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1 developing chemical
Текстиль: проявитель -
2 developing chemical
Англо-русский словарь текстильной промышленности > developing chemical
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3 developing chemical
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4 developing chemical
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5 developing
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6 process
1) процесс2) (технологический) процесс; (технологическая) обработка3) технологический приём; способ4) технология5) режим; ход (процесса)6) обрабатывать, подвергать обработке7) подвергать анализу, анализировать•to design process — разрабатывать технологию-
acetone-acetylene process
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acetylene process
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Acheson process
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acid Bessemer process
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acid process
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acid reclaiming process
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acyclic process
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Adapti investment casting process
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additive process
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adiabatic process
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Aero case process
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aerobic process
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age-dependent process
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air blast process
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air-sand process
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Alcan process
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Al-Dip process
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alfin process
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alkali reclaiming process
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alkaline process
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Allis-Chalmers agglomeration reduction process
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ALT process
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aluminothermic process
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anaerobic process
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anamorphotic process
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annealing-in-line process
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anode process
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anodic electrode process
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AOD process
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aqua-cast process
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ARBED-ladle-treatment process
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arc-air process
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arc-remelting process
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argon-oxygen-decarburization process
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ASEA-SKF process
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autoregressive process
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averaging process
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Azincourt process
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azo coupling process
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background process
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bag process
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BAP process
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Barrow process
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Basett process
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basic Bessemer process
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basic oxygen process
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basic process
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basic-arc process
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batch process
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biofiltration process
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bipolar process
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bipolar-FET process
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bipolar-MOS process
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BISRA degassing process
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black-heart process
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Blackodising process
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blast-furnace process
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Blaw-Knox process
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bleaching process
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Bochumer-Verein process
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boiling process
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bonding process
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bottom-argon-process process
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broadband random process
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bromoil transfer process
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bromoil process
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bubble-column process
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bubble-hearth process
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buffer-slag process
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Calmes process
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Canadizing process
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carbon mold process
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carbon process
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carbon-arc process
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carbon-in-leach process
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carbon-in-pulp process
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carbothermic process
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carbro process
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carrier-gas degassing process
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cascade process
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cast shell process
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catalytic DENO process
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cathodic process
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CC-CR process
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CC-DR process
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CC-HCR process
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cementation process
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cementation-in-pulp process
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cementing process
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centrifugal spinning process
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cermet process
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CESM process
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CEVAM process
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charge transfer process
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chemical vapor deposition process
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chemical-bonding process
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Chenot process
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china process
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cine exposure process
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cine process
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CLC process
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clean burn process
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cloudburst process
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CLU process
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CMOS process
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CNC process
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CO2 silicate process
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coal reduction process
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coal to gas process
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coal-gas-sumitomo process
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coal-oxygen-injection process
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COIN process
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cold box process
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cold doping process
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cold process
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cold scrap process
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cold type process
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collodion process
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color process
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concurrent processes
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consteel process
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consumable electrode vacuum arc melting process
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contact process
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continuous annealing process
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continuous casting-cleaning rolling process
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continuous casting-direct rolling process
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continuous casting-hot charging and rolling process
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continuous electroslag melting process
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continuous metal cast process
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continuous-on-line control process
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continuous-time process
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controlled pressure pouring process
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controlled process
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converter process
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cooking process
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coppering process
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copying process
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coupled cathodic-anodic process
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cracking process
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Creusot Loire Uddenholm process
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critical process
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cumulative process
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cuprammonium process
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curing process
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CVD process
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cyclic process
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Cyclosteel process
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Czochralski process
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daguerre photographic process
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dense-media process
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Desco process
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deterministic process
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developing process
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DH degassing process
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diabatic process
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diazo process
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diffused planar process
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diffusion process
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diffusion transfer process
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dip-forming process
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direct iron process
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direct process
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direct reduction process
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direct-sintering process
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discrete-time process
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discrete process
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DLM process
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Domnarvet process
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Dored process
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double-crucible process
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double-epi process
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doubling process
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D-process
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DR process
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drop-molding process
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dry adiabatic process
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dry process
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dry-blanch-dry process
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duplex process
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easy drawing process
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EBM process
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EBR process
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EF-AOD process
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electric furnace-argon oxygen decarburization process
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electroarc process
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electrocatalytic process
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electrocolor process
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electrodialysis reversal process
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electroflux-remelting process
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electromembrane process
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electron-beam-melting process
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electron-beam-refining process
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electrophotoadhesive process
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electrophotographic process
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electroslag refining process
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electroslag remelting process
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electroslag remelt process
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electrostatographic process
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electrostream process
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Elo-Vac process
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elquench process
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endothermic process
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energy efficient process
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entropy process
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enzymatic process
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EPIC process
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epidemic process
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epitaxial growth process
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epitaxy growth process
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ergodic process
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ESR process
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Estel process
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etching process
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exoergic process
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exothermic process
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extrusion-molded neck process
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ferroprussiate process
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Ferrox process
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filming process
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filtration-chlorination process
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Finkl-Mohr process
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FIOR process
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first process
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fixed-bed MTG process
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flash steel direct reduction process
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float process
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float-and-sink process
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float-zone process
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flow process
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fluid iron ore reduction process
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fluid-bed MTG process
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fluidized roasting process
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fluid-sand process
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FMC coke process
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foaming process
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foehn process
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food-machinery and chemical coke process
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foreground process
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Foren process
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FOS process
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freeze concentration process
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fuel-oxygen-scrap process
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full-mold process
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fusion-casting process
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Futacuchi process
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Gaussian process
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Gero mold degassing process
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Gero vacuum casting process
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GGS process
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girbitol process
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gradual reduction process
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growing process
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growth process
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gypsum-sulfuric acid process
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Hall electrolytic process
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Harris process
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hazardous process
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H-coal process
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heat-transfer process
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heavy-media process
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hibernating process
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HI-GAS process
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high-frequency induction process
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HIP process
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H-iron process
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Hoope process
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hot isostatic pressing process
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hot process
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hot-metal process
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hot-metal-and-scrap process
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hot-type process
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hydrogasification process
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hydrotype process
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HyL process
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IC-DR process
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image process
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imbibition process
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immiscible displacement process
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implantation process
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impurity doping process
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in-bulk process
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inchrome process
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in-draw process
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inductoslag-melting process
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ingot casting direct rolling process
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injection molding process
