PMID-sentid Pub_year Sent_text comp_official_name comp_offsetprotein_name organism prot_offset 17948991-4 2007 Reaction of 4 with 1 equiv of Ag(PPh3)OTf gives the mononuclear chelate complex [Ag(OTf)PPh3{Fe(C5H4PR)2-kappaP,kappaP}] (11), whereas treatment with 2 equiv of AuCl(SMe2) produces the dinuclear gold complex [Au(Cl){Fe(C5H4PR)2-kappaP,kappaP}Au(Cl)] (12). Gold 161-163 protein phosphatase 4 catalytic subunit Homo sapiens 33-37 17948991-4 2007 Reaction of 4 with 1 equiv of Ag(PPh3)OTf gives the mononuclear chelate complex [Ag(OTf)PPh3{Fe(C5H4PR)2-kappaP,kappaP}] (11), whereas treatment with 2 equiv of AuCl(SMe2) produces the dinuclear gold complex [Au(Cl){Fe(C5H4PR)2-kappaP,kappaP}Au(Cl)] (12). Gold 161-163 protein phosphatase 4 catalytic subunit Homo sapiens 88-92 17497810-1 2007 The self-assembly of a Wilkinson type of catalyst molecule, trans-RhCl(CO)(PPh3)2, on Au(111) surfaces and its electrocatalytic properties toward the hydrogen evolution reaction (HER) are investigated by employing scanning tunneling microscopy (STM), cyclic voltammetry (CV), and X-ray photoelectron spectroscopy (XPS). Gold 86-88 protein phosphatase 4 catalytic subunit Homo sapiens 75-79 33306350-3 2020 When the four free C CH groups in the Ag4Au6 complex 1 are further bound to four (PPh3)Au+ and four (PPh3)Ag+ moieties through M-acetylide linkages, the formation of Ag8Au10 cluster 2 not only eliminates nonradiative ethynyl C-H vibrational deactivation process but also improves dramatically the molecular rigidity so that the phosphorescent efficiency of the Ag8Au10 cluster 2 (Phiem = 0.63) is nearly 3 times that of the Ag4Au6 cluster 1. Gold 41-43 protein phosphatase 4 catalytic subunit Homo sapiens 82-86 29711138-2 1998 This was determined from the crystal structures of the isostructural complexes [N(PPh3 )][{Au(C6 F5 )3 (mu-PPh2 )}2 M] (M=Au (structure shown in the picture), Ag). Gold 91-93 protein phosphatase 4 catalytic subunit Homo sapiens 82-86 33306350-3 2020 When the four free C CH groups in the Ag4Au6 complex 1 are further bound to four (PPh3)Au+ and four (PPh3)Ag+ moieties through M-acetylide linkages, the formation of Ag8Au10 cluster 2 not only eliminates nonradiative ethynyl C-H vibrational deactivation process but also improves dramatically the molecular rigidity so that the phosphorescent efficiency of the Ag8Au10 cluster 2 (Phiem = 0.63) is nearly 3 times that of the Ag4Au6 cluster 1. Gold 41-43 protein phosphatase 4 catalytic subunit Homo sapiens 101-105 29031001-4 2017 Furthermore, the [L=P(tBu)2 o-biphenyl]Au fragment is a nominally stronger electron donor than the (IPr)Au fragment, and both are significantly more inductively electron donating than the (PPh3 )Au and [P(OMe)3 ]Au fragments. Gold 39-41 protein phosphatase 4 catalytic subunit Homo sapiens 189-193 32212683-4 2020 Furthermore, we confirm the formation of the Au-C bond by measuring an analogous series of molecules prepared ex situ with the complex AuI(PPh3) in place of the iodide. Gold 45-47 protein phosphatase 4 catalytic subunit Homo sapiens 139-143 31961144-3 2020 Depending on the choice of phosphine ligand (PEt3 or PPh3), dinuclear Au2-FO or tetranuclear Au4-FO complexes can be controllably synthesized (FO = 2-(9,9-dioctylfluoreneyl-)). Gold 70-76 protein phosphatase 4 catalytic subunit Homo sapiens 53-57 29220046-0 2018 Au70S20(PPh3)12: an intermediate sized metalloid gold cluster stabilized by the Au4S4 ring motif and Au-PPh3 groups. Gold 0-2 protein phosphatase 4 catalytic subunit Homo sapiens 8-12 29220046-0 2018 Au70S20(PPh3)12: an intermediate sized metalloid gold cluster stabilized by the Au4S4 ring motif and