a = abstract | |
Acetates, ethyl, oxidation, a | 87 |
vinyl, hydroformylation, a | 44 |
Acetic Acid, by carbonylation of MeOH | 89, 94 |
Cativa™ process | 94, 146 |
Acetylenes, hydrogenation, a | 138 |
Acrylates, methyl, for iodobenzene vinylation, a | 138 |
ADMET, in organic synthesis | 168 |
Alcohols, allyl, hydrogenation, a | 181 |
by CO hydogenation | 3 |
ethyl, sensor, in beer and wine, a | 42 |
methyl, carbonylation, Ir/I catalysed | 89, 94 |
over Rh/hydrotalcite, a | 88 |
oxidation, a | 88 |
Alfa Aesar, “High Purity Metals” catalogue | 55 |
Alkanes, hydrogenolysis | 3 |
Alkenes, epoxidation, a | 181 |
hydrogenation, a | 43 |
Alkoxycarbonylation, 4-bromoacetophenone, a | 182 |
Alkynes, as ligands, in [Pt2Cu4(C≡CPh)8]2, a | 40 |
Allenes, copolymerisations, a | 139 |
Alloys, dental | 31 |
eutectic | 158 |
ferritic | 158 |
high-temperature | 158 |
jewellery | 56, 156 |
shape memory, a | 179 |
Allylbenzenes, by Suzuki coupling, a | 88 |
Aluminium, Al-Ir, Al-Ni-Ru, Al-Ru, phase diagrams | 56 |
Al-Ir-Ru, phase diagram | 56, 85 |
Ir-IrAl, Ru-RuAl, formation | 158 |
NdRh4Al15.37, synthesis and structure, a | 86 |
Pt-Al-X, for high-temperature use | 158 |
TiAl-Ru, properties of, a | 40 |
Amidation, nitriles, with amines, a | 139 |
Amination, 2(,5)-(di)bromothiophenes, a | 88 |
Amines, from olefins, by hydroaminomethylation, a | 44 |
reaction with Pd and Pt dithiocarbamates, a | 40 |
Ammonia, coupling with CH4, HCN synthesis, a | 87 |
in hydroaminomethylations, a | 44 |
oxidation, in nitric acid manufacture | 74 |
Antibacterial Agents, Ru(III) complexes, a | 140 |
Arenes, vinyl, hydroformylation, a | 44 |
Autocatalysts, conferences | 31, 67, 71 |
diesel treatment | 67 |
emission control | 22, 31, 56 |
lean-NOx | 67 |
selective catalytic reduction | 67, 71 |
Benzene, ethyl-, dehydrogenation, a | 181 |
Benzoic Acid, hetroaryl, synthesis, a | 182 |
Biphenyl, synthesis, a | 87 |
Bonding, pressure, using Pd-In, a | 89 |
Book Reviews, “Catalysis by Polymer-Immobilized Metal Complexes” | 15 |
“Catalysis from A to Z” | 167 |
“Metals and the Royal Society” | 30 |
S. Afr. J. Sci ., Pt in South Africa | 56 |
Bushveld Complex, geology, Pt and Pd reserves | 33, 56 |
Cancer, drugs | 31, 56, 140 |
Capacitors, in electronic equipment | 107, 137, 140 |
Carbenes, Pd, fluoroalkylated N -heterocyclic, a | 136 |
Ru, in metathesis | 58, 112, 168 |
Carbocycles, synthesis | 112, 138 |
Carbon, nanotubes, electroless plating of metals onto, a | 42 |
origins and pretreatment of, for Pd/C catalysts, a | 181 |
Pt/C fibres, H2 adsorption, a | 135 |
Carbon Oxides, CO2, compressed, solvent, a | 44 |
sc-, solvent, a | 136, 180, 182 |
CO, codeposition with Os and Ru, a | 40 |
copolymerisation, with ethene, a | 44, 139 |
effect on H2 permeation, of membranes, a | 85 |
hydrogenation, to alcohols | 3 |
living alternating copolymerisation, with allenes, a | 139 |
for NO reduction, on Ir/support, a | 138 |
oxidation, on anodic catalysts, for PEFCs, a | 89 |
over Pd25Zr75, a | 87 |
on Pt/C electrocatalysts, a | 139 |
reaction with NO | 3 |
relativistic effects on PGMs | 146 |
removal from reformate, using Demonox™ unit | 108 |
sensor, a | 137, 180 |
in tobacco smoke, oxidation, by PGM catalysts | 120 |
Carbonylation, MeOH | 88, 89, 94 |
Carbonyls, OsCO+, Os(CO)x, Os(CO)x−, IR spectra, a | 40 |
PGM clusters | 3 |
Ru3(CO)12, decomposition, a | 87 |
RuCO+, Ru(CO)x, Ru(CO)x−, IR spectra, a | 40 |
Carboxylic Acids, citrate, effect on PtCl42−” reduction, a | 179 |
Casting, lost wax, for jewellery manufacture | 156 |
Catalysis, book reviews | 15, 56, 167 |
combinatorial screening techniques | 16 |
heterogeneous, a | 43, 87–88, 137–138, 181–182 |
time resolved DRIFT studies, a | 87 |
homogeneous, a | 44, 88–89, 138–139, 182 |
in metathesis | 58, 112, 168 |
relativistic phenomena, in chemistry of PGMs | 146 |
solventless, microwave-assisted, Suzuki coupling, a | 182 |
in subcriticai H2O, a | 138 |
Catalysts, Adams, a | 43 |
auto-, see Autocatalysts | |
book reviews | 15, 56, 167 |
Grubb’s | 168, 182 |
model, “nanopits” and “nanotowers”, a | 138 |
PGM/polymer, book review | 15 |
PGMs, in HotSpot™ reformer | 108 |
to limit tobacco related diseases | 120 |
recovery, a | 41, 88, 138, 139 |
recycling, a | 43, 87, 138, 181, 182 |
“ship-in-bottle” | 3 |
three-way, see Three-Way Catalysts | |
Catalysts, Iridium, Ir2Si oxide, Ir3Ti oxide | 16 |
Ir/γ-Al2O3, Ir/SiO2, Ir/silicalite, NO reduction, a | 138 |
Catalysts, Iridium Complexes, Cativa™ process | 94 |
Ir hydrides, low valent, for nitrile activation, a | 139 |
Ir/I, in MeOH carbonylation | 89, 94 |
