FusionReactorMonitor

-- Configuration
local reactor_name = "fusionReactorLogicAdapter_1"  -- Name of the reactor peripheral
local alarm_side = "top"    -- Face to send redstone if reactor is off
local alarm_side2 = "back"  -- Additional face to send redstone when reactor is off
local start_side = "right"   -- Face to send pulse to start the reactor (changed to right by default)
local redstone_pulse_time = 1         -- Duration of the pulse in seconds

-- Startup animation for console
local function showStartupAnimation()
    term.clear()
    term.setCursorPos(1,1)

    print("    Fusion Reactor Controler by Le_Jiww")
    print("    [Developed for my bro: BigBlow]")
    print("")

    -- Loading animation
    io.write("    System initialization")
    for i = 1, 5 do
        io.write(".")
        sleep(0.2)
    end
    print("\n")
    sleep(0.5)

    -- Display startup information
    print("    > Connecting to fusion reactor...")
    sleep(0.3)
    print("    > Initializing monitor...")
    sleep(0.3)
    print("    > Configuring redstone signals...")
    sleep(0.5)
    print("\n    [SYSTEM READY]")
    print("\n    Reactor monitoring in progress...\n")
end

-- Execute startup animation
showStartupAnimation()

-- Monitor initialization
local monitor = peripheral.find("monitor")
if not monitor then
    error("No monitor detected")
end

-- Get screen dimensions
local screen_width, screen_height = monitor.getSize()

-- Reactor initialization
local reactor = peripheral.wrap(reactor_name)
if not reactor then
    error("Reactor not detected: " .. reactor_name)
end
monitor.clear()
monitor.setTextScale(1)
monitor.setTextColor(colors.white)

-- Button coordinates (adjusted for better central position)
local button_x1, button_y1 = 12, 12  -- Center position and lower down
local button_x2, button_y2 = 28, 15

-- Tracking variables
local last_ignited = nil
local ignition_in_progress = false  -- Prevents double sending the signal
local animation_frame = 0
local pulse_animation = 0  -- Pulsing animation for activity indicator
local rotation_animation = 0  -- Rotation animation for activity indicator

-- Function to format numbers with spaces
local function formatNumber(n)
    return tostring(n):reverse():gsub("(%d%d%d)", "%1 "):reverse():gsub("^ ", "")
end

-- Function to format large numbers with K, M, G, etc.
local function formatCompact(n)
    if n >= 1000000000 then
        return string.format("%.2fG", n / 1000000000)
    elseif n >= 1000000 then
        return string.format("%.2fM", n / 1000000)
    elseif n >= 1000 then
        return string.format("%.2fK", n / 1000)
    else
        return string.format("%.1f", n)
    end
end

-- Characters for rotation animation
local rotation_chars = {"|", "/", "-", "\\"}

-- Function to update only the values (without redrawing the frames)
local function updateReactorValues()
    if not reactor.isIgnited() then return end

    -- Get reactor data
    local production = reactor.getProductionRate()
    local productionRF = production / 2.5

    -- Variables for additional data
    local plasmaTemp, caseTemp, injectionRate, efficiency, fuel = nil, nil, nil, nil, nil

    -- Try to get plasma temperature
    local success, result = pcall(function() return reactor.getPlasmaTemperature() end)
    if success and result then plasmaTemp = result end

    -- Try to get case temperature
    success, result = pcall(function() return reactor.getCaseTemperature() end)
    if success and result then caseTemp = result end

    -- Try to get injection rate
    success, result = pcall(function() return reactor.getInjectionRate() end)
    if success and result then injectionRate = result end

    -- Try to get efficiency
    success, result = pcall(function() return reactor.getEfficiency() end)
    if success and result then
        efficiency = result
    else
        efficiency = math.min(98.5, 50 + productionRF / 50000)
    end

    -- Try to get fuel
    success, result = pcall(function() return reactor.getFuel() end)
    if success and result then fuel = result end

    -- Update values only (not labels)
    monitor.setBackgroundColor(colors.black)

    -- Update activity indicator (rotation animation)
    rotation_animation = (rotation_animation + 1) % 4
    local rotation_char = rotation_chars[rotation_animation + 1]

    monitor.setCursorPos(screen_width - 4, 2)
    monitor.setTextColor(colors.lime)
    monitor.write(rotation_char)

