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kerosene

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Dictionary: ker·o·sene  ker·o·sine (kĕr'ə-sēn', kăr'-, kĕr'ə-sēn', kăr'-) pronunciation
also
n.
A thin oil distilled from petroleum or shale oil, used as a fuel for heating and cooking, in lamps, and as a denaturant for alcohol. Also called coal oil, lamp oil.

[Greek kēros, wax + -ENE.]


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kerosene
Organic compound, a clear, oily, highly flammable liquid with a strong odour, distilled from petroleum (10 – 25% of total volume). It is a mixture of about 10 different types of fairly simple hydrocarbons, depending on its source. It is less volatile than gasoline, boiling at 285 – 610 °F (140 – 320 °C). It is burned in lamps, heaters, and furnaces and is used as a fuel or fuel component for diesel and tractor engines, jet engines, and rockets and as a solvent for greases and insecticides.

For more information on kerosene, visit Britannica.com.

How Products are Made:

How is kerosene made?

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Background

Kerosene is an oil distillate commonly used as a fuel or solvent. It is a thin, clear liquid consisting of a mixture of hydrocarbons that boil between 302°F and 527°F (150°C and 275°C). While kerosene can be extracted from coal, oil shale, and wood, it is primarily derived from refined petroleum. Before electric lights became popular, kerosene was widely used in oil lamps and was one of the most important refinery products. Today kerosene is primarily used as a heating oil, as fuel in jet engines, and as a solvent for insecticide sprays.

History

Petroleum byproducts have been used since ancient times as adhesives and water proofing agents. Over 2,000 years ago, Arabian scientists explored ways to distill petroleum into individual components that could be used for specialized purposes. As new uses were discovered, demand for petroleum increased. Kerosene was discovered in 1853 by Abraham Gesner. A British physician, Gesner developed a process to extract the inflammable liquid from asphalt, a waxy petroleum mixture. The term kerosene is, in fact, derived from the Greek word for wax. Sometimes spelled kerosine or kerosiene, it is also called coal oil because of its asphalt origins.

Kerosene was an important commodity in the days before electric lighting and it was the first material to be chemically extracted on a large commercial scale. Mass refinement of kerosene and other petroleum products actually began in 1859 when oil was discovered in the United States. An entire industry evolved to develop oil drilling and purification techniques. Kerosene continued to be the most important refinery product throughout the late 1890s and early 1900s. It was surpassed by gasoline in the 1920s with the increasing popularity of the internal combustion engine. Other uses were found for kerosene after the demise of oil lamps, and today it is primarily used in residential heating and as a fuel additive. In the late 1990s, annual production of kerosene had grown to approximately 1 billion gal (3.8 billion 1) in the United States alone.

Raw Materials

Kerosene is extracted from a mixture of petroleum chemicals found deep within the earth. This mixture consists of oil, rocks, water, and other contaminates in subterranean reservoirs made of porous layers of sandstone and carbonate rock. The oil itself is derived from decayed organisms that were buried along with the sediments of early geological eras. Over tens of millions of years, this organic residue was converted to petroleum by a pair of complex chemical processes known as diagenesis and catagensis. Diagenesis, which occurs below 122°F (50°C), involves both microbial activity and chemical reactions such as dehydration, condensation, cyclization, and polymerization. Catagenesis occurs between 122°F and 392°F (50°C and 200°C) and involves thermocatalytic cracking, decarboxylation, and hydrogen disproportionation. The combination of these complex reactions creates the hydrocarbon mixture known as petroleum.

