app/src/components/ui/simulation/simulationPlayer.tsx

@@ -38,9 +38,17 @@ const SimulationPlayer: React.FC = () => {
   const { isReset, setReset } = useResetButtonStore();
   const { subModule } = useSubModuleStore();
 
+  useEffect(() => {
+    if (isReset) {
+      setTimeout(()=>{
+        setReset(false);
+      },0)
+    }
+  }, [isReset])
+
   // Button functions
   const handleReset = () => {
-    setReset(!isReset);
+    setReset(true);
     setSpeed(1);
   };
   const handlePlayStop = () => {
@@ -271,11 +279,10 @@ const SimulationPlayer: React.FC = () => {
                         </div>
                         {index < intervals.length - 1 && (
                           <div
-                            className={`line ${
-                              progress >= ((index + 1) / totalSegments) * 100
+                            className={`line ${progress >= ((index + 1) / totalSegments) * 100
                                 ? "filled"
                                 : ""
-                            }`}
+                              }`}
                           ></div>
                         )}
                       </React.Fragment>
@@ -314,9 +321,8 @@ const SimulationPlayer: React.FC = () => {
                 <div className="custom-slider-wrapper">
                   <div className="custom-slider">
                     <button
-                      className={`slider-handle ${
-                        isDragging ? "dragging" : ""
-                      }`}
+                      className={`slider-handle ${isDragging ? "dragging" : ""
+                        }`}
                       style={{ left: `${calculateHandlePosition()}%` }}
                       onMouseDown={handleMouseDown}
                     >

app/src/modules/simulation/roboticArm/instances/animator/roboticArmAnimator.tsx

@@ -3,240 +3,260 @@ import { useFrame } from '@react-three/fiber';
 import * as THREE from 'three';
 import { Line } from '@react-three/drei';
 import {
-  useAnimationPlaySpeed,
-  usePauseButtonStore,
-  usePlayButtonStore,
-  useResetButtonStore
+    useAnimationPlaySpeed,
+    usePauseButtonStore,
+    usePlayButtonStore,
+    useResetButtonStore
 } from '../../../../../store/usePlayButtonStore';
 
 function RoboticArmAnimator({
-  HandleCallback,
-  restPosition,
-  ikSolver,
-  targetBone,
-  armBot,
-  logStatus,
-  path
+    HandleCallback,
+    restPosition,
+    ikSolver,
+    targetBone,
+    armBot,
+    logStatus,
+    path
 }: any) {
-  const progressRef = useRef(0);
-  const curveRef = useRef<THREE.Vector3[] | null>(null);
-  const [currentPath, setCurrentPath] = useState<[number, number, number][]>([]);
-  const [circlePoints, setCirclePoints] = useState<[number, number, number][]>([]);
-  const [customCurvePoints, setCustomCurvePoints] = useState<THREE.Vector3[] | null>(null);
-  let curveHeight = 1.75
-  const totalDistanceRef = useRef(0);
-  const startTimeRef = useRef<number | null>(null);
-  const segmentDistancesRef = useRef<number[]>([]);
-  // Zustand stores
-  const { isPlaying } = usePlayButtonStore();
-  const { isPaused } = usePauseButtonStore();
-  const { isReset, setReset } = useResetButtonStore();
-  const { speed } = useAnimationPlaySpeed();
+    const progressRef = useRef(0);
+    const curveRef = useRef<THREE.Vector3[] | null>(null);
+    const [currentPath, setCurrentPath] = useState<[number, number, number][]>([]);
+    const [circlePoints, setCirclePoints] = useState<[number, number, number][]>([]);
+    const [customCurvePoints, setCustomCurvePoints] = useState<THREE.Vector3[] | null>(null);
+    let curveHeight = 1.75
+    const totalDistanceRef = useRef(0);
+    const startTimeRef = useRef<number | null>(null);
+    const segmentDistancesRef = useRef<number[]>([]);
+    // Zustand stores
+    const { isPlaying } = usePlayButtonStore();
+    const { isPaused } = usePauseButtonStore();
+    const { isReset, setReset } = useResetButtonStore();
+    const { speed } = useAnimationPlaySpeed();
 
