PMID-sentid	Pub_year	Sent_text	compound_name	comp_offset	prot_official_name	organism	prot_offset
34927885-7	2021	Interestingly, the oxygen electrode activity (DeltaE) for (Fe,Co)-SA/CS and commercial Pt/C-RuO2 is calculated to be 0.73 V, exhibiting the bifunctional catalytic activity of (Fe,Co)-SA/CS.	ruthenium dioxide	92-96	citrate synthase	Homo sapiens	69-71
34913578-3	2022	The as-fabricated electrode of CoP@CF-900, when used as both the cathode and anode for overall water splitting, is able to deliver 200 mA cm-2 at a cell voltage of 1.89 V, significantly outshining the Pt/C  RuO2 couple; when used as the air cathode for a zinc-air battery, is able to operate more than 150 h at 10 mA cm-2 with a nearly constant round-trip energy efficiency of  60%, also outperforming the Pt/C+RuO2 benchmark.	ruthenium dioxide	207-211	caspase recruitment domain family member 16	Homo sapiens	31-34
34862380-4	2021	Using RuO2 as a representative compensated antiferromagnet exhibiting spin-independent conductance along the (001) direction but a non-spin-degenerate Fermi surface, we design a RuO2/TiO2/RuO2 (001) AFMTJ, where a globally spin-neutral charge current is controlled by the relative orientation of the Neel vectors of the two RuO2 electrodes, resulting in the TMR effect as large as ~500%.	ruthenium dioxide	6-10	spindlin 1	Homo sapiens	70-74
34862380-4	2021	Using RuO2 as a representative compensated antiferromagnet exhibiting spin-independent conductance along the (001) direction but a non-spin-degenerate Fermi surface, we design a RuO2/TiO2/RuO2 (001) AFMTJ, where a globally spin-neutral charge current is controlled by the relative orientation of the Neel vectors of the two RuO2 electrodes, resulting in the TMR effect as large as ~500%.	ruthenium dioxide	6-10	spindlin 1	Homo sapiens	135-139
34862380-4	2021	Using RuO2 as a representative compensated antiferromagnet exhibiting spin-independent conductance along the (001) direction but a non-spin-degenerate Fermi surface, we design a RuO2/TiO2/RuO2 (001) AFMTJ, where a globally spin-neutral charge current is controlled by the relative orientation of the Neel vectors of the two RuO2 electrodes, resulting in the TMR effect as large as ~500%.	ruthenium dioxide	6-10	spindlin 1	Homo sapiens	223-227
34862380-4	2021	Using RuO2 as a representative compensated antiferromagnet exhibiting spin-independent conductance along the (001) direction but a non-spin-degenerate Fermi surface, we design a RuO2/TiO2/RuO2 (001) AFMTJ, where a globally spin-neutral charge current is controlled by the relative orientation of the Neel vectors of the two RuO2 electrodes, resulting in the TMR effect as large as ~500%.	ruthenium dioxide	178-182	spindlin 1	Homo sapiens	70-74
34862380-4	2021	Using RuO2 as a representative compensated antiferromagnet exhibiting spin-independent conductance along the (001) direction but a non-spin-degenerate Fermi surface, we design a RuO2/TiO2/RuO2 (001) AFMTJ, where a globally spin-neutral charge current is controlled by the relative orientation of the Neel vectors of the two RuO2 electrodes, resulting in the TMR effect as large as ~500%.	ruthenium dioxide	178-182	spindlin 1	Homo sapiens	135-139
34862380-4	2021	Using RuO2 as a representative compensated antiferromagnet exhibiting spin-independent conductance along the (001) direction but a non-spin-degenerate Fermi surface, we design a RuO2/TiO2/RuO2 (001) AFMTJ, where a globally spin-neutral charge current is controlled by the relative orientation of the Neel vectors of the two RuO2 electrodes, resulting in the TMR effect as large as ~500%.	ruthenium dioxide	178-182	spindlin 1	Homo sapiens	223-227
