wood_round

-- Function to get valid number input from user
function getInput(prompt)
    while true do
        print(prompt)
        local input = read()
        local num = tonumber(input)
        if num then
            return num
        else
            print("Invalid input. Please enter a number.")
        end
    end
end

-- Function to check for a tree on the given side (left/right)
function checkForTree(side)
    if side == "left" then
        turtle.turnLeft()
    else
        turtle.turnRight()
    end

    if turtle.detect() then
        turtle.select(2)  -- Select log for comparison
        if turtle.compare() then
            print("Tree detected on the " .. side .. ". Chopping and replanting.")
            -- Chopping and replanting logic goes here
        end
    end

    -- Return to original orientation
    if side == "left" then
        turtle.turnRight()
    else
        turtle.turnLeft()
    end
end

-- Move to the next row depending on which side we just checked
function moveToNextRow(side)
    -- Step 1: Move 1 block forward (past the last sapling row)
    turtle.forward()

    -- Step 2: Turn and move 5 blocks up to next sapling line
    if side == "left" then
        turtle.turnRight()
        for i = 1, 5 do
            turtle.forward()
        end
        turtle.turnRight()
    elseif side == "right" then
        turtle.turnLeft()
        for i = 1, 5 do
            turtle.forward()
        end
        turtle.turnLeft()
    end

    -- Step 3: Move 1 forward to align with the next sapling row
    turtle.forward()
end

-- Return to original starting position
function returnToStart(length, width, side)
    -- Turn around
    turtle.turnLeft()
    turtle.turnLeft()

    if side == "right" then
        turtle.forward()
        turtle.turnLeft()
        for i = 1, 5 * (width - 1) do
            turtle.forward()
        end
    elseif side == "left" then
        for i = 1, (5 * length) - 6 do
            turtle.forward()
        end
        turtle.turnRight()
        for i = 1, 5 * (width - 1) do
            turtle.forward()
        end
    end

    -- Final adjustments for original direction, but facing the chest
    turtle.turnLeft()
    turtle.forward()
end

-- Refuel until 1000 using all slots except 1 and 2, then deposit leftovers in chest behind
function refuelAndDeposit()
    local fuelNeeded = 1000 - turtle.getFuelLevel()

    -- Try to refuel from slots 3-16
    for i = 3, 16 do
        if fuelNeeded <= 0 then break end
        turtle.select(i)
        while turtle.refuel(1) do
            fuelNeeded = fuelNeeded - 1
            if fuelNeeded <= 0 then break end
        end
    end

    -- Deposit remaining items in slots 3-16
    for i = 3, 16 do
        turtle.select(i)
        turtle.drop() -- Drops behind
    end

    -- Reselect slot 1 and reset to original facing to keep things clean
    turtle.select(1)
    turtle.turnLeft()
    turtle.turnLeft()
end

-- Main traversal logic through the sapling grid
function checkTrees(length, width)
    local finalSide = "left"  -- We'll update this as we go
    for row = 1, width do
        local side = (row % 2 == 1) and "left" or "right"
        finalSide = side  -- Remember the last side for return logic

        for x = 1, length do
            checkForTree(side)
            if x < length then
                for i = 1, 5 do
                    turtle.forward()
                end
            end
        end

        if row < width then
            moveToNextRow(side)
        end
    end

    returnToStart(length, width, finalSide)
end

-- Prompt the user for the grid size
local length = getInput("Enter the number of trees per row (length):")
local width = getInput("Enter the number of rows (width):")

-- Start repeating the process every minute
while true do
    -- Begin traversal
    checkTrees(length, width)

    -- Refuel and deposit at the end
    refuelAndDeposit()

    -- Wait for 1 minute before repeating
    print("Waiting for 1 minute before the next round...")
    os.sleep(60)  -- Wait 60 seconds (1 minute)
end