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Àâòîðèçàöèÿ |
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Ïîèñê ïî óêàçàòåëÿì |
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Riviere J.C. (ed.), Myhra S. (ed.) — Handbook of Surface and Interface Analysis |
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Ïðåäìåòíûé óêàçàòåëü |
Ga, AES LMM spectra in InGaAsP 506
Gaussian peak shape 198—199
Gausso — Lorentzian function 150 165 168 175 623 625—628
Gausso — Lorentzian function, FWHM 175
Gausso — Lorentzian function, in peak synthesis 328
GDOES 257
GDOES, advantages 282
GDOES, characteristics 258—259 279—280
GDOES, depth profile 281
GDOES, depth resolution 282
GDOES, instrumentation 279—280
GDOES, operation 279
GDOES, quantification 279—280
GDOES, recent developments 280
GDOES, strengths and weaknesses 282
Ge 3d peak synthesis 325—326
Ge/Si double layer, depth profile 306
GIXRD, characteristics 41
GIXRD, corrosion 667
GIXRD, description 360 610—611
Glasses, adsorption 590—593
Glasses, adsorption, contact angle 590
Glasses, adsorption, hydrophobic 590
Glasses, adsorption, information from ARXPS 591—593
Glasses, adsorption, information from FTIR 590
Glasses, adsorption, long-chain alcohols 590
Glasses, analysis strategy 549
Glasses, analysis strategy, chemical analysis 550
Glasses, analysis strategy, physical imaging 548
Glasses, analysis strategy, structural analysis 548—550
Glasses, combined techniques 548
Glasses, depth profiles 589
Glasses, depth profiles, surface charging problems 589
Glasses, information requirements 546—547
Glasses, surface characterisation requirements 543—544
Glasses, surface composition 586—589
Glasses, surface composition, depletion of surface elements 588
Glasses, surface composition, difference from bulk 588
Glasses, surface composition, E-glass by XPS 588
Glasses, surface composition, structural constituents 586
Glasses, surface features 543—544
Glasses, surface modifications 596—597
Glasses, surface modifications, overlayer thickness from XPS 596
Glasses, surface modifications, silane and siloxane adsorption 596—597
Glasses, surface reactions 591 594 596
Glasses, surface reactions, information from 596
Glasses, surface reactions, information from combined techniques 591
Glasses, surface reactions, information from diffraction techniques 596
Glasses, surface reactions, leaching, hydrolysis, transformation 591
Glasses, surface reactions, SIMS profiles from waste glass 595
Glasses, surface reactions, waste glass composition 594
Glasses, surface sites 589
Glasses, surface sites, information from AFM 589
Glasses, surface sites, information from combined techniques 589
Grain boundaries, analysis by 450 471 473—477
Grain boundaries, analysis by AES 450 459—464 471—472
Grain boundaries, analysis by AES, monatomic layer 461
Grain boundaries, analysis by AES, quantification 461 463
Grain boundaries, analysis by atom probe, Astroloy 477—478
Grain boundaries, analysis by autoradiography 458
Grain boundaries, analysis by autoradiography, B in S/S 458
Grain boundaries, analysis by DSIMS 457
Grain boundaries, analysis by DSIMS, C map 457
Grain boundaries, analysis by DSIMS, Monel 400 670
Grain boundaries, analysis by EDS 450 474 475
Grain boundaries, analysis by PEELS 450 473—474
Grain boundaries, analysis by TEM, EDS 474—475
Grain boundaries, analysis by TEM, FEGSTEM 473—474 476
Grain boundaries, analysis by TEM, grain boundary composition 474—475
Grain boundaries, analysis by TEM, PEELS 473—474
Grain boundaries, analysis by TEM, specimen preparation 472—473
Grain boundaries, analysis by XPS 465 569—570
Grain boundaries, analysis by XPS, Sn 3d spectrum 467
Grain boundaries, analysis by XPS, Sn map 466
Grain boundaries, cavities 463
Grain boundaries, exposure by impact fracture 459 461
Grain boundaries, exposure by impact fracture, fracture stage 460
Grain boundaries, exposure by impact fracture, fracture surface 461
Grain boundaries, exposure by impact fracture, specimen preparation 461
Grain boundaries, exposure by impact fracture, vacuum conditions 460
