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Hydroxides calcium

Calcium carbide is mostly used to produce acetylene gas. [Pg.407]

Acetylene is used as a feedstock for vinyl chloride, vinylidene chloride, and vinyl acetate, all feedstocks for the plastics industry. [Pg.407]

acetylene is used extensively as the fuel in welding and metai cutting. [Pg.407]

Oxide Hydroxide Production process for calcium hydroxide [Pg.407]

Calcium hydroxide is used to make precipitated calcium carbonate filler. [Pg.407]

It has been reported that the 0001 peak of CH is anomalously strong relative to the 1011 peak in XRD powder patterns of calcium silicate or [Pg.126]

The dissolution of CH in water is exothermic AH = — 13.8 kJ mol at 25°C) (G39), and the solubility therefore decreases with temperature (Table 5.1). The data given are for large crystals higher apparent solubilities, up to at least 1.5gCa01 at 25 C, readily occur with finely crystalline material. [Pg.127]

Halstead and Moore (H25) reported thermal decomposition equilibria. The decomposition pressure reaches 101 kPa (1 atm) at 512°C and the mean enthalpy of decomposition at 300-510°C is 102.9 kJ mol When heated in [Pg.127]


Some carbonates are important industrial chemicals. Calcium carbonate occurs naturally in several forms, including limestone, and is used in the production of quicklime, calcium oxide CaO, slaked (or hydrated) lime, calcium hydroxide Ca(OH)2 and cement. [Pg.133]

The calcium oxide so produced is slaked to give a suspension of calcium hydroxide and this is heated with the filtrate from the carbonator which contains ammonium chloride ... [Pg.133]

The carbon dioxide is removed by passage of the gas through a mixture of sodium and calcium hydroxides. Very pure carbon monoxide is produced by heating nickel tetracarbonyl (see p. 179) ... [Pg.178]

Cannot be used for alcohols, phenols or amines, with all of which it combines. Not advisable for acidic liquids, as ordinary calcium chloride always contains some calcium hydroxide owing to partial hydrolysis during preparation. Usually used for alcohols (see p. 88). Cannot be used for acidic compounds, nor for esters, which it would hydrolyse. [Pg.24]

Alizarin dissolves in aqueous NaOH solution giving a purple solu tion. Calcium hydroxide will precipitate a blue sdt from this solution. Anthraquinone is unaffected by NaOH solution. [Pg.372]

The industrial process for preparing the reagent usually permits a little hydrolysis to occur, and the product may contain a little free calcium hydroxide or basic chloride. It cannot therefore be employed for drying acids or acidic liquids. Calcium chloride combines with alcohols, phenols, amines, amino-acids, amides, ketones, and some aldehydes and esters, and thus cannot be used with these classes of compounds. [Pg.140]

For the secondary pH reference standards, the buffer value is 0.070 for potassium tetroxalate and 0.09 for calcium hydroxide. [Pg.933]

To prepare the standard pH buffer solutions recommended by the National Bureau of Standards (U.S.), the indicated weights of the pure materials in Table 8.15 should be dissolved in water of specific conductivity not greater than 5 micromhos. The tartrate, phthalate, and phosphates can be dried for 2 h at 100°C before use. Potassium tetroxalate and calcium hydroxide need not be dried. Fresh-looking crystals of borax should be used. Before use, excess solid potassium hydrogen tartrate and calcium hydroxide must be removed. Buffer solutions pH 6 or above should be stored in plastic containers and should be protected from carbon doxide with soda-lime traps. The solutions should be replaced within 2 to 3 weeks, or sooner if formation of mold is noticed. A crystal of thymol may be added as a preservative. [Pg.933]

CIE.ORINE OXYGEN ACIDS AND SALTS - DICIE.ORINE MONOXIDE, HYPOCIE.OROUS ACID, AND HYPOCIE.ORITES] (Vol 5) Calcium hydroxide hypochlorite Ca(OCl)22Ca(OIT)2 [12394-14-8]... [Pg.153]

The most common catalysts are sodium hydroxide and calcium hydroxide, generally used at a modest excess over the nominal stoichiometric amount to avoid formaldehyde-only addition reactions. Calcium hydroxide is cheaper than NaOH, but the latter yields a more facile reaction and separation of the product does not require initial precipitation and filtration of the metal formate (57). [Pg.465]

