chore: snapshot production code before Apple Design UI refinement

This commit is contained in:
lingniu
2026-09-17 18:05:57 +08:00
parent 9f0a87f49e
commit f7e7176f88
90 changed files with 8990 additions and 328 deletions
@@ -0,0 +1,660 @@
package main
import (
"bytes"
"compress/gzip"
"encoding/csv"
"encoding/json"
"fmt"
"io"
"math"
"net/http"
"net/url"
"os"
"path/filepath"
"sort"
"strconv"
"strings"
"sync"
"time"
"lingniu/vehicle-data-platform/apps/api/internal/openplatform"
)
const (
baseURL = "http://115.29.187.205:20200"
hydrogenEnergyKWh = 16.0
maxIntegrationGap = 30 * time.Second
)
type vehicleMetadata struct {
VIN string `json:"vin"`
Plate string `json:"plate"`
Model string `json:"model"`
BatteryCapacityKWh float64 `json:"battery_capacity_kwh"`
TankCapacityL float64 `json:"tank_capacity_l"`
}
type rawFrame struct {
TS string `json:"ts"`
FrameID string `json:"frame_id"`
EventID string `json:"event_id"`
MessageID int `json:"message_id"`
EventTime string `json:"event_time"`
ParseStatus string `json:"parse_status"`
SourceEndpoint string `json:"source_endpoint"`
VIN string `json:"vin"`
ParsedFields map[string]any `json:"parsed_fields"`
}
type rawResponse struct {
Items []rawFrame `json:"items"`
Total int `json:"total"`
}
type energySample struct {
At time.Time
VehicleStatus int
ChargeStatus int
SOC float64
Mileage float64
BatteryVoltageV float64
BatteryCurrentA float64
FuelCellVoltageV float64
FuelCellCurrentA float64
HasSOC bool
HasMileage bool
HasBatteryPower bool
HasFuelCellPower bool
HasVehicleStatus bool
HasChargeStatus bool
}
type energyResult struct {
FirstTime string `json:"firstTime"`
LastTime string `json:"lastTime"`
StartSOC float64 `json:"startSoc"`
EndSOC float64 `json:"endSoc"`
SOCChangePctEndMinusStart float64 `json:"socChangePctEndMinusStart"`
StoredEnergyChangeKWhSOC float64 `json:"storedEnergyChangeKWhSoc"`
BatteryNetOutputKWhSOC float64 `json:"batteryNetOutputKWhSoc"`
BatteryNetOutputKWhIntegrated float64 `json:"batteryNetOutputKWhIntegrated"`
FuelCellOutputKWhIntegrated float64 `json:"fuelCellOutputKWhIntegrated"`
BatteryCoverageSeconds float64 `json:"batteryCoverageSeconds"`
FuelCellCoverageSeconds float64 `json:"fuelCellCoverageSeconds"`
OperatingSpanSeconds float64 `json:"operatingSpanSeconds"`
BatteryCoverageRatio float64 `json:"batteryCoverageRatio"`
FuelCellCoverageRatio float64 `json:"fuelCellCoverageRatio"`
ExternalChargeFrameCount int `json:"externalChargeFrameCount"`
EnergySampleCount int `json:"energySampleCount"`
}
type row struct {
Date string `json:"date"`
Plate string `json:"plate"`
VIN string `json:"vin"`
Model string `json:"model"`
RawFrameCount int `json:"rawFrameCount"`
CurrentQuality string `json:"currentQuality"`
CurrentReason string `json:"currentReason"`
RefuelCount int `json:"refuelCount"`
ChargeCount int `json:"chargeCount"`
TotalMileageKm float64 `json:"totalMileageKm"`
PureElectricMileageKm float64 `json:"pureElectricMileageKm"`
CurrentMixedMileageKm float64 `json:"currentMixedMileageKm"`
PhysicalHydrogenKg float64 `json:"physicalHydrogenKg"`
CurrentSOCBalancedKg float64 `json:"currentSocBalancedKg"`
