Basic Electronics.

(newbie-friendly)
(pics)

1. Basic conductors.

The most basic conductors you may use. From top down:
Metal METL. Conducts at a rate that I will use as an unit now. Basic, melts at 1000C, heats PTCT/NTCT to fill the condition needed.

Positive semi-conductor PSCN. Conducts like Metal. Conducts to PTCT if it's under 100C, to NTCT if it's over 100C, INST, METL, INWR. Takes spark from METL, INWR, PTCT, NTCT. Does not take spark from NSCN or INST
.
Negative semi-conductor NSCN. Conducts like Metal. Conducts to PTCT/NTCT(no conditions),METL, INWR. Takes spark from PTCT(conditions above), NTCT(conditions above), INST.

Heat-sensitive low-temp conductor PTCT. Metal near it(1px) heats it up to 200C from where it cools quickly. PSCN/NSCN reactions above.

Also:
Iron: Rusts(to BMTL) by water, disappears in SLTW. Separates water into H2 and O2 if sparked.
BMTL: Metal, but breaks into powder metal(BRMT)

2. Water speed vs Metal speed.

Water transfers current 1/4 the time metal does. This means Metal gets 4 sparks per battery when water gets 1(in an amount of time).
Water also transfers slower than Metal.

3. Switchables from example of SWCH.

Positive semiconductor turns switchables on. This is when their special "skills" are shown.

Switch SWCH lets through electricity from METL and lets through BRAY.
Heat switch HSWC lets through heat if on.
Powered Clone PCLN starts intensive cloning if on.
Pressure controller PUMP starts producing pressure equal to its temperature.
Liquid crystal LCRY lets photons pass if powered.

Negative semiconductor turns switchables off. This is when their special "skills" are inactive.

HSWC doesn't conduct heat if off.

4. ARAY and BRAY.

The yellow element in the right is ARAY.
When Metal(also NSCN or INWR or PSCN) is touching it and sparked, it draws out a beam to the exact opposite side where metal is.
When the beam is led through Filter, the beam colour changes.
When the beam is led through INWR(exception of PSCN beam), then INWR gets sparked but beam continues through INWR.
When the beam is led to Metal, it takes a spark and the beam ends.

5. Electronic walls and their properties.

The red dotted area by the right is a Detector type wall. It gives out sparks to any conductives or conductive walls touching it if a particle enters the wall's area. The yellow dotted area is a Conductor wall that lets through any particles.

The grey area with light-grey dots is a Conductor-block wall. It basically combines Conductor wall and Normal wall.

The grey area with black dots is an E-wall. It opens up and lets articles through if spark is led to it. Also sparks
elements passing through.

The black area with light-black dots is an E-hole. It gathers up particles(it also stacks them) and releases them if powered.

6. Conductor specials.

Conductors also conduct to particles not touching them but being in a pixel radius. This saves up on materials. This can't be done on INST.

Also, insulator INSL blocks such connection.

Noble gas, when powered, turns into a quite un-hot(about 1500C) plasma.

Sub. Electrodes.

They are particles that when powered, they find another electrode nearest to them and conduct electricity and create a hot plasma line between them.

7. Photons and their interaction with electronics.

If photons hit PSCN and NSCN arranged in such a way shown above, then they disappear and the arrangement gets a spark. If you want an ASCII for that, then PHOT - - - - - -- - - - - - - - - - -> PSCN NSCN (produces Spark)

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Thanks for reading. Hope it helps.
For binary logic gates etc, please use google atm. I'll make another for this one maybe.
@jacksonmj Sorry about that.. Fixed.
@vanquish Okay. Most people don't read the wiki before asking questions. So I made this. Now I know that there is another.

Thanks! ^^

Anyone wanna add something to it?