    -- 1. Energy production (update value only with slight variation for animation)
    local variation = math.random(-15, 15) / 10  -- Random variation of ±1.5%
    local displayedRF = productionRF * (1 + variation/100)

    monitor.setCursorPos(20, 10)
    monitor.setTextColor(colors.yellow)
    monitor.write(formatCompact(displayedRF).." RF/t    ")

    -- 2. Efficiency (update value only with slight variation)
    local effVariation = math.random(-2, 2) / 10  -- Random variation of ±0.2%
    local displayedEff = efficiency + effVariation

    monitor.setCursorPos(20, 11)
    monitor.setTextColor(colors.yellow)
    monitor.write(string.format("%.1f%%    ", displayedEff))

    -- Efficiency bar animation (pulsation)
    local bar_length = 18
    pulse_animation = (pulse_animation + 0.2) % 10
    local pulse_factor = 1 + math.sin(pulse_animation) * 0.05  -- Pulsing variation of ±5%
    local bar_progress = math.min(1, (productionRF * pulse_factor) / 1000000)
    local filled_length = math.floor(bar_progress * bar_length)

    monitor.setCursorPos(13, 12)
    for i = 1, bar_length do
        if i <= filled_length then
            if i >= bar_length - 1 and pulse_animation > 5 then
                monitor.setBackgroundColor(colors.yellow)  -- Flashing overload effect
            else
                monitor.setBackgroundColor(colors.lime)
            end
            monitor.write(" ")
        else
            monitor.setBackgroundColor(colors.gray)
            monitor.write(" ")
        end
    end
    monitor.setBackgroundColor(colors.black)

    -- 3. Plasma temperature (if available, with animation)
    if plasmaTemp then
        local tempVariation = math.random(-50, 50) / 10  -- Random variation of ±5
        local displayedTemp = plasmaTemp / 1000000 + tempVariation/100

        monitor.setCursorPos(20, 13)
        monitor.setTextColor(colors.orange)
        monitor.write(string.format("%.2f MK    ", displayedTemp))
    end

    -- 4. Injection rate (if available, with slight variation)
    if injectionRate then
        local injVariation = math.random(-5, 5)  -- Random variation of ±5
        monitor.setCursorPos(20, 14)
        monitor.setTextColor(colors.yellow)
        monitor.write(string.format("%d mB/t       ", injectionRate + injVariation))
    end

    -- 5. Fuel (if available, with simulated consumption)
    if fuel then
        monitor.setCursorPos(20, 15)
        monitor.setTextColor(colors.yellow)
        monitor.write(string.format("%d mB       ", fuel))
    end

    -- Reset colors
    monitor.setBackgroundColor(colors.black)
    monitor.setTextColor(colors.white)
end

-- Definition of characters for borders
local h_line = "\140"  -- Horizontal line
local v_line = "\149"  -- Vertical line
local tl_corner = "\151"  -- Top left corner
local tr_corner = "\152"  -- Top right corner
local bl_corner = "\154"  -- Bottom left corner
local br_corner = "\153"  -- Bottom right corner

-- Function to draw a box with border
local function drawBox(x1, y1, x2, y2, bg_color, border_color)
    monitor.setBackgroundColor(bg_color or colors.black)
    monitor.setTextColor(border_color or colors.cyan)

    -- Corners
    monitor.setCursorPos(x1, y1)
    monitor.write(tl_corner)
    monitor.setCursorPos(x2, y1)
    monitor.write(tr_corner)
    monitor.setCursorPos(x1, y2)
    monitor.write(bl_corner)
    monitor.setCursorPos(x2, y2)
    monitor.write(br_corner)

    -- Horizontal lines
    for x = x1 + 1, x2 - 1 do
        monitor.setCursorPos(x, y1)
        monitor.write(h_line)
        monitor.setCursorPos(x, y2)
        monitor.write(h_line)
    end

    -- Vertical lines
    for y = y1 + 1, y2 - 1 do
        monitor.setCursorPos(x1, y)
        monitor.write(v_line)
        monitor.setCursorPos(x2, y)
        monitor.write(v_line)
    end

    -- Interior
    monitor.setBackgroundColor(bg_color or colors.black)
    for y = y1 + 1, y2 - 1 do
        monitor.setCursorPos(x1 + 1, y)
        for x = x1 + 1, x2 - 1 do
            monitor.write(" ")
        end
    end
end

