Since the collision is happening at speeds over the speed of light, does anything peculiar happen?
Willard37 said:Suppose you theoretically have two betatrons each accelerating a particle near light speed in opposite directions. Suppose you collide both of these electrons together head on both at close to light speed. Since the collision is happening at speeds over the speed of light, does anything peculiar happen? Sorry if this sounds completely outrageous, I am brand new to physics.
Willard37 said:Suppose you theoretically have two betatrons each accelerating a particle near light speed in opposite directions. Suppose you collide both of these electrons together head on both at close to light speed. Since the collision is happening at speeds over the speed of light, does anything peculiar happen? Sorry if this sounds completely outrageous, I am brand new to physics.
"Atom smashing" or "particle physics" is the study of the smallest building blocks of matter and their interactions. It involves using powerful machines called particle accelerators to collide particles together at high speeds in order to study their properties and behavior.
Atom smashing works by accelerating particles to extremely high speeds using electromagnetic fields in a particle accelerator. These particles are then collided together, and scientists observe the resulting particles and energy released from the collision to understand the fundamental properties and interactions of matter.
The purpose of atom smashing is to gain a deeper understanding of the fundamental particles and forces that make up our universe. It can also help us develop new technologies and advance our understanding of the natural world.
Atom smashing experiments are conducted with strict safety protocols in place to minimize any potential risks. These risks include radiation exposure, electrical hazards, and potential malfunction of the equipment. However, these risks are carefully monitored and managed by trained professionals to ensure the safety of both the scientists and the public.
Atom smashing has contributed to numerous scientific advancements, including the discovery of new particles such as the Higgs boson, the development of medical imaging technologies, and the understanding of the early universe. It also continues to push the boundaries of our understanding of the fundamental laws of nature, leading to new discoveries and innovations in various fields of science.