| 82-2-2 |
|
1,4-Butanediol and Tetrahydrofuran from Butadiene |
| 80-3-3 |
|
1,4-Butanediol by Electrochemical Synthesis |
| 86-3-1 |
|
1,4-Butanediol from Allyl Alcohol |
| 94-1-1 |
|
1,4-Butanediol from Maleic Anhydride via Dimethyl Maleate |
| 95-1-8 |
|
1-Hexene from Ethylene by the Phillips Trimerization Technology |
| 86-2-3 |
|
2,6-Xylenol and o-Cresol from Phenol |
| 94-2-1 |
|
A Non-Tower Process for High Bulk Density Detergent Powders |
| 89-2-3 |
|
Acetal Copolymers by an Asahi Chemical Process |
| 91-1-3 |
|
Acetaldehyde Process, Catalytica |
| 88-3-4 |
|
Acetic Acid by Low Pressure Carbonylation of Methanol with a Supported Rhodium Catalyst |
| 75-3-3 |
|
Acetic Acid from Synthesis Gas |
| 78-3-4 |
|
Acetic Acid, Low Pressure Carbonylation of Methanol |
| 76-3-1 |
|
Acetic Anhydride from Dimethyl Ether |
| 95-1-11 |
|
Acetone Recycling Technology in Phenol Manufacturing, Mitsui's |
| 90-1-3 |
|
Acetonitrile Recovery in Acrylonitrile Manufacture |
| 2008-2 |
|
Acid Gas Removal |
| 84-2-4 |
|
Acrylamide by Enzymatic Hydration of Acrylonitrile |
| 91-3-3 |
|
Acrylamide by Enzymatic Hydration of Acrylonitrile (Third Generation) |
| 88-2-4 |
|
Acrylonitrile from Propane by New BP/Sohio Patented Process |
| 95-1-6 |
|
Acrylonitrile Via High-Conversion Propane Ammoxidation |
| 84-1-2 |
|
Adipic Acid via Butadiene Carbonylation |
| 93-2-1 |
|
Alcohols (Natural Detergent) by a Vapor Phase Ester Hydrogenation Process |
| 85-1-4 |
|
Alcohols, Mixed, from Syngas, Dow/UCC Process |
| 96-9 |
|
Aliphatic Polyketones from Carbon Monoxide and Olefins by the Shell Liquid-Phase Polymerization Process |
| 93-3-3 |
|
Alkylation Process, Haldor Topse |
| 90-2-4 |
|
Alkylbenzene, Linear, by Heterogeneous Catalysis |
| 88-1-2 |
|
Alkylbenzene, Linear, Using HF Catalyst |
| 86-2-1 |
|
Allyl Alcohol from Propylene, Showa Denko |
| 83-2-1 |
|
Ammonia from ICI's Low P AMV Process |
| 93-1-4 |
|
Ammonia from Natural Gas |
| 2007-10 |
|
Ammonia from Natural Gas by KBR "KAAP" Process |
| 89-1-3 |
|
Ammonia from Natural Gas via ICI "LCA" Process |
| 75-2-2 |
|
Ammonia Industry Outlook |
| IX-1-5 |
|
Aniline, Amination of Benzene |
| 78-2-2 |
|
Anthraquinone from Naphthalene |
| 82-2-3 |
|
Anthraquinone from Toluene |
| X-2-A |
|
Aromatics BTX, Values |
| IX-2-2 |
|
Aromatics Extraction |
| 85-3-3 |
|
Aromatics from LPG |
| 82-1-1 |
|
Bisphenol A from Phenol, Acetone/UC Process |
| 95-1-3 |
|
Bisphenol A Via Sinopec-Lummus Technology |
| 91-3-1 |
|
Bisphenol Compounds via Cyclic Oligomers by GE Plastics Technology, Polycarbonates from |
| 2007-1 |
|
Butanediol |
| 95-1-10 |
|
Butanediol from Butadiene Via Epoxybutene |
| 95-1-4 |
|
Butanediol from n-Butane Via Maleic Acid Hydrogenation |
| 78-3-3 |
|
Butene-1 from MTBE Plant Raffinate |
| 92-2-2 |
|
C4 Olefins Utilization |
| 84-3-4 |
|
C5-C6 Isomerization |
| 95-1-2 |
|
Caprolactam from Butadiene |
| 87-3-2 |
|
Caprolactam Process (Modified) by Montedipe Technology |
| 81-1-3 |
|
Caprolactam via SNIA Viscosa Process |
