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Sparking

Dispersingagents, such as polyethylene polyamide succinimides or methacrylate-type copolymers, are added to motor oils to disperse low-temperature sludge formed in spark-ignition engines. [Pg.144]

Other oxygen fluorides, O2F2, O4F2, O5F2 and 06p2, are prepared by passing an electric spark through a mixture of O2, F2 and sometimes O3. [Pg.294]

In induced ignition engines, still called explosion or spark , several types of combustion are possible. [Pg.192]

The normal process is a rapid-but-smooth combustion of the fuel-air mixture in the engine due to the propagation of a flame front emanating from the spark created between the electrodes of the spark plug. [Pg.192]

The distinctions between the two procedures RON and MON concern essentially the engine speed, temperature of admission and spark advance. See Table 5.8. [Pg.196]

Power output is controlled, not by adjusting the quantity of fuel/air mixture as in the case of induced spark ignition engines, but in changing the flow of diesel fuel introduced in a fixed volume of air. The work required to aspirate the air is therefore considerably reduced which contributes still more to improve the efficiency at low loads. [Pg.212]

LPG, stored as a liquid at its saturation pressure, is vaporized and introduced as vapor in conventional spark ignition motors. These motors are not modified with the exception of their feed system. Moreover, in the majority of cases, dual fuel capabilities have been adapted, that is, the vehicle can use either LPG or liquid fuel. [Pg.230]

Unlike spark-induced combustion engines requiring fuel that resists autoignition, diesel engines require motor fuels, for vhich the reference compound is cetane, that are capable of auto-igniting easily. Additives improving the cetane number will promote the oxidation of paraffins. The only compound used is ethyl-2-hexyl nitrate. [Pg.350]

Boyd D.P., Gould R.G., Quinu J.R, Sparks R., Stanly J.H., Herrmansfedt W.B. A proposed dynamic cardiac 3-D densitometer for early detection and evaluation of heart disease., IEEE Trans. Nucl. Sci., V. NS-26, 1979, p.2724-2727. [Pg.219]

The rupture process of a soap film is of some interest. In the case of a film spanning a frame, as in Fig. XIV-15, it is known that rupture tends to originate at the margin, as shown in the classic studies of Mysels [207, 211]. Rupture away from a border may occur spontaneously but is usually studied by using a spark [212] as a trigger (a-radia-tion will also initiate rupture [213]). An aureole or ridge of accumulated material may be seen on the rim of the growing hole [212, 214] (see also Refs. 215, 216). Theoretical analysis has been in the form of nucleation [217, 218] or thin-film instability [219]. [Pg.523]

Uppar Spark Cti amber Chamber PhatQinultiplier Tebes... [Pg.1436]

Figure C2.11.4. A commercial spark plug witli its electrically insulating ceramic body comprised of alumina and glass (white portion). Figure C2.11.4. A commercial spark plug witli its electrically insulating ceramic body comprised of alumina and glass (white portion).
Figure C2.11.5. Scanning electron micrographs showing the microstmcture of an alumina ceramic spark-plug body (a) fracture surface and (b) polished and thennally etched cross section. Figure C2.11.5. Scanning electron micrographs showing the microstmcture of an alumina ceramic spark-plug body (a) fracture surface and (b) polished and thennally etched cross section.
Beryllium is added to copper to produce an alloy with greatly increased wear resistance it is used for current-carrying springs and non-sparking safety tools. It is also used as a neutron moderator and reflector in nuclear reactors. Much magnesium is used to prepare light nieial allo>s. other uses include the extraction of titanium (p. 370) and in the removal of oxygen and sulphur from steels calcium finds a similar use. [Pg.124]

Finely divided lead, when heated in air, forms first the lead(II) oxide, litharge , PbO, and then on further heating in an ample supply of air, dilead(II) lead(IV) oxide, red lead , Pb304. Lead, in a very finely divided state, when allowed to fall through air, ignites and a shower of sparks is produced. Sueh finely divided powder is said to be pyrophoric . It can be prepared by carefully heating lead tartrate. [Pg.172]

Beryllium is used as an alloying agent in producing beryllium copper, which is extensively used for springs, electrical contacts, spot-welding electrodes, and non-sparking tools. It is applied as a structural material for high-speed aircraft, missiles, spacecraft, and communication satellites. Other uses include windshield frame, brake discs, support beams, and other structural components of the space shuttle. [Pg.12]

Europe) In 1890 Boisbaudran obtained basic fractions from samarium-gadolinium concentrates which had spark spectral lines not accounted for by samarium or gadolinium. These lines subsequently have been shown to belong to europium. The discovery of europium is generally credited to Demarcay, who separated the rare earth in reasonably pure form in 1901. The pure metal was not isolated until recent years. [Pg.177]

