Sentences with phrase «photons make»

It may be that the photons being radiated from the warmer object effectively block the path of those eminating from the cooler object, possibly even extinguishing the cooler photons as the warmer photons make there way towards the cooler object (I understand that you do not dispute that net flow is always from warmer to cooler).

Yet when you insert a third polarizer between the two, oriented diagonally, then some photons make it through.

Photons make up light — and the fact that scientists regularly entangle these tiny packets of energy raised the possibility that humans might actually be able to observe this effect.

Light can also be unpolarized, which means the photons making up the light have random polarizations.

However, this research about clumping photons made the rounds a while ago.

Photon makes multiplayer game development across platforms easy.

Block Gun 3D — This Canadian based client wanted this turned into a multiplayer game, using Photon we made it from a simple fun single player game, into a addictive Successful multiplayer game.

Not exact matches

But finding a way for a computer chip to be able to retrieve and process information stored in photons is tough for the same reason that makes light so appealing: it's too damn fast for existing microchips to read.

All an evolutionary storyteller has to do is to start with the apparently simplest version, ignore the neural equipment that has to be present for an organism to make any use of a «photon receptor,» and spin a charming tale about how a tiny primitive light - sensing cell might grow up to be a full - fledged eye.

Among those particles were photons, which make up light.

God, by contrast, is the infinite actuality that makes it possible for photons and (possibly) fairies to exist, and so can be «investigated» only, on the one hand, by acts of logical deduction and conjecture or, on the other, by contemplative or spiritual experiences.

The flash lamps that pump the initial energy into many lasers must be cooled for minutes or hours between shots, making it hard to carry out research that relies on plenty of data, such as investigating whether, very occasionally, photons transform into particles of the mysterious dark matter thought to make up much of the universe's mass.

Some light particles, or photons, would pass through, making up an image.

It allows particles, such as electrons or photons of light, the equivalent of an interest - free loan: they may borrow energy from empty space and use it to make mass, according to Einstein's famous equation E = mc2.

The photons that make up sunlight may have no mass, but they still carry momentum — and so exert a force on everything they touch.

In a nutshell, the Higgs field is what makes some particles (like protons and neutrons) relatively heavy, others (like electrons) subatomic lightweights, and still others (like photons) utterly massless.

The phrase «topological materials» refers to those materials where the current carrying electrons act as if they have no mass, similar to the properties of photons, the particles that make up light.

For comparison, a conventional photovoltaic cell made of crystalline silicon turns nearly 20 percent of incoming photons to electricity, and lasts much longer because it is not as susceptible to corrosion by water vapor.

Alfred Goldhaber of Stony Brook University in New York says that if black holes have charged plasma swirling around them, a photon's slowed movement through the plasma could make it behave as if it has mass, ruining the calculations.

That may sound obvious, but many physicists were hoping that photons — particles of light — could help us to piece together the nature of the mysterious stuff thought to make up 85 per cent of the universe's matter.

To simulate these conditions, researchers use special facilities at the Advanced Photon Source, where they shine high - powered lasers to heat up the sample inside a pressure cell made of a pair of diamonds.

For now, Firstenberg and his colleagues are slowly building their understanding of the strange, new matter and how it operates by taking the next logical step: They're trying to make a light molecule composed of three photons.

If even a small amount of energy from phonons (the sound units that carry the energy through the germanium or silicon, much as photons are the units of light) hit the detector, it can be enough to make the device lose superconductivity and register a potential dark matter event through a device called a superconducting quantum interference device, or SQUID.

If plant life does exist on a planet like Kepler - 186f, its photosynthesis could have been influenced by the star's red - wavelength photons, making for a color palette that's very different than the greens on Earth.

Unlike atoms and the matter they're made of, two photons on a collision course will simply pass through one another, with no interaction.

A blast of photons from a giant ground - based laser would accelerate the craft to 20 % of the speed of light, allowing it to make the 4 - light - year trip in 20 years.

Photons don't normally make friends, but now three have been bound together into a brand - new form of light by tricking them into acting like atoms

The simplicity and low cost of a smell test — $ 26.95 retail, before additional doctor or hospital charges — make it especially appealing in neurology, a field dominated by positron - emission tomography scans, dopamine transporter single - photon emission computed tomography imaging and other expensive technologies.

Although it's possible to create photons in almost any shape, more complex configurations become distorted when travelling through an optical fibre, making them harder to understand at the receiving end.

These multilayered mirrors make the photons at the front of a pulse travel further than the slower photons at the rear do.

In the quantum world, physicists study the tiny particles that make up our classical world — neutrons, electrons, photons — either one at a time or in small numbers because the behaviour of the particles is completely different on such a small scale.

The most advanced qubits are circuits made of superconducting metal, and to control or read out a qubit, researchers make it interact with a microwave resonator — typically a strip of metal on the qubit chip or a finger - size cavity surrounding it — which rings with microwave photons like an organ pipe rings with sound.

«This unfortunately tends to make me less confident that the excess seen in the photon signal will survive with more data.»

In the late 1990s, Arthur Nozik of the National Renewable Energy Laboratory in Golden, Colorado, and the University of Colorado, Boulder, theorized that if the semiconductors were made out of nanoparticles, they could excite multiple electrons with less photon energy, because less of the incoming energy would be sapped by vibrating atoms in the crystalline lattice.

«We are beginning to make our photons interact with each other,» said Schine.

Using circuits that control photons rather than electrons, individual components can be made far smaller and support immense information bandwidths.

Grégoire Ribordy, CEO of the Swiss company ID Quantique, which makes commercial quantum cryptography, says that practical systems had already largely got around the blinding loophole by continuously adjusting the detectors, so that they are always reacting differently to incoming photons.

«We make the photons spin, which leads to a force that has the same effect as a magnetic field,» explained Schine.

In particular, they made the photons behave as if they resided on the surface of a cone.

And he wouldn't notice the loss of pulses, as a lot of photons never make it from Alice to Bob anyway because of detector inefficiency.

This scrambles the information about which photon went through which hole, once again making it impossible to tell which path any particular photon arriving at the second screen took through the set - up.

If the spots of light made by the photons arriving at the detector are added together over time, they still form an interference pattern, just as if each photon goes through both holes and interferes with its own passage through the experiment.

What makes the unparticle different from the photon is that it can have any mass, depending on how you measure it.

These include atomic constituents such as electrons, protons, and neutrons (protons and neutrons are actually composite particles, made up of quarks), particles produced by radiative and scattering processes, such as photons, neutrinos, and muons, as well as a wide range of exotic particles.

For example, turn on your digital camera to snap a picture of the setting sun and photons flying in through the lens make electrons move out from semiconductors located where the film would be in conventional cameras.

Other papers that year were on Brownian motion, suggesting the existence of molecules and atoms, and the photoelectric effect, showing that light is made of particles later called photons.

Photons that make it through the first polarizer are polarized by it, and then their probability of getting through the second one depends on the angle between their polarization and the second polarizer's axis.

Plants have the renewable energy storage problem pretty well figured out: Capture photons from the sun, use them to split water into hydrogen and oxygen to make sugars, then extract the energy from the sugars when it's needed.

This makes it a little easier to understand how photons are forced to arrive at certain positions on the wall when their waves interfere with one another.

Making single photons interact can be useful because a photon can carry the units of quantum information, called qubits.