A) Mercury(III) B) Mercury(I) C) Mercury(0) D) Mercury(II)
A) Tetrahedral B) Square planar C) Linear D) Octahedral
A) Zn2+ B) Cd2+ C) Pb2+ D) Ag+
A) White solid B) Colorless liquid C) Red powder D) Gaseous vapor
A) Near 200 °C B) Near 100 °C C) Near 800 °C D) Near 400 °C
A) Joseph Priestley B) Antoine Lavoisier C) Dmitri Mendeleev D) John Dalton
A) Mercury metal B) Mercury oxide C) Mercury chloride D) Mercury sulfide
A) Galena B) Pyrite C) Cinnabar D) Sphalerite
A) Prussian blue B) Ochre C) Vermilion D) Ultramarine
A) Metacinnabar B) Cinnabar C) Stibnite D) Galena
A) Mercury(II) oxide B) Mercury(II) fulminate C) Mercury cadmium telluride D) Millon's base
A) Fusible white precipitate B) Mercury(II) fulminate C) Nessler's reagent D) Millon's base
A) Infrared detector B) Catalyst C) Pigment D) Primary explosive
A) Lead azide B) Ammonia C) Potassium tetraiodomercurate(II) D) Mercury(II) chloride
A) 0.08 ppm B) 0.01 ppm C) 0.5 ppm D) 2.5 ppm
A) 88th B) 10th C) 66th D) 45th
A) HgS B) HgO C) HgSO4 D) Hg2S
A) 2.5% B) 10% C) 0.08% D) 0.1%
A) Glacial valleys B) Hot springs or volcanic regions C) Sedimentary sandstone layers D) Deep ocean trenches
A) 1992 B) 2006 C) 2012 D) 1976
A) $1,000 B) $100 C) $2,200 D) $650
A) Acid leaching B) Electrolysis C) Heating in a current of air D) Cooling in a vacuum
A) Sulfur gas B) Sulfate C) Sulfur trioxide D) Sulfur dioxide
A) Tajikistan B) Mexico C) Russia D) China
A) 88% B) 50% C) 10% D) 25%
A) Idrija B) Almaden C) Luo Xi D) McDermitt
A) Barometers B) Compact fluorescent lamps (CFL) C) Thermometers D) Batteries
A) A residential neighborhood B) A shopping mall C) An industrial facility D) A county park
A) Mercuric B) Hydrosilver C) Hydrargyrum D) Argentum
A) Greek B) Egyptian C) Latin D) Spanish
A) Liquid-metal B) Water-silver C) Heavy-metal D) Fast-silver
A) Quicksilver B) Cinnabar C) Argentum D) Hydrargyrum
A) Daedalus B) Lewis Carroll C) Khumarawayh ibn Ahmad ibn Tulun D) Qín Shǐ Huáng Dì
A) Teotihuacan B) Almadén C) Lamanai D) Huancavelica
A) Lewis Carroll B) Daedalus C) Qín Shǐ Huáng Dì D) Khumarawayh ibn Ahmad ibn Tulun
A) Removing sulfur to create silver B) Creating an elixir of immortality C) Turning mercury into jade D) Transmutation into gold
A) Transmutation process B) Carroting C) Patio process D) Amalgamation process
A) Extracting silver from ore B) Making felt hats C) Creating mirrors D) Healing bone fractures
A) Cinnabar B) Mercury sulfide C) Mercuric nitrate D) Mercury vapor
A) Felt hat making B) Alchemical research C) Mirror manufacturing D) Silver mining
A) 1941 B) 1813 C) 1786 D) 1558
A) Monte Amiata B) Almadén C) Idrija D) Huancavelica
A) Longer life B) Healing of fractures C) Serious adverse health effects D) Improved mobility
A) Daedalus B) Khumarawayh ibn Ahmad ibn Tulun C) Qín Shǐ Huáng Dì D) Lewis Carroll
A) Hat felt B) Cosmetics C) Mirrors D) Alchemical elixirs
A) 79 B) 82 C) 81 D) 80
A) Digestive, skeletal, and muscular B) Respiratory, circulatory, and endocrine C) Integumentary, lymphatic, and reproductive D) Nervous, immune, and kidneys
A) Albert Einstein B) Heike Kamerlingh Onnes C) Isaac Newton D) Marie Curie
A) 1905 B) 1925 C) 1911 D) 1899
A) It does not conduct heat at all B) It is a poor conductor C) It is an excellent conductor D) It is a fair conductor equal to copper
A) It doubles B) It decreases by 3.59% C) It remains exactly the same D) It increases by 3.59%
A) Me B) Hg C) My D) Ag
A) Brittle and hard B) Highly reactive and unstable C) Malleable and ductile D) Gaseous and invisible
