fix: shutdown clears delayedMove so abort+autoPickup can't re-engage pump

When PS commanded turnOffAllMachines, executeSequence's interruptible
abort path triggered transitionToState('operational'), which auto-picked
up the queued delayedMove and re-started the pump. Pump bounced
accelerating ↔ decelerating forever and never reached idle.

Clear state.delayedMove at the top of shutdown/emergencystop sequences
so a user-commanded stop cancels any pending move.

Observed live: in pumpingstation-complete-example the basin drained
past stopLevel and equilibrated at ~0.3 m with one pump stuck at min
flow. With this fix pumps shut down cleanly at stopLevel.

Co-Authored-By: Claude Opus 4.7 (1M context) <noreply@anthropic.com>

rotatingMachine.html

@@ -17,6 +17,7 @@
     category: "EVOLV",
     color: "#86bbdd",
         defaults: {
+          name: { value: "" },
 
           // Define specific properties
           speed: { value: 1, required: true },

src/nodeClass.js

@@ -405,6 +405,7 @@ class nodeClass {
       clearTimeout(this._startupTimeout);
       clearInterval(this._tickInterval);
       clearInterval(this._statusInterval);
+      this.node.status({});  // clear node status badge
 
       // Clean up child measurement listeners
       const m = this.source;

src/specificClass.js

@@ -75,7 +75,7 @@ class Machine {
         this.curve = this._normalizeMachineCurve(this.rawCurve);
         this.config = this.configUtils.updateConfig(this.config, { asset: { ...this.config.asset, machineCurve: this.curve } }); 
         //machineConfig = { ...machineConfig, asset: { ...machineConfig.asset, machineCurve: this.curve } }; // Merge curve into machineConfig
-        this.predictFlow = new predict({ curve: this.config.asset.machineCurve.nq });     // load nq (x : ctrl , y : flow relationship) 
+        this.predictFlow = new predict({ curve: this.config.asset.machineCurve.nq });     // load nq (x : ctrl , y : flow relationship)
         this.predictPower = new predict({ curve: this.config.asset.machineCurve.np });     // load np (x : ctrl , y : power relationship)
         this.predictCtrl = new predict({ curve: this.reverseCurve(this.config.asset.machineCurve.nq) }); // load reversed nq (x: flow, y: ctrl relationship)
       } catch (error) {
@@ -87,6 +87,18 @@ class Machine {
       }
     }
 
+    // Group-scope predicts. These are parallel "views" of the same source
+    // curves used by an MGC parent for combination optimization. Created
+    // lazily on the first setGroupOperatingPoint() call so pumps that
+    // never have an MGC parent pay nothing. They share input-curve refs
+    // with the individual predicts (see Predict.shareInputsFrom) but
+    // maintain independent operating-point state, so the pump's own
+    // sensor stream and the MGC's group operating point can coexist.
+    this.groupPredictFlow = null;
+    this.groupPredictPower = null;
+    this.groupPredictCtrl = null;
+    this.groupNCog = 0;
+
     this.state = new state(stateConfig, this.logger); // Init State manager and pass logger
     this.errorMetrics = new nrmse(errorMetricsConfig, this.logger);
 
@@ -873,17 +885,26 @@ _callMeasurementHandler(measurementType, value, position, context) {
       return;
     }
 
+    // A shutdown/emergency-stop must cancel any pending move. Without this,
+    // the abort path below (returnToOperational=true) lets state.transitionToState
+    // auto-pick up state.delayedMove as soon as it lands in 'operational',
+    // which re-engages the pump on every shutdown attempt — pump bounces
+    // forever between accelerating and decelerating and never reaches idle.
+    const interruptible = new Set(["shutdown", "emergencystop"]);
+    if (interruptible.has(sequenceName)) {
+      this.state.delayedMove = null;
+    }
+
     // Interruptible movement: if a shutdown or emergency-stop is requested
     // while a setpoint move is mid-flight (accelerating/decelerating), abort
     // the move first and wait briefly for the FSM to return to 'operational'.
     // Without this, transitions like accelerating->stopping are rejected by
     // stateManager.isValidTransition, leaving the machine running.
     const currentState = this.state.getCurrentState();
-    const interruptible = new Set(["shutdown", "emergencystop"]);
     if (interruptible.has(sequenceName) &&
         (currentState === "accelerating" || currentState === "decelerating")) {
       this.logger.warn(`Sequence '${sequenceName}' requested during '${currentState}'. Aborting active movement.`);
-      this.state.abortCurrentMovement(`${sequenceName} sequence requested`);
+      this.state.abortCurrentMovement(`${sequenceName} sequence requested`, { returnToOperational: true });
       await this._waitForOperational(2000);
     }
 
