#
luxiaotao1123
2024-11-12 0628aaf9aa7c172cd5288f553ef045f8077ea9e4
zy-acs-manager/src/main/java/com/zy/acs/manager/core/service/RetreatNavigateService.java
@@ -1,8 +1,8 @@
package com.zy.acs.manager.core.service;
import com.zy.acs.common.utils.RedisSupport;
import com.zy.acs.framework.common.Cools;
import com.zy.acs.common.utils.Utils;
import com.zy.acs.framework.common.Cools;
import com.zy.acs.manager.common.utils.MapDataUtils;
import com.zy.acs.manager.core.constant.MapDataConstant;
import com.zy.acs.manager.core.domain.Lane;
@@ -31,7 +31,7 @@
    private final RedisSupport redis = RedisSupport.defaultRedisSupport;
    public static final int WEIGHT_CALC_COEFFICIENT = 1000;
    public static final int WEIGHT_CALC_FACTOR = 10000;
    @Autowired
    private CodeService codeService;
@@ -65,7 +65,7 @@
        List<String> blackList = Utils.singletonList(sponsor);
        Double avoidDistance = MapDataUtils.getVehicleWaveSafeDistance(agvModelService.getById(agvService.selectByUuid(sponsor).getAgvModel()).getDiameter()
                , MapDataConstant.IDLE_DISTANCE_COE);
                , MapDataConstant.MAX_DISTANCE_BETWEEN_ADJACENT_AGV_FACTOR);
        List<String> avoidPathListWave = mapService.getWaveScopeByCodeList(lev, avoidPathList, avoidDistance);
        DynamicNode[][] dynamicMatrix = mapDataDispatcher.getDynamicMatrix(lev);
@@ -79,6 +79,7 @@
        openQueue.add(start);
        existNodes.add(start);
        boolean phaseSecond = true;
        while (openQueue.size() > 0 && null == finialNode) {
@@ -87,6 +88,7 @@
            List<RetreatNavigateNode> enableNodes = new ArrayList<>();
            ArrayList<RetreatNavigateNode> neighborNodes = this.getNeighborNodes(currentNode, existNodes);
            boolean pointOfTurn = neighborNodes.size() >= 2;
            label: for (RetreatNavigateNode node : neighborNodes) {
                if (node.getCodeData().equals(breakPoint)) { continue; }
@@ -103,35 +105,46 @@
                            continue label;
                        }
                        if (1 < mapDataDispatcher.queryCodeListFromDynamicNode(lev, otherWave).size()) {
                            phaseSecond = false;    // there is a way to go
                            continue label;
                        } else {
                            weight += WEIGHT_CALC_COEFFICIENT;
                            weight += WEIGHT_CALC_FACTOR;
                        }
                    }
                }
                // lane
                Lane lane = laneService.search(node.getCodeData());
                if (null != lane) {
                    Set<String> lanVehicleSet = new HashSet<>();
                if (pointOfTurn) {
                    Lane lane = laneService.search(node.getCodeData());
                    if (null != lane) {
                        Set<String> lanVehicleSet = new HashSet<>();
                    List<String> laneCodes = lane.getCodes();
                    for (String laneCodeData : laneCodes) {
                        int[] laneCodeMatrixIdx = mapDataDispatcher.getCodeMatrixIdx(null, laneCodeData);
                        // scan dynamicMatrix or WaveMatrix
                        DynamicNode laneDynamicNode = dynamicMatrix[laneCodeMatrixIdx[0]][laneCodeMatrixIdx[1]];
                        String laneVehicle = laneDynamicNode.getVehicle();
                        assert !laneVehicle.equals(DynamicNodeType.BLOCK.val);
                        if (!laneVehicle.equals(DynamicNodeType.ACCESS.val)) {
                            if (!laneVehicle.equals(agvNo)) {
                                lanVehicleSet.add(laneVehicle);
//                                redis.setObject(RedisConstant.AGV_TO_STANDBY_FLAG, laneVehicle, true, 30);
                        for (String laneCodeData : lane.getCodes()) {
                            // overlap with sponsor
                            if (avoidPathList.contains(laneCodeData)) {
                                lanVehicleSet.add(sponsor);
                            }
                            int[] laneCodeMatrixIdx = mapDataDispatcher.getCodeMatrixIdx(null, laneCodeData);
                            // scan dynamicMatrix or WaveMatrix
                            DynamicNode laneDynamicNode = dynamicMatrix[laneCodeMatrixIdx[0]][laneCodeMatrixIdx[1]];
