A) 2,000 °F (1,090 °C) B) 1,600 °F (870 °C) C) 500 °F (260 °C) D) 1,200 °F (650 °C)
A) 95 dB B) 90 dB C) 100 dB D) 85 dB
A) Engineering controls B) Personal protective equipment C) Administrative controls D) Elimination and substitution
A) Tightly controlled smoking areas B) Use of impervious outerwear C) Detailed coordination during maintenance D) Adequate maintenance of piping
A) Ergonomic hazards B) Noise-induced hearing loss C) Vehicle-related accidents D) Localized system failures resulting in trauma from exploding components
A) Use of vermiculite on steel components B) Careful planning and oversight C) Post-construction fire detection systems D) Noise-canceling headphones
A) Fire-resistant gloves B) Safety goggles C) Impervious outerwear and acid hood D) Hearing protection
A) Localized system failures resulting in trauma B) Noise-induced hearing loss C) Devastating burns from super-heated reagents/equipment D) Vehicle-related accidents
A) Ergonomic injuries B) Hearing loss from noise exposure C) Risk of blunt or penetrating trauma from exploding system components D) Sleep disorders from shift work
A) Detailed coordination of maintenance activities B) Post-construction fire detection systems C) Use of pressure/chemical sensors D) Comprehensive hearing conservation program
A) 100 dB B) 85 dB C) 75 dB D) In excess of 90 dB
A) Personal protective equipment B) Engineering controls C) Elimination and substitution D) Administrative controls
A) Sleep disorders B) Heat illness C) Blunt trauma from machinery D) Noise-induced hearing loss
A) Impervious outerwear only B) Fire-resistant gloves C) Disposable coveralls only D) Hearing and vision protection, full-length pants and sleeves
A) Direct injury through heat illness or burns B) Vehicle-related accidents C) Localized system failures resulting in trauma D) Noise-induced hearing loss
A) Sleep disorders from shift work B) Dangerous exposures requiring PPE like acid hoods C) Noise-induced hearing loss D) Ergonomic injuries
A) Post-construction fire detection systems B) Detailed coordination during maintenance C) Compartmentalization of chemicals D) Use of pressure/chemical sensors
A) Heat illness B) Physical injuries due to system failures C) Noise-induced hearing loss D) Sleep disorders from shift work
A) Barium, thorium, xenon B) Butane, tetrahydrofuran, xylenol C) Benzene, toluene, xylene D) Boron, titanium, xenon
A) Injection B) Ingestion C) Dermal absorption D) Inhalation
A) Breast cancer B) Mesothelioma C) Lung cancer D) Prostate cancer
A) Genetic predisposition B) Lifestyle factors such as smoking C) Dietary habits D) Exercise routines
A) Diesel B) Asphalt C) Kerosene D) Gasoline
A) 15.0 million barrels per day B) 16.5 million barrels per day C) 17.9 million barrels per day D) 18.4 million barrels per day
A) 149 B) 301 C) 132 D) 200
A) Hydrocracking B) Fluid catalytic cracking C) Alkylation D) Catalytic reforming
A) Ignacy Łukasiewicz B) Abraham Gesner C) Samuel Kier D) Lazăr Edeleanu
A) 1870 B) 1846 C) 1859 D) 1865
A) Pittsburgh, near Grant Street on Seventh Avenue B) Jasło, Austro-Hungarian Empire C) Ploiești, Romania D) Oil Springs, Ontario
A) Abraham Gesner B) Lazăr Edeleanu C) Samuel Kier D) Ignacy Łukasiewicz
A) Canada B) Poland C) Romania D) United States
A) Ploiești, Romania B) Salzbergen, Germany C) Ras Tanura, Saudi Arabia D) Jamnagar, India
A) Abadan Refinery B) Ras Tanura Refinery C) Ploiești Refineries D) Jamnagar Refinery Complex
A) Lazăr Edeleanu B) Ignacy Łukasiewicz C) Samuel Kier D) Abraham Gesner
A) Ploiești B) Jamnagar C) Salzbergen D) Ras Tanura
A) Iran (Abadan Refinery) B) Romania C) Saudi Arabia D) United States
A) Reliance Industries Limited B) Deutsche Erdöl-AG C) RWE D) Saudi Aramco
A) Ming dynasty B) Han dynasty C) Tang dynasty D) Northern Song dynasty
A) It became the largest refinery in the world. B) It suffered extensive damage. C) It transitioned to solar energy production. D) It ceased operations permanently.