CurrentRatePerMixedKm float64 `json:"currentRatePerMixedKm"`
PhysicalRatePerTotalKm float64 `json:"physicalRatePerTotalKm"`
FullDayStartSOC float64 `json:"fullDayStartSoc"`
FullDayEndSOC float64 `json:"fullDayEndSoc"`
FullDaySOCChangePct float64 `json:"fullDaySocChangePct"`
StoredEnergyChangeKWhSOC float64 `json:"storedEnergyChangeKWhSoc"`
BatteryEquivalentKgFixed16 float64 `json:"batteryEquivalentKgFixed16"`
StandardLikeBalancedKg float64 `json:"standardLikeBalancedKg"`
StandardLikeRatePerTotalKm float64 `json:"standardLikeRatePerTotalKm"`
StandardLikeApplicable bool `json:"standardLikeApplicable"`
StandardLikeReason string `json:"standardLikeReason"`
BatteryNetOutputKWhIntegrated float64 `json:"batteryNetOutputKWhIntegrated"`
FuelCellOutputKWhIntegrated float64 `json:"fuelCellOutputKWhIntegrated"`
BatteryEnergyShare float64 `json:"batteryEnergyShare"`
FuelCellEnergyShare float64 `json:"fuelCellEnergyShare"`
BatteryContributionKm float64 `json:"batteryContributionKm"`
FuelCellContributionKm float64 `json:"fuelCellContributionKm"`
HydrogenRatePerFCContributionKm float64 `json:"hydrogenRatePerFcContributionKm"`
BatteryCoverageRatio float64 `json:"batteryCoverageRatio"`
FuelCellCoverageRatio float64 `json:"fuelCellCoverageRatio"`
ExternalChargeFrameCount int `json:"externalChargeFrameCount"`
PowerIntegrationUsable bool `json:"powerIntegrationUsable"`
}
type job struct {
Vehicle vehicleMetadata
Date string
}
func main() {
if len(os.Args) != 5 {
panic("usage: standard-model-trial <metadata.json> <start-date> <end-date> <output-dir>")
}
metadataPath, startDate, endDate, outputDir := os.Args[1], os.Args[2], os.Args[3], os.Args[4]
start := mustDate(startDate)
end := mustDate(endDate)
if end.Before(start) {
panic("end date is before start date")
}
var vehicles []vehicleMetadata
mustReadJSON(metadataPath, &vehicles)
if len(vehicles) == 0 {
panic("metadata is empty")
}
if err := os.MkdirAll(outputDir, 0o755); err != nil {
panic(err)
}
jobs := make(chan job)
results := make(chan row)
errs := make(chan error, 128)
var wg sync.WaitGroup
for worker := 0; worker < 16; worker++ {
wg.Add(1)
go func() {
defer wg.Done()
for item := range jobs {
result, err := process(item)
if err != nil {
errs <- fmt.Errorf("%s %s %s: %w", item.Date, item.Vehicle.Plate, item.Vehicle.VIN, err)
continue
}
if result.RawFrameCount > 0 {
results <- result
}
}
}()
}
go func() {
for day := start; !day.After(end); day = day.AddDate(0, 0, 1) {
for _, vehicle := range vehicles {
if len(strings.TrimSpace(vehicle.VIN)) != 17 || vehicle.TankCapacityL <= 0 || vehicle.BatteryCapacityKWh <= 0 {
continue
}
jobs <- job{Vehicle: vehicle, Date: day.Format("2006-01-02")}
}
}
close(jobs)
wg.Wait()
close(results)
close(errs)
}()
var rows []row
completed := 0
for result := range results {
rows = append(rows, result)
completed++
if completed%25 == 0 {
fmt.Fprintf(os.Stderr, "completed=%d latest=%s %s quality=%s raw=%d\n", completed, result.Date, result.Plate, result.CurrentQuality, result.RawFrameCount)
}
}
var errorMessages []string
for err := range errs {
