Both elemets are for simplify of the logic gates.
=====TRAN=====
TRAN stands for Transistor.
So this is somewhat simplified switch...
And here I have two ideas for it.
1.
Like switch or any other powered matrials, it needs PSCN and NSCN.
Like IRL transistor, it has three nodes : PSCN node, NSCN node, normal conductor node.
while PSCN is unpowered, SPRKing to normal conductor won't make any difference.
while PSCN is powered, SPRKing to normal conductor will conduct SPRK to NSCN node.
2.
It only needs PSCN.
To make it short : TRAN can only conduct while adjcent PSCN is SPRKed.
(SPRK of PSCN never conduct to TRAN.)
=====CPCT=====
CPCT stands for Capacitor. (or CAPA or something.)
IRL capacitor is only works for AC, while tpt's current is somewhat DC-ish, but here's idea.
CPCT can
- both gain and emit SPRK from normal conductors
- gain SPRK from PSCN
- emit SPRK to NSCN
life of CPCT is 'amount of SPRK that it is saving now' or 'Electrical potential energy'
tmp of CPCT is 'maximum amount of SPRK that it can save' or 'Electric capacity'
tmp2 of CPCT is 'natural degredation rate when not connected' (Degredation rate of life value)
It'll be usually use with SWCH or TRAN (or PSTN with conductor).
NTCT already accomplishes what TRAN accomplishes.
NTCT depends on temperature, so it can't be used widely. Also as it depends on temprature, it must have some time delay - it don't works properly as switch in some condition.
Also all those elements can be implemented using other element/elements, but purpose of it is to simplify logic gates.
PTCT and NTCT quickly heat up to the desired temperature when there is SPRK (METL) within the spark distance from them. Almost all logical gates used today are based on this.
TRAN will not make logical gates more compact, at most - a little faster, but in most cases of using logical gates not for creating computers, such a delay does not matter, much more important is the size.
And the CPCT functionality can be recreated using LITH and, for example, GOLD.