spaces->tab, equipper improvements, supertreefarm rewrite, follow improvements, sensor cleanup, milo multiple items allowed in recipes, remote canvas access

This commit is contained in:
kepler155c@gmail.com
2019-06-18 15:23:20 -04:00
parent 3b9b509429
commit 045b32884f
162 changed files with 20448 additions and 20286 deletions

View File

@@ -9,167 +9,167 @@ local box = { }
local oldCallback
local function toKey(pt)
return table.concat({ pt.x, pt.y, pt.z }, ':')
return table.concat({ pt.x, pt.y, pt.z }, ':')
end
local function addNode(node)
for i = 0, 5 do
local hi = turtle.getHeadingInfo(i)
local testNode = { x = node.x + hi.xd, y = node.y + hi.yd, z = node.z + hi.zd }
for i = 0, 5 do
local hi = turtle.getHeadingInfo(i)
local testNode = { x = node.x + hi.xd, y = node.y + hi.yd, z = node.z + hi.zd }
if Point.inBox(testNode, box) then
local key = toKey(testNode)
if not checkedNodes[key] then
nodes[key] = testNode
end
end
end
if Point.inBox(testNode, box) then
local key = toKey(testNode)
if not checkedNodes[key] then
nodes[key] = testNode
end
end
end
end
local function dig(action)
local directions = {
top = 'up',
bottom = 'down',
}
local directions = {
top = 'up',
bottom = 'down',
}
-- convert to up, down, north, south, east, west
local direction = directions[action.side] or
turtle.getHeadingInfo(turtle.point.heading).direction
-- convert to up, down, north, south, east, west
local direction = directions[action.side] or
turtle.getHeadingInfo(turtle.point.heading).direction
local hi = turtle.getHeadingInfo(direction)
local node = { x = turtle.point.x + hi.xd, y = turtle.point.y + hi.yd, z = turtle.point.z + hi.zd }
local hi = turtle.getHeadingInfo(direction)
local node = { x = turtle.point.x + hi.xd, y = turtle.point.y + hi.yd, z = turtle.point.z + hi.zd }
if Point.inBox(node, box) then
if Point.inBox(node, box) then
local key = toKey(node)
checkedNodes[key] = true
nodes[key] = nil
local key = toKey(node)
checkedNodes[key] = true
nodes[key] = nil
if action.dig() then
addNode(node)
repeat until not action.dig() -- sand, etc
return true
end
end
if action.dig() then
addNode(node)
repeat until not action.dig() -- sand, etc
return true
end
end
end
local function move(action)
if action == 'turn' then
dig(turtle.getAction('forward'))
elseif action == 'up' then
dig(turtle.getAction('up'))
dig(turtle.getAction('forward'))
elseif action == 'down' then
dig(turtle.getAction('down'))
dig(turtle.getAction('forward'))
elseif action == 'back' then
dig(turtle.getAction('up'))
dig(turtle.getAction('down'))
end
if action == 'turn' then
dig(turtle.getAction('forward'))
elseif action == 'up' then
dig(turtle.getAction('up'))
dig(turtle.getAction('forward'))
elseif action == 'down' then
dig(turtle.getAction('down'))
dig(turtle.getAction('forward'))
elseif action == 'back' then
dig(turtle.getAction('up'))
dig(turtle.getAction('down'))
end
if oldCallback then
oldCallback(action)
end
if oldCallback then
oldCallback(action)
end
end
-- find the closest block
-- * favor same plane
-- * going backwards only if the dest is above or below
local function closestPoint(reference, pts)
local lpt, lm -- lowest
for _,pt in pairs(pts) do
local m = Point.turtleDistance(reference, pt)
local h = Point.calculateHeading(reference, pt)
local t = Point.calculateTurns(reference.heading, h)
if pt.y ~= reference.y then -- try and stay on same plane
m = m + .01
end