errorMessages = append(errorMessages, err.Error())
}
if len(errorMessages) > 0 {
panic(strings.Join(errorMessages, "\n"))
}
sort.Slice(rows, func(i, j int) bool {
if rows[i].Date != rows[j].Date {
return rows[i].Date < rows[j].Date
}
if rows[i].Plate != rows[j].Plate {
return rows[i].Plate < rows[j].Plate
}
return rows[i].VIN < rows[j].VIN
})
writeJSON(filepath.Join(outputDir, "results.json"), rows)
writeCSV(filepath.Join(outputDir, "results.csv"), rows)
writeJSON(filepath.Join(outputDir, "summary.json"), summarize(rows))
fmt.Printf("vehicle_days=%d output=%s\n", len(rows), outputDir)
}
func process(item job) (row, error) {
frames, total, err := fetchFrames(item.Vehicle.VIN, item.Date)
if err != nil || total == 0 {
return row{Date: item.Date, Plate: item.Vehicle.Plate, VIN: item.Vehicle.VIN, Model: item.Vehicle.Model, RawFrameCount: total}, err
}
sort.SliceStable(frames, func(i, j int) bool {
if frames[i].EventTime != frames[j].EventTime {
return frames[i].EventTime < frames[j].EventTime
}
return frames[i].EventID < frames[j].EventID
})
observations := make([]openplatform.HydrogenObservation, 0, len(frames))
energySamples := make([]energySample, 0, len(frames))
for _, frame := range frames {
if observation, ok := observationFromFrame(frame, item.Vehicle.TankCapacityL, item.Date); ok {
observations = append(observations, observation)
}
if sample, ok := energySampleFromFrame(frame, item.Date); ok {
energySamples = append(energySamples, sample)
}
}
params := map[string]openplatform.HydrogenCalculationParameters{
item.Vehicle.VIN: {BatteryCapacityKWh: item.Vehicle.BatteryCapacityKWh, HydrogenEnergyKWhKg: hydrogenEnergyKWh},
}
stats := openplatform.BuildHydrogenDailyStatsOrderedWithParameters(observations, item.Date, 0.05, 20, params)
stat := openplatform.HydrogenDailyStat{VIN: item.Vehicle.VIN, Date: item.Date, QualityStatus: "NO_DATA", QualityReason: "无有效压力温度样本"}
if len(stats) == 1 {
stat = stats[0]
}
energy := calculateEnergy(energySamples, item.Vehicle.BatteryCapacityKWh)
totalMileage := stat.MixedMileageKm + stat.PureElectricMileageKm
result := row{
Date: item.Date, Plate: item.Vehicle.Plate, VIN: item.Vehicle.VIN, Model: item.Vehicle.Model,
RawFrameCount: total, CurrentQuality: stat.QualityStatus, CurrentReason: stat.QualityReason,
RefuelCount: stat.RefuelCount, ChargeCount: stat.ChargeCount,
TotalMileageKm: totalMileage, PureElectricMileageKm: stat.PureElectricMileageKm,
CurrentMixedMileageKm: stat.MixedMileageKm, PhysicalHydrogenKg: stat.ConsumptionKg,
FullDayStartSOC: energy.StartSOC, FullDayEndSOC: energy.EndSOC,
FullDaySOCChangePct: energy.SOCChangePctEndMinusStart,
StoredEnergyChangeKWhSOC: energy.StoredEnergyChangeKWhSOC,
BatteryNetOutputKWhIntegrated: energy.BatteryNetOutputKWhIntegrated,
FuelCellOutputKWhIntegrated: energy.FuelCellOutputKWhIntegrated,
BatteryCoverageRatio: energy.BatteryCoverageRatio,
FuelCellCoverageRatio: energy.FuelCellCoverageRatio,
ExternalChargeFrameCount: energy.ExternalChargeFrameCount,
}
if stat.SOCBalancedConsumptionKg != nil {
result.CurrentSOCBalancedKg = *stat.SOCBalancedConsumptionKg
}
