iscs bas 大系统

component/iscs_bas_pipe.go

@@ -4,7 +4,15 @@ import "joylink.club/ecs"
 
 // FluidPipe 流体管线
 type FluidPipe struct {
-	Direction PipeFlowDirection //流动方向
+	Direction PipeFlowDirection //管线内综合流动方向
+	FlowSpeed float32           //管线内综合流量，m3/h
+	Sources   []*SourceFlow     //该管线内所有流体源投射的分量
+}
+
+// SourceFlow 流体源进入管线的流体描述
+type SourceFlow struct {
+	Direction PipeFlowDirection
+	FlowSpeed float32
 }
 
 // PipeFlowDirection 管线内流体流动方向定义
@@ -16,6 +24,16 @@ const (
 	PipeFlowBa                           //流体从管线的B->A
 )
 
+func (d *PipeFlowDirection) IsFlowAb() bool {
+	return *d == PipeFlowAb
+}
+func (d *PipeFlowDirection) IsFlowBa() bool {
+	return *d == PipeFlowBa
+}
+func (d *PipeFlowDirection) IsFlowNon() bool {
+	return *d == PipeFlowNon
+}
+
 // FluidDriver 流体驱动器
 type FluidDriver struct {
 	On bool //true-输出流体驱动力；false-未输出流体驱动力

repository/iscs_bas_dxt.go

@@ -9,7 +9,7 @@ type AirPavilion struct {
 	Identity
 	Code         string
 	PavilionType proto.AirPavilion_Type //风亭子类型
-	PortA        DevicePort             //风亭A端口连接的设备
+	PortA        *PipePort              //风亭A端口连接的设备
 }
 
 func NewAirPavilion(id string, code string, pavilionType proto.AirPavilion_Type) *AirPavilion {

sys/iscs_sys/iscs_bas_fluid.go

@@ -17,11 +17,13 @@ import (
 type FluidDriverSystem struct {
 	query          *ecs.Query                 //流体驱动源
 	drivePathMap   map[string][]*SearchedPath //key pipePortId,value 驱动源驱动流体的路径
+	queryFluidPipe *ecs.Query
 }
 
 func NewFluidDriverSystem() *FluidDriverSystem {
 	return &FluidDriverSystem{
 		query:          ecs.NewQuery(filter.Contains(component.UidType, component.FluidDriverType)),
+		queryFluidPipe: ecs.NewQuery(filter.Contains(component.UidType, component.FluidPipeType)),
 	}
 }
 
@@ -54,20 +56,107 @@ func (s *FluidDriverSystem) Update(w ecs.World) {
 					fanOutPath := s.findFluidPath(fanModel, fanOutPort, true)
 					fanInPath := s.findFluidPath(fanModel, fanInPort, false)
 					//
-					_ = fanOutPath
-					_ = fanInPath
-					_ = fluidDriverOn
+					s.calculateFluid(w, fluidDriverOn, fanOutPath, fanInPath)
 				}
 			case proto.DeviceType_DeviceType_AirPavilion: //风亭，其中送风亭为动力源
-
+				{
+					apModel := fdModel.(*repository.AirPavilion)
+					if apModel.PavilionType == proto.AirPavilion_AirSupplyPavilion {
+						apOutPort := *apModel.PortA
+						apOutPath := s.findFluidPath(apModel, apOutPort, true)
+						s.calculateFluid(w, fluidDriverOn, apOutPath, nil)
 					}
 				}
+			}
+		}
+	})
+	//
+	s.queryFluidPipe.Each(w, func(entry *ecs.Entry) {
+		pipe := component.FluidPipeType.Get(entry)
+		if len(pipe.Sources) > 0 {
+			directionAb := int8(0)
+			for _, ps := range pipe.Sources {
+				if ps.Direction.IsFlowAb() {
+					directionAb++
+				}
+				if ps.Direction.IsFlowBa() {
+					directionAb--
+				}
+			}
+			if directionAb > 0 {
+				pipe.Direction = component.PipeFlowAb
+			} else if directionAb < 0 {
+				pipe.Direction = component.PipeFlowBa
+			} else {
+				pipe.Direction = component.PipeFlowNon
+			}
+		} else {
+			pipe.Direction = component.PipeFlowNon
+			pipe.FlowSpeed = 0
+		}
 	})
 }
 
 // 计算流体在管线中的流动参数
-func (s *FluidDriverSystem) calculateFluid(fluidDriverOn bool, outPath []*SearchedPath, inPath []*SearchedPath) {
+func (s *FluidDriverSystem) calculateFluid(w ecs.World, fluidDriverOn bool, outPath []*SearchedPath, inPath []*SearchedPath) {
+	for _, out := range outPath {
+		s.clearFluidPathSources(w, out)
+	}
+	for _, in := range inPath {
+		s.clearFluidPathSources(w, in)
+	}
+	//
+	if fluidDriverOn {
+		var validOutPath, validInPath []*SearchedPath
+		for _, out := range outPath {
+			if s.isFluidPathUnblocked(out, w) {
+				validOutPath = append(validOutPath, out)
+			}
+		}
+		for _, in := range inPath {
+			if s.isFluidPathUnblocked(in, w) {
+				validInPath = append(validInPath, in)
+			}
+		}
+		isValid := len(outPath) > 0 && len(inPath) > 0 && len(validInPath) > 0 && len(validOutPath) > 0 || len(outPath) > 0 && len(inPath) == 0 && len(inPath) > 0
+		if isValid {
+			wd := entity.GetWorldData(w)
+			for _, outSp := range validOutPath {
+				for _, outPipe := range outSp.ViaPipes {
+					pipeEntry := wd.EntityMap[outPipe.Device().Id()]
+					fluidPipe := component.FluidPipeType.Get(pipeEntry)
+					fluidPipe.Sources = append(fluidPipe.Sources, &component.SourceFlow{Direction: convertFlowDirection(outPipe)})
+				}
+			}
+			for _, inSp := range validInPath {
+				for _, inPipe := range inSp.ViaPipes {
+					pipeEntry := wd.EntityMap[inPipe.Device().Id()]
+					fluidPipe := component.FluidPipeType.Get(pipeEntry)
+					fluidPipe.Sources = append(fluidPipe.Sources, &component.SourceFlow{Direction: convertFlowDirection(inPipe)})
+				}
+			}
+		}
+	}
+}
+func convertFlowDirection(sp repository.PipePort) component.PipeFlowDirection {
+	switch sp.Port() {
+	case proto.Port_A:
+		return component.PipeFlowAb
+	case proto.Port_B:
+		return component.PipeFlowBa
+	default:
+		return component.PipeFlowNon
+	}
+}
 
+// 清空管线流体源
+func (s *FluidDriverSystem) clearFluidPathSources(w ecs.World, path *SearchedPath) {
+	wd := entity.GetWorldData(w)
+	for _, pipe := range path.ViaPipes {
+		pipeEntry := wd.EntityMap[pipe.Device().Id()]
+		fluidPipe := component.FluidPipeType.Get(pipeEntry)
+		fluidPipe.Sources = fluidPipe.Sources[0:0]
+	}
 }
 
 // 判断路径是否畅通