startup

-- modified to work with draconic rf storage (trying to determine actual 'gain' from reactor)

--Rev. 20210619 wtp
--As my previous paste could be my 'first', this one will become my 1.1 release.

--Developed for use on 1.7 Infinity with Draconic Evolution 1.7.10-1.0.2h (Mym.li normal mode)

--I've got the main parts I wanted, the setup and considerations are detailed below:

--Advanced computer with a Draconic Reactor stabilizer on it's right side.
--Red cage lamp on top (to come on when either containment field or saturation <51%)
-- Note: neither light will light nor flash at 51%, if the last iteration left the red light illuminated it will stay
--       illuminated until either it drops below 51% or rises up or beyond 52% (I call this the 'transition period')
--Green cage lamb on back (to come on with both containment field and saturation >51%)
--A wired modem is on the left side with a cable running up to the Tier-7 Draconic Energy Core Energy Pylon
--advanced monitors 5 wide, three tall stacked below the computer facing the stabilizer I have the flux gate on.
--The Draconic Reactor is connected directly with cryotheum ducts from the stabilizer to the T7 energy 'input'
--then the T7 energy output goes to the reactor injector.
-- The reactor injector flux gate has a redstone signal high at 262,000RF/t and connects back to the injector in
-- reverse containment field mode (three repeaters and a piece of redstone) using 139,700K for my mostly used reactor
-- The stabilizer flux gate to the T7 energy core is currently set at 2,010,000 though of course that took weeks and starts
-- out much lower.
-- Since the T7 fills up and the reactor essentially shuts down, I have a third flux gate 'drain' between the T7
-- energy core and the injector flux gate which is also connected to a modem and wired back to the computer.
-- The idea is to allow both my use and public use to draw on the reactor up to the amount the reactor creates,
-- but to limit the flux gate if that drain gets too high as I've found connecting a new t7 to any of those tessearcts
-- on that flux gate would run out the buffer for the reactor and it would ultimately fail (I lost at least one core this way)

-- Its worth acknowledging that the mym.li servers disable the explosion, so while losing the chaos shards hurts,
-- at least you don't lose the rest of the infrastructure.

-- Changes for the 19th.
-- Mostly cosmetic, I'm going to start by converting my print redirect output to specific monitor coordinates
-- also better color management, so if the saturation is gaining during the transition period I want that green
-- but the draining warning should be yellow
-- the fluxgate flow override when it kicks in should be red
-- the normal flux gate flow set to the generation power-field drain should be green
-- I may also suppress the maxFieldStrength and maxEnergySaturation as it's static and you sort of get that from the
-- current values and their respective percentages
-- I'm also going to shuffle around and try to put the variable definitions together in a block rather than
-- having code intermixed in the variable initialization block

local storage = peripheral.find("draconic_rf_storage")
local monitor = peripheral.wrap("bottom")
local    core = peripheral.wrap("right")
local fluxgate = peripheral.wrap("flux_gate_308") -- dump energy
local fluxgate_out = peripheral.wrap("flux_gate_309") -- from reactor
local powerstate = 0
local x=0
local y=0
local x1=0
local msg="empty"
local fieldStrengthPercent=0
local lastFieldStrengthPercent
local energySaturationPercent=0
local lastEnergySaturationPercent=0 -- last energy saturation
local ecrft=0 -- energy core rf per tick
local adjtimeout=0
local coretemp=0

term.redirect(monitor)
term.setBackgroundColor(colors.gray)
fluxgate.setOverrideEnabled(true)  -- required for direct computer control of flux gate flow rate

while true do

local stab = core.getReactorInfo()

y=x
x=storage.getEnergyStored()
powerstate=stab.status

monitor.clear()

monitor.setTextColor(colors.white)

monitor.setCursorPos(15,1)
print("status:")
if powerstate=="online" then
  monitor.setTextColor(colors.green)
else
  monitor.setTextColor(colors.red)
end
monitor.setCursorPos(23,1)
print(powerstate)

monitor.setTextColor(colors.white)
monitor.setCursorPos(7,2)
print("generationRate: "..stab.generationRate.." RF/t")

monitor.setCursorPos(10,3)
coretemp=stab.temperature
monitor.setTextColor(colors.green)
if (coretemp>7000) then
  monitor.setTextColor(colors.orange)
end
if (coretemp>8000) then
  monitor.setTextColor(colors.purple)
end
print("temperature: "..coretemp)
monitor.setTextColor(colors.white)

monitor.setCursorPos(8,4)
print("fieldStrength: "..stab.fieldStrength)

-- these two max values are static and don't really tell us anything
--monitor.setCursorPos(5,5)
--print("maxFieldStrength: "..stab.maxFieldStrength)

monitor.setCursorPos(7,6)
print("fieldDrainRate: "..stab.fieldDrainRate)

monitor.setCursorPos(1,7)
print("Fuel Conversion Rate: "..stab.fuelConversionRate.." nb/t")