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in-line process
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Inred process
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interpolation process
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investment process
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ion-implantation process
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irreversible process
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isentropic process
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ISM process
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isobaric process
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isochoric process
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isoenthalpic process
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isoentropic process
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isometric process
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isoplanar process
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isothermal process
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iterative process
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jet-expanding process
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Kaldo process
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katadyn process
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Kawasaki-bottom-oxygen-process process
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Kawasaki-Gas-Lime-Injection process
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K-BOP process
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KEK process
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KG-LI process
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kiln-reduction process
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KIVCET cyclone smelting process
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KIVCET process
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knit-deknit process
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koetherizing process
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KR process
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kraft process
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lance bubbling equilibrium process
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LBE process
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LD-AB process
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LD-AC process
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LD-AOD process
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LD-argon bottom process
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LD-argon oxygen decarburization process
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LD-CB process
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LD-circle lance process
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LD-CL process
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LD-combination blow process
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LD-HC top and botton blowing process
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LDK process
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LD-Kawasaki-Gas process
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LD-KG process
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LD-OB process
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LD-OTB process
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LD-oxygen bottom process
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LD-oxygen-top-bottom process
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lift-off process
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liquefaction process
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liquid gas plug process
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liquid-phase process
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loop transfer process
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lost core process
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low-waste technological process
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LSI process
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LVR process
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LVS process
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Mannesmann powder process
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mapping process
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Markovian process
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Markov process
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masking process
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matte fuming process
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melting process
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mercast process
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Midland-Ross process
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Midrex process
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migration process
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miscible displacement process
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miscible plug process
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mixed autoregressive-moving average process
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moist adiabatic process
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Molynutz process
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monochrome process
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monolithic process
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MOS process
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MOSFET process
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motion-picture process
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moving average process
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narrowband random process
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Neely process
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negative-positive process
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Nitemper process
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no pickle process
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nonflow process
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non-Gaussian process
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Nord-Fuvo process
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Nu-iron process
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OBM process
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OG process
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OLP converter process
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one-way process
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open-hearth process
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orbitread process
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ore process
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Orthoflow cracking process
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Orthoforming process
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orthogonal increment process
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oxidation process
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oxide-isolated process
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oxygen-blow process
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oxygen-gas process
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oxygen-lancing process
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oxygen-steelmaking process
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packaging process
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pad-batch dyeing process
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pad-dry dyeing process
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pad-jig dyeing process
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pad-roll dyeing process
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pad-steam dyeing process
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pad-steam vat-print process
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PAMCO-hot-alloy process
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parent process
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PCR process
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Perrin process
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PHA process
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phonon process
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photoelectric process
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photomechanical process
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photovoltaic process
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pig iron-scrap process
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pig-and-ore process
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pigment padding dying process
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pigment padding process
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pigment process
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pinatype process
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planar process
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plasma etching process
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plasma etch process
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plasma process
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plasma-arc process
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Plasmamelt process
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Plasmared process
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plaster mold process
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plastic wirecut process
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polytropic process
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powder silicon ribbon process
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power-press process
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prepolymer process
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prepress processes
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pressure-driven membrane process
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primuline process
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propane-acid process
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pulsating mixing process
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Purex process
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pushbench process
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Q-BOP process
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QDT process
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quality basic oxygen process process
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quasi-independent processes
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quick and direct tapping process
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ram process
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random process
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rapid solidification plasma deposition process
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rayon continuous process
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receiving process
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reclamator reclaiming process
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recurrent process
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redox process
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reducing process
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reduction-smelting process
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relaxation process
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repetitive process
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reproduction process
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reversal process
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reversible process
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RH process
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RH-OB process
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ribbon process
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R-N direct-reduction process
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roasting-sintering process
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roast-leaching process
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robot-controlled process
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rongalit-potash process
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rotor process
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rustless process
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sample process
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schoop process
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scrap-and-pig process
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scrap-conditioning process
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scrap-ore process
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screen printed process
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self-developing process
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self-healing process
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semibatch process
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semiconductor process
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sending process
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Sendzimir coating process
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sequential process
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silicon-gate MOS process
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silicon-gate process
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silk-screen process
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single-pumpdown process
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SIP process
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skein spinning process
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Skinner multiple-hearth process
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slag minimum process
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slip-casting process
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slow down process
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SLPM process
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SL-RN metallization process
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SL-RN reduction process
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solid source diffusion process
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solution regrowth process
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solvent extraction-electrowinning process
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solvent plug process
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SOS process
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spin-draw-texturizing process
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spinylock process
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sponge iron process
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spontaneous process
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Stanal process
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stationary random process
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STB process
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steady-flow process
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steam-blow process
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steelmaking process
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Stelmor process
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step and repeat process
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stochastic process
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stuffer box process
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submerged arc process
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subtractive process
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suck-and-blow process
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Sulf BT process
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Sulfinuz process
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Sumitomo-slag all recycling process
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Sumitomo-top-bottom process
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Sursulf process
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system process
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TBM process
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T-die process
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Technamation process
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thermal DeNOx process
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Therm-i-Vac process
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Thermo-Flow process
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thermoplastic process
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Thomas process
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Thorex process
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three-color process
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Thyssen-blast-metallurgy process
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Tifran process
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tightly coupled processes
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time-varying process
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trichromatic process
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triplex process
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Tropenas converter process
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Tufftride process
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Tufftride TF1 process
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uncertain process
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user process
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vacuum arc remelting process
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vacuum casting process
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vacuum deoxidation process
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vacuum induction refining process
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vacuum stream-droplet process
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vacuum-arc degassing process
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vacuum-carbodeoxidation process
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vacuum-carbonate process
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vacuum-induction melting process
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vacuum-melting process
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vacuum-metallothermic process
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vacuum-oxygen-decarburization process
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VAD process
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VAR process
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VAW process
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VHSIC process
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vigom process
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VIR process
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viscose process
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visual process
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VLSI process
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VOD process
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waiting process
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water gas process
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waterfall process
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wet process
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white-heart process
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Zinal process
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zinc distilling process -
7 attack
наступление, наступательный бой; атака; нападение; удар; стрельба; воздействие; высадка десанта; группировка сил и средств для наступательных действий [удара]; наступать; атаковать; наносить удар; нападать; поражать ( цели) ; обстреливать; воздействовать; см. тж. assault, offensive, strikeattack from (march) column (formations) — наступление с ходу [марша]
attack in (successive) waves — наступление с последовательным вводом эшелонов; высадка (морского) десанта «волнами»;
— ballistic missile attack— bombing-missile air attack— chemical agent attack— close-in attack— converging axis attack— illuminated night attack— limited objective attack— low-level bombing attack— low-low attack— massive air attack— massive attack— massive ground attack— multiple pronged attack— night-time bombing attack— nonilluminated night attack— toss air attack— toxic chemical attack— two-prong ed attack -
