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Plant productivity

U.S. chlorine trifluoride production is several metric tons per year. Most of the product is used in nuclear fuel processing. A large production plant for chlorine trifluoride was operated in Germany during World War II with a reported capacity of 5 t/d (106,107). As of 1993, Air Products and Chemicals, Inc. was the only U.S. producer. The 1992 price was ca 100/kg. [Pg.187]

Fig. 10. Simplified flow diagram depicting the ARCO gas-to-gasoline process for a conceptual gasoline production plant (72). Fig. 10. Simplified flow diagram depicting the ARCO gas-to-gasoline process for a conceptual gasoline production plant (72).
Methanol, a clean burning fuel relative to conventional industrial fuels other than natural gas, can be used advantageously in stationary turbines and boilers because of its low flame luminosity and combustion temperature. Low NO emissions and virtually no sulfur or particulate emissions have been observed (83). Methanol is also considered for dual fuel (methanol plus oil or natural gas) combustion power boilers (84) as well as to fuel gas turbines in combined methanol / electric power production plants using coal gasification (85) (see Power generation). [Pg.88]

In 1991, there were approximately 418 sulfur production plants associated with oil and gas production in operation throughout the world. Approximately 86% of these plants were based on the Claus process, and there were 118 Claus units operating in natural gas processing faciHties (11). [Pg.172]

Silicates. In 1990, a continuous hydrothermal production plant was started up in Sulitjehna, Norway for manufacture of 9000 m /yr of calcium sihcate [10101-39-0] having average density of 0.255 g/cm. The calcium siUcate is of the xonodite [12141 -77-4] form, Ca Sig02y(0H)2, which can easily be... [Pg.501]

A production plant for salt-free ethyleneimine synthesis by catalytic dehydration of monoethanol amine [141-45-5] in the gas phase has started operation at the Japanese company Nippon Shokubai (366). [Pg.12]

An advantage of aluminum is the high level of knowledge and the automated production plants stemming from the mass production of A1 substrates for magnetic hard disks these can be widely used for the production of substrate disks for optical data storage. [Pg.157]

Cooled dust-laden gas is dedusted in an electrostatic precipitator and sent to the cleaning unit to remove impurities such as arsenic, fluorine, and chlorine before being sent on to the sulfuric acid production plant. [Pg.38]

Naphthalenol. 2-Naphthol or p-naphthol or 2-hydroxynaphthalene/7i3 -/5 -i7 melts at 122°C and boils at 295°C, and forms colorless crystals of characteristic, phenoHc odor which darken on exposure to air or light. 2-Naphthol [135-19-3] is manufactured by fusion of sodium 2-naphthalenesulfonate with sodium hydroxide at ca 325°C, acidification of the drowned fusion mass which is quenched ia water, isolation and water-washing of the 2-naphthalenol, and vacuum distillation and flaking of the product. A continuous process of this type has been patented (69). The high sulfate content ia the primary effluent from 2-naphthol production is greatiy reduced ia modem production plants by the recovery of sodium sulfate. [Pg.498]

Domestic. Estimates of U.S. uranium resources for reasonably assured resources, estimated additional resources, and speculative resources at costs of 80, 130, and 260/kg of uranium are given in Table 1 (18). These estimates include only conventional uranium resources, which principally include sandstone deposits of the Colorado Plateaus, the Wyoming basins, and the Gulf Coastal Plain of Texas. Marine phosphorite deposits in central Elorida, the western United States, and other areas contain low grade uranium having 30—150 ppm U that can be recovered as a by-product from wet-process phosphoric acid. Because of relatively low uranium prices, on the order of 20.67/kg U (19), in situ leach and by-product plants accounted for 76% of total uranium production in 1992 (20). [Pg.185]

The cumene oxidation route is the lea ding commercial process of synthetic phenol production, accounting for more than 95% of phenol produced in the world. The remainder of synthetic phenol is produced by the toluene oxidation route via benzoic acid. Other processes including benzene via cyclohexane, benzene sulfonation, benzene chlorination, and benzene oxychl orin ation have also been used in the manufacture of phenol. A Hst of U.S. phenol production plants and their estimated capacities in 1994 are shown in Table 2, and worldwide plants and capacities are shown in Table 3. [Pg.287]

