PMID-sentid	Pub_year	Sent_text		comp_official_name	comp_offsetprotein_name	organism	prot_offset
23944251-4	2013	Investigating AtO(+) clustered with an increasing number of water molecules and using various flavors of relativistic quantum methods, we found that AtO(+) adopts in solution a Kramers restricted closed-shell configuration resembling a scalar-relativistic singlet.	Water	60-65	splicing factor-like protein	Arabidopsis thaliana	149-152	
24618746-3	2014	These wavefunction calculations indicate that the ground state for the AtO(+) and AtO(+)-H2O systems is the Omega = 0(+) component of the (3)Sigma(-) LS state, which is quite well separated (by  0.5 eV) from the Omega = 1 components of the same state and from the Omega = 2 state related to the (1)Delta LS state (by  1 eV).	Water	89-92	splicing factor-like protein	Arabidopsis thaliana	71-74	
24618746-3	2014	These wavefunction calculations indicate that the ground state for the AtO(+) and AtO(+)-H2O systems is the Omega = 0(+) component of the (3)Sigma(-) LS state, which is quite well separated (by  0.5 eV) from the Omega = 1 components of the same state and from the Omega = 2 state related to the (1)Delta LS state (by  1 eV).	Water	89-92	splicing factor-like protein	Arabidopsis thaliana	82-85	
20014840-6	2010	The three oxidation states present in the range of water stability are At(-I), At(+I), and At(+III) and exist as At(-), At(+), and AtO(+), respectively, in the 1-2 pH range.	Water	51-56	splicing factor-like protein	Arabidopsis thaliana	131-134	
23537101-2	2013	Using relativistic quantum calculations, coupled to implicit solvation models, on the most stable AtO(+)(H2O)6 clusters, we demonstrate that specific interactions with water molecules of the first solvation shell induce a spin change for the AtO(+) ground state, from a spin state of triplet character in the gas phase to a Kramers-restricted closed-shell configuration in solution.	Water	168-173	splicing factor-like protein	Arabidopsis thaliana	98-101	
23537101-2	2013	Using relativistic quantum calculations, coupled to implicit solvation models, on the most stable AtO(+)(H2O)6 clusters, we demonstrate that specific interactions with water molecules of the first solvation shell induce a spin change for the AtO(+) ground state, from a spin state of triplet character in the gas phase to a Kramers-restricted closed-shell configuration in solution.	Water	168-173	splicing factor-like protein	Arabidopsis thaliana	242-245