Mechanooptical conversion - Revision history

Apm: /* Optomechanical conversion */ added Diamondoid solar cell

2022-09-22T09:56:08Z

Optomechanical conversion: added Diamondoid solar cell

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	== Optomechanical conversion ==		== Optomechanical conversion ==

			Related: [[Diamondoid solar cell]]

	== Early optomechaical conversion ==		== Early optomechaical conversion ==

2022-09-22T09:55:24Z

← Older revision		Revision as of 11:55, 22 September 2022
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	== Related ==		== Related ==

			* '''[[Energy conversion]]'''
	* [[Optical effects]], [[Color emulation]], [[Gem-gum display technology]]		* [[Optical effects]], [[Color emulation]], [[Gem-gum display technology]]
	* [[Ligand field theory]]		* [[Ligand field theory]]
	* [[Fun with spins]]		* [[Fun with spins]]
	* [[Organometallic gemstone-like compound]]		* [[Organometallic gemstone-like compound]]

2022-09-22T09:54:11Z

Dipole moment: added a todo

← Older revision		Revision as of 11:54, 22 September 2022
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	a [[machine phase]] dry [[PPV]] vacuum system before charges become too unstable and recombine too rapidly.		a [[machine phase]] dry [[PPV]] vacuum system before charges become too unstable and recombine too rapidly.

	Can (and if how much) a nano-capacitor exceed the dipole moment of a dipole moment of strategic placement of electropositive and electronegative elements?		Can (and if how much) a nano-capacitor exceed the dipole moment of a dipole moment of <br>
			strategic placement of electropositive and electronegative elements? <br>
			{{todo\|Investigate this.}}

	== Optomechanical conversion ==		== Optomechanical conversion ==

2022-09-22T09:53:08Z

Operation as phased array

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	=== Operation as phased array ===		=== Operation as phased array ===

	By intentional and properly coordinated out-of-sync rotation one can create phased array effects controlling the emmission/reception craracteristics (where the EM waves are emmitted-to/received-from).		By intentional and properly coordinated out-of-sync rotation one can create phased array effects <br>
			controlling the emmission/reception craracteristics (where the EM waves are emmitted-to/received-from).

	=== Limits set by material strength and friction losses ===		=== Limits set by material strength and friction losses ===

2022-09-22T09:52:35Z

Radio wave generation by mechanically rotating dipoles: noved paragraph in correvt section

← Older revision		Revision as of 11:52, 22 September 2022
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	Thus going beyond that limit only short bursts with long cool-off times should be possible. <br>		Thus going beyond that limit only short bursts with long cool-off times should be possible. <br>
	Or very tiny well cooled volumes.		Or very tiny well cooled volumes.

			=== Dipole moment ===

	A question here is how much of a (sufficiently stable) dipole moment can be created in <br>		A question here is how much of a (sufficiently stable) dipole moment can be created in <br>
	a [[machine phase]] dry [[PPV]] vacuum system before charges become too unstable and recombine too rapidly.		a [[machine phase]] dry [[PPV]] vacuum system before charges become too unstable and recombine too rapidly.

	~~=== Dipole moment ===~~

	Can (and if how much) a nano-capacitor exceed the dipole moment of a dipole moment of strategic placement of electropositive and electronegative elements?		Can (and if how much) a nano-capacitor exceed the dipole moment of a dipole moment of strategic placement of electropositive and electronegative elements?

2022-09-22T09:51:43Z

Limits set by material strength and friction losses

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	Or very tiny well cooled volumes.		Or very tiny well cooled volumes.

	A question here is how much of a (sufficiently stable) dipole moment can be created in a [[machine phase]] dry [[PPV]] vacuum system before charges become too unstable and recombine too rapidly.		A question here is how much of a (sufficiently stable) dipole moment can be created in <br>
			a [[machine phase]] dry [[PPV]] vacuum system before charges become too unstable and recombine too rapidly.

	=== Dipole moment ===		=== Dipole moment ===

2022-09-22T09:50:45Z

Radio wave generation by mechanically rotating dipoles: added note on unreachable frequencies

← Older revision		Revision as of 11:50, 22 September 2022
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	and then spinning them in sync to generate an electromagnetic wave. <br>		and then spinning them in sync to generate an electromagnetic wave. <br>
	This may also work in reverse as a receiver for signal or power.		This may also work in reverse as a receiver for signal or power.

			Visible light is too high a frequency to be reachable by this but radio waves are. <br>
			The limit lies likely somewhere in [[the terahertz gap]]. {{wikitodo\|To investigate}}

	=== Operation as phased array ===		=== Operation as phased array ===

2022-09-22T09:48:02Z

Radio wave generation by mechanically rotating dipoles: discussed section - resolved wikitodo

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 == Radio wave generation by mechanically rotating dipoles ==
-{{wikitodo|Discuss this.}}
+The idea here is to create a bunch of nanoscale rotors carrying a dipole moment, <br>
 == Optomechanical conversion ==

2022-09-22T09:29:10Z

Photonic steampunk: added a wikitodo

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	'''Machine phase preventing photo-bleaching''': <br>		'''Machine phase preventing photo-bleaching''': <br>
	Having the photoactive molecules in machine phase may make it possible to avoid "photobleaching" (photoactive molecules taking damage) entirely.		Having the photoactive molecules in machine phase may make it possible to avoid "photobleaching" (photoactive molecules taking damage) entirely.

			{{wikitodo\|Add a sketch of this idea.}}

	== Radio wave generation by mechanically rotating dipoles ==		== Radio wave generation by mechanically rotating dipoles ==

2022-08-26T10:16:01Z

Photonic steampunk

← Older revision		Revision as of 12:16, 26 August 2022
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	* in any other suitable way.		* in any other suitable way.

	Note that this approach with a chain only makes sense if in-place-re-excitation is a bottleneck. <br>		Note that this approach with a chain only makes sense if (rapid) in-place-re-excitation is a bottleneck. <br>
	<small>(Kinda hope so, transporting metastable electronic excitations on an nanoscale attachment chain sounds kinda cool. Like '''photonic steampunk''')</small>		<small>(Kinda hope so, transporting metastable electronic excitations on an nanoscale attachment chain sounds kinda cool. Like '''photonic steampunk''')</small>