34862380-4	2021	Using RuO2 as a representative compensated antiferromagnet exhibiting spin-independent conductance along the (001) direction but a non-spin-degenerate Fermi surface, we design a RuO2/TiO2/RuO2 (001) AFMTJ, where a globally spin-neutral charge current is controlled by the relative orientation of the Neel vectors of the two RuO2 electrodes, resulting in the TMR effect as large as ~500%.	ruthenium dioxide	188-192	spindlin 1	Homo sapiens	70-74
34862380-4	2021	Using RuO2 as a representative compensated antiferromagnet exhibiting spin-independent conductance along the (001) direction but a non-spin-degenerate Fermi surface, we design a RuO2/TiO2/RuO2 (001) AFMTJ, where a globally spin-neutral charge current is controlled by the relative orientation of the Neel vectors of the two RuO2 electrodes, resulting in the TMR effect as large as ~500%.	ruthenium dioxide	188-192	spindlin 1	Homo sapiens	135-139
34862380-4	2021	Using RuO2 as a representative compensated antiferromagnet exhibiting spin-independent conductance along the (001) direction but a non-spin-degenerate Fermi surface, we design a RuO2/TiO2/RuO2 (001) AFMTJ, where a globally spin-neutral charge current is controlled by the relative orientation of the Neel vectors of the two RuO2 electrodes, resulting in the TMR effect as large as ~500%.	ruthenium dioxide	188-192	spindlin 1	Homo sapiens	223-227
34862380-4	2021	Using RuO2 as a representative compensated antiferromagnet exhibiting spin-independent conductance along the (001) direction but a non-spin-degenerate Fermi surface, we design a RuO2/TiO2/RuO2 (001) AFMTJ, where a globally spin-neutral charge current is controlled by the relative orientation of the Neel vectors of the two RuO2 electrodes, resulting in the TMR effect as large as ~500%.	ruthenium dioxide	324-328	spindlin 1	Homo sapiens	70-74
34862380-4	2021	Using RuO2 as a representative compensated antiferromagnet exhibiting spin-independent conductance along the (001) direction but a non-spin-degenerate Fermi surface, we design a RuO2/TiO2/RuO2 (001) AFMTJ, where a globally spin-neutral charge current is controlled by the relative orientation of the Neel vectors of the two RuO2 electrodes, resulting in the TMR effect as large as ~500%.	ruthenium dioxide	324-328	spindlin 1	Homo sapiens	135-139
34862380-4	2021	Using RuO2 as a representative compensated antiferromagnet exhibiting spin-independent conductance along the (001) direction but a non-spin-degenerate Fermi surface, we design a RuO2/TiO2/RuO2 (001) AFMTJ, where a globally spin-neutral charge current is controlled by the relative orientation of the Neel vectors of the two RuO2 electrodes, resulting in the TMR effect as large as ~500%.	ruthenium dioxide	324-328	spindlin 1	Homo sapiens	223-227
34475400-2	2021	Herein, we synthesize atomically dispersed platinum on ruthenium oxide (Pt1/RuO2) using a simple impregnation-adsorption method.	ruthenium dioxide	55-70	zinc finger protein 77	Homo sapiens	72-75
34475400-2	2021	Herein, we synthesize atomically dispersed platinum on ruthenium oxide (Pt1/RuO2) using a simple impregnation-adsorption method.	ruthenium dioxide	76-80	zinc finger protein 77	Homo sapiens	72-75