-- Function to draw a centered title in a box
local function drawTitle(text, x1, x2, y, color)
    local width = x2 - x1 - 1
    local text_x = x1 + math.floor((width - #text) / 2) + 1

    monitor.setTextColor(color or colors.yellow)
    monitor.setCursorPos(text_x, y)
    monitor.write(text)
    monitor.setTextColor(colors.white)
end

-- Function to display information
local function displayInfo()
    local ignited = reactor.isIgnited()
    local should_redraw = (last_ignited ~= ignited) or (not last_ignited)

    -- Only animate the status icon, not the entire screen
    animation_frame = (animation_frame + 1) % 8

    -- Avoid redrawing the entire screen each time
    if not should_redraw then
        -- Selective update for animated elements only
        if ignited then
            -- Update only the flashing status with a more visible animation
            monitor.setCursorPos(13, 5)
            if animation_frame < 4 then
                monitor.setTextColor(colors.lime)
                monitor.write("IGNITED ")
                monitor.setTextColor(colors.yellow)
                monitor.write("*")
            else
                monitor.setTextColor(colors.green)
                monitor.write("IGNITED ")
                monitor.setTextColor(colors.orange)
                monitor.write("+")
            end

            -- Rotation animation in the upper right corner
            monitor.setCursorPos(screen_width - 4, 2)
            monitor.setTextColor(colors.lime)
            monitor.write(rotation_chars[(rotation_animation + 1) % 4 + 1])

            -- Update data without clearing the entire screen
            updateReactorValues()
            return
        end
    end

    -- Otherwise, redraw the entire screen
    monitor.clear()

    -- Big frame surrounding the entire screen
    drawBox(1, 1, screen_width, screen_height, colors.black, colors.blue)

    -- Title at the top with styling
    drawTitle("FUSION REACTOR CONTROL", 1, screen_width, 2, colors.yellow)

    -- Rotation animation in the upper right corner (program activity indicator)
    monitor.setCursorPos(screen_width - 4, 2)
    monitor.setTextColor(colors.lime)
    monitor.write(rotation_chars[(animation_frame % 4) + 1])

    -- Status box
    drawBox(3, 4, screen_width - 3, 6, colors.black, colors.cyan)
    drawTitle("REACTOR STATUS", 3, screen_width - 3, 4, colors.white)

    monitor.setCursorPos(5, 5)
    monitor.write("Status:")

    monitor.setCursorPos(13, 5)
    if ignited then
        -- Flashing animation for "IGNITED"
        if animation_frame < 4 then
            monitor.setTextColor(colors.lime)
            monitor.write("IGNITED ")
            monitor.setTextColor(colors.yellow)
            monitor.write("*")
        else
            monitor.setTextColor(colors.green)
            monitor.write("IGNITED ")
            monitor.setTextColor(colors.orange)
            monitor.write("+")
        end
        redstone.setOutput(alarm_side, false)  -- Disable redstone on primary face
        redstone.setOutput(alarm_side2, false)  -- Disable redstone on secondary face
        ignition_in_progress = false  -- Reset state after ignition
    else
        monitor.setTextColor(colors.red)
        monitor.write("STOPPED")
        redstone.setOutput(alarm_side, true)  -- Enable redstone on primary face
        redstone.setOutput(alarm_side2, true)  -- Enable redstone on secondary face
    end

    -- Reset color to white
    monitor.setTextColor(colors.white)

    if ignited then
        -- Energy production box
        drawBox(3, 8, screen_width - 3, 16, colors.black, colors.cyan)
        monitor.setTextColor(colors.white)
        drawTitle("REACTOR TELEMETRY", 3, screen_width - 3, 8, colors.white)

        -- Get reactor data
        local production = reactor.getProductionRate()
        local productionRF = production / 2.5 -- Convert J to RF

        -- Let's try to get additional data (with error protection)
        local plasmaTemp, caseTemp, injectionRate, efficiency, fuel = nil, nil, nil, nil, nil

        -- Try to get temperature (may not be available depending on version)
        local success, result = pcall(function() return reactor.getPlasmaTemperature() end)
        if success and result then plasmaTemp = result end

        -- Try to get case temperature
        success, result = pcall(function() return reactor.getCaseTemperature() end)
        if success and result then caseTemp = result end

