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293 import std/asyncdispatch
import std/[httpclient, times]
import std/[tables, math, json]
import utils
type Operator = enum
div10, div100, none,
read16BitSignedDiv10, read16BitSignedDiv100, read16BitSignedNone
read32BitUnsignedDiv10, read32BitUnsignedDiv100, read32BitUnsignedNone
read32BitSignedDiv10 , read32BitSignedDiv100, read32BitSignedNone
var inverterModel = {
14: "X3-Hybrid G4",
15: "X1-Hybrid G4",
23: "X1-Hybrid G5"
}.toTable
var inverterMode = {
0: "Waiting",
1: "Checking",
2: "Normal",
3: "Off",
4: "Permanent Failure",
5: "Updating",
6: "EPS Check",
7: "EPS Mode",
8: "Self Test",
9: "Idle",
10: "Standby"
}.toTable
var batteryMode = {
0: "Self Use Mode",
1: "Force Time use",
2: "Back Up Mode",
3: "Feed-in Priority"
}.toTable
var batteryStatus = {
0: "Failure",
1: "OK"
}.toTable
proc convert (json: JsonNode, operator: Operator, a: int, b:int = 0): JsonNode =
result = case operator
of div10:
newJFloat(utils.round(json["Data"][a].getInt / 10, 1))
of div100:
newJFloat(utils.round(json["Data"][a].getInt / 100, 2))
of none:
json["Data"][a]
of read16BitSignedDiv10:
newJFloat(utils.round(
read16BitSigned(
json["Data"][a].getInt
) / 10
, 1))
of read16BitSignedDiv100:
newJFloat(utils.round(
read16BitSigned(
json["Data"][a].getInt
) / 100
, 2))
of read16BitSignedNone:
newJInt(
read16BitSigned(
json["Data"][a].getInt
)
)
of read32BitUnsignedDiv10:
newJFloat(utils.round(
read32BitUnsigned(
json["Data"][a].getInt,
json["Data"][b].getInt
).float64 / 10.float64
, 1))
of read32BitUnsignedDiv100:
newJFloat(utils.round(
read32BitUnsigned(
json["Data"][a].getInt,
json["Data"][b].getInt
).float64 / 100.float64
, 2))
of read32BitUnsignedNone:
newJInt(
read32BitUnsigned(
json["Data"][a].getInt,
json["Data"][b].getInt
)
)
of read32BitSignedDiv10:
newJFloat(utils.round(
read32BitSigned(
json["Data"][a].getInt,
json["Data"][b].getInt
).float64 / 10.float64
, 1))
of read32BitSignedDiv100:
newJFloat(utils.round(
read32BitSigned(
json["Data"][a].getInt,
json["Data"][b].getInt
).float64 / 100.float64
, 2))
of read32BitSignedNone:
newJInt(
read32BitSigned(
json["Data"][a].getInt,
json["Data"][b].getInt
)
)
proc parseInverterData* (json: JsonNode): JsonNode =
result = newJObject()
result["model"] = newJString(inverterModel[json["type"].getInt])
result["registration_number"] = json["sn"]
case json["type"].getInt:
# X3-Hybrid G4
of 14:
result["serial_number"] = json["Information"][2]
result["firmware_version"] = json["ver"]
result["mode"] = newJString(inverterMode[json["Data"][19].getInt])
# volts
result["l1_voltage"] = convert(json, div10, 0)
result["l2_voltage"] = convert(json, div10, 1)
result["l3_voltage"] = convert(json, div10, 2)
result["eps_l1_voltage"] = convert(json, div10, 23)
result["eps_l2_voltage"] = convert(json, div10, 23)
result["eps_l3_voltage"] = convert(json, div10, 25)
result["pv1_voltage"] = convert(json, div10, 10)
result["pv2_voltage"] = convert(json, div10, 11)
# amps
result["l1_current"] = convert(json, div10, 3)
result["l2_current"] = convert(json, div10, 4)
result["l3_current"] = convert(json, div10, 5)
result["eps_l1_current"] = convert(json, div10, 26)
result["eps_l2_current"] = convert(json, div10, 27)
result["eps_l3_current"] = convert(json, div10, 28)
result["pv1_current"] = convert(json, div10, 12)
result["pv2_current"] = convert(json, div10, 13)
# watts
result["l1_power"] = convert(json, none, 6)
result["l2_power"] = convert(json, none, 7)
result["l3_power"] = convert(json, none, 8)
result["eps_l1_power"] = convert(json, none, 29)
result["eps_l2_power"] = convert(json, none, 30)
result["eps_l3_power"] = convert(json, none, 31)
result["power"] = convert(json, none, 9)
result["pv1_power"] = convert(json, none, 14)
result["pv2_power"] = convert(json, none, 15)
result["pv_power"] = newJInt(json["Data"][14].getInt + json["Data"][15].getInt)
result["grid_in_power"] = convert(json, read32BitSignedNone, 34, 35)
