PMID-sentid	Pub_year	Sent_text		comp_official_name	comp_offsetprotein_name	organism	prot_offset
26563827-1	2015	We report a strategy to coat Fe3O4 nanoparticles (NPs) with tetrathiafulvalene-fused carboxylic ligands (TTF-COO-) and to control electron conduction and magnetoresistance (MR) within the NP assemblies.	ferryl iron	29-34	ras homolog family member H	Homo sapiens	105-108	
26563827-2	2015	The TTF-COO-Fe3O4 NPs were prepared by replacing oleylamine (OA) from OA-coated 5.7 nm Fe3O4 NPs.	ferryl iron	12-17	ras homolog family member H	Homo sapiens	4-7	
26563827-2	2015	The TTF-COO-Fe3O4 NPs were prepared by replacing oleylamine (OA) from OA-coated 5.7 nm Fe3O4 NPs.	ferryl iron	87-92	ras homolog family member H	Homo sapiens	4-7	
26563827-3	2015	In the TTF-COO-Fe3O4 NPs, the ligand binding density was controlled by the ligand size, and spin polarization on the Fe3O4 NPs was greatly improved.	ferryl iron	15-20	ras homolog family member H	Homo sapiens	7-10	
26563827-3	2015	In the TTF-COO-Fe3O4 NPs, the ligand binding density was controlled by the ligand size, and spin polarization on the Fe3O4 NPs was greatly improved.	ferryl iron	117-122	ras homolog family member H	Homo sapiens	7-10	
26563827-4	2015	As a result, the interparticle spacing within the TTF-COO-Fe3O4 NP assemblies are readily controlled by the geometric length of TTF-based ligand.	ferryl iron	58-63	ras homolog family member H	Homo sapiens	50-53	
26563827-4	2015	As a result, the interparticle spacing within the TTF-COO-Fe3O4 NP assemblies are readily controlled by the geometric length of TTF-based ligand.	ferryl iron	58-63	ras homolog family member H	Homo sapiens	128-131	
26563827-6	2015	The TTF-coating further stabilized the Fe3O4 NPs against deep oxidation and allowed I2-doping to increase electron conduction, making it possible to measure MR of the NP assembly at low temperature (<100 K).	ferryl iron	39-44	ras homolog family member H	Homo sapiens	4-7	
26563827-7	2015	The TTF-COO-coating provides a viable way for producing stable magnetic Fe3O4 NP assemblies with controlled electron transport and MR for spintronics applications.	ferryl iron	72-77	ras homolog family member H	Homo sapiens	4-7	
27271347-1	2016	We report a facile approach to stabilize Fe3O4 nanoparticles (NPs) by using tetrathiafulvalene carboxylate (TTF-COO(-)) and to control electron transport with an enhanced magnetoresistance (MR) effect in TTF-COO-Fe3O4 NP assemblies.	ferryl iron	41-46	ras homolog family member H	Homo sapiens	108-111	
27271347-1	2016	We report a facile approach to stabilize Fe3O4 nanoparticles (NPs) by using tetrathiafulvalene carboxylate (TTF-COO(-)) and to control electron transport with an enhanced magnetoresistance (MR) effect in TTF-COO-Fe3O4 NP assemblies.	ferryl iron	41-46	ras homolog family member H	Homo sapiens	204-207	
27271347-1	2016	We report a facile approach to stabilize Fe3O4 nanoparticles (NPs) by using tetrathiafulvalene carboxylate (TTF-COO(-)) and to control electron transport with an enhanced magnetoresistance (MR) effect in TTF-COO-Fe3O4 NP assemblies.	ferryl iron	212-217	ras homolog family member H	Homo sapiens	108-111	
27271347-2	2016	This TTF-COO-coating is advantageous over other conventional organic coatings, making it possible to develop stable Fe3O4 NP arrays for sensitive spintronics applications.	ferryl iron	116-121	ras homolog family member H	Homo sapiens	5-8