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Joachim Stolberg 2019-06-16 21:18:22 +02:00
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README.md Normal file
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# Techage V0.01
Techage, go through 4 tech ages in search of wealth and power.
### License
Copyright (C) 2019 Joachim Stolberg
Code: Licensed under the GNU LGPL version 2.1 or later. See LICENSE.txt
Textures: CC BY-SA 3.0
### Dependencies
default,tubelib2,basic_materials,bucket,stairs
unified_inventory,wielded_light
### History
- 2019-06-16 V0.01 * First upload

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mod.conf
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name = techage name = techage
depends = default,tubelib2,basic_materials,bucket,stairs depends = default,tubelib2,basic_materials,bucket,stairs
optional_depends = unified_inventory,wielded_light optional_depends = unified_inventory,wielded_light
description = Hello World! description = Techage, go through 4 tech ages in search of wealth and power!

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power/api.md
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The module power supports 3 kinds of devices: The module power supports 3 kinds of devices:
- Generators: Provide power, can be turned on/off - Generators: Provide power, can be turned on/off
- Consumers: Need power, like machines or lamps, can be turned on/off - Consumers: Need power, like machines or lamps, can be turned on/off
- Batteries: Can provide stored power, combination of generator and consumer - Akkus: Can provide stored power, combination of generator and consumer
### Possible connection sides ### Possible connection sides
``` ```
@ -30,26 +30,12 @@ All 3 kinds of nodes use the same registration function to enrich the nodes func
-- definition is a table according to: -- definition is a table according to:
{ {
on_power_pass1 = func(pos, mem), -- for power balance calculation
on_power_pass2 = func(pos, mem, sum), -- for power balance adjustment
on_power_pass3 = func(pos, mem, sum), -- for power balance result
conn_sides = <list>, -- allowed connection sides for power cables conn_sides = <list>, -- allowed connection sides for power cables
-- one or several of {"L", "R", "U", "D", "F", "B"} -- one or several of {"L", "R", "U", "D", "F", "B"}
power_network = <tubelib2-instance>, power_network = <tubelib2-instance>,
} }
**Pass1: Power balance calculation** `on_power_pass1` tbd..........
Return the currently needed amount of power.
For batteries, switch to uncharging and return the uncharging value (negative value).
**Pass2: Power balance adjustment** `on_power_pass2`
Provides the current power balance. A positive sum means, more power available then needed.
A battery can turn off or even switch to charging if the balance is positive.
In this case, return the correction value (a positive value) instead of 0.
In case of a consumer: turn off if power balance is negative and return the correction value (a negative value).
**Pass3: Power balance result** `on_power_pass3`
Function provides the final power balance for output purposes.
techage.power.power_distribution(pos) techage.power.power_distribution(pos)

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power/power2.lua
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--[[
TechAge
=======
Copyright (C) 2019 Joachim Stolberg
LGPLv2.1+
See LICENSE.txt for more information
Power distribution and consumption calculation
for any kind of power distribution network
]]--
-- for lazy programmers
local S = function(pos) if pos then return minetest.pos_to_string(pos) end end
local P = minetest.string_to_pos
local M = minetest.get_meta
-- Techage Related Data
local PWR = function(pos) return (minetest.registered_nodes[minetest.get_node(pos).name] or {}).power end
local PWRN = function(node) return (minetest.registered_nodes[node.name] or {}).power end
-- Used to determine the already passed nodes while power distribution
local Route = {}
local function pos_already_reached(pos)
local key = minetest.hash_node_position(pos)
if not Route[key] then
Route[key] = true
return false
end
return true
end
local SideToDir = {B=1, R=2, F=3, L=4, D=5, U=6}
local function side_to_dir(param2, side)
local dir = SideToDir[side]
if dir < 5 then
dir = (((dir - 1) + (param2 % 4)) % 4) + 1
end
return dir
end
--function techage.get_pos(pos, side)
-- local node = minetest.get_node(pos)
-- local dir = nil
-- if node.name ~= "air" and node.name ~= "ignore" then
-- dir = side_to_dir(node.param2, side)
-- end
-- return tubelib2.get_pos(pos, dir)
--end
local function set_conn_dirs(pos, sides)
local tbl = {}
local node = minetest.get_node(pos)
if type(sides) == "function" then
tbl = sides(pos, node)
else
for _,side in ipairs(sides) do
tbl[#tbl+1] = tubelib2.Turn180Deg[side_to_dir(node.param2, side)]
end
end
M(pos):set_string("power_dirs", minetest.serialize(tbl))
end
local function valid_indir(pos, in_dir)
local s = M(pos):get_string("power_dirs")
if s == "" then
local pwr = PWR(pos)
if pwr then
set_conn_dirs(pos, pwr.conn_sides)
end
end
if s ~= "" then
for _,dir in ipairs(minetest.deserialize(s)) do
if dir == in_dir then
return true
end
end
end
return false
end
local function valid_outdir(pos, out_dir)
return valid_indir(pos, tubelib2.Turn180Deg[out_dir])
end
-- Both nodes are from the same power network type?
