This file is fairly incomplete. Help is welcome.
The tier is a string, currently "LV"
, "MV"
and "HV"
are supported.
The network is the cable with the connected machine nodes. Currently the switching station handles the network activity.
technic.EU_string(num)
EU
unittechnic.pretty_num(num)
num
to a human-readable string with SI prefixestechnic.swap_node(pos, nodename)
mintest.swap_node
but it only changes the nodename.minetest.get_node
before swapping to ensure the new nodename
is not the same as the current one.technic.get_or_load_node(pos)
nil
.technic.set_RE_wear(itemstack, item_load, max_charge)
wear_represents
field in the item's nodedef is
"technic_RE_charge"
, this function does nothing.technic.refill_RE_charge(itemstack)
technic.power_tools[itemstack:get_name()]
is nil
(or false
), this
function does nothing, else that value is the maximum charge.technic.is_tier_cable(nodename, tier)
nodename
is the cable of the tier tier
.technic.get_cable_tier(nodename)
nodename
or nil
.technic.trace_node_ray(pos, dir, range)
pos
.technic.trace_node_ray_fat(pos, dir, range)
technic.trace_node_ray
but includes extra positions near the ray.technic.config:get(name)
technic.tube_inject_item(pos, start_pos, velocity, item)
pipeworks.tube_inject_item
technic.register_power_tool(itemname, max_charge)
technic.power_tools[itemname] = max_charge
itemname
chargeable.technic.register_machine(tier, nodename, machine_type)
technic.machines[tier][nodename] = machine_type
Machine types
technic.register_tier(tier)
technic.machines[tier] = {}
tiers
technic.register_solar_array(data)
technic.can_insert_unique_stack(pos, node, stack, direction)
technic.insert_object_unique_stack(pos, node, stack, direction)
can_insert
and insert_object
to avoid
filling multiple inventory slots with same type of item.technic_<ltier> = 1
ltier is a tier in small letters; this group makes
the node connect to the cable(s) of the right tier.technic_machine = 1
Currently used forconnect_sides
technic_run(pos, node)
There are currently following types:
technic.receiver = "RE"
e.g. grindertechnic.producer = "PR"
e.g. solar paneltechnic.producer_receiver = "PR_RE"
supply convertertechnic.battery = "BA"
e.g. LV batboxThe switching station is the center of all power distribution on an electric network.
The station collects power from sources (PR), distributes it to sinks (RE), and uses the excess/shortfall to charge and discharge batteries (BA).
For now, all supply and demand values are expressed in kW.
It works like this: All PR,BA,RE nodes are indexed and tagged with the switching station. The tagging is a workaround to allow more stations to be built without allowing a cheat with duplicating power. All the RE nodes are queried for their current EU demand. Those which are off would require no or a small standby EU demand, while those which are on would require more. If the total demand is less than the available power they are all updated with the demand number. If any surplus exists from the PR nodes the batteries will be charged evenly with this. If the total demand requires draw on the batteries they will be discharged evenly.
If the total demand is more than the available power all RE nodes will be shut down. We have a brown-out situation.
Hence for now all the power distribution logic resides in this single node.
Nodes connected to the network will have one or more of these parameters as meta data:
* `<LV|MV|HV>_EU_supply` : Exists for PR and BA node types.
This is the EU value supplied by the node. Output
* `<LV|MV|HV>_EU_demand` : Exists for RE and BA node types.
This is the EU value the node requires to run. Output
* `<LV|MV|HV>_EU_input` : Exists for RE and BA node types.
This is the actual EU value the network can give the node. Input
The reason the LV|MV|HV type is prepended to meta data is because some machine could require several supplies to work. This way the supplies are separated per network.