34927885-7	2021	Interestingly, the oxygen electrode activity (DeltaE) for (Fe,Co)-SA/CS and commercial Pt/C-RuO2 is calculated to be 0.73 V, exhibiting the bifunctional catalytic activity of (Fe,Co)-SA/CS.	ruthenium dioxide	92-96	citrate synthase	Homo sapiens	186-188
33983707-4	2021	From the series of MPX3, CoPS3 yields the best results with an overpotential within the range of values usually obtained for IrO2 or RuO2 catalysts.	ruthenium dioxide	133-137	COP9 signalosome subunit 3	Homo sapiens	25-30
35231478-0	2022	Electrocatalytic oxidation of low concentration cefotaxime sodium wastewater using Ti/SnO2-RuO2 electrode: Feasibility analysis and degradation mechanism.	ruthenium dioxide	91-95	strawberry notch homolog 1	Homo sapiens	86-89
35231478-7	2022	Therefore, the electrocatalytic oxidation of Ti/SnO2-RuO2 electrode was a clean and efficient technology, which could be widely used in the treatment of CFX wastewater.	ruthenium dioxide	53-57	strawberry notch homolog 1	Homo sapiens	48-51
35512266-5	2022	The electrochemical tests manifest that CoS-5 show an overpotential of 290 mV at 10 mA cm-2 and a Tafel slope of 65.6 mV dec-1 in the OER in an alkaline solution, superior to those for other thicknesses of CoS, bulk CoS, and RuO2.	ruthenium dioxide	225-229	zinc finger protein 69	Homo sapiens	40-45
32830455-5	2020	As a result of this OER-conditioned surface reconstruction, the optimized catalyst requires an overpotential of only 285 mV at a current density of 10 mA cm-2 with a Tafel slope of 34 mV dec-1 , outperforming commercial RuO2 catalysts.	ruthenium dioxide	220-224	deleted in esophageal cancer 1	Homo sapiens	187-192
33977662-5	2021	Specially, PA2-Fe-MoS2 grown on nickel foam (PA2-Fe-MoS2/NF) exhibits excellent OER activity (218 mV@20 mA cm-2) and durability, even superior to RuO2 and many other previously reported OER catalysts.	ruthenium dioxide	146-150	neurofascin	Homo sapiens	57-59
32916576-6	2021	Consequently, the 10% Fe-Co2(OH)3Cl exhibits a superior OER activity with a lower overpotential of 273 mV at 10 mA cm-2 (after 500 CV cycles) along with an excellent stability as compared with commercial RuO2.	ruthenium dioxide	204-208	complement C2	Homo sapiens	25-28
33113663-0	2020	Thermal decomposition based fabrication of dimensionally stable Ti/SnO2-RuO2 anode for highly efficient electrocatalytic degradation of alizarin cyanin green.	ruthenium dioxide	72-76	strawberry notch homolog 1	Homo sapiens	67-70
33113663-2	2020	The morphology, crystal structure and composition of Ti/SnO2-RuO2 electrode are characterized by scanning electron microscopy (SEM), X-ray diffraction (XRD) and X-ray fluorescence spectroscopy (XRF), respectively.	ruthenium dioxide	61-65	strawberry notch homolog 1	Homo sapiens	56-59
33570389-3	2021	Due to the abundant catalytically active sites, promoting electron conduction/mass transmission from the specific micro-nano structure, as well as the ultrasmall thickness of ~3.0 nm, the optimized alpha-Ni(OH)2/NF self-supporting electrode exhibits excellent electrocatalytic performance for OER, merely requiring low overpotentials of 192 and 240 mV to yield current densities of 10 and 100 mA cm-2 in 1.0 M KOH, respectively, which surpassed those of all of the reported nickel hydroxide/oxides and the benchmark RuO2.	ruthenium dioxide	516-520	neurofascin	Homo sapiens	212-214
32558533-3	2020	The NiS/Fe3O4 HNPs@CNT hybrid delivers superior OER activity in al-kaline medium: it delivers a current density of 10 mA cm-2 at ultralow low overpotential of 243 mV with a small Tafel slope of 44.2 mV dec-1, which outperforms the benchmark RuO2 electrocatalyst; moreover, it exhibits terrific long-term stability over 36 h without any noticeable performance decay.	ruthenium dioxide	241-245	solute carrier family 5 member 5	Homo sapiens	4-7
