PMID-sentid	Pub_year	Sent_text	comp_official_name	comp_offset	protein_name	organism	prot_offset
32964599-4	2021	Here, as a proof-of-concept, we presented a combination of theoretical and experimental investigation to certify that nickel diphosphide phase-junction (c-NiP 2 /m-NiP2 ) is an effective electrocatalyst for hydrogen production in alkaline media.	nickel diphosphide	118-136	BCL2 interacting protein 2	Homo sapiens	164-168
32964599-4	2021	Here, as a proof-of-concept, we presented a combination of theoretical and experimental investigation to certify that nickel diphosphide phase-junction (c-NiP 2 /m-NiP2 ) is an effective electrocatalyst for hydrogen production in alkaline media.	Hydrogen	207-215	BCL2 interacting protein 2	Homo sapiens	164-168
32964599-5	2021	The overpotential (at 10 mA cm -2 ) for NiP2-650 (c/m ) in alkaline media could be significantly reduced by 26% and 96% compared with c-NiP2 and m-NiP2 , respectively.	alkaline media	59-73	BCL2 interacting protein 2	Homo sapiens	40-44
32789168-6	2020	Upon nocodazole-induced microtubule disassembly, the interaction between BNIP-2 and GEF-H1 increases, while knockdown of BNIP-2 reduces RhoA activation and cell rounding via uncoupling RhoA-GEF-H1 interaction.	Nocodazole	5-15	BCL2 interacting protein 2	Homo sapiens	73-79
32787258-1	2020	A photochemically crushable and regenerative metal-organic framework (DTEMOF) was developed by complexation of photochromic ligand PyDTEopen and 5-nitroisophthalate (nip2-) with Cd2+ in DMF/MeOH.	Metals	45-50	BCL2 interacting protein 2	Homo sapiens	166-170
32787258-1	2020	A photochemically crushable and regenerative metal-organic framework (DTEMOF) was developed by complexation of photochromic ligand PyDTEopen and 5-nitroisophthalate (nip2-) with Cd2+ in DMF/MeOH.	5-nitroisophthalic acid	145-164	BCL2 interacting protein 2	Homo sapiens	166-170
32787258-1	2020	A photochemically crushable and regenerative metal-organic framework (DTEMOF) was developed by complexation of photochromic ligand PyDTEopen and 5-nitroisophthalate (nip2-) with Cd2+ in DMF/MeOH.	Dimethylformamide	186-189	BCL2 interacting protein 2	Homo sapiens	166-170
32787258-1	2020	A photochemically crushable and regenerative metal-organic framework (DTEMOF) was developed by complexation of photochromic ligand PyDTEopen and 5-nitroisophthalate (nip2-) with Cd2+ in DMF/MeOH.	Methanol	190-194	BCL2 interacting protein 2	Homo sapiens	166-170
32789168-6	2020	Upon nocodazole-induced microtubule disassembly, the interaction between BNIP-2 and GEF-H1 increases, while knockdown of BNIP-2 reduces RhoA activation and cell rounding via uncoupling RhoA-GEF-H1 interaction.	Nocodazole	5-15	BCL2 interacting protein 2	Homo sapiens	121-127
31841300-2	2020	Herein, we report a unique bimetallic diphosphide pair (FeP2-NiP2) forming spherical nanocages encapsulated in P-doped carbon layers (FeP2-NiP2@PC) as advanced bifunctional electrocatalyst synthesized by a very facile phosphorization approach.	diphosphide	38-49	BCL2 interacting protein 2	Homo sapiens	61-65
31841300-2	2020	Herein, we report a unique bimetallic diphosphide pair (FeP2-NiP2) forming spherical nanocages encapsulated in P-doped carbon layers (FeP2-NiP2@PC) as advanced bifunctional electrocatalyst synthesized by a very facile phosphorization approach.	diphosphide	38-49	BCL2 interacting protein 2	Homo sapiens	139-143
31841300-2	2020	Herein, we report a unique bimetallic diphosphide pair (FeP2-NiP2) forming spherical nanocages encapsulated in P-doped carbon layers (FeP2-NiP2@PC) as advanced bifunctional electrocatalyst synthesized by a very facile phosphorization approach.	Carbon	119-125	BCL2 interacting protein 2	Homo sapiens	61-65
31841300-2	2020	Herein, we report a unique bimetallic diphosphide pair (FeP2-NiP2) forming spherical nanocages encapsulated in P-doped carbon layers (FeP2-NiP2@PC) as advanced bifunctional electrocatalyst synthesized by a very facile phosphorization approach.	Carbon	119-125	BCL2 interacting protein 2	Homo sapiens	139-143
31841300-3	2020	The obtained FeP2-NiP2@PC electrocatalyst exhibits an outstanding OER activity with an ultralow overpotential of 248 mV in 1 M KOH and a low overpotential of 117 mV for HER in 0.5 M H2SO4 (@10 mA cm-2).	ERBB2 protein, human	169-172	BCL2 interacting protein 2	Homo sapiens	18-22
31841300-3	2020	The obtained FeP2-NiP2@PC electrocatalyst exhibits an outstanding OER activity with an ultralow overpotential of 248 mV in 1 M KOH and a low overpotential of 117 mV for HER in 0.5 M H2SO4 (@10 mA cm-2).	bis-(3-(3',5'-di-tert-butyl-4'-hydroxyphenyl)propyl)sulfide	182-187	BCL2 interacting protein 2	Homo sapiens	18-22
31841300-6	2020	Further investigation unveils that the electrochemical activation process boosts in-situ phase transformation of phosphides and oxides to oxyhydroxides as the vital intermediates in FeP2-NiP2@PC during OER electrocatalysis.	zinc phosphide	113-123	BCL2 interacting protein 2	Homo sapiens	187-191
31841300-6	2020	Further investigation unveils that the electrochemical activation process boosts in-situ phase transformation of phosphides and oxides to oxyhydroxides as the vital intermediates in FeP2-NiP2@PC during OER electrocatalysis.	Oxides	128-134	BCL2 interacting protein 2	Homo sapiens	187-191
