Antimatter

increased weight of a proton. Dark matter is none of those things, because when a normal baryonic cloud is exposed to radiation going into the cloud, it absorbs the radiation unlike dark matter clouds. The next matter that we know about is called antimatter, which is when molecules group together in the form of an atom and have positrons, anti-neutrons, and anti-protons particles in it. This forms an extremely unstable matter, which is unlike dark matter that is stable. When you take in account the

Every element is valuable and unique due to the endless arrangements of sub-atomic particles, which fascinates me. This allows for a diversity of elemental properties, sparking innovation for chemists to develop new products from different tasting chocolates to materials used for rockets- shaping society and the environment of the modern world. The sheer range of applications where chemistry is involved inspires me to contribute, while learning, unlocking why everything behaves the way it does. With

One looks outside and sees a myriad of strange creatures with fantastic elemental powers. Some shoot jets of water strong enough to punch through steel, others can fly faster than any aircraft, and a select few can even warp the fabric of time and space. OK, stop playing Pokemon Go and actually pay attention to the essay. Pokemon was created in the 1990s, by a Japanese game designer named Satoshi Tajiri, who was inspired by his childhood hobby of collecting insects. Pokemon exploded soon after its

This story is a story of titans, they are almost ageless beings and are insanely powerful. Every titan in this is based from a mythology from around the world. Amaterasu , Susanoo , Madara and Izuna are all from the Shinto mythos and Hephaestus is from the greek mythos. Odin, Frey, Surtur and Fenris are all from norse myths. And is influenced by media Amaterasu had broke her sword battling her brother Susanoo they were both immensely powerful . they have had a rivalry ever since they were born

for the purpose of educating the layman about the matters of the universe. Because of this, the book covers a wide range of topics, from The Big Bang Theory, to the development of theories about the universe throughout the 20th century, to matter, antimatter, and dark, and even to the hypothesized end of the universe. Because about of a third of the book concerned dark matter, Siegel’s views on dark matter will be the main focus of this essay. Siegel begins with commenting on the discovery of and the

When you turn on your old analog TV get that fuzzy black-and-white static, about one percent of the screen is filled with signal left over from the Big Bang. In 1964, Robert Wilson and Arno Penzias, two scientists working for Bell Labs, were using a radio antenna to search for microwaves emitted by the Milky Way. To their surprise, they discovered a faint signal that continued to show up in their readings, no matter which direction they pointed the radio telescope. Once they considered all of the

nothing but energy in the form of light, also known as photons. When photons have enough energy they can decay into a particle and an antiparticle. For each particle created there is exactly one antiparticle. So there should have been exactly as much antimatter as there is matter and if that’s true that means when the universe had cooled somewhat each particle would have found an antiparticle and combined to form a boson, which is basically the killing of the particles so to speak. The ones that survived

Atomic Theory The ancient Greek the word atom means indivisible. It was used to describe the smallest indivisible piece of a matter. He believed that all matter could be broken down using femtometers. Atoms were perceived to be indestructible. Atom was derived from the greek word atomon or atomos meaning indestructible. This fundamental atomic theory was developed by a scholar named Democritus. He was a pupil of the famous philosopher Leucippus. From Democritus’ original Atomic Theory

waves, and many greatly improved experimental probes for new physics beyond the standard model mark the great triumphs of our understandings of nature. Profound puzzles of nature, such as hierarchy problem, dark matter, neutrino properties, matter-antimatter asymmetry, strong CP, flavor structure, etc., are actively being explored but yet remain to be solved. However, no

many significantly improved experimental probes for new physics beyond the standard model mark the great triumphs of our understandings of nature. Profound puzzles of nature, such as hierarchy problem, dark matter, neutrino properties, matter-antimatter asymmetry, strong CP, flavor structure, etc., are actively being explored but yet remain to be solved. However, no clear