if stat.SOCBalancedKgPer100Km != nil {
result.CurrentRatePerMixedKm = *stat.SOCBalancedKgPer100Km
}
if totalMileage > 0 {
result.PhysicalRatePerTotalKm = round(stat.ConsumptionKg * 100 / totalMileage)
result.BatteryEquivalentKgFixed16 = round(-energy.StoredEnergyChangeKWhSOC / hydrogenEnergyKWh)
result.StandardLikeBalancedKg = round(stat.ConsumptionKg + result.BatteryEquivalentKgFixed16)
result.StandardLikeRatePerTotalKm = round(result.StandardLikeBalancedKg * 100 / totalMileage)
switch {
case energy.ExternalChargeFrameCount > 0:
result.StandardLikeReason = "检测到外部充电,整日SOC平衡修正不适用,应按CD/CS分段"
case result.StandardLikeBalancedKg < 0:
result.StandardLikeReason = "SOC平衡氢量为负,端点、SOC或换算系数需复核"
default:
result.StandardLikeApplicable = true
}
} else {
result.StandardLikeReason = "无有效总里程"
}
// The GB/T 43252 contribution trial uses positive battery net output and
// fuel-cell output measured over non-external-charge vehicle-on intervals.
// Coverage gates prevent sparse power fields from being treated as precise.
if totalMileage >= 10 && stat.ConsumptionKg > 0 && energy.ExternalChargeFrameCount == 0 && energy.BatteryCoverageRatio >= 0.98 && energy.FuelCellCoverageRatio >= 0.98 && energy.FuelCellOutputKWhIntegrated > 0 {
batteryOutput := math.Max(0, energy.BatteryNetOutputKWhIntegrated)
totalOutput := batteryOutput + energy.FuelCellOutputKWhIntegrated
if totalOutput > 0 {
result.PowerIntegrationUsable = true
result.BatteryEnergyShare = round(batteryOutput / totalOutput)
result.FuelCellEnergyShare = round(energy.FuelCellOutputKWhIntegrated / totalOutput)
result.BatteryContributionKm = round(totalMileage * result.BatteryEnergyShare)
result.FuelCellContributionKm = round(totalMileage * result.FuelCellEnergyShare)
if result.FuelCellContributionKm > 0 {
result.HydrogenRatePerFCContributionKm = round(stat.ConsumptionKg * 100 / result.FuelCellContributionKm)
}
}
}
return result, nil
}
func calculateEnergy(samples []energySample, batteryCapacityKWh float64) energyResult {
result := energyResult{EnergySampleCount: len(samples)}
if len(samples) == 0 {
return result
}
for _, sample := range samples {
if sample.HasChargeStatus && sample.ChargeStatus == 1 {
result.ExternalChargeFrameCount++
}
}
operating := make([]energySample, 0, len(samples))
for _, sample := range samples {
if sample.HasVehicleStatus && sample.VehicleStatus == 1 && (!sample.HasChargeStatus || sample.ChargeStatus != 1) {
operating = append(operating, sample)
}
}
if len(operating) == 0 {
return result
}
result.FirstTime = operating[0].At.Format(time.RFC3339)
result.LastTime = operating[len(operating)-1].At.Format(time.RFC3339)
result.OperatingSpanSeconds = operating[len(operating)-1].At.Sub(operating[0].At).Seconds()
for _, sample := range operating {
if sample.HasSOC {
result.StartSOC = sample.SOC
break
}
}
for index := len(operating) - 1; index >= 0; index-- {
if operating[index].HasSOC {
result.EndSOC = operating[index].SOC
break
}
}
result.SOCChangePctEndMinusStart = round(result.EndSOC - result.StartSOC)
result.StoredEnergyChangeKWhSOC = round(batteryCapacityKWh * result.SOCChangePctEndMinusStart / 100)