-  // Update path state whenever `path` prop changes
-  useEffect(() => {
-    setCurrentPath(path);
-  }, [path]);
+    // Update path state whenever `path` prop changes
+    useEffect(() => {
+        setCurrentPath(path);
+    }, [path]);
 
-  // Handle circle points based on armBot position
-  useEffect(() => {
-    const points = generateRingPoints(1.6, 64)
-    setCirclePoints(points);
-  }, [armBot.position]);
+    // Handle circle points based on armBot position
+    useEffect(() => {
+        const points = generateRingPoints(1.6, 64)
+        setCirclePoints(points);
+    }, [armBot.position]);
 
-  useEffect(() => {
-    if (isReset || !isPlaying) {
-      progressRef.current = 0;
-      curveRef.current = null;
-      setCurrentPath([]);
-      setCustomCurvePoints(null);
-      totalDistanceRef.current = 0;
-      startTimeRef.current = null;
-      segmentDistancesRef.current = [];
-      setReset(false);
+    //Handle Reset Animation
+    useEffect(() => {
+        if (isReset ) {
+            progressRef.current = 0;
+            curveRef.current = null;
+            setCurrentPath([]);
+            setCustomCurvePoints(null);
+            totalDistanceRef.current = 0;
+            startTimeRef.current = null;
+            segmentDistancesRef.current = [];
+            if (!ikSolver) return
+            const bone = ikSolver.mesh.skeleton.bones.find((b: any) => b.name === targetBone);
+            if (!bone) return;
+            bone.position.copy(restPosition)
+            ikSolver.update();
+        }
+    }, [isReset, isPlaying])
+
+    //Generate Circle Points
+    function generateRingPoints(radius: any, segments: any) {
+        const points: [number, number, number][] = [];
+        for (let i = 0; i < segments; i++) {
+            // Calculate angle for current segment
+            const angle = (i / segments) * Math.PI * 2;
+            // Calculate x and z coordinates (y remains the same for a flat ring)
+            const x = Math.cos(angle) * radius;
+            const z = Math.sin(angle) * radius;
+            points.push([x, 1.5, z]);
+        }
+        return points;
     }
-  }, [isReset, isPlaying])
+    // Function for find nearest Circlepoints Index
+    const findNearestIndex = (nearestPoint: [number, number, number], points: [number, number, number][], epsilon = 1e-6) => {
+        for (let i = 0; i < points.length; i++) {
+            const [x, y, z] = points[i];
+            if (
+                Math.abs(x - nearestPoint[0]) < epsilon &&
+                Math.abs(y - nearestPoint[1]) < epsilon &&
+                Math.abs(z - nearestPoint[2]) < epsilon
+            ) {
+                return i; // Found the matching index
+            }
+        }
+        return -1; // Not found
+    };
 
-
-  function generateRingPoints(radius: any, segments: any) {
-    const points: [number, number, number][] = [];
-    for (let i = 0; i < segments; i++) {
-      // Calculate angle for current segment
-      const angle = (i / segments) * Math.PI * 2;
-      // Calculate x and z coordinates (y remains the same for a flat ring)
-      const x = Math.cos(angle) * radius;
-      const z = Math.sin(angle) * radius;
-      points.push([x, 1.5, z]);
-    }
-    return points;
-  }
-
-  const findNearestIndex = (nearestPoint: [number, number, number], points: [number, number, number][], epsilon = 1e-6) => {
-    for (let i = 0; i < points.length; i++) {
-      const [x, y, z] = points[i];
-      if (
-        Math.abs(x - nearestPoint[0]) < epsilon &&
-        Math.abs(y - nearestPoint[1]) < epsilon &&
-        Math.abs(z - nearestPoint[2]) < epsilon
-      ) {
-        return i; // Found the matching index
-      }
-    }
-    return -1; // Not found
-  };
-
-  // Handle nearest points and final path (including arc points)
-  useEffect(() => {
-    if (circlePoints.length > 0 && currentPath.length > 0) {
-
-      const start = currentPath[0];
-      const end = currentPath[currentPath.length - 1];
-
-      const raisedStart = [start[0], start[1] + 0.5, start[2]] as [number, number, number];
-      const raisedEnd = [end[0], end[1] + 0.5, end[2]] as [number, number, number];
-
-      const findNearest = (target: [number, number, number]) => {
+    //function to find nearest Circlepoints 
+    const findNearest = (target: [number, number, number]) => {
         return circlePoints.reduce((nearest, point) => {
-          const distance = Math.hypot(target[0] - point[0], target[1] - point[1], target[2] - point[2]);
-          const nearestDistance = Math.hypot(target[0] - nearest[0], target[1] - nearest[1], target[2] - nearest[2]);
-          return distance < nearestDistance ? point : nearest;
+            const distance = Math.hypot(target[0] - point[0], target[1] - point[1], target[2] - point[2]);
+            const nearestDistance = Math.hypot(target[0] - nearest[0], target[1] - nearest[1], target[2] - nearest[2]);
+            return distance < nearestDistance ? point : nearest;
         }, circlePoints[0]);
-      };
+    };
     