[IrCl3(l,5-cyclooctadiene)], IrCl3, [IrCl3(cyclooctene)], [IrCl3(norbornadiene)], IrCl3.3H2O, metathesis | 58 |
Rh/Ir/TPPTS, olefin hydroaminomethylation, a | 44 |
Catalysts, Osmium, Os2Si oxide | 16 |
Catalysts, Osmium Complexes, OsCl3, metathesis | 58, 168 |
OsCl3(hydrate), OsCl3.3H2O, metathesis | 58 |
OsHCl(CO)(O2)(PR3)2, OsHCl(CO)(PR3)2, OsHCl(CO)(PPh3)(dppp), hydrogenation, a | 139 |
Os(II) naphthalenes, cyclisation reactions, a | 139 |
Catalysts, Palladium, Pd1Si oxide | 16 |
Pd25Zr75, CO oxidation, a | 87 |
Pd-Cu/Dowex 50 W X, nitrate removal from H2O, a | 43 |
Pd-Cu/TiO2, Pd-Cu/ZrO2, nitrate reduction | 84 |
Pd-In, Pd-Sn, nitrate reduction | 84 |
Pd-Pt-Ce/Al2O3, bleach plant effluent treatment, a | 43 |
Pd-Sn/TiO2, Pd-Sn/ZrO2, nitrate reduction | 84 |
Pd/γ-Al2O3, CF2Cl2 hydrogenolysis, a | 138 |
Pd/Al2O3, propane oxidation, a | 138 |
Pd/γ-Al2O3, trichloroethylene oxidation, a | 138 |
Pd/C, acetylenes hydrogenation, a | 138 |
iodobenzene vinylation, a | 138 |
olefins hydrogenation, a | 138 |
origin of C, pretreatment of C surface, a | 181 |
Pd/C and PEG-400, aryl-aryl coupling, a | 87 |
Pd/KF/Al2O3, Suzuki coupling, a | 182 |
Pd/“Mg-smectite”, iodobenzene vinylation, a | 138 |
Pd/SiO2, iodobenzene vinylation, a | 138 |
Pd/SiO2, “nanopits”. “nanolowers”, a | 138 |
Pd/zeolite-X, methyldecalin hydrocracking, a | 181 |
PdCl2/clay, Suzuki coupling, a | 88 |
Catalysts, Palladium Complexes, π-allylpalladium, a | 88 |
(η2-C60)Pd(PPh3)2, theoretical studies, a | 88 |
Pd carbenes, a | 136 |
Pd + 1,3-C3H6[P(C6H3-2-OMe-5-SO3Na)2]2, a | 139 |
Pd-wool, carbonyl hydrogenation, a | 87 |
PdCl2/Adogen 464, oxidation of alcohols, a | 88 |
PdCl2/polystyrene, preparation, a | 86 |
PdCl2(PhCN)2/PPh3, in alkoxycarbonylation. a | 182 |
Pd(OAc)2, carbocycle synthesis, a | 138 |
Pd(OAc)2/PBut3, dibromothiophenes + diarylamines, a | 88 |
Pd(OAc)2/P(o -tolyl)3, Suzuki coupling, a | 182 |
[Pd(P-P)(N-N)x](PF6)2, CO + C2H4 copolymerisation, a | 44 |
Pd(PPh3)2Cl2, Suzuki coupling, a | 182 |
Pd(PPh3)4, in alkoxycarbonylation, a | 182 |
coupling reactions, a | 89 |
Suzuki coupling, a | 182 |
(R4N)2PdX4, oxidation of alcohols, a | 88 |
Catalysts, Platinum, Pt+ HCN synthesis, a | 87 |
[Pt9(CO)18]2−/, [Pt12(CO)24]2−/NaY, [Pt15(CO)30]2−[NBu4]+/, [Pt15(CO)30]2− [NEt4]+/FSM-16, Pt nanoparticles/, Pt nanowires/FSM-16, WGSR | 3 |
Pt, sputtered on gasochromic sol-gel WO3 films | 155 |
Pt-Co/, Pt-Cu/, Pt-Fe/, Pt-Ni/, Pt-Ru/C, Pt/C/Nafion, for DMFC, a | 182 |
Pt/, Pt-Ga/, Pt-Pb/, Pt-Sn/, Pt-Sn-Ga/Al2O3, Al2O3 + K, ZnAl2O4, propane dehydrogenation, a | 181 |
Pt-Rh/Al2O3-CeO2, TWC, a | 137 |
Pt/γ-Al2O3, Na-promoted, NO reduction by propene, a | 43 |
Pt/γ-Al2O3, trichloroethylene oxidation, a | 138 |
Pt/C electrocatalysts, CO oxidation, a | 139 |
Pt/Ce0.68Zr0.32O2, TWC, oxygen storage capacity | 124 |
Pt/poly(N-isopropylacrylamide)-SiO2 hydrogenation, a | 181 |
Pt/W6+-doped TiO2, ethyl acetate oxidation, a | 87 |
PtCl4 with Dowex® 1, alkene hydrogenation, a | 43 |
PtO2/Al2O3, PtRuOx, colloidal (pre(catalysts, a | 43 |
Catalysts, Rhodium, Pt-Rh/Al2O3-CeO2, TWC, a | 137 |
Rh1 Ti oxide, Rh2Si oxide, Rh2Ti oxide | 16 |
Rh nanoparticles/hydrotalcite, MeOH carbonylation, a | 88 |
Rh/ZrO2-SiO2, CH4 combustion, a | 43 |
Catalysts, Rhodium Complexes, chlorotris-(triazaphosphaadamantane)Rh(I), hydrogenation, a | 44 |
(R )-BINAP-Rh(I), vinyl acetate hydroformylation. a | 44 |
Rh2(OAc)4, in cyclopropanations, a | 139 |
Rh phosphites, hex-1-ene hydroformylation, a | 182 |
Rh (R.S )-H2F6-BINAPHOS, in hydroformylations, a | 44 |
Rh-MeDuPHOS/PDMS, hydrogenation, a | 88 |
Rh/Ir/TPPTS, olefin hydroaminomethylation, a | 44 |
RhCl3, metathesis | 58 |
(RhCl(COD)2), vitamin E synthesis, a | 182 |
Rh(η3-CH(Ar′)C {C(=CHAr′)CH2C(=CHAr′)-CH2CH2CH=CHAr′}CH2](PPh3)2, a | 139 |
Rh(PPh3)2LCl (L = CO, PPh3), metathesis | 58 |
Wilkinson’s catalyst, dehydrocoupling polymerisations | 172 |
Catalysts, Ruthenium, MoxRuySez–(CO)n, for PEFC, a | 89 |
PtRuOx, colloidal (pre)catalysts. a | 43 |
[PW11O39RuII(DMSO)]5−, in oxidations, a | 182 |
Ru1 Ti oxide, Ru2Si oxide, Ru3Ti oxide | 16 |
Ru/anion exchange resin, in H2 generation, a | 140 |
Ru/SiO2 aerogel, for N,N -diethylformamide synthesis, a | 88 |
Catalysts, Ruthenium Complexes, dihydridocarbonyl-Ru(PPh3)3, poly(silyl ethers) synthesis, a | 139 |
Grubb’s catalyst | 168, 182 |
K2RuCl5, metathesis | 58 |
poly-cis -[Ru(vbpy)2(py)2](PF6)2, in electrocatalysis, a | 136 |
Ru carbenes, metathesis | 58, 112, 168 |
Ru hydrides, low valent, for nitrile activation, a | 139 |
Ru-melanoidin, for H2 generation, from H2O, a | 137 |
