Big Chemical Encyclopedia

Chemical substances, components, reactions, process design ...

Articles Figures Tables About

Nitrous oxide oxidation

Some dense inorganic membranes made of metals and metal oxides are oxygen specific. Notable ones include silver, zirconia stabilized by yttria or calcia, lead oxide, perovskite-type oxides and some mixed oxides such as yttria stabilized titania-zirconia. Their usage as a membrane reactor is profiled in Table 8.4 for a number of reactions decomposition of carbon dioxide to form carbon monoxide and oxygen, oxidation of ammonia to nitrogen and nitrous oxide, oxidation of methane to syngas and oxidative coupling of methane to form C2 hydrocarbons, and oxidation of other hydrocarbons such as ethylene, methanol, ethanol, propylene and butene. [Pg.328]

H. Tanaka, K. Hashimoto, K. Suzuki, Y. Kitaichi, M. Sato, T. Ikeno, T. Yamada, Nitrous oxide oxidation catalyzed by ruthenium porphyrin complex. Bull. Chem. Soc. Jpn. T7 (2004) 1905. [Pg.85]

Nitrous oxide oxidation of olefins catalyzed by ruthenium porphyrin complexes. Chem. Lett. 3, 268-269. [Pg.43]

Dinitrogen oxide, nitrous oxide, N2O. Colourless gas, m.p. —9T C, b.p. —88-5°C (heat on NH4NO3). Decomposes to N2 and O2 above SOO C can be detonated. Linear molecule NNO. Used as a mild anaesthetic. [Pg.278]

Johnston H S 1951 Interpretation of the data on the thermal decomposition of nitrous oxide J. Chem. Phys. 19 663-7... [Pg.1085]

Margottin-Maclou M, Doyennette L and Henry L 1971 Relaxation of vibrational energy in carbon monoxide, hydrogen chloride, carbon dioxide and nitrous oxide App/. Opt. 10 1768-80... [Pg.3015]

Data for the several flame methods assume an acetylene-nitrous oxide flame residing on a 5- or 10-cm slot burner. The sample is nebulized into a spray chamber placed immediately ahead of the burner. Detection limits are quite dependent on instrument and operating variables, particularly the detector, the fuel and oxidant gases, the slit width, and the method used for background correction and data smoothing. [Pg.727]

Dimethylhydrazine Air, hydrogen peroxide, nitric acid, nitrous oxide... [Pg.1208]

Thermal energy in flame atomization is provided by the combustion of a fuel-oxidant mixture. Common fuels and oxidants and their normal temperature ranges are listed in Table 10.9. Of these, the air-acetylene and nitrous oxide-acetylene flames are used most frequently. Normally, the fuel and oxidant are mixed in an approximately stoichiometric ratio however, a fuel-rich mixture may be desirable for atoms that are easily oxidized. The most common design for the burner is the slot burner shown in Figure 10.38. This burner provides a long path length for monitoring absorbance and a stable flame. [Pg.413]

The main problem in this technique is getting the atoms into the vapour phase, bearing in mind the typically low volatility of many materials to be analysed. The method used is to spray, in a very fine mist, a liquid molecular sample containing the atom concerned into a high-temperature flame. Air mixed with coal gas, propane or acetylene, or nitrous oxide mixed with acetylene, produce flames in the temperature range 2100 K to 3200 K, the higher temperature being necessary for such refractory elements as Al, Si, V, Ti and Be. [Pg.65]

Propellants. The propellant, said to be the heart of an aerosol system, maintains a suitable pressure within the container and expels the product once the valve is opened. Propellants may be either a Hquefied halocarbon, hydrocarbon, or halocarbon—hydrocarbon blend, or a compressed gas such as carbon dioxide (qv), nitrogen (qv), or nitrous oxide. [Pg.346]

Considerable developmental effort is being devoted to aerosol formulations using the compressed gases given in Table 4. These propellants are used in some food and industrial aerosols. Carbon dioxide and nitrous oxide, which tend to be more soluble, are often preferred. When some of the compressed gas dissolves in the product concentrate, there is partial replenishment of the headspace as the gas is expelled. Hence, the greater the gas solubiUty, the more gas is available to maintain the initial conditions. [Pg.348]

Property Carbon dioxide Nitrous oxide Nitrogen... [Pg.348]

Tracer Type. A discrete quantity of a foreign substance is injected momentarily into the flow stream and the time interval for this substance to reach a detection point, or pass between detection points, is measured. From this time, the average velocity can be computed. Among the tracers that have historically been used are salt, anhydrous ammonia, nitrous oxide, dyes, and radioactive isotopes. The most common appHcation area for tracer methods is in gas pipelines where tracers are used to check existing metered sections and to spot-check unmetered sections. [Pg.67]

