Famous Physicists in History Trivia Word Search

This 18th-century Scottish chemist discovered that heat can change a substance's state without raising its temperature.

This Serbian-American inventor championed alternating current as the standard for electrical power systems.

This physicist proposed that quantum particles are guided by hidden variables rather than pure chance.

This British physicist predicted the existence of antimatter from a single elegant equation.

This American physicist discovered the positron, the antimatter twin of the electron, in 1932.

This physicist developed laser techniques to slow and trap atoms near absolute zero.

This Scottish physicist identified the exact angle at which reflected light becomes completely polarized.

This scientist proposed that a giant asteroid strike, not slow change, wiped out the dinosaurs.

This German physicist invented a coincidence-counting method for tracking individual cosmic ray particles.

This Italian astronomer aimed a telescope at Jupiter's moons and undermined the Earth-centered universe.

This German physicist stated the principle that energy can change form but is never created or destroyed.

This astrophysicist correctly predicted that the sun should be flooding Earth with ghostly particles called neutrinos.

This German astronomer worked out that planets travel in ellipses, not perfect circles, around the sun.

This physicist led India's early nuclear research program and studied how cosmic rays interact with matter.

This German physicist's idea that energy comes in discrete packets launched the field of quantum theory.

This physicist showed that the square of a particle's wave function gives the probability of finding it somewhere.

This principle, often used to explain lift, says a moving fluid's pressure falls as its speed rises.

This physicist showed that particles can seem to instantly affect each other no matter how far apart they are.

This physicist invented the bubble chamber, letting scientists photograph the tracks of subatomic particles.

An equation describing turbulence and shock waves in fluids carries this Dutch physicist's name.

This Swiss mathematician's formulas and notation still underpin huge areas of modern physics.

This astronomer showed that distant galaxies are racing away from us, revealing an expanding universe.

This physicist built some of the earliest particle accelerators that collide beams head-on.

This researcher's work on semiconductor heterostructures underlies the lasers used in every CD and DVD player.

This scientist explained the branching showers of particles triggered when a cosmic ray hits the atmosphere.

This Soviet physicist helped build some of the earliest working lasers and masers.

This 19th-century scholar became the first African American to earn a doctorate in physics in the United States.

This 18th-century Italian scholar became the first woman to hold a university physics professorship.

This 17th-century scientist's law states that a gas's pressure rises as its volume shrinks, at constant temperature.

This German mathematician advanced the theory behind magnetic fields and gave his name to a unit of magnetism.

This physicist invented intuitive diagrams for calculating particle interactions in quantum theory.

This physicist proposed the field that gives fundamental particles their mass, confirmed at CERN in 2012.

This French physicist proposed that particles like electrons also travel as waves.

This French engineer helped establish that light travels as a wave rather than a stream of particles.

This British physicist discovered that different elements give off their own distinct, identifiable X-rays.

This physicist championed the theory that light elements formed through nuclear reactions after the Big Bang.

This English physicist showed that heat and mechanical work are simply different forms of the same energy.

This 11th-century scholar in Cairo correctly argued that vision works because light enters the eye, not leaves it.

This Swedish scientist founded the study of plasma behavior in magnetic fields, later named for him.

This 19th-century German optician derived the formula that set a hard limit on microscope resolving power.

This physicist discovered cosmic rays after carrying detectors aloft in a series of balloon flights.

This Italian physicist explained the angle that governs how quark types mix during radioactive weak decay.

This 17th-century scientist's law states that a spring stretches in direct proportion to the force pulling it.

This American scientist discovered a form of electromagnetic induction just after a European rival published first.

This French engineer defined the theoretical ceiling on how efficient any heat engine can ever be.

This American physicist pioneered the study of matter squeezed under extremely high pressure.

This physicist's early theoretical work helped lay the groundwork for quantum computing.

This British physicist discovered the neutron in 1932, completing the basic picture of the atomic nucleus.