8 Gibson, R.O.
[br]fl. 1920s–30s[br]English chemist who, with E.O.Fawcett, discovered polythene.[br]Dr Gibson's work towards the discovery of polythene had its origin in a visit in 1925 to Dr A. Michels of Amsterdam University; the latter had made major advances in techniques for studying chemical reactions at very high pressures. After working with Michels for a time, in 1926 Gibson joined Brunner Mond, one of the companies that went on to form the chemical giant Imperial Chemical Industries (ICI). The company supported research into fundamental chemical research that had no immediate commercial application, including the field being cultivated by Michels and Gibson. In 1933 Gibson was joined by another ICI chemist, E.O.Fawcett, who had worked with W.H. Carothers in the USA on polymer chemistry. They were asked to study the effects of high pressure on various reaction systems, including a mixture of benzaldehyde and ethylene. Gibson's notebook for 27 March that year records that after a loss of pressure during which the benzaldehyde was blown out of the reaction tube, a waxy solid was observed in the tube. This is generally recognized as the first recorded observation of polythene. By the following June they had shown that the white, waxy solid was a fairly high molecular weight polymer of ethylene formed at a temperature of 443°K and a pressure of 2,000 bar. However, only small amounts of the material were produced and its significance was not immediately recognized. It was not until two years later that W.P.Perrin and others, also ICI chemists, restarted work on the polymer. They showed that it could be moulded, drawn into threads and cast into tough films. It was a good electrical insulator and almost inert chemically. A British patent for producing polythene was taken out in 1936, and after further development work a production plant began operating in September 1939, just as the Second World War was breaking out. Polythene had arrived in time to make a major contribution to the war effort, for it had the insulating properties required for newly developing work on radar. When peacetime uses became possible, polythene production surged ahead and became the major industry it is today, with a myriad uses in industry and in everyday life.[br]Bibliography1964, The Discovery of Polythene, Royal Institute of Chemistry Lecture Series 1, London.LRD -
9 system
1) система2) устройствоАнгло-русский словарь по полиграфии и издательскому делу > system
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10 system
1. система2. устройствоAgate measuring system — типографская система мер, применяемая в газетном производстве
antimarking system — устройство, предотвращающее возникновение царапин
backup system — дублирующая система; вспомогательная система
clamping system — зажимы, устройство для зажима
color proofing system — система получения цветного пробного отпечатка или изображения; цветопроба
computer-assisted makeup and imaging system — автоматизированная система электронной вёрстки и формирования изображения
computer-controlled storage system — система складирования, управляемая от ЭВМ
computerized layout system — система электронной вёрстки, электронная система макетирования
computer paint system — система видеоживописи, система компьютерной живописи
computer-to-plate system — система бесплёночного изготовления печатных форм; система «ЭВМ — печатная форма»
computer to plate-film system — компьютер, управляющий процессом копирования изображения на формную пластину
constant current biasing transfer system — система переноса под воздействием смещающего напряжения постоянного тока
continuous film dampening system — увлажняющий аппарат непрерывного действия, создающий тонкую плёнку увлажняющего раствора
conveyor system — система конвейеров; транспортирующая система
3. система организации хранения и обработки оригиналов4. устройство подачи страниц оригиналаcopy processing system — система обработки оригинала, система обработки текста
copy-to-plate system — система бесплёночного изготовления печатных форм, система «оригинал — печатная форма»
counting system — система подсчёта; счётное устройство
cylinder storage system — устройство для хранения цилиндров; система хранения цилиндров
Dahlgren dampening system — увлажняющий аппарат фирмы «Дальгрен»
directly updatable micrographic system — микрографическая система с использованием непосредственно «изменяемых» микроформ
drafting system — система изготовления чертежей, машинное изготовление чертежей
dry dot etching system — «сухая» корректура, «сухая» ретушь
dry offset plate system — система изготовления офсетных форм, не требующих увлажнения
electronic proofing system — электронная система получения пробных изображений; электронная цветопроба
electronic publishing system — электронная издательская система, электронная система донаборной обработки текста
electrophotographic liquid developing system — устройство для жидкостного проявления электрофотографического изображения
electrostatic reproduction system — электрографическое устройство, электростатическая копировально-множительная машина
hydraulic pressure system — гидравлический механизм натиска; механизм натиска с гидроприводом
icon-driven page composition system — система пополосной вёрстки с помощью списка команд, обозначенных в виде пиктограмм
identity, security and transaction card system — комплекс оборудования для изготовления удостоверений личности, пропусков и визитных карточек
5. устройство для проявления скрытого изображения, проявляющее устройствоtape drive system — лентопротяжное устройство; лентопротяжка
6. система формирования изображения7. британская имперская система мерinquiry/response system — система "запрос-ответ"
8. типографская система мер, в основу которой положен дюймincineration system — система дожигания, система термического сжигания газообразных выбросов
infeed system — ускоряющее устройство для передачи листа с накладного стола в захваты печатного цилиндра
ink-circulating system — система циркуляции краски; система принудительного нанесения краски на печатную форму
inker system — красочный аппарат, система валиков и цилиндров красочного аппарата
in-line finishing system — отделочная система, агрегатированная с печатной машиной; система поточного брошюрования
integrated dampening system — увлажняющий аппарат, соединённый с красочным аппаратом
IR drying system — инфракрасное сушильное устройство, устройство для отверждения ИК-излучением
IR-clectrophotographic system — ИК-электрофотографическая система, электрофотографическая система, использующая инфракрасное излучение
Kashida automatic line forming system — система автоматического формирования строк способом изменения длины протяжки
laser computer output microfilm system — лазерная система вывода из ЭВМ на микрофильм, лазерная КОМ-система
lens system — оптическая система, система линз
Light Etch system — «Лайт этч систем»
magnetic braking system — система магнитного торможения, магнитный тормоз
microfilm system — микрофильмовая система; система микрофильмирования
monotone electronic prepress system — электронная система допечатной обработки чёрно-белых иллюстраций
newspaper press keyless inking system — красочный аппарат бесконтактного типа для газетных печатных машин
off-press system — система, располагающаяся вне печатной машины
on-press system — система, встроенная в печатную машину
optical reader system — оптическая считывающая система; оптическое читающее устройство
C.G.S. system — система СГС
9. система пополосного набора10. система пополосной вёрсткиpaper waste handling and recovery system — система транспортировки бумажных отходов и их вторичной переработки
pigment-binder system — система «пигмент — связующее»
pin-perforation system — устройство для перфорации, перфоратор
pin register system — система штифтовой приводки ; штифтовая приводочная система
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11 agent