| 84-1-1 |
|
Carbon Black |
| 91-2-2 |
|
Carbon Monoxide-Ethylene Copolymers |
| 81-1-1 |
|
Caustic Soda from Trona Caustization Process |
| 88-3-1 |
|
Ceramic Coatings, Applications and Opportunities |
| 2008-3 |
|
Chemical Plant Security Regulations and Associated Costs |
| 80-3-1 |
|
Chemicals via Butylene Oxides by Hydroperoxide Process |
| 83-3-2 |
|
Chlorinated Polyethylene |
| 75-3-4 |
|
Chlorinated Polyvinyl Chloride |
| 94-1-3 |
|
Chlorine from Hydrogen Chloride |
| 87-1-1 |
|
Chlorine from Hydrogen Chloride by Oxidation |
| 95-1-7 |
|
Chlorine from Hydrogen Chloride by the DuPont Electrolytic Process |
| 75-1-1 |
|
Chlorine, Membrane Cells |
| 96-12 |
|
Combinatorial Chemistry |
| 2007-7 |
|
Comparison of Polyethylene Processes |
| 75-2-3 |
|
Construction Cost Index |
| 92-1-1 |
|
Coproduction of Dimethyl Carbonate and Ethylene Glycol by Transesterification |
| 94-3-4 |
|
Crude-Oil Trend Line Price Projection |
| 92-3-4 |
|
Cumene by a Catalytic Distillation Process |
| 84-1-4 |
|
Cumene by Combined Reaction/Distillation |
| 87-3-3 |
|
Cyclohexanol from Benzene by Asahi Chemical Process |
| 97-7 |
|
Deep Catalytic Cracking |
| 92-1-4 |
|
Degradable High-Molecular Polymers from Lactic Acid |
| 94-1-4 |
|
Dendrimer Polymer from Diamino-Butane and Acrylonitrile |
| X-2-D |
|
Detergent Alcohols Outlook |
| 91-2-1 |
|
Dihydroxybenzenes from Phenol by Vapor-Phase Hydroxylation |
| 84-3-3 |
|
Dimerization of Ethylene to Butene-1 |
| 91-1-2 |
|
Dimethyl Carbonate by Vapor Phase Oxidative Carbonylation |
| 87-1-4 |
|
Dimethyl Carbonate from Methanol |
| 92-2-4 |
|
Dimethyl-2,6-Naphthalenedicarboxylate from o-Xylene |
| 97-2 |
|
Eastman Syngas Based Route Methyl Methacrylate |
| X-3-4 |
|
Energy Demand, U.S. Chemical Industry |
| 84-3-2 |
|
Enriched Air by a Membrane Process |
| X-1-3 |
|
Environmental Regulations |
| 93-1-2 |
|
Estimates of Production Costs, Quick |
| 2007-15 |
|
Estimating the Carbon Footprint of the Worldwide Chemical Industry |
| 88-3-2 |
|
ETBE Versus MTBE |
| X-2-C |
|
Ethane Recovery from Natural Gas |
| 97-3 |
|
Ethane-Based Process for Ethylbenzene |
| 2007-9 |
|
Ethy Acetate by Direct Addition of Ethylene and Acetic Acid |
| X-1-1 |
|
Ethylene and Coproducts, Values |
| X-1-1 |
|
Ethylene and Coproducts, Values |
| 93-3-2 |
|
Ethylene and Vinyl Chloride by the USC/Occidental Chemical Process, Coproduction of |
| 75-1-5 |
|
Ethylene by Hydrocracking |
| 80-1-3 |
|
Ethylene by Methanol Homologation |
| 77-3-3 |
|
Ethylene from Atmospheric Gas Oil |
| 76-3-3 |
|
Ethylene from Carbon Monoxide and Hydrogen |
| 78-1-1 |
|
Ethylene from Crude Oil, UCC/Kureha/Chiyoda |
| 87-1-2 |
|
Ethylene from Ethane by Oxydehydrogenation |
| 85-2-2 |
|
Ethylene from Ethane, by Oxidative Dehydrogenation |
| 79-3-4 |
|
Ethylene from Ethanol |
| 82-2-1 |
|
Ethylene from Methane Chlorine Reaction System |
| 79-3-2 |
|
Ethylene from Methanol |
| 77-2-2 |
|
Ethylene from Naphtha, Millisecond Cracking |
| 80-3-2 |
|
Ethylene from Synthesis Gas |
| IX-3-2 |
|