31841300-6	2020	Further investigation unveils that the electrochemical activation process boosts in-situ phase transformation of phosphides and oxides to oxyhydroxides as the vital intermediates in FeP2-NiP2@PC during OER electrocatalysis.	ferric hydroxide	138-151	BCL2 interacting protein 2	Homo sapiens	187-191
29741363-4	2018	In this new catalytic system, oxygen-vacancy-rich NiO provides abundant active sites for dissociation of water, and the negatively charged P species in NiP2 facilitate adsorption of hydrogen intermediates.	Hydrogen	182-190	BCL2 interacting protein 2	Homo sapiens	152-156
31922001-4	2020	To this end, we used N-induced lattice contraction to generally boost the HER catalysis of P-rich TMPs including CoP2, FeP2, NiP2, and MoP2.	Nitrogen	21-22	BCL2 interacting protein 2	Homo sapiens	125-129
30901203-4	2019	The facile synthesis of FeP2, CoP3, NiP2, and CuP2 is thermochemically driven by PCl3 formation from reactions of anhydrous metal halides and P4 vapor at 500  C. Well-crystallized micrometer-sized particles result from these solvent-free reactions.	metal halides	124-137	BCL2 interacting protein 2	Homo sapiens	36-40
30901203-5	2019	A tin flux leads to more complete reactions at lower temperature for FeP2 and enables synthesis of a monoclinic polymorph of NiP2 rather than the kinetic cubic product formed by direct reaction.	Tin	2-5	BCL2 interacting protein 2	Homo sapiens	125-129
30901203-8	2019	The catalytic activity for hydrogen evolution ordered by higher current at a fixed electrode geometric area and low onset potential is CoP3 > NiP2 (cubic and monoclinic) > FeP2 >> CuP2.	Hydrogen	27-35	BCL2 interacting protein 2	Homo sapiens	145-149
30836002-3	2019	In this work, we systematically compare the electrochemical behavior of a variety of polyphosphides bulks, discovering that the CuP2 bulks have higher initial reversible capacity (416 mAh g-1 at 0.1 A g-1) and CE (74%) compared to the FeP2, CoP3, and NiP2 bulks, which is related to the unique crystal structure of CuP2.	polyphosphides	85-99	BCL2 interacting protein 2	Homo sapiens	251-255
30836002-3	2019	In this work, we systematically compare the electrochemical behavior of a variety of polyphosphides bulks, discovering that the CuP2 bulks have higher initial reversible capacity (416 mAh g-1 at 0.1 A g-1) and CE (74%) compared to the FeP2, CoP3, and NiP2 bulks, which is related to the unique crystal structure of CuP2.	cup2	128-132	BCL2 interacting protein 2	Homo sapiens	251-255
30285280-3	2018	Here, 6 nm wall-thick Ni2 P-NiP2 hollow nanoparticle polymorphs combining metallic Ni2 P and metalloid NiP2 with observable heterointerfaces are synthesized.	ni2 p	22-27	BCL2 interacting protein 2	Homo sapiens	28-32
30285280-3	2018	Here, 6 nm wall-thick Ni2 P-NiP2 hollow nanoparticle polymorphs combining metallic Ni2 P and metalloid NiP2 with observable heterointerfaces are synthesized.	ni2 p	22-27	BCL2 interacting protein 2	Homo sapiens	103-107
30285280-6	2018	That is, the heterojunctions balance the metallic Ni2 P and the metalloid NiP2 to form an optimized phosphide polymorph catalyst for the HER.	phosphide(3-)	100-109	BCL2 interacting protein 2	Homo sapiens	74-78
29741363-0	2018	Designing Hybrid NiP2/NiO Nanorod Arrays for Efficient Alkaline Hydrogen Evolution.	Hydrogen	64-72	BCL2 interacting protein 2	Homo sapiens	17-21
29741363-4	2018	In this new catalytic system, oxygen-vacancy-rich NiO provides abundant active sites for dissociation of water, and the negatively charged P species in NiP2 facilitate adsorption of hydrogen intermediates.	Oxygen	30-36	BCL2 interacting protein 2	Homo sapiens	152-156
26238550-0	2015	Effect of Synthetic Levers on Nickel Phosphide Nanoparticle Formation: Ni5P4 and NiP2.	nickel phosphide	30-46	BCL2 interacting protein 2	Homo sapiens	81-85
27768279-0	2016	Efficient Photoelectrochemical Hydrogen Evolution on Silicon Photocathodes Interfaced with Nanostructured NiP2 Cocatalyst Films.	Hydrogen	31-39	BCL2 interacting protein 2	Homo sapiens	106-110
27768279-0	2016	Efficient Photoelectrochemical Hydrogen Evolution on Silicon Photocathodes Interfaced with Nanostructured NiP2 Cocatalyst Films.	Silicon	53-60	BCL2 interacting protein 2	Homo sapiens	106-110
27768279-4	2016	In this study, we directly grow nanostructured pyrite-phase nickel phosphide (NiP2) cocatalyst films on textured pn+-Si photocathodes via on-surface reaction at high temperatures.	nickel phosphide	60-76	BCL2 interacting protein 2	Homo sapiens	78-82
27768279-4	2016	In this study, we directly grow nanostructured pyrite-phase nickel phosphide (NiP2) cocatalyst films on textured pn+-Si photocathodes via on-surface reaction at high temperatures.	cocatalyst	84-94	BCL2 interacting protein 2	Homo sapiens	78-82
27768279-4	2016	In this study, we directly grow nanostructured pyrite-phase nickel phosphide (NiP2) cocatalyst films on textured pn+-Si photocathodes via on-surface reaction at high temperatures.	1,2-diaminopropane	113-116	BCL2 interacting protein 2	Homo sapiens	78-82