2) реагент, реактив; реагирующая среда3) агент, представитель•-
accelerating agent
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acidating agent
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acid-binding agent
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acid-condensing agent
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activating agent
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addition agent
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adhesion agent
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aerating agent
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amphoteric surface active agent
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anionic surface active agent
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anionic-activc agent
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anionic agent
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antiaging agent
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antiblocking agent
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antiblock agent
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antichecking agent
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anticoagulating agent
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anticrackle agent
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anticreasing agent
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antidandruff agent
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antifatigue agent
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antifoaming agent
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antifoam agent
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antifogging agent
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antifog agent
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antifouling agent
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antifreezing agent
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antigelation agent
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antiknock agent
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antilivering agent
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antirust agent
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antisag agent
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antiscale agent
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antisettling agent
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antiskinning agent
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antistatic agent
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antistick agent
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antitack agent
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antitarnishing agent
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antitarnish agent
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authorized agent
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bentonite-gelling agent
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bifunctional agent
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binding agent
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blasting agent
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bleaching agent
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blending agent
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blowing agent
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bodying agent
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boiling agent
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bonding agent
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bridging agent
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brightening agent
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bulking agent
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burning agent
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catalytic agent
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cation-active agent
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cation agent
-
cationic surface active agent
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cellulating agent
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cementing agent
-
chain-terminating agent
-
chain-transfer agent
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chaotropic agent
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chelating agent
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chemical addition agent
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chemical agent
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chemical reducing agent
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cleaning agent
-
cleansing agent
-
clearing agent
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coagulating agent
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coating agent
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coloring agent
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complexing agent
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conditioning agent
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conserving agent
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cooling agent
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corrosive agent
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coupling agent
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creaming agent
-
cross-linking agent
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crystal-nucleating agent
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curative agent
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curing agent
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cytostatic agent
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decolorizing agent
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decontamination agent
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deemulsifying agent
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deflocculating agent
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defoaming agent
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degreasing agent
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degumming agent
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dehydrating agent
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demulsifying agent
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dense blasting agent
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deoxidizing agent
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depilating agent
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desulfurizing agent
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developing agent
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dispersing agent
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doping agent
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drilling agent
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drying agent
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eluting agent
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emulsifying agent
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etching agent
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expanding agent
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filling agent
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fining agent
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finishing agent
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fire extinguishing agent
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fire retardant agent
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firing agent
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fixing agent
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flatting agent
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flavoring agent