Ethylene from Synthesis Gas |
| 82-1-3 |
|
Ethylene from Vacuum Gas Oil/Linde AG Process |
| 82-1-2 |
|
Ethylene from Vacuum Gas Oil/Unicracking/FPP |
| 83-3-3 |
|
Ethylene Glycol from Formaldehyde |
| X-2-B |
|
Ethylene Glycol from Synthesis Gas |
| IX-3-3 |
|
Ethylene Glycol from Synthesis Gas |
| 79-2-1 |
|
Ethylene Glycol via Ethylene Carbonate |
| X-3-3 |
|
Ethylene Glycol via Glycol Esters |
| 81-2-1 |
|
Ethylene Glycol via Oxalate Esters |
| 78-2-1 |
|
Ethylene Glycol via Oxalate Esters |
| 83-3-4 |
|
Ethylene Glycol, Direct Process from Syngas |
| IX-2-4 |
|
Ethylene Glycols, Direct Oxidation |
| 96-11 |
|
Ethylene Outlook |
| IX-1-3 |
|
Ethylene Oxide, Silver Ketenide Catalyst |
| 75-2-4 |
|
Ethylene Oxide, Update |
| 75-3-1 |
|
Ethylene, Alternate Feedstocks |
| 2007-11 |
|
Feedstock Price Issues for Bio-Derived Materials |
| 85-1-3 |
|
Fibers, a Novel Polyamide Blend |
| 2008-13 |
|
Five-Year Outlook for Mergers and Acquisitions in the Chemical Industry |
| 2007-2 |
|
Fischer-Tropsch Reactor System Loop |
| 76-1-2 |
|
Fluorocarbon Turbines |
| 96-2 |
|
Formaldehyde from Methanol |
| IX-2-5 |
|
Formaldehyde from Natural Gas |
| 81-2-3 |
|
Gasoline from Natural Gas via Methanol/Mobil |
| 97-10 |
|
Glyphosate |
| 83-2-3 |
|
Group Transfer Polymerization Process/Du Pont |
| 96-4 |
|
Hexamethylenediamine and Caprolactam from Adiponitrile by Partial Hydrogenation and Cyclization od Aminocapronitrile |
| 78-2-3 |
|
HMDA by Electrolytic Dimerization of Acrylonitrile |
| 84-1-3 |
|
Hydrogen by Methanol Decomposition |
| 83-1-4 |
|
Hydrogen Chloride Recovery |
| X-3-2 |
|
Hydrogen Cyanide |
| 76-3-4 |
|
Hydrogen Cyanide from Methanol |
| 84-2-3 |
|
Hydrogen Peroxide by Cathodic Reduction |
| 90-1-2 |
|
Hydrogen Peroxide by the ARCO Process |
| 87-2-1 |
|
Hydrogen Peroxide from H2 and Oxygen, Dupont |
| 76-3-2 |
|
Hydrogen Peroxide via an Inorganic Process |
| 88-1-1 |
|
Hydrogen Sulfide Removal/Unisulf Process |
| 75-1-2 |
|
Hydrogen, Closed Cycle |
| 2007-3 |
|
Hydrogen: a Technical Review |
| 85-3-2 |
|
Hydroquinone from Phenol, Zeolite-Catalyzed |
| IX-2-3 |
|
Hydroquinone Processes |
| 95-1-12 |
|
Intermaterial Substitution Simulation |
| 91-1-1 |
|
Isobutane Dehydrogenation by Thermal Cracking |
| 92-3-1 |
|
Isobutene from Isobutane |
| 91-2-4 |
|
Isobutene Production by Isomerization of N-Butene |
| 88-1-4 |
|
Isobutylene, High-Purity, by Phenol Alkylation |
| 78-3-2 |
|
Isomerization of n-Butenes in MTBE Manufacture |
| 86-1-4 |
|
Isononyl Alcohols by Hydroformylation |
| 90-3-2 |
|
Isophorone Diisocyanate by a Nonphosgenation Process |
| 2007-8 |
|
Isotherming™ Hydrotreating Process for Ultra Low Sulfur Diesul Fuel |
| 96-7 |
|
Lactic Acid by Fermentation |
| 97-9 |
|
L-Lysine by Fermentation with Recovery by Ion-Exchange |
| 97-8 |
|
Lysine-Sulfate Production by Fermentation with Recovery by Spray Drying |
| 75-2-1 |
|
Maleic Anhydride from BB Fraction |
| X-3-1 |
|
Maleic Anhydride from Butene or Benzene |
| 77-2-1 |
|
Maleic Anhydride from Butene, Benzene, Butane |