Grain boundaries, exposure by tensile fracture 468 471
Grain boundaries, exposure by tensile fracture, fracture stage 469
Grain boundaries, exposure by tensile fracture, SEM images 470
Grain boundaries, in , SEM and SAM 120
Grain boundaries, particles 459 463
Grain boundaries, SAM images, P, Sn 463—464
Grain boundaries, segregation 448—481
Grain boundaries, segregation, analysis sequence 454 455
Grain boundaries, segregation, atomic jump frequency 454
Grain boundaries, segregation, atomic size 454
Grain boundaries, segregation, atomic solubility 452 153
Grain boundaries, segregation, catastrophic consequences 447 448
Grain boundaries, segregation, chemical etching 455 456
Grain boundaries, segregation, diffusion theory 450—452
Grain boundaries, segregation, enrichment 452 153 471 172 474
Grain boundaries, segregation, Gibbs adsorption 451
Grain boundaries, segregation, inverse Kirkendall effect 454 471
Grain boundaries, segregation, ion profiling 452 453
Grain boundaries, segregation, irradiation effects 454 471 472
Grain boundaries, segregation, McLean equation 451
Grain boundaries, segregation, specimen preparation 455—457
Grain boundaries, segregation, trace elements 448 449
Grain boundaries, SEM images 463—464 470
H (hydrogen), detection by ESD 895—896
H (hydrogen), in implantation profile 355
H (hydrogen), influence on Auger peak shapes 106
HEBS 370
Hifax, effect of aging 242
Hifax, SSIMS spectrum 242
High Resolution TEM (HRTEM) 42
High Resolution TEM (HRTEM), characteristics High Resolution TEM (HRTEM), implanted layers 360
High Resolution TEM (HRTEM), tribology 707 709
High Resolution TEM (HRTEM), tribology, wear particles 736—737
HREELS, comparison with RAIRS 900—901
HREELS, description 898—899
HREELS, dipole scattering 899
HREELS, dipole scattering, selection rules 899
HREELS, energy resolution 899—901
HREELS, impact scattering 899
HREELS, instrumental shielding requirements 899
HREELS, low primary energies 898—899
HREELS, oxidation of Ga 508
HREELS, spectrum of cyclohexane on W(110) 900—901
HREELS, spectrum of cyclohexane on W(110) gas phase comparison 900
HREELS, tribology 725
Hydrated species, , interpretation 524
Hydrated species, , peak energies 516—517
Hydrated species, , Si LVV broadening 524
Hydrated species, , use of SRPS 524
Hydrogen charging, cathodic, in acid 465 467—468
Hydrogen charging, hydrogen diffusion 468
Hydrogen charging, induction of fracture 450 465 468
Hydrogen charging, molten salts 468
Hydroxyl group, in O 1s spectrum 489
I/methanol solution, use in removal of metal to expose buried interface 809—810
ICP, Roman lead pipe 836 839 852
ICP, Roman leaded bronzes 857—858
Imaging XPS (iXPS) 90—91 200—201 465—466 492 795 797
Imaging XPS (iXPS), characteristics 40
Imaging XPS (iXPS), spatial resolution 551
Imaging XPS (iXPS), use in analysis of minerals, ceramics and glasses 551
Impact fracture 459—461 468—470
Impact fracture, fracture stage 459—460
Impact fracture, fracture surface 461
Impact fracture, fracture surface, ductile 460
Impact fracture, fracture surface, intergranular 460
Impact fracture, specimen preparation 459
Impact fracture, vacuum conditions 459
Implanted layers, characterisation methods 355 357—360
Implanted layers, characterisation methods, depth resolutions 358
| Implanted layers, characterisation methods, ERDA 358
Implanted layers, characterisation methods, NRA 358
Implanted layers, characterisation methods, RBS 358—359
Implanted layers, characterisation methods, requirements 357
Implanted layers, characteristics 357
Implanted layers, medical prostheses 369—377
Implanted layers, medical prostheses, co-implantation 374 376
Implanted layers, medical prostheses, corrosion behaviour 372—374 376
Implanted layers, medical prostheses, electrochemical measurements 370 373
Implanted layers, medical prostheses, excessive wear 369 376
Implanted layers, medical prostheses, hardness measurements 370—371
Implanted layers, medical prostheses, hip and knee joints 369
Implanted layers, medical prostheses, implant profile 374
Implanted layers, medical prostheses, improved wear 371 376