Sulfonation Plant Operations and Gas Effluent. Standards governing U.S. sulfonation plant gas effluents differ depending on whether or not the plant is equipped with a H2SO4 scmbbing system for adsorption of SO gas (see Fig. 3). The installation of the SO adsorber system qualifies the plant as a sulfuric production plant which has stringent regulations. Limitations and typical effluent from the sulfonation system are as follows ... [Pg.89]

Oxidation of vinyl chloride with ozone [10028-15-6] in either the Hquid or the gas phase gives formic acid and formyl chloride. The ozone reaction with vinyl chloride can be used to remove it from gas streams in vinyl chloride production plants. [Pg.414]

Zirconium is totally resistant to corrosion by organic acids. It has been used in urea-production plants for more than two decades. [Pg.429]

Economic Aspects and Uses. In 1976, one-third of the lithium produced in the United States was extracted from brines of Seades Lake and Silver Peak (44,45). Since then, lithium production at Seades Lake has been discontinued and the lithium concentration at Silver Peak is decreasing. During the 1980s lithium extraction was started at the Salar de Atacama, Chile. This is the largest lithium production plant in the wodd using brine as its raw material. [Pg.411]

The recognition in 1940 that deuterium as heavy water [7789-20-0] has nuclear properties that make it a highly desirable moderator and coolant for nuclear reactors (qv) (8,9) fueled by uranium (qv) of natural isotopic composition stimulated the development of industrial processes for the manufacture of heavy water. Between 1940 and 1945 four heavy water production plants were operated by the United States Government, one in Canada at Trail,... [Pg.3]


See other pages where Plant productivity is mentioned: [Pg.423]    [Pg.233]    [Pg.233]    [Pg.35]    [Pg.267]    [Pg.419]    [Pg.501]    [Pg.501]    [Pg.511]    [Pg.2]    [Pg.364]    [Pg.120]    [Pg.75]    [Pg.161]    [Pg.419]    [Pg.352]    [Pg.85]    [Pg.75]    [Pg.153]    [Pg.214]    [Pg.99]    [Pg.348]    [Pg.421]    [Pg.54]    [Pg.259]    [Pg.515]    [Pg.247]    [Pg.3]    [Pg.247]    [Pg.247]    [Pg.456]    [Pg.146]    [Pg.151]    [Pg.855]    [Pg.1952]   
See also in sourсe #XX -- [ Pg.445 ]




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Acid plants production costs

Acid plants production rates

Alkaloid production, plant biotechnology

Alkaloids production by plants

Ammonia chemical plant production

Ammonia production plants

Animal health, plant production

Antibody production in plants

Antitumor plant product

Aqueous plant products

Aromatic plant products

Atherosclerosis plant products

Authorization, plant protection products

Bioactive natural products Chinese medicinal plants

Bioactive natural products from Chinese medicinal plant

Biocides and Plant Protection Products

Biomass productivities, aquatic plants

Biopharmaceutical Production in Cultured Plant Cells

Canadian heavy-water production plants

Carbon dioxide plant productivity dependence

Challenges in Using Plant Oils as Carbon Feedstock for PHA Production

Chamber Production Plants

Chemical SC scheme with highlighted production plants

Chlor-alkali production plant flow diagram

Cloning plant production

Commercial production aquatic plants

Commercialization of Plant-Derived Products and the Corporate Arena

Comparison of Cell Culture over Whole Plants for Biopharmaceutical Production

Concern Over the Conversion of Plant Oils to Consumer Products

Demand for Agricultural Products and Plant Nutrients

Disposable Plant for HF Production

Ecology, Productivity, and Economic Use of CAM Plants

Electrical energy production power plants

Emission and consumption data from ESBR plants (per tonne of product)