        -- Try to get injection rate
        success, result = pcall(function() return reactor.getInjectionRate() end)
        if success and result then injectionRate = result end

        -- Try to get efficiency
        success, result = pcall(function() return reactor.getEfficiency() end)
        if success and result then
            efficiency = result
        else
            -- Simulate an efficiency value based on production
            efficiency = math.min(98.5, 50 + productionRF / 50000)
        end

        -- Try to get fuel
        success, result = pcall(function() return reactor.getFuel() end)
        if success and result then fuel = result end

        -- Display data
        local line = 0

        -- 1. Energy production (with slight variation for animation)
        line = 10
        monitor.setCursorPos(5, line)
        monitor.write("Generation:")
        monitor.setCursorPos(20, line)
        monitor.setTextColor(colors.yellow)
        -- Add a slight variation to give the impression of change
        local variation = math.random(-15, 15) / 10  -- Random variation of ±1.5%
        local displayedRF = productionRF * (1 + variation/100)
        monitor.write(formatCompact(displayedRF).." RF/t")

        -- 2. Efficiency (with slight variation)
        line = 11
        monitor.setCursorPos(5, line)
        monitor.setTextColor(colors.white)
        monitor.write("Efficiency:")
        monitor.setCursorPos(20, line)
        monitor.setTextColor(colors.yellow)
        local effVariation = math.random(-2, 2) / 10  -- Random variation of ±0.2%
        monitor.write(string.format("%.1f%%", efficiency + effVariation))

        -- Visual production bar (with pulsation effect)
        line = 12
        monitor.setCursorPos(5, line)
        monitor.setTextColor(colors.white)
        monitor.write("Output:")

        local bar_length = 18
        pulse_animation = (pulse_animation + 0.2) % 10
        local pulse_factor = 1 + math.sin(pulse_animation) * 0.05  -- Pulsing variation of ±5%
        local bar_progress = math.min(1, (productionRF * pulse_factor) / 1000000) -- Scale to adjust
        local filled_length = math.floor(bar_progress * bar_length)

        monitor.setCursorPos(13, line)
        for i = 1, bar_length do
            if i <= filled_length then
                if i >= bar_length - 1 and pulse_animation > 5 then
                    monitor.setBackgroundColor(colors.yellow)  -- Flashing overload effect
                else
                    monitor.setBackgroundColor(colors.lime)
                end
                monitor.write(" ")
            else
                monitor.setBackgroundColor(colors.gray)
                monitor.write(" ")
            end
        end
        monitor.setBackgroundColor(colors.black)

        -- 3. Plasma temperature (if available, with animation)
        if plasmaTemp then
            line = 13
            monitor.setCursorPos(5, line)
            monitor.setTextColor(colors.white)
            monitor.write("Plasma Temp:")
            monitor.setCursorPos(20, line)
            monitor.setTextColor(colors.orange)
            -- Add a variation to show that it changes
            local tempVariation = math.random(-50, 50) / 10  -- Random variation of ±5
            monitor.write(string.format("%.2f MK", plasmaTemp / 1000000 + tempVariation/100))
        end

        -- 4. Injection rate (if available, with slight variation)
        if injectionRate then
            line = 14
            monitor.setCursorPos(5, line)
            monitor.setTextColor(colors.white)
            monitor.write("Inj. Rate:")
            monitor.setCursorPos(20, line)
            monitor.setTextColor(colors.yellow)
            local injVariation = math.random(-5, 5)  -- Random variation of ±5
            monitor.write(string.format("%d mB/t", injectionRate + injVariation))
        end

        -- 5. Fuel (if available, with simulated consumption)
        if fuel then
            line = 15
            monitor.setCursorPos(5, line)
            monitor.setTextColor(colors.white)
            monitor.write("Fuel:")
            monitor.setCursorPos(20, line)
            monitor.setTextColor(colors.yellow)
            monitor.write(string.format("%d mB", fuel))
        end
    else
        if ignition_in_progress then
            -- Information box during ignition with improved animation
            drawBox(3, 8, screen_width - 3, 15, colors.black, colors.cyan)
            drawTitle("IGNITION SEQUENCE", 3, screen_width - 3, 8, colors.white)

