1.21.99.5	trichloroethene + chloride + acceptor = tetrachloroethene + reduced acceptor	an electron transfer mechanism is not consistent with experimental data of rate constants. The actual mechanism involves more intimate interactions between the electron donor and the substrate in which the latter enters the cobalt coordination sphere	674149	
1.21.99.5	trichloroethene + chloride + acceptor = tetrachloroethene + reduced acceptor	chemiosmotic mechanism	349701, 349708	
1.21.99.5	trichloroethene + chloride + acceptor = tetrachloroethene + reduced acceptor	mechanism	349700, 349701, 349702, 349703, 349707	
1.21.99.5	trichloroethene + chloride + acceptor = tetrachloroethene + reduced acceptor	standard potential of the electron acceptor center in -0.57 V	674151	
1.21.99.5	trichloroethene + chloride + acceptor = tetrachloroethene + reduced acceptor	thermodynamics	349700, 349701, 349702	
1.21.99.5	trichloroethene + chloride + acceptor = tetrachloroethene + reduced acceptor	This enzyme allows the common pollutant tetrachloroethene to support bacterial growth and is responsible for disposal of a number of chlorinated hydrocarbons by this organism. The reaction occurs in the reverse direction. The enzyme also reduces trichloroethene to dichloroethene. Although the physiological reductant is unknown, the supply of reductant in some organisms is via reduced menaquinone, itself formed from molecular hydrogen, via EC 1.12.99.3: hydrogen:quinone oxidoreductase. The enzyme contains a corrinoid and two iron-sulfur clusters. Methyl viologen can act as electron donor	-