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flocculating agent
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flotation agent
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flow agent
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fluid loss reducing agent
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fluidizing agent
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fluxing agent
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foaming agent
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fogging agent
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frothing agent
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fumigating agent
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fusing agent
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gaseous agent
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gasifying agent
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gelatinizing agent
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gelling agent
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glossing agent
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grouting agent
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handling agent
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hardening agent
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heat-carrying agent
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impregnating agent
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ionizing agent
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isomerizing agent
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laminating agent
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leaching agent
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leavening agent
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leveling agent
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light-sensitizing agent
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lubricating agent
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maintenance addition agent
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matting agent
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maturing agent
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miscible agent
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misting agent
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modifying agent
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mold-parting agent
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mud-cleanout agent
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mud-flush agent
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nonionic surface active agent
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oil wetting agent
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oil-dispersing agent
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oiling agent
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optical bleaching agent
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optical brightening agent
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oxidizing agent
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parting agent
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passenger sales agent
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penetrating agent
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peptizing agent
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pickling agent
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plasticizing agent
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plugging agent
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polishing agent
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pollution agent
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pore agent
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precipitating agent
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proknocking agent
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proknock agent
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promoting agent
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propping agent
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protective agent
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quenching agent
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reclaiming agent
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redox agent
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reducing agent
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refining agent
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reinforcing agent
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release agent
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retarding agent
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rimming agent
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salting-out agent
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seeding agent
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sensitizing agent
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shortening agent
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short-stopping agent
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silane coupling agent
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sizing agent
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slurry blasting agent
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softening agent
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solvent refining agent
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stabilizing agent
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sterilizing agent
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stimulating agent
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stopping agent
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stripping agent
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structure-forming agent
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sunscreen agent
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surface active agent
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suspending agent
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tanning agent
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texturizing agent
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thickening agent
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thinning agent
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toxic agent
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tracer agent
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washing agent
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water shutoff agent
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water-adsorbing agent
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waterproofing agent
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water-reducing agent
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water-repellent agent
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water-thickening agent
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wax-modifying agent
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wear prevention agent
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wedding agent
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wedging agent
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weighting agent
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wetting agent -
12 Caro, Heinrich