The Manufacturing
Process

Crude oil recovery

  • The first step in the manufacture of kerosene is to collect the crude oil. Most oil supplies are buried deep beneath the earth and there are three primary types of drilling operations used to bring it to the surface. One method, Cable-Tooled Drilling, involves using a jackhammer chisel to dislodge rock and dirt to create a tunnel to reach oil deposits that reside just below the earth's surface. A second process, Rotary Drilling, is used to reach oil reservoirs that are much deeper underground. This process requires sinking a drill pipe with a rotating steel bit into the ground. This rotary drill spins rapidly to pulverize earth and rock. The third drilling process is Off Shore Drilling and it uses a large ocean borne platform to lower a shaft to the ocean floor.
  • When any of these drilling processes break into an underground reservoir, a geyser erupts as dissolved hydrocarbon gases push the crude oil to the surface. These gases will force about 20% of the oil out of the well. Water is then pumped into the well to flush more of the oil out. This flushing process will recover about 50% of the buried oil. By adding a surfactant to the water even more oil can be recovered. However, even with the most rigorous flushing it is still impossible to remove 100% of the oil trapped underground. The crude oil recovered is pumped into large storage tanks and transported to a refining site.
  • After the oil is collected, gross contaminants such as gases, water, and dirt are removed. Desalting is one cleansing operation that can be performed both in the oilfield and at the refinery site. After the oil has been washed, the water is separated from the oil. The properties of the crude oil are evaluated to determine which petroleum products can best be extracted from it. The key properties of interest include density, sulfur content, and other physical properties of the oil related to its carbon chain distribution. Since crude oil is a combination of many different hydrocarbon materials that are miscible in one another, it must be separated into its components before it can be turned into kerosene.

Separation

  • Distillation is one type of separation process involves heating the crude oil to separate its components. In this process the stream of oil is pumped into the bottom of a distillation column where it is heated. The lighter hydrocarbon components in the mixture rise to the top of the column and most of the high boiling-point fractions are left at the bottom. At the top of the column these lighter vapors reach the condenser which cools them and returns them to a liquid state. The columns used to separate lighter oils are proportionally tall and thin (up to 116 ft [35 m] tall) because they only require atmospheric pressure. Tall distillation columns can more efficiently separate hydrocarbon mixtures because they allow more time for the high boiling compounds to condense before they reach the top of the column.

    To separate some of the heavier fractions of oil, distillations columns must be operated at approximately one tenth of atmospheric pressure (75 mm Hg). These vacuum columns are structured to be very wide and short to help control pressure fluctuations. They can be over 40 ft (12 m) in diameter.

  • The condensed liquid fractions can be collected separately. The fraction that is collected between 302°F and 482°F (150°C and 250°C) is kerosene. By comparison, gasoline is distilled between 86°F and 410°F (30°C and 210°C). By recycling the distilled kerosene through the column multiple times its purity can be increased. This recycling process is known as refluxing.

Purification

  • Once the oil has been distilled into its fractions, further processing in a series of chemical reactors is necessary to create kerosene. Catalytic reforming, akylkation, catalytic cracking, and hydroprocessing are four of the major processing techniques used in the conversion of kerosene. These reactions are used to control the carbon chain distribution by adding or removing carbon atoms from the hydrocarbon backbone. These reaction processes involve transferring the crude oil fraction into a separate vessel where it is chemically converted to kerosene.
  • Once the kerosene has been reacted, additional extraction is required to remove secondary contaminants that can affect the oil's burning properties. Aromatic compounds, which are carbon ring structures such as benzene, are one class of contaminant that must be removed. Most extraction processes are conducted in large towers that maximize the contact time between the kerosene and the extraction solvent. Solvents are chosen based on the solubility of the impurities. In other words, the chemical impurities are more soluble in the solvent than they are the kerosene. Therefore, as the kerosene flows through the tower, the impurities will tend to be drawn into the solvent phase. Once the contaminants have been pulled out of the kerosene, the solvent is removed leaving the kerosene in a more purified state. The following extraction techniques are used to purify kerosene.

    The Udex extraction process became popular in the United States during the 1970s. It uses a class of chemicals known as glycols as solvents. Both diethylene glycol and tetraethylene glycol are used because they have a high affinity for aromatic compounds.

    The Sulfolane process was created by the Shell company in 1962 and is still used in many extraction units 40 years later. The solvent used in this process is called sulfolane, and it is a strong polar compound that is more efficient than the glycol systems used in the Udex process. It has a greater heat capacity and greater chemical stability. This process uses a piece of equipment known as a rotating disk contractor to help purify the kerosene.

