electron

MIT physicists have now uncovered new details about how two distinct forms of electron organization can emerge within the same quantum material.

From Science Daily ● Aug. 20, 2026

Once released, the free electron is extremely eager to find somewhere else to go.

From Science Daily ● Aug. 9, 2026

Rather than trying to control which molecule receives an electron through conventional chemical preferences, the researchers developed a catalyst that releases the electron directly into the surrounding solution.

From Science Daily ● Aug. 9, 2026

When two molecules are competing to receive an electron, the electron typically goes to the molecule that is easier to reduce.

From Science Daily ● Aug. 9, 2026

More recently, we have learned how to use electromagnetic fields to give particles energies of at first millions and then thousands of millions of electron volts.

From "A Brief History of Time: And Other Essays" by Stephen Hawking

The researchers found that interactions among many electrons were not required to explain the behavior observed in their sample.

From Science Daily ● Sep. 5, 2026

Fundamental particles such as electrons are instead described by a "wavefunction," a mathematical representation that researchers can use to calculate the probabilities of properties such as position and momentum.

From Science Daily ● Aug. 24, 2026

Under ordinary conditions, electrons are distributed relatively evenly throughout erbium tritelluride.

From Science Daily ● Aug. 20, 2026

More recently, researchers have found them in materials that also support more complicated forms of collective electron behavior, including magnetism and superconductivity, in which electrons pair together and move through a material without friction.

From Science Daily ● Aug. 20, 2026

It seems the more peculiar because if one only has one slit, one does not get any fringes, just a uniform distribution of electrons across the screen.

From "A Brief History of Time: And Other Essays" by Stephen Hawking