32558533-3	2020	The NiS/Fe3O4 HNPs@CNT hybrid delivers superior OER activity in al-kaline medium: it delivers a current density of 10 mA cm-2 at ultralow low overpotential of 243 mV with a small Tafel slope of 44.2 mV dec-1, which outperforms the benchmark RuO2 electrocatalyst; moreover, it exhibits terrific long-term stability over 36 h without any noticeable performance decay.	ruthenium dioxide	241-245	deleted in esophageal cancer 1	Homo sapiens	202-207
32311236-5	2020	Furthermore, O-Co0.5 Mo0.5 Se2 air cathode-based zinc-air batteries exhibit an excellent power density of 120.28 mW cm-2 and exceptional cycling stability for 60 h, superior to those of state-of-art Pt/C+RuO2 pair-based zinc-air batteries.	ruthenium dioxide	204-208	fucosyltransferase 2	Homo sapiens	27-30
32509491-4	2020	Ni/CTF-1-600 requires 374 mV overpotential in OER to reach 10 mA/cm2, which outperforms the benchmark RuO2 catalyst, which requires 403 mV under the same conditions.	ruthenium dioxide	102-106	cardiotrophin 1	Homo sapiens	3-8
30684751-3	2019	Electrochemical measurements indicate that as-obtained NOC-800 sample has satisfactory multifunctional oxygen-involving electrocatalytic properties in alkaline media, showing an onset and half-wave potential of -0.141 and -0.249 V vs. Ag/AgCl for oxygen reduction and an overpotential of 377 and 448 mV at 10 and 50 mA cm-2 for electrocatalytic oxygen evolution, respectively, even comparable to commercial RuO2 catalyst and majority of present mainstream metal-free catalysts.	ruthenium dioxide	407-411	nocturnin	Homo sapiens	55-58
32296963-2	2020	The electrocatalytic performance evaluations show that the as-prepared electrocatalyst exhibits an overpotential of 342 mV at current density of 10 mA cm-2 and the Tafel slope of 74 mV dec-1 for oxygen evolution reaction (OER), which is superior to the most advanced ruthenium oxide electrocatalyst.	ruthenium dioxide	267-282	deleted in esophageal cancer 1	Homo sapiens	185-190
31215575-5	2019	Moreover, the MOF shows higher durability with >70% performance retention after 25 hours of reaction and tolerance towards methanol; this demonstrates its potential for application in direct methanol fuel cells (DMFCs); furthermore, due to the availability of more active sites and accessible surface area, the Co-MOF performs well towards the OER with lower onset potential and small Tafel slope as compared to the commercial RuO2 nanoparticles.	ruthenium dioxide	430-434	lysine acetyltransferase 8	Homo sapiens	14-17
31215575-7	2019	It shows the high TOF value of 93.21 s-1 at the overpotential of 350 mV as compared to the reported MOF/nanoparticle-based electrocatalysts and the state-of-the-art RuO2.	ruthenium dioxide	165-169	lysine acetyltransferase 8	Homo sapiens	100-103
31140732-7	2019	More importantly, the Co/Cox My +Pt/C achieves higher voltaic efficiency and several times longer cycle life than conventional RuO2 +Pt/C catalysts in rechargeable Zn-air batteries.	ruthenium dioxide	127-131	cytochrome c oxidase subunit 8A	Homo sapiens	25-28
32280875-3	2020	The synthesized codoped RuO2 with a Mn/Fe molar ratio of 1 reflected a Tafel slope of only 41 mV dec-1, which is appreciably lower than 64 mV dec-1 for pure RuO2.	ruthenium dioxide	24-28	deleted in esophageal cancer 1	Homo sapiens	97-102
