WiFi

Wireless transmitter, transfers spark to any other wifi on the same temperature channel.
Properties
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Spawn temperature	22°C
Heat Conductivity	0%
Relative weight	100
Gravity	0.0
Acid dissolve rate	0%
Flammability	0
State	Solid
Transitions
High pressure	above 15.0 pressure
Source code

Creation

Only with brush, cannot be created with reactions.

Usage

WiFi can accept sparks from every conductive solid material, except for . However, WiFi will transmit sparks into , and .

There are up to 99 channels available to WiFi. A WiFi's particle is channel determined by it's temperature. Each temperature is 100 kelvins/celsius apart. First channel ranges from [0°K: -273.15°C: -459.67°F] to [72.99°K: -200.16°C: -328.288°F], and after that it's hundreds of temperature, so that the next channel is [73°K: -200.15°C: -328.27°F] to [172.99°K: -100.16°C: -148.288°F], and so on.

This means, that all WiFis will get the signal and spark the nearby materials when one gets sparked. WiFi particle can work both as a sender and a receiver.

WiFi signals cannot switch channels. This means, that a WiFi with channel 10 sends a signal, a WiFi with channel 20 will not receive it.

A more thorough tutorial can be found here.

Gallery

• 

  Done only with WiFi, heating the middle particles to get them to change channel and also color.

• 

  All WiFi particles with the same channel receive the signal instaneously when one sends it. In this example, only one particle of WiFi was added, but it received a spark too. You can't easily see, but there's one particle of NSCN touching it that allows it to give off spark. (To see the animation, click the picture)

• 

  Infinite loop set-up with WiFi, also proves that WiFi signals cannot transmit from a channel to another. (To see the animation, click the picture)

Examples