Ru(bpy)33+ + RuO2 adsorbing Ru-red, H2O oxidation, a | 44 |
RuCl2(=CH2)(PCy3)2, RCM | 112 |
RuCl2(=CHCH=CPh2)(PCy3)2, RCM | 112 |
RuCl2(=CHCH=CPh2)(PR3)2, ROMP | 168 |
RuCl2(=CHPh)(PCy3)2, metathesis | 112, 168 |
RuCl2[Ph2P(CH2)3PPh2]2/SiO2, for N,N -diethylformamide synthesis, a | 88 |
RuCl2(PPh3)2(=CHPh), metathesis | 58 |
RuCl2(PPh3)3, ROMP | 168 |
RuCl2(PR3)2(=CHC6H4CH=)RuCl2(PR3)2 ROMP | 58, 168 |
RuCl2(PR3)2(=CHCH=CHPh), metathesis | 58 |
[RuCl3(COD)], ROMP | 168 |
RuCl3, RuCl3(hydrate), [RuCl3(norbomadiene)], [RuCl3(norbornene)], Ru(H2O)6(tos)2, metathesis | 58 |
[RuH], RCM, metallacycle synthesis | 112 |
RuHCl(CO)(PPh3)3, ADMET reactions | 168 |
Ru(II) porphyrin-resin, alkene epoxidation, a | 181 |
Cativa™, acetic acid manufacturing process | 94, 146 |
Chemiluminescence, see Luminescence | |
Chlorobenzenes, in aryl-aryl coupling, a | 87 |
Chlorofluorocarbons, CF2Cl2, hydrogenolysis, a | 138 |
CHP Systems, using HotSpot™ fuel reformer | 108 |
Clusters, alloy, in MCM-41, in NaY | 3 |
Chini, synthesis | 3 |
PGM carbonyls, in FSM-16, in NaY | 3 |
[Rh6(CO)15(COOMe)]−, [Ru6C(CO)16(COOMe)−, a | 179 |
transformations to nanoparticles, in micro/mesopores | 3 |
see also Nanoclusters | |
Coatings, Ir oxide, for electrodes | 106 |
for medical implants | 106 |
multilayer, MoRu/Be, a | 140 |
see also Deposition and Electrodeposition | |
Colloids, Au-Pt, Pt-Au, a | 136 |
Au/Pt, Au/Pt/Au | 14 |
Pd, aggregation behaviour, using cryo-imaging | 111 |
Pd-Cu, a | 135 |
Pt, on poly(N-isopropylacrylamide)-SiO2, a | 181 |
Combinatorial Chemistry, in heterogeneous catalysis | 16 |
Conferences, 14th Santa Fe Symposium, Albuquerque, New Mexico, U.S.A., May, 2000 | 156 |
First Int. Symp. on Iridium, Nashville, Tennesse, U.S.A., March. 2000 | 106 |
Int. Symp. on Precious Metals, Kunming, China, Sept., 1999 | 31 |
SAE, Detroit, U.S.A., March, 2000 | 67 |
Second Int. Conf. on Health Effects from Vehicle Emissions, London, U.K., Feb., 2000 | 71 |
Copper, CuAlPd, shape memory properties, a | 179 |
electroless deposition, a | 42, 180 |
Coupling Reactions, biphenyl synthesis, a | 87 |
bis(diarylamino)thiophenes synthesis, a | 88 |
C-N. for HCN synthesis, a | 87 |
poly(aryleneethynylene) synthesis, a | 89 |
see also Heck Reactions and Suzuki Couplings | |
CRT™, for diesel emission control | 67, 71 |
Crucibles, Ir, for crystal growth | 106 |
Crystals, RRh2Ge2 (R = Gd, Tb, Dy), magnetism, a | 85 |
Cycloolefins, ROMP | 58, 168 |
Cyclopropanation, styrene with diazoindanone, a | 139 |
Dearomatisation, naphthalenes, a | 139 |
Decarbonylation, of Ru nitrosonaphthols, a | 136 |
Decarboxylation, of allyl carbonates, allyl formates, allyl β-keto carboxylates, a | 88 |
Dehydrogenation, hydrocarbons, a | 181 |
Demonox™, CO clean-up unit, for HotSpot™ reformer | 108 |
Dental, alloys, Pd-Ag, Pd-Au | 31 |
Deposition, chemical fluid, of Pd, Pt, Rh, a | 180 |
pulsed laser, of Ir thin films, a | 42 |
of SrBi2Ta2O9 thin films, a | 89 |
see also Coatings and Electrodeposition | |
Dienes, addition of phenols, a | 182 |
Diesel, emission control | 22, 67 |
particulates, control by CRT™ | 67, 71 |
β-Diketones, Ir(III) β-diketonates | 106, 179 |
Ru(III) β-diketones, butadiyne bridged polymer, a | 41 |
DNA, cleavage, a | 179 |
Effluents, bleach plant, treatment with Pd-Pt-Ce/Al2O3, a | 43 |
Electrical Contacts, Pd-Ge ohmic contact, to GaAs, a | 44 |
Electrocatalysis, poly-cis -[Ru(vbpy)2(py)2](PF6)2, a | 136 |
Electrochemistry, a | 41, 86 |
Ir oxide films, redox reactions, a | 86 |
lr(IV) chloro complexes, for insulin determination, a | 181 |
Pt/Ti electrodes, voltammetric behaviour, a | 86 |
Ru binuclear pyrazines, molecular hysteresis, a | 86 |
Electrodeposition, of Au/Pt and Au/Pt/Au colloids | 14 |
Ni/Pd, on Cu, a | 86 |
Pd, for decorative and functional applications | 156 |
platinised Ti, for electrodes, a | 86 |
Pt, for decorative and functional applications | 156 |
from alkaline electrolyte, a | 180 |
Pt black, on evaporated Pt electrodes, a | 180 |
Pt films, onto microelectrodes, a | 86 |
Pt and W, onto Au, a | 42 |
Rh, for decorative and functional applications | 156 |
Sn, using IrO2-Ta2O5-SnO2/Ti electrodes, a | 137 |
see also Coatings and Deposition | |
Electrodeposition and Surface Coatings, a | 42, 86–87, 137, 180 |
Electrodes, gate, Pt-SnO2. porous, in CO sensor, a | 180 |
Ir oxide coatings | 106 |
Ir-Ta-O, for SrBi2Ta2O9 thin film deposition, a | 89 |
Ir-Ta-O/Ta/Si, properties, a | 89 |
IrO2-Ta2O5-SnO2/Ti, for Sn plating, a | 137 |
IrOx/glassy C, in insulin sensor, a | 181 |
microjet | 21 |
Os-gel-HRP/XOD/glassy C, biosensor, a | 181 |
PdO, as damage markers, in RAM capacitors | 107 |