The element has a metallic, bright silver luster. It is relatively stable in air at room temperature, and is readily attacked and dissolved, with the evolution of hydrogen, but dilute and concentrated mineral acids. The metal is soft enough to be cut with a knife and can be machined without sparking if overheating is avoided. Small amounts of impurities can greatly affect its physical properties. [Pg.191]


See other pages where Sparking is mentioned: [Pg.33]    [Pg.34]    [Pg.40]    [Pg.161]    [Pg.171]    [Pg.209]    [Pg.232]    [Pg.290]    [Pg.294]    [Pg.368]    [Pg.402]    [Pg.177]    [Pg.231]    [Pg.188]    [Pg.302]    [Pg.882]    [Pg.1098]    [Pg.1436]    [Pg.1436]    [Pg.1436]    [Pg.2086]    [Pg.2621]    [Pg.2760]    [Pg.2762]    [Pg.2794]    [Pg.2952]    [Pg.226]    [Pg.880]    [Pg.110]    [Pg.126]    [Pg.138]    [Pg.106]   
See also in sourсe #XX -- [ Pg.843 ]

See also in sourсe #XX -- [ Pg.30 ]

See also in sourсe #XX -- [ Pg.49 ]

See also in sourсe #XX -- [ Pg.126 ]




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Analysis of rare earth matrices by spark source mass spectrometry

Anodic spark deposition

Anti-sparking

Applications of Arc and Spark Emission Spectroscopy

Arc and Spark Excitation

Arc and Spark Systems

Arc and spark emission spectroscopy

Arc and spark stand

Arcs and sparks

Atomic emission spectrometry spark

Ca2+ sparks

Capacitive sparks

Capacity spark

Catalysts for Gasoline Fueled Spark Ignition Engines

Catalysts gasoline fueled spark ignition engines

Cerium-iron alloy spark

Cerium-iron spark ignitability test

Characteristics of the Microarc (Electrolytic-Spark) Oxidation Process

Coating electrolytic spark oxidation

Colored sparks

Colors and Sparks in Fireworks

Combustion, in spark-ignited

Combustion, in spark-ignited engines

Composite sparks

Dense spark plasma sintering

Direct-injected spark-ignition

Direct-injected spark-ignition engines

Discharge diffuse spark

Divine spark

Double-focusing spark source mass

Double-focusing spark source mass spectrometer

Electric Spark Sensitivity Data

Electric detonators spark sensitivity

Electric discharges, sparks from

Electric spark

Electric spark resistance

Electric spark sensitivity, determination

Electric sparks, discharge

Electrical precipitators sparking potential

Electrical spark-over

Electrical sparks

Electrical-spark tracking

Electricity hazards electrical sparks

Electro-spark deposition

Electrochemical machining sparking

Electrochemical spark machining

Electrostatic sparks

Elemental mass spectrometry spark source

Emission of Sparks

Emission spectrometry spark

Engines spark-ignition

External sparks

Fire dust sparks

Flame and spark arrestors

Frictional sparking

Frictional sparks

Fuels for spark-ignition engines

Gaseous spark

Gasoline fueled spark ignition engines

Gasoline spark ignition engines

Gliding spark

Grain boundaries spark plasma sintering

Helium spark spectrum

High frequency spark

Hydrogen electrostatic sparks

Hydrogen spark ignition engine

Ignition and Spark Breakdown Testing of Powders

Ignition spark

Inductance spark

Initiation by sparks

Initiation spark

Interferences in Arc and Spark Emission Spectroscopy

Internal sparks

Ionization detector spark discharge

J Conzemius, Analysis of rare earth matrices by spark source mass spectrometry

LINA spark

Laser induced argon-spark ablation

Laser spark

Laser-triggered spark gap

Long-duration sparks

MINIMUM SPARK IGNITION ENERGIES AND QUENCHING DISTANCES

Magnesium sparks from

Mass spectrometer spark-source

Mechanical sparks

Medium voltage spark

Medium voltage spark OES

Metal sparks

Minimum spark ignition energy

Motors spark ignition

Non sparking

Non-sparking tools

Particle spark chamber

Personnel spark and shock hazards

Piezoelectric spark

Piezoelectric spark generator

Pre-sparking

Pulsed radiofrequency spark

Qualitative and Semiquantitative Arc-Spark Emission Spectrochemical Analysis

RF spark

Radiation detectors spark chambers

Radio-frequency spark source

Ratio of capacity spark energy

SSMS (Spark source mass

Sensitivity electric spark

Sensitivity of Explosives to Electric Spark

Sensitivity of Explosives to Heat, Impact, Friction, Spark and Shock

Sensitivity to Spark

Sensitivity to flame, heat, sparks, electrostatic

Severe sparking , static

Severe sparking , static discharges

Sliding spark

Sliding spark source

Solids spark source optical emission

Spark

Spark

Spark AES

Spark Breakdown Mechanism Streamer Concept

Spark Emission

Spark Holland

Spark Plasma Sintering (SPS)

