Expand description
Explicit transformations and their preflight checks.
A pass that changes one model into another carries the module records forward and appends transformation history, so the result is auditable. Emission borrows the module and returns emission diagnostics separately. The most consequential transformation, multiconductor to balanced, is explicit and diagnosed, never a silent positive sequence projection.
Structs§
- Multiconductor
ToBalanced Error - Structured failure from the raw multiconductor to balanced lowering pass.
- Multiconductor
ToBalanced Options - Options for the multiconductor to balanced lowering preflight and pass.
- Multiconductor
ToBalanced Report - Report for the multiconductor to balanced transformation.
- Multiconductor
ToBalanced Transformation - A successful raw multiconductor to balanced lowering result.
Enums§
- Sequence
Transform Convention - Sequence transform used by the multiconductor to balanced lowering.
Functions§
- apply_
geo_ layer - Apply one geographic layer to a network module.
- network_
with_ operating_ point - The balanced network an operating point states: the point’s network with
the point’s bus voltages, generator dispatch and setpoints, load powers,
service flags, taps, phase shifts, and switch positions applied. The
collection’s shared network is not changed. Net bus injection columns have
no network field and are not applied;
emitreports that omission. - neutral_
kron - Eliminate explicitly grounded neutral conductors with the default Kron projection options.
- neutral_
kron_ with_ options - Eliminate explicitly grounded neutral conductors with explicit projection options.
- to_
ac_ opf_ instance - Construct an AC optimal power flow calculation from a balanced network module.
- to_
ac_ pf_ instance - Construct an AC power flow calculation from a balanced network module.
- to_
balanced - Lower a multiconductor module to a balanced module: the #398 transform operation. The module’s common records carry over, the retained source is severed because its bytes describe the input value, and the pass appends its structured findings as module diagnostics and one Transform history entry stating the chosen base power, every assumption and approximation, the dropped fields, and the removed bus and switch identities.
- to_
balanced_ network - Lower a transparent three phase multiconductor network to a balanced model.
- to_
balanced_ network_ report - Check whether a multiconductor network is ready for the lowering pass.
- to_
balanced_ report - Readiness of one module’s value for the balanced lowering: the #398 inspect operation. The value must be a multiconductor network.
- to_
dc_ opf_ instance - Construct a DC optimal power flow calculation from a balanced network module.
- to_
dc_ pf_ instance - Construct a DC power flow calculation from a balanced network module. Module diagnostics, source descriptions, provenance, and prior history are preserved. Retained source bytes and value locators are cleared because they describe the network rather than the calculation instance.
- to_
lindist3flow_ opf_ instance - Construct a LinDist3Flow optimal power flow calculation from a multiconductor network module using the default formulation options.
- to_
lindist3flow_ opf_ instance_ with_ options - Construct a LinDist3Flow optimal power flow calculation with explicit formulation options.
- to_
mc_ ac_ opf_ instance - Construct a multiconductor AC optimal power flow calculation from a multiconductor network module.
- to_
mc_ ac_ pf_ instance - Construct a multiconductor AC power flow calculation from a multiconductor network module.