[br]b. 13 February 1834 Poznan, Polandd. 11 October 1911 Dresden, Germany[br]German dyestuffi chemist.[br]Caro received vocational training as a dyer at the Gewerbeinstitut in Berlin from 1852, at the same time attending chemistry lectures at the university there. In 1855 he was hired as a colourist by a firm of calico printers in Mulheim an der Ruhr, where he was able to demonstrate the value of scientific training in solving practical problems. Two years later, the year after Perkin's discovery of aniline dyes, he was sent to England in order to learn the latest dyeing techniques. He took up a post an analytical chemist with the chemical firm Roberts, Dale \& Co. in Manchester; after finding a better way of synthesizing Perkin's mauve, he became a partner in the business. Caro was able to enlarge both his engineering experience and his chemical knowledge there, particularly by studying Hofmann's researches on the aniline dyes. He made several discoveries, including induline, Bismark brown and Martius yellow.Like other German chemists, however, he found greater opportunities opening up in Germany, and in 1866 he returned to take up a post in Bunsen's laboratory in Heidelberg. In 1868 Caro obtained the important directorship of Badische Anilin-Soda- Fabrik (BASF), the first true industrial research organization and leading centre of dyestuffs research. A steady stream of commercial successes followed. In 1869, after Graebe and Liebermann had showed him their laboratory synthesis of the red dye alizarin, Caro went on to develop a cheaper and commercially viable method. During the 1870s he collaborated with Adolf von Baeyer to make methylene blue and related dyes, and then went on to the azo dyes. His work on indigo was important, but was not crowned with commercial success; that came in 1897 when his successor at BASF discovered a suitable process for producing indigo on a commercial scale. Caro had resigned his post in 1889, by which time he had made notable contributions to German supremacy in the fast-developing dyestuffs industry.[br]Further ReadingA.Bernthsen, 1912, obituary, Berichte derDeutschen Chemischen Gesellschaft, 45; 1,987–2,042 (a substantial obituary).LRD -
13 Cross, Charles Frederick
[br]b. 11 December 1855 Brentwood, Middlesex, Englandd. 15 April 1935 Hove, England[br]English chemist who contributed to the development of viscose rayon from cellulose.[br]Cross was educated at the universities of London, Zurich and Manchester. It was at Owens College, Manchester, that Cross first met E.J. Bevan and where these two first worked together on the nature of cellulose. After gaining some industrial experience, Cross joined Bevan to set up a partnership in London as analytical and consulting chemists, specializing in the chemistry and technology of cellulose and lignin. They were at the Jodrell laboratory, Kew Gardens, for a time and then set up their own laboratory at Station Avenue, Kew Gardens. In 1888, the first edition of their joint publication A Textbook of Paper-making, appeared. It went into several editions and became the standard reference and textbook on the subject. The long introductory chapter is a discourse on cellulose.In 1892, Cross, Bevan and Clayton Beadle took out their historic patent on the solution and regeneration of cellulose. The modern artificial-fibre industry stems from this patent. They made their discovery at New Court, Carey Street, London: wood-pulp (or another cheap form of cellulose) was dissolved in a mixture of carbon disulphide and aqueous alkali to produce sodium xanthate. After maturing, it was squirted through fine holes into dilute acid, which set the liquid to give spinnable fibres of "viscose". However, it was many years before the process became a commercial operation, partly because the use of a natural raw material such as wood involved variations in chemical content and each batch might react differently. At first it was thought that viscose might be suitable for incandescent lamp filaments, and C.H.Stearn, a collaborator with Cross, continued to investigate this possibility, but the sheen on the fibres suggested that viscose might be made into artificial silk. The original Viscose Spinning Syndicate was formed in 1894 and a place was rented at Erith in Kent. However, it was not until some skeins of artificial silk (a term to which Cross himself objected) were displayed in Paris that textile manufacturers began to take an interest in it. It was then that Courtaulds decided to investigate this new fibre, although it was not until 1904 that they bought the English patents and developed the first artificial silk that was later called "rayon". Cross was also concerned with the development of viscose films and of cellulose acetate, which became a rival to rayon in the form of "Celanese". He retained his interest in the paper industry and in publishing, in 1895 again collaborating with Bevan and publishing a book on Cellulose and other technical articles. He was a cultured man and a good musician. He was elected a Fellow of the Royal Society in 1917.[br]Principal Honours and DistinctionsFRS 1917.Bibliography1888, with E.J.Bevan, A Text-book of Papermaking. 1892, British patent no. 8,700 (cellulose).Further ReadingObituary Notices of the Royal Society, 1935, London. Obituary, 1935, Journal of the Chemical Society 1,337. Chambers Concise Dictionary of Scientists, 1989, Cambridge.Edwin J.Beer, 1962–3, "The birth of viscose rayon", Transactions of the Newcomen Society 35 (an account of the problems of developing viscose rayon; Beer worked under Cross in the Kew laboratories).C.Singer (ed.), 1978, A History of Technology, Vol. VI, Oxford: Clarendon Press.RLHBiographical history of technology > Cross, Charles Frederick
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14 situation
ситуация, обстановка, положение; состояние; условия— chemical warfare situation— electronic environment situation— ground activities situation— jamming environment situation -
15 Dyes
The following list gives a general classification of colouring matters for dyeing textile fibres: - Acid Colours dye animal fibres only and have no affinity for cellulose. If union goods are dyed with acid dyes the cotton remains white and the wool is dyed. They dye wool and silk from baths containing Glauber's salt and some acid, hence their name. Acid colours consist principally of the Azo compounds and are fairly cheap, so are used for the dyeing of dress materials, suitings, etc. No preparation of the fabric is necessary prior to dyeing. Wool and silk fabrics ate simply steeped in a warm acidified solution. Azo Dyes - These are colouring matters used for cotton dyeing and are developed direct on to the fibre. Basic Dyes - Cotton has no direct affinity for basic dyes, which consist of colour bases in combination with other chemicals, as tannic acid, sumach, or other tanning substances. Tannic acid is taken up by cotton which will then absorb the basic colours. They are very bright but not very fast. They dye wool and silk direct from plain baths. Developing Colours - See Developing Colours. Direct Cotton Colours - Dye cotton, linen, wool or silk directly, will dye cotton direct but by the addition of various salts deeper shades are obtained. With the addition of a little acid will dye wool and silk. See direct Dyes. Mordant Colours - As a rule these are very fast to washing and mostly fast to; light, such as logwood, black, Turkey red, etc. The mordant forms insoluble compounds with the colours, which are then applied to the fibres so that the insoluble coloured compounds are formed within the fibres The cotton is prepared first with some metallic mordant, as chrome, iron or alumina. Substantive Dyes - Have the property of dyeing fibres direct. They are Direct Dyes, that is they have an affinity for fibres. Sulphur and vat dyes are substantive towards cotton. Sulphur Colours are used for vegetable fibres only. These colours are insoluble in water and require the addition of sodium sulphide which converts them into soluble substances which will dye cotton. Usually fast to washing and alkalis - not so fast to bleaching (see Sulphur Colours). Vat Colours - These are fast dyes for cotton. They are insoluble in water so are converted into a soluble compound by some chemical reducing agent, and then they have a direct affinity for cotton which is dyed when immersed in the solution. There are two main classes, those prepared from anthraquinone and those related to indigo. They will dye viscose and cuprammonium rayons (see Vat Dyes) -