A) Rubidium B) Gallium C) Bromine D) Caesium
A) Food preservation B) Water purification C) Rocket fuel D) Scientific research
A) Below 4 K B) Exactly 0 °C C) At room temperature D) Above 100 K
A) Cinnabar crystals B) Solid mercury C) Mercury vapor at room temperature D) Methylmercury
A) Visible light is produced directly B) Infrared radiation is released C) Short-wave ultraviolet light is produced D) The mercury turns into solid metal
A) Platinum B) Zinc C) Gold D) Silver
A) Silver B) Iron C) Gold D) Platinum
A) Silver B) Platinum C) Sodium D) Gold
A) Four B) Seven C) Two D) Ten
A) 201Hg B) 206Hg C) 199Hg D) 202Hg
A) 46.612 days B) 444 years C) 24 hours D) 100 years
A) 203Hg B) 194Hg C) 206Hg D) 199Hg
A) Carbon dioxide B) Nitrogen C) Hydrogen sulfide D) Oxygen
A) Hydrocarbon reservoirs B) Ocean sediments C) Atmospheric dust D) Volcanic vents
A) vermilion B) corrosive sublimate C) calomel D) cinnabar
A) Hg2Cl B) HgCl2 C) Hg2Cl2 D) HgCl
A) They are all gaseous B) They form metal-metal bonds C) They do not form cations D) They are never diamagnetic
A) The solution becomes highly magnetic B) Disproportionation goes to completion C) No chemical reaction occurs D) The mercury(I) ion stabilizes
A) Hg2H2 B) Hg2H C) HgH2 D) HgH
A) Hg-Hg-Cl-Cl B) Hg-Cl-Cl-Hg C) Cl-Hg-Hg-Cl D) Cl-Cl-Hg-Hg
A) Extreme pressures B) Standard atmospheric pressure C) Extreme vacuum D) High humidity
A) Electrolysis B) Photodegradation C) Oxidation D) Biomethylation
A) Merbromin B) Cinnabar C) Calomel D) Mercuric chloride
A) Toothaches B) Depression C) Constipation D) Syphilis
A) Gases B) Solids C) Liquids D) Plasma
A) Orthodontic wire B) Dental amalgams C) Fluoride varnish D) Dental crowns
A) Thiomersal B) Thimerisol C) Thiomercuro D) Mercuro-preserv
A) Anemia B) Diabetes C) Autism D) Asthma
A) Measles vaccine B) Inactivated influenza vaccine C) Chickenpox vaccine D) Polio vaccine
A) Skin whitener B) Laxative C) Diuretic D) Topical antiseptic
A) Thiazides B) Statins C) Antibiotics D) Antihistamines
A) 5 parts per million B) 1 part per million C) 0.5 parts per million D) 10 parts per million
A) Depigmenting skin B) Reducing acne C) Treating eczema D) Increasing collagen
A) Mandatory in clinics B) Greatly declined C) Increasing rapidly D) Completely forbidden
A) Lead alloy B) Galinstan alloy C) Silver alloy D) Copper alloy
A) Robert Boyle B) Isaac Newton C) Daniel Gabriel Fahrenheit D) Galileo Galilei
A) Oil B) Glycerin C) Water D) Alcohol
A) 2005 Climate Accord B) 1985 Mercury Treaty C) 1998 Protocol on Heavy Metals D) 2010 Industrial Safety Act
A) Measuring electrical conductivity B) Determining boiling points C) Calibration of pressure sensors D) Temperature standard for the ITS-90
A) Extreme lightweight B) Fast recharging speed C) Ability to be recycled D) Constant voltage output
A) Thermistor sensors B) Galvanometers C) Simple water gauges D) Pressure-sensitive springs
A) Pure yellow B) Steady crimson red C) Consistent dull off-blue D) Bright neon green
A) They were too expensive to produce B) Better lithium technology was cheaper C) Concerns about contaminating landfills D) They often caught fire
A) Environmental impact during ground testing B) It is a solid at room temperature C) It has very low molecular weight D) It is impossible to store
A) Xenon B) Argon C) Neon D) Helium
A) Mariner 4 B) Apollo 11 C) SERT-1 D) Voyager 1
A) Deep Space Atomic Clock B) SERT-2 C) Schiller Station D) UNIVAC I |