32280875-3	2020	The synthesized codoped RuO2 with a Mn/Fe molar ratio of 1 reflected a Tafel slope of only 41 mV dec-1, which is appreciably lower than 64 mV dec-1 for pure RuO2.	ruthenium dioxide	24-28	deleted in esophageal cancer 1	Homo sapiens	142-147
30902984-4	2019	Specifically we demonstrate a MOF-confined RuO2 catalyst (RuO2@MOF-808-P) with exceptionally high catalytic CO oxidation below 150  C as compared to the conventionally made SiO2-supported RuO2 (RuO2/SiO2).	ruthenium dioxide	58-62	lysine acetyltransferase 8	Homo sapiens	63-66
32254471-3	2018	The quantitative detection of matrix metalloproteinase-2 (MMP-2) (bio-marker for stroke and vascular diseases) was demonstrated by tracking the spectral shift of the characteristic G band of graphene caused by the adsorption of RuO2 NPs.	ruthenium dioxide	228-232	matrix metallopeptidase 2	Homo sapiens	30-56
30043787-4	2018	Based on CP 1, a device FTO/CP 1/RuO2 was constructed, which showed a much enhanced photoresponse with a much larger specific capacity (120.7 C g-1) than the individual CP 1 (<1 C g-1) and RuO2 (10.5 C g-1) when irradiated by visible light in the presence of methanol.	ruthenium dioxide	33-37	FTO alpha-ketoglutarate dependent dioxygenase	Homo sapiens	24-27
30043787-4	2018	Based on CP 1, a device FTO/CP 1/RuO2 was constructed, which showed a much enhanced photoresponse with a much larger specific capacity (120.7 C g-1) than the individual CP 1 (<1 C g-1) and RuO2 (10.5 C g-1) when irradiated by visible light in the presence of methanol.	ruthenium dioxide	192-196	FTO alpha-ketoglutarate dependent dioxygenase	Homo sapiens	24-27
30902984-4	2019	Specifically we demonstrate a MOF-confined RuO2 catalyst (RuO2@MOF-808-P) with exceptionally high catalytic CO oxidation below 150  C as compared to the conventionally made SiO2-supported RuO2 (RuO2/SiO2).	ruthenium dioxide	43-47	lysine acetyltransferase 8	Homo sapiens	30-33
30902984-4	2019	Specifically we demonstrate a MOF-confined RuO2 catalyst (RuO2@MOF-808-P) with exceptionally high catalytic CO oxidation below 150  C as compared to the conventionally made SiO2-supported RuO2 (RuO2/SiO2).	ruthenium dioxide	43-47	lysine acetyltransferase 8	Homo sapiens	63-66
30902984-4	2019	Specifically we demonstrate a MOF-confined RuO2 catalyst (RuO2@MOF-808-P) with exceptionally high catalytic CO oxidation below 150  C as compared to the conventionally made SiO2-supported RuO2 (RuO2/SiO2).	ruthenium dioxide	58-62	lysine acetyltransferase 8	Homo sapiens	30-33
30902984-4	2019	Specifically we demonstrate a MOF-confined RuO2 catalyst (RuO2@MOF-808-P) with exceptionally high catalytic CO oxidation below 150  C as compared to the conventionally made SiO2-supported RuO2 (RuO2/SiO2).	ruthenium dioxide	58-62	lysine acetyltransferase 8	Homo sapiens	63-66
30902984-4	2019	Specifically we demonstrate a MOF-confined RuO2 catalyst (RuO2@MOF-808-P) with exceptionally high catalytic CO oxidation below 150  C as compared to the conventionally made SiO2-supported RuO2 (RuO2/SiO2).	ruthenium dioxide	58-62	lysine acetyltransferase 8	Homo sapiens	30-33
30902984-4	2019	Specifically we demonstrate a MOF-confined RuO2 catalyst (RuO2@MOF-808-P) with exceptionally high catalytic CO oxidation below 150  C as compared to the conventionally made SiO2-supported RuO2 (RuO2/SiO2).	ruthenium dioxide	58-62	lysine acetyltransferase 8	Homo sapiens	63-66
