Can Light Be Compressed into Matter?

iedoc
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Just want to see what people have to say to this. light == raw energy, matter == condensed energy. If we were able to take all the different light waves from the sun, and like a laser(in short, the light bounces around inside a cylinder then shoots out), condense the light energy, would we be able to create "matter"? I know matter cannot be created or destroyed, but i really don't think that's true because matter is only condensed energy that has a structure called an atom, if we can break down that atom, then that atom wouldn't be "matter" anymore. we can turn matter into light, fire as an example? so can we turn light into matter by compressing the raw energy? us humans think we have things figured out. another example of why i don't think "matter cannot be created or destroyed" is true is because (i know its only theory) but black holes' gravitational force is so strong, it collapses the atoms structure, creating an absence of matter. that's why black holes are actually smaller than an atoms nucleus. even math is theory, right?
 
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iedoc said:
Just want to see what people have to say to this. light == raw energy, matter == condensed energy. If we were able to take all the different light waves from the sun, and like a laser(in short, the light bounces around inside a cylinder then shoots out), condense the light energy, would we be able to create "matter"?

Take as many photons as you like and explain how you intend to use all of them to create a particle with charge e and spin of 1/2.

Zz.
 
Hi. I have got question as in title. How can idea of instantaneous dipole moment for atoms like, for example hydrogen be consistent with idea of orbitals? At my level of knowledge London dispersion forces are derived taking into account Bohr model of atom. But we know today that this model is not correct. If it would be correct I understand that at each time electron is at some point at radius at some angle and there is dipole moment at this time from nucleus to electron at orbit. But how...
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