27768279-4	2016	In this study, we directly grow nanostructured pyrite-phase nickel phosphide (NiP2) cocatalyst films on textured pn+-Si photocathodes via on-surface reaction at high temperatures.	Silicon	117-119	BCL2 interacting protein 2	Homo sapiens	78-82
27768279-6	2016	As a result, our pn+-Si/Ti/NiP2 photocathodes demonstrate a great PEC onset potential of 0.41 V versus reversible hydrogen electrode (RHE), a decent photocurrent density of ~12 mA/cm2 at the thermodynamic potential of hydrogen evolution, and an impressive operation durability for at least 6 h in 0.5 M H2SO4.	Hydrogen	114-122	BCL2 interacting protein 2	Homo sapiens	27-31
27768279-6	2016	As a result, our pn+-Si/Ti/NiP2 photocathodes demonstrate a great PEC onset potential of 0.41 V versus reversible hydrogen electrode (RHE), a decent photocurrent density of ~12 mA/cm2 at the thermodynamic potential of hydrogen evolution, and an impressive operation durability for at least 6 h in 0.5 M H2SO4.	Hydrogen	218-226	BCL2 interacting protein 2	Homo sapiens	27-31
27768279-6	2016	As a result, our pn+-Si/Ti/NiP2 photocathodes demonstrate a great PEC onset potential of 0.41 V versus reversible hydrogen electrode (RHE), a decent photocurrent density of ~12 mA/cm2 at the thermodynamic potential of hydrogen evolution, and an impressive operation durability for at least 6 h in 0.5 M H2SO4.	sulfuric acid	303-308	BCL2 interacting protein 2	Homo sapiens	27-31
28544389-2	2017	A unique ball-cactus-like microsphere of carbon coated NiP2 /Ni3 Sn4 with deep-rooted carbon nanotubes (Ni-Sn-P@C-CNT) is demonstrated in this work to solve this problem.	Carbon	41-47	BCL2 interacting protein 2	Homo sapiens	55-59
28544389-2	2017	A unique ball-cactus-like microsphere of carbon coated NiP2 /Ni3 Sn4 with deep-rooted carbon nanotubes (Ni-Sn-P@C-CNT) is demonstrated in this work to solve this problem.	Carbon	86-92	BCL2 interacting protein 2	Homo sapiens	55-59
28544389-2	2017	A unique ball-cactus-like microsphere of carbon coated NiP2 /Ni3 Sn4 with deep-rooted carbon nanotubes (Ni-Sn-P@C-CNT) is demonstrated in this work to solve this problem.	ni-sn-p	104-111	BCL2 interacting protein 2	Homo sapiens	55-59
28544389-2	2017	A unique ball-cactus-like microsphere of carbon coated NiP2 /Ni3 Sn4 with deep-rooted carbon nanotubes (Ni-Sn-P@C-CNT) is demonstrated in this work to solve this problem.	Carbon	112-113	BCL2 interacting protein 2	Homo sapiens	55-59
28323408-0	2017	Monodispersed Carbon-Coated Cubic NiP2 Nanoparticles Anchored on Carbon Nanotubes as Ultra-Long-Life Anodes for Reversible Lithium Storage.	Carbon	14-20	BCL2 interacting protein 2	Homo sapiens	34-38
28323408-0	2017	Monodispersed Carbon-Coated Cubic NiP2 Nanoparticles Anchored on Carbon Nanotubes as Ultra-Long-Life Anodes for Reversible Lithium Storage.	Carbon	65-71	BCL2 interacting protein 2	Homo sapiens	34-38
28323408-0	2017	Monodispersed Carbon-Coated Cubic NiP2 Nanoparticles Anchored on Carbon Nanotubes as Ultra-Long-Life Anodes for Reversible Lithium Storage.	Lithium	123-130	BCL2 interacting protein 2	Homo sapiens	34-38
28323408-5	2017	Monodispersed carbon-coated cubic NiP2 nanoparticles anchored on carbon nanotubes (NiP2@C-CNTs) as a proof-of-concept were designed and synthesized.	Carbon	14-20	BCL2 interacting protein 2	Homo sapiens	34-38
28323408-5	2017	Monodispersed carbon-coated cubic NiP2 nanoparticles anchored on carbon nanotubes (NiP2@C-CNTs) as a proof-of-concept were designed and synthesized.	Carbon	14-20	BCL2 interacting protein 2	Homo sapiens	83-87
28323408-5	2017	Monodispersed carbon-coated cubic NiP2 nanoparticles anchored on carbon nanotubes (NiP2@C-CNTs) as a proof-of-concept were designed and synthesized.	Carbon	65-71	BCL2 interacting protein 2	Homo sapiens	34-38
26238550-1	2015	Due to their unique catalytic, electronic, and redox processes, Ni5P4 and NiP2 nanoparticles are of interest for a wide-range of applications from the hydrogen evolution reaction to energy storage (batteries); yet synthetic approaches to these materials are limited.	Hydrogen	151-159	BCL2 interacting protein 2	Homo sapiens	74-78
26238550-2	2015	In the present work, a phase-control strategy enabling the arrested-precipitation synthesis of nanoparticles of Ni5P4 and NiP2 as phase-pure samples using different Ni organometallic precursors and trioctylphosphine (TOP) is described.	TRIOCTYLPHOSPHINE	198-215	BCL2 interacting protein 2	Homo sapiens	122-126
26238550-4	2015	Notably, the 230  C intermediate step favors the ultimate formation of Ni2P and hinders further phosphidation to form Ni5P4 or NiP2 as phase-pure products.	ni2p	71-75	BCL2 interacting protein 2	Homo sapiens	127-131
25667163-4	2015	Seven minerals from the ternary Fe-Ni-P system have been identified with five of them, NiP2, Ni5P4, Ni2P, FeP and FeP2, previously unknown in nature.	fe-ni-p	32-39	BCL2 interacting protein 2	Homo sapiens	87-91
24568676-7	2014	In contrast, phosphorus-rich phosphide NiP2 is formed on Ni/CNTs and NiO/CNTs.	Phosphorus	13-23	BCL2 interacting protein 2	Homo sapiens	39-43