result.BatteryNetOutputKWhSOC = round(-result.StoredEnergyChangeKWhSOC)
for index := 1; index < len(operating); index++ {
previous, current := operating[index-1], operating[index]
delta := current.At.Sub(previous.At)
if delta <= 0 || delta > maxIntegrationGap {
continue
}
hours := delta.Hours()
if previous.HasBatteryPower && current.HasBatteryPower {
power0 := previous.BatteryVoltageV * previous.BatteryCurrentA / 1000
power1 := current.BatteryVoltageV * current.BatteryCurrentA / 1000
result.BatteryNetOutputKWhIntegrated += (power0 + power1) * 0.5 * hours
result.BatteryCoverageSeconds += delta.Seconds()
}
if previous.HasFuelCellPower && current.HasFuelCellPower {
power0 := previous.FuelCellVoltageV * previous.FuelCellCurrentA / 1000
power1 := current.FuelCellVoltageV * current.FuelCellCurrentA / 1000
result.FuelCellOutputKWhIntegrated += (power0 + power1) * 0.5 * hours
result.FuelCellCoverageSeconds += delta.Seconds()
}
}
result.BatteryNetOutputKWhIntegrated = round(result.BatteryNetOutputKWhIntegrated)
result.FuelCellOutputKWhIntegrated = round(result.FuelCellOutputKWhIntegrated)
if result.OperatingSpanSeconds > 0 {
result.BatteryCoverageRatio = round(result.BatteryCoverageSeconds / result.OperatingSpanSeconds)
result.FuelCellCoverageRatio = round(result.FuelCellCoverageSeconds / result.OperatingSpanSeconds)
}
return result
}
func observationFromFrame(frame rawFrame, tankCapacity float64, statDate string) (openplatform.HydrogenObservation, bool) {
if frame.MessageID != 2 || !strings.EqualFold(frame.ParseStatus, "OK") {
return openplatform.HydrogenObservation{}, false
}
pressure, pressureOK := number(frame.ParsedFields["gb32960.fuel_cell.max_hydrogen_pressure_mpa"])
temperature, temperatureOK := number(frame.ParsedFields["gb32960.fuel_cell.max_hydrogen_temperature_c"])
if !pressureOK || !temperatureOK || pressure <= 0 || pressure > 70 || temperature <= -40 || temperature > 726.85 {
return openplatform.HydrogenObservation{}, false
}
mass, ok := openplatform.PressureHydrogenMassKg(pressure, temperature, tankCapacity)
if !ok {
return openplatform.HydrogenObservation{}, false
}
step, _ := openplatform.PressureHydrogenMassKg(math.Max(0, pressure-0.2), temperature, tankCapacity)
at, err := parseEventTime(frame.EventTime)
if err != nil || at.Format("2006-01-02") != statDate {
return openplatform.HydrogenObservation{}, false
}
parsed, _ := json.Marshal(frame.ParsedFields)
_, _, active, known, _ := openplatform.ExtractHydrogenTelemetry(string(parsed))
observation := openplatform.HydrogenObservation{
VIN: frame.VIN, Source: frame.SourceEndpoint, EventID: frame.EventID, ObservedAt: at,
MassKg: mass, TankCapacityLiter: tankCapacity, PressureMPa: pressure, TemperatureC: temperature,
NoiseKg: math.Min(1, math.Max(0.05, mass-step)), RefuelThresholdKg: math.Max(1, mass*0.05),
FuelCellActive: active, FuelCellStateKnown: known,
}
if value, ok := number(frame.ParsedFields["gb32960.vehicle.soc_percent"]); ok && value >= 0 && value <= 100 {
observation.SOCPercent, observation.SOCKnown = value, true
}