16 paper
1) бумага2) газета; журнал3) лист бумаги4) документ5) бумажные деньги6) пакет7) статья; научный доклад8) обои9) папье-маше10) завёртывать в бумагу11) подклеивать форзацАнгло-русский словарь по полиграфии и издательскому делу > paper
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17 paper
1. газета; журналbogus paper — газета — призрак
2. лист бумаги3. документsham paper — подложный, фальшивый документ
falsified paper — подложный, фальшивый документ
4. бумажные деньги5. пакетpaper bag — пакет; бумажный мешок
6. статья; научный докладinvited paper — заказная статья; заказной доклад
7. обои8. папье-машеcases, stands, tea-boards all of paper finely varnished and painted — коробки, подставки, чайные подносы из папье-маше, искусно разрисованные и покрытые лаком
9. подклеивать форзацacid-free paper — бескислотная бумага; антикоррозийная бумага
acid-proof paper — кислотоупорная бумага; антикоррозийная бумага
alabaster paper — алебастровая бумага; бумага, покрытая слоем свинцового сахара
Albert note paper — почтовая бумага форматом 9,8?15,2 см
albumenized paper — альбуминизированная бумага; бумага, покрытая слоем альбумина
antique paper — бумага с грубой поверхностью, имитирующая старинную бумагу ручной выделки; бумага с матовой отделкой
10. антикоррозийная бумага11. бумага с нетускнеющей поверхностью12. бумага-основа13. оклеечная бумага14. светозащитная бумага15. бумага для переноса красящего слояbakelite paper — бакелитовая бумага, бумага с наполнителем из фенольной смолы
baryta paper — баритированная бумага, баритовая бумага
bastard paper — грубая бумага; серая бумага; грубая обёрточная бумага
bible paper — словарная бумага, библьдрук
bibulous paper — промокательная бумага; впитывающая бумага
bill paper — бумага для изготовления денежных знаков и других документов строгой отчётности
blotting paper — промокательная бумага; впитывающая бумага
blueprint paper — светокопировальная бумага, бумага для изготовления синих копий, синька
board paper — часть форзаца, приклеиваемая к переплётной крышке
body paper — подложка, субстрат; бумага-основа
paper fff transparency — бумага — пленка
16. бумага для склеивания корешков блоков17. печатная бумага, бумага для печатания книг18. типографская бумагаboxed paper — бумага, уложенная или упакованная в коробку
brownprint paper — светокопировальная бумага, бумага для изготовления коричневых копий
calendered paper — каландрированная бумага, глазированная бумага, лощёная бумага, сатинированная бумага
calf paper — бумага, имитирующая телячью кожу
capsule-carrying paper — копировальная бумага с покрытием, содержащим химический реагент в микрокапсулах
carbonless paper — копировальная бумага, не содержащая пигмента, самокопирующая бумага
chattel paper — бумага, удостоверяющая имущественный интерес
19. чертёжная бумага низкого качестваbutcher paper — кровенепроницаемая бумага; толстый пергамент
20. обложечная бумагаEnglish-finish paper — глазированная, сатинированная бумага
21. бумага, испорченная при изготовленииwood-pulp paper — бумага, изготовленная из древесной массы
22. наружные листы пачки бумаги23. бумага машинного мелованияpaper web — лента бумаги, бумажная лента; бумажный рулон
24. мелованная бумага с повышенным лоскомchroma paper — высококачественная мелованная бумага, бумага высокой степени мелования
chromo paper — бумага, имитирующая хромовую кожу
clay-coated paper — бумага, покрытая слоем каолина
closely made paper with moderate finish — бумага с сомкнутой поверхностью и умеренным каландрированием
coarse paper — грубая бумага, шероховатая бумага, бумага с грубой поверхностью
coated paper — мелованная бумага; бумага с покрытием
coated free-sheet paper — мелованная бумага, не содержащая древесной массы
coated groundwood paper — мелованная бумага, содержащая древесную массу
coordinate paper — бумага с координатной сеткой, миллиметровая бумага
corn raw paper — бумага-основа для корнпапира, бумага-основа для зернёной бумаги
cross-section paper — бумага с координатной сеткой, миллиметровая бумага
cut sized paper — нарезанная бумага, бумага, разрезанная на листы канцелярского формата
Day-glo fluorescent paper — бумага дневного свечения, люминесцентная бумага
25. узорчатая бумага26. чертёжная бумага; рисовальная бумагаdeveloping paper — фотографическая бумага, фотобумага
diazo paper — диазотипная бумага, диазобумага
dielectric paper — изоляционная бумага, диэлектрическая бумага
dielectric coated paper — бумага, покрытая слоем диэлектрика
diffusion-transfer negative paper — негативная бумага, применяемая при диффузионном способе переноса изображения
27. прокладочная бумагаBible paper — библьдрук, особо тонкая непрозрачная бумага
28. промокательная бумагаsamurai commercial paper — коммерческая бумага "самурай"
29. эстампная бумага, бумага для художественной печати30. глазированная бумага; мелованная бумага31. конвертная бумагаoil tracing paper — бумага — основа для чертежной кальки
32. обёрточная бумагаextra-supercalendered paper — глазированная бумага высшего качества, суперкаландрированная бумага
fanfold paper — бумага, сфальцованная гармошкой
33. филигранная бумага, филигрань; бумага с водяными знаками34. тонкая бумага с прозрачным узором35. бумага с клеевым желатиновым слоем36. пигментная бумагаglass paper — наждачная бумага; бумага из стекловолокна
37. атласная бумагаglazed imitation paper — тонкая прочная глазированная бумага, имитирующая пергамент
38. «золотая» бумага39. бумага, окрашенная бронзовой краскойgraph paper — бумага с координатной сеткой, миллиметровая бумага
40. невыдержанная бумага41. свежевыработанная бумага; неотлежавшаяся бумагаhand-made paper — бумага ручного производства, бумага ручного отлива
hard paper — плотная бумага; картон
heat seal paper — бумага, приклеивающаяся при нагреве
heavy paper — плотная бумага, бумага с большой объёмной массой
hotmelt coated paper — бумага с покрытием, нанесённым из расплава
illustration printing paper — иллюстрационная бумага, бумага для печатания иллюстраций
image bearing paper — запечатанная бумага; бумага, несущая изображение
42. импрегнированная бумагаto rule lines on paper, to rule paper — линовать бумагу
43. изоляционная пропиточная бумагаone-side art paper — бумага, мелованная с одной стороны
metal base paper — бумага — основа для металлизирования
44. ротаторная бумага45. бумага для множительных машинIndian paper — бумага из волокон бамбука; тонкая печатная бумага
Indian Oxford paper — словарная бумага, библьдрук
46. японская бумага, японский пергамент47. имитация японской бумагиjob paper — контрольный лист ; приправочный лист
label paper — этикеточная бумага, бумага для печатания этикеток
laminated paper — многослойная бумага; ламинированная бумага
waxed paper — вощанка, вощёная бумага
48. форзацlegal paper — бумага формата 33?40,7 см
letter paper — почтовая бумага формата 25,4?40,7 см
light-weight paper — бумага с малой плотностью; неплотная бумага
49. цветная обложечная бумага50. форзацная бумага51. бумага для склеивания корешковlinty paper — бумага, пылящая при печатании
woodfree paper — бумага, не содержащая древесной массы
52. неплотная бумага53. свободная бумагаmachine-glazed paper — бумага, глазированная с одной стороны
metal paper — металлизированная бумага; фольга; станиоль
54. металлизированная бумага; фольга; станиоль55. металлописная бумагаmica paper — бумага, покрытая слюдой, слюдяная бумага
mill-conditioned paper — бумага, акклиматизированная на фабрике
mill-tinted paper — бумага фабричной окраски; бумага, окрашенная в массе
negative paper — негативная бумага, фотобумага для получения негативов
rag paper — бумага, содержащая хлопчатобумажное тряпье
paper waste — бумажный брак; макулатура; отходы бумаги