Pt, micro-, with high surface areas, a | 86 |
tubular, as amperometric detector, a | 87 |
Pt+C+PTFE/C cloth, for Ni electrowinning, a | 41 |
Pt black on evaporated Pt, preparation, a | 180 |
Pt | WO3, EtOH sensor, a | 42 |
Pt/Ru/poly-Si, by MOCVD, integration, a | 137 |
Pt/Ti, voltammetric behaviour, a | 86 |
radial flow microring | 21 |
Ru intermetallic compounds, for spark plugs | 56 |
Ru-Rh + poly(1,3-diaminobenzene), H2O2 detection, a | 42 |
ultramicro-, Pt disc, Pt ring | 21 |
Electroless Plating, Cu, a | 42, 180 |
Pd, onto C nanotubes, using Pd-Sn activator, a | 42 |
on porous Vycor glass, for membranes, a | 137 |
thin films, on composite membrane, a | 43 |
Pd activator, using dielectric barrier discharge, a | 180 |
Pt activator, from Pt acetylacetonate films, a | 42 |
Electronic Nose, gas emissions, detector | 57 |
Electrowinning, Ni, using Pt+C+PTFE/C cloth anode, a | 41 |
Emission Control, motor vehicles | 22, 31, 56, 67, 71, 124, 137 |
Epoxidation, alkenes, a | 181 |
Esterification, nitriles, with alcohols, a | 139 |
Ethene, with CO, copolymerisation, a | 44, 139 |
relativistic effects on PGMs | 146 |
Ethers, crown, synthesis | 112 |
Ethyl Acetate, oxidation, over Pt/W6+-doped TiO2, a | 87 |
Extraction, PGMs | 31, 33, 56, 105 |
Films, by chemical fluid deposition, Pd, Pt, Rh, a | 180 |
gasochromic, sol-gel Pt (sputtered) WO3 | 155 |
Ir oxide, redox reactions, a | 86 |
Ir-Ta-O, by reactive sputtering, a | 89 |
Langmuir-Blodgett, Pt loaded, porphyrins, a | 41 |
Ni/Pd, on Cu, reaction with Sn-Pb, a | 86 |
Pd, stress and resistivity changes, with H2, a | 40 |
Pt, nanostructured, for microelectrodes, a | 86 |
Pt acetylacetonate, photo-induced decomposition, a | 42 |
PZT, a | 140 |
see also Thin Films | |
Formamides, N,N -diethyl-, synthesis, a | 88 |
Fuel Cells, a | 44, 89, 139–140, 182 |
AFC, Pd-based H2 diffusion electrodes, a | 140 |
Pt/C-PTFE electrodes, a | 140 |
anode exhaust gas burner, for HotSpot™ system | 108 |
Demonox™ CO clean-up unit | 108 |
DMFC, Pt-Co/, Pt-Cu/, Pt-Fe/. Pt-Ni/, Pt-Ru/C, Pt/C/Nafion, electrocatalysts, a | 182 |
H2 generator, for PEMFC, a | 140 |
HotSpot™ reformer | 108 |
PEFC, CO oxidation, activity of anodic catalysts, a | 89 |
MoxRuySez-(CO)n electrocatalysts for, a | 89 |
Pt/C, Ru/C, Pt-Ru/C, anodic catalysts, a | 89 |
PEMFC, H2 generator for, a | 140 |
Pt | BAM® 407, a | 44 |
Pt | Nafion, a | 89 |
Pt | Nafion® 117, a | 44 |
Pt/C electrocatalysts, EXAFS of CO oxidation, a | 139 |
PtRuOx colloidal electrocatalysts, a | 43 |
SPFC | 108 |
Fullerenes, (η2-C60)Pd(PPh3)2, catalytic mechanism, a | 88 |
Gasochromism, in sol-gel Pt (sputtered) WO3 films | 155 |
Gauzes, Pt-Pd-Rh, Pt-Rh, metal surface composition | 74 |
Geology, South Africa. | 33, 56, 105 |
Germanium, Ru2Ge3, optical spectra, a | 135 |
Graphite, layers, for forming Pt nanosheets, a | 135 |
Heck Reactions, iodobenzene with methyl acrylate, a | 138 |
Pd catalysts, without ligands, a | 138 |
Helium, permeability, in Pd-YSZ membranes, a | 180 |
Heterocycles, in synthesis | 112, 168 |
Hex-1-ene, hydroformylation, a | 182 |
“High Purity Metals”, Alfa Aesar catalogue | 55 |
High Temperature, alloys | 158 |
History, discovery of the Pt isotopes | 173 |
Étienne Lenoir. | 125, 166 |
“Metals and the Royal Society”, George Matthey, Percival Norton Johnson | 30 |
metric system, kilogramme, metre | 125, 166 |
HotSpot™ Reformer, fuel processor | 108 |
Hydration, nitriles, a | 139 |
Hydroaminomethylation, olefins, a | 44 |
Hydrocarbons, dehydrogenation, a | 181 |
methyldecalin, hydrocracking, a | 181 |
traps, in emissions control | 67 |
Hydrocracking, methyldecalin, a | 181 |
Hydroformylation, vinyl acetate, vinyl arenes, a | 44 |
hex-1-ene, in sc-CO2, a | 182 |
Hydrogen, adsorption, on Pt/C fibres, a | 135 |
chemisorption, on Pd-Re, a | 135 |
effects, in Pd films, a | 40 |
isotherms of internal oxidation, in Pd0.90Rh0.05Ni0.05, a | 135 |
permeation, in Pd membranes, a | 43, 85 |
photoevolution, via Pt-loaded LB films, a | 41 |
production, by HotSpot™ fuel processor | 108 |
using Ru catalysts, a | 137, 140 |
reduction, of PtCl42−, a | 179 |
sensor, a | 40 |
separation, by Pd/α-Al2O3 membranes, a | 43 |
solubility, in PdAg, PdRh, a | 179 |
Hydrogen Cyanide, from CH4 + NH3, Pt+ mediated, a | 87 |
Hydrogen Peroxide, detection, a | 42 |
Hydrogenation, acetylenes, a | 138 |
acrylonitrile-butadiene copolymers, a | 139 |
alkenes, a | 43 |
allyl alcohol, a | 181 |
asymmetric, 3-methyl-2-butanone, diacetone alcohol, a | 87 |
by PGM/polymer catalysts | 15 |
CO | 3 |
1-decene, a | 43 |
methylacetoacetate, a | 88 |
olefins, a | 138 |