if value, ok := number(frame.ParsedFields["gb32960.vehicle.total_mileage_km"]); ok && value >= 0 {
observation.MileageKm, observation.MileageKnown = value, true
}
if value, ok := number(frame.ParsedFields["gb32960.vehicle.vehicle_status"]); ok {
observation.VehicleState, observation.VehicleStateKnown = int(value), value >= 0 && value <= 255
}
if value, ok := number(frame.ParsedFields["gb32960.vehicle.charge_status"]); ok {
observation.ChargeState, observation.ChargeStateKnown = int(value), value >= 0 && value <= 255
}
if value, ok := number(frame.ParsedFields["gb32960.vehicle.running_mode"]); ok {
observation.RunningMode, observation.RunningModeKnown = int(value), value >= 0 && value <= 255
}
return observation, true
}
func energySampleFromFrame(frame rawFrame, statDate string) (energySample, bool) {
if frame.MessageID != 2 || !strings.EqualFold(frame.ParseStatus, "OK") {
return energySample{}, false
}
at, err := parseEventTime(frame.EventTime)
if err != nil || at.Format("2006-01-02") != statDate {
return energySample{}, false
}
sample := energySample{At: at}
if value, ok := number(frame.ParsedFields["gb32960.vehicle.vehicle_status"]); ok {
sample.VehicleStatus, sample.HasVehicleStatus = int(value), true
}
if value, ok := number(frame.ParsedFields["gb32960.vehicle.charge_status"]); ok {
sample.ChargeStatus, sample.HasChargeStatus = int(value), true
}
if value, ok := number(frame.ParsedFields["gb32960.vehicle.soc_percent"]); ok && value >= 0 && value <= 100 {
sample.SOC, sample.HasSOC = value, true
}
if value, ok := number(frame.ParsedFields["gb32960.vehicle.total_mileage_km"]); ok && value >= 0 {
sample.Mileage, sample.HasMileage = value, true
}
batteryVoltage, batteryVoltageOK := number(frame.ParsedFields["gb32960.vehicle.total_voltage_v"])
batteryCurrent, batteryCurrentOK := number(frame.ParsedFields["gb32960.vehicle.total_current_a"])
if batteryVoltageOK && batteryCurrentOK && batteryVoltage > 0 && batteryVoltage <= 1000 && batteryCurrent >= -1000 && batteryCurrent <= 1000 {
sample.BatteryVoltageV, sample.BatteryCurrentA, sample.HasBatteryPower = batteryVoltage, batteryCurrent, true
}
fuelCellVoltage, fuelCellVoltageOK := number(frame.ParsedFields["gb32960.fuel_cell.fuel_cell_voltage_v"])
fuelCellCurrent, fuelCellCurrentOK := number(frame.ParsedFields["gb32960.fuel_cell.fuel_cell_current_a"])
if fuelCellVoltageOK && fuelCellCurrentOK && fuelCellVoltage >= 0 && fuelCellVoltage <= 2000 && fuelCellCurrent >= 0 && fuelCellCurrent <= 2000 {
sample.FuelCellVoltageV, sample.FuelCellCurrentA, sample.HasFuelCellPower = fuelCellVoltage, fuelCellCurrent, true
}
return sample, sample.HasVehicleStatus || sample.HasSOC || sample.HasBatteryPower || sample.HasFuelCellPower
}
func fetchFrames(vin, date string) ([]rawFrame, int, error) {
const limit = 500
first, err := fetchPage(vin, date, 0, limit, true)
if err != nil {
return nil, 0, err
}
frames := append([]rawFrame(nil), first.Items...)
for offset := limit; offset < first.Total; offset += limit {
page, err := fetchPage(vin, date, offset, limit, false)
if err != nil {
return nil, first.Total, err
}
frames = append(frames, page.Items...)