The lime, cooled somewhat by the entering air in the lower parts of the shaft kiln, is discharged intermittently and slaked to calcium hydroxide with... [Pg.523]

The principal calcium salt used as a flocculant is calcium hydroxide [1305-62-0] or lime. It has been used in water treatment for centuries (see Calcium compounds). Newer products are more effective, and its use in water and effluent treatment is declining (10). It is still used as a pH modifier and to precipitate metals as insoluble hydroxides. Lime is also sometimes used in combination with polymeric flocculants. [Pg.32]

Less activated substrates such as uorohaloben2enes also undergo nucleophilic displacement and thereby permit entry to other useful compounds. Bromine is preferentially displaced in -bromofluoroben2ene [460-00-4] by hydroxyl ion under the following conditions calcium hydroxide, water, cuprous oxide catalyst, 250°C, 3.46 MPa (500 psi), to give -fluorophenol [371-41-5] in 79% yield (162,163). This product is a key precursor to sorbinil, an en2yme inhibitor (aldose reductase). [Pg.322]

Cascara sagrada is used as a cathartic. It is most useful when prepared as a fluid extract, and tends to be a mild laxative causing Htfle discomfort. However, on prolonged use it may result in characteristic melanotic pigmentation of the rectal mucosa. The bitter taste can be lessened, owing to neutralization of the acid constituents, if the ground substance is moistened and mixed with magnesium or calcium hydroxide. This treatment may lessen the potency of the preparation. [Pg.201]

Magnesium sulfate heptahydrate may be prepared by neutralization of sulfuric acid with magnesium carbonate or oxide, or it can be obtained directly from natural sources. It occurs abundantly as a double salt and can also be obtained from the magnesium salts that occur in brines used for the extraction of bromine (qv). The brine is treated with calcium hydroxide to precipitate magnesium hydroxide. Sulfur dioxide and air are passed through the suspension to yield magnesium sulfate (see Chemicals frombrine). Magnesium sulfate is a saline cathartic. [Pg.202]

The polymerization is carried out at temperatures of 0—80°C in 1—5 h at a soHds concentration of 6—12%. The polymerization is terminated by neutralizing agents such as calcium hydroxide, calcium oxide, calcium carbonate, or lithium hydroxide. Inherent viscosities of 2-4 dL/g are obtained at 3,4 -dianiinodiphenyl ether contents of 35—50 mol %. Because of the introduction of nonlinearity into the PPT chain by the inclusion of 3,4 -dianiinodiphenyl ether kinks, the copolymer shows improved tractabiUty and may be wet or dry jet-wet spun from the polymerization solvent. The fibers are best coagulated in an aqueous equiUbrium bath containing less than 50 vol % of polymerization solvent and from 35 to 50% of calcium chloride or magnesium chloride. [Pg.66]

Minor amounts of acetylene are used to produce chlorinated ethylenes. Trichloroethylene (trichloroethene) and perchloroethylene (tetrachloroethene) are prepared by successive chlorinations and dehydrochlorinations (see Chlorocarsons and chlorohydrocarsons). The chlorinations take place in the Hquid phase using uv radiation and the dehydrochlorinations use calcium hydroxide in an aqueous medium at 70—100°C. Dehydrochlorination can also be carried out thermally (330—700°C) or catalyticaHy (300—500°C). [Pg.393]

Suitable catalysts include the hydroxides of sodium (119), potassium (76,120), calcium (121—125), and barium (126—130). Many of these catalysts are susceptible to alkali dissolution by both acetone and DAA and yield a cmde product that contains acetone, DAA, and traces of catalyst. To stabilize DAA the solution is first neutralized with phosphoric acid (131) or dibasic acid (132). Recycled acetone can then be stripped overhead under vacuum conditions, and DAA further purified by vacuum topping and tailing. Commercial catalysts generally have a life of about one year and can be reactivated by washing with hot water and acetone (133). It is reported (134) that the addition of 0.2—2 wt % methanol, ethanol, or 2-propanol to a calcium hydroxide catalyst helps prevent catalyst aging. Research has reported the use of more mechanically stable anion-exchange resins as catalysts (135—137). The addition of trace methanol to the acetone feed is beneficial for the reaction over anion-exchange resins (138). [Pg.493]