25472445-6	2015	The CRAL-TRIO domain of BNIP-2 specifically interacts with phosphatidylserine, and the vesicular localization of BNIP-2 requires interaction with this phospholipid.	Phospholipids	151-163	BCL2 interacting protein 2	Homo sapiens	24-30
25472445-6	2015	The CRAL-TRIO domain of BNIP-2 specifically interacts with phosphatidylserine, and the vesicular localization of BNIP-2 requires interaction with this phospholipid.	Phospholipids	151-163	BCL2 interacting protein 2	Homo sapiens	113-119
25293654-0	2014	NiP2 nanosheet arrays supported on carbon cloth: an efficient 3D hydrogen evolution cathode in both acidic and alkaline solutions.	Carbon	35-41	BCL2 interacting protein 2	Homo sapiens	0-4
25293654-0	2014	NiP2 nanosheet arrays supported on carbon cloth: an efficient 3D hydrogen evolution cathode in both acidic and alkaline solutions.	Hydrogen	65-73	BCL2 interacting protein 2	Homo sapiens	0-4
25293654-2	2014	In this communication, we develop a two-step strategy for constructing NiP2 nanosheet arrays on carbon cloth (NiP2 NS/CC).	Carbon	96-102	BCL2 interacting protein 2	Homo sapiens	71-75
25293654-2	2014	In this communication, we develop a two-step strategy for constructing NiP2 nanosheet arrays on carbon cloth (NiP2 NS/CC).	Carbon	96-102	BCL2 interacting protein 2	Homo sapiens	110-114
25293654-3	2014	As a novel 3D hydrogen evolution cathode, the NiP2 NS/CC electrode is highly active in acidic solutions and needs an overpotential of 75 and 204 mV to achieve current densities of 10 and 100 mA cm(-2), respectively, and it preserves its catalytic activity for at least 57 h. Moreover, it also operates efficiently under alkaline conditions.	Hydrogen	14-22	BCL2 interacting protein 2	Homo sapiens	46-50
34901657-0	2021	Trace Amount of NiP2 Cooperative CoMoP Nanosheets Inducing Efficient Hydrogen Evolution.	Hydrogen	69-77	BCL2 interacting protein 2	Homo sapiens	16-20
22026405-1	2011	Two novel photochromic naphthopyrans containing naphthalimide moieties (Nip1 and Nip2) were studied in solution under flash photolysis conditions, exhibiting highly photochromic response, rapid thermal bleaching rate and good fatigue-resistance.	naphthopyrans	23-36	BCL2 interacting protein 2	Homo sapiens	81-85
22026405-1	2011	Two novel photochromic naphthopyrans containing naphthalimide moieties (Nip1 and Nip2) were studied in solution under flash photolysis conditions, exhibiting highly photochromic response, rapid thermal bleaching rate and good fatigue-resistance.	Naphthalimides	48-61	BCL2 interacting protein 2	Homo sapiens	81-85
22026405-2	2011	Owing to the different N-substituted imide groups at the naphthalimide units, the thermal bleaching rate of Nip2 bearing phenyl on the naphthalimide unit is found to be approximately 2 times that of Nip1 bearing n-butyl, indicating that the photochromic properties can be modulated with introduction of different functional groups on the naphthalimide unit.	Nitrogen	23-24	BCL2 interacting protein 2	Homo sapiens	108-112
22026405-2	2011	Owing to the different N-substituted imide groups at the naphthalimide units, the thermal bleaching rate of Nip2 bearing phenyl on the naphthalimide unit is found to be approximately 2 times that of Nip1 bearing n-butyl, indicating that the photochromic properties can be modulated with introduction of different functional groups on the naphthalimide unit.	Naphthalimides	57-70	BCL2 interacting protein 2	Homo sapiens	108-112
22026405-2	2011	Owing to the different N-substituted imide groups at the naphthalimide units, the thermal bleaching rate of Nip2 bearing phenyl on the naphthalimide unit is found to be approximately 2 times that of Nip1 bearing n-butyl, indicating that the photochromic properties can be modulated with introduction of different functional groups on the naphthalimide unit.	Naphthalimides	135-148	BCL2 interacting protein 2	Homo sapiens	108-112
22026405-2	2011	Owing to the different N-substituted imide groups at the naphthalimide units, the thermal bleaching rate of Nip2 bearing phenyl on the naphthalimide unit is found to be approximately 2 times that of Nip1 bearing n-butyl, indicating that the photochromic properties can be modulated with introduction of different functional groups on the naphthalimide unit.	n-butyl	212-219	BCL2 interacting protein 2	Homo sapiens	108-112
22026405-2	2011	Owing to the different N-substituted imide groups at the naphthalimide units, the thermal bleaching rate of Nip2 bearing phenyl on the naphthalimide unit is found to be approximately 2 times that of Nip1 bearing n-butyl, indicating that the photochromic properties can be modulated with introduction of different functional groups on the naphthalimide unit.	Naphthalimides	135-148	BCL2 interacting protein 2	Homo sapiens	108-112
22026405-3	2011	In Nip1 and Nip2, the strong electron-withdrawing effect of the imide group incorporated at the naphthalimide moiety maintains several merits: (i) shifting absorption bands to longer wavelength, (ii) beneficial to an enhancement in the ratio of transoid-cis (TC) isomer and an increase in the transformation rate from transoid-trans (TT) to TC with respect to reference compound NP, and (iii) resulting in a preferable color bleaching rate and fading absolutely to their colorless state with thermal reversibility.	Naphthalimides	96-109	BCL2 interacting protein 2	Homo sapiens	12-16
