A) Plasma, gas, solid B) Solid, liquid, plasma C) Liquid, gas, plasma D) Solid, liquid, gas
A) Plasma B) Liquid C) Gas D) Solid
A) Gas B) Liquid C) Solid D) Plasma
A) Energy and mass B) Temperature and pressure C) Density and color D) Speed and volume
A) Evaporation B) Condensation C) Sublimation D) Deposition
A) Liquid B) Gas C) Solid D) Plasma
A) Plasma B) Liquid C) Solid D) Gas
A) Condensation B) Melting C) Freezing D) Vaporization
A) Deposition B) Evaporation C) Sublimation D) Condensation
A) Plasma B) Crystalline solid C) Liquid crystal D) Ferromagnetism
A) Fermionic condensate B) Neutron-degenerate matter C) Quark-gluon plasma D) Bose–Einstein condensate
A) Solid B) Phase C) Gas D) Liquid
A) Two B) One C) Fifteen D) Ten
A) Plasma B) Liquid crystals C) Crystalline solids D) Amorphous solids
A) It changes from body-centred cubic to face-centred cubic B) It transforms into a liquid C) It becomes amorphous D) It remains body-centred cubic
A) Deposition B) Freezing C) Sublimation D) Melting
A) Vapor B) Supercritical fluid C) Plasma D) Liquid
A) Carbon dioxide B) Oxygen C) Nitrogen D) Water
A) Low temperature and pressure. B) High voltage or extremely high temperatures. C) Decreasing kinetic energy. D) Compression alone.
A) Plasma B) Liquid C) Vapor D) Supercritical fluid
A) The volume remains unchanged. B) The volume is usually greater. C) The volume is usually less. D) The volume becomes indefinite.
A) Mesophases B) Plasma states C) Crystalline states D) Sublimation phases
A) Glass states B) Superconductive states C) Ferromagnetic states D) Plasma states
A) Plastic crystal B) Quark–gluon plasma C) Spin glass D) Orientational glass
A) Liquid helium B) Metallic hydrogen C) Carbon dioxide ice D) Solid iron
A) Electric heaters B) Magnetic resonance imaging machines C) Light bulbs D) Heating elements
A) White dwarf stars B) Red giant stars C) Neutron stars D) Black holes
A) (l) B) (s) C) (aq) D) (g)
A) Magnetic fields B) Fermions C) Metals D) Bosons
A) Potassium B) Copper C) Sodium D) Iron
A) Ferrimagnetism B) Antiferromagnetism C) Quantum spin liquid D) Ferromagnetism
A) Antiparallel B) In one fixed direction C) Parallel D) Randomly
A) Superfluid B) Spin glass C) Fermionic condensate D) Plastic crystal
A) They decay faster than usual B) They transform into protons C) They remain stable indefinitely D) Inverse decay overtakes their decay
A) Photonic matter B) Chain-melted state C) Quantum Hall state D) Superglass
A) Fermionic condensates B) Bose–Einstein condensates C) Helium-4 superfluidity D) Superconductors excluding magnetic fields
A) Quark–gluon plasma B) Spin glass C) Plastic crystal D) Orientational glass
A) They become much smaller B) Their size is unpredictable C) They are not significantly larger D) They expand rapidly
A) Gluons B) Neutrinos C) Electrons D) Strange quarks
A) Well understood and documented B) Identical to electron plasma C) Presently unknown D) A type of ordinary matter
A) The Pauli exclusion principle B) Archimedes' principle C) Hooke's law D) Newton's law of universal gravitation
A) Nickel(II) oxide (NiO) B) Magnetite (Fe3O4) C) Solid iron D) None of the above
A) Near absolute zero B) Room temperature C) Melting point D) Boiling point
A) In 1911 B) In 1986 C) In 1925 D) In 1995
A) As independent fermions B) With infinite thermal conductivity C) As composite particles that behave like bosons D) As superconductors
A) Gravitational force B) Weak force C) Electromagnetic force D) Strong force
A) 90–110 °C B) 118–136 °C C) 140–160 °C D) 100–120 °C
A) (g) B) (l) C) (s) D) (aq)
A) Atoms have an unstable arrangement but maintain an overall pattern. B) Atoms align in a perfect grid with opposite electron spins. C) It is a phase of matter at the Hagedorn temperature. D) It exhibits properties similar to quark-gluon plasma.
A) 24 hours B) 1 hour C) Approximately 10 minutes D) Instantaneous decay
A) Below 164 K B) Below 2.17 K C) Above 30 K D) Above 273.15 K
A) Amorphous metal B) Plastic crystal C) Crystal D) Glass
A) Meissner effect B) Superfluid state of helium-4 C) High-temperature superconductivity D) Fermionic condensation
A) Superconductivity B) Mesophases C) Classical states D) Non-classical states
A) They are expelled from the star B) They form a new element C) They remain bound to atoms indefinitely D) They combine with protons via inverse beta-decay
A) Nanometre-sized structures. B) Uniform liquid mixtures. C) Crystalline solids. D) Macroscopic layers.
A) Photonic matter B) Quantum Hall state C) Superglass D) Chain-melted state |