Unha.iring, Unhairing can be done either by a hair save or a hair pulp system. The hair pulp system is preferred by most tanners for its speed and labor efficiency. In the hair pulp system the hides are treated with sodium sulfide (sulfhydrate) and lime (calcium hydroxide). The hair is quickly destroyed by the strong alkaline reducing conditions. [Pg.83]

Lithium Hydroxide. Lithium hydroxide monohydrate [1310-66-3], Li0H-H2 0, is prepared industrially from the reaction of lithium carbonate and calcium hydroxide in aqueous slurries. The calcium carbonate is subsequently separated to yield a lithium hydroxide solution from which lithium hydroxide monohydrate can be crystallized. Lithium hydroxide is the least soluble alkaH hydroxide, and solubiHty varies Htfle with temperature. [Pg.226]

Detergents are metal salts of organic acids used primarily in crankcase lubricants. Alkylbenzenesulfonic acids, alkylphenols, sulfur- and methjiene-coupled alkyl phenols, carboxyUc acids, and alkylphosphonic acids are commonly used as their calcium, sodium, and magnesium salts. Calcium sulfonates, overbased with excess calcium hydroxide or calcium carbonate to neutralize acidic combustion and oxidation products, constitute 65% of the total detergent market. These are followed by calcium phenates at 31% (22). [Pg.242]

The esterification reaction in making ester oils is commonly carried out with a catalyst at about 210°C while removing excess water as it forms (32). Excess acid or alcohol is then stripped off, and unreacted acid is neutrali2ed with calcium carbonate or calcium hydroxide before final vacuum drying (qv) and filtration (qv). [Pg.245]

Maleic Anhydride. The ACGIH threshold limit value in air for maleic anhydride is 0.25 ppm and the OSHA permissible exposure level (PEL) is also 0.25 ppm (181). Maleic anhydride is a corrosive irritant to eyes, skin, and mucous membranes. Pulmonary edema (collection of fluid in the lungs) can result from airborne exposure. Skin contact should be avoided by the use of mbber gloves. Dust respirators should be used when maleic anhydride dust is present. Maleic anhydride is combustible when exposed to heat or flame and can react vigorously on contact with oxidizers. The material reacts exothermically with water or steam. Violent decompositions of maleic anhydride can be catalyzed at high temperature by strong bases (sodium hydroxide, potassium hydroxide, calcium hydroxide, alkaU metals, and amines). Precaution should be taken during the manufacture and use of maleic anhydride to minimize the presence of basic materials. [Pg.459]

Casein is used to fortify flour, bread, and cereals. Casein also is used for glues and microbiological media. Calcium caseinate is made from a pressed casein, by rinsing, treating with calcium hydroxide [1305-62-0], heating, and mixing foUowed by spray drying. A product of 2—4% moisture is obtained. [Pg.370]

Calcium Peroxide. Pure calcium peroxide [1305-79-9] Ca02, has been prepared, but the commercial product is a mixture made by reaction of calcium hydroxide and hydrogen peroxide. Commercial material contains either 60 or 75% Ca02 the remainder is a poorly defined mixture of calcium oxide, hydroxide, and carbonate. A well-defined octahydrate [60762-59-6] 8H20, can be crysta11i2ed from aqueous systems. [Pg.91]

The second most common alkalinity control agent is lime [1305-78-8] normally in the form of calcium hydroxide [1303-62-0], used in both water and oH muds. In the latter, the lime reacts with added emulsifiers and fatty acids to stabHi2e water-in-oH emulsions. Lime is used in brine systems containing substantial quantities of soluble calcium and in high pH lime muds. Concentrations are ca 6—57 kg/m (2—20 lb /bbl) (see Lime AND LIMESTONE). [Pg.181]

Hydrogen sulfide, H2S, is removed by a variety of processes, of which one is a regenerative solution process using aqueous solutions of sodium hydroxide, NaOH, calcium hydroxide, Ca(OH)2, sodium phosphate, Na PO, and sodium carbonate, Na2C02. [Pg.208]