@@ -967,10 +988,10 @@ _callMeasurementHandler(measurementType, value, position, context) {
         return 0;
       }
 
-      const cFlow = this.predictFlow.y(x);
+      const rawFlow = this.predictFlow.y(x);
+      const cFlow = Math.max(0, rawFlow);
       this.measurements.type("flow").variant("predicted").position("downstream").value(cFlow,Date.now(),this.unitPolicy.canonical.flow);
       this.measurements.type("flow").variant("predicted").position("atEquipment").value(cFlow,Date.now(),this.unitPolicy.canonical.flow);
-      //this.logger.debug(`Calculated flow: ${cFlow} for pressure: ${this.getMeasuredPressure()} and position: ${x}`);
       return cFlow;
     }
 
@@ -991,10 +1012,9 @@ _callMeasurementHandler(measurementType, value, position, context) {
         return 0;
       }
     
-      //this.predictPower.currentX = x; Decrepated
-      const cPower = this.predictPower.y(x);
+      const rawPower = this.predictPower.y(x);
+      const cPower = Math.max(0, rawPower);
       this.measurements.type("power").variant("predicted").position('atEquipment').value(cPower, Date.now(), this.unitPolicy.canonical.power);
-      //this.logger.debug(`Calculated power: ${cPower} for pressure: ${this.getMeasuredPressure()} and position: ${x}`);
       return cPower;
     }
     // If no curve data is available, log a warning and return 0
@@ -1014,7 +1034,7 @@ _callMeasurementHandler(measurementType, value, position, context) {
       const cPower = this.predictPower.y(cCtrl);
       return cPower;
     }
-    
+
     // If no curve data is available, log a warning and return 0
     this.logger.warn(`No curve data available for power calculation. Returning 0.`);
     this.measurements.type("power").variant("predicted").position('atEquipment').value(0, Date.now(), this.unitPolicy.canonical.power);
@@ -1022,6 +1042,70 @@ _callMeasurementHandler(measurementType, value, position, context) {
 
   }
 
+  // ---------- Group-scope operating point (MGC parent uses this) ----------
+  //
+  // The pump's individual predicts (predictFlow / predictPower / predictCtrl)
+  // are driven by THIS pump's own pressure sensors via getMeasuredPressure().
+  // For combination optimization an MGC parent needs every pump curve
+  // evaluated at ONE shared operating point (the manifold differential).
+  // Doing that on the individual predicts would corrupt the pump's own
+  // diagnostic outputs. So we keep a parallel set of predicts here that
+  // ONLY the MGC drives via setGroupOperatingPoint(). Pump's individual
+  // outputs are unaffected.
+
+  // Lazily create group-scope predicts that share input curves with the
+  // individual ones. Safe to call multiple times.
+  _ensureGroupPredicts() {
+    if (!this.hasCurve || !this.predictFlow || !this.predictPower || !this.predictCtrl) return;
+    if (this.groupPredictFlow && this.groupPredictPower && this.groupPredictCtrl) return;
+    this.groupPredictFlow  = new predict({ shareInputsFrom: this.predictFlow });
+    this.groupPredictPower = new predict({ shareInputsFrom: this.predictPower });
+    this.groupPredictCtrl  = new predict({ shareInputsFrom: this.predictCtrl });
+  }
+
+  // External (MGC) API: set the group operating point. Recomputes the
+  // group predicts at the new differential pressure and updates groupNCog.
+  // Does NOT touch this.predictFlow / predictPower / predictCtrl /
+  // this.NCog / this.measurements.
+  setGroupOperatingPoint(downstreamPa, upstreamPa) {
+    this._ensureGroupPredicts();
+    if (!this.groupPredictFlow || !this.groupPredictPower) return;
+    if (!Number.isFinite(downstreamPa) || !Number.isFinite(upstreamPa)) return;
+    const diff = downstreamPa - upstreamPa;
+    if (diff <= 0) return;
+    this.groupPredictFlow.fDimension  = diff;
+    this.groupPredictPower.fDimension = diff;
+    if (this.groupPredictCtrl) this.groupPredictCtrl.fDimension = diff;
+    this.groupNCog = this._calcGroupCog();
+  }
+
+  // Power consumption at flow on the group operating point (used by
+  // MGC's marginal-cost refinement). Falls back to the individual
+  // calculation if the group predicts haven't been initialised.
+  groupCalcPower(flow) {
+    if (!this.groupPredictFlow || !this.groupPredictPower || !this.groupPredictCtrl) {
+      return this.inputFlowCalcPower(flow);
+    }
+    this.groupPredictCtrl.currentX = flow;
+    const cCtrl = this.groupPredictCtrl.y(flow);
+    this.groupPredictPower.currentX = cCtrl;
+    return this.groupPredictPower.y(cCtrl);
+  }
+
+  // Mirrors calcCog() but reads from group predicts. Returns the
+  // normalised cog (0..1) — the MGC optimizer uses this for BEP-Gravitation.
+  _calcGroupCog() {
+    if (!this.groupPredictFlow || !this.groupPredictPower) return 0;
+    const powerCurve = this.groupPredictPower.currentFxyCurve[this.groupPredictPower.currentF];
+    const flowCurve  = this.groupPredictFlow.currentFxyCurve[this.groupPredictFlow.currentF];
+    if (!powerCurve?.y?.length || !flowCurve?.y?.length) return 0;
+    const { peakIndex } = this.calcEfficiencyCurve(powerCurve, flowCurve);
+    const yMin = this.groupPredictFlow.currentFxyYMin;
+    const yMax = this.groupPredictFlow.currentFxyYMax;
+    if (yMax <= yMin) return 0;
+    return (flowCurve.y[peakIndex] - yMin) / (yMax - yMin);
+  }
+
   // Function to predict control value for a desired flow
   calcCtrl(x) {
     if(this.hasCurve) {