Implanted layers, medical prostheses, N, C, O implantation 370—376
Implanted layers, medical prostheses, polyethylene 369—373 376
Implanted layers, medical prostheses, Ti6Al4V alloy 369—376
Implanted layers, medical prostheses, wear dependence on implant profile 374
Implanted layers, medical prostheses, wear measurement methods 370
Implanted layers, medical prostheses, XPS analyses 374
Implanted layers, medical prostheses, XRD analyses 374 375
Implanted layers, medical prostheses, Y implantation 370 376
Implanted layers, modification of Cr layers 377—381
Implanted layers, modification of Cr layers, AES analysis 377—381
Implanted layers, modification of Cr layers, amorphous bright Cr deposition (ABCD) 377
Implanted layers, modification of Cr layers, composition 378—381
Implanted layers, modification of Cr layers, CrC, CrN formation 379
Implanted layers, modification of Cr layers, depth profiling 377—380
Implanted layers, modification of Cr layers, electrodeposition 377
Implanted layers, modification of Cr layers, hardness measurement 377—378
Implanted layers, modification of Cr layers, implantation profile 378—380
Implanted layers, modification of Cr layers, ISS analysis 377
Implanted layers, modification of Cr layers, layer preparation 377
Implanted layers, modification of Cr layers, N implantation 377—381
Implanted layers, modification of Cr layers, XPS analysis 377
In (indium) 3d XPS spectra, from Nb(Pb — In) junction 498
In (indium) 3d XPS spectra, peak energies 499
In (indium), AES MNN spectra in InGaAsP 507
InGaAsP, passivation by 500—509
InGaAsP, passivation by , AES quantification 502
InGaAsP, passivation by , ELS analysis 508
InGaAsP, passivation by , interpretation 508—509
InGaAsP, passivation by , O coverage 501—502
InGaAsP, passivation by , SAM analysis 503—505
InGaAsP, passivation by , surface analysis requirements 501
Inhomogeneity, revealed by ARAES 116—117
InP on , thin film, contaminant layer 531
InP on , thin film, description 525
InP on , thin film, interfaces 526
InP on , thin film, interpretation 529—535
InP on , thin film, ion bombardment damage 527
InP on , thin film, loss spectrum 533
InP on , thin film, material 525
InP on , thin film, SAM images 530—531 533—536
InP on , thin film, SAM linescans 531
InP on , thin film, SAM point analyses 526—527
InP on , thin film, scanning ELS 532 536
InP on , thin film, spatial resolution 525
InP on , thin film, surface analysis requirements 486 525
Interband transitions in ELS 507—508
Interfaces, adhesive, buried 808—810
Interfaces, adhesive, buried, on Si 515
Interfaces, adhesive, buried, corrosion film, location by AES depth profile 664—665
Interfaces, adhesive, buried, depth 808
Interfaces, adhesive, buried, exposure by removal of polymer with N-methyl pyrrolidone 809
Interfaces, adhesive, buried, exposure by removal of substrate with I/methanol solution 810
Interfaces, adhesive, buried, Fe(II) in interface 810
Interfaces, adhesive, buried, fibre/matrix, buried 636—638
Interfaces, adhesive, buried, fibre/matrix, buried, method of examination 636—638
Interfaces, adhesive, buried, fibre/matrix, buried, spectrum subtraction technique 637—639
Interfaces, adhesive, buried, inappropriateness of ion profiling 808
Interfaces, adhesive, buried, InP on 526
Interfaces, adhesive, buried, InP on , access by surface analysis 526
Interfaces, adhesive, buried, Josephson junction 494
Interfaces, adhesive, buried, Josephson junction, access by surface analysis 494
Interfaces, adhesive, buried, mechanical sectioning 810
Interfaces, adhesive, buried, thin film models 787 810
Interfaces, adhesive, buried, thin films, characteristics 299—300
Interfaces, adhesive, buried, width 808
Interfaces, adhesive, buried, X-ray transparent thin films on metal substrates 810
Ion beam assisted deposition(IBAD) 298
Ion beam assisted deposition(IBAD), coatings on steel 732
Ion bombardment (low energy), effects on 496 499
Ion bombardment (low energy), effects on cermets 329
Ion bombardment (low energy), effects on InP on Ion bombardment (low energy), damage in 527