The narcotic potency and solubiUty in oHve oil of several metabohcaHy inert gases are Hsted in Table 10. The narcotic potency, ED q, is expressed as the partial pressure of the gas in breathing mixtures requited to produce a certain degree of anesthesia in 50% of the test animals. The solubiUties are expressed as Bunsen coefficients, the volume of atmospheric pressure gas dissolved by an equal volume of Hquid. The Hpid solubiHty of xenon is about the same as that of nitrous oxide, a commonly used light anesthetic, and its narcotic potency is also about the same. As an anesthetic, xenon has the virtues of reasonable potency, nonflammability, chemical inertness, and easy elimination by the body, but its scarcity and great cost preclude its wide use for this purpose (see Anesthetics). [Pg.17]

Other uses of oxyacetylene flames in mill operations are in building up or hardfacing metal, lancing (piercing a hole in a metal mass), and a variety of metal cleaning procedures. A minor but interesting fuel use of acetylene is in flame spectrophotometry where oxygen and nitrous oxide are used as oxidants in procedures for a wide variety of the elements. [Pg.394]

Gate oxide dielectrics are a cmcial element in the down-scaling of n- and -channel metal-oxide semiconductor field-effect transistors (MOSEETs) in CMOS technology. Ultrathin dielectric films are required, and the 12.0-nm thick layers are expected to shrink to 6.0 nm by the year 2000 (2). Gate dielectrics have been made by growing thermal oxides, whereas development has turned to the use of oxide/nitride/oxide (ONO) sandwich stmctures, or to oxynitrides, SiO N. Oxynitrides are formed by growing thermal oxides in the presence of a nitrogen source such as ammonia or nitrous oxide, N2O. Oxidation and nitridation are also performed in rapid thermal processors (RTP), which reduce the temperature exposure of a substrate. [Pg.348]


See other pages where Nitrous oxide oxidation is mentioned: [Pg.200]    [Pg.281]    [Pg.3015]    [Pg.228]    [Pg.241]    [Pg.297]    [Pg.367]    [Pg.509]    [Pg.523]    [Pg.685]    [Pg.827]    [Pg.1209]    [Pg.67]    [Pg.201]    [Pg.223]    [Pg.414]    [Pg.597]    [Pg.684]    [Pg.684]    [Pg.684]    [Pg.684]    [Pg.32]    [Pg.87]    [Pg.243]    [Pg.243]    [Pg.367]    [Pg.378]    [Pg.246]    [Pg.314]    [Pg.441]    [Pg.5]    [Pg.17]    [Pg.421]    [Pg.429]    [Pg.453]    [Pg.192]   
See also in sourсe #XX -- [ Pg.213 , Pg.214 , Pg.215 , Pg.216 , Pg.217 , Pg.218 , Pg.219 , Pg.220 , Pg.221 , Pg.222 ]




SEARCH



1.3- Dipoles nitrous oxide

Acetylene-nitrous oxide flame

Addition of nitrous oxide

Alkenes nitrous oxide

Ammonia nitrous oxide

Ammonia reaction with nitrous oxide

Anaesthesia nitrous oxide

Anaesthetics, inhalational Nitrous oxide

Anesthetics sevoflurane, nitrous oxide)