test/integration/abort-deadlock.integration.test.js

@@ -0,0 +1,164 @@
+// Reproducer: pump's state machine deadlocks in 'accelerating' under
+// rapid setpoint retargeting.
+//
+// The demo flow drives MGC to call `abortActiveMovements` on every
+// handleInput. If a movement aborts mid-flight, state.moveTo's catch
+// block keeps the FSM in 'accelerating' (avoids a bounce loop). Any
+// NEXT setpoint then hits state.moveTo's early-return at the top:
+//
+//   if (this.stateManager.getCurrentState() !== "operational") {
+//     this.delayedMove = targetPosition;
+//     return;            // ← never moves
+//   }
+//
+// `delayedMove` only fires from the SUCCESS branch of an active
+// moveTo, which can't run because state is stuck. Result: pump's
+// currentPosition freezes; ctrl.predicted keeps updating (set inside
+// calcCtrl regardless of whether setpoint actually moves) so the
+// dashboard shows non-zero ctrl% but the editor badge stays at 0.
+
+const test = require('node:test');
+const assert = require('node:assert/strict');
+
+const Machine = require('../../src/specificClass');
+const { POSITIONS } = require('generalFunctions');
+
+const stateConfig = {
+  general: { logging: { enabled: false, logLevel: 'error' } },
+  state: { current: 'idle' },
+  movement: { mode: 'staticspeed', speed: 10, maxSpeed: 100, interval: 50 },
+  // Match demo's slow ramp.
+  time: { starting: 0, warmingup: 0, stopping: 0, coolingdown: 0 },
+};
+
+function machineConfig() {
+  return {
+    general: { id: 'p1', name: 'p1', unit: 'm3/h',
+               logging: { enabled: false, logLevel: 'error' } },
+    functionality: { softwareType: 'machine', role: 'rotationaldevicecontroller' },
+    asset: { category: 'pump', type: 'centrifugal',
+             model: 'hidrostal-H05K-S03R', supplier: 'hidrostal' },
+    mode: {
+      current: 'auto',
+      allowedActions: { auto: ['execsequence', 'execmovement', 'flowmovement', 'statuscheck'] },
+      allowedSources: { auto: ['parent', 'GUI'] },
+    },
+    sequences: {
+      startup: ['starting', 'warmingup', 'operational'],
+      shutdown: ['stopping', 'coolingdown', 'idle'],
+      emergencystop: ['emergencystop', 'off'],
+    },
+  };
+}
+
+function makeMachineOperational() {
+  const m = new Machine(machineConfig(), stateConfig);
+  m.updateMeasuredPressure(0,    'upstream',
+    { timestamp: Date.now(), unit: 'mbar', childName: 'up', childId: 'up-1' });
+  m.updateMeasuredPressure(1100, 'downstream',
+    { timestamp: Date.now(), unit: 'mbar', childName: 'dn', childId: 'dn-1' });
+  return m;
+}
+
+const sleep = (ms) => new Promise(r => setTimeout(r, ms));
+
+test('parking deadlock: state stuck in accelerating swallows new setpoints', async () => {
+  // Direct reproducer of state.moveTo's early-return path. Force the
+  // FSM into 'accelerating' (the post-abort residue), then issue a new
+  // setpoint. The early-return at state.js:68 saves delayedMove and
+  // returns; delayedMove never fires because nothing transitions back
+  // to operational.
+
+  const m = makeMachineOperational();
+  await m.handleInput('parent', 'execsequence', 'startup');
+  for (let i = 0; i < 50 && m.state.getCurrentState() !== 'operational'; i++) await sleep(20);
+  assert.equal(m.state.getCurrentState(), 'operational');
+
+  // Force state to 'accelerating' (mimic the post-abort residue) by
+  // poking the underlying stateManager directly. This bypasses the
+  // race conditions and isolates the early-return branch.
+  await m.state.stateManager.transitionTo('accelerating');
+  assert.equal(m.state.getCurrentState(), 'accelerating');
+  const positionBefore = m.state.getCurrentPosition();
+
+  // Issue a fresh setpoint (what MGC's optimalControl would do).
+  await m.handleInput('parent', 'flowmovement', 200);
