D, Tanwee T, et al.
mSystems
. 2021 Jun;
6(3):e0135120.
PMID: 34060912
Metabolic modeling was used to examine potential bottlenecks that could be encountered for metabolic engineering of the cellulolytic extreme thermophile Caldicellulosiruptor bescii to produce bio-based chemicals from plant biomass. The...
2.
Rodionov D, Rodionova I, Rodionov V, Arzamasov A, Zhang K, Rubinstein G, et al.
mSystems
. 2021 Jun;
6(3):e0134520.
PMID: 34060910
Extremely thermophilic bacteria from the genus can degrade polysaccharide components of plant cell walls and subsequently utilize the constituting mono- and oligosaccharides. Through metabolic engineering, ethanol and other industrially important...
3.
Rubinstein G, Lipscomb G, Williams-Rhaesa A, Schut G, Kelly R, Adams M
J Ind Microbiol Biotechnol
. 2020 Aug;
47(8):585-597.
PMID: 32783103
Caldicellulosiruptor bescii is the most thermophilic cellulolytic organism yet identified (T 78 °C). It grows on untreated plant biomass and has an established genetic system thereby making it a promising...
4.
Lee L, Crosby J, Rubinstein G, Laemthong T, Bing R, Straub C, et al.
Extremophiles
. 2019 Jul;
24(1):1-15.
PMID: 31359136
Terrestrial hot springs near neutral pH harbor extremely thermophilic bacteria from the genus Caldicellulosiruptor, which utilize the carbohydrates of lignocellulose for growth. These bacteria are technologically important because they produce...
5.
Scott I, Rubinstein G, Poole 2nd F, Lipscomb G, Schut G, Williams-Rhaesa A, et al.
J Biol Chem
. 2019 May;
294(25):9995-10005.
PMID: 31097544
is an extremely thermophilic, cellulolytic bacterium with a growth optimum at 78 °C and is the most thermophilic cellulose degrader known. It is an attractive target for biotechnological applications, but...
6.
Williams-Rhaesa A, Rubinstein G, Scott I, Lipscomb G, Poole Ii F, Kelly R, et al.
Metab Eng Commun
. 2018 Jul;
7:e00073.
PMID: 30009131
is an extremely thermophilic cellulolytic bacterium with great potential for consolidated bioprocessing of renewable plant biomass. Since it does not natively produce ethanol, metabolic engineering is required to create strains...
7.
Williams-Rhaesa A, Awuku N, Lipscomb G, Poole F, Rubinstein G, Conway J, et al.
Extremophiles
. 2018 May;
22(4):629-638.
PMID: 29797090
Regulated control of both homologous and heterologous gene expression is essential for precise genetic manipulation and metabolic engineering of target microorganisms. However, there are often no options available for inducible...
8.
Williams-Rhaesa A, Poole 2nd F, Dinsmore J, Lipscomb G, Rubinstein G, Scott I, et al.
Appl Environ Microbiol
. 2017 May;
83(14).
PMID: 28476773
is the most thermophilic cellulose degrader known and is of great interest because of its ability to degrade nonpretreated plant biomass. For biotechnological applications, an efficient genetic system is required...