// to the buffer space in R25.
// It clobbers condition codes.
// It does not clobber any general-purpose registers except R27,
// but may clobber others (e.g., floating point registers)
// The act of CALLing gcWriteBarrier will clobber R30 (LR).
TEXT gcWriteBarrier<>(SB),NOSPLIT,$200
	// Save the registers clobbered by the fast path.
	STP	(R0, R1), 184(RSP)
retry:
	MOVD	g_m(g), R0

// number of bytes of buffer needed in R29, and returns a pointer
// to the buffer space in R29.
// It clobbers condition codes.
// It does not clobber R0 through R17 (except special registers),
// but may clobber any other register, *including* R31.
TEXT gcWriteBarrier<>(SB),NOSPLIT,$120
	// The standard prologue clobbers R31.
	// We use R18, R19, and R31 as scratch registers.
retry:
	MOVD	g_m(g), R18
	MOVD	m_p(R18), R18

  SavedModelV2Bundle bundle;
  TF_RETURN_IF_ERROR(SavedModelV2Bundle::Load(directory, &bundle));

  // TODO(bmzhao): Mangle loaded function names so that different
  // models loaded in the same runtime Context don't clobber eachother.
  // This occurs in python here:
  // https://github.com/tensorflow/tensorflow/blob/285b5fa15405c5e2c084080f52a1818be8648079/tensorflow/python/saved_model/function_deserialization.py#L438-L454

	}

	// x's type V is a type parameter and T is not a named type,
	// and values x' of each specific type in V's type set are
	// assignable to T.
	if Vp != nil && !hasName(T) {
		x := *x // don't clobber outer x
		ok := false
		code := IncompatibleAssign
		Vp.is(func(V *term) bool {
			if V == nil {
				return false // no specific types
			}
			x.typ = V.typ
			ok, code = x.assignableTo(check, T, cause)

	length.SetType(types.Types[types.TINT])
	length.SetTypecheck(1)
	return ptr, length
}

// mayCall reports whether evaluating expression n may require
// function calls, which could clobber function call arguments/results
// currently on the stack.
func mayCall(n ir.Node) bool {
	// When instrumenting, any expression might require function calls.
	if base.Flag.Cfg.Instrumenting {
		return true
	}

	}

	// x's type V is a type parameter and T is not a named type,
	// and values x' of each specific type in V's type set are
	// assignable to T.
	if Vp != nil && !hasName(T) {
		x := *x // don't clobber outer x
		ok := false
		code := IncompatibleAssign
		Vp.is(func(V *term) bool {
			if V == nil {
				return false // no specific types
			}
			x.typ = V.typ
			ok, code = x.assignableTo(check, T, cause)

		t.Errorf("PodDisruptionBudget status updates should allow change of CurrentHealthy: %v", newPdb.Status.CurrentHealthy)
	}
	if newPdb.Spec.MinAvailable.IntValue() != 3 {
		t.Errorf("PodDisruptionBudget status updates should not clobber spec: %v", newPdb.Spec)
	}
	errs := StatusStrategy.ValidateUpdate(ctx, newPdb, oldPdb)
	if len(errs) != 0 {
		t.Errorf("Unexpected error %v", errs)
	}
}

	if newPS.Status.Replicas != 2 {
		t.Errorf("StatefulSet status updates should allow change of pods: %v", newPS.Status.Replicas)
	}
	if newPS.Spec.Replicas != 3 {
		t.Errorf("StatefulSet status updates should not clobber spec: %v", newPS.Spec)
	}
	errs := StatusStrategy.ValidateUpdate(ctx, newPS, oldPS)
	if len(errs) != 0 {
		t.Errorf("unexpected error %v", errs)
	}
}

		//            i  i+m      n  n+m
		// That's the result we want.
		return s
	}

	// The hard case - v overlaps c or d. We can't just shift up
	// the data because we'd move or clobber the values we're trying
	// to insert.
	// So instead, write v on top of d, then rotate.
	copy(s[n:], v)

	// Now we have
	// s: aaaaaaaabbbbccccccccvvvv
	//            ^   ^       ^   ^

	if n&(n-1) != 0 {
		throw("stack not a power of 2")
	}
	if stk.lo+n < stk.hi {
		throw("bad stack size")
	}
	if stackDebug >= 1 {
		println("stackfree", v, n)
		memclrNoHeapPointers(v, n) // for testing, clobber stack data
	}
	if debug.efence != 0 || stackFromSystem != 0 {
		if debug.efence != 0 || stackFaultOnFree != 0 {
			sysFault(v, n)
		} else {
			sysFree(v, n, &memstats.stacks_sys)
		}
		return
	}