+  await sleep(800);   // generous — at speed=10 u/s, 8 units in 0.8s.
+
+  const positionAfter = m.state.getCurrentPosition();
+  const stateFinal = m.state.getCurrentState();
+  console.log({
+    positionBefore, positionAfter,
+    stateFinal,
+    delayedMove: m.state.delayedMove,
+    delta: (positionAfter - positionBefore).toFixed(3),
+  });
+
+  assert.ok(positionAfter - positionBefore > 1,
+    `[BUG] currentPosition stuck at ${positionBefore.toFixed(2)} — moveTo's early-return at state.js:68 swallowed the setpoint. ` +
+    `delayedMove=${m.state.delayedMove} state=${stateFinal}`);
+});
+
+test('chain deadlock: aborted move + new setpoint freezes position (race-condition path)', async () => {
+  // Deterministic reproducer of the deadlock the user observed live in
+  // Node-RED. Key invariant being asserted: AFTER a routine abort, a
+  // subsequent setpoint MUST eventually move the pump toward the new
+  // target. Today it freezes because state.moveTo's early-return at
+  // the top stores the target in `delayedMove` but `delayedMove` only
+  // fires from inside an active moveTo's success branch — and there
+  // is none, since state stays in 'accelerating'.
+
+  const m = makeMachineOperational();
+
+  await m.handleInput('parent', 'execsequence', 'startup');
+  for (let i = 0; i < 50 && m.state.getCurrentState() !== 'operational'; i++) await sleep(20);
+  assert.equal(m.state.getCurrentState(), 'operational');
+
+  // Step 1: kick off a long traversal to position 80. Speed=10, so this
+  // takes ~8 s. We need it to be reliably in 'accelerating' when we abort.
+  m.setpoint(80);                          // not awaited
+  // movementManager interval is 50ms; wait two ticks so position has
+  // demonstrably advanced and state is firmly in 'accelerating'.
+  await sleep(150);
+  assert.equal(m.state.getCurrentState(), 'accelerating',
+    `precondition: pump should be accelerating mid-traversal; got ${m.state.getCurrentState()}`);
+  const positionDuringMove = m.state.getCurrentPosition();
+  assert.ok(positionDuringMove > 0 && positionDuringMove < 80,
+    `precondition: pump should be mid-traversal, got ${positionDuringMove}`);
+
+  // Step 2: routine abort, exactly what MGC's abortActiveMovements does.
+  m.abortMovement('routine retarget');
+  // Wait for the abort signal to propagate through the setInterval.
+  await sleep(120);
+
+  const stateAfterAbort = m.state.getCurrentState();
+  const positionAfterAbort = m.state.getCurrentPosition();
+
+  // Step 3: a fresh setpoint — what MGC's optimalControl issues next.
+  // Use a target DIFFERENT from current position so the early-return
+  // `targetPosition === currentPosition` doesn't apply.
+  await m.handleInput('parent', 'flowmovement', 200); // m³/h → distinct ctrl%
+  // Give it half a second, plenty of time for movement to advance at
+  // speed=10 u/s if it actually proceeds.
+  await sleep(500);
+
+  const stateFinal = m.state.getCurrentState();
+  const positionFinal = m.state.getCurrentPosition();
+
+  console.log({
+    positionDuringMove,
+    stateAfterAbort, positionAfterAbort,
+    stateFinal, positionFinal,
+    delayedMove: m.state?.delayedMove,
+    delta: (positionFinal - positionAfterAbort).toFixed(3),
+  });
+
+  // The bug: position stays parked exactly where the abort left it.
+  // Either the FSM is still in 'accelerating' (so moveTo's top-level
+  // early-return stored the new setpoint in delayedMove and bailed), or
+  // both — state stuck AND delayedMove holding the new target. After
+  // the fix, position should advance toward the new setpoint.
+  assert.ok(positionFinal - positionAfterAbort > 1,
+    `[BUG] currentPosition frozen at ${positionAfterAbort.toFixed(2)} — moveTo's early-return swallowed the new setpoint, ` +
+    `delayedMove=${m.state?.delayedMove}, finalState=${stateFinal}`);
+});