                            String laneVehicle = laneDynamicNode.getVehicle();
                            assert !laneVehicle.equals(DynamicNodeType.BLOCK.val);
                            if (!laneVehicle.equals(DynamicNodeType.ACCESS.val)) {
                                if (!laneVehicle.equals(agvNo)) {
                                    lanVehicleSet.add(laneVehicle);
//                                    redis.setObject(RedisConstant.AGV_TO_STANDBY_FLAG, laneVehicle, true, 30);
                                }
                            }
                        }
                    }
                    if (lanVehicleSet.size() + 1 > maxAgvCountInLane) {
                        continue;
                        if (lanVehicleSet.size() + 1 > maxAgvCountInLane) {
                            phaseSecond = false;    // there is a way to go
                            continue;
                        }
                        if (lanVehicleSet.contains(sponsor)) {
                            weight += WEIGHT_CALC_FACTOR * 2;
                        }
                    }
                }
@@ -159,15 +172,17 @@
        }
        if (null == finialNode) {
        if (null == finialNode && phaseSecond) {
//            assert openQueue.size() == 0;
            existNodes.clear();
            openQueue.add(start);
            existNodes.add(start);
            RetreatNavigateNode firstPointOfTurn = null;
            List<String> firstPointWaveScopeOfTurn = new ArrayList<>();
            RetreatNavigateNode availablePointOfTurn = null;
            List<String> availablePointWaveScopeOfTurn = new ArrayList<>();
            int actualLanesOfTurn = 0;
            int filterPointOfTurnTimes = 0;
            while (openQueue.size() > 0 && null == finialNode) {
@@ -175,15 +190,55 @@
                List<RetreatNavigateNode> enableNodes = new ArrayList<>();
                ArrayList<RetreatNavigateNode> neighborNodes = this.getNeighborNodes(currentNode, existNodes);
                int forks = neighborNodes.size();
                if (firstPointOfTurn == null && forks >= 2 && !isSame(start, currentNode)) {
                    firstPointOfTurn = currentNode;
                    firstPointWaveScopeOfTurn = mapService.getWaveScopeByCode(lev, firstPointOfTurn.getCodeData(), avoidDistance)
                            .stream().map(NavigateNode::getCodeData).distinct().collect(Collectors.toList());
                // 第一步:获取有效转弯点
                if (null == availablePointOfTurn) {
                    // 计算是否为可用转弯点
                    if (neighborNodes.size() >= 2 && !isSame(start, currentNode)) {
                        filterPointOfTurnTimes ++;
                        if (filterPointOfTurnTimes > 2) { break; }
                        for (RetreatNavigateNode node : neighborNodes) {
                            // lane
                            Lane lane = laneService.search(node.getCodeData());
                            if (null != lane) {
                                Set<String> lanVehicleSet = new HashSet<>();
                                for (String laneCodeData : lane.getCodes()) {
                                    int[] laneCodeMatrixIdx = mapDataDispatcher.getCodeMatrixIdx(null, laneCodeData);
                                    // scan dynamicMatrix or WaveMatrix
                                    DynamicNode laneDynamicNode = dynamicMatrix[laneCodeMatrixIdx[0]][laneCodeMatrixIdx[1]];
                                    String laneVehicle = laneDynamicNode.getVehicle();
                                    assert !laneVehicle.equals(DynamicNodeType.BLOCK.val);
                                    if (!laneVehicle.equals(DynamicNodeType.ACCESS.val)) {
                                        if (!laneVehicle.equals(agvNo)) {
                                            lanVehicleSet.add(laneVehicle);
//                                            redis.setObject(RedisConstant.AGV_TO_STANDBY_FLAG, laneVehicle, true, 30);
                                        }
                                    }
                                }
                                if (lanVehicleSet.size() + 1 > maxAgvCountInLane) {
                                    continue;
                                }
                            }
                            actualLanesOfTurn ++;