30902984-4	2019	Specifically we demonstrate a MOF-confined RuO2 catalyst (RuO2@MOF-808-P) with exceptionally high catalytic CO oxidation below 150  C as compared to the conventionally made SiO2-supported RuO2 (RuO2/SiO2).	ruthenium dioxide	58-62	lysine acetyltransferase 8	Homo sapiens	30-33
30902984-5	2019	This can be caused by weaker interactions between CO/O and the MOF-encapsulated RuO2 surface thus avoiding adsorption-induced catalytic surface passivation.	ruthenium dioxide	80-84	lysine acetyltransferase 8	Homo sapiens	63-66
30398084-1	2018	AIM: To study of the interactions of two new ruthenium(II) complexes (C1 and C2) with calf thymus (CT)-DNA; production of RuO2 nanoparticles using the complexes precursor.	ruthenium dioxide	122-126	complement C2	Bos taurus	70-79
32254471-3	2018	The quantitative detection of matrix metalloproteinase-2 (MMP-2) (bio-marker for stroke and vascular diseases) was demonstrated by tracking the spectral shift of the characteristic G band of graphene caused by the adsorption of RuO2 NPs.	ruthenium dioxide	228-232	matrix metallopeptidase 2	Homo sapiens	58-63
28868759-4	2017	The iron oxide nanocarbon electrocatalyst performances are highlighted by the overall overpotential of approximately 1 V needed to reach the benchmark threshold of 10 mA cm-2 for the oxygen reduction reaction and the particular activity towards oxygen evolution reaction (eta 0.4 V at 10 mA cm-2 ), comparable to that of the precious RuO2 and IrO2 catalysts.	ruthenium dioxide	334-338	endothelin receptor type A	Homo sapiens	272-275
29215259-4	2018	As for the chemical/aging stability, the hybrid TCF of Ag NW and TiO2 NS reveals a retained initial conductivity (DeltaRs/Rs < 1%) under ambient oxidant gas over a month, superior to that of bare Ag NW (DeltaRs/Rs > 4000%) or RuO2 NS-Ag NW hybrid (DeltaRs/Rs > 200%).	ruthenium dioxide	232-236	hepatocyte nuclear factor 4 alpha	Homo sapiens	48-51
29201620-4	2017	By integrating the catalytically active CoFe2O4 nanoparticles with the N-doped carbon nanofibers, the as-synthesized CoFe2O4@N-CNF nanohybrid manifests superior OER performance with a low overpotential, a large current density, a small Tafel slope, and long-term durability in alkaline solution, outperforming the single component counterparts (pure CoFe2O4 and N-doped carbon nanofibers) and the commercial RuO2 catalyst.	ruthenium dioxide	408-412	NPHS1 adhesion molecule, nephrin	Homo sapiens	127-130
28006096-2	2017	When an electrically contiguous ~9 nm thick RuO2 nanoskin is expressed on commercially available, insulating SiO2 fiber paper, the RuO2@SiO2 electrode exhibits high current density at low overpotential (10 mA cm-2 @ eta = 280 mV), courtesy of a catalyst amplified in 3D; however, the mass-normalized activity falls short of that achieved for films deposited on planar, metallic substrates (Ti foil).	ruthenium dioxide	44-48	endothelin receptor type A	Homo sapiens	216-219
28006096-2	2017	When an electrically contiguous ~9 nm thick RuO2 nanoskin is expressed on commercially available, insulating SiO2 fiber paper, the RuO2@SiO2 electrode exhibits high current density at low overpotential (10 mA cm-2 @ eta = 280 mV), courtesy of a catalyst amplified in 3D; however, the mass-normalized activity falls short of that achieved for films deposited on planar, metallic substrates (Ti foil).	ruthenium dioxide	131-135	endothelin receptor type A	Homo sapiens	216-219