    The Lurgi Arosolvan Process uses N-methyl-2-pyrrolidinone mixed with water or glycol which increases of selectivity of the solvent for contaminants. This process involves a multiple stage extracting towers up to 20 ft (6 m) in diameter and 116 ft (35 m) high.

    The dimethyl sulfoxide process involves two separate extraction steps that increase the selectivity of the solvent for the aromatic contaminants. This allows extraction of these contaminants at lower temperatures. In addition, chemicals used in this process are non-toxic and relatively inexpensive. It uses a specialized column, known as a Kuhni column, that is up to 10 ft (3 m) in diameter.

    The Union Carbide process uses the solvent tetraethylene glycol and adds a second extraction step. It is somewhat more cumbersome than other glycol processes.

    The Formex process uses N-formyl morpholine and a small percentage of water as the solvent and is flexible enough to extract aromatics from a variety of hydrocarbon materials.

    The Redox process (Recycle Extract Dual Extraction) is used for kerosene destined for use in diesel fuel. It improves the octane number of fuels by selectively removing aromatic contaminants. The low aromatic kerosene produced by these process is in high demand for aviation fuel and other military uses.

Final processing

  • After extraction is complete, the refined kerosene is stored in tanks for shipping. It is delivered by tank trucks to facilities where the kerosene is packaged for commercial use. Industrial kerosene is stored in large metal tanks, but it may be packaged in small quantities for commercial use. Metal containers may be used because kerosene is not a gas and does not require pressurized storage vessels. However, its flammability dictates that it must be handled as a hazardous substance.

Quality Control

The distillation and extraction processes are not completely efficient and some processing steps may have to be repeated to maximize the kerosene production. For example, some of the unconverted hydrocarbons may by separated by further distillation and recycled for another pass into the converter. By recycling the petroleum waste through the reaction sequence several times, the quality of kerosene production can be optimized.

By products/Waste

Some portion of the remaining petroleum fractions that can not be converted to kerosene may be used in other applications such as lubricating oil. In addition, some of the contaminants extracted during the purification process can be used commercially. These include certain aromatic compounds such as paraffin. The specifications for kerosene and these other petroleum byproducts are set by the American Society for Testing and Materials (ASTM) and the American Petroleum Institute (API).

The Future

The future of kerosene depends on the discovery of new applications as well as the development of new methods of production. New uses include increasing military demand for high grade kerosene to replace much of its diesel fuel with JP-8, which is a kerosene based jet fuel. The diesel fuel industry is also exploring a new process that involves adding kerosene to low sulfur diesel fuel to prevent it from gelling in cold weather. Commercial aviation may benefit by reducing the risk of jet fuel explosion by creating a new low-misting kerosene. In the residential sector, new and improved kerosene heaters that provide better protection from fire are anticipated to increase demand.

As demand for kerosene and its byproducts increases, new methods of refining and extracting kerosene will become even more important. One new method, developed by ExxonMobil, is a low-cost way to extract high purity normal paraffin from kerosene. This process uses ammonia that very efficiently absorbs the contaminants. This method uses vapor phase fixed-bed adsorption technology and yields a high level of paraffin that are greater than 90% pure.

Where to Learn More

Books

Kirk Othmer Encyclopedia of Chemical Technology. Vol. 18. John Wiley and Sons, 1996.

Periodicals

Kovski, Alan. "New Kerosene Laws Get off to Bumpy Start." The Oil Daily 48 (1998).

"Paraffins, Normal." Hydrocarbon Processing 80 (2001): 116.

[Article by: Randy Schueller]


 
Columbia Encyclopedia:

kerosene

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kerosene or kerosine, colorless, thin mineral oil whose density is between 0.75 and 0.85 grams per cubic centimeter. A mixture of hydrocarbons, it is commonly obtained in the fractional distillation of petroleum as the portion boiling off between 150°C and 275°C (302°F-527°F). Kerosene has been recovered from other substances, notably coal (hence another name, coal oil), oil shale, and wood. At one time kerosene was the most important refinery product because of its use in lamps. Now it is most noted for its use as a carrier in insecticide sprays and as a fuel in jet engines.