-      const nearestToStart = findNearest(raisedStart);
-      const nearestToEnd = findNearest(raisedEnd);
+    // Handle nearest points and final path (including arc points)
+    useEffect(() => {
+        if (circlePoints.length > 0 && currentPath.length > 0) {
 
-      const indexOfNearestStart = findNearestIndex(nearestToStart, circlePoints);
-      const indexOfNearestEnd = findNearestIndex(nearestToEnd, circlePoints);
+            const start = currentPath[0];
+            const end = currentPath[currentPath.length - 1];
 
-      const clockwiseDistance = (indexOfNearestEnd - indexOfNearestStart + 64) % 64;
-      const counterClockwiseDistance = (indexOfNearestStart - indexOfNearestEnd + 64) % 64;
-      const clockwiseIsShorter = clockwiseDistance <= counterClockwiseDistance;
+            const raisedStart = [start[0], start[1] + 0.5, start[2]] as [number, number, number];
+            const raisedEnd = [end[0], end[1] + 0.5, end[2]] as [number, number, number];
 
-      let arcPoints: [number, number, number][] = [];
+            // const findNearest = (target: [number, number, number]) => {
+            //     return circlePoints.reduce((nearest, point) => {
+            //         const distance = Math.hypot(target[0] - point[0], target[1] - point[1], target[2] - point[2]);
+            //         const nearestDistance = Math.hypot(target[0] - nearest[0], target[1] - nearest[1], target[2] - nearest[2]);
+            //         return distance < nearestDistance ? point : nearest;
+            //     }, circlePoints[0]);
+            // };
+
+            const nearestToStart = findNearest(raisedStart);
+            const nearestToEnd = findNearest(raisedEnd);
+
+            const indexOfNearestStart = findNearestIndex(nearestToStart, circlePoints);
+            const indexOfNearestEnd = findNearestIndex(nearestToEnd, circlePoints);
+
+            const clockwiseDistance = (indexOfNearestEnd - indexOfNearestStart + 64) % 64;
+            const counterClockwiseDistance = (indexOfNearestStart - indexOfNearestEnd + 64) % 64;
+            const clockwiseIsShorter = clockwiseDistance <= counterClockwiseDistance;
+
+            let arcPoints: [number, number, number][] = [];
+
+            if (clockwiseIsShorter) {
+                if (indexOfNearestStart <= indexOfNearestEnd) {
+                    arcPoints = circlePoints.slice(indexOfNearestStart, indexOfNearestEnd + 1);
+                } else {
+                    arcPoints = [
+                        ...circlePoints.slice(indexOfNearestStart, 64),
+                        ...circlePoints.slice(0, indexOfNearestEnd + 1)
+                    ];
+                }
+            } else {
+                if (indexOfNearestStart >= indexOfNearestEnd) {
+                    for (let i = indexOfNearestStart; i !== (indexOfNearestEnd - 1 + 64) % 64; i = (i - 1 + 64) % 64) {
+                        arcPoints.push(circlePoints[i]);
+                    }
+                } else {
+                    for (let i = indexOfNearestStart; i !== (indexOfNearestEnd - 1 + 64) % 64; i = (i - 1 + 64) % 64) {
+                        arcPoints.push(circlePoints[i]);
+                    }
+                }
+            }
+
+            const pathVectors = [
+                new THREE.Vector3(start[0], start[1], start[2]),
+                new THREE.Vector3(start[0], curveHeight, start[2]),
+                new THREE.Vector3(nearestToStart[0], curveHeight, nearestToStart[2]),
+                ...arcPoints.map(point => new THREE.Vector3(point[0], curveHeight, point[2])),
+                new THREE.Vector3(nearestToEnd[0], curveHeight, nearestToEnd[2]),
+                new THREE.Vector3(end[0], curveHeight, end[2]),
+                new THREE.Vector3(end[0], end[1], end[2])
+            ];
+
+
+            const pathSegments: [THREE.Vector3, THREE.Vector3][] = [];
+
+            for (let i = 0; i < pathVectors.length - 1; i++) {
+                pathSegments.push([pathVectors[i], pathVectors[i + 1]]);
+            }
+
+            const segmentDistances = pathSegments.map(([p1, p2]) => p1.distanceTo(p2));
+            segmentDistancesRef.current = segmentDistances;
+            const totalDistance = segmentDistances.reduce((sum, d) => sum + d, 0);
+            totalDistanceRef.current = totalDistance;
+
+            const movementSpeed = speed * armBot.speed;
+            const totalMoveTime = totalDistance / movementSpeed;
+
+            const segmentTimes = segmentDistances.map(distance => (distance / totalDistance) * totalMoveTime);
+
+            setCustomCurvePoints(pathVectors);
 