22026405-3	2011	In Nip1 and Nip2, the strong electron-withdrawing effect of the imide group incorporated at the naphthalimide moiety maintains several merits: (i) shifting absorption bands to longer wavelength, (ii) beneficial to an enhancement in the ratio of transoid-cis (TC) isomer and an increase in the transformation rate from transoid-trans (TT) to TC with respect to reference compound NP, and (iii) resulting in a preferable color bleaching rate and fading absolutely to their colorless state with thermal reversibility.	Technetium	259-261	BCL2 interacting protein 2	Homo sapiens	12-16
15506981-6	2004	BPGAP1 is a novel RhoGAP that co-ordinately regulates pseudopodia and cell migration through the interplay of its BNIP-2 and Cdc42GAP homology domains serving as a homophilic/heterophilic interaction device, an enzymic RhoGAP domain that inactivates RhoA and a proline-rich region that binds the Src homology-3 domain of cortactin.	Proline	261-268	BCL2 interacting protein 2	Homo sapiens	114-120
11744098-3	2001	Among these messages we focused our attention on bnip2, which expression was inhibited by estradiol.	Estradiol	90-99	BCL2 interacting protein 2	Homo sapiens	49-54
10799524-2	2000	BNIP-2 contains many arginine residues at the carboxyl terminus, which includes the region of homology to the noncatalytic domain of Cdc42GAP, termed BNIP-2 and Cdc42GAP homology (BCH) domain.	Arginine	21-29	BCL2 interacting protein 2	Homo sapiens	0-6
10551883-0	1999	Tyrosine phosphorylation of the Bcl-2-associated protein BNIP-2 by fibroblast growth factor receptor-1 prevents its binding to Cdc42GAP and Cdc42.	Tyrosine	0-8	BCL2 interacting protein 2	Homo sapiens	57-63
10551883-4	1999	When cotransfected in 293T cells, BNIP-2 was tyrosine-phosphorylated via Flg, but their interaction was transient and could only be seen by "capture" experiments with catalytically inert kinase mutants.	Tyrosine	45-53	BCL2 interacting protein 2	Homo sapiens	34-40
10551883-5	1999	When responsive cells were challenged with basic FGF, endogenous tyrosine-phosphorylated BNIP-2 could be precipitated with a BNIP-2 antibody.	Tyrosine	65-73	BCL2 interacting protein 2	Homo sapiens	89-95
10551883-5	1999	When responsive cells were challenged with basic FGF, endogenous tyrosine-phosphorylated BNIP-2 could be precipitated with a BNIP-2 antibody.	Tyrosine	65-73	BCL2 interacting protein 2	Homo sapiens	125-131
10551883-7	1999	BNIP-2 shares a region of homology with the noncatalytic domain of Cdc42GAP, a GTPase-activating protein for the small GTP-binding molecule, Cdc42.	Guanosine Triphosphate	79-82	BCL2 interacting protein 2	Homo sapiens	0-6
10551883-10	1999	In all cases, tyrosine phosphorylation of BNIP-2 severely impaired its association with Cdc42GAP and its induced GTPase-activating protein-like activity toward Cdc42.	Tyrosine	14-22	BCL2 interacting protein 2	Homo sapiens	42-48
10954711-3	2000	Despite the lack of obvious homology to any known catalytic domains of GTPase-activating proteins (GAPs), the BCH domain of BNIP-2 bound Cdc42 and stimulated the GTPase activity via a novel arginine-patch motif similar to that employed by one contributing partner in a Cdc42 homodimer.	Arginine	190-198	BCL2 interacting protein 2	Homo sapiens	124-130
10799524-8	2000	From deletion studies, a region adjacent to the arginine patch ((288)EYV(290) on BNIP-2) and the Switch I and Rho family-specific "Insert" region on Cdc42 are involved in the binding.	Arginine	48-56	BCL2 interacting protein 2	Homo sapiens	81-87
10799524-9	2000	The results indicate that the BCH domain of BNIP-2 represents a novel GAP domain that employs an arginine patch motif similar to that of the Cdc42-homodimer.	Arginine	97-105	BCL2 interacting protein 2	Homo sapiens	44-50
21699173-0	2011	A 3D Cu(II) coordination framework with mu4-/mu2-oxalato anions and a bent dipyridyl coligand: unique zeolite-type NiP2 topological network and magnetic properties.	cu(ii)	5-11	BCL2 interacting protein 2	Homo sapiens	115-119
34825490-1	2022	The catalytic hydrogen-evolving activities of transition-metal phosphides are greatly related to the phosphorus content, but the physical origin of performance enhancement remains ambiguous, and tuning the catalytic activity of nickel phosphides (NiP2 /Ni5 P4 ) remains challenging due to unfavorable H* adsorption.	Hydrogen	14-22	BCL2 interacting protein 2	Homo sapiens	247-251
34825490-1	2022	The catalytic hydrogen-evolving activities of transition-metal phosphides are greatly related to the phosphorus content, but the physical origin of performance enhancement remains ambiguous, and tuning the catalytic activity of nickel phosphides (NiP2 /Ni5 P4 ) remains challenging due to unfavorable H* adsorption.	transition-metal phosphides	46-73	BCL2 interacting protein 2	Homo sapiens	247-251