Aviation Dictionary:

kerosene

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A thin oil distilled from petroleum or oil shale, used alone or in mixtures as a jet engine fuel.

Wikipedia:

Kerosene

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A kerosene bottle

Kerosene, sometimes spelled kerosine in scientific and industrial usage,[1] also known as paraffin, is a combustible hydrocarbon liquid. The name is derived from Greek keros (κηρός wax). The word Kerosene was registered as a trademark by Abraham Gesner in 1854 and for several years only the North American Gas Light Company and the Downer Company (to which Gesner had granted the right) were allowed to call their lamp oil kerosene.[2] It eventually became a genericized trademark.

It is usually called paraffin (sometimes paraffin oil) in the UK, South East Asia and South Africa (and parafin in Norway) (not to be confused with the much more viscous paraffin oil used as a laxative, or the waxy solid also called paraffin wax or just paraffin); the term kerosene is usual in much of Canada, the United States, Australia (where it is usually referred to colloquially as kero) and New Zealand.[3]

Kerosene is widely used to power jet-engined aircraft (jet fuel) and some rockets, but is also commonly used as a heating fuel and for fire toys such as poi.

Contents

Properties

Kerosene is a thin, clear liquid formed from hydrocarbons, with density of 0.78–0.81 g/cm3. It is obtained from the fractional distillation of petroleum between 150 °C and 275 °C, resulting in a mixture of carbon chains that typically contain between 6 and 16 carbon atoms per molecule.[4]

The flash point of kerosene is between 37 and 65 °C (100 and 150 °F) and its autoignition temperature is 220 °C (428 °F).[5]

The heat of combustion of kerosene is similar to that of diesel: its lower heating value is around 18,500 Btu/lb, or 43.1 MJ/kg, and its higher heating value is 46.2 MJ/kg.[6]

Kerosene is immiscible in water (cold or hot), but miscible in petroleum solvents.

History

The process of distilling crude oil/petroleum into kerosene, as well as other hydrocarbon compounds, was first written about in the mid 800's by the Persian scholar Rāzi (or Rhazes). Termed naft abyad ("white naphtha"), Razi produced kerosene and various other compounds using an apparatus called alembic. In his Kitab al-Asrar (Book of Secrets), the physician and chemist Razi described two methods for the production of kerosene. One method involved using clay as an absorbent, whereas the other method involved using ammonium chloride (sal ammoniac). The distillation process was to be repeated until the final product was perfectly clear and "safe to light," i.e. volatile hydrocarbon fractions had been mostly removed. Kerosene was also produced during the same period from oil shale and bitumen by heating the rock to extract the oil, which was then distilled.[7]

In 1846 Canadian geologist Abraham Gesner gave a public demonstration in Charlottetown, Prince Edward Island of a new process he had discovered. He heated coal in a retort and distilled from it a clear, thin fluid which he showed made an excellent lamp fuel. He coined the name "Kerosene" for his fuel, a contraction of keroselaion, meaning wax-oil.[8] The cost of extracting kerosene from coal was, however, high. Fortunately, Gesner recalled from his extensive knowledge of New Brunswick's geology a naturally-occurring asphaltum called Albertite. He was however blocked from using it by the New Brunswick coal conglomerate because they had coal extraction rights for the province and he lost a court case when their experts claimed that Albertite was in fact a form of coal.[9] Gesner subsequently moved to Newton Creek, Long Island, USA, in 1854, where he secured the backing of a group of businessmen. They formed the North American Gas Light Company, to which he assigned his patents. Despite clear priority of discovery, Gesner did not obtain his first kerosene patent until 1854, two years after James Young's US patent. Gesner's method of purifying the distillation products appears to have been superior to Young's, resulting in a cleaner and better smelling fuel. Manufacture of kerosene under the Gesner patents began in New York in 1854 and later in Boston, being distilled from bituminous coal and oil shale.[8]