-      if (clockwiseIsShorter) {
-        if (indexOfNearestStart <= indexOfNearestEnd) {
-          arcPoints = circlePoints.slice(indexOfNearestStart, indexOfNearestEnd + 1);
-        } else {
-          arcPoints = [
-            ...circlePoints.slice(indexOfNearestStart, 64),
-            ...circlePoints.slice(0, indexOfNearestEnd + 1)
-          ];
         }
-      } else {
-        if (indexOfNearestStart >= indexOfNearestEnd) {
-          for (let i = indexOfNearestStart; i !== (indexOfNearestEnd - 1 + 64) % 64; i = (i - 1 + 64) % 64) {
-            arcPoints.push(circlePoints[i]);
-          }
-        } else {
-          for (let i = indexOfNearestStart; i !== (indexOfNearestEnd - 1 + 64) % 64; i = (i - 1 + 64) % 64) {
-            arcPoints.push(circlePoints[i]);
-          }
+    }, [circlePoints, currentPath]);
+
+    // Frame update for animation
+    useFrame((state, delta) => {
+        if (!ikSolver) return;
+
+        const bone = ikSolver.mesh.skeleton.bones.find((b: any) => b.name === targetBone);
+        if (!bone) return;
+
+        if (isPlaying) {
+            if (isReset) {
+                bone.position.copy(restPosition);
+                setCustomCurvePoints([]);
+                ikSolver.update();
+            }
+            if (!isPaused && customCurvePoints && customCurvePoints.length > 0) {
+                const distances = segmentDistancesRef.current;
+                const totalDistance = totalDistanceRef.current;
+
+                progressRef.current += delta * (speed * armBot.speed);
+                const coveredDistance = progressRef.current;
+
+                let index = 0;
+                let accumulatedDistance = 0;
+
+                while (index < distances.length && coveredDistance > accumulatedDistance + distances[index]) {
+                    accumulatedDistance += distances[index];
+                    index++;
+                }
+
+                if (index < distances.length) {
+                    const startPoint = customCurvePoints[index];
+                    const endPoint = customCurvePoints[index + 1];
+                    const segmentDistance = distances[index];
+                    const t = (coveredDistance - accumulatedDistance) / segmentDistance;
+                    if (startPoint && endPoint) {
+                        const position = startPoint.clone().lerp(endPoint, t);
+                        bone.position.copy(position);
+                    }
+                }
+
+                if (progressRef.current >= totalDistance) {
+                    HandleCallback();
+                    setCurrentPath([]);
+                    setCustomCurvePoints([]);
+                    curveRef.current = null;
+                    progressRef.current = 0;
+                    startTimeRef.current = null;
+                }
+
+                ikSolver.update();
+            }
+        } else if (!isPlaying && currentPath.length === 0) {
+            bone.position.copy(restPosition);
         }
-      }
-
-      const pathVectors = [
-        new THREE.Vector3(start[0], start[1], start[2]),
-        new THREE.Vector3(start[0], curveHeight, start[2]),
-        new THREE.Vector3(nearestToStart[0], curveHeight, nearestToStart[2]),
-        ...arcPoints.map(point => new THREE.Vector3(point[0], curveHeight, point[2])),
-        new THREE.Vector3(nearestToEnd[0], curveHeight, nearestToEnd[2]),
-        new THREE.Vector3(end[0], curveHeight, end[2]),
-        new THREE.Vector3(end[0], end[1], end[2])
-      ];
-
-
-      const pathSegments: [THREE.Vector3, THREE.Vector3][] = [];
-
-      for (let i = 0; i < pathVectors.length - 1; i++) {
-        pathSegments.push([pathVectors[i], pathVectors[i + 1]]);
-      }
-
-      const segmentDistances = pathSegments.map(([p1, p2]) => p1.distanceTo(p2));
-      segmentDistancesRef.current = segmentDistances;
-      const totalDistance = segmentDistances.reduce((sum, d) => sum + d, 0);
-      totalDistanceRef.current = totalDistance;
-
-      const movementSpeed = speed * armBot.speed;
-      const totalMoveTime = totalDistance / movementSpeed;
-
-      const segmentTimes = segmentDistances.map(distance => (distance / totalDistance) * totalMoveTime);
-
-      setCustomCurvePoints(pathVectors);
-
-    }
-  }, [circlePoints, currentPath]);
-
-  // Frame update for animation
-  useFrame((state, delta) => {
-    if (!ikSolver) return;
-
-    const bone = ikSolver.mesh.skeleton.bones.find((b: any) => b.name === targetBone);
-    if (!bone) return;
-
-    if (isPlaying) {
-      if (!isPaused && customCurvePoints && customCurvePoints.length > 0) {
-        const distances = segmentDistancesRef.current; // distances between each pair of points
-        const totalDistance = totalDistanceRef.current;
-
-        progressRef.current += delta * (speed * armBot.speed);
-        const coveredDistance = progressRef.current;
-
-        let index = 0;
-        let accumulatedDistance = 0;
-
-        // Find which segment we are currently in
-        while (index < distances.length && coveredDistance > accumulatedDistance + distances[index]) {
-          accumulatedDistance += distances[index];
-          index++;
-        }
-        if (index < distances.length) {
-          const startPoint = customCurvePoints[index];
-          const endPoint = customCurvePoints[index + 1];
-          const segmentDistance = distances[index];
-          const t = (coveredDistance - accumulatedDistance) / segmentDistance;
-          if (startPoint && endPoint) {
-            const position = startPoint.clone().lerp(endPoint, t);
-            bone.position.copy(position);
-          }
-        }
-        if (progressRef.current >= totalDistance) {
-          HandleCallback();
-          setCurrentPath([]);
-          setCustomCurvePoints([]);
-          curveRef.current = null;
-          progressRef.current = 0;
-          startTimeRef.current = null;
-        }
-
         ikSolver.update();
-      }
-    } else if ((!isPlaying && currentPath.length === 0) || isReset) {
-      bone.position.copy(restPosition);
-      ikSolver.update();
-    }
+    });
 