28006096-3	2017	By wrapping the fibers with a <100 nm thick graphitic carbon layer prior to RuO2 deposition (RuO2@C@SiO2), we retain the high mass activity of the RuO2 (40-60 mA mg-1 @ eta = 330 mV) and preserve the desirable macroscale properties of the 3D scaffold: porous, lightweight, flexible, and inexpensive.	ruthenium dioxide	79-83	endothelin receptor type A	Homo sapiens	114-117
28006096-3	2017	By wrapping the fibers with a <100 nm thick graphitic carbon layer prior to RuO2 deposition (RuO2@C@SiO2), we retain the high mass activity of the RuO2 (40-60 mA mg-1 @ eta = 330 mV) and preserve the desirable macroscale properties of the 3D scaffold: porous, lightweight, flexible, and inexpensive.	ruthenium dioxide	96-100	endothelin receptor type A	Homo sapiens	114-117
28006096-3	2017	By wrapping the fibers with a <100 nm thick graphitic carbon layer prior to RuO2 deposition (RuO2@C@SiO2), we retain the high mass activity of the RuO2 (40-60 mA mg-1 @ eta = 330 mV) and preserve the desirable macroscale properties of the 3D scaffold: porous, lightweight, flexible, and inexpensive.	ruthenium dioxide	96-100	endothelin receptor type A	Homo sapiens	114-117
24663242-3	2014	Here, we report a simple and scalable way of preparing a three-dimensional (3D) sub-5 nm hydrous ruthenium oxide (RuO2) anchored graphene and CNT hybrid foam (RGM) architecture for high-performance supercapacitor electrodes.	ruthenium dioxide	97-112	repulsive guidance molecule BMP co-receptor a	Homo sapiens	159-162
27700048-3	2016	Herein, we report growth of one-dimensional highly crystalline RuO2 nanowires on carbon nitride (1D-RuO2-CNx) for their applications in HER and OER at all pH values.	ruthenium dioxide	63-67	calnexin	Homo sapiens	105-108
27700048-6	2016	The mass activity of 1D-RuO2-CNx catalyst is 352 mA mg-1, which is ~14 times higher than that of commercial RuO2.	ruthenium dioxide	24-28	calnexin	Homo sapiens	29-32
27700048-7	2016	Most importantly, the 1D-RuO2-CNx catalyst has remarkably higher stability compared to commercial RuO2.	ruthenium dioxide	25-29	calnexin	Homo sapiens	30-33
27700048-12	2016	This superior catalytic activity of 1D-RuO2-CNx composite can be attributed to catalyst-support interaction, enhanced mass and electron transport, one-dimensional morphology, and highly crystalline rutile RuO2 structure.	ruthenium dioxide	39-43	calnexin	Homo sapiens	44-47
27440473-2	2016	Impressively, this noble-metal-free 3 D Cu(OH)2 -NWAs/Cu foil electrode shows the highest catalytic activity with a Tafel slope of 86 mV dec(-1) , an overpotential (eta) of about 530 mV at ~10 mA cm(-2) (controlled-potential electrolysis method without iR correction) and almost 100 % Faradic efficiency, paralleling the performance of the state-of-the-art RuO2 OER catalyst in 0.1 m NaOH solution (pH 12.8).	ruthenium dioxide	357-361	deleted in esophageal cancer 1	Homo sapiens	137-143
27440473-2	2016	Impressively, this noble-metal-free 3 D Cu(OH)2 -NWAs/Cu foil electrode shows the highest catalytic activity with a Tafel slope of 86 mV dec(-1) , an overpotential (eta) of about 530 mV at ~10 mA cm(-2) (controlled-potential electrolysis method without iR correction) and almost 100 % Faradic efficiency, paralleling the performance of the state-of-the-art RuO2 OER catalyst in 0.1 m NaOH solution (pH 12.8).	ruthenium dioxide	357-361	endothelin receptor type A	Homo sapiens	26-29
24663242-3	2014	Here, we report a simple and scalable way of preparing a three-dimensional (3D) sub-5 nm hydrous ruthenium oxide (RuO2) anchored graphene and CNT hybrid foam (RGM) architecture for high-performance supercapacitor electrodes.	ruthenium dioxide	114-118	repulsive guidance molecule BMP co-receptor a	Homo sapiens	159-162
