True.CaptainMarvel1899 said:The total mass of the quarks isn't equal to the mass of a hadron at rest frame.
No - the quarks aren't moving. The extra mass is in the binding energy.CaptainMarvel1899 said:But quarks are moving very fast due to strong interaction and they gain mass (mass-energy equivalence)
Ok you are right this guy says that E=mc2 is equal to the kinetic energy but this is not true.Ibix said:"What I googled" isn't really a helpful reference. Can you provide a link?
Yeah:) But let's not be rude against him.Ibix said:Also, the guy in your quora link is trying to use a classical argument to describe what's happening in a quantum system. That wouldn't work even if he weren't missing out the binding energy altogether.
There is nothing rude in what @Ibix said.CaptainMarvel1899 said:Yeah:) But let's not be rude against him.
Hadrons are a type of subatomic particle that are composed of quarks. They are the building blocks of protons and neutrons, which are the basic components of atomic nuclei.
The mass of hadrons is typically measured using particle accelerators, which allow scientists to study the interactions between particles at high energies. By analyzing these interactions, scientists can determine the mass of hadrons.
Special relativity is a theory proposed by Albert Einstein that describes the relationship between space and time. It states that the laws of physics are the same for all observers in uniform motion, and that the speed of light is constant regardless of the observer's frame of reference.
Special relativity predicts that as an object's velocity increases, its mass also increases. This is known as relativistic mass. In the case of hadrons, as they are accelerated to high speeds in particle accelerators, their mass increases and can be measured to verify the predictions of special relativity.
Verifying special relativity is important because it is a fundamental theory in physics that has been extensively tested and has been shown to accurately describe the behavior of particles at high speeds. By verifying special relativity, scientists can continue to build upon this theory and gain a better understanding of the universe and its fundamental laws.