Au-PPh3 groups. Gold 0-2 protein phosphatase 4 catalytic subunit Homo sapiens 104-108 29220046-2 2018 Computational studies show that the phosphine bound Au-atoms not only stabilize the electronic structure of Au70S20(PPh3)12, but also behave as electron acceptors leading to auride-like gold atoms on the exterior. Gold 52-54 protein phosphatase 4 catalytic subunit Homo sapiens 116-120 32124602-6 2020 While CID of mass-selected [Au,Pt,(PPh3)4]+ results exclusively in the loss of PPh3, the resulting cation [Au,Pt,(PPh3)3]+ selectively eliminates C6H6. Gold 28-30 protein phosphatase 4 catalytic subunit Homo sapiens 35-39 32124602-6 2020 While CID of mass-selected [Au,Pt,(PPh3)4]+ results exclusively in the loss of PPh3, the resulting cation [Au,Pt,(PPh3)3]+ selectively eliminates C6H6. Gold 28-30 protein phosphatase 4 catalytic subunit Homo sapiens 79-83 32124602-6 2020 While CID of mass-selected [Au,Pt,(PPh3)4]+ results exclusively in the loss of PPh3, the resulting cation [Au,Pt,(PPh3)3]+ selectively eliminates C6H6. Gold 28-30 protein phosphatase 4 catalytic subunit Homo sapiens 79-83 32124602-7 2020 Thus, the dissociation of a PPh3 ligand from [Au,Pt,(PPh3)3]+ is energetically not able to compete with processes which result in C-H- and C-P-bond cleavage. Gold 46-48 protein phosphatase 4 catalytic subunit Homo sapiens 28-32 32124602-7 2020 Thus, the dissociation of a PPh3 ligand from [Au,Pt,(PPh3)3]+ is energetically not able to compete with processes which result in C-H- and C-P-bond cleavage. Gold 46-48 protein phosphatase 4 catalytic subunit Homo sapiens 53-57 26213805-3 2015 Furthermore, the conversion process, from Aun(PPh3)m nanoparticles to Au25(SNap)18 nanospheres, is monitored by UV-vis spectroscopy. Gold 42-45 protein phosphatase 4 catalytic subunit Homo sapiens 46-50 28875202-6 2017 The success of this direct synthesis has been hypothesized to arise from the relatively stronger Au(i)Au(i) aurophilic attraction between Au(i)-PPh3 complexes that facilitates the aggregation of Au(i)-PPh3 on Au(0) cores. Gold 97-99 protein phosphatase 4 catalytic subunit Homo sapiens 144-148 28875202-6 2017 The success of this direct synthesis has been hypothesized to arise from the relatively stronger Au(i)Au(i) aurophilic attraction between Au(i)-PPh3 complexes that facilitates the aggregation of Au(i)-PPh3 on Au(0) cores. Gold 97-99 protein phosphatase 4 catalytic subunit Homo sapiens 201-205 27813226-3 2017 Treatment of 1 with PPh3 induces an intramolecular transfer of a chloride ligand from gold to antimony to form the zwitterionic species o-(Cl3 Sb)C6 H4 (Ph2 P)Au(PPh3 ) (3). Gold 159-161 protein phosphatase 4 catalytic subunit Homo sapiens 20-24 27813226-3 2017 Treatment of 1 with PPh3 induces an intramolecular transfer of a chloride ligand from gold to antimony to form the zwitterionic species o-(Cl3 Sb)C6 H4 (Ph2 P)Au(PPh3 ) (3). Gold 159-161 protein phosphatase 4 catalytic subunit Homo sapiens 162-166 27989205-6 2016 However, an improved route to the same and related heterobimetallic compounds is provided by the reaction of cis-[RuCl2(dppm)2] with [Au(SC6H4CO2H-4)(L)] (L = PPh3, PCy3, PMe3, IDip) in the presence of base and NH4PF6 (IDip = 1,3-bis(2,6-diisopropylphenyl)imidazol-2-ylidene). Gold 134-136 protein phosphatase 4 catalytic subunit Homo sapiens 159-163 27989205-10 2016 Complexes containing three metals from different groups of the periodic table [(L)Au(SC6H4CO2-4)M{CH CH-bpyReCl(CO)3}(CO)(PPh3)2] (M = Ru, Os) can also be prepared, with one ruthenium example (L = PPh3) being structurally characterized. Gold 82-84 protein phosphatase 4 catalytic subunit Homo sapiens 122-126