--monitor.setCursorPos(4,8)
--print("maxFuelConversion: "..stab.maxFuelConversion)

local fuelConversionPercent=stab.fuelConversion*100/stab.maxFuelConversion
monitor.setCursorPos(7,9)
print("fuelConversion: "..stab.fuelConversion.."("..math.floor(fuelConversionPercent).."%)")

lastEnergySaturationPercent=energySaturationPercent
energySaturationPercent=stab.energySaturation*100/stab.maxEnergySaturation
monitor.setCursorPos(5,10)
print("energySaturation: "..stab.energySaturation.."("..math.floor(energySaturationPercent).."%) "..tonumber(string.format("%.3f",energySaturationPercent-lastEnergySaturationPercent)))
--if energySaturationPercent==50 then
--  stab.setGenerationRate=stab.generationRate+10000
--  sleep(5)
-- end

--monitor.setCursorPos(2,11)
--print("maxEnergySaturation: "..stab.maxEnergySaturation)

monitor.setCursorPos(8,12)
print("fluxgate flow: "..fluxgate.getFlow())

lastFieldStrengthPercent=fieldStrengthPercent
fieldStrengthPercent=stab.fieldStrength*100/stab.maxFieldStrength
monitor.setCursorPos(2,13)
print("Cont. fieldStrength: "..tonumber(string.format("%.3f",(fieldStrengthPercent))).."%".."  ("..fieldStrengthPercent-lastFieldStrengthPercent..")")

monitor.setCursorPos(2,15)
print("Energy Core Storage: "..tonumber(string.format("%.3f",x)))
ecrft=((((x-y)/1000/1000)/2)/20) -- there are 20 ticks in a second so you /20 not multiple dufus

monitor.setCursorPos(5,16)

x1=ecrft
if (x1>999999999) then
-- leave x1 alone for millions
  msg="MRF/t"
end

if (x1<10000000000) then
  x1=x1*1000
  msg="KRF/t"
end

if (x1<1000000) then
  x1=x1*1000
  msg="RF/t"
end

print("Energy Core RF/t: "..x1..msg..", "..math.floor(x*100/2140000000000).."%")
if (fieldStrengthPercent>51 and energySaturationPercent>51) then
--  monitor.setCursorPos(15,14)
  redstone.setOutput("top",false)
end

if (adjtimeout>0) then
  adjtimeout=adjtimeout-1
  monitor.setCursorPos(18,14)
  monitor.setTextColor(colors.cyan)
  print("Adjtimeout="..adjtimeout)
end
if (coretemp<7000 and adjtimeout==0 and energySaturationPercent>51) then
-- coretemp temp set to 'save' 7k
    monitor.setCursorPos(18,14)
    monitor.setTextColor(colors.pink)
    print("experimental: adding~10k")
    fluxgate_out.setSignalLowFlow(fluxgate_out.getSignalLowFlow()+10000)
    adjtimeout=120  -- no faster than 1 adj. per 2 min
end

--end

if (fieldStrengthPercent<51 or energySaturationPercent<51) then
  monitor.setCursorPos(1,14)
  if (lastEnergySaturationPercent<energySaturationPercent) then
    monitor.setTextColor(colors.green)
    print("++++ Correcting")
  elseif (lastEnergySaturationPercent>energySaturationPercent) then
    monitor.setTextColor(colors.yellow)
    print("!!!! Degrading")
  end
  redstone.setOutput("top", not redstone.getOutput("top"))
  redstone.setOutput("back",false)
  if (fieldStrengthPercent<45 or energySaturationPercent<45) then
    redstone.setOutput("top",true)
    core.stopReactor()
    monitor.setCursorPos(20,14)
    monitor.setTextColor(colors.red)
    print("*** REACTOR SCRAM ***")
    term.setBackgroundColor(colors.yellow)
  end
end

monitor.setTextColor(colors.white)

if (fieldStrengthPercent>51 and energySaturationPercent>51) then
  redstone.setOutput("top",false)
  redstone.setOutput("back",true)
--  redstone.setOutput("back",true) -- redstone.getOutput("top"))
end
-- Energy dump, if core<50% then
-- set fluxgate low flow to core net gain (presuming you're generating at least 500k)

  if (x*100/2141200000000)>50 then  -- per above now I'm only setting the output when over 70%

-- seems to work more predictably just allowing the generation rate, using the change kept allow massive drops
-- and recover time was poor (even with the 70% safety margin) an empty T7 is really a RF vacuum.
--    fluxgate.setFlowOverride(ecrft*4000)
    fluxgate.setFlowOverride((stab.generationRate-(stab.fieldDrainRate*2))-20500) -- *2 to dump extra above generation range
--  end
  else
    -- Want to let a little through since I rely on this energy to keep my AE2 system operational
    fluxgate.setFlowOverride(500000)
  end

sleep(2)
end