Zobrazeno 1 - 5
of 5
pro vyhledávání: '"Roselyn M. Rodrigues"'
Autor:
Chong Liu, Roselyn M. Rodrigues, Xun Guan, Daniel A. Estabrook, Ellen M. Sletten, John O. Chapman, Shengtao Lu, Shuyuan Huang
Publikováno v:
Chem Catalysis. 1:704-720
Summary Powered by renewable electricity, biological | inorganic hybrids employ water-splitting electrocatalysis and generate H2 as reducing equivalents for microbial catalysis. The approach integrates the beauty of biocatalysis with the energy effic
Autor:
Shengtao, Lu, Roselyn M, Rodrigues, Shuyuan, Huang, Daniel A, Estabrook, John O, Chapman, Xun, Guan, Ellen M, Sletten, Chong, Liu
Publikováno v:
Chem Catal
Powered by renewable electricity, biological | inorganic hybrids employ water-splitting electrocatalysis and generate H(2) as reducing equivalents for microbial catalysis. The approach integrates the beauty of biocatalysis with the energy efficiency
Autor:
Ellen M. Sletten, John O. Chapman, Daniel A. Estabrook, Roselyn M. Rodrigues, Jesus A. Iñiguez, Chong Liu, Xun Guan, Shuyuan Huang
Publikováno v:
Nature Catalysis. 2:407-414
Combining inorganic catalysts with CO2-fixing microorganisms has displayed a high efficiency for electricity-driven CO2 reduction. However, the maximum throughput can be limited by the low solubility of mediators, such as H2, that deliver reducing eq
Autor:
Michael R. Papantonakis, R. Andrew McGill, Roselyn M Rodrigues, Viet Nguyen, Tyler G. Grissom, C. A. Roberts
Publikováno v:
Chemical, Biological, Radiological, Nuclear, and Explosives (CBRNE) Sensing XXI.
The ever-present threat of the accidental or nefarious release of hazardous chemicals on civilian and military personnel highlights the need for rapid, standoff detection systems. Our research was motivated by a class of hydrogen-bond acidic sorbents
Autor:
R. Andrew McGill, Andrew Kusterbeck, Viet Nguyen, Dmitry A. Kozak, Roselyn M Rodrigues, C. A. Roberts, Todd H. Stievater, Michael R. Papantonakis, Tyler G. Grissom, Nathan F. Tyndall
Publikováno v:
ECS Meeting Abstracts. :2429-2429
Alcoholic and phenolic hydrogen-bond (HB) acidic absorbents activated by fluorine chemistries have been previously developed at the U.S. Naval Research Laboratory and elsewhere to augment sorbent HB acidity, reduce sorbent HB basicity and target comp