| 93-2-3 |
|
Maleic Anhydride from n-Butane; Fixed Bed Reactor; Organic Solvent Recovery |
| 75-1-3 |
|
Maleic Anhydride Recovery |
| 86-3-4 |
|
m-Aminophenol from Resorcinol by Amination |
| 94-1-2 |
|
MDI and PMPPI by Carbonylation, Lucky Non-Phosgenation Process |
| 83-2-2 |
|
MDI via Asahi Nonphosgenation Process |
| 92-2-1 |
|
Melamine by the Melamine Chemicals M-11 Process |
| 93-1-3 |
|
Membranes in Chemical Processes Involving Hydrogen Transport, Economic Viability of Using |
| 91-1-4 |
|
Mercury from Ethylene Plant Feedstock and Cracked Gas Streams, Removal of |
| 95-1-9 |
|
Methacrolein Oxidative-Esterification Technology, Asahi Method |
| 88-2-3 |
|
Methanol from Natural Gas by BNL Low Temperature Catalyzed Synthesis |
| 91-3-2 |
|
Methanol from Natural Gas by ICI's LCM Process |
| 89-3-1 |
|
Methanol from Natural Gas by the Lurgi Combined Reforming Process |
| 86-3-3 |
|
Methanol from Natural Gas with Entrained Catalyst System |
| IX-1-2 |
|
Methanol from Non-Hydrocarbon Sources |
| 93-2-2 |
|
Methanol Profitability: History and Outlook |
| 92-3-3 |
|
Methyl Chloride Manufacture |
| 87-2-3 |
|
Methyl Ethyl Ketone by Oxidation of n-Butenes |
| 87-2-4 |
|
Methyl Formate by Dehydrogenation of Methanol |
| 81-1-2 |
|
Methyl Isobutyl Ketone from Acetone |
| 79-1-4 |
|
Methyl Methacrylate from Allyl Acetate |
| 87-3-4 |
|
Methyl Methacrylate from Ethylene |
| 78-3-1 |
|
Methyl Methacrylate from Ethylene |
| 79-2-4 |
|
Methyl Methacrylate from Isobutylene |
| 76-2-1 |
|
Methyl Methacrylate from Isobutylene |
| 78-2-4 |
|
Methyl Methacrylate from t-Butanol |
| 89-1-1 |
|
Methyl Methacrylate, New Process via Acetone Cyanohydrin |
| 78-1-3 |
|
Methyl Tertiary-Butyl Ether |
| 76-1-1 |
|
Methyl Tertiary-Butyl Ether |
| 89-3-4 |
|
Methylamines via the Nitto Chemical Process |
| 92-1-2 |
|
Microbial Insecticides - Bacillus Thuringiensis |
| 92-1-3 |
|
Mobil Diisopropyl Ether Process |
| 85-2-3 |
|
Molecular Sieve Drying of 190 Proof Ethanol |
| 87-3-1 |
|
MTBE from Butadiene Rich Mixed C4s |
| 79-1-2 |
|
MTBE from n-Butane |
| 92-2-3 |
|
N(1,3-Dimethylbutyl)-N-Phenyl-p-Phenylenediamine |
| 87-1-3 |
|
Naphtha Etherification |
| 94-3-1 |
|
Natural Gas Pricing Mechanisms |
| 96-8 |
|
Natural Gas to Liquid Hydrocarbons Technology Based on the Syntroleum Process |
| 82-3-3 |
|
Nitric Acid, Concentrated |
| 78-1-2 |
|
Nitrobenzene by Adiabatic Nitration |
| 89-3-2 |
|
Nitrogen (95%) from Air by Vacuum Pressure Swing Adsorption |
| 86-1-1 |
|
Nitrogen from Air by Pressure Swing Adsorption |
| 95-1-5 |
|
Norbornene from Dicyclopentadiene and Ethylene |
| 89-2-2 |
|
Nylon 12,12 Resin from Butadiene by Du Pont Technology |
| 88-1-3 |
|
Nylon 4,6 |
| 2008-5 |
|
Olefinic Block Copolymer Production Using Dow Chemical's Chain Shuttling Process |
| 79-3-1 |
|
Olefins, Light, from Ethylene |
| 94-2-2 |
|
One-Step Oxo Process for Propanediol |
| 97-6 |
|
One-Step Phenol from Benzene by the Alphox Process |
| 96-1 |
|
Outlook for Propylene Availability in Asia-Pacific |