In 1848 Scottish chemist James Young experimented with oil discovered seeping in a coal mine as a source of lubricating oil and illuminating fuel. When the seep became exhausted he experimented with the dry distillation of coal, especially the resinous "Boghead coal" (Torbanite). He extracted a number of useful liquids from it, one of which he named "paraffine oil" because at low temperatures it congealed into a substance resembling paraffin wax. Young took out a patent on his process and the resulting products in 1850, and built the first truly commercial oil-works in the world at Bathgate in 1851, using oil extracted from locally-mined Torbanite, shale, and bituminous coal. In 1852 he took out a US patent for the same invention. These patents were subsequently upheld in both countries in a series of lawsuits and other producers were obliged to pay him royalties.[8] See also coal oil.

In 1851 Samuel Martin Kier began selling kerosene to local miners, under the name "Carbon Oil". He distilled this by a process of his own invention from crude oil. He also invented a new lamp to burn his product.[10] He has been dubbed the Grandfather of the American Oil Industry by historians.[11] Since the 1840s, Kier's salt wells were becoming fouled with petroleum. At first, Kier simply dumped the useless oil into the nearby Pennsylvania Main Line Canal, but later he began experimenting with several distillates of the crude oil along with a chemist from eastern Pennsylvania. [12]

Ignacy Lukasiewicz, a Polish pharmacist residing in Lvov had been experimenting with different kerosene distillation techniques, trying to improve on Gesner's process, using local seep oil. Many people knew of his work but paid little attention to it. On the night of July 31, 1853, doctors at the local hospital needed to perform an emergency operation, virtually impossible by candlelight. They therefore sent a messenger for Lukasiewicz and his new lamps. The lamp burned so brightly and cleanly that the hospital officials ordered several lamps plus a large supply of fuel. Lukasiewicz realized the potential of his work and quit the pharmacy to find a business partner and then travelled to Vienna to register his technique with the government. Lukasiewicz moved to the Gorlice region of Poland in 1854 and sank several wells across southern Poland over the following decade, setting up a refinery near Jasło in 1859.[13]

The widespread availability of cheaper kerosene was the principal factor in the precipitous decline in the whaling industry in the mid-to-late 19th century, as the leading product of whaling was oil for lamps.

Fuel uses

Heating and lighting

Fuels for heating

Heating oil
Wood pellet
Kerosene
Propane
Natural gas
Wood
Coal



At one time the fuel was widely used in kerosene lamps and lanterns. Although it replaced whale oil, the 1873 edition of Elements of Chemistry said that "The vapor of this substance [kerosene] mixed with air is as explosive as gunpowder."[14] This may have been due to the common practice of adulterating kerosene with other, more volatile hydrocarbons, such as the cheaper benzene[15]. Kerosene was also a fire risk; in 1880, 39% of New York City fires were caused by defective kerosene lamps.[16]

These were superseded by the electric light bulb and flashlights powered by dry cell batteries, which are still used to this day.

Its use as a cooking fuel is mostly restricted to some portable stoves for backpackers and to less developed countries, where it is usually less refined and contains impurities and even debris.

As a heating fuel, it is often used in portable stoves, and is sold in some filling stations. It is sometimes used as a heat source during power failures. The use of portable kerosene heaters is not recommended for closed indoor areas without a chimney due to the danger of build-up of carbon monoxide gas.

A truck delivering kerosene in Japan

Kerosene is widely used in Japan as a home heating fuel for portable and installed kerosene heaters. In Japan, kerosene can be readily bought at any filling station or be delivered to homes.[citation needed]

In the United Kingdom and Ireland kerosene is often used as a heating fuel in areas that are unconnected to a gas pipeline network. It is used less for cooking, which has more commonly been LPG for some decades now, owing to its easier lighting.

The Amish, who abstain from the use of electricity for religious reasons, rely on kerosene for lighting at night.