34825490-1	2022	The catalytic hydrogen-evolving activities of transition-metal phosphides are greatly related to the phosphorus content, but the physical origin of performance enhancement remains ambiguous, and tuning the catalytic activity of nickel phosphides (NiP2 /Ni5 P4 ) remains challenging due to unfavorable H* adsorption.	Phosphorus	101-111	BCL2 interacting protein 2	Homo sapiens	247-251
34825490-1	2022	The catalytic hydrogen-evolving activities of transition-metal phosphides are greatly related to the phosphorus content, but the physical origin of performance enhancement remains ambiguous, and tuning the catalytic activity of nickel phosphides (NiP2 /Ni5 P4 ) remains challenging due to unfavorable H* adsorption.	nickel phosphides	228-245	BCL2 interacting protein 2	Homo sapiens	247-251
34825490-2	2022	Here, a strategy is introduced to integrate P-rich NiP2 and P-poor Ni5 P4 into in-plane heterostructures by anion substitution, in which P atoms at the in-plane interfaces perform as active sites to adsorb H* and thus facilitate the hydrogen evolution reaction (HER) process via modulating the electronic structure between NiP2 and Ni5 P4 .	CHEMBL2180955	67-70	BCL2 interacting protein 2	Homo sapiens	51-55
34825490-2	2022	Here, a strategy is introduced to integrate P-rich NiP2 and P-poor Ni5 P4 into in-plane heterostructures by anion substitution, in which P atoms at the in-plane interfaces perform as active sites to adsorb H* and thus facilitate the hydrogen evolution reaction (HER) process via modulating the electronic structure between NiP2 and Ni5 P4 .	CHEMBL2180955	67-70	BCL2 interacting protein 2	Homo sapiens	323-327
34825490-2	2022	Here, a strategy is introduced to integrate P-rich NiP2 and P-poor Ni5 P4 into in-plane heterostructures by anion substitution, in which P atoms at the in-plane interfaces perform as active sites to adsorb H* and thus facilitate the hydrogen evolution reaction (HER) process via modulating the electronic structure between NiP2 and Ni5 P4 .	Hydrogen	233-241	BCL2 interacting protein 2	Homo sapiens	51-55
34825490-2	2022	Here, a strategy is introduced to integrate P-rich NiP2 and P-poor Ni5 P4 into in-plane heterostructures by anion substitution, in which P atoms at the in-plane interfaces perform as active sites to adsorb H* and thus facilitate the hydrogen evolution reaction (HER) process via modulating the electronic structure between NiP2 and Ni5 P4 .	Hydrogen	233-241	BCL2 interacting protein 2	Homo sapiens	323-327
34825490-3	2022	Consequently, the NiP2 /Ni5 P4 hybrid exhibits an outstanding hydrogen-evolving activity, requiring only 30 and 76 mV to afford 10 and 100 mA cm-2 in acid, respectively.	Hydrogen	62-70	BCL2 interacting protein 2	Homo sapiens	18-22
34901657-4	2021	Studies have found that although the dosage of NiP2 is very low, its appearance has been efficient to improve the hydrogen evolution reaction (HER) performance of CoMoP, which may be induced by the synergistic effect of the two different components NiP2 and CoMoP.	Hydrogen	114-122	BCL2 interacting protein 2	Homo sapiens	47-51
34901657-4	2021	Studies have found that although the dosage of NiP2 is very low, its appearance has been efficient to improve the hydrogen evolution reaction (HER) performance of CoMoP, which may be induced by the synergistic effect of the two different components NiP2 and CoMoP.	Hydrogen	114-122	BCL2 interacting protein 2	Homo sapiens	249-253
34754002-2	2021	The prepared P-NiFe@CF catalyst consisted of Ni5P4, NiP2, and FeP with 3D flower-like P-NiFe architecture on CF.	p-nife	13-19	BCL2 interacting protein 2	Homo sapiens	52-56
35591379-6	2022	Furthermore, because of good balance between CH4 dissociation and CO2 dissociation, NiP-2/Al2O3 catalyst exhibits best resistance of carbon deposition, few carbon depositions were formed after 50 h of dry methane reforming.	Methane	45-48	BCL2 interacting protein 2	Homo sapiens	84-89
34618117-0	2021	Surviving hypoxia: aquaporin-like protein NIP2;1 mediates lactic acid transport.	Lactic Acid	58-69	BCL2 interacting protein 2	Homo sapiens	42-46
34115435-0	2021	Flower-like Spherical alpha-Ni(OH)2 Derived NiP2 as Superior Anode Material of Sodium Ion Batteries.	alpha-ni(oh)2	22-35	BCL2 interacting protein 2	Homo sapiens	44-48
34115435-0	2021	Flower-like Spherical alpha-Ni(OH)2 Derived NiP2 as Superior Anode Material of Sodium Ion Batteries.	Sodium	79-85	BCL2 interacting protein 2	Homo sapiens	44-48
34115435-3	2021	In this paper, the NiP 2 nanoparticles encapsulated in three-dimensional graphene (NiP 2 @rGO) were obtained from the flower-like sphericalalpha-Ni(OH) 2 by phosphating and carbon encapsulation processes.	Graphite	73-81	BCL2 interacting protein 2	Homo sapiens	19-24
34115435-3	2021	In this paper, the NiP 2 nanoparticles encapsulated in three-dimensional graphene (NiP 2 @rGO) were obtained from the flower-like sphericalalpha-Ni(OH) 2 by phosphating and carbon encapsulation processes.	Graphite	73-81	BCL2 interacting protein 2	Homo sapiens	83-88
34115435-3	2021	In this paper, the NiP 2 nanoparticles encapsulated in three-dimensional graphene (NiP 2 @rGO) were obtained from the flower-like sphericalalpha-Ni(OH) 2 by phosphating and carbon encapsulation processes.	Carbon	173-179	BCL2 interacting protein 2	Homo sapiens	19-24
