Earlier quoted context omitted.
What about the use of quantum physics in things like semiconductors?
semiconductors don't "use" quantum physics, quantum physics just tries to explain how they work. semiconductors still exist without requiring quantum physicists to come in and try and steal credit for something they had no influence on whatsoever.
Quantum particles feel the influence of gravitational fields they never touch
11–20 of 64 posts
Re: Quantum particles feel the influence of gravitational fields they never touch
#12article goes on to state that gravitational pull effects surrounding objects without touching them, you know, like how we already know every fucking planet works? quantum physics: the biggest waste of time since philosophy
Re: Quantum particles feel the influence of gravitational fields they never touch
#13Earlier quoted context omitted.
What about the use of quantum physics in things like semiconductors?
semiconductors don't "use" quantum physics, quantum physics just tries to explain how they work. semiconductors still exist without requiring quantum physicists to come in and try and steal credit for something they had no influence on whatsoever.
Re: Quantum particles feel the influence of gravitational fields they never touch
#14Earlier quoted context omitted.
What about the use of quantum physics in things like semiconductors?
semiconductors don't "use" quantum physics, quantum physics just tries to explain how they work. semiconductors still exist without requiring quantum physicists to come in and try and steal credit for something they had no influence on whatsoever.
Re: Quantum particles feel the influence of gravitational fields they never touch
#15Earlier quoted context omitted.
What about the use of quantum physics in things like semiconductors?
semiconductors don't "use" quantum physics, quantum physics just tries to explain how they work. semiconductors still exist without requiring quantum physicists to come in and try and steal credit for something they had no influence on whatsoever.
Re: Quantum particles feel the influence of gravitational fields they never touch
#16Earlier quoted context omitted.
What about the use of quantum physics in things like semiconductors?
semiconductors don't "use" quantum physics, quantum physics just tries to explain how they work. semiconductors still exist without requiring quantum physicists to come in and try and steal credit for something they had no influence on whatsoever.
Also in the material sciences metamaterials have special properties precisely because of how the molecular structure manipulates quantum forces. https://www.nature.com/articles/s41467-019-09939-8
Re: Quantum particles feel the influence of gravitational fields they never touch
#17I'm not sure how it's possible to "never touch" a gravitational field given that they extend throughout the universe and are impossible to be shielded.
Re: Quantum particles feel the influence of gravitational fields they never touch
#18article goes on to state that gravitational pull effects surrounding objects without touching them, you know, like how we already know every fucking planet works? quantum physics: the biggest waste of time since philosophy
Sure. After all, natural sciences from physics to biology used to be called natural philosophy until not so long ago.
Re: Quantum particles feel the influence of gravitational fields they never touch
#19Earlier quoted context omitted.
semiconductors don't "use" quantum physics, quantum physics just tries to explain how they work. semiconductors still exist without requiring quantum physicists to come in and try and steal credit for something they had no influence on whatsoever.
Now do Josephson Junctions. https://en.wikipedia.org/wiki/Josephson_voltage_standard
Oh, and Casimir cavities.
Re: Quantum particles feel the influence of gravitational fields they never touch
#20I'm not sure how it's possible to "never touch" a gravitational field given that they extend throughout the universe and are impossible to be shielded.
Regarding the "never touch", gravity decreases with distance squared, so it diminishes quickly with distance. There is a big difference in being near the mass, as opposed to feeling the dimished effect of it from far.