Tricalcium phosphate, Ca2(P0 2> is formed under high temperatures and is unstable toward reaction with moisture below 100°C. The high temperature mineral whidockite [64418-26-4] although often described as P-tricalcium phosphate, is not pure. Whidockite contains small amounts of iron and magnesium. Commercial tricalcium phosphate prepared by the reaction of phosphoric acid and a hydrated lime slurry consists of amorphous or poody crystalline basic calcium phosphates close to the hydroxyapatite composition and has a Ca/P ratio of approximately 3 2. Because this mole ratio can vary widely (1.3—2.0), free lime, calcium hydroxide, and dicalcium phosphate may be present in variable proportion. The highly insoluble basic calcium phosphates precipitate as fine particles, mosdy less than a few micrometers in diameter. The surface area of precipitated hydroxyapatite is approximately... [Pg.334]


See other pages where Hydroxides calcium is mentioned: [Pg.76]    [Pg.239]    [Pg.239]    [Pg.361]    [Pg.280]    [Pg.204]    [Pg.142]    [Pg.159]    [Pg.364]    [Pg.1153]    [Pg.1189]    [Pg.1192]    [Pg.152]    [Pg.152]    [Pg.153]    [Pg.551]    [Pg.69]    [Pg.163]    [Pg.346]    [Pg.487]    [Pg.22]    [Pg.91]   
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Barrier Calcium hydroxide

Calcium aluminate hydroxide

Calcium and strontium hydroxides

Calcium carbide hydroxide

Calcium carbonate hydroxide

Calcium carbonate/hydroxide/oxide

Calcium chloride hydroxide hydrate

Calcium hydroxide Inositol

Calcium hydroxide Table)

Calcium hydroxide [Ca

Calcium hydroxide additives, reactions with

Calcium hydroxide advantages

Calcium hydroxide behaviour

Calcium hydroxide calorimetry

Calcium hydroxide casein

Calcium hydroxide characterization

Calcium hydroxide chelate cements

Calcium hydroxide chloride

Calcium hydroxide constant-volume

Calcium hydroxide content

Calcium hydroxide crystals

Calcium hydroxide dimer acid

Calcium hydroxide epezite

Calcium hydroxide equivalent mass

Calcium hydroxide extracts

Calcium hydroxide formula

Calcium hydroxide manufacture

Calcium hydroxide pH calculations

Calcium hydroxide phosphate

Calcium hydroxide portlandite

Calcium hydroxide pretreatment

Calcium hydroxide production

Calcium hydroxide properties

Calcium hydroxide reaction with ammonium

Calcium hydroxide reaction with carbon dioxide

Calcium hydroxide reaction with hydrochloric acid

Calcium hydroxide reaction with lithium carbonate

Calcium hydroxide reaction with sodium carbonate

Calcium hydroxide reactivity

Calcium hydroxide reactivity additives

Calcium hydroxide sealers

Calcium hydroxide setting process

Calcium hydroxide solubility

Calcium hydroxide solubility in water

Calcium hydroxide solubility-product constant

Calcium hydroxide structure

Calcium hydroxide system

Calcium hydroxide wash

Calcium hydroxide wash paper

Calcium hydroxide wash washed

Calcium hydroxide, dehydration

Calcium hydroxide, dissolution

Calcium hydroxide, optical

Calcium hydroxide, specific surface area

Calcium hydroxides, separator additives

Calcium oxides and hydroxides

Carbon dioxide calcium hydroxide

Cement-silica fume pastes calcium hydroxide

Chelate-type calcium hydroxide materials

Decomposition calcium hydroxide

Endothermal peaks calcium hydroxide

Hydration calcium hydroxide

Palladium calcium hydroxid

Palladium hydroxide on calcium carbonate

Palladium hydroxide-calcium

Pulp capping calcium hydroxide

Reaction with calcium hydroxide

Retardant fillers) calcium hydroxide

Slaked lime [calcium hydroxide

Slaked lime [calcium hydroxide, Ca

Soil additives calcium hydroxide

Solution Ammonium Citrate Calcium Hydroxide

The calcium hydroxide dimer cement

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