}
if len(frames) != first.Total {
return nil, first.Total, fmt.Errorf("API total=%d fetched=%d", first.Total, len(frames))
}
return frames, first.Total, nil
}
func fetchPage(vin, date string, offset, limit int, includeTotal bool) (rawResponse, error) {
query := url.Values{
"protocol": {"GB32960"}, "vin": {vin},
"dateFrom": {date + " 00:00:00"}, "dateTo": {date + " 23:59:59"},
"orderBy": {"eventTime"}, "limit": {strconv.Itoa(limit)}, "offset": {strconv.Itoa(offset)},
"includeFields": {"true"}, "includePayload": {"false"}, "includeTotal": {strconv.FormatBool(includeTotal)},
}
var response *http.Response
var err error
for attempt := 1; attempt <= 4; attempt++ {
request, _ := http.NewRequest(http.MethodGet, baseURL+"/api/history/raw-frames?"+query.Encode(), nil)
request.Header.Set("Accept-Encoding", "gzip")
response, err = (&http.Client{Timeout: 90 * time.Second}).Do(request)
if err == nil {
break
}
if attempt < 4 {
time.Sleep(time.Duration(attempt) * 500 * time.Millisecond)
}
}
if err != nil {
return rawResponse{}, err
}
defer response.Body.Close()
if response.StatusCode != http.StatusOK {
body, _ := io.ReadAll(response.Body)
if response.StatusCode == http.StatusInternalServerError && bytes.Contains(body, []byte("Table does not exist")) {
return rawResponse{}, nil
}
return rawResponse{}, fmt.Errorf("HTTP %d: %s", response.StatusCode, body)
}
var reader io.Reader = response.Body
if response.Header.Get("Content-Encoding") == "gzip" {
gzipReader, err := gzip.NewReader(response.Body)
if err != nil {
return rawResponse{}, err
}
defer gzipReader.Close()
reader = gzipReader
}
var result rawResponse
if err := json.NewDecoder(reader).Decode(&result); err != nil {
return rawResponse{}, err
}
return result, nil
}
func summarize(rows []row) map[string]any {
byDate := map[string]map[string]any{}
for _, date := range uniqueDates(rows) {
var dateRows []row
for _, value := range rows {
if value.Date == date {
dateRows = append(dateRows, value)
}
}
quality := map[string]int{}
valid := 0
standardApplicable := 0
powerUsable := 0
physicalTotal, balancedTotal, mileageTotal, balancedMileageTotal := 0.0, 0.0, 0.0, 0.0
for _, value := range dateRows {
quality[value.CurrentQuality]++
if value.CurrentQuality != "NO_DATA" && value.TotalMileageKm > 0 {
valid++
physicalTotal += value.PhysicalHydrogenKg
mileageTotal += value.TotalMileageKm
}
if value.StandardLikeApplicable {
standardApplicable++
balancedTotal += value.StandardLikeBalancedKg
balancedMileageTotal += value.TotalMileageKm
}
if value.PowerIntegrationUsable {
powerUsable++
}
}
physicalRate, balancedRate := 0.0, 0.0
if mileageTotal > 0 {
physicalRate = round(physicalTotal * 100 / mileageTotal)
}
if balancedMileageTotal > 0 {
balancedRate = round(balancedTotal * 100 / balancedMileageTotal)
}
byDate[date] = map[string]any{
"vehicleDaysWithFrames": len(dateRows), "validVehicleDays": valid, "standardLikeApplicableVehicleDays": standardApplicable, "qualityCounts": quality,
"powerIntegrationUsableVehicleDays": powerUsable, "totalMileageKm": round(mileageTotal),
"physicalHydrogenKg": round(physicalTotal), "standardLikeBalancedHydrogenKg": round(balancedTotal),
"standardLikeMileageKm": round(balancedMileageTotal), "fleetPhysicalRateKgPer100Km": physicalRate, "fleetStandardLikeRateKgPer100Km": balancedRate,
}
}
return map[string]any{"vehicleDays": len(rows), "byDate": byDate}
}
func writeCSV(path string, rows []row) {
file, err := os.Create(path)