This British scientist discovered that a changing magnetic field can generate an electric current.

Together with a colleague, this scientist described how an electric current generates a surrounding magnetic field.

This scientist co-developed nuclear magnetic resonance, the physics principle behind medical MRI scanners.

This American inventor developed the first commercially practical long-lasting incandescent lightbulb.

This physicist co-built the classic handheld device that clicks when it detects radiation.

This Italian scientist's frog-leg experiments led him to describe what he called animal electricity.

This American astronomer devised the stellar classification system that groups stars by spectrum letters like O and B.

This American physicist is the only person to have won the Nobel Prize in Physics twice.

This Danish physicist pictured electrons circling the atomic nucleus in fixed, quantized orbits.

This physicist's theory of relativity reshaped how we understand space, time, and gravity.

This 18th-century scientist's torsion-balance experiment first measured gravitational attraction in a laboratory.

This physicist's tabletop experiment showed that quantum particles really do violate Bell's famous inequality.

Working without a telescope, this 16th-century Danish astronomer recorded the most precise planetary data of his age.

This Italian scientist's number tells you how many particles are in one mole of any substance.

This physicist devised a mathematical test that experiments could use to check whether hidden variables exist.

This American engineer invented the first wireless remote control, originally built for television sets.

This English mathematician formulated the law of universal gravitation and the laws of motion.

This medieval Persian polymath described an early version of inertia, the tendency of motion to persist.

A father-and-son team share this surname and a Nobel Prize for explaining how X-rays diffract off crystals.

This Scottish physicist's equations unified electricity, magnetism, and light into one theory.

This Norwegian scientist helped turn weather prediction into a physics-based science using fluid equations.

This student, at age 24, spotted the first known pulsar hidden in her own radio telescope data.

This Austrian physicist explained why a siren's pitch changes as it speeds past a listener.

Work by this Indian physicist laid part of the foundation for a whole class of particles named bosons.

This American physicist measured the speed of light with record precision and co-ran a famous ether-detecting experiment.

This German chemist discovered nuclear fission by splitting uranium atoms with neutrons in 1938.

This scientist developed the concept of free energy that predicts whether a chemical reaction will occur spontaneously.

This Austrian physicist linked entropy to the probability of a system's atomic arrangements.

This French physicist used a giant swinging pendulum to give the first direct proof that Earth rotates.

This French physicist stumbled onto radioactivity when uranium salts fogged a photographic plate in a dark drawer.

A unit once common for measuring light wavelengths, equal to a ten-billionth of a meter, bears this Swedish name.

This physicist predicted a measurable attractive force between two uncharged metal plates in a vacuum.

This Swiss mathematician and teacher showed that hydrogen's spectral lines fit a simple mathematical pattern.

This British physicist discovered the ionized atmospheric layer that lets radio signals bounce around the globe.

This physicist and chemist discovered a second form of radioactivity, created rather than found in nature.

This ancient Indian astronomer calculated that Earth's own rotation, not the sky, causes day and night.

This Austrian-Swedish physicist worked out the theory explaining why splitting a uranium nucleus releases energy.

The SI base unit of electric current is named after this French scientist.

This German physicist gave the modern statement of the second law of thermodynamics, involving entropy.

This physicist co-developed the theory explaining how hydrogen and helium formed minutes after the Big Bang.

This physicist explained why certain numbers of protons or neutrons make an atomic nucleus especially stable.

This Dutch scientist proposed that light spreads outward as a wave rather than as particles.

This physicist refined the cloud chamber technique, letting scientists photograph cosmic ray particles and antimatter.

A faint blue glow given off by particles outpacing light's speed in water is named for this Soviet physicist.

This scientist's X-ray images provided crucial evidence for the double-helix structure of DNA.

This physicist worked out the nuclear reactions that keep stars like the sun burning for billions of years.

This German physicist was the first to broadcast and detect radio waves in a laboratory.