                        }
                        // 有两条以上可走巷道,则视为有效转弯点
                        if (actualLanesOfTurn >= 2) {
                            availablePointOfTurn = currentNode;
                            availablePointWaveScopeOfTurn = mapService.getWaveScopeByCode(lev, availablePointOfTurn.getCodeData(), avoidDistance)
                                    .stream().map(NavigateNode::getCodeData).distinct().collect(Collectors.toList());
                        } else {
                            actualLanesOfTurn = 0;
                        }
                    }
                }
                // 延伸转弯点巷道
                label: for (RetreatNavigateNode node : neighborNodes) {
                    int weight = 0;
                    // wave
@@ -197,41 +252,19 @@
                                continue;
                            }
                            if (1 < mapDataDispatcher.queryCodeListFromDynamicNode(lev, otherWave).size()) {
                                if (null != availablePointOfTurn && actualLanesOfTurn > 0) {
                                    actualLanesOfTurn --;
                                }
                                continue label;
                            } else {
                                weight += WEIGHT_CALC_COEFFICIENT;
                                weight += WEIGHT_CALC_FACTOR;
                            }
                        }
                    }
                    // lane
                    Lane lane = laneService.search(node.getCodeData());
                    if (null != lane) {
                        Set<String> lanVehicleSet = new HashSet<>();
                        List<String> laneCodes = lane.getCodes();
                        for (String laneCodeData : laneCodes) {
                            int[] laneCodeMatrixIdx = mapDataDispatcher.getCodeMatrixIdx(null, laneCodeData);
                            // scan dynamicMatrix or WaveMatrix
                            DynamicNode laneDynamicNode = dynamicMatrix[laneCodeMatrixIdx[0]][laneCodeMatrixIdx[1]];
                            String laneVehicle = laneDynamicNode.getVehicle();
                            assert !laneVehicle.equals(DynamicNodeType.BLOCK.val);
                            if (!laneVehicle.equals(DynamicNodeType.ACCESS.val)) {
                                if (!laneVehicle.equals(agvNo)) {
                                    lanVehicleSet.add(laneVehicle);
//                                redis.setObject(RedisConstant.AGV_TO_STANDBY_FLAG, laneVehicle, true, 30);
                                }
                            }
                        }
                        if (lanVehicleSet.size() + 1 > maxAgvCountInLane) {
                            continue;
                        }
                    }
                    // have cross turn road
                    if (null != firstPointOfTurn) {
                        if (!firstPointWaveScopeOfTurn.contains(node.getCodeData())) {
                    if (null != availablePointOfTurn) {
                        if (!availablePointWaveScopeOfTurn.contains(node.getCodeData())) {
                            enableNodes.add(node);
                        }
                    }
@@ -243,10 +276,16 @@
                    existNodes.add(node);
                }
                if (!Cools.isEmpty(enableNodes)) {
                    Collections.sort(enableNodes);
                    finialNode = enableNodes.stream().findFirst().orElse(null);
                    jam.setCycleAvo(1);
                if (actualLanesOfTurn < 2) {
                    availablePointOfTurn = null;
                    availablePointWaveScopeOfTurn = new ArrayList<>();
                    actualLanesOfTurn = 0;
                } else {
                    if (!Cools.isEmpty(enableNodes)) {
                        Collections.sort(enableNodes);
                        finialNode = enableNodes.stream().findFirst().orElse(null);
                        jam.setCycleAvo(1);
                    }
                }
            }
@@ -254,18 +293,6 @@
        }
        return finialNode;
    }
    private int calcNodeWeightVal(List<String> otherWaveList) {
        int weightVal = 0;
        if (!Cools.isEmpty(otherWaveList)) {
        }
        return weightVal;
    }
    // 获取四周节点