Anions nitrous oxide

Automobiles nitrous oxide

Barbiturates Nitrous oxide

Benzene oxidation nitrous oxide

Burner nitrous oxide

Carbon monoxide and nitrous oxide

Carbon monoxide nitrous oxide, reaction with

Carbon monoxide oxidation nitrous oxide oxidized

Cardiac output nitrous oxide

Catalytic Oxidation by Nitrous Oxide in the Gas Phase

Chemical nitrous oxide

Climate change nitrous oxide

Cocaine Nitrous oxide

Containers nitrous oxide

Cylinders nitrous oxide

Decomposition nitrous oxide

Decomposition of nitrous oxide

Diagram for Nitrous Oxide (Fig

Dioxide and Nitrous Oxide

Distillation nitrous oxide

Electron scavenger nitrous oxide

Electronic structure nitrous oxide

Emergencies nitrous oxide

Enzyme nitrous oxide reductase

Ethane Nitrous oxide

Excited molecules, reaction nitrous oxide with

Explosions nitrous oxide plant

Fluorine nitrous oxide

For nitrous oxide

Formation of nitrous oxides

Global nitrous oxide budget

Global warming nitrous oxide

Grades nitrous oxide

Greenhouse nitrous oxide

Halides nitrous oxide

Hydrogen, reaction with bromine nitrous oxide

Indian Ocean nitrous oxide

Industrial gases nitrous oxide

Inhalant chemicals nitrous oxide

Ionization potential nitrous oxide

Isotherms nitrous oxide

Laughing gas (Nitrous oxide

Leaks nitrous oxide

Measurement methods nitrous oxide

Midazolam nitrous oxide

Mono nitrous oxide

N2O NITROUS OXIDE

Nicotine Nitrous oxide

Nitrification nitrous oxide

Nitrite and Nitrous Oxide Reductases

Nitrogen Monoxide and Nitrous Oxide

Nitrogen cycle nitrous oxide

Nitrogen nitrous oxide

Nitrogen oxides monoxide Nitrous oxide

Nitrogen oxides nitrous oxide

Nitrogen yields from nitrous oxide

Nitrogen:nitrous oxide ratio

Nitrous Oxide Infrared Spectrum

Nitrous Oxide NaO

Nitrous Oxide Reductase (NOR)

Nitrous Oxide as an Oxygen Donor in Oxidation Chemistry and Catalysis

Nitrous Oxide, NO

Nitrous Oxide, Nitrite, Nitrosonium, Trioxodinitrate Ions, and Nitric Acid

Nitrous Oxide, Ozone, and Nitrogen Dioxide

Nitrous acid oxidant

Nitrous acid oxidation

Nitrous acid oxidation-reduction reactions with

Nitrous acid oxide

Nitrous acid with nitric oxide

Nitrous from heterogeneous oxidation

Nitrous oxid

Nitrous oxid

Nitrous oxide

Nitrous oxide

Nitrous oxide (See

Nitrous oxide , dissolved gases

Nitrous oxide , dissolved gases water

Nitrous oxide / acetylene flame absorbance spectrum

Nitrous oxide / acetylene flame overview spectra

Nitrous oxide Alcohol

Nitrous oxide Atracurium

Nitrous oxide Epinephrine

Nitrous oxide Ethanol

Nitrous oxide Methotrexate

Nitrous oxide N2O (laughing

Nitrous oxide NNO

Nitrous oxide Neuromuscular blockers

Nitrous oxide Propofol

Nitrous oxide Sevoflurane

Nitrous oxide Succinylcholine

Nitrous oxide Suxamethonium

Nitrous oxide absorption spectra

Nitrous oxide abuse

Nitrous oxide adsorption

Nitrous oxide aerosol propellant

Nitrous oxide agitation

Nitrous oxide alkaline solutions

Nitrous oxide ammonia + propane

Nitrous oxide and oxygen

Nitrous oxide as oxidant

Nitrous oxide atmosphere

Nitrous oxide atmospheric composition

Nitrous oxide biological effects

Nitrous oxide biological emissions

Nitrous oxide budget

Nitrous oxide cardiovascular effects

Nitrous oxide carrier

Nitrous oxide catalysed

Nitrous oxide characteristics

Nitrous oxide chemical properties

Nitrous oxide chemical reactions

Nitrous oxide chemical structure

Nitrous oxide coefficients

Nitrous oxide concentration

Nitrous oxide concentration atmosphere

Nitrous oxide concentrations ambient

Nitrous oxide consumption

Nitrous oxide cooling

Nitrous oxide decomposition active sites

Nitrous oxide decomposition rate

Nitrous oxide decomposition reaction mechanism

Nitrous oxide defined

Nitrous oxide detection

Nitrous oxide disadvantages

Nitrous oxide discovery

Nitrous oxide dissolved

Nitrous oxide distribution

Nitrous oxide effects

Nitrous oxide electron scavenging

Nitrous oxide elimination

Nitrous oxide emission

Nitrous oxide emission from soils

Nitrous oxide emission measurements

Nitrous oxide emission spectrum

Nitrous oxide emissions, from soil denitrification

Nitrous oxide evolution

Nitrous oxide flux from oceans

Nitrous oxide formation

Nitrous oxide formation mechanisms

Nitrous oxide from ammonium nitrate

Nitrous oxide gas

Nitrous oxide gastrointestinal

Nitrous oxide global

Nitrous oxide global increase

Nitrous oxide global warming potential

Nitrous oxide greenhouse effect

Nitrous oxide headache

Nitrous oxide hydrogenation

Nitrous oxide hypoxia

Nitrous oxide in atmosphere

Nitrous oxide inhalational)

