1.8.3.1	additional information	the enzyme is believed to detoxify excess sulfite that is produced during sulfur assimilation, or due to air pollution	Arabidopsis thaliana	?	-	?	89	
1.8.3.1	additional information	No activity is found with cytochrome c as electron acceptor, since the heme domain known to mediate electron transfer between the molybdenum cofactor-domain and cytochrome c in rat hepatic SO is missing in the plant enzyme	Arabidopsis thaliana	?	-	?	89	
1.8.3.1	additional information	the enzyme does not react with cytochrome c	Arabidopsis thaliana	?	-	?	89	
1.8.3.1	additional information	The optimal substrate or precise physiological role for YedYZ in Escherichia coli and its well-conserved orthologs in other bacteria remains unknown.	Escherichia coli	?	-	?	89	
1.8.3.1	additional information	Oax-Mo-Sthiolate-C dihedral angles near 90° effectively eliminate covalency contributions to the Mo(xy) redox orbital from the thiolate sulfur. The Oax-Mo-Sthiolate-C dihedral angle is shown to have a pronounced effect on the relative intensity ratios of the XAS spin-allowed S(1s)fSv(p) + Mo-(xy) and S(1s)fSv(p) + Mo(xz,yz) transitions	synthetic construct	?	-	?	89	
1.8.3.1	additional information	R138, R190, and R450 contribute to a positively charged binding pocket, which stabilizes substrate/product binding	Gallus gallus	?	-	?	89	
1.8.3.1	additional information	the plant sulfite oxidase does not accept cyctochrome c as substrate	Spinacia oleracea	?	-	?	89	
1.8.3.1	additional information	the plant sulfite oxidase does not accept cyctochrome c as substrate	Syzygium cumini	?	-	?	89	
1.8.3.1	additional information	the plant sulfite oxidase does not accept cyctochrome c as substrate	Azadirachta indica	?	-	?	89	
1.8.3.1	additional information	the plant sulfite oxidase does not accept cyctochrome c as substrate	Cassia fistula	?	-	?	89