test/integration/coolprop.integration.test.js

@@ -48,7 +48,12 @@ test('predictions use initialized medium pressure and not the minimum-pressure f
   assert.equal(pressureStatus.initialized, true);
   assert.equal(pressureStatus.hasDifferential, true);
 
-  const expectedDiff = (mediumDownstreamMbar - mediumUpstreamMbar) * 100; // mbar -> Pa canonical
-  assert.equal(Math.round(machine.predictFlow.fDimension), expectedDiff);
+  const rawDiff = (mediumDownstreamMbar - mediumUpstreamMbar) * 100; // mbar -> Pa = 40000
+  // fDimension is clamped to [fValues.min, fValues.max]. The H05K curve's
+  // minimum pressure slice is 70000 Pa (700 mbar). A 40000 Pa differential
+  // is below the curve minimum, so it gets clamped to 70000.
+  const curveMinPressure = 70000;
+  const expected = Math.max(rawDiff, curveMinPressure);
+  assert.equal(Math.round(machine.predictFlow.fDimension), expected);
   assert.ok(machine.predictFlow.fDimension > 0);
 });

test/integration/pressure-initialization.integration.test.js

@@ -14,7 +14,10 @@ test('pressure initialization combinations are handled explicitly', () => {
   assert.equal(status.source, null);
   const noPressureValue = machine.getMeasuredPressure();
   assert.equal(noPressureValue, 0);
-  assert.ok(machine.predictFlow.fDimension <= 1);
+  // With no pressure injected, fDimension is clamped to the curve minimum
+  // (70000 Pa for H05K). Previously a schema default at pressure "1" made
+  // fValues.min=1 — that was a data-poisoning bug, now fixed.
+  assert.ok(machine.predictFlow.fDimension >= 70000);
 
   // upstream only
   machine = createMachine();
@@ -44,9 +47,11 @@ test('pressure initialization combinations are handled explicitly', () => {
   assert.equal(Math.round(downstreamValue), downstreamOnly * 100);
   assert.equal(Math.round(machine.predictFlow.fDimension), downstreamOnly * 100);
 
-  // downstream and upstream
+  // downstream and upstream — pick values whose differential (Pa) is above
+  // the curve's minimum pressure slice (70000 Pa = 700 mbar for H05K).
+  // 200 mbar upstream + 1100 mbar downstream → diff = 900 mbar = 90000 Pa.
   machine = createMachine();
-  const upstream = 700;
+  const upstream = 200;
   const downstream = 1100;
   machine.measurements.type('pressure').variant('measured').position('upstream').value(upstream, Date.now(), 'mbar');
   machine.measurements.type('pressure').variant('measured').position('downstream').value(downstream, Date.now(), 'mbar');

test/integration/sequences.integration.test.js

@@ -14,11 +14,16 @@ test('execSequence startup reaches operational with zero transition times', asyn
 
 test('execMovement constrains controller position to safe bounds in operational state', async () => {
   const machine = new Machine(makeMachineConfig(), makeStateConfig({ state: { current: 'operational' } }));
-  const { max } = machine._resolveSetpointBounds();
+  const { min, max } = machine._resolveSetpointBounds();
 