Ion bombardment (low energy), effects on oxides 325—332
Ion bombardment (low energy), effects on PbO 498
Ion bombardment (low energy), effects on polymers 334 340 752—753
Ion bombardment (low energy), effects on Si suboxides 330—332 511
Ion bombardment (low energy), effects on Si suboxides, Auger parameter 331 512—513
Ion bombardment (low energy), effects on Si suboxides, interpretation 521 523—524
Ion bombardment (low energy), effects on Si suboxides, ion energy dependence 512
Ion bombardment (low energy), effects on Si suboxides, O 1s energies 512
Ion bombardment (low energy), effects on Si suboxides, O KVV energies 512
Ion bombardment (low energy), effects on Si suboxides, O/Si ratios 516
Ion bombardment (low energy), effects on Si suboxides, peak positions 512
Ion bombardment (low energy), effects on Si suboxides, peak widths 512 514 515
Ion bombardment (low energy), effects on Si suboxides, Si 2p energies 512
Ion bombardment (low energy), effects on Si suboxides, Si 2s energies 512
Ion bombardment (low energy), effects on Si suboxides, Si KLL energies 512 523
Ion bombardment (low energy), effects on Si suboxides, surface specificity 513—515
Ion bombardment (low energy), effects on Si suboxides, XAES analysis 511—512 521
Ion bombardment (low energy), effects on Si suboxides, XPS analysis 511—513
Ion bombardment (low energy), effects on TiN 315—324
Ion etching, TEM specimens 473
Ion etching, waveguide structures, beam splitter device 383—386
Ion etching, waveguide structures, buried waveguide 386—387
Ion etching, waveguide structures, divider 384 386
Ion etching, waveguide structures, embossing 382—383 387
Ion etching, waveguide structures, fibre optics 381
Ion etching, waveguide structures, fibre-chip coupling 386—387
Ion etching, waveguide structures, index of refraction 381 386
Ion etching, waveguide structures, ion irradiation 381—387
Ion etching, waveguide structures, layer depths 386—387
Ion etching, waveguide structures, light irradiation 381
Ion etching, waveguide structures, masking 383
Ion etching, waveguide structures, polymeric materials 381
Ion guns, duoplasmatron 267
Ion guns, electron impact 267
Ion guns, LMIG 267
Ion guns, Penning discharge 267
Ion guns, TELETWIN 303—304
Ion guns, TELETWIN, angle of incidence 304
Ion guns, TELETWIN, sputtering rate 304
Ion implantation (high energy), applications 368—387
Ion implantation (high energy), applications, medical protheses 369—376
Ion implantation (high energy), applications, modification of Cr layers 377—381
Ion implantation (high energy), applications, surface modifications 368
Ion implantation (high energy), description 347
Ion implantation (high energy), physical processes 350—353
Ion implantation (high energy), physical processes, collision cascade 210 227 240 350—351
Ion implantation (high energy), physical processes, energy loss mechanisms 350—352
Ion implantation (high energy), physical processes, energy losses, dependence on ion energy 351—352
Ion implantation (high energy), physical processes, energy losses, dependence on ion mass 351—352
Ion implantation (high energy), physical processes, implantation range 353
Ion implantation (high energy), physical processes, instrumentation 354 357
Ion implantation (high energy), physical processes, ion depth distribution 351
Ion implantation (high energy), physical processes, projected range 350
Ion implantation (high energy), physical processes, simulation programs 352—353
Ion implantation (high energy), physical processes, sources 354 357
Ion implantation (high energy), physical processes, sputter yield 350
Ion implantation (low energy), surface film preparation 299—300
Ion plating, for thin film deposition 298
Ion sources, energy distribution 127—128
Ion sources, ion implantation 354 357
Ion sources, ion implantation, CHORDIS 354
Ion sources, ion implantation, Freeman 354
Ion sources, ion implantation, mass-filtered 354
Ion sources, ion implantation, MEVVA 354
Ion sources, ion implantation, plasma 355 357
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