A) Iran (Abadan Refinery) B) Germany C) Romania (Ploiești refineries) D) United States
A) Pyrolysis gasoline B) Hydrogen C) Reformate D) Light hydrocarbons
A) Ethylene B) Hydrogen C) Elemental sulfur D) Petroleum coke
A) Light distillates B) Heavy distillates and residuum C) Middle distillates D) Intermediate distillates
A) Steam cracking B) Catalytic hydrodesulfurization C) Amine gas treating D) Polymerization
A) Petroleum coke B) Hydrogen C) Ethylene D) Elemental sulfur
A) Pyrolysis gasoline B) Ethylene C) Hydrogen D) Reformate
A) Light distillates B) Middle distillates C) Heavy distillates and residuum D) Intermediate distillates
A) Desalting B) Hydrotreating C) Vacuum distillation D) Cracking
A) Atmospheric pressure B) In the presence of catalysts C) High temperature D) Reduced pressure
A) Over 6,000 B) Less than 100 C) About 10,000 D) Exactly 500
A) Fluid catalytic cracking B) Hydrodesulfurization C) Merox D) Catalytic reforming
A) Merox B) Fluid catalytic cracking C) Hydrodesulfurization D) Catalytic reforming
A) Dimerization unit B) Alkylation unit C) Delayed coker D) Fluid catalytic cracking unit
A) Isooctene B) Isobutane C) Petroleum coke D) Alkylate
A) Isomerization. B) Solvent refining. C) Amine gas treating. D) Steam reforming.
A) Inorganic salts, primarily sodium chloride B) Water content C) Heavy metals D) Organic compounds
A) Kerosene B) Light gas oil C) Naphtha D) Heavy gas oil
A) 1985 B) 1999 C) 2005 D) 1976 at Marathon's Garyville, Louisiana facility
A) 1990 B) 2000 C) 1985 D) 1977
A) 29 CFR 1910.146 B) 29 CFR 1910.1200 C) 29 CFR 1910.307 D) 29 CFR 1910.106
A) 29 CFR 1910.106 B) 29 CFR 1910.1200 C) 29 CFR 1910.307 D) 29 CFR 1910.146
A) 29 CFR 1910.1200 B) 29 CFR 1910.106 C) 29 CFR 1910.307 D) 29 CFR 1910.146
A) 29 CFR 1910.307 B) 29 CFR 1910.1200 C) 29 CFR 1910.146 D) 29 CFR 1910.106
A) 29 CFR 1910.146 B) 29 CFR 1910.132 C) 29 CFR 1910.1200 D) 29 CFR 1910.106
A) 29 CFR 1910.147 B) 29 CFR 1910.146 C) 29 CFR 1910.1200 D) 29 CFR 1910.106
A) Texas B) North Dakota C) Alaska D) California
A) $2.9 billion B) $3.7 billion C) $5.2 billion D) $4.1 billion
A) Stainless steel B) Titanium C) Carbon steel D) Nickel alloy
A) Uniform corrosion B) Pitting corrosion C) Crevice corrosion D) Galvanic corrosion
A) Online monitoring B) Offline checks C) Real-time monitoring D) Predictive management
A) Reactive management B) Proactive management C) Preventative management D) Predictive management
A) Offline checks B) Real-time monitoring C) Predictive management D) Preventative management
A) They are cost-effective B) They last longer C) They resist high temperatures better D) They prevent all forms of corrosion
A) Pure iron B) Stainless steels containing more chromium C) Carbon steel D) Low alloy steels without chromium
A) High resistance to all forms of corrosion B) Its low cost C) Resistance to hydrogen embrittlement D) Ability to withstand extremely high temperatures
A) Proactive management B) Predictive management C) Preventative management D) Reactive management |