24663242-4	2014	This RGM architecture demonstrates a novel graphene foam conformally covered with hybrid networks of RuO2 nanoparticles and anchored CNTs.	ruthenium dioxide	101-105	repulsive guidance molecule BMP co-receptor a	Homo sapiens	5-8
22742810-1	2012	A non-enzymatic glucose sensor of multi-walled carbon nanotube-ruthenium oxide/composite paste electrode (MWCNT-RuO(2)/CPE) was developed.	ruthenium dioxide	63-78	carboxypeptidase E	Homo sapiens	119-122
17386417-1	2007	A bilayer surface coating, prepared by electrodepositing ruthenium oxide (RuOx) onto a carbon nanotube (CNT) layer, offers dramatic improvements in the stability and sensitivity of voltammetric and amperometric measurements of insulin compared to the individual (CNT or RuOx) coated electrodes.	ruthenium dioxide	57-72	insulin	Homo sapiens	227-234
17386417-1	2007	A bilayer surface coating, prepared by electrodepositing ruthenium oxide (RuOx) onto a carbon nanotube (CNT) layer, offers dramatic improvements in the stability and sensitivity of voltammetric and amperometric measurements of insulin compared to the individual (CNT or RuOx) coated electrodes.	ruthenium dioxide	74-78	insulin	Homo sapiens	227-234
16910042-0	2006	Determination of catalase-like activity in plants based on the amperometric monitoring of hydrogen peroxide consumption using a carbon paste electrode modified with ruthenium(IV) Oxide.	ruthenium dioxide	165-184	catalase	Homo sapiens	17-25
16491497-3	2006	Oxidation of PEG-1 by m-CPBA in CH(2)Cl(2), dioxane, or water afforded a water-soluble PEG-supported dioxoruthenium(VI) porphyrin (PEG-2), which could react with hydrocarbons to give oxidation products in up to 80 % yield.	ruthenium dioxide	101-115	mesoderm specific transcript	Homo sapiens	13-18
11248902-3	2001	The glucose probe is based on the biocatalytic action of glucose oxidase, and the insulin one relies on the electrocatalytic activity of ruthenium oxide.	ruthenium dioxide	137-152	insulin	Homo sapiens	82-89
15038276-6	2004	In contrast to the RuO2(110) surface, the RuO2(100) surface stabilizes also a catalytically inactive c(2 x 2) surface phase onto which CO is not able to adsorb above 100 K. We argue that this inactive RuO2(100)-c(2 x 2) phase may play an important role in the deactivation of RuO2 catalysts in the electrochemical Cl2 evolution and other heterogeneous reactions.	ruthenium dioxide	42-46	endogenous retrovirus group W member 5	Homo sapiens	314-317
15038276-6	2004	In contrast to the RuO2(110) surface, the RuO2(100) surface stabilizes also a catalytically inactive c(2 x 2) surface phase onto which CO is not able to adsorb above 100 K. We argue that this inactive RuO2(100)-c(2 x 2) phase may play an important role in the deactivation of RuO2 catalysts in the electrochemical Cl2 evolution and other heterogeneous reactions.	ruthenium dioxide	42-46	endogenous retrovirus group W member 5	Homo sapiens	314-317
15038276-6	2004	In contrast to the RuO2(110) surface, the RuO2(100) surface stabilizes also a catalytically inactive c(2 x 2) surface phase onto which CO is not able to adsorb above 100 K. We argue that this inactive RuO2(100)-c(2 x 2) phase may play an important role in the deactivation of RuO2 catalysts in the electrochemical Cl2 evolution and other heterogeneous reactions.	ruthenium dioxide	42-46	endogenous retrovirus group W member 5	Homo sapiens	314-317