if err != nil {
panic(err)
}
defer file.Close()
writer := csv.NewWriter(file)
defer writer.Flush()
headers := []string{"日期", "车牌", "VIN", "车型", "原始帧数", "当前质量状态", "当前质量原因", "加氢次数", "充电次数", "总里程km", "当前纯电里程km", "当前混动里程km", "物理耗氢kg", "当前SOC平衡氢量kg", "当前修正氢耗_按混动里程", "物理氢耗_按总里程", "全日起始SOC", "全日终止SOC", "全日SOC变化_末减初", "全日电池储能变化kWh", "电池等效氢量_16kWhkg", "标准式平衡氢量kg", "标准式平衡氢耗_按总里程", "标准式修正可用", "标准式修正说明", "电流积分电池净输出kWh", "燃料电池输出积分kWh", "电池能量贡献占比", "燃料电池能量贡献占比", "电池贡献里程km", "燃料电池贡献里程km", "按燃料电池贡献里程氢耗", "电池功率覆盖率", "燃料电池功率覆盖率", "外充状态帧数", "功率积分可用"}
_ = writer.Write(headers)
for _, value := range rows {
_ = writer.Write([]string{
value.Date, value.Plate, value.VIN, value.Model, integer(value.RawFrameCount), value.CurrentQuality, value.CurrentReason,
integer(value.RefuelCount), integer(value.ChargeCount), decimal(value.TotalMileageKm), decimal(value.PureElectricMileageKm),
decimal(value.CurrentMixedMileageKm), decimal(value.PhysicalHydrogenKg), decimal(value.CurrentSOCBalancedKg),
decimal(value.CurrentRatePerMixedKm), decimal(value.PhysicalRatePerTotalKm), decimal(value.FullDayStartSOC),
decimal(value.FullDayEndSOC), decimal(value.FullDaySOCChangePct), decimal(value.StoredEnergyChangeKWhSOC),
decimal(value.BatteryEquivalentKgFixed16), decimal(value.StandardLikeBalancedKg), decimal(value.StandardLikeRatePerTotalKm),
strconv.FormatBool(value.StandardLikeApplicable), value.StandardLikeReason,
decimal(value.BatteryNetOutputKWhIntegrated), decimal(value.FuelCellOutputKWhIntegrated), decimal(value.BatteryEnergyShare),
decimal(value.FuelCellEnergyShare), decimal(value.BatteryContributionKm), decimal(value.FuelCellContributionKm),
decimal(value.HydrogenRatePerFCContributionKm), decimal(value.BatteryCoverageRatio), decimal(value.FuelCellCoverageRatio),
integer(value.ExternalChargeFrameCount), strconv.FormatBool(value.PowerIntegrationUsable),
})
}
}
func uniqueDates(rows []row) []string {
seen := map[string]bool{}
for _, value := range rows {
seen[value.Date] = true
}
dates := make([]string, 0, len(seen))
for date := range seen {
dates = append(dates, date)
}
sort.Strings(dates)
return dates
}
func number(value any) (float64, bool) {
switch typed := value.(type) {
case float64:
return typed, true
case json.Number:
parsed, err := typed.Float64()
return parsed, err == nil
case string:
parsed, err := strconv.ParseFloat(strings.TrimSpace(typed), 64)
return parsed, err == nil
default:
return 0, false
}
}
func parseEventTime(value string) (time.Time, error) {
location := time.FixedZone("CST", 8*3600)
if parsed, err := time.ParseInLocation("2006-01-02 15:04:05.000", value, location); err == nil {
return parsed, nil
}
return time.ParseInLocation("2006-01-02 15:04:05", value, location)
}
func mustDate(value string) time.Time {
parsed, err := time.Parse("2006-01-02", value)
if err != nil {
panic(err)
}
return parsed
}
func mustReadJSON(path string, target any) {
data, err := os.ReadFile(path)
if err != nil {
panic(err)
}
if err := json.Unmarshal(data, target); err != nil {
panic(err)
}
}
func writeJSON(path string, value any) {
data, err := json.MarshalIndent(value, "", " ")
if err != nil {
panic(err)
}
if err := os.WriteFile(path, data, 0o644); err != nil {
panic(err)
}
}
func round(value float64) float64 { return math.Round(value*1000) / 1000 }
func decimal(value float64) string { return strconv.FormatFloat(value, 'f', 3, 64) }
func integer(value int) string { return strconv.Itoa(value) }