Nitrous oxide ions, decomposition

Nitrous oxide irradiation

Nitrous oxide isotopic composition

Nitrous oxide kinetics

Nitrous oxide labeled

Nitrous oxide lifetime

Nitrous oxide ligand

Nitrous oxide measurement

Nitrous oxide megaloblastic anemia

Nitrous oxide metal atoms

Nitrous oxide metal oxides catalysts

Nitrous oxide methane oxidation

Nitrous oxide methionine synthetase

Nitrous oxide minimal alveolar concentration

Nitrous oxide monoxide

Nitrous oxide myelopathy

Nitrous oxide naming

Nitrous oxide nausea

Nitrous oxide nervous system

Nitrous oxide notes’

Nitrous oxide oceanic distribution

Nitrous oxide oceans

Nitrous oxide or laughing gas

Nitrous oxide oxidation steady-state

Nitrous oxide oxidative rearrangement

Nitrous oxide oxides

Nitrous oxide past concentrations

Nitrous oxide pharmacokinetics

Nitrous oxide photochemistry

Nitrous oxide photodissociation

Nitrous oxide physical properties

Nitrous oxide physiological effects

Nitrous oxide postoperative nausea

Nitrous oxide preparation

Nitrous oxide production

Nitrous oxide production in wetlands

Nitrous oxide quantum yield

Nitrous oxide rate equations

Nitrous oxide reaction

Nitrous oxide reactions atmosphere

Nitrous oxide reactivity

Nitrous oxide reductase

Nitrous oxide reductase copper

Nitrous oxide reduction

Nitrous oxide removal

Nitrous oxide residence time

Nitrous oxide resonance)

Nitrous oxide respiratory effects

Nitrous oxide samples

Nitrous oxide saturation, effect

Nitrous oxide secondary reactions

Nitrous oxide side effects

Nitrous oxide solutions

Nitrous oxide sources

Nitrous oxide spectroscopy

Nitrous oxide storage

Nitrous oxide stratosphere

Nitrous oxide stratospheric role

Nitrous oxide technique

Nitrous oxide thermal conductivity

Nitrous oxide thermodynamic properties

Nitrous oxide toxicity

Nitrous oxide transition metal complexes

Nitrous oxide vomiting

Nitrous oxide water and

Nitrous oxide with excited molecules

Nitrous oxide with halothane

Nitrous oxide, ammonia-oxidizing bacteria

Nitrous oxide, atmospheric reactions

Nitrous oxide, compressed

Nitrous oxide, decomposition metals

Nitrous oxide, decomposition over

Nitrous oxide, decomposition reaction with hydrogen

Nitrous oxide, denitrification

Nitrous oxide, free radical

Nitrous oxide, free radical transfer

Nitrous oxide, medical, processing

Nitrous oxide, oxidation with

Nitrous oxide, ozone destruction

Nitrous oxide, reaction + metal atoms

Nitrous oxide, reaction with mercury

Nitrous oxide, reactions with

Nitrous oxide, refrigerated liquid

Nitrous oxide, safety

Nitrous oxide, thermal decomposition

Nitrous oxide, tropospheric

Nitrous oxide, tropospheric reaction with

Nitrous oxide, tropospheric residence time

Nitrous oxide, tropospheric sinks

Nitrous oxide, tropospheric sources

Nitrous oxide-acetylene

Nitrous oxide-acetylene flame, operation

Nitrous oxide/oxygen

Nitrous oxide/oxygen mixture

Nitrous oxides : emissions control

Nitrous oxides atmospheric concentration

Oxidants peroxy nitrous acid

Oxidation by Nitrous Oxide in the Gas Phase

Oxidation by nitrous oxide

Oxidation with Nitrous Acid

Pollution nitrous oxide

Preparation of Nitrogen(IV) Oxide and Nitrous Acid Anhydride

Propellants nitrous oxide

Reaction of hydrogen with nitrous oxide

Recreational drugs nitrous oxide

Reduction of nitrous oxide

Researches, Chemical and Philosophical Chiefly concerning Nitrous Oxide

Role of nitrous oxide in stratosphere ozone depletion

Ruthenium complexes nitrous oxide

Saturated Nitrous Oxide

Stratospheric chemistry nitrous oxide

Structure and Physical Properties of Nitrous Oxide

Subject nitrous oxide

Substance abuse nitrous oxide

Summary Pharmacology of Nitrous Oxide, Cyclopropane, Halothane, and Ether

Supercritical fluids nitrous oxide

Thermodynamic Properties of Nitrous Oxide

Wetlands as a Source of Nitrous Oxide

Zeolite nitrous oxide

© 2024 chempedia.info