| 89-2-4 |
|
Overhead Spending, Nonmanufacturing, in the Chemicals Industry |
| 90-3-4 |
|
Oxo Process, Low Pressure, with Liquid Recycle |
| 89-3-3 |
|
Oxygen, Options for Procuring |
| 83-1-2 |
|
p-Cresol from p-Toluenesulfonic Acid |
| 2007-12 |
|
Passenger Car Motor Oil: Development and Future Trends |
| 89-2-1 |
|
PEP Plant Construction Cost Indices- Review of Trends |
| 81-3-1 |
|
PEP Plant Cost Index, Recent Trends |
| 97-1 |
|
PET Bottle Resin by Pyromellitic Dianhydride Process |
| 94-3-3 |
|
Petrochemical Industry, Cyclicality |
| 89-1-2 |
|
Petrochemicals Price Behavior |
| 76-2-4 |
|
Phenol by Direct Oxidation of Benzene |
| 80-2-1 |
|
Phenol from Ethylbenzene, Coproduct VA |
| 80-2-2 |
|
Phenol from Toluene, Coproduct Formaldehyde |
| 79-2-2 |
|
Phosgene |
| 92-3-2 |
|
Phosphoric Acid, Purification of Wet Process |
| 87-2-2 |
|
Piperidine from Furfural by Mitsubishi Technology |
| 75-1-4 |
|
Plastic Bottles |
| 79-3-3 |
|
p-Methylstyrene |
| 79-1-3 |
|
PMPPI and MDI from Nitrobenzene |
| 80-1-4 |
|
PMPPI from Nitrobenzene by Carbonylation |
| 77-2-5 |
|
PMPPI or Polymeric MDI by Carbonylation Process |
| 86-3-2 |
|
Poly(Propylene Carbonates) |
| 93-2-4 |
|
Polyethernitrile (PENI) Heat Resistant Polymer from 2,6-Dichlorobenzonitrile and Resorcinol |
| 90-3-1 |
|
Polyethylene Terephthalate Recycle by Depolymerization |
| 79-1-1 |
|
Polyethylene, High Density,Gas Phase Process |
| 77-3-1 |
|
Polyethylene, Low Density, Union Carbide Process |
| 85-1-2 |
|
Polymer, Superabsorbent, Acrylic Acid Based |
| 86-1-3 |
|
Polymers, Specialty, R&D Trends |
| 96-6 |
|
Polymethyl Methacrylate Tertiary Recycling Technology, ICI's |
| 86-2-4 |
|
Polyphosphazenes |
| X-1-2 |
|
Polypropylene |
| 91-2-3 |
|
Polypropylene by a Vertical Stirred-Bed Process (BASF Technology) |
| 81-2-2 |
|
Polypropylene, El Paso Process Using Mitsui/Montedison Catalyst |
| 90-2-3 |
|
Polystyrene via the SDS Process |
| 94-3-2 |
|
Polytetramethylene Glycol from Tetrahydrofuran via a Diacetate Intermediate |
| 85-3-4 |
|
Polyvinyl Chloride by a Continuous Suspension Process |
| IX-1-6 |
|
Polyvinyl Chloride, Vapor Phase Bulk Polymerization |
| 75-3-2 |
|
Power Costs Ñ Houston, Texas Area |
| 84-3-1 |
|
Process for Making Polyethylene Polyamides |
| 85-2-1 |
|
Propylene from Ethylene by Disproportionation |
| 80-2-3 |
|
Propylene from Propane by Catalytic Dehydrogenation. |
| 77-3-4 |
|
Propylene Glycol |
| 76-3-5 |
|
Propylene Oxide by Perpropionic Acid Epoxidation |
| 90-1-1 |
|
Propylene Oxide by the Olin Process |
| 77-1-1 |
|
Propylene Oxide from Propylene Glycol Monoacetate |
| 2008-7 |
|
Pulverized Coal Fired Power Plant |
| 96-10 |
|
Purified Terephthalic Acid from p-Xylene by Hydrolysis of Dimethyl Terephthalate |
| 79-2-3 |
|
p-Xylene from Non-aromatics |
| 83-1-1 |
|
p-Xylene from Toluene and Methanol |
| 86-1-2 |
|
p-Xylene Separation, CCCC Process |
| 93-1-1 |
|
Pyromellitic Dianhydride |
| 80-1-2 |
|
Recycle C4s for Ethylene Production |
| 2007-7 |
|