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18 Bevan, Edward John
[br]b. 11 December 1856 Birkenhead, Englandd. 17 October 1921 London, England[br]English co-inventor of the " viscose rayon " process for making artificial silk.[br]Bevan began his working life as a chemist in a soap works at Runcorn, but later studied chemistry at Owens College, Manchester. It was there that he met and formed a friendship with C.F. Cross, with whom he started to work on cellulose. Bevan moved to a paper mill in Scotland but then went south to London, where he and Cross set up a partnership in 1885 as consulting and analytical chemists. Their work was mainly concerned with the industrial utilization of cellulose, and with the problems of the paper and jute industries. Their joint publication, A Text-book of Paper-making, which first appeared in 1888 and went into several editions, became the standard reference and textbook on the subject. The book has a long introductory chapter on cellulose.In 1892 Cross, Bevan and Clayton Beadle discovered viscose, or sodium cellulose xanthate, and took out the patent which was to be the foundation of the "viscose rayon" industry. They had their own laboratory at Station Avenue, Kew Gardens, where they carried out much work that eventually resulted in viscose: cellulose, usually in the form of wood pulp, was treated first with caustic soda and then with carbon disulphide to form the xanthate, which was then dissolved in a solution of dilute caustic soda to produce a viscous liquid. After being aged, the viscose was extruded through fine holes in a spinneret and coagulated in a dilute acid to regenerate the cellulose as spinnable fibres. At first there was no suggestion of spinning it into fibre, but the hope was to use it for filaments in incandescent electric light bulbs. The sheen on the fibres suggested their possible use in textiles and the term "artificial silk" was later introduced. Cross and Bevan also discovered the acetate "Celanese", which was cellulose triacetate dissolved in acetone and spun in air, but both inventions needed much development before they could be produced commercially.In 1892 Bevan turned from cellulose to food and drugs and left the partnership to become Public Analyst to Middlesex County Council, a post he held until his death, although in 1895 he and Cross published their important work Cellulose. He was prominent in the affairs of the Society of Public Analysts and became one of its officials.[br]Bibliography1888, with C.F.Cross, A Text-book of Papermaking.1892, with C.F.Cross and C.Beadle, British patent no. 8,700 (viscose). 1895, with C.F.Cross, Cellulose.Further ReadingObituary, 1921, Journal of the Chemical Society.Obituary, 1921, Journal of the Society of Chemical Industry.Edwin J.Beer, 1962–3, "The birth of viscose rayon", Transactions of the Newcomen Society 35 (an account of the problems of developing viscose rayon; Beer worked under Cross in the Kew laboratories).RLH -
19 Bosch, Carl
SUBJECT AREA: Chemical technology[br]b. 27 August 1874 Cologne, Germanyd. 26 April 1940 Heidelberg, Germany[br]German industrial chemist who developed the industrial synthesis of ammonia.[br]Bosch spent a year as a metalworker before studying chemistry at Leipzig University, obtaining his doctorate in 1898. The following year, he entered Badische Soda-, Anilin Fabrik (BASF), the leading German manufacturer of dyestuflfs. Between 1902 and 1907 he spent much time investigating processes for nitrogen fixation. In 1908 Fritz Haber told BASF of his laboratory-scale synthesis of ammonia from its constituent elements, and in the following year Bosch was assigned to developing it to the industrial scale. Leading a large team of chemists and engineers, Bosch designed the massive pressure converter and other features of the process and was the first to use the water gas shift reaction to produce the large quantities of hydrogen that were required. By 1913 Bosch had completed the largest chemical engineering plant at BASF's works at Oppau, and soon it was producing 36,000 tons of ammonium sulphate a year. Bosch enlarged the Oppau plant and went on to construct a larger plant at Leuna.In 1914 Bosch was appointed a Director of BASF. At the end of the First World War he became Technical Adviser to the German delegation at the peace conference. During the 1920s BASF returned to its position of pre-eminence in high-pressure technology, thanks largely to Bosch's leadership. Although increasingly absorbed in administrative matters, Bosch was able to support the synthesis of methane and the hydrogenation of coal tar and lignite to make petrol. In 1925 BASF merged with other companies to form the giant IG Farbenindustrie AG, of which Bosch became Chairman of the Managing Board. His achievements received international recognition in 1931 when he was awarded, with F. Bergius, the Nobel Prize in Chemistry for high-pressure synthesis.[br]Bibliography1932, Über die Entwicklung der chemischen Hochdruckindustrie bei der Aufbau der neuen Ammoniakindustrie.Further ReadingK.Holdermann, 1953, Carl Bosch, Leben und Werk.See also biographical memoir in Chemische Berichte 190 (1957), pp. xix–xxxix.LRD -
20 Pattinson, Hugh Lee
SUBJECT AREA: Metallurgy[br]b. 25 December 1796 Alston, Cumberland, Englandd. 11 November 1858 Scot's House, Gateshead, England[br]English inventor of a silver-extraction process.[br]Born into a Quaker family, he was educated at private schools; his studies included electricity and chemistry, with a bias towards metallurgy. Around 1821 Pattinson became Clerk and Assistant to Anthony Clapham, a soap-boiler of Newcastle upon Tyne. In 1825 he secured appointment as Assay Master to the lords of the manor of Alston. There he was able to pursue the subject of special interest to him, and in January 1829 he devised a method of separating silver from lead ore; however, he was prevented from developing it because of a lack of funds.Two years later he was appointed Manager of Wentworth Beaumont's lead-works. There he was able to continue his researches, which culminated in the patent of 1833 enshrining the invention by which he is best known: a new process for extracting silver from lead by skimming crystals of pure lead with a perforated ladle from the surface of the molten silver-bearing lead, contained in a succession of cast-iron pots. The molten metal was stirred as it cooled until one pot provided a metal containing 300 oz. of silver to the ton (8,370 g to the tonne). Until that time, it was unprofitable to extract silver from lead ores containing less than 8 oz. per ton (223 g per tonne), but the Pattinson process reduced that to 2–3 oz. (56–84 g per tonne), and it therefore won wide acceptance. Pattinson resigned his post and went into partnership to establish a chemical works near Gateshead. He was able to devise two further processes of importance, one an improved method of obtaining white lead and the other a new process for manufacturing magnesia alba, or basic carbonate of magnesium. Both processes were patented in 1841.Pattinson retired in 1858 and devoted himself to the study of astronomy, aided by a 7½ in. (19 cm) equatorial telescope that he had erected at his home at Scot's House.[br]Principal Honours and DistinctionsVice-President, British Association Chemical Section 1838. Fellow of the Geological Society, Royal Astronomical Society and Royal Society 1852.BibliographyPattinson wrote eight scientific papers, mainly on mining, listed in Royal Society Catalogue of Scientific Papers, most of which appeared in the PhilosophicalMagazine.Further ReadingJ.Percy, Metallurgy (volume on lead): 121–44 (fully describes Pattinson's desilvering process).Lonsdale, 1873, Worthies of Cumberland, pp. 273–320 (contains details of his life). T.K.Derry and T.I.Williams, 1960, A Short History ofTechnology, Oxford: Oxford University Press.LRD
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