build_sea_system
================

.. py:module:: build_sea_system


Attributes
----------

.. autoapisummary::

   build_sea_system.HERE
   build_sea_system.SB
   build_sea_system.T_FLOOR


Functions
---------

.. autoapisummary::

   build_sea_system.fmt
   build_sea_system.all_buses
   build_sea_system.gen_lines
   build_sea_system.businit_lines
   build_sea_system.svc_lines
   build_sea_system.load_lines
   build_sea_system.pss_params
   build_sea_system._arg_list
   build_sea_system.converter_line
   build_sea_system.machine_lines
   build_sea_system.write_case
   build_sea_system.run_power_flow
   build_sea_system.main


Module Contents
---------------

.. py:data:: HERE

.. py:data:: SB
   :value: 100.0


.. py:data:: T_FLOOR
   :value: 0.001


.. py:function:: fmt(x: float) -> str

.. py:function:: all_buses() -> list

.. py:function:: gen_lines(case: int, v0: dict) -> list

.. py:function:: businit_lines(case: int, v0: dict) -> list

.. py:function:: svc_lines(case: int) -> list

.. py:function:: load_lines(case: int) -> list

.. py:function:: pss_params(gen: str, case: int) -> str

.. py:function:: _arg_list(flag: str) -> list

.. py:function:: converter_line(gen: str, bus: str, s_agg: float, kind: str) -> str

   Grid-forming / grid-following converter replacing power station `gen`.

   Control parameters follow the IEEE39_bus_inverter fixture (droop GFM /
   PLL GFL with cascaded voltage/current control); the quasi-static LCL
   realization matches the static network model. Ratings and dispatch come
   from the loadflow (sequential init solves the setpoints).


.. py:function:: machine_lines(case: int) -> list

.. py:function:: write_case(case: int, v0: dict, out_dir: pathlib.Path) -> None

.. py:function:: run_power_flow(case_dir: pathlib.Path) -> dict

   Run the init power flow on the generated file; return bus -> |V|.


.. py:function:: main() -> None