This entry includes membrane transporters and represents some 7 of potentially 14-16 TM regions. In many instances, its members forms part of complex I that catalyses the transfer of two electrons from NADH to ubiquinone in a reaction that is associa ...
This entry includes membrane transporters and represents some 7 of potentially 14-16 TM regions. In many instances, its members forms part of complex I that catalyses the transfer of two electrons from NADH to ubiquinone in a reaction that is associated with proton translocation across the membrane, and in this context is a combination predominantly of subunits 2, 4, 5, 14, L, M and N [1]. In many bacterial species these proteins are probable stand-alone transporters not coupled with oxidoreduction [2].
This entry represents an amino terminal extension of Pfam:PF00361. Only NADH-Ubiquinone chain 5 and eubacterial chain L are in this family. This sub-family is part of complex I which catalyses the transfer of two electrons from NADH to ubiquinone in ...
This entry represents an amino terminal extension of Pfam:PF00361. Only NADH-Ubiquinone chain 5 and eubacterial chain L are in this family. This sub-family is part of complex I which catalyses the transfer of two electrons from NADH to ubiquinone in a reaction that is associated with proton translocation across the membrane.
Hydrogen gas-evolving membrane-bound hydrogenase (MBH) is a respiratory complex homologous to the quinone-reducing Complex I. Like Complex I, MBH has peripheral and membrane arms. MBH is made of 14 subunits (MbhA-N). MbhJ, K, L, N and M form the Memb ...
Hydrogen gas-evolving membrane-bound hydrogenase (MBH) is a respiratory complex homologous to the quinone-reducing Complex I. Like Complex I, MBH has peripheral and membrane arms. MBH is made of 14 subunits (MbhA-N). MbhJ, K, L, N and M form the Membrane-anchored hydrogenase module. MbhJ, K, L, N are predicted to be exposed to the cytoplasm and form the peripheral arm. The remaining 10 subunits are predicted to be integral membrane proteins forming the membrane arm, made of 44 transmembrane helices (TMH) [2, 3]. MbhA, B, C and F form the Sodium translocation module. MbhD, E, G and H form the Proton translocation module. MbhI is the linker between the hydrogenase module and the proton-translocating membrane module. It anchors the discontinuous TMH7 of MbhH via its middle lateral helix and the C-terminal of TMH2, found in MbhE. MbhD and MbhE together are equivalent to Nqo10 of Complex I [1]. MbhD has three TM helices.
Hydrogen gas-evolving membrane-bound hydrogenase (MBH) is a respiratory complex homologous to the quinone-reducing Complex I. Like Complex I, MBH has peripheral and membrane arms. MBH is made of 14 subunits (MbhA-N). MbhJ, K, L, N and M form the Memb ...
Hydrogen gas-evolving membrane-bound hydrogenase (MBH) is a respiratory complex homologous to the quinone-reducing Complex I. Like Complex I, MBH has peripheral and membrane arms. MBH is made of 14 subunits (MbhA-N). MbhJ, K, L, N and M form the Membrane-anchored hydrogenase module. MbhJ, K, L, N are predicted to be exposed to the cytoplasm and form the peripheral arm. The remaining 10 subunits are predicted to be integral membrane proteins forming the membrane arm, made of 44 transmembrane helices (TMH) [2, 3]. MbhA, B, C and F form the Sodium translocation module. MbhD, E, G and H form the Proton translocation module. MbhI is the linker between the hydrogenase module and the proton-translocating membrane module. It anchors the discontinuous TMH7 of MbhH via its middle lateral helix and the C-terminal of TMH2, found in MbhE. MbhD and MbhE together are equivalent to Nqo10 of Complex I [1]. MbhE has two transmembrane helices: TMH1 and TMH2.