phospholipid liposomes, a | 44 |
Hydrogenolysis, alkanes | 3 |
CF2Cl2, a | 138 |
propane, a | 138 |
Hydrosilylation, in polymerisations, a | 139 |
Hypoxanthine, biosensor, a | 181 |
Insulin, sensor, a | 181 |
Intermetallics, PGM-based, high-temperature use | 158 |
Iodobenzene, vinylation, a | 138 |
Indium, coatings, for rocket thrusters | 106 |
crucibles, crystal growth | 106 |
in jewellery | 106 |
in MOSFETs | 57 |
refining | 106 |
spark plugs | 106 |
thermocouples | 106 |
thin films, by pulse laser deposition, a | 42 |
Iridium Alloys, Al-Ir, phase diagram | 56 |
Al-Ir-Ru, phase diagram | 56, 85 |
for high-temperature use | 158 |
Ir-IrAl, eutectic, formation | 158 |
(Ir,Ru)Al | 106 |
Iridium Complexes, (η-C5H5)Ir(CO)2, as a ligand, a | 41 |
Ir β-diketonates | 106, 179 |
Ir fluoro derivatives | 106 |
Ir(III) bis-terpyridines, pH sensitive luminescence, a | 41 |
Ir(IV) chloro, for insulin determination, a | 181 |
Iridium Compounds, electrodes, see Electrodes | |
Ir oxide, coatings, for medical implants | 106 |
hydrous, redox reactions, a | 86 |
Ir-Ta-O, electrode material, by reactive sputtering, a | 89 |
Iron, Fe-Ru, damping capacity | 157 |
Isotopes, Pt, discovery of | 173 |
Jewellery, electroplating, Pd, Pt, Rh | 156 |
Ir additions | 106 |
powder metallurgy | 156 |
Pt, Pt alloys | 56, 156 |
Pt-Au composites | 56 |
14th Santa Fe Symposium, manufacturing technology | 156 |
Johnson Matthey, CRT™ diesel emission control | 67, 71 |
Demonox™ system | 108 |
George Matthey | 30 |
HotSpot™ reformer | 108 |
Percival Norton Johnson | 30 |
“Platinum 2000” | 119 |
selective catalytic reduction unit | 67 |
Ketones, 4-bromoacetophenone, alkoxycarbonylation, a | 182 |
hydrogenation, a | 87 |
poly-, synthesis, a | 139 |
α,β-unsaturated, epoxidation, a | 181 |
Kondo Insulator, NdxCe3−xPt3Sb4, pressure tuning | 55 |
Langmuir-Blodgett Films, H2 evolution, a | 41 |
Lasers, KrF excimer, deposition of Ir thin films, a | 42 |
LEDs, organic, from Pt porphyrins | 66 |
Luminescence, chemi-, Rh(bpy)32+ dodemorph sensor, a | 137 |
Ir(III) bis-terpyridines, as pH sensors, a | 41 |
Nafion membranes, dyed with Ru(II) complexes, a | 42 |
photo-, Pd3(acetate)6, a | 41 |
[RhIII(phpy)2(CN)2]-, a | 136 |
[Pt2Cu4(C≡CPh)8]2, a | 40 |
[Ru(bipy)2(Sbipy)]2+, a | 180 |
Magnetism, ferro-, in FePl nanocrystal superlattices, a | 135 |
in Pr3RuO7, a | 179 |
in RPd3S4 (R = Ce, Gd), a | 40 |
in RRh2Ge2 (R = Gd, Tb, Dy), a | 85 |
Medical, implants, Ir oxide coatings | 106 |
Ru complexes, antibacterial agents, a | 140 |
Membranes, Pd composite, for H2 separation, a | 181 |
Pd-Ag/γ-Al2O3, preparation, a | 43 |
Pd-modified YSZ, He permeation, a | 180 |
Pd/α-Al2O3, for H2 separation, a | 43 |
Pd/porous Vycor glass, preparation, a | 137 |
Pd/stainless steel, H2 permeation, a | 85 |
PDMS, with Rh-MeDuPHOS, a | 88 |
Memory, capacitors, Pt/BST/Pt, /Pt/Ru, /RuO2, a | 140 |
ferroelectric, PZT/Pt/TiN/Si and SiO2 multilayers, a | 140 |
RAM, with PdO bottom electrode, as damage marker | 107 |
Merensky Reef, geology | 33, 56 |
Metallisation, Pd. Pt. Rh. chemical fluid deposition, a | 180 |
Metathesis, acyclic diene | 168 |
ring-closing | 112 |
ring-opening polymerisation | 58, 168 |
Methane, combustion, on Rh/ZrO2-SiO2, a | 43 |
coupling with NH3, HCN synthesis, a | 87 |
formation, during MeOH carbonylation, a | 89 |
sensor, by SnO2/Os thin films, a | 87 |
Metric System, history | 125, 166 |
Michael Additions, in Os(II) complexes, a | 139 |
Microwaves, for Suzuki couplings, a | 182 |
for synthesis, of [PW11O39RuII(DMSO)]5−, a | 182 |
Mining, South Africa | 33, 56, 105 |
MISFETs, sensor, for CO detection, a | 180 |
MOCVD, Pt/Ru, electrode structures, on poly-Si. a | 137 |
MOSFETs, in electronic nose | 57 |
Nanoclusters, PGM, synthesis | 3, 166 |
Nanoparticles, AucorePtshell, PtcoreAUshell, preparation, a | 136 |
FePt, preparation, a | 135 |
from clusters, in micro/mesopores | 3 |
Pd, quasi 2D, a | 85 |
Pd(II) hexametallic cartwheel molecules, a | 41 |
PdxCu100−x, preparation, a | 135 |
Pt, from PtCl42−, a | 179 |
Rh, on hydrotalcite, synthesis, a | 88 |
Nanorods, colloids, Au/Pt. Au/Pt/Au | 14 |
Nanosheets, Pt, between graphite layers, a | 135 |
Nanotechnology, model Pd catalysts, a | 138 |
Nanotubes, C. Ni-, Pd-plated, using Pd-Sn activator, a | 42 |
Nanowires, Pt, in FSM-16 mesoporous channels | 3 |
Naphthalenes, dearomatisation, a | 139 |
Neodymium, NdRh4Al15.37, synthesis and structure, a | 86 |
NdxCe3−xPt3Sb4, pressure tuning of | 55 |
Nickel, from NiSO4, using Pt+C+PTFE/C cloth anode, a | 41 |
Niobium, Nb50Ru50, shape memory effect, a | 85 |
