關於此遊戲

Motherboard Under Attack is a Tower Defense where you need to save circuit boards from evil viruses! For this you will need to get tin (in-game currency) to solder the components in strategic places, protecting your processor!
With each wave, viruses will get stronger and you will need to think fast to not allow the worst to happen to your motherboard!

Component Towers

Each component has different characteristics and you will need to know them to progress more easily in the game. At the beginning you will be able to do 3 upgrades for each component if you have the tin for that.


Diode: Single shot, attacks terrestrial viruses.


Capacitor: Cannon, attacks terrestrial viruses, but less frequently, but with greater damage power.


Inducer: Laser that continuously attacks the enemy, does little damage, attacks terrestrial viruses.


Transistor: Single Shot, attacks airborne viruses.


Resistor: Slows enemies, but loses durability whenever an enemy passes through it (stays inside the rail).


Fuse: Bomb, dealing a lot of damage to the enemy that passes through it (stays inside the rail).


Oscillator: Generates Tin (in-game currency).


Virus

Common Virus: Simple ground enemy. Its evolution attacks component turrets.


Spyware: Simple flying virus.


Adware: Flying virus that attacks component turrets.


Worm: Virus that infects component turrets for a specified number of turns according to their level.


Trojan: A terrestrial virus with high HP that releases 3 viruses when destroyed or releases a smaller trojan according to its level.


Botnet: Ground Boss Virus with high HP that attacks component turrets.


Store

As you progress through the game, you will gain stacks that will allow you to upgrade components extra, in addition to the initial 3. In this case, it will be the Bronze, Silver and Gold levels for each component.


Phases

To open new phases you must reach goals in the previous phases, for example: to open phase 2, you must reach at least wave 10 of the first.
Note: The objectives are different for each phase.