-  });
 
-  return (
-    <>
-      {customCurvePoints && customCurvePoints?.length >= 2 && currentPath && isPlaying && (
-        <mesh rotation={armBot.rotation} position={armBot.position}>
-          <Line
-            points={customCurvePoints.map((p) => [p.x, p.y, p.z] as [number, number, number])}
-            color="green"
-            lineWidth={5}
-            dashed={false}
-          />
-        </mesh>
-      )}
-      <mesh position={[armBot.position[0], armBot.position[1] + 1.5, armBot.position[2]]} rotation={[-Math.PI / 2, 0, 0]}>
-        <ringGeometry args={[1.59, 1.61, 64]} />
-        <meshBasicMaterial color="green" side={THREE.DoubleSide} />
-      </mesh>
-    </>
-  );
+    return (
+        <>
+            {customCurvePoints && customCurvePoints?.length >= 2 && currentPath && isPlaying && (
+                <mesh rotation={armBot.rotation} position={armBot.position}>
+                    <Line
+                        points={customCurvePoints.map((p) => [p.x, p.y, p.z] as [number, number, number])}
+                        color="green"
+                        lineWidth={5}
+                        dashed={false}
+                    />
+                </mesh>
+            )}
+            <mesh position={[armBot.position[0], armBot.position[1] + 1.5, armBot.position[2]]} rotation={[-Math.PI / 2, 0, 0]}>
+                <ringGeometry args={[1.59, 1.61, 64]} />
+                <meshBasicMaterial color="green" side={THREE.DoubleSide} />
+            </mesh>
+        </>
+    );
 }
 