Nitrates, catalytic removal from H2O | 43, 84 |
Nitric Acid, manufacture, gauze technology | 74 |
Nitriles, -butadiene copolymers, hydrogenation, a | 139 |
amidation. esterification, hydration, a | 139 |
Nitrogen Oxides, NO, reaction with CO | 3 |
reduction, a | 43, 138 |
NOx, -traps, for lean-burn gasoline engines | 67 |
lean-, catalysts | 67 |
removal from motor vehicle emissions | 22, 67 |
in tobacco smoke, reduction, by PGM catalysts | 120 |
Ohmic Contacts, see Electrical Contacts | |
Olefins, cyclo-, ROMP | 58, 168 |
hydroaminomethylation. a | 44 |
hydrogenation, a | 138 |
Optical Properties, Ru2Ge3, Ru2Si3. a | 135 |
Osmium, powders, high purity, synthesis | 31 |
with SnO2, sensor, for CH4, a | 87 |
Osmium Complexes, Cp(OC)2IrOs(CO)3(GeCl3)(Cl), Cp(OC)2IrOs(CO)3(X)2, a | 41 |
electrodes. Os-gel-HRP/XOD/glassy C, biosensor, a | 181 |
OsCO+, Os(CO)x, Os(CO)x, IR spectra, a | 40 |
Osmosis, in Pd membrane preparation, a | 43, 137 |
Oxidation, adamantane, a | 182 |
alcohols, a | 88 |
bleach plant effluents, over Pd-Pt-Ce/Al2O3, a | 43 |
CO, a | 87, 139 |
in tobacco smoke, by PGM catalysts | 120 |
cyclooctene, a | 182 |
ethyl acetate, a | 87 |
H2O, a | 44 |
high temperature, in Ni-Cr-Al-Y-Cr3C2 alloys, a | 40 |
internal, in Pd0.90RH0.05Ni0.05. a | 135 |
propane, a | 137, 138 |
propene, a | 137 |
toluene | 16 |
trichloroethylene, a | 138 |
VOCs, a | 87, 138 |
Oxygen, sensors, a | 42 |
Ozone, motor vehicle pollution | 22 |
Palladium, activator, for electroless Cu plating, a | 180 |
colloids, aggregation behaviour, cryo-imaging of | 111 |
Cu/Ni/Pd, interfacial reaction with Sn-Pb, a | 86 |
H2 effects on, a | 40 |
membranes, a | 43, 85, 137, 180, 181 |
in MOSFETs | 57 |
nanoclusters, Au/Pd, Pd/Au, Pd/Au/Ag | 166 |
nanoparticles, 2D, a | 85 |
with Pd-In, pressure bonding, a | 89 |
powders, submicron | 39 |
thermocouples, thermoelectric behaviour, a | 137 |
Palladium Alloys, CuAlPd, shape memory properties, a | 179 |
membranes, a | 43 |
nanoparticles, PdxCu100−x, a | 135 |
Pd0.09Rh0.05Ni0.05, internal oxidation, a | 135 |
Pd-Ag and Pd-Au, dental | 31 |
Pd-Ge ohmic contact, to GaAs, a | 44 |
Pd-In, for pressure bonding, a | 89 |
Pd-Re overlayers and surfaces, H2 chemisorption, a | 135 |
PdAg, PdRh, H solubility, a | 179 |
Palladium Complexes, [Pd2(μ-Se)2(dppe)2], synthesis, a | 179 |
Pd3(acetate)6, photoluminescence, a | 41 |
[Pd3(μ3-Se)2(dppe)3]Cl2, synthesis, a | 179 |
Pd acetate, plasma-induced chemical reduction, a | 180 |
Pd carbenes, fluoroalkylated N -heterocyclic, a | 136 |
Pd dithiocarbamates, reactions with amines, a | 40 |
Pd olefins, with P ligands, properties, a | 85 |
trans -[PdCl2(l,4-oxatellurane)2], synthesis, a | 136 |
PdCl2/polystyrene, a | 86 |
Pd(II) end-capped ferrocenes with thiophene spacers, a | 85 |
Pd(II) heterobimetallics, a | 85 |
Pd(II) hexametallic cartwheel molecules, a | 41 |
Pd(II) porphyrins, synthesis of, as DNA cleavers, a | 179 |
Pd(II) with C6[3,5-(CH2Y)2C6H3]6, a | 41 |
(R4N)2PdX4, (n -Bu4N)2Pd2Cl6, a | 88 |
Palladium Compounds, PdCl2-graphite, intercalation, a | 85 |
PdO, damage markers, in RAMs | 107 |
RPd3S4 (R = Ce, Gd), a | 40 |
ZrPd3Si3, synthesis and properties, a | 86 |
Patents | 45–48, 90–92, 141–144, 183–186 |
pH, sensor system, a | 41 |
Phase Diagrams, Al-Ir, Al-Ni-Ru, Al-Ru | 56 |
Al-Ir-Ru | 56, 85 |
Phenols, addition, to dienes, a | 182 |
Photocatalysis, Ru-melanoidin, for H2, from H2O, a | 137 |
Photoconversion, a | 41–42, 136–137, 180 |
Photoluminescence, see Luminescence |
Photoproperties, nanoparticles, AucorePtshell, PtcoreAUshell, a | 136 |
NO-Ru complexes, with en and ox ion ligands, a | 136 |
Pd(II) porphyrins, as DNA cleavers, a | 179 |
Pt(trpy)Cl+ with pyrene substituent, ILCT character, a | 180 |
[Ru(bipy)2(Sbipy)]2+, a | 180 |
Ru(II) polypyridyls, photosensitisers for TiO2, a | 136 |
sol-gel Pt (sputtered) WO3 films, gasochromism | 155 |
Photoreactions, H2 evolution, using Pt LB films, a | 41 |
[Ru(bipy)2(Sbipy)]2+, + dissolved O2, a | 180 |
“Platinum 2000” | 119 |
Platinum, capacitors, Pt/BST/Pt, /Pt/Ru, /RuO2, a | 140 |
colloids, on poly(N-isopropylacrylamide)-SiO2, a | 181 |
electrodeposition, from alkaline electrolyte, a | 180 |
Pt films, on microelectrodes, a | 86 |
electrodes, see Electrodes |
gates, in SiC MOS capacitors, for gas sensors, a | 137 |
isotopes, history of the discovery | 173 |
jewellery | 56, 156 |
kilogramme, metre, definitive standards for the metric system | 125, 166 |
mining, in South Africa | 33, 56, 105 |
in MOSFETs | 57 |
nanoclusters, Au/Pt, Pt/Ru | 166 |
nanoparticles, AucorePtshell, PtcoreAushell, preparation, a | 136 |