local function matching_nodes(pos, peer_pos)
local tube_type1 = pos and PWR(pos) and PWR(pos).power_network.tube_type
local tube_type2 = peer_pos and PWR(peer_pos) and PWR(peer_pos).power_network.tube_type
return not tube_type1 or not tube_type2 or tube_type1 == tube_type2
end
local function connection_walk(pos, clbk)
local mem = tubelib2.get_mem(pos)
mem.interrupted_dirs = mem.interrupted_dirs or {}
if clbk then
clbk(pos, mem)
end
for out_dir,item in pairs(mem.connections or {}) do
if item.pos and not pos_already_reached(item.pos) and
not mem.interrupted_dirs[out_dir] then
connection_walk(item.pos, clbk)
end
end
end
-- determine one "generating" node as master (largest hash number)
local function determine_master(pos)
Route = {}
pos_already_reached(pos)
local hash = 0
local master = nil
connection_walk(pos, function(pos, mem)
if mem.generating then
local new = minetest.hash_node_position(pos)
if hash <= new then
hash = new
master = pos
end
end
end)
return master
end
-- store master position on all network nodes
local function store_master(pos, master_pos)
Route = {}
pos_already_reached(pos)
connection_walk(pos, function(pos, mem)
mem.master_pos = master_pos
mem.is_master = false
end)
end
-- called from master every 2 seconds
local function accounting(mem)
mem.debit2 = mem.debit1 or 0
mem.credit2 = mem.credit1 or 0
mem.secondary = mem.secondary or 0
mem.gap = mem.debit2 - mem.credit2
mem.credit2 = mem.credit2 + mem.secondary
--print("needed = "..(mem.debit2 or 0)..", available = "..(mem.credit2 or 0)..", gap = "..mem.gap..", secondary = "..mem.secondary)
mem.debit1 = 0
mem.credit1 = 0
mem.secondary = 0
end
-- called from any generator
local function on_power_switch(pos)
print("on_power_change"..S(pos))
local mem = tubelib2.get_mem(pos)
mem.master_pos = nil
mem.is_master = nil
local mpos = determine_master(pos)
store_master(pos, mpos)
if mpos then
print("master = "..S(mpos))
local mem = tubelib2.get_mem(mpos)
mem.is_master = true
return mem
end
end
-- called from tubelib2.after_tube_update
local function on_network_change(pos)
local mem = on_power_switch(pos)
if mem then
accounting(mem)
end
end
--
-- Generic API functions
--
techage.power2 = {}
techage.power2.power_switched = on_power_switch
techage.power2.on_network_change = on_network_change
function techage.power2.register_node(names, pwr_def)
for _,name in ipairs(names) do
local ndef = minetest.registered_nodes[name]
if ndef then
minetest.override_item(name, {
power = {
conn_sides = pwr_def.conn_sides or {"L", "R", "U", "D", "F", "B"},
power_network = pwr_def.power_network,
after_place_node = ndef.after_place_node,
after_dig_node = ndef.after_dig_node,
after_tube_update = ndef.after_tube_update,
},
-- after_place_node decorator
after_place_node = function(pos, placer, itemstack, pointed_thing)
local pwr = PWR(pos)
set_conn_dirs(pos, pwr.conn_sides)
pwr.power_network:after_place_node(pos)
if pwr.after_place_node then
return pwr.after_place_node(pos, placer, itemstack, pointed_thing)
end
end,
-- after_dig_node decorator
after_dig_node = function(pos, oldnode, oldmetadata, digger)
local pwr = PWRN(oldnode)
pwr.power_network:after_dig_node(pos)
minetest.after(0.1, tubelib2.del_mem, pos) -- At latest...
