kpt-pasture/module/mqtt/mqtt_handle.go

package mqtt

import (
	"encoding/json"
	"kpt-pasture/model"
	"kpt-pasture/util"
	"strconv"
	"strings"

	"github.com/jinzhu/copier"

	"gitee.com/xuyiping_admin/pkg/logger/zaplog"
	"gitee.com/xuyiping_admin/pkg/xerr"
	"go.uber.org/zap"
	"gorm.io/gorm"
)

type DataInsertNeckRingLog struct {
	NeckRingOriginalData []*model.NeckRingOriginal
	NeckRingErrorData    []*model.NeckRingError
}

var (
	DSMLog = &DataInsertNeckRingLog{
		NeckRingOriginalData: make([]*model.NeckRingOriginal, 0),
		NeckRingErrorData:    make([]*model.NeckRingError, 0),
	}
	pastureMqttMap       = make(map[string]int64)
	isFindPastureMqttMap bool
)

func (e *Entry) NeckRingHandle(data []byte) {
	newData := e.MsgDataFormat2(data)
	if newData == nil {
		return
	}
	if len(newData.NeckRingErrorData) > 0 || len(newData.NeckRingOriginalData) > 0 {
		// 写入数据
		if err := e.CreatedData(newData); err != nil {
			zaplog.Error("Failed to create data", zap.Any("err", err), zap.Any("dataList", newData))
		}
	}
	return
}

func (e *Entry) FindPastureMqttMap() map[string]int64 {
	if isFindPastureMqttMap {
		return pastureMqttMap
	}
	appMqttList := make([]*model.AppMqtt, 0)
	if err := e.DB.Model(new(model.AppMqtt)).Find(&appMqttList).Error; err != nil {
		zaplog.Error("FindPastureMqttMap", zap.Any("err", err))
	}
	for _, v := range appMqttList {
		pastureMqttMap[v.ReceiveNumber] = v.PastureId
	}
	isFindPastureMqttMap = true
	return pastureMqttMap
}

// 处理批量数据
func (e *Entry) processBatch(batchList []*model.NeckRingOriginal) {
	// 初始化分类数据
	var (
		errorData    []*model.NeckRingError
		originalData []*model.NeckRingOriginal
	)

	// 分类数据
	for _, batch := range batchList {
		// 异常脖环数据
		if ok := util.IsValidFrameId(batch.Frameid); !ok {
			var ed model.NeckRingError
			err := copier.Copy(&ed, &batch)
			if err != nil {
				zaplog.Error("processBatch", zap.Any("copier", err), zap.Any("data", batch))
				continue
			}
			errorData = append(errorData, &ed)
		} else {
			originalData = append(originalData, batch)
		}
	}

	// 更新日志
	DSMLog.NeckRingErrorData = append(DSMLog.NeckRingErrorData, errorData...)
	DSMLog.NeckRingOriginalData = append(DSMLog.NeckRingOriginalData, originalData...)

	// 写入数据
	if err := e.CreatedData(DSMLog); err != nil {
		zaplog.Error("Failed to create data", zap.Any("err", err), zap.Any("dataList", DSMLog))
	}

	// 清空日志
	DSMLog.NeckRingErrorData = DSMLog.NeckRingErrorData[:0]
	DSMLog.NeckRingOriginalData = DSMLog.NeckRingOriginalData[:0]
}

func (e *Entry) CreatedData(DSMLog *DataInsertNeckRingLog) error {
	if err := e.DB.Transaction(func(tx *gorm.DB) error {
		if len(DSMLog.NeckRingErrorData) > 0 {
			if err := e.DB.Model(new(model.NeckRingError)).Create(DSMLog.NeckRingErrorData).Error; err != nil {
				return xerr.WithStack(err)
			}
		}

		if len(DSMLog.NeckRingOriginalData) > 0 {
			if err := e.DB.Model(new(model.NeckRingOriginal)).Create(DSMLog.NeckRingOriginalData).Error; err != nil {
				return xerr.WithStack(err)
			}
		}
		return nil
	}); err != nil {
		return xerr.WithStack(err)
	}
	return nil
}

func (e *Entry) MsgDataFormat2(msg []byte) *DataInsertNeckRingLog {
	neckLogList := &model.NeckRingWrapper{}
	if err := json.Unmarshal(msg, neckLogList); err != nil {
		zaplog.Error("MsgDataFormat", zap.Any("err", err), zap.Any("msg", string(msg)))
		return nil
	}
	if neckLogList.Type == "heartbeat" {
		return nil
	}

	normalOriginal := make([]*model.NeckRingOriginal, 0)
	errorOriginal := make([]*model.NeckRingError, 0)
	pastureMqttMap = e.FindPastureMqttMap()

	for _, neckLog := range neckLogList.NeckRing.NeckPck {
		newOriginal := model.NewNeckRingOriginal(neckLog, pastureMqttMap)
		if ok := util.IsValidFrameId(neckLog.Frameid); !ok {
			var ed model.NeckRingError
			if err := copier.Copy(&ed, &newOriginal); err != nil {
				zaplog.Error("MsgDataFormat2", zap.Any("copier", err), zap.Any("neckLog", neckLog))
				continue
			}
			errorOriginal = append(errorOriginal, &ed)
		} else {
			activeDate, hours := util.GetNeckRingActiveTimer(neckLog.Frameid)
			newOriginal.ActiveDate = activeDate
			newOriginal.Hours = int32(hours)
			normalOriginal = append(normalOriginal, newOriginal)
		}
	}
	return &DataInsertNeckRingLog{
		NeckRingErrorData:    errorOriginal,
		NeckRingOriginalData: normalOriginal,
	}
}