More ubiquitous in the late 19th and early 20th centuries, kerosene space heaters were often built into kitchen ranges and kept many farm and fishing families warm and dry through the winter. At one time citrus growers used a smudge pot fueled by kerosene to create a pall of thick smoke over a grove in an effort to prevent freezing temperatures from damaging crops. Salamanders are kerosene space heaters used on construction sites to dry out building materials and to warm workers. Before the days of blinking electrically lighted road barriers, highway construction zones were marked at night by kerosene fired pot-bellied torches. Most of these uses of kerosene created thick black smoke because of the low temperature of combustion.

A notable exception, discovered in the early 19th century, is the use of a gas mantle above the wick on a kerosene lamp. Looking like a delicate woven bag above the woven cotton wick, the mantle was a residue of mineral material (thorium dioxide) which glowed white hot as it burned the volatile gases emanating from the blue flame at the base of the wick. These types of lamps are still in use today in areas of the world without electricity. One of the most commonly available types of kerosene mantle lamps is the "Aladdin Lamp."[citation needed] It is available in many of the hardware stores or camping outfitters of North America.[citation needed]

Transportation

In the mid-20th century, kerosene or TVO (tractor vaporising oil) was used as a cheap fuel for tractors. The engine would start on gasoline, then switch over to kerosene once the engine warmed up. A heat valve on the manifold would route the exhaust gases around the intake pipe, heating the kerosene to the point where it is vaporized and can be ignited by an electrical spark.

During the fuel crisis of the 1970s Saab-Valmet developed and series-produced the Saab 99 Petro that ran on kerosene, turpentine or gasoline. The project codenamed "Project Lapponia" was headed by Simo Vuorinen, and towards the end of the 1970s a working prototype was produced based on the Saab 99GL. The car was designed to run on two fuels. Gasoline was used for cold starts and when extra power was needed, but normally it ran on kerosene or turpentine. The idea was that the gasoline could be made from peat using the Fischer-Tropsch process. Between 1980 and 1984, 3756 Saab 99 Petros and 2385 Talbot Horizons (a version of the Chrysler Horizon that integrated many Saab components) were made.[17]

Today kerosene is mainly used in fuel for jet engines (more technically Avtur, Jet A, Jet A-1, Jet B, JP-4, JP-5, JP-7 or JP-8). One form of the fuel known as RP-1 is burned with liquid oxygen as rocket fuel. These fuel grade kerosenes meet specifications for smoke points and freeze points. The combustion reaction can be approximated as follows, with the molecular formula C12H26:

C12H26(l) + 37/2 O2(g) → 12 CO2(g) + 13 H2O(g); H˚ = -7513 kJ

In the initial phase of liftoff the Saturn V launch vehicle was powered by the reaction of liquid oxygen with RP-1[18]. For the five 6.4 meganewton sea-level thrust F-1 rocket engines of the Saturn V, burning together, the reaction generated roughly 1.62×1011 watts (J/s) or 217 million horsepower[18].

Kerosene is sometimes used as an additive in diesel fuel to prevent gelling or waxing in cold temperatures.[19]

Ultra-low sulfur kerosene is a custom-blended fuel used by the New York City Transit to power its bus fleet. The transit agency started using this fuel in 2004, prior to the widespread adoption of ultra-low sulfur diesel, which has since become the standard. In 2008, the suppliers of the custom fuel failed to tender for a renewal of the transit agency's contract, leading to a negotiated contract at a significantly increased cost.[20]

Cooking

In countries such as India, kerosene is the main fuel used for cooking, especially by the poor, and kerosene stoves have replaced traditional wood-based cooking appliances. As such, increase in the price of kerosene can have a major political and environmental consequence. The Indian government subsidizes the fuel to keep the price very low, to around 15 cents per liter as of February 2007, as lower prices discourage dismantling of forests for cooking fuel.[21]

Entertainment

Kerosene is often used in the entertainment industry for fire performances such as poi, fire breathing, and fire dancing. Because of its low flame temperature when burnt in free air, risk is lower, should the performer come in contact with the flame. Kerosene is not usually used as fuel for indoor fire dancing as it produces an unpleasant odor, which becomes poisonous in sufficient concentration. Methanol is often used instead, but the flames methanol produces tend to look less impressive, and the lower flash point of methanol can pose higher risk.[citation needed]

