NC Fission Reactor Control Program (IT)

local component = require("component")
local term = require("term")
local sides = require("sides")
local reactor = component.nc_fission_reactor
local rs = component.redstone
local max_energy_perc = 95
local min_energy_perc = 20
local max_heat_perc = 80
local y = 1

reactor.activate()

local function distacco(carattere)
  gpu = component.gpu
  local a,b = gpu.getResolution()
  math.floor(a)
  for i=1,a do
    io.write(carattere)
  end
end

term.clear()
term.setCursor(1, y)
distacco("-")
print("Lunghezza X: " .. reactor.getLengthX())
print("Lunghezza Y: " .. reactor.getLengthY())
print("Lunghezza Z: " .. reactor.getLengthZ())
distacco("-")
print("Moltiplicatore calore: " .. math.floor(reactor.getHeatMultiplier()*1)*1 .. "%")
print("Celle: " .. reactor.getNumberOfCells())
print("Massimo energia settata: " .. max_energy_perc .. "%")
print("Minimo energia settata: " .. min_energy_perc .. "%")
print("Massimo calore settato: " .. max_heat_perc .. "%")
distacco("-")
print("Combustibile: " .. reactor.getFissionFuelName())
print("Energia combustibile: " .. reactor.getFissionFuelPower() .. " FE/t")
print("Produzione reattore: " .. reactor.getReactorProcessPower() .. " FE/t")
print("Tempo di decadimento combustibile base: " .. math.floor((reactor.getFissionFuelTime() / 1200)*100)/100 .. " min")
print("Effettivo tempo di decadimento combustibile: " .. math.floor((reactor.getReactorProcessTime() / 1200)*100)/100 .. " min")
print("Efficienza: " .. math.floor(reactor.getEfficiency()*10)/10 .. "%")

local c = 0
c,y = term.getCursor()
while y<17 do
  y = y + 1
end

while true do
  heat_perc = reactor.getHeatLevel() * 100 / reactor.getMaxHeatLevel()
  energy_perc = reactor.getEnergyStored() * 100 / reactor.getMaxEnergyStored()
  energy_indicator = math.floor((reactor.getEnergyStored() * 11 / reactor.getMaxEnergyStored())*1)*1
  rs.setOutput(sides.east, energy_indicator)

  term.setCursor(1, y)
  print("Combustibile rimasto: " .. math.floor((100 - (100 * (reactor.getCurrentProcessTime() / reactor.getFissionFuelTime())))* 10) / 10 .. "%     ")
  print("Livello di calore attuale: " .. reactor.getHeatLevel()/1000 .. " kH / " .. reactor.getMaxHeatLevel()/1000 .. " kH / " .. math.floor(heat_perc*10)/10 .. "%     ")
  print("Livello di energia attuale: " .. reactor.getEnergyStored()/1000 .. " kFE / " .. reactor.getMaxEnergyStored()/1000 .. " kFE / " .. math.floor(energy_perc*10)/10 .. "%     ")

  if reactor.isProcessing() == true then
    print("Reattore ON        ")
  else
    print("Reattore OFF        ")
  end

  if rs.getInput(sides.top) == 0 then
    reactor.deactivate()
    break
  end

  if heat_perc == 0 then
    if energy_perc > max_energy_perc then
      reactor.deactivate()
      forc = true
    end
    if energy_perc < min_energy_perc then
      reactor.activate()
      forc = false
    end
  elseif heat_perc > max_heat_perc then
    reactor.deactivate()
  end
  os.sleep(0.5)
end