Butadiene - Quiz
A) Neutralization B) Hydrolysis C) Combustion D) Polymerization
A) 1,2-addition B) Substitution C) Elimination D) 1,4-addition
A) Carbonyl complexes B) Nitrosyl complexes C) Allyl complexes D) Hydride complexes
A) Cyclobutane B) Tetrahydrophthalic anhydride C) Phthalic acid D) Butadiene oxide
A) Iron B) Palladium C) Molybdenum D) Nickel
A) High B) Moderate C) Low D) Negligible
A) Diabetes B) Arthritis C) Cardiovascular disease D) Glaucoma
A) Bone cancer B) Skin cancer C) Leukemia D) Brain cancer
A) Group 1 carcinogen B) Group 2B carcinogen C) Group 3 carcinogen D) Group 2A carcinogen
A) Suspected carcinogen B) Non-carcinogen C) Confirmed human carcinogen D) Potent mutagen
A) Formaldehyde B) Nicotine C) Benzene D) Acrylonitrile
A) Antioxidant B) Neurotoxin C) Teratogen D) Allergen
A) Children B) No gender difference C) Women D) Men
A) Metabolic rate differences B) Body mass index C) Estrogen receptor impacts D) Differences in lung capacity
A) Potential to form ozone B) Ability to acidify rain C) High solubility in water D) Contribution to smog visibility
A) EPA B) TCEQ C) OSHA D) FDA
A) calcium carbide B) acetylene C) ethanol D) n-butane
A) 1943 B) 2017 C) 1940 D) 1957
A) Ostromislensky process B) Lebedev process C) Steam cracking D) Houdry Catadiene process
A) Tantalum and silica B) Calcium carbide C) Alumina and chromia D) Metal oxides only
A) Houdry B) Ivan Ostromislensky C) The Rubber Reserve Company D) Sergey Lebedev
A) Hydrogen and water B) Calcium carbide and carbon dioxide C) Chromia and alumina D) Acetaldehyde and silica
A) 400–450 °C B) 500–600 °C C) 200–250 °C D) 325–350 °C
A) None of the above B) Ivan Ostromislensky C) Sergey Lebedev D) Houdry
A) Butene B) Hydrogen C) Acetaldehyde D) Water
A) Tantalum-promoted porous silica B) Alumina and chromia C) Metal oxide D) Calcium carbide
A) n-Butane B) Steam cracking C) Ethanol only D) Acetylene
A) It is used in Brazil only B) None was produced C) It is used in the US only D) It is the primary method
A) Lower capital costs B) It uses cheaper catalysts C) Higher output volumes D) Better efficiency than steam cracking
A) Houston, Institute, and Louisville B) Brazil, China, and India C) Russia, Europe, and India D) Borger, Toledo, and El Segundo
A) Not competitive for large volumes B) Lack of available catalysts C) Higher capital costs D) Requires higher temperatures
A) CH3-CH=CH-CH3 B) CH2=CH2 C) CH2=C=CH-CH3 D) CH2=CH-CH=CH2
A) Colorless gas B) Viscous liquid C) Metallic plasma D) Solid
A) Aromatic ring B) Alkyne C) Conjugated diene D) Alkane
A) Natural volcanic activity B) Agricultural runoff C) Emission by motor vehicles D) Water treatment plants
A) Sergei Lebedev B) Eduard Tschunker C) E. Caventou D) Walter Bock
A) Polymerized butadiene B) Isolated butadiene from petroleum C) Developed extractive distillation D) Invented steam cracking
A) Silicone rubber B) Neoprene C) Natural rubber D) Nitrile rubber
A) 20.1 million tons B) 8.8 million tons C) 5.5 million tons D) 14.2 million tons
A) Fermentation of grain B) Direct synthesis from methane C) Byproduct of steam cracking D) Coal gasification
A) Ethanol B) Water C) Benzene D) Acetonitrile
A) Hydrogen gas B) Methane C) Ethane D) Heavier feeds
A) An allene B) A saturated alkane C) A conjugated diene D) An aromatic compound
A) After the Cold War B) Before World War II C) During the Industrial Revolution D) In the early 19th century
A) It is highly toxic B) It is a solid at room temperature C) It has no industrial importance D) It is too expensive to produce
A) Cyclohexene B) Chloroprene C) Sulfolene D) Adiponitrile
A) Polymerization B) Dimerization C) Hydrocyanation D) Trimerization
A) Polybutadiene (PB) B) Polybutadiene acrylonitrile (PBAN) C) Acrylonitrile butadiene styrene (ABS) D) Styrene-butadiene (SBR)
A) Vinylcyclohexene B) 1-octene C) Cyclododecatriene D) Sulfolane
A) PBAN B) ABS C) NBR D) SBR
A) Iron-based catalysts B) Copper-based catalysts C) Palladium-based catalysts D) Nickel- or titanium-containing catalysts
A) 4-vinylcyclohexene B) Cyclododecatriene C) Cyclooctadiene D) 1-methoxy-2,7-octadiene
A) 1-octene B) Adiponitrile C) Chloroprene D) Sulfolane
A) HTPB B) NBR C) SBR D) ABS
A) Hydrogen cyanide B) Sulfur dioxide C) Methanol D) Chlorine
A) Baton Rouge Chemicals B) Torrance Industrial C) USSRP D) Petro-Tex
A) s-cis B) s-trans C) gauche D) eclipsed
A) 0° B) 180° C) 38° D) 90°
A) 45° B) 0° C) 180° D) 38°
A) 16.5 kJ/mol B) 12.0 kJ/mol C) 3.5 kJ/mol D) 24.8 kJ/mol
A) 90° B) 0° C) Around 38° D) 180°
A) 3.5 kJ/mol B) 16.5 kJ/mol C) 12.0 kJ/mol D) 24.8 kJ/mol
A) 12.0 kJ/mol B) 16.5 kJ/mol C) 24.8 kJ/mol D) 3.5 kJ/mol
A) High steric hindrance B) Isolated double bonds C) A delocalized pi system D) A completely single C-C bond
A) Hydrogenation B) Polymerization C) Diels-Alder reaction D) Combustion
A) 133.0 pm B) 140.0 pm C) 133.8 pm D) 120.0 pm
A) 3.5 kcal/mol B) 30.3 kcal/mol C) 60.6 kcal/mol D) 57.1 kcal/mol
A) VSEPR theory B) Valence Bond theory C) Hückel theory D) Resonance theory |
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