Reach Briefing: A Review of EU Chemicals’ Licensing |
| 2007-5 |
|
Sellers Beware: Voluntary Carbon Offsets, Carbon Labels and the
Chemical Industry |
| 84-2-2 |
|
Secondary Butyl Alcohol via Direct Hydration |
| 83-1-3 |
|
Sodium Nitrilotriacetate |
| 2007-6 |
|
Speculative Incremental Design Improvement for Caprolactam Via Liquid Phase Ammoximation And Vapor Phase Rearrangement |
| 84-2-1 |
|
Styrene by the Lurgi Isothermal Process |
| 77-1-2 |
|
Styrene Economics |
| 77-1-4 |
|
Styrene from Butadiene |
| 94-2-4 |
|
Styrene from Butadiene via 4-Vinylcyclohexene by the Dow Process |
| 93-3-1 |
|
Styrene from Dilute Ethylene |
| 91-3-4 |
|
Styrene from Ethylbenzene Using Membrane Reactors |
| 81-3-2 |
|
Styrene from Toluene |
| 76-1-3 |
|
Styrene from Toluene and Ethylene |
| 88-2-2 |
|
Styrene Process Ñ UOP |
| X-1-4 |
|
Styrene-Aniline Coproduction |
| 96-5 |
|
Styrene-Butadiene Rubber |
| 2007-13 |
|
Succinic Acid from Maleic Anhydride |
| 90-1-4 |
|
Sucralose Ñ a High Intensity, Noncaloric Sweetner |
| 88-2-1 |
|
Sulfur and Hydrogen, Recovery from Hydrogen Sulfide |
| 86-2-2 |
|
Sulfuric Acid from Phosphogypsum, DMC-FIPR Process |
| 80-1-1 |
|
Supplementary LPG Feed for Naphtha Crackers |
| 97-4 |
|
Supply Chain Management Practices Benchmarks in the Bulk Polymer Industry |
| 90-3-3 |
|
Syngas by the Partial Oxidation of Natural Gas |
| 78-1-4 |
|
Synthesis Gas Costs |
| IX-3-1 |
|
Synthesis Gas from Natural Gas or Coal |
| 81-3-3 |
|
Synthetic Zeolites in Commercial Applications |
| IX-1-4 |
|
Terephthalic Acid from Nitrile |
| 76-2-3 |
|
Terephthalic Acid from Toluene |
| 76-2-2 |
|
Terephthalic Acid from Toluene and CO |
| 77-2-4 |
|
Terephthalic Acid(Medium Purity) from p-Xylene |
| IX-3-5 |
|
Terephthalic Acid-Maruzen Process |
| 95-1-1 |
|
tert-Amyl Methyl Ether by the Nextame Process |
| 90-2-1 |
|
Tetrahydrofuran from Maleic Acid |
| 83-3-1 |
|
Tetrahydrofuran, Butanediol from Acetylene |
| 85-3-1 |
|
Tetramethylene Diamine for Nylon 4,6 |
| 97-5 |
|
The Changing Structure of the Chemical Industry |
| 96-3 |
|
Titanium Dioxide Technology Trends and Regional Production Cost Benchmarking |
| 83-2-4 |
|
TMXDI via American Cyanamid Nonphosgenation Route |
| 77-2-3 |
|
Toluene Diisocyanate by Carbonylation Process |
| IX-3-4 |
|
Toluene Steam Dealkylation |
| 85-1-1 |
|
Trimellitic Anhydride from m-Xylene |
| IX-2-1 |
|
Trimellitic Anhydride from Pseudocumene |
| 94-2-3 |
|
Update on Maleic Anhydride from n-Butabne via Fluidized Bed Reactor with an Organic Solvent Absorber |
| 76-1-4 |
|
Uranium Recovery from Phosphate Rocks |
| 82-3-1 |
|
Urea by the Isobaric Double Recycle Process |
| 90-2-2 |
|
Urea by UTI's Heat Recycle Process |
| 82-3-2 |
|
Urea Granulation by the Fluid Bed Process |
| IX-1-1 |
|
Utilities, Cost of |
| X-1-5 |
|
Vapor Recompression |
| 77-3-2 |
|
Vinyl Acetate, Carbonylation of Methyl Acetate |
| 88-3-3 |
|
Vinyl Chloride from EDC Pyrolysis by Tosoh Technology |
| 89-1-4 |
|
Xylenes Isomerization |
| 93-3-4 |
|
Xylenes Isomerization |