Other uses

  • Liquid pesticides have traditionally used kerosene or some other petroleum distillate as a carrier, though water has recently begun to replace kerosene
  • Kerosene has also been found effective in killing bed bugs upon direct spray.
  • Kerosene has been used to treat pools of standing water to prevent mosquitoes from breeding, notably in the yellow fever outbreak of 1905 in New Orleans.
  • It can be used to remove lice from hair, but this practice is painful and potentially very dangerous. Also, this practice removes all natural oils and fats from the scalp.
  • Since kerosene is chemically stable, it is used to store substances with redox tendencies within to prevent unwanted reactions, such as alkali metals.
  • It is used in the packaging and storing of white phosphorus to prevent contact with oxygen, which would lead to immediate combustion.
  • Kerosene can be used to store crystals. When a hydrated crystal is left in air, dehydration may occur slowly. This makes the colour of the crystal become dull. Kerosene can keep air from the crystal.
  • It is used as a solvent.
    • Kerosene can be applied topically to hard-to-remove mucilage or adhesive left by stickers on a glass surface (such as in show windows of stores).
    • Kerosene can be used to remove candle wax that has dripped onto a glass surface; it is recommended that the excess wax be scraped off prior to applying kerosene via a soaked cloth or tissue paper.
    • Kerosene can be used to clean bicycle and motorcycle chains of old lubricant before relubrication.
  • It can be used in conjunction with cutting oil as a thread cutting and reaming lubricant. When machining aluminium and its alloys, kerosene on its own is an excellent cutting lubricant.
  • Military applications—kerosene is a primary component in the explosive ANFO, which has widespread use in the mining and agricultural industries and was used in the Oklahoma City Bombing.
  • Kerosene-based diluent is commonly used as a component of the organic solvent in SX/EW copper refining.[22]
  • Hydrotreated kerosene can be used as a starting material to produce high purity linear paraffins which are subsequently dehydrogenated to linear olefins, and when the latter are reacted with benzene in the presence of a catalyst result in the production of linear alkyl benzene.
  • Kerosene is used as a lubricant for the cutting of glass. It prevents chipping of the glass as the cutting tool is drawn along the surface and it prevents the surface of the glass from resealing along the scored line which would cause an uneven and jagged cut.

Toxicity

Ingestion of kerosene is harmful or fatal.[23] [24]

Retail cost

United States

In 2008, kerosene cost was $39.92 per million BTUs ($37.84/GJ) for heating.[25]