func (e *Entry) MsgDataFormat(msg []byte) []*model.NeckRingOriginal {
	msgData := make(map[string]interface{})
	pairs := strings.Split(util.MsgFormat(string(msg)), " ")
	for _, pair := range pairs {
		parts := strings.SplitN(pair, ":", 2)
		if len(parts) != 2 {
			continue
		}
		key, value := parts[0], parts[1]
		if len(key) == 0 {
			continue
		}
		msgData[key] = value
	}

	softVer := int64(0)
	if softVerInter, ok := msgData["SOFT_VER"]; ok {
		if softVerstr, ok := softVerInter.(string); ok {
			softVer, _ = strconv.ParseInt(softVerstr, 10, 64)
		}
	}

	if softVer <= 0 {
		if softVerInter, ok := msgData["soft_ver"]; ok {
			if softVerstr, ok := softVerInter.(string); ok {
				softVer, _ = strconv.ParseInt(softVerstr, 10, 64)
			}
		}
	}

	uuid := ""
	if uuidInter, ok := msgData["uuid"]; ok {
		if uuidStr, ok := uuidInter.(string); ok {
			uuid = uuidStr
		}
	}

	frameId := int64(0)
	if frameIdInter, ok := msgData["frameid"]; ok {
		if frameId64, ok := frameIdInter.(string); ok {
			frameId, _ = strconv.ParseInt(frameId64, 10, 64)
		}
	}

	temp := float64(0)
	if tempInter, ok := msgData["Temp"]; ok {
		if tempFloat, ok := tempInter.(string); ok {
			temp, _ = strconv.ParseFloat(tempFloat, 64)
		}
	}

	if temp <= 0 {
		if tempInter, ok := msgData["temp"]; ok {
			if tempFloat, ok := tempInter.(string); ok {
				temp, _ = strconv.ParseFloat(tempFloat, 64)
			}
		}
	}

	imei := ""
	if imeiInter, ok := msgData["imei"]; ok {
		if imeiStr, ok := imeiInter.(string); ok {
			imei = imeiStr
		}
	}

	active := int64(0)
	if activeInter, ok := msgData["active"]; ok {
		if active32, ok := activeInter.(string); ok {
			active, _ = strconv.ParseInt(active32, 10, 64)
		}
	}

	inAction := int64(0)
	if inActionInter, ok := msgData["inactive"]; ok {
		if inAction32, ok := inActionInter.(string); ok {
			inAction, _ = strconv.ParseInt(inAction32, 10, 64)
		}
	}

	ruMina := int64(0)
	if ruMinaInter, ok := msgData["Rumina"]; ok {
		if ruMina32, ok := ruMinaInter.(string); ok {
			ruMina, _ = strconv.ParseInt(ruMina32, 10, 64)
		}
	}
	if ruMina <= 0 {
		if ruMinaInter, ok := msgData["rumina"]; ok {
			if ruMina32, ok := ruMinaInter.(string); ok {
				ruMina, _ = strconv.ParseInt(ruMina32, 10, 64)
			}
		}
	}

	intake := int64(0)
	if intakeInter, ok := msgData["Intake"]; ok {
		if intake32, ok := intakeInter.(string); ok {
			intake, _ = strconv.ParseInt(intake32, 10, 64)
		}
	}
	if intake <= 0 {
		if intakeInter, ok := msgData["intake"]; ok {
			if intake32, ok := intakeInter.(string); ok {
				intake, _ = strconv.ParseInt(intake32, 10, 64)
			}
		}
	}

	gasp := int64(0)
	if gaspInter, ok := msgData["gasp"]; ok {
		if gasp32, ok := gaspInter.(string); ok {
			gasp, _ = strconv.ParseInt(gasp32, 10, 64)
		}
	}

	reMain := int64(0)
	if reMainInter, ok := msgData["Remain"]; ok {
		if reMain32, ok := reMainInter.(string); ok {
			reMain, _ = strconv.ParseInt(reMain32, 10, 64)
		}
	}
	if ruMina <= 0 {
		if reMainInter, ok := msgData["remain"]; ok {
			if reMain32, ok := reMainInter.(string); ok {
				reMain, _ = strconv.ParseInt(reMain32, 10, 64)
			}
		}
	}
	/*cowId := ""
	if cowIdInter, ok := msgData["cowid"]; ok {
		if cowIdStr, ok := cowIdInter.(string); ok {
			cowId = cowIdStr
		}
	}

	csq := int64(0)
	if csqInter, ok := msgData["csq"]; ok {
		if csq32, ok := csqInter.(string); ok {
			csq, _ = strconv.ParseInt(csq32, 10, 64)
		}
	}

	other := int64(0)
	if otherInter, ok := msgData["other"]; ok {
		if other32, ok := otherInter.(string); ok {
			other, _ = strconv.ParseInt(other32, 10, 64)
		}
	}

	nccId := ""
	if nccIdInter, ok := msgData["nccid"]; ok {
		if nccIdStr, ok := nccIdInter.(string); ok {
			nccId = nccIdStr
		}
	}

	*/

	return []*model.NeckRingOriginal{
		{
			FirmwareVersion: int32(softVer),
			Uuid:            uuid,
			Frameid:         int32(frameId),
			ReceiveNumber:   imei,
			Active:          int32(active),
			Inactive:        int32(inAction),
			Rumina:          int32(ruMina),
			Intake:          int32(intake),
			Gasp:            int32(gasp),
			Remain:          int32(reMain),
		},
	}
}