Pt, from PtCl4,2−, a | 179 |
nanosheets, between graphite layers, a | 135 |
powders, submicron | 39 |
Pt, to Ni-Cr-Al-Y-Cr3C2, effects on oxidation, a | 40 |
Pt/C fibres, H2 adsorption, a | 135 |
Pt/Ru, electrode structures, on poly-Si, by MOCVD, a | 137 |
PZT/Pt/TiN/Si and SiO2 multilayers, a | 140 |
Schottky diodes, Au/Pt/GaN, properties | 157 |
thermal decomposition of NaCl on, a | 85 |
thermocouples, thermoelectric behaviour, a | 137 |
Platinum Alloys, CoPt ultrathin films, by sputtering, a | 40 |
FePt, nanocrystal superlattices, nanoparticles, a | 135 |
ultrathin films, by sputtering, a | 40 |
for high-temperature use | 158 |
jewellery | 56, 156 |
NdxCe3−xPt3Sb4, Kondo insulator, pressure tuning | 55 |
Pt-Al-X, for high-temperature use | 158 |
Platinum Complexes, cancer drugs | 31, 56, 140 |
organo-Pt(IV) polymers, by H-bonding | 118 |
poly-Pt porphyrins, O2 sensors, a | 42 |
[Pt2Cu4(C≡CPh)8]2, luminescence, a | 40 |
[Pt3(μ3-Te)2(dppe)3]Cl2, synthesis, a | 179 |
Pt acetylacetonate, photo-induced decomposition, a | 42 |
Pt dithiocarbamates, reactions with amines, a | 40 |
Pt porphyrins, in organic LEDs | 66 |
trans -[PtCl2(l,4-oxatellurane)2], synthesis, a | 136 |
PtCl42−, reduction by H2, a | 179 |
Pt(dmg)2, ID, pressure-induced IMI transitions, a | 135 |
Pt(II) end-capped ferrocenes with thiophene spacers, a | 85 |
Pt(II) heterobimetallics, a | 85 |
[PtMe2(bu2bipy)] + RCH2X, in Pt(IV) polymers | 118 |
[PtSe4(dppe)], synthesis, a | 179 |
Pt(trpy)Cl+ with pyrene substituent, photoproperties, a | 180 |
Platinum Compounds, Ba4CuPt2O9, superconductors, a | 89 |
Pt-oxide thin films, by reactive sputtering, a | 42 |
PtCl4-graphite, by intercalation reaction, a | 135 |
Zeise’s salt, relativistic effects | 146 |
Platinum Group Metals, in HotSpot™ system | 108 |
in limitation of tobacco related diseases | 120 |
intermetallics, for high-temperature use | 158 |
relativistic phenomena | 146 |
Platreef, geological review | 33 |
Pollution Control, bleach plant effluent, a | 43 |
motor vehicles | 22, 31, 56, 67, 71, 124, 137 |
nitrate removal, from water | 43, 139 |
Polyketones, synthesis, a | 139 |
Polymerisation, co-, a | 44, 139 |
dehydrocoupling, to silphenylenesiloxanes | 172 |
electro-, of Pt porphyrins, a | 42 |
hydrosilylation, to poly(silyl ethers), a | 139 |
ROMP | 58, 168 |
Polymers, binding Pt complexes to, for cancer drugs | 56 |
nitrile-butadiene, hydrogenation, a | 139 |
metallisation of, a | 180 |
organo-Pt(IV), by H-bonding | 118 |
poly(1,3-diaminobenzene) + Ru-Rh electrode, a | 42 |
poly(aryleneethynylene), preparation, a | 89 |
polycyclic, synthesis | 112 |
poly(N-isopropylacrylamide)-SiO2, Pt colloids on, a | 181 |
poly(N-vinyl-2-pyrrolidone), in core/shell nanoclusters | 166 |
poly(silyl ethers), synthesis, a | 139 |
polystyrene, PdCl2 anchorage, a | 86 |
Ru(III) β-diketone with butadiyne, a | 41 |
silphenylenesiloxanes, synthesis | 172 |
for supported PGM catalysts | 15 |
unsaturated, from ROMP of cycloolefins | 58 |
Powder Metallurgy, in jewellery manufacture | 156 |
Powders, Os, Rh, synthesis | 31 |
submicron, Pd and Pt, synthesis | 39 |
Pressure Tuning, NdxCe3−x, Pt3Sb4 | 55 |
Pt(dmg)2, ID, IMI transitions, a | 135 |
Propane, dehydrogenation, a | 181 |
oxidation, a | 137, 138 |
Propene, from propane, a | 181 |
oxidation, a | 137 |
Propylene, from propane, a | 181 |
Radioactivity, of Rh isotopes, drug production | 50 |
Radionuclides, 105Rh, 105Ru | 50 |
Radiotherapy, isotopically enriched Ir | 106 |
105Rh | 50 |
Rare Earths, RRh2Ge2 (R = Gd, Tb, Dy), magnetism, a | 85 |
RCM, in organic synthesis | 112 |
Reactive Hot Isostatic Pressing, RuAl materials | 158 |
Reduction, NO, a | 138 |
of Pd/C catalysts, by H2, a | 181 |
in subcriticai H2O, a | 138 |
Refining, PGMs | 31, 106 |
Relativistic Effects, on chemistry of PGMs | 146 |
Rhenium, Pd-Re, H2 chemisorption, a | 135 |
Rhodium, 105Rh, production | 50 |
nanoclusters, Au/Rh | 166 |
nanoparticles, on hydrotalcite, synthesis, a | 88 |
powders, synthesis | 31 |
Ru-Rh electrode, + poly(1,3-diaminobenzene), a | 42 |
Rhodium Alloys, Pd0.90Rh0.05Ni0.05, internal oxidation, a | 135 |
PdRh, H solubility, a | 179 |
Rhodium Complexes, [acac(Rh)(COD)], precursor, a | 180 |
[Rh6(CO)15(COOMe)]−, mass spectrum, a | 179 |
[RhIII(phpy)2(CN)2]−, photoluminescence, a | 136 |
Rh(PPh3)3Cl | 146, 172 |
Rhodium Compounds, NdRh4Al15.37, synthesis, a | 86 |
RRh2Ge2 (R = Gd, Tb, Dy), magnetism, a | 85 |
Rockets, thrusters, Ir coatings | 106 |
ROMP, in organic synthesis | 58, 168 |
Ruthenium, additions, to Fe-Cr-Al | 158 |
C-Ru xerogel composites, as supercapacitors, a | 41 |