Emission and consumption data per tonne of product from EPS plants

Emission and consumption data per tonne of product from GPPS plants

Enzymatic Quantitation of Total Starch in Plant Products

Ethylene plant hormone production

European regulation to assess risks of plant protection products on bees

Factory Preparation Plant Production

Fermentation plant-sourced products

Fermentation processes, plant production

Fermentation products plants

Fluid milk production plants

Fluid milk production processing plants

Foliage plant production

Food production plant nutrients

Forest plant products

Frozen plant products

Fungi and Other Lower Plant Biosynthetic Products

Future merchant plants for non-electric energy products

Gas drying removal before H2O ends up in acid plant s product

Gasoline production plant

Global plant productivity

Grain plant, energy production from

Growth production, plants

High-value plant products

Human health, plant production

Hydrogen production plants

Hydrogen production power plants

Madder plant, alizarin production

Metallurgical sulfuric acid plants production costs

Methanol-production plants

Microbial Production of Plant Benzylisoquinoline Alkaloids

Microprocess production plant

Multi-product plant

Natural Products from Semi-Mangrove Plants in China

Natural product libraries from plants

Natural products from medicinal plants

Natural products from plants

Natural products in plant growth regulation

Natural products plant derived

Natural products plant hormones

Nitrogen chemical plant production

Nitrogen compounds plant productivity

Nitroglycerine, production plant

Non-green Chlorophyll Degradation Products from Vascular Plants

Nutraceuticals production plants

Olefin production plants

Organic plant breeding seed production

Other plant by-products

PHA Production by Plants

Perennial forest plant products

Pharmaceutical development from plant-derived natural products

Pharmaceutical nitroglycerine, production plant

Pigment production plant

Pilot plant production

Pilots Plants and Production

Plant Biomass Carbon (Net Primary Productivity)

Plant Biotechnology, for alkaloid production

Plant Oils and Agricultural By-Products as Carbon Feedstock for PHA Production

Plant Products as the Source of New Drugs

Plant Products, Seeds

Plant Protection Product application

Plant Protection Products directive

Plant Secondary Product Glycosyltransferase

Plant Viral Expression Vectors and Production of Biopharmaceuticals in Plants

Plant and production hygiene

Plant breeding and seed production

Plant breeding product quality

Plant breeding seed production

Plant cell culture (chemical secondary production

Plant cell culture (chemical tissue productions from

Plant chemical production

Plant defense production

Plant engineers production

Plant food, production

Plant gene product

Plant growth natural products

Plant growth regulation assimilate production

Plant growth regulators products

Plant material production, factors influencing

Plant material production, factors influencing environmental influences

Plant materials, natural/organic product

Plant natural products

Plant production simulation

Plant products

Plant products

Plant protection product

Plant protection products purpose

Plant protection products toxicity

Plant protection secondary metabolites production

Plant sources products chart

Plant-based products

Plant-care products

Plant-protection products target requirements

Planting systems in organic fruit production

Plants bioethanol production

Plants nuclear, heat production

Plants unusual fatty acids production

Plants waste products

Plants, polyketide production

Plants, production

Plants, production

Polystyrene production plant, reaction

Power plants energy production from

Process simulation production plants

Product Polymers from Plant Oils

Product quality plant layout design

Production Processes and Plants

Production by Means of Plant Cell Cultures

Production by plant cells

Production cost from water electrolysis plant

Production flow, multipurpose plant

Production in a central plant

Production laboratory-scale plant

Production of Biopharmaceuticals in Plant Suspension Cells

Production of Foreign Proteins Using Plant Tissue Culture

Production of PHA in Microorganisms and Plants

Production of PHAs by Transgenic Plants

Production of Recombinant Proteins in Plants

Production of hydrogen for autonomous power plants

Production of the technical plant stem

Production planning, plant operation

Production plant characteristics

Production plant for food

Production plant optimization

Production plants together

Production plants with product transport

Production plants, smooth running

Production propagation, container plants

Production responsibilities, plant engineers

Production system plant

Production time requirements, plant

Production transgenic plants

Production vinyl chloride monomer plant

Propylene production plant

Protein Production in Transgenic Plants Development and Commercialization Wayne R. Curtis

Protein production, in transgenic plants

Quinones, Flavans, and Other Nonnitrogenous Higher Plant Products

Reverse flow from a product receiver or blowdown line back into the plant

Salicylic acid plant production

Scale-Up Based on Data from Existing Production Plant

Secondary metabolites production plant cell culture

Semi-Pilot-Plant Production

Semiconductor plant ultrapure water production process

Sources of water pollution from plant production

Technical plant system production

The Chemical Production Plant and its Components

Transgenic plants protein production

Translocation of CAM Products in the Plant

Types of asphalt production plants

Union Carbide pesticide production plant

Water plant, hydrogen production

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