Magnetism - Quiz
A) Plastic materials B) Non-metallic materials C) Paper materials D) Ferromagnetic materials
A) Tesla B) Joule C) Newton D) Volt
A) Electric field B) Gravity belt C) Magnetic field D) Force zone
A) South pole B) West pole C) East pole D) North pole
A) Permanent magnet B) Magnetized metal C) Magnetic sponge D) Temporary magnet
A) Unlike poles B) South poles C) Like poles D) North poles
A) Above the Curie temperature B) Below the Curie temperature C) At absolute zero D) At room temperature
A) Electromagnetism B) Photosynthesis C) Hydrodynamics D) Thermodynamics
A) Neodymium magnets B) Ceramic magnets C) Permanent magnets D) Electromagnets
A) Michael Faraday B) William Gilbert C) André-Marie Ampère D) Hans Christian Ørsted
A) Greek B) European C) Indian D) Chinese
A) Niccolò Cabeo B) Leonardo Garzoni C) Alexander Neckam D) William Gilbert
A) Maxwell's equations B) Biot–Savart law C) Ampère's force law D) Faraday's law of induction
A) James Clerk Maxwell B) Carl Friedrich Gauss C) Hans Christian Ørsted D) Albert Einstein
A) It decreases with increasing distance between the loops. B) It only occurs if the loops are identical in size. C) It is independent of the shape of the loops. D) It is equal to the sum of individual forces each current element exerts on another.
A) Leonardo Garzoni B) Alexander Neckam C) Shen Kuo D) Peter Peregrinus de Maricourt
A) Magnetic fields are independent of electric currents. B) Magnetism only occurs in ferromagnetic materials. C) All forms of magnetism arise from elementary point charges moving relative to each other. D) Magnetism is caused by static electric fields.
A) William Gilbert's 'De Magnete, Magneticisque Corporibus, et de Magno Magnete Tellure' B) Niccolò Cabeo's 'Philosophia Magnetica' C) Leonardo Garzoni's 'Due trattati sopra la natura, e le qualità della calamita' D) Peter Peregrinus de Maricourt's 'Epistola de magnete'
A) To motivate his theory of special relativity. B) To prove the existence of electromagnetic waves. C) To develop quantum electrodynamics. D) To unify electricity and magnetism.
A) Sushruta Samhita B) Dream Pool Essays C) Lüshi Chunqiu D) Lunheng
A) Niccolò Cabeo B) Leonardo Garzoni C) Alexander Neckam D) Peter Peregrinus de Maricourt
A) Antiferromagnetism B) Diamagnetism C) Paramagnetism D) Ferromagnetism
A) Leonardo Garzoni B) Thales of Miletus C) William Gilbert D) Aristotle
A) Relative permeability B) Vacuum permeability C) Magnetic susceptibility D) Magnetization
A) Yosuke Nagaoka. B) Michael Faraday. C) James Clerk Maxwell. D) Louis Néel.
A) Aluminum B) Cobalt C) Nickel D) Iron
A) Spin of paired electrons B) Electrons' orbital motions C) External magnetic fields D) Unpaired electrons
A) Ferromagnetism. B) Canted antiferromagnet or spin ice. C) Diamagnetism. D) Superparamagnetism.
A) 140 millikelvins. B) 100 Kelvin. C) 300 Kelvin. D) Room temperature.
A) B = μ0H B) B = μrμ0H C) B = μ0(H + M) D) B = χH
A) 1905 B) 1950 C) 1820 D) 1600
A) High temperatures. B) Low temperatures. C) Room temperature. D) All temperatures equally.
A) Photoreception B) Electroreception C) Thermoreception D) Magnetoception
A) Diamagnetism B) Ferromagnetism C) Antiferromagnetism D) Paramagnetism
A) Two-body sigma-orbitals B) Pi-orbitals C) Sigma-star orbitals D) Delta-orbitals
A) Ferrimagnetism. B) Diamagnetism. C) Antiferromagnetism. D) Superparamagnetism.
A) B = μrμ0H B) B = χH C) B = μ0(H + M) D) B = μ0H
A) Antiferromagnetism B) Ferromagnetism C) Diamagnetism D) Paramagnetism
A) Bohr's model B) Heisenberg's uncertainty principle C) Pauli's principle D) Dirac's equation
A) Magnetite. B) Iron. C) Nickel. D) Cobalt.
A) Diamagnetism B) Antiferromagnetism C) Paramagnetism D) Ferromagnetism
A) Diamagnetic B) Paramagnetic C) Antiferromagnetic D) Ferromagnetic
A) Heisenberg uncertainty B) Exchange interaction C) Electrodynamic dipole-dipole interaction D) Pauli exclusion principle
A) Magnetism does not affect electric fields. B) They are completely separate phenomena. C) Electricity can exist without magnetism. D) They are fundamentally interlinked.
A) Hans Christian Ørsted B) Michael Faraday C) André-Marie Ampère D) James Clerk Maxwell
A) Electrodynamics B) Thermodynamics C) Classical physics D) Quantum mechanics
A) The strength increases with increasing distance. B) The strength fluctuates randomly with distance. C) The strength remains constant regardless of distance. D) The strength decreases with increasing distance.
A) Aluminium, oxygen, copper, carbon. B) Iron, cobalt, nickel, and their alloys. C) Chromium, lead, zinc. D) Gold, silver, platinum.
A) Magnetobiology B) Electrobiology C) Thermobiology D) Photobiology
A) H + M B) B/μ0 C) χH D) μ0M
A) M is independent of H B) M = μ0H C) M = B/μ0 D) M = χH
A) F = μ0(H + M) B) F = χH C) F = q(v × B) D) F = qvB
A) Biomagnetism B) Magnetoception C) Electroreception D) Photoreception
A) F = qvB cos(θ) B) F = χH C) F = μrμ0H D) F = qvB sin(θ)
A) Electrodynamics B) Molecular orbitals C) Quantum theory D) Heuristic explanations |
Created with That Quiz —
a math test site for students of all grade levels.