Example collocations logo

Electromagnetic in sentence

61 examples of Electromagnetic in a sentence

So, chemistry is dominated by the electromagnetic force.
And there are sophisticated, interesting, electromagnetic reasons for that, but let's say for now that ice is basically the perfect target for radar, and radar is basically the perfect tool to study ice sheets.
And light is part of the electromagnetic spectrum.
So let's look at this in the context of the entire electromagnetic spectrum, where we have gamma rays.
It uses electromagnetic fields to isolate the atoms from the noise of the environment.
At the very least, you'd think they'd be revealing their presence, deliberately or otherwise, through electromagnetic signals of one kind or another.
Maybe as civilizations develop, they quickly discover communication technologies far more sophisticated and useful than electromagnetic waves.
The OED defines spectrum as "The entire range of wavelengths of electromagnetic radiation, from the longest radio waves to the shortest gamma rays of which the range of visible light is only a small part."
What if we could use these electromagnetic pulses as beacons, beacons in a moving network of powerful transmitters?
Now, technically there are some electromagnetic fields, but in terms of stuff, matter, it is empty.
And when it takes its place, it sheds electromagnetic radiation.
We have an electromagnetic field around the Earth, and it's constantly bombarded by high-energy particles, like protons.
But there's a second powerful incentive pushing decision-making away from humans and onto machines, and that's electromagnetic jamming, severing the connection between the drone and its operator.
In the 19th century, Maxwell figured out that you can't explain electromagnetic phenomena in terms of the existing fundamentals — space, time, mass, Newton's laws — so he postulated fundamental laws of electromagnetism and postulated electric charge as a fundamental element that those laws govern.
This is light waves, electromagnetic radiation that bounces off objects and it hits specialized receptors in the back of our eyes.
Because it's also useful in studying curves, pi helps us understand periodic or oscillating systems like clocks, electromagnetic waves, and even music.
Scientists have even used pi to prove the illusive notion that light functions as both a particle and an electromagnetic wave, and, perhaps most impressively, to calculate the density of our entire universe, which, by the way, still has infinitely less stuff in it than the total number of digits in pi.
Light is electromagnetic radiation that acts like both a wave and a particle.
The light that our eyes can see, including all of the colors of the rainbow, is just a small part of the larger spectrum of electromagnetic radiation, which includes radio waves, microwaves, infrared, ultraviolet, x-rays, and gamma rays.
It may seem strange to think of these things as light, but there is no fundamental difference between visible light and other electromagnetic radiation.
The answer begins with understanding that the word radiation describes two very different scientific phenomena: electromagnetic radiation and nuclear radiation.
Modern society is shaped by sending and detecting electromagnetic radiation.
All nuclear radiation is ionizing, while only the highest energy electromagnetic radiation is.
So Kaluza says, maybe I can play the same game and describe electromagnetic force in terms of warps and curves.
And when he looked at that equation, it was none other than the equation that scientists had long known to describe the electromagnetic force.
So, the electromagnetic force, the force that holds us together, gets stronger as you go to higher temperatures.
We can only see an itty bitty, tiny portion of the electromagnetic spectrum that we call visible light.
A metamaterial is an artificial material, which manipulates, in this case, electromagnetic radiation, in a way that you couldn't otherwise.
Yet electromagnetic theory, also well established, asserted that absolute motion did exist.
They attract each other by exchanging particles called photons, which are quanta of light that carry the electromagnetic force, one of the fundamental forces of the Standard Model.
Next