Latest revision as of 11:26, 22 September 2022

todo upload scalable svg version & add split-off version

Atomically precise technology for energy conversion can:

• solve the energy storage problem making renewable energy storable and fossil or nuclear fission base-load power plants unnecessary
• circumvent burning processes that unnecessarily devaluates energy

Energy conversions by typical scale

Different power-converter-systems have system-heterogeneity residing on different system-size-scales. Concretely that means that due to scaling laws some energy conversions are not miniaturizable e.g.

• gravo-mechanical (pumped hydro)
• nuclear-thermal (fission)

In the following the listed types of energy conversion will thus be classified by typical size scales.

(wiki-TODO: Make a table listing all the possible combinations for quick overview and access)

Nanoscale: molecular power converters

AP technology provides several possibilities for energy conversion that work in a mill/zip/conveyor belt like style:

Chemomechanical conversion

See main page: Chemomechanical converters
This is the link for massive and efficient energy storage that is missing today (2022).

Electromechanical conversion

See main page: Electromechanical converters
Basically nanoscale electro moters that work electrostatically rather than magnetostatically as macroscale electromotors do.

Also a possibility: Transporting bond charges.
This might be useful for high voltage low current applications.
Much less lopsided than with macroscale electrostaic generators though.
Similar to a pelletron or a Wimshurst machine but with very different performance characteristics.

Optoelectrical conversion (future)

See main pages: Diamondoid solar cells, Mechanooptical conversion
Part of the non mechanical technology path This is basically about good old solar cells.
But when there is already atomically precise available that gives us control over matter beyond mere thermodynamic means.

Electrocemical conversion (future)

• Atomically precise electrochemical converters

This is basically about good old batteries.
But when there is already atomically precise available that gives us control over matter beyond mere thermodynamic means.

Direct electromagnetic wave to mechanical conversions

• mechanoradio and radiomechanical conversion
  – spinning electrical dipoles really fast mechanically
  – the limit might be somewhere at 100GHz? (nanoscale levitation likely needed to limit friction at speeds close to the unsupported rotating ring speed limit)
• mechanooptical conversion – this is very new – exciting elecronic stated by force applying mechanic manipulation on bound molecules
• optomechanical conversion – basically photochemistry – causing a conformational change through electronic structure change through optical excitation

The teraherz gap between radio frequencies and far infrared frequencies

• is too high for generation by moving charges mechanically and also
• is challenging to cover even from the electronic side – (non mechanical technology path)

Related:

• Mechanically stable electronically excited states
• Polyaromatic pigments, F-centers in gemstones, ...
• Wikipedia: Singlet_oxygen (here the unpaired spin triplet state is the stable unexcited one which is unusual)
• 1s2s parahelium (excited by 19,8 eV) is surprisingly stable
• Fun with spins

Mesoscale

All thermo involving energy conversion processes are at least mesoscale since thermal isolation is needed
and thermal isolation does not work well at the nanoscale due to the large surface to volume ratios that are present there (scalng law).

Entropomechanical conversion

See main page: Entropomechanical converters
This is about storing energy

• into molecular order
• into squeezing out molecular degrees of freedom

and then when needed releasing it again.
Releasing energy sucks up microstates from the thermal path to put them into microstates in spacial disorder.
things cool down making this a very safe way of storing energy.
No big booms and fireballs. Even in worst case scenarios.

Thermomechanical concerters

• thermomechanical converters – (diamondoid heat pump systems)
  

Used base technologies for such heat pump systems can be:

• microcapsules
• infinitesimal bearings
• thermal switching cells
  

Note that although the efficiency of heat pumps is fundamentally limited by the Carnough-cycle
the conversion can be near reversible given thermal isolation is really good.

Thermoentropic converters

That's basically storing thermal energy into phase changes.
Existing technology. We'ss see how gem-gum technology can improve on that.

Thermoelectric converters

These fall squarely under the non mechanical technology path.
Reaching high efficiencies is difficult.
We'll see what we can do once we can make much more materials via piezochemical mechanosynthesis
beyond the very limited set of accessible structures that we can reach today with only thermodynamic means.

Macroscale

Thermonuclear conversion (or rather nuclearthermo conversion)

Complex macroscopic systems made from advanced diamondoid metamaterials may lead to significant improvements here.
See main page: APM and nuclear technology

• There are some exotic approaches for partially direct nuclearelectric conversion perhaps allowing to go beyond the Carnough limit in efficiency.
• Direct nuclearmechanical seems not possible or sensible.

Gravomechanical conversion

Given gravity is a macroscopic phenomenon the technology is inherently macroscopic.
Nothing much new here with gem-gum technology.
Well space elevators maybe. But these are difficult.

Related

• Global scale energy management
• Energy transmission

External links

• Wikipedia: transducer, actuators, ...