double precision floating point numbers are not needed to handle VE.Direct values. handling double is implemented in software and hence *much* more resource intensive.
71 lines
3.8 KiB
C
71 lines
3.8 KiB
C
#pragma once
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#include <frozen/string.h>
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#include <frozen/map.h>
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#define VE_MAX_VALUE_LEN 33 // VE.Direct Protocol: max value size is 33 including /0
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#define VE_MAX_HEX_LEN 100 // Maximum size of hex frame - max payload 34 byte (=68 char) + safe buffer
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typedef struct {
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uint16_t PID = 0; // product id
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char SER[VE_MAX_VALUE_LEN]; // serial number
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char FW[VE_MAX_VALUE_LEN]; // firmware release number
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float V = 0; // battery voltage in V
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float I = 0; // battery current in A
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float E = 0; // efficiency in percent (calculated, moving average)
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frozen::string const& getPidAsString() const; // product ID as string
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} veStruct;
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struct veMpptStruct : veStruct {
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uint8_t MPPT; // state of MPP tracker
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int32_t PPV; // panel power in W
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int32_t P; // battery output power in W (calculated)
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float VPV; // panel voltage in V
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float IPV; // panel current in A (calculated)
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bool LOAD; // virtual load output state (on if battery voltage reaches upper limit, off if battery reaches lower limit)
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uint8_t CS; // current state of operation e.g. OFF or Bulk
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uint8_t ERR; // error code
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uint32_t OR; // off reason
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uint32_t HSDS; // day sequence number 1...365
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float H19; // yield total kWh
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float H20; // yield today kWh
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int32_t H21; // maximum power today W
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float H22; // yield yesterday kWh
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int32_t H23; // maximum power yesterday W
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frozen::string const& getMpptAsString() const; // state of mppt as string
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frozen::string const& getCsAsString() const; // current state as string
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frozen::string const& getErrAsString() const; // error state as string
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frozen::string const& getOrAsString() const; // off reason as string
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};
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struct veShuntStruct : veStruct {
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int32_t T; // Battery temperature
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bool tempPresent; // Battery temperature sensor is attached to the shunt
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int32_t P; // Instantaneous power
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int32_t CE; // Consumed Amp Hours
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int32_t SOC; // State-of-charge
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uint32_t TTG; // Time-to-go
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bool ALARM; // Alarm condition active
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uint32_t AR; // Alarm Reason
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int32_t H1; // Depth of the deepest discharge
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int32_t H2; // Depth of the last discharge
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int32_t H3; // Depth of the average discharge
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int32_t H4; // Number of charge cycles
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int32_t H5; // Number of full discharges
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int32_t H6; // Cumulative Amp Hours drawn
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int32_t H7; // Minimum main (battery) voltage
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int32_t H8; // Maximum main (battery) voltage
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int32_t H9; // Number of seconds since last full charge
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int32_t H10; // Number of automatic synchronizations
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int32_t H11; // Number of low main voltage alarms
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int32_t H12; // Number of high main voltage alarms
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int32_t H13; // Number of low auxiliary voltage alarms
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int32_t H14; // Number of high auxiliary voltage alarms
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int32_t H15; // Minimum auxiliary (battery) voltage
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int32_t H16; // Maximum auxiliary (battery) voltage
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int32_t H17; // Amount of discharged energy
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int32_t H18; // Amount of charged energy
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};
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