B. Combustion

C. Reduction

D. Nitration

B. Production of cold SBR employs lower pressure as compared to that of hot SBR

C. Cold rubber (SBR) is superior as compared to hot rubber (SBR)

D. Polymerisation temperature can modify the properties of SBR

A. Heat exchange with colder stream

B. Joule-Thomson expansion cooling

D. Merely compression of gas beyond its critical pressure

A. Conditioning and humidification of tobacco

B. Manufacture of pharmaceuticals

D. Manufacture of explosive

B. Low ash content

C. Low ignition temperature

D. High electrical resistivity

A. Ni

B. V2O5

C. FeO

A. Carbohydrate

C. Tannin

D. Molasses

B. None of these

C. Oxidation of naphthalene

D. Polymerisation of a mixture of benzene & propylene

A. Synthesis of oleum

B. Fertiliser manufacture

C. Water treatment

A. Higher melting point & lower reactivity to oxygen

B. Lower melting point & lower reactivity to oxygen

C. Higher melting point & higher reactivity to oxygen

A. 85

B. 70

C. 10

A. Mixture of glycerides of fatty acids

B. Mixture of glycerides

D. Liquid at room temperature

A. Not a fumigant

C. A by-product of BHC manufacture

D. Both B. and C.

B. Fructose and galactose

C. Glucose and galactose

D. Glucose and glucose

B. Quicklime

C. Milk of lime

D. None of these

A. Carbohydrates

B. Amino acids

C. Fats

A. Cutting

C. Fibrillation

D. Hydration

A. Nickel

B. Iron

C. Alumina

B. SO3

C. SO2

D. H2SO3

A. Exchange of heat with colder stream

B. Adiabatic expansion against a piston or in a turbine

D. Adiabatic expansion through a throttle valve (Joule-Thomson expansion)

A. None of these

C. BHC

D. Parathion

A. 100 kgf/cm2 & 500C

B. 40 kg/cm2 & 200C

D. 10 kgf/cm2 & 1000C

A. Coagulation

B. Sedimentation

C. Disinfection

A. Ostwalds

C. Bosch

D. Habers

A. Analgesic drug

B. Soap

D. Explosive

A. Extractive distillation

B. Multi-effect evaporation only

D. Selective liquid extraction

B. Polyurethane

C. Polyvinyl chloride (PVC)

D. Polybutadiene

A. Propyl alcohol

B. Butyl alcohol

C. Methyl alcohol

A. Reduction

B. Polymerisation

C. Dehydration

A. None of these

C. Electrolysis

D. Electrolytic oxidation

A. Na2CO3

C. K2CO3

D. CaCO3

B. L.D. steel making

C. Medicinal purposes

D. Cutting and welding of metals

A. Have affinity to retain harmful sulphur compounds

B. Are prone to rancid oxidation

D. Always contain some amount of nickel (as their complete removal is very difficult)

B. NH4Cl

C. NH3

D. NaOH

B. Strongly caking coal should not be used in the Lurgi gasifier

C. Water gas is called blue gas because of the color of the flame, when it is burnt

D. Gaseous fuels require less percentage of excess air for combustion as compared to liquid fuels

A. Much higher reactivity to oxygen

C. More unsaturated glycerides of fatty acids

D. Lower melting point

A. Gives an idea about its molecular weight

B. Detects its adulteration

D. Is inversely proportional to its molecular weight

A. Manganese

C. Bauxite

D. Quartz

A. Protein catalysts are called enzymes

B. Wine, rum & Vodka are prepared by the formulation of fruit juice, sugar beet & rye

C. pectively

D. The rate of chemical reaction is independent of the concentration of reactants at high

E. centration of enzymes

A. Emit poisonous vapour

C. Are absorbed throughout the plant

D. Kill insects, when they eat it

B. Roasting

C. Electromagnetic separation

D. Smelting

A. Potassium nitrate

B. Sulphur

C. Charcoal

A. Pumice

B. Carborundum

C. Corundum

A. Naphthalene

B. Benzoic acid

D. Phenol

A. Optical brightening agent

C. Builder

D. Surfactant

B. 15 to 25

C. 1 to 5

D. 5 to 10

A. Phosphate rock with nitric acid

B. Phosphate rock with sulphuric acid

C. Ammonium phosphate with phosphoric acid

A. Zinc oxide

B. Cellulosic photographic material

D. Zinc sulphide

A. Operate at very high pressure

B. Cannot use coking coal

C. Is a moving bed reactor

A. CaO, MgO, K2O

C. MgO, SiO2, K2O

D. Al2O3, MgO, Fe2O3