Memristors , Minus Kelvin and Superconductivity
8 Oct 2008
See http://andreswhy.blogspot.com “Minus Kelvin and Superconductivity”
Memristors is a new technology that builds memory right into the circuit element by using atoms as movable chaperones .
This is an obvious candidate for developing meta-materials for superconductivity .
It can be automated by using a 3D printer , computer with genetic algorithms and a tester in a suitable loop .
1.Beth(2) elements can be incorporated to decrease number of generations by using analogues of neuro-transmitters .
2.Beth(1) elements can be incorporated by using Cooper-pair sonances as a primitive starting point , but make sure to include non-infinitesimal rotations(spin) in the
If these are included and the selection criteria are fairly strict , it should not take more than about 35xn generations , where n is the number of chromosomes .
(Derivation: a billion years is about e^35 seconds . A generation a second with one chromosome will take about ln(e^35) =35 generations . More chromosomes(n) is to the power of n , ie 35xn generations . The permutations are not factorial because of the extreme efficiency of the genetic algorithm to search information spaces . See the literature.)
Superconductive heat .
It would be easier to develop a superconductive heat material first , then use annealing analogues to sneak up on electronic superconductivity .
It will be much faster , since random things happen faster in heat , and you are looking for high-temperature conductors in any case .
Understanding Beth(x) mathematics will be a recommendation , especially self-organised linear random processes .
Since a 3D printer is used in the developmental process , production costs will be very low .
The usual suspects for superconductivity .
But temperature superconductivity can give very low-cost energy by tapping geothermal heat .
Cheap high-speed atmospheric flight (atmospheric friction heat can be conducted to thrust chambers) .
And so it goes .