var g T

var sink interface{}

func TestIssue15854(t *testing.T) {
	for i := 0; i < 10000; i++ {
		if g.x[0] != 0 {
			t.Fatalf("g.x[0] clobbered with %x\n", g.x[0])
		}
		// The bug was in the following assignment. The return
		// value of makeT() is not copied out of the args area of
		// stack frame in a timely fashion. So when write barriers
		// are enabled, the marshaling of the args for the write

   * SES.schedule is called. Therefore Fire.run has to check for null. However, it should be visible
   * if Fire.run is called by delegate.addListener since addListener is called after the assignment
   * to timer, and importantly this is the main situation in which we need to be able to see the
   * write.
   *
   * 2. visibility of the writes to an afterDone() call triggered by cancel():
   *

// --------------------------------------------------------------------------

#ifdef __cplusplus
extern "C" {
#endif

typedef struct TF_VariableInputLockHolder TF_VariableInputLockHolder;

// Expose higher level Assignment operation for Pluggable vendors to implement
// in the plugin for Training. The API takes in the context with indices for
// the input and value tensors. It also accepts the copy callback provided by

data class FunctionCall(val receiver: Expr?, val name: String, val args: List<FunctionArgument>, override val sourceData: SourceData) : Expr


data class Assignment(val lhs: PropertyAccess, val rhs: Expr, override val sourceData: SourceData) : DataStatement


data class LocalValue(val name: String, val rhs: Expr, override val sourceData: SourceData) : DataStatement

}

// clone is implemented in the runtime package.
//
//go:linkname clone maps.clone
func clone(m any) any

// Clone returns a copy of m.  This is a shallow clone:
// the new keys and values are set using ordinary assignment.
func Clone[M ~map[K]V, K comparable, V any](m M) M {
	// Preserve nil in case it matters.
	if m == nil {
		return nil
	}
	return clone(m).(M)
}

// Copy copies all key/value pairs in src adding them to dst.

}

func bufferNoEscape4() []byte {
	var b bytes.Buffer
	b.Grow(64) // ERROR "bufferNoEscape4 ignoring self-assignment in bytes.b.buf = bytes.b.buf\[:bytes.m\]$" "inlining call to bytes.\(\*Buffer\).Grow$" `".+" escapes to heap`
	useBuffer(&b)
	return b.Bytes() // ERROR "inlining call to bytes.\(\*Buffer\).Bytes$"
}

        isTransitive = false
    }
    implementation(libs.futureKotlin("sam-with-receiver-compiler-plugin")) {
        isTransitive = false
    }
    implementation(libs.futureKotlin("assignment-compiler-plugin-embeddable")) {
        isTransitive = false
    }
    implementation("org.jetbrains.kotlinx:kotlinx-metadata-jvm:0.5.0") {
        isTransitive = false
    }

      context(), DT_FLOAT, {}, nullptr, &handle));

  // Destroy the variable
  TF_EXPECT_OK(internal::DestroyResource(context(), handle.get()));
}

// Sanity check for handle assignment and reading
TEST_F(VariableOpsTest, AssignVariableAndReadSuccessful) {
  // Create a DT_Resource TensorHandle that points to a scalar DT_FLOAT tensor
  ImmediateTensorHandlePtr variable;

				max = a
			}
		}
		return max
	case *Slice, *Interface:
		// Multiword data structures are effectively structs
		// in which each element has size WordSize.
		// Type parameters lead to variable sizes/alignments;
		// StdSizes.Alignof won't be called for them.
		assert(!isTypeParam(T))
		return s.WordSize
	case *Basic:
		// Strings are like slices and interfaces.
		if t.Info()&IsString != 0 {
			return s.WordSize
		}

	case *Interface:
		// Type parameters lead to variable sizes/alignments;
		// StdSizes.Sizeof won't be called for them.
		assert(!isTypeParam(T))
		return s.WordSize * 2
	case *TypeParam, *Union:
		panic("unreachable")
	}
	return s.WordSize // catch-all
}

// common architecture word sizes and alignments
var gcArchSizes = map[string]*gcSizes{
	"386":      {4, 4},
	"amd64":    {8, 8},