Struct FrequencyRegulation

pub struct FrequencyRegulation {
    pub frequency_dead_band_minus: Option<f32>,
    pub frequency_dead_band_plus: Option<f32>,
    pub frequency_regulation_ctl: Option<bool>,
    pub frequency_set_point: Option<f32>,
    pub grid_frequency_stable_band_minus: Option<f32>,
    pub grid_frequency_stable_band_plus: Option<f32>,
    pub over_frequency_droop: Option<f32>,
    pub under_frequency_droop: Option<f32>,
}

ESS inverter high level function to maintain frequency within dead bands.

Fields

frequency_dead_band_minus: Option<f32>

uint/0.01Hz Frequency regulation is performed when the grid frequency goes beyond the dead bands. The dead bands are defined as follows: Upper DB = frequency set point + dead band plus Lower DB = frequency set point – dead band minus

frequency_dead_band_plus: Option<f32>

uint/0.01Hz Frequency regulation is performed when the grid frequency goes beyond the dead bands. The dead bands are defined as follows: Upper DB = frequency set point + dead band plus Lower DB = frequency set point – dead band minus

frequency_regulation_ctl: Option<bool>

Control value (TRUE or FALSE)

frequency_set_point: Option<f32>

uint/0.01Hz Target frequency

grid_frequency_stable_band_minus: Option<f32>

uint/0.01Hz Other modes of operation, such as peak shaving, smoothing or SOC management may operate if the grid frequency is within the stable band. Upper stable band = frequency set point + band plus Lower stable band = frequency set point – band minus

grid_frequency_stable_band_plus: Option<f32>

uint/0.01Hz Other modes of operation, such as peak shaving, smoothing or SOC management may operate if the grid frequency is within the stable band. Upper stable band = frequency set point + band plus Lower stable band = frequency set point – band minus

over_frequency_droop: Option<f32>

uint/0.1% The droops define the reaction of the PCS to under/over frequency events. A droop of 1% means that the PCS will output 100% power if the frequency is 1% of the nominal frequency away from the upper or lower dead band. The minimum droop value possible is 0.8%.

under_frequency_droop: Option<f32>

uint/0.1% The droops define the reaction of the PCS to under/over voltage events. A droop of 1% means that the PCS will output 100% power if the voltage is 1% of the nominal voltage away from the upper or lower dead band. The minimum droop value possible is 0.8%.

Trait Implementations

impl Clone for FrequencyRegulation

fn clone(&self) -> FrequencyRegulation

Returns a duplicate of the value.

fn clone_from(&mut self, source: &Self)

Performs copy-assignment from source.

impl Debug for FrequencyRegulation

fn fmt(&self, f: &mut Formatter<'_>) -> Result

Formats the value using the given formatter.

impl Default for FrequencyRegulation

fn default() -> FrequencyRegulation

Returns the “default value” for a type.

impl Message for FrequencyRegulation

fn encoded_len(&self) -> usize

Returns the encoded length of the message without a length delimiter.

fn clear(&mut self)

Clears the message, resetting all fields to their default.

fn encode<B>(&self, buf: &mut B) -> Result<(), EncodeError>

where B: BufMut, Self: Sized,

Encodes the message to a buffer.

fn encode_length_delimited<B>(&self, buf: &mut B) -> Result<(), EncodeError>

where B: BufMut, Self: Sized,

Encodes the message with a length-delimiter to a buffer.

fn decode<B>(buf: B) -> Result<Self, DecodeError>

where B: Buf, Self: Default,

Decodes an instance of the message from a buffer.

fn decode_length_delimited<B>(buf: B) -> Result<Self, DecodeError>

where B: Buf, Self: Default,

Decodes a length-delimited instance of the message from the buffer.

fn merge<B>(&mut self, buf: B) -> Result<(), DecodeError>

where B: Buf, Self: Sized,

Decodes an instance of the message from a buffer, and merges it into self.

fn merge_length_delimited<B>(&mut self, buf: B) -> Result<(), DecodeError>

where B: Buf, Self: Sized,

Decodes a length-delimited instance of the message from buffer, and merges it into self.

impl PartialEq for FrequencyRegulation

fn eq(&self, other: &FrequencyRegulation) -> bool

Tests for self and other values to be equal, and is used by ==.

fn ne(&self, other: &Rhs) -> bool

Tests for !=. The default implementation is almost always sufficient, and should not be overridden without very good reason.

impl StructuralPartialEq for FrequencyRegulation