if pwr.after_dig_node then
return pwr.after_dig_node(pos, oldnode, oldmetadata, digger)
end
end,
-- tubelib2 callback, called after any connection change
after_tube_update = function(node, pos, out_dir, peer_pos, peer_in_dir)
local pwr = PWR(pos)
local mem = tubelib2.get_mem(pos)
mem.connections = mem.connections or {}
if not peer_pos or not valid_indir(peer_pos, peer_in_dir)
or not valid_outdir(pos, out_dir)
or not matching_nodes(pos, peer_pos) then
mem.connections[out_dir] = nil -- del connection
else
mem.connections[out_dir] = {pos = peer_pos, in_dir = peer_in_dir}
end
-- To be called delayed, so that all network connections have been established
minetest.after(0.2, on_network_change, pos)
if pwr.after_tube_update then
return pwr.after_tube_update(node, pos, out_dir, peer_pos, peer_in_dir)
end
end,
})
pwr_def.power_network:add_secondary_node_names({name})
end
end
end
function techage.power2.consume_power(pos, needed)
local master_pos = tubelib2.get_mem(pos).master_pos
if master_pos then
local mem = tubelib2.get_mem(master_pos)
mem.debit1 = mem.debit1 or 0
mem.credit2 = mem.credit2 or 0
mem.debit1 = mem.debit1 + needed
if mem.credit2 >= needed then
mem.credit2 = mem.credit2 - needed
return needed
end
end
return 0
end
function techage.power2.provide_power(pos, available)
local mem = tubelib2.get_mem(pos)
if mem.is_master then
accounting(mem)
elseif mem.master_pos then
mem = tubelib2.get_mem(mem.master_pos)
else
return 0
end
mem.credit1 = mem.credit1 or 0
mem.debit2 = mem.debit2 or 0
mem.credit1 = mem.credit1 + available
if mem.debit2 > available then
mem.debit2 = mem.debit2 - available
return available
else
local rest = mem.debit2
mem.debit2 = 0
return rest
end
end
function techage.power2.secondary_power(pos, provide, consume)
local mem = tubelib2.get_mem(pos)
if mem.is_master then
accounting(mem)
elseif mem.master_pos then
mem = tubelib2.get_mem(mem.master_pos)
else
return 0
end
mem.gap = mem.gap or 0
mem.secondary = (mem.secondary or 0) + provide
if mem.gap > 0 then
local val = math.min(mem.gap, provide)
mem.gap = mem.gap - val
return val
elseif mem.gap < 0 then
return math.max(mem.gap, -consume)
end
return 0
-- mem.debit2 = mem.debit2 or 0
-- mem.credit1 = mem.credit1 + available
-- if mem.debit2 > available then
-- mem.debit2 = mem.debit2 - available
-- return available
-- else
-- local rest = mem.debit2
-- mem.debit2 = 0
-- return rest
-- end
end
function techage.power2.formspec_load_bar(charging, max_val)
local percent
charging = charging or 0
max_val = max_val or 1
if charging ~= 0 then
percent = 50 + math.ceil((charging * 50.0) / max_val)
end
if charging > 0 then
return "techage_form_level_off.png^[lowpart:"..percent..":techage_form_level_charge.png"
elseif charging < 0 then
return "techage_form_level_unload.png^[lowpart:"..percent..":techage_form_level_off.png"
else
return "techage_form_level_off.png"
end
end

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