Zobrazeno 1 - 10
of 27
pro vyhledávání: '"Jennifer K. Schwartz"'
Autor:
Edward I. Solomon, Takehiko Tosha, Elizabeth C. Theil, Jennifer K. Schwartz, Yeonju Kwak, Suranjana Haldar, Rabindra K. Behera
Publikováno v:
Biochemistry
Ferritin has a binuclear non-heme iron active site that functions to oxidize iron as a substrate for formation of an iron mineral core. Other enzymes of this class have tightly bound diiron cofactor sites that activate O2 to react with substrate. Fer
Autor:
Yeonju Kwak, Martin Srnec, Jennifer K. Schwartz, Lubomír Rulíšek, Edward I. Solomon, Tibor András Rokob
Publikováno v:
Inorganic Chemistry. 51:2806-2820
Large-scale quantum and molecular mechanical methods (QM/MM) and QM calculations were carried out on the soluble Δ(9) desaturase (Δ(9)D) to investigate various structural models of the spectroscopically defined peroxodiferric (P) intermediate. This
Publikováno v:
Journal of Chemical Information and Modeling. 51:2164-2173
A Genetic Algorithm (GA) is a stochastic optimization technique based on the mechanisms of biological evolution. These algorithms have been successfully applied in many fields to solve a variety of complex nonlinear problems. While they have been use
Publikováno v:
Journal of the American Chemical Society. 130:9441-9450
Maxi ferritins, 24 subunit protein nanocages, are essential in humans, plants, bacteria, and other animals for the concentration and storage of iron as hydrated ferric oxide, while minimizing free radical generation or use by pathogens. Formation of
Autor:
Jennifer K. Schwartz, Victor W. Huang, Yeonju Kwak, Donald M. Kurtz, Edward I. Solomon, Emily Boice
Publikováno v:
Biochemistry. 54(47)
Ferritins and bacterioferritins (Bfrs) utilize a binuclear non-heme iron binding site to catalyze oxidation of Fe(II), leading to formation of an iron mineral core within a protein shell. Unlike ferritins, in which the diiron site binds Fe(II) as a s
Autor:
Kannan Muthukumaran, Dewey Holten,§ and, Jennifer K. Schwartz, James R. Diers, Igor V. Sazanovich, Christine Kirmaier, Eve Hindin, David F. Bocian, Robert S. Loewe, Jonathan S. Lindsey
Publikováno v:
The Journal of Physical Chemistry B. 107:3431-3442
A perylene-oxochlorin dyad has been prepared and characterized for potential use as a new light-harvesting motif. The dyad (PMI−ZnO) consists of a perylene-monoimide dye (PMI) joined at the 5-position of a zinc oxochlorin (ZnO) via a diphenylethyne
Autor:
Dewey Holten, Eve Hindin, Jennifer K. Schwartz, David F. Bocian, Igor V. Sazanovich, Kannan Muthukumaran, Christine Kirmaier, Masahiko Taniguchi, James R. Diers, Jonathan S. Lindsey,‡ and
Publikováno v:
The Journal of Physical Chemistry B. 107:3443-3454
Three perylene-oxochlorin dyads have been prepared and characterized with the goal of identifying charge-injection or molecular-switching motifs for use in molecular photonics. Each dyad consists of a perylene-bis(imide) dye (PDI) joined at the 10-po
Autor:
Takehiko Tosha, Jennifer K. Schwartz, Adrienne R. Diebold, Elizabeth C. Theil, Edward I. Solomon, Xiaofeng S. Liu
Publikováno v:
Biochemistry. 49(49)
DNA protection during starvation (Dps) proteins are miniferritins found in bacteria and archaea that provide protection from uncontrolled Fe(II)/O radical chemistry; thus the catalytic sites are targets for antibiotics against pathogens, such as anth
Autor:
Eve Hindin, Robert R. Birge, Fabien Chevalier, Jennifer K. Schwartz, Christine Kirmaier, David F. Bocian, Jonathan S. Lindsey, Hee-eun Song, Lavoisier Ramos, Robert S. Loewe, Eunkyung Yang, Kin-ya Tomizaki, Dewey Holten, James R. Diers
Publikováno v:
The journal of physical chemistry. B. 114(45)
Seven perylene-porphyrin dyads were examined with the goal of identifying those most suitable for components of light-harvesting systems. The ideal dyad should exhibit strong absorption by the perylene in the green, undergo rapid and efficient excite
Publikováno v:
Biochemistry. 47(32)
The multicomponent soluble form of methane monooxygenase (sMMO) catalyzes the oxidation of methane through the activation of O 2 at a nonheme biferrous center in the hydroxylase component, MMOH. Reactivity is limited without binding of the sMMO effec