if t ~= 2 or pt.y == reference.y then
m = m + t
if t > 0 then
m = m + .01
end
end
if not lm or m < lm then
lpt = pt
lm = m
end
end
return lpt
local lpt, lm -- lowest
for _,pt in pairs(pts) do
local m = Point.turtleDistance(reference, pt)
local h = Point.calculateHeading(reference, pt)
local t = Point.calculateTurns(reference.heading, h)
if pt.y ~= reference.y then -- try and stay on same plane
m = m + .01
end
if t ~= 2 or pt.y == reference.y then
m = m + t
if t > 0 then
m = m + .01
end
end
if not lm or m < lm then
lpt = pt
lm = m
end
end
return lpt
end
local function getAdjacentPoint(pt)
local t = { }
table.insert(t, pt)
for i = 0, 5 do
local hi = turtle.getHeadingInfo(i)
local heading
if i < 4 then
heading = (hi.heading + 2) % 4
end
table.insert(t, { x = pt.x + hi.xd, z = pt.z + hi.zd, y = pt.y + hi.yd, heading = heading })
end
local t = { }
table.insert(t, pt)
for i = 0, 5 do
local hi = turtle.getHeadingInfo(i)
local heading
if i < 4 then
heading = (hi.heading + 2) % 4
end
table.insert(t, { x = pt.x + hi.xd, z = pt.z + hi.zd, y = pt.y + hi.yd, heading = heading })
end
return closestPoint(turtle.getPoint(), t)
return closestPoint(turtle.getPoint(), t)
end
function turtle.level(startPt, endPt, firstPt, verbose)
checkedNodes = { }
nodes = { }
box = { }
checkedNodes = { }
nodes = { }
box = { }
box.x = math.min(startPt.x, endPt.x)
box.y = math.min(startPt.y, endPt.y)
box.z = math.min(startPt.z, endPt.z)
box.ex = math.max(startPt.x, endPt.x)
box.ey = math.max(startPt.y, endPt.y)
box.ez = math.max(startPt.z, endPt.z)
box.x = math.min(startPt.x, endPt.x)
box.y = math.min(startPt.y, endPt.y)
box.z = math.min(startPt.z, endPt.z)
box.ex = math.max(startPt.x, endPt.x)
box.ey = math.max(startPt.y, endPt.y)
box.ez = math.max(startPt.z, endPt.z)
if not Point.inBox(firstPt, box) then
error('Starting point is not in leveling area')
end
if not Point.inBox(firstPt, box) then
error('Starting point is not in leveling area')
end
if not turtle.pathfind(firstPt) then
error('failed to reach starting point')
end
if not turtle.pathfind(firstPt) then
error('failed to reach starting point')
end
turtle.set({
digPolicy = dig,
attackPolicy = 'attack',
movePolicy = 'moveAssured',
})
turtle.set({
digPolicy = dig,
attackPolicy = 'attack',
movePolicy = 'moveAssured',
})
oldCallback = turtle.getMoveCallback()
turtle.setMoveCallback(move)
oldCallback = turtle.getMoveCallback()
turtle.setMoveCallback(move)
repeat
local key = toKey(turtle.point)
repeat
local key = toKey(turtle.point)
checkedNodes[key] = true
nodes[key] = nil
checkedNodes[key] = true
nodes[key] = nil
dig(turtle.getAction('down'))
dig(turtle.getAction('up'))
dig(turtle.getAction('forward'))
dig(turtle.getAction('down'))
dig(turtle.getAction('up'))
dig(turtle.getAction('forward'))
if verbose then
print(string.format('%d nodes remaining', Util.size(nodes)))
end
if verbose then
print(string.format('%d nodes remaining', Util.size(nodes)))
end
if not next(nodes) then
break
end
if not next(nodes) then
break
end
local node = closestPoint(turtle.point, nodes)
node = getAdjacentPoint(node)
if not turtle.go(node) then
break
end
until turtle.isAborted()
local node = closestPoint(turtle.point, nodes)
node = getAdjacentPoint(node)
if not turtle.go(node) then
break
end
until turtle.isAborted()
turtle.resetState()
turtle.setMoveCallback(oldCallback)
turtle.resetState()
turtle.setMoveCallback(oldCallback)
end
return true