34115435-3	2021	In this paper, the NiP 2 nanoparticles encapsulated in three-dimensional graphene (NiP 2 @rGO) were obtained from the flower-like sphericalalpha-Ni(OH) 2 by phosphating and carbon encapsulation processes.	Carbon	173-179	BCL2 interacting protein 2	Homo sapiens	83-88
34115435-4	2021	When used as a sodium-ion batteries anode material, NiP 2 @rGO composite shows excellent cycling performance (117 mA h g -1 at 10 A g -1 after 8000 cycles).	Sodium	15-21	BCL2 interacting protein 2	Homo sapiens	52-57
34115435-7	2021	The effective combination of NiP 2 nanoparticles with graphene greatly reduces the NiP 2 nanoparticles aggregation and pulverization during the discharge/charge process.	Graphite	54-62	BCL2 interacting protein 2	Homo sapiens	29-34
34115435-7	2021	The effective combination of NiP 2 nanoparticles with graphene greatly reduces the NiP 2 nanoparticles aggregation and pulverization during the discharge/charge process.	Graphite	54-62	BCL2 interacting protein 2	Homo sapiens	83-88
35469395-0	2022	Superhydrophilic/Superaerophobic Hierarchical NiP2@MoO2/Co(Ni)MoO4 Core-Shell Array Electrocatalysts for Efficient Hydrogen Production at Large Current Densities.	molybdenum dioxide	51-55	BCL2 interacting protein 2	Homo sapiens	46-50
35469395-0	2022	Superhydrophilic/Superaerophobic Hierarchical NiP2@MoO2/Co(Ni)MoO4 Core-Shell Array Electrocatalysts for Efficient Hydrogen Production at Large Current Densities.	Hydrogen	115-123	BCL2 interacting protein 2	Homo sapiens	46-50
35469395-2	2022	Herein, a hierarchical core-shell NiP2@MoO2/Co(Ni)MoO4 cuboid array electrode with superhydrophilic/superaerophobic properties is successfully fabricated and the formation mechanism of the core-shell structure is systematically investigated.	molybdenum dioxide	39-43	BCL2 interacting protein 2	Homo sapiens	34-38
35469395-2	2022	Herein, a hierarchical core-shell NiP2@MoO2/Co(Ni)MoO4 cuboid array electrode with superhydrophilic/superaerophobic properties is successfully fabricated and the formation mechanism of the core-shell structure is systematically investigated.	co(ni)moo4	44-54	BCL2 interacting protein 2	Homo sapiens	34-38
35469395-3	2022	Through an in situ partially converted gas-solid reaction during the phosphating process, Ni and Co elements are leached and rearranged to form NiP2 particles and amorphous CoO as the shell layer and the inner undecomposed Co(Ni)MoO4 crystals serve as the core layer.	Cobalt	97-99	BCL2 interacting protein 2	Homo sapiens	144-148
35469395-4	2022	Because of its seamless core-shell structure and superhydrophilicity/superaerophobicity of hierarchical cuboid arrays, NiP2@MoO2/Co(Ni)MoO4 exhibits superior HER activity in 1 M KOH with only an overpotential of 297 mV to deliver 1000 mA cm-2 and can work steadily for 650 h at 200 mA cm-2.	molybdenum dioxide	124-128	BCL2 interacting protein 2	Homo sapiens	119-123
35469395-4	2022	Because of its seamless core-shell structure and superhydrophilicity/superaerophobicity of hierarchical cuboid arrays, NiP2@MoO2/Co(Ni)MoO4 exhibits superior HER activity in 1 M KOH with only an overpotential of 297 mV to deliver 1000 mA cm-2 and can work steadily for 650 h at 200 mA cm-2.	moo4	135-139	BCL2 interacting protein 2	Homo sapiens	119-123
35469395-4	2022	Because of its seamless core-shell structure and superhydrophilicity/superaerophobicity of hierarchical cuboid arrays, NiP2@MoO2/Co(Ni)MoO4 exhibits superior HER activity in 1 M KOH with only an overpotential of 297 mV to deliver 1000 mA cm-2 and can work steadily for 650 h at 200 mA cm-2.	potassium hydroxide	178-181	BCL2 interacting protein 2	Homo sapiens	119-123
35591379-6	2022	Furthermore, because of good balance between CH4 dissociation and CO2 dissociation, NiP-2/Al2O3 catalyst exhibits best resistance of carbon deposition, few carbon depositions were formed after 50 h of dry methane reforming.	Carbon Dioxide	66-69	BCL2 interacting protein 2	Homo sapiens	84-89
35591379-6	2022	Furthermore, because of good balance between CH4 dissociation and CO2 dissociation, NiP-2/Al2O3 catalyst exhibits best resistance of carbon deposition, few carbon depositions were formed after 50 h of dry methane reforming.	Aluminum Oxide	90-95	BCL2 interacting protein 2	Homo sapiens	84-89
35591379-6	2022	Furthermore, because of good balance between CH4 dissociation and CO2 dissociation, NiP-2/Al2O3 catalyst exhibits best resistance of carbon deposition, few carbon depositions were formed after 50 h of dry methane reforming.	Carbon	133-139	BCL2 interacting protein 2	Homo sapiens	84-89
35048936-0	2022	The controlled synthesis of nitrogen and iron co-doped Ni3S2@NiP2 heterostructures for the oxygen evolution reaction and urea oxidation reaction.	Nitrogen	28-36	BCL2 interacting protein 2	Homo sapiens	61-65
35048936-0	2022	The controlled synthesis of nitrogen and iron co-doped Ni3S2@NiP2 heterostructures for the oxygen evolution reaction and urea oxidation reaction.	Iron	41-45	BCL2 interacting protein 2	Homo sapiens	61-65
35048936-0	2022	The controlled synthesis of nitrogen and iron co-doped Ni3S2@NiP2 heterostructures for the oxygen evolution reaction and urea oxidation reaction.	ni3s2	55-60	BCL2 interacting protein 2	Homo sapiens	61-65