            -- More elaborate "Loading" animation with progress bars
            local progress_chars = {"[=      ]", "[==     ]", "[===    ]", "[====   ]",
                                   "[=====  ]", "[====== ]", "[=======]", "[======= ]",
                                   "[=====  ]", "[====   ]", "[===    ]", "[==     ]",
                                   "[=      ]", "[       ]"}
            local char = progress_chars[animation_frame % #progress_chars + 1]

            -- Status line with animation icon
            monitor.setCursorPos(5, 10)
            monitor.setTextColor(colors.yellow)
            monitor.write("Reactor ignition in progress")

            -- Animation on separate line
            monitor.setCursorPos(15, 11)
            monitor.write(char)

            monitor.setCursorPos(5, 13)
            monitor.setTextColor(colors.white)
            monitor.write("Please wait...")
        else
            -- Clear any previous UI elements in this area
            for y = 8, 16 do
                monitor.setCursorPos(3, y)
                monitor.setBackgroundColor(colors.black)
                for x = 3, screen_width - 3 do
                    monitor.write(" ")
                end
            end

            -- Draw proper button centered on screen
            local button_color = colors.blue
            if animation_frame % 8 > 5 then
                button_color = colors.lightBlue  -- Subtle flashing animation
            end

            -- Draw frame around button
            drawBox(button_x1 - 1, button_y1 - 1, button_x2 + 1, button_y2 + 1, colors.black, colors.gray)

            -- Fill button with color
            for y = button_y1, button_y2 do
                monitor.setCursorPos(button_x1, y)
                monitor.setBackgroundColor(button_color)
                for x = button_x1, button_x2 do
                    monitor.write(" ")
                end
            end

            -- Button text
            local button_text = "START REACTOR"
            monitor.setTextColor(colors.white)
            monitor.setCursorPos(button_x1 + math.floor((button_x2 - button_x1 - #button_text) / 2), button_y1 + 1)
            monitor.write(button_text)

            -- Reset background color
            monitor.setBackgroundColor(colors.black)
        end
    end

    -- Footer
    monitor.setTextColor(colors.lightGray)
    monitor.setCursorPos(3, screen_height - 1)
    monitor.write("Fusion Reactor Controler by Le_Jiww")

    -- Reset default colors
    monitor.setBackgroundColor(colors.black)
    monitor.setTextColor(colors.white)

    last_ignited = ignited
end

-- Function to handle button click
local function checkTouch()
    while true do
        local event, side, x, y = os.pullEvent("monitor_touch")

        -- Check if we're in the right state to start the reactor
        if not reactor.isIgnited() and not ignition_in_progress then
            -- Improved button hit detection with better margins
            if x >= button_x1 - 1 and x <= button_x2 + 1 and y >= button_y1 - 1 and y <= button_y2 + 1 then
                -- Set "ignition in progress" state
                ignition_in_progress = true

                -- Log to console for debugging
                print("Button pressed - starting reactor ignition sequence")

                -- Visual effect for the click - change button color to cyan
                for y_pos = button_y1, button_y2 do
                    monitor.setCursorPos(button_x1, y_pos)
                    monitor.setBackgroundColor(colors.cyan)
                    for x_pos = button_x1, button_x2 do
                        monitor.write(" ")
                    end
                end

                -- Button text
                local button_text = "STARTING..."
                monitor.setTextColor(colors.white)
                monitor.setCursorPos(button_x1 + math.floor((button_x2 - button_x1 - #button_text) / 2), button_y1 + 1)
                monitor.write(button_text)

                sleep(0.2)  -- Brief pause for visual effect

                -- Send redstone pulse on the chosen face
                redstone.setOutput(start_side, true)
                sleep(redstone_pulse_time)
                redstone.setOutput(start_side, false)

                -- Update display to show ignition sequence
                displayInfo()
            end
        end
    end
end

-- Information on console about how to restart
print("Monitor interface initialized")
print("Reactor startup configured to send redstone signal to: " .. start_side .. " face")
print("Reactor stop signals configured for: " .. alarm_side .. " and " .. alarm_side2 .. " faces")
print("Touch the START REACTOR button on monitor to activate the reactor")
print("Running main loop...")

-- Continuous update loop
parallel.waitForAny(
    function()
        while true do
            displayInfo()
            sleep(0.25)  -- Reduce delay for smoother animation
        end
    end,
    checkTouch
)