MoRu/Be multilayer coatings, a | 140 |
particles, from decomposition of Ru3(CO)12, a | 87 |
Pt/BST/Pt/Ru capacitors, a | 140 |
Pt/Ru, electrode structures, on poly-Si, by MOCVD, a | 137 |
105Ru, for production of 105Rh | 50 |
Ru-Rh electrode, + poly(1,3-diaminobenzene), a | 42 |
Ruthenium Alloys, Al-Ir-Ru, phase diagram | 56, 85 |
AI-Ni-Ru, Al-Ru, phase diagrams | 56 |
corrosion-resistant | 56 |
Fe-Ru, damping capacity | 157 |
for high-temperature use | 158 |
intermetallic, for spark plug electrodes | 56 |
(Ir,Ru)Al | 106 |
Nb50Ru50, shape memory effect, a | 85 |
Pt-Ru, for jewellery | 156 |
Ru-RuAl, eutectic, formation | 158 |
Ta50Ru50, a | 85 |
TiAl-Ru, properties, a | 40 |
Ruthenium Complexes, Cp(OC)2IrRu(CO)3(SiCl3)2, a | 41 |
NO-Ru complexes, with en and ox ion ligands, a | 136 |
poly-cis -[Ru(vbpy)2(py)2](PF6)2, electrocatalysis, a | 136 |
Rh(bpy)32+, chemiluminescence, dodemorph sensor, a | 137 |
[Ru6C(CO)16(COOMe)]− mass spectrum, a | 179 |
Ru binuclear pyrazines, molecular hysteresis, a | 86 |
Ru nitrosonaphthols, synthesis, a | 136 |
Ru-melanoidin, photocatalyst, H2O to H2, a | 137 |
[Ru(bipy)2(Sbipy)]2+, photoproperties, a | 180 |
RuCO+, Ru(CO)x, Ru(CO)x−, IR spectra, a | 40 |
Ru(dcbpy)2(NCS)2, as Graetzel standard, a | 136 |
Ru(dcphen)2(NCS)2, photosensitiser for TiO2, a | 136 |
[RuHCI(PPi3)2], Grubb’s catalyst intermediate, a | 182 |
Ru(II) porphyrin-Merrifield’s peptide resin, a | 181 |
Ru(III) β-diketone butadiyne polymer, a | 41 |
[Ru(L)3]2+ dyes, for luminescent Nafion membranes, a | 42 |
RuX(EPh3) Schiff base complexes, a | 140 |
Ruthenium Compounds, Pr3RuO7, magnetism, a | 179 |
Pt/BST/RuO2 capacitors, a | 140 |
Ru2Ge3, Ru2Si3, optical spectra, a | 135 |
Ru3(CO)12, decomposition, Ru particles, RuO2 films, a | 87 |
Schottky Diodes, Au/Pt/GaN, properties | 157 |
Sensors, bio-, hypoxanthine, a | 181 |
CH4, a | 87 |
CO, a | 137, 180 |
electronic nose, for VOCs | 57 |
EtOH, a | 42 |
H2 in Pd, using evanescent microwave probes, a | 40 |
H2O2, a | 42 |
insulin,a | 181 |
liquid chromatography, a | 87 |
O2, a | 42 |
pH, a | 41 |
propane, propylene, a | 137 |
VOCs | 57 |
Shape Memory Alloys, CuAlPd, a | 179 |
Shape Memory Effect, Nb50Ru50, a | 85 |
“Ship-in-Bottle” Catalysts, technology | 3 |
Silicon, PZT/Pt/TiN/Si+SiO2, ferroelectric memories, a | 140 |
Ru2Si3, optical spectra, a | 135 |
ZrPd3Si3, synthesis and properties, a | 86 |
Silver, PdAg, H solubility, a | 179 |
‘Smart’ Windows, gasochromic | 155 |
Sodium Chloride, decomposition on hot Pt, a | 85 |
Solar Cells, Graetzel-type, a | 136 |
Solder, Sn-Pb, reaction with Ni/Pd, on Cu, a | 86 |
South Africa, Pt mining | 33, 56, 105 |
Spark Plugs, electrodes | 56, 106 |
Sputtering, CoPt, FePt, thin films, a | 40 |
magnetron. Ir oxide, for medical implants | 106 |
of MoRu/Be multilayer coatings, a | 140 |
Pd-Ag submicron films, a | 43 |
plasma, of Pt, onto Nafion, a | 89 |
reactive, of Ir-Ta-O films, for electrodes, a | 89 |
of Pt-oxide thin films, a | 42 |
Styrene, 2-diazo-l-indanone cyclopropanations, a | 139 |
by dehydrogenation of ethylbenzene, a | 181 |
Superalloys, ‘refractory’, PGM-based | 158 |
Supercapacitors, C-Ru xerogel composites, a | 41 |
Superconductivity, Ba4CuPt2O9 + F-doped YBCO, a | 89 |
Superlattices, FePt nanocrystal, a | 135 |
Suzuki Couplings, in organic synthesis, a | 88, 182 |
Tantalum, Ta50Ru50, a | 85 |
Thermocouples, Ir | 106 |
Pd, Pt, thermoelectric behaviour, a | 137 |
Thin Films, CoPt, FePt. by sputtering, a | 40 |
Ir, by pulsed laser deposition, a | 42 |
Pd-Ag, on γ-Al2O3, a | 43 |
Pd/α-Al2O3, by electroless plating and osmosis, a | 43 |
poly-cis -[Ru(vbpy)2(OH2)2](CIO4)2, formation, a | 136 |
poly-cis -Ru(vbpy)2(py)2](PF6)2, electrocatalysis, a | 136 |
Pt-oxide, by reactive sputtering, XPS study of, a | 42 |
RuO2, from Ru3(CO)12, a | 87 |
SrBi2Ta2O9, a | 89 |
see also Films and Membranes | |
Three-Way Catalysts | 31, 124, 137 |
Tin, plating, using IrO2-Ta2O5-SnO2/Ti anode, a | 137 |
Titanium, TiAl-Ru, properties, a | 40 |
Tobacco, smoke, oxidation, by PGM catalysts | 120 |
Trichloroethylene, oxidation, a | 138 |
UG-2 Reef, geology, Pt and Pd reserves | 33, 105 |
Vinyl Acetate, asymmetric hydroformylation, a | 44 |
Vinyl Arenes, asymmetric hydroformylation, a | 44 |
Vinylation, iodobenzene, a | 138 |
Vitamin E, synthesis, a | 182 |
VOCs, oxidation, a | 87, 138 |
sensor | 57 |
Water, for H2 generation, a | 137, 140 |
nitrate removal | 43, 84 |
oxidation, a | 44 |
as solvent, for catalytic reactions | 138, 168 |
Water Gas Shift Reaction, nanostructured PGM catalysts | |
Zirconium, ZrPd3Si3, synthesis and properties, a | 86 |