+  // Test upper constraint: setpoint above max gets clamped to max
+  await machine.handleInput('parent', 'execMovement', max + 50);
+  let pos = machine.state.getCurrentPosition();
+  assert.equal(pos, max, `setpoint above max should be clamped to ${max}`);
+
+  // Test that a valid setpoint within bounds is applied as-is
   await machine.handleInput('parent', 'execMovement', 10);
-
-  const pos = machine.state.getCurrentPosition();
-  assert.ok(pos <= max);
-  assert.equal(pos, max);
+  pos = machine.state.getCurrentPosition();
+  assert.equal(pos, 10, 'setpoint within bounds should be applied as-is');
+  assert.ok(pos >= min && pos <= max);
 });

test/integration/shutdown-sequence.integration.test.js

@@ -70,3 +70,77 @@ test('exitmaintenance requires mode with exitmaintenance action allowed', async
   await machine.handleInput('fysical', 'exitMaintenance', 'exitmaintenance');
   assert.equal(machine.state.getCurrentState(), 'idle');
 });
+
+test('shutdown clears delayedMove synchronously, before the abort/await path runs', async () => {
+  // Regression: when MGC parks a setpoint in state.delayedMove during a
+  // dead-zone keep-alive, then PS commands shutdown via turnOffAllMachines,
+  // the shutdown's interruptible-abort path triggers transitionToState
+  // ('operational'), which auto-picks up delayedMove and re-starts the
+  // pump. Pump bounces accelerating ↔ decelerating forever and the
+  // shutdown sequence never reaches idle. Observed live in the
+  // pumpingstation-complete-example demo: basin drained past stopLevel
+  // with one pump stuck at minimum flow.
+  //
+  // Fix: executeSequence clears state.delayedMove for shutdown/emergencystop
+  // BEFORE the abort+await path. Asserting synchronously (race the first
+  // microtask) is the precise behavioural check — without the fix, the
+  // auto-pickup could still re-engage the pump on the way to idle even if
+  // the value is null after the call returns.
+
+  const slowMove = makeStateConfig({
+    movement: { mode: 'staticspeed', speed: 50, maxSpeed: 100, interval: 10 },
+  });
+  const machine = new Machine(makeMachineConfig(), slowMove);
+
+  await machine.handleInput('parent', 'execSequence', 'startup');
+  assert.equal(machine.state.getCurrentState(), 'operational');
+  machine.setpoint(80);
+  await new Promise((r) => setTimeout(r, 50));
+  assert.equal(machine.state.getCurrentState(), 'accelerating');
+
+  machine.state.delayedMove = 75;
+
+  // Kick off the shutdown but do not await — capture state before the
+  // abort path's await yields.
+  const shutdownPromise = machine.handleInput('parent', 'execSequence', 'shutdown');
+  // Yield once to allow the synchronous prelude of executeSequence to run
+  // (lookup, lowercase, the new delayedMove=null assignment) without
+  // letting any await resolve.
+  await Promise.resolve();
+  assert.equal(machine.state.delayedMove, null,
+    'delayedMove must be cleared synchronously by the shutdown prelude — otherwise the abort path will auto-pick it up');
+
+  await shutdownPromise;
+  assert.equal(machine.state.getCurrentState(), 'idle');
+});
+
+test('emergencystop also clears queued delayedMove', async () => {
+  const machine = new Machine(makeMachineConfig(), makeStateConfig());
+
+  await machine.handleInput('parent', 'execSequence', 'startup');
+  await machine.handleInput('parent', 'execMovement', 30);
+  machine.state.delayedMove = 60;
+
+  await machine.handleInput('parent', 'execSequence', 'emergencystop');
+
+  assert.equal(machine.state.delayedMove, null,
+    'emergency-stop must clear delayedMove');
+});
+
+test('startup does NOT clear delayedMove (only shutdown/emergencystop does)', async () => {
+  // delayedMove serves a legitimate purpose for non-stop sequences — e.g.
+  // setpoints arriving while the pump is in 'starting' get queued and
+  // auto-picked-up when state lands in 'operational'. The fix must be
+  // narrowly scoped to interruptible (stop) sequences.
+  const machine = new Machine(makeMachineConfig(), makeStateConfig());
+
+  await machine.handleInput('parent', 'execSequence', 'startup');
+  machine.state.delayedMove = 42;
+
+  // Re-running startup from operational is a no-op for state, but the
+  // delayedMove must still be there afterwards for the auto-pickup to fire.
+  await machine.handleInput('parent', 'execSequence', 'startup');
+
+  assert.equal(machine.state.delayedMove, 42,
+    'non-stop sequences must preserve delayedMove for the auto-pickup');
+});