Spark Plasma Sintering of CSed Powders

Spark Plasma Sintering of MAX Phases and Their Related Composites

Spark Publications

Spark SSMS)

Spark Source Mass Spectrometers (SSMS)

Spark Source Mass Spectrometr

Spark ablated aerosol

Spark ablation

Spark ablation ICP-OES

Spark advance

Spark and shock hazards

Spark arrestors

Spark breakdown

Spark breakdown mechanism

Spark chamber

Spark chamber detection

Spark chamber gases

Spark chamber method

Spark channel

Spark condensed

Spark critically damped

Spark detection limit

Spark detonator

Spark discharge

Spark discharge chamber

Spark discharge definition

Spark discharge detector

Spark discharge efficiency

Spark discharge plates

Spark discharge sensitivity

Spark distance

Spark electrochemical

Spark electrodes

Spark emission spectra

Spark emission spectroscopy

Spark energy

Spark erosion

Spark erosion technique

Spark excitation techniques

Spark frequency

Spark gaps

Spark gaps characteristics

Spark gaps protection

Spark gasoline fueled

Spark generator

Spark high-voltage

Spark ignition chemistry

Spark ignition direct injection engine

Spark ignition energy

Spark ignition engines, knock

Spark ignition engines, technical

Spark ignition test

Spark ignition vehicles

Spark internal combustion

Spark ion source

Spark ionization

Spark lighting

Spark machining

Spark oscillating

Spark plasma sintering

Spark plasma sintering, of ceramic

Spark plasma synthesis

Spark plug

Spark plug boots

Spark plug insulator

Spark repetition rate

Spark sensitivity

Spark single

Spark source

Spark source applications

Spark source emission spectroscopy

Spark source mass

Spark source mass accuracy

Spark source mass combined

Spark source mass interferences

Spark source mass internal

Spark source mass matrix

Spark source mass metals

Spark source mass operation

Spark source mass oxides

Spark source mass photoplates

Spark source mass precision

Spark source mass preparation

Spark source mass principles

Spark source mass relative sensitivity

Spark source mass sample preparation

Spark source mass spectrography

Spark source mass spectrometry SSMS)

Spark source mass spectrometry analytical performance

Spark source mass spectrometry detection limits

Spark source mass spectrometry principle

Spark source mass spectrometry sample preparation

Spark source mass spectrometry sample requirements

Spark source mass spectrometry technology

Spark source mass spectrometry trace element survey analyses

Spark source mass standards

Spark source schematic

Spark stand

Spark suppression

Spark test

Spark test apparatus

Spark testing

Spark testing methods

Spark timing

Spark train

Spark unidirectional

Spark, sparks

Spark-Assisted Chemical Engraving

Spark-Assisted Chemical Engraving SACE)

Spark-Induced Melting

Spark-ablation ICP

Spark-arresters

Spark-discharge atomization

Spark-ignited engines

Spark-plug composition

Spark-source ionization

Spark-source mass spectrometer advantages

Spark-source mass spectrometry

Spark-source optical emission

Spark-source optical emission spectrometry

Sparkes

Sparking chamber

Sparking coal

Sparking hazard

Sparking plugs

Sparking potential

Sparking tube

Sparking, atomisation

Sparking-plug electrodes

Sparks and electrical arcs

Sparks brightness

Sparks colour

Sparks fountains

Sparks fragmentation

Sparks mandrel

Sparks radio-frequency

Sparks spectroscopy

Sparks, William

Sparks, William Joseph

Sparks, atomic spectroscopy

Sparks, production

Spectometry arc/spark emission

Spectrometry spark source

Spectroscopy spark source matrices

Spectroscopy spark source trace element analysis

Spectrum spark

Spectrum spark source

Static discharges spark discharge

Static discharges sparks

Static sparks

Subject sparks

Taylor, Trace element analysis of rare earth elements by spark source mass spectroscopy

The Colour of Sparks

The Electric Spark

The Spark Discharge

The Spark Ignition Internal Combustion Engine

Trace elements spark source mass spectrometry

Vacuum spark

Wire spark erosion

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