Electrons Affect Our Lives

Electrons Affect Our Lives

Everyone has heard of something called an electron. As a science teacher, it always interested me to see how little my students understood about what electrons are, what they do, and how electrons affect our lives.

The story of the electron started early in human history when the ancient Greeks found that if they rubbed fur on amber, the amber attracted things. It wasn’t until the 1800s that people began to understand the electron as we know it today. It was only in 1897 that J.J. Thompson discovered the particle itself.

The design of the electron is amazing. Science is just beginning to understand what charge is, but it is easy to show that there are two kinds of charges. They are negative and positive, and when they are combined, they neutralize each other. The electron carries a negative charge. (The proton has a positive charge and has about 1836 times the mass of an electron, but we will look at protons tomorrow.)

The electron has spin properties and behaves like a tiny magnet due to the spin. In atoms, electrons are paired so that the north pole of one electron is matched with the south pole of another electron. This allows the reactions we know about in chemistry. When an electron is accelerated, it radiates or absorbs energy, depending on whether it is speeding up or slowing down. These factors are the basis of much of our modern world of technology and are the reason electrons affect our lives so much today.

Beta particles can be released in nuclear reactions. Beta particles can be either electrons or antielectrons known as positrons. If an electron beta particle collides with a positive antielectron beta particle, they annihilate each other. The result produces gamma rays – a high energy form of light.

Science is still trying to understand how these particles are created. We are beginning to understand what causes charge, but the answer to the origin questions is what the field of quantum mechanics is about. The normal laws of the physical world have to be discarded, and new rules understood to investigate the tiny world of nuclear physics. It is an exciting time to be alive as science opens up new horizons, and electrons affect our lives in new ways.

All of this reminds us of the intelligence and creative genius of God. “Through faith we understand that the worlds were framed by the word of God so that things which are seen were not made of things which do appear” (Hebrews 11:3).

— John N. Clayton © 2020

Why Does Matter Exist?

Why Does Matter Exist?

Why does matter exist? That may sound like a silly question, but as we study nuclear reactions, it becomes crucial. Nuclear reactions produce two kinds of matter—matter and antimatter. The strange thing about these two forms of matter is that when they collide, they destroy each other, producing nothing but energy.

In the past 50 years, scientists have found that every kind of matter seems to have an antimatter equivalent. Science has discovered that electrons, which are well understood, have antimatter particles called anti-electrons or positrons. We now have ways of producing beams of positrons that physicists use in all kinds of experiments. Einstein’s famous equation, e = mc2 can be verified when we collide positrons and electrons.

Research has led to the discovery of antiprotons, antineutrons, antineutrinos, antimuons, etc. If nuclear processes were involved in the creation of the universe, the cosmos should be full of the same amount of antimatter as there is matter. Could there be antiplanets, antistars, antigalaxies, etc.? One can even postulate antipeople. You could create the ultimate soap opera where a matter boy falls in love with an antimatter girl. The problem is that he can’t touch her, because if he does, their physical particles will all destroy each other in a huge thermonuclear explosion that would wipe out the planet.

That fictitious fable can’t happen, but it raises an important point. If all nuclear reactions produce equal amounts of matter and antimatter, shouldn’t all the matter and antimatter eventually collide and produce nothing but energy. Why does matter exist?

Science News (December 21, 2019, / January 4, 2020) reported on proof that antineutrinos and neutrinos violate parity. The oscillation of the two kinds of neutrinos is not the same. Neutrinos vibrate more rapidly than the mathematical predictions of what their frequency should be, and antineutrinos vibrate more slowly. Scientists don’t understand why these oscillations are different since they violate parity. The design of the building blocks of matter involves differences in oscillation frequencies, and that allows matter to exist.

Why does matter exist? We could state that with the old philosophical question, “Why is there something instead of nothing?” Those questions seem to be answered at least in part by our new understanding of matter and antimatter. A major point we need to make is that matter and antimatter start with an energy source. That energy source must be external to our dimension. When we consider the intricate design features, that source would seem to be God.

— John N. Clayton © 2020