result["power_total"] = convert(json, read16BitSignedNone, 47)
# hz
result["l1_frequency"] = convert(json, div100, 16)
result["l2_frequency"] = convert(json, div100, 17)
result["l3_frequency"] = convert(json, div100, 18)
# kwh
result["yield_energy_today"] = convert(json, div10, 70)
result["yield_energy_total"] = convert(json, read32BitUnsignedDiv10, 68, 69)
result["grid_out_energy_today"] = convert(json, div100, 92)
result["grid_in_energy_today"] = convert(json, div100, 90)
result["grid_in_energy_total"] = convert(json, read32BitUnsignedDiv100, 86, 87)
result["energy_total"] = convert(json, read32BitUnsignedDiv100, 88, 89)
# X4-Hybrid G4
# X4-Hybrid G5
of 15, 23:
result["serial_number"] = json["Information"][2]
result["firmware_version"] = json["ver"]
result["mode"] = newJString(inverterMode[json["Data"][10].getInt])
# volts
result["l1_voltage"] = convert(json, div10, 0)
result["eps_l1_voltage"] = convert(json, div10, 0)
result["pv1_voltage"] = convert(json, div10, 4)
result["pv2_voltage"] = convert(json, div10, 5)
# amps
result["l1_current"] = convert(json, read16BitSignedDiv10, 1)
result["eps_l1_current"] = convert(json, read16BitSignedDiv10, 1)
result["pv1_current"] = convert(json, div10, 6)
result["pv2_current"] = convert(json, div10, 7)
# watts
result["l1_power"] = convert(json, none, 2)
result["epsl1_power"] = convert(json, none, 2)
result["total_power"] = convert(json, none, 2)
result["pv1_power"] = convert(json, none, 8)
result["pv2_power"] = convert(json, none, 9)
result["pv_power"] = newJInt(json["Data"][8].getInt + json["Data"][9].getInt)
result["grid_in_power"] = convert(json, read32BitSignedNone, 32, 33)
# hz
result["l1_frequency"] = convert(json, div100, 3)
# kwh
result["grid_in_energy"] = convert(json, read32BitUnsignedDiv100, 34, 35)
result["yield_energy_today"] = convert(json, div10, 13)
result["yield_energy_total"] = convert(json, read32BitUnsignedDiv10, 11, 12)
result["energy_total"] = convert(json, read32BitUnsignedDiv100, 36, 37)
else:
result["error"] = newJString("Unknown model")
proc parseBatteryData* (json: JsonNode): JsonNode =
result = newJObject()
case json["type"].getInt:
# X3-Hybrid G4
of 14:
result["mode"] = newJString(batteryMode[json["Data"][168].getInt])
result["status"] = newJString(batteryStatus[json["Data"][45].getInt])
result["temperature"] = convert(json, read16BitSignedNone, 105)
# volts
result["voltage"] = convert(json, div100, 39)
# amps
result["current"] = convert(json, read16BitSignedDiv100, 40)
# watts
result["power"] = convert(json, read16BitSignedNone, 41)
# percent
result["soc"] = convert(json, none, 103)
# kwh
result["remaining_capacity"] = convert(json, div10, 106)
# kwh
result["discharge_today"] = convert(json, div10, 78)
result["charge_today"] = convert(json, div10, 79)
result["discharge_total"] = convert(json, read32BitUnsignedDiv10, 74, 75)
result["charge_total"] = convert(json, read32BitUnsignedDiv10, 76, 77)
# X1-Hybrid G4
# X1-Hybrid G5
of 15, 23:
result["temperature"] = convert(json, read16BitSignedNone, 17)
# volts
result["voltage"] = convert(json, div100, 14)
# amps
result["current"] = convert(json, div100, 15)
# watts
result["power"] = convert(json, none, 16)
# percent
result["soc"] = convert(json, none, 18)
# kwh
result["remaining_capacity"] = convert(json, div10, 106)
else:
result["error"] = newJString("Unknown model")
proc getSolaxData* (ip: string, password: string): Future[JsonNode] {.async.} =
result = newJObject()
result["last_update"] = newJInt(now().toTime.toUnix)
try:
let client = newAsyncHttpClient()
let body = "optType=ReadRealTimeData&pwd=" & password
let response = await client.postContent("http://" & ip, body)
let json = parseJson(response)
client.close()
for key, value in parseInverterData(json):
result["inverter_" & key] = value
for key, value in parseBatteryData(json):
result["battery_" & key] = value
except:
echo "Error[getSolaxData]:\n" & getCurrentExceptionMsg()
result["error"] = newJString(getCurrentExceptionMsg())