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by rndphs
1534 days ago
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At the molecular level, basically all photon modes associated with the thermal energy (or lower) will be already thermally occupied. E = hf = k_bT/2. This frequency at room temperature is about 30THz. So on the microscopic level, any frequencies under 30THz are constantly irradiated by thermal fields anyway. Edit: Furthermore, the Gibb's free energy of any molecular process determines the reversibility of the process at a given temperature. Any molecular process with Gibb's free energy that is lower than the thermal mean energy is going to be essentially a reversible equilibrium process, and stimulating it with radiation will only shift the equilibrium very slightly I believe. I think it's for this reason that we don't see radio catalysed reactions in chemistry, unlike photocatalysed reactions. |
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If you can build a protein that can tune to e.g. 3GHz (or whatever frequency a phone uses), thus behave differently at that frequency, then basically that proves that radio waves can theoretically alter the reactions in the molecular soup that is a cell. All I'm saying is that I'm not so sure that this can't be done.