35048936-0	2022	The controlled synthesis of nitrogen and iron co-doped Ni3S2@NiP2 heterostructures for the oxygen evolution reaction and urea oxidation reaction.	Oxygen	91-97	BCL2 interacting protein 2	Homo sapiens	61-65
35048936-0	2022	The controlled synthesis of nitrogen and iron co-doped Ni3S2@NiP2 heterostructures for the oxygen evolution reaction and urea oxidation reaction.	Urea	121-125	BCL2 interacting protein 2	Homo sapiens	61-65
35048936-2	2022	Herein, nitrogen and iron co-doped Ni3S2 and NiP2 heterostructures with high efficiency oxygen evolution reaction (OER) and urea oxidation reaction (UOR) performances were firstly successfully prepared on nickel foam by hydrothermal and high-temperature calcination methods.	Nitrogen	8-16	BCL2 interacting protein 2	Homo sapiens	45-49
35048936-2	2022	Herein, nitrogen and iron co-doped Ni3S2 and NiP2 heterostructures with high efficiency oxygen evolution reaction (OER) and urea oxidation reaction (UOR) performances were firstly successfully prepared on nickel foam by hydrothermal and high-temperature calcination methods.	Iron	21-25	BCL2 interacting protein 2	Homo sapiens	45-49
35048936-2	2022	Herein, nitrogen and iron co-doped Ni3S2 and NiP2 heterostructures with high efficiency oxygen evolution reaction (OER) and urea oxidation reaction (UOR) performances were firstly successfully prepared on nickel foam by hydrothermal and high-temperature calcination methods.	Oxygen	88-94	BCL2 interacting protein 2	Homo sapiens	45-49
35048936-2	2022	Herein, nitrogen and iron co-doped Ni3S2 and NiP2 heterostructures with high efficiency oxygen evolution reaction (OER) and urea oxidation reaction (UOR) performances were firstly successfully prepared on nickel foam by hydrothermal and high-temperature calcination methods.	Urea	124-128	BCL2 interacting protein 2	Homo sapiens	45-49
35048936-2	2022	Herein, nitrogen and iron co-doped Ni3S2 and NiP2 heterostructures with high efficiency oxygen evolution reaction (OER) and urea oxidation reaction (UOR) performances were firstly successfully prepared on nickel foam by hydrothermal and high-temperature calcination methods.	Nickel	205-211	BCL2 interacting protein 2	Homo sapiens	45-49
35048936-3	2022	Benefiting from the hierarchical structure, the exposure of more active sites and the doping effect of N and Fe, the N-Fe-Ni3S2@NiP2/NF material showed excellent electrocatalytic activity for the OER and UOR.	Nitrogen	103-104	BCL2 interacting protein 2	Homo sapiens	128-132
35048936-3	2022	Benefiting from the hierarchical structure, the exposure of more active sites and the doping effect of N and Fe, the N-Fe-Ni3S2@NiP2/NF material showed excellent electrocatalytic activity for the OER and UOR.	Iron	109-111	BCL2 interacting protein 2	Homo sapiens	128-132
35048936-3	2022	Benefiting from the hierarchical structure, the exposure of more active sites and the doping effect of N and Fe, the N-Fe-Ni3S2@NiP2/NF material showed excellent electrocatalytic activity for the OER and UOR.	n-fe-ni3s2	117-127	BCL2 interacting protein 2	Homo sapiens	128-132
35048936-4	2022	The N-Fe-Ni3S2@NiP2/NF material displays excellent catalytic OER performance; the overpotential is only 251 mV to drive 100 mA cm-2 current density, while for the UOR, the potential is only 1.353 V to drive 100 mA cm-2 current density, which is one of the best catalytic activities reported so far.	n-fe-ni3s2	4-14	BCL2 interacting protein 2	Homo sapiens	15-19
35048936-5	2022	It is worth noting that scanning electron microscopy showed that the surface of N-Fe-Ni3S2@NiP2/NF is rough and has some mesopores, which may have resulted in an increase of active sites during the electrocatalytic process.	n-fe-ni3s2	80-90	BCL2 interacting protein 2	Homo sapiens	91-95
35048936-6	2022	The N-Fe-Ni3S2@NiP2/NF electrode couple also has relatively long-term durability in alkaline solutions, maintaining a stable current density for 15 h at 1.35 V. The density functional theory (DFT) calculation shows that the in situ generated Fe doped nanooxides exhibit strong water adsorption energy, which may be one of the reasons for the good catalytic activity.	n-fe-ni3s2	4-14	BCL2 interacting protein 2	Homo sapiens	15-19
35048936-6	2022	The N-Fe-Ni3S2@NiP2/NF electrode couple also has relatively long-term durability in alkaline solutions, maintaining a stable current density for 15 h at 1.35 V. The density functional theory (DFT) calculation shows that the in situ generated Fe doped nanooxides exhibit strong water adsorption energy, which may be one of the reasons for the good catalytic activity.	fe doped nanooxides	242-261	BCL2 interacting protein 2	Homo sapiens	15-19
35048936-6	2022	The N-Fe-Ni3S2@NiP2/NF electrode couple also has relatively long-term durability in alkaline solutions, maintaining a stable current density for 15 h at 1.35 V. The density functional theory (DFT) calculation shows that the in situ generated Fe doped nanooxides exhibit strong water adsorption energy, which may be one of the reasons for the good catalytic activity.	Water	277-282	BCL2 interacting protein 2	Homo sapiens	15-19