See also

Notes

  1. ^ Webster's New World College Dictionary, kerosene.
  2. ^ Asbury, Herbert (1942). The golden flood: an informal history of America's first oil field. Alfred A. Knopf. pp. 35. 
  3. ^ Oxford English Dictionary, kerosene.
  4. ^ Chris Collins (2007), “Implementing Phytoremediation of Petroleum Hydrocarbons, Methods in Biotechnology 23:99-108. Humana Press. ISBN 1588295419.
  5. ^ Kerosene, http://www.inchem.org/documents/icsc/icsc/eics0663.htm, retrieved 2009-06-10 
  6. ^ Annamalai, Kalyan; Ishwar Kanwar Puri (2006). Combustion Science and Engineering. CRC Press. pp. 851. ISBN 978-0849320712. 
  7. ^ Bilkadi, Zayn. "The Oil Weapons". Saudi Aramco World 46 (1): 20–27. http://www.saudiaramcoworld.com/issue/199501/the.oil.weapons.htm. 
  8. ^ a b c Russell, Loris S. (2003). A Heritage of Light: Lamps and Lighting in the Early Canadian Home. University of Toronto Press. ISBN 0802037658. 
  9. ^ Black, Harry (1997). Canadian Scientists and Inventors. Pembroke Publishers. ISBN 1551380811. 
  10. ^ Greater Pittsburgh and Allegheny County, Past, Present, Future; The Pioneer Oil Refiner. The American Manufacturer and Iron World. 1901. http://books.google.com/books?id=lkcVAAAAYAAJ&pg=PT57&dq=refinery+kier+pittsburgh&client=firefox-a. 
  11. ^ McInnis, Karen. "Kier, Samuel Martin- Bio". biography. The Pennsylvania State University. http://www.pabook.libraries.psu.edu/palitmap/bios/Kier__Samuel_Martin.html. Retrieved 2008-12-12. 
  12. ^ Harper, J. A. (1995). "Samuel Kier - Medicine Man & Refiner". Excerpt from Yo-Ho-Ho and a Bottle of Unrefined Complex Liquid Hydrocarbons. Pennsylvania Geology, v. 26, No. 1, p.. Oil Region Alliance of Business, Industry & Tourism. http://www.oil150.com/essays/2007/02/samual-kier. Retrieved 2008-12-12. 
  13. ^ Steil, Tim; Luning, Jim (2002). Fantastic Filling Stations. MBI Publishing. pp. 19–20. ISBN 0760310645. 
  14. ^ Cooley, Le Roy Clark (1873). Elements of Chemistry: for Common and High Schools. Scribner, Armstrong. pp. 98. 
  15. ^ Crew, Benjamin Johnson; Ashburner, Charles Albert (1887). A Practical Treatise on Petroleum. Baird. pp. 395. 
  16. ^ Bettmann, Otto (1974). The Good Old Days & ndash; They Were Terrible!. Random House. pp. 34. ISBN 9780394709413. 
  17. ^ Bakrutan: "Saab 99 Petro" by Petri Tyrkös, nr 4, 2008
  18. ^ a b Ebbing, D. D.; Gammon, S. D. (2005). General Chemistry (8th ed.). New York: Houghton Mifflin. 
  19. ^ Kerosene blending, (pdf from EPA)
  20. ^ How a Plan for Bus Fuel Grew Expensive, The New York Times, 2008-09-25.
  21. ^ Bradsher, Keith (28 July 2008), "Fuel Subsidies Overseas Take a Toll on U.S.", New York Times, http://www.nytimes.com/2008/07/28/business/worldbusiness/28subsidy.html 
  22. ^ http://www.meab-mx.se/en/sx_principles.htm
  23. ^ Levine, Michael D; Gresham, Chip, III (30 April 2009). "Toxicity, Hydrocarbons". emedicine. http://emedicine.medscape.com/article/821143-overview. Retrieved 1 December 2009. 
  24. ^ Mahdi, Awad Hassan (1988). "Kerosene Poisoning in Children in Riyadh". Journal of Tropical Pediatrics (Oxford University Press) 34 (6): 316-318. doi:doi:10.1093/tropej/34.6.316. http://tropej.oxfordjournals.org/cgi/content/abstract/34/6/316. Retrieved 1 December 2009. "Radiological signs of pneumonia were shown in nine out of 27 patients who had chest X-rays. There was one death.". 
  25. ^ Ryan, Matt (June 20, 2008). "Homeowners seek cheaper winter heat". Burlington Free Press (Burlington, Vermont). 

External links


Translations:

Kerosene

Top
Kerosene

Dansk (Danish)
n. - petroleum

Nederlands (Dutch)
kerosine, petroleum voor lampen

Deutsch (German)
n. - Kerosin

Ελληνική (Greek)
n. - (χημ.) κηροζίνη, φωτιστικό πετρέλαιο, παραφίνη

Italiano (Italian)
cherosene

Português (Portuguese)
n. - querosene (m)

Русский (Russian)
керосин

Español (Spanish)
n. - queroseno

Svenska (Swedish)
n. - fotogen

中文(简体)(Chinese (Simplified))
煤油, 灯油, 火油

中文(繁體)(Chinese (Traditional))
n. - 煤油, 燈油, 火油

한국어 (Korean)
n. - 등유

日本語 (Japanese)
n. - 灯油

العربيه (Arabic)
‏(الاسم) كيروسين, كاز‏

עברית (Hebrew)
n. - ‮נפט‬


 
 

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