 export default RoboticArmAnimator;

app/src/modules/simulation/roboticArm/instances/armInstance/roboticArmInstance.tsx

@@ -97,24 +97,24 @@ function RoboticArmInstance({ armBot }: { armBot: ArmBotStatus }) {
     useEffect(() => {
         if (isReset || !isPlaying) {
             logStatus(armBot.modelUuid, "Simulation Play Reset Successfully")
-            removeCurrentAction(armBot.modelUuid)
             setArmBotActive(armBot.modelUuid, false)
             setArmBotState(armBot.modelUuid, "idle")
             setCurrentPhase("init");
+            setPath([])
+            removeCurrentAction(armBot.modelUuid)
             isPausedRef.current = false
             pauseTimeRef.current = null
             startTime = 0
-            const targetBones = ikSolver?.mesh.skeleton.bones.find(
-                (b: any) => b.name === targetBone
+            const targetBones = ikSolver?.mesh.skeleton.bones.find((b: any) => b.name === targetBone
             );
-            if (targetBones) {
+            if (targetBones && isPlaying) {
                 let curve = createCurveBetweenTwoPoints(targetBones.position, restPosition)
                 if (curve) {
                     setPath(curve.points.map(point => [point.x, point.y, point.z]));
+                    logStatus(armBot.modelUuid, "Moving armBot from initial point to rest position.")
                 }
             }
-            setReset(false);
-            logStatus(armBot.modelUuid, "Moving armBot from initial point to rest position.")
+            // setReset(false);
         }
     }, [isReset, isPlaying])
 
@@ -127,7 +127,6 @@ function RoboticArmInstance({ armBot }: { armBot: ArmBotStatus }) {
             (b: any) => b.name === targetBone
         );
         if (isPlaying) {
-
             //Moving armBot from initial point to rest position.
             if (!armBot?.isActive && armBot?.state == "idle" && currentPhase == "init") {
 
@@ -204,16 +203,16 @@ function RoboticArmInstance({ armBot }: { armBot: ArmBotStatus }) {
                 // logStatus(armBot.modelUuid, "Moving armBot from end point to rest position.")
             }
         } else {
-            logStatus(armBot.modelUuid, "Simulation Play Exited")
-            setArmBotActive(armBot.modelUuid, false)
-            setArmBotState(armBot.modelUuid, "idle")
-            setCurrentPhase("init");
-            setPath([])
-            isPausedRef.current = false
-            pauseTimeRef.current = null
-            isPausedRef.current = false
-            startTime = 0
-            removeCurrentAction(armBot.modelUuid)
+            // logStatus(armBot.modelUuid, "Simulation Play Exited")
+            // setArmBotActive(armBot.modelUuid, false)
+            // setArmBotState(armBot.modelUuid, "idle")
+            // setCurrentPhase("init");
+            // setPath([])
+            // isPausedRef.current = false
+            // pauseTimeRef.current = null
+            // isPausedRef.current = false
+            // startTime = 0
+            // removeCurrentAction(armBot.modelUuid)
         }
 
     }, [currentPhase, armBot, isPlaying, ikSolver])
@@ -260,6 +259,7 @@ function RoboticArmInstance({ armBot }: { armBot: ArmBotStatus }) {
     }
     const logStatus = (id: string, status: string) => {
         
+
         // 
 
     }

app/src/modules/simulation/simulator/simulator.tsx

@@ -7,7 +7,7 @@ function Simulator() {
     const executionOrder = determineExecutionOrder(products);
 
     executionOrder.forEach(point => {
-        useActionHandler(point);
+        // useActionHandler(point);
     });
 
     function determineExecutionSequences(products: productsSchema): PointsScheme[][] {