mgr.AddContainer(testCase.podAllocate, &testCase.podAllocate.Spec.Containers[i], appContainer.Name)
			}

			assignments := mgr.state.GetMemoryAssignments()
			if !areContainerMemoryAssignmentsEqual(t, assignments, testCase.expectedAssignments) {
				t.Fatalf("Actual assignments %v are different from the expected %v", assignments, testCase.expectedAssignments)
			}

			machineState := mgr.state.GetMachineState()

  std::array<Predicate*, 2> operands_;
  std::vector<string> frame_;
};

// Represents an uninterpreted symbol in a logical predicate.
//
// Two predicates are equivalent iff they are equivalent for all assignments to
// the symbols contained in them, i.e. predicates are forall qualified over
// symbols.
class SymbolPredicate : public Predicate {
 public:

)

// TLS signaling cipher suite values
const (
	scsvRenegotiation uint16 = 0x00ff
)

// CurveID is the type of a TLS identifier for a key exchange mechanism. See
// https://www.iana.org/assignments/tls-parameters/tls-parameters.xml#tls-parameters-8.
//
// In TLS 1.2, this registry used to support only elliptic curves. In TLS 1.3,
// it was extended to other groups and renamed NamedGroup. See RFC 8446, Section

				fmt.Printf(" avoid=%v", s.RegMaskString(avoid))
			}
			fmt.Println()
		}
	}
}

// A desiredState represents desired register assignments.
type desiredState struct {
	// Desired assignments will be small, so we just use a list
	// of valueID+registers entries.
	entries []desiredStateEntry
	// Registers that other values want to be in.  This value will

			fatalf("%s", err)
		}
		if err = fexp.Close(); err != nil {
			fatalf("%s", err)
		}
	}

	init := gccgoInit.String()
	if init != "" {
		// The init function does nothing but simple
		// assignments, so it won't use much stack space, so
		// it's OK to not split the stack. Splitting the stack
		// can run into a bug in clang (as of 2018-11-09):
		// this is a leaf function, and when clang sees a leaf

		// which turns an expression into an assignment. Provide
		// a more explicit error message in that case to prevent
		// further confusion.
		var str string
		if as, ok := s.(*AssignStmt); ok && as.Op == 0 {
			// Emphasize complex Lhs and Rhs of assignment with parentheses to highlight '='.
			str = "assignment " + emphasize(as.Lhs) + " = " + emphasize(as.Rhs)
		} else {
			str = String(s)

  return
}
```
### `-tf-device-assignment-by-func-attr`

_Device assignment in TF dialect using the device specified in the function attribute._

### `-tf-device-cluster-formation`

_Form clusters from instructions assigned to same device_

Clusters operations with the same device assignment id. For each
cluster, creates a "tf_device.device_launch" op with a Region containing the

     * queried.</p>
     *
     * <p>The order of the files in a {@code FileTree} is not stable, even on a single computer.
     *
     * @param args map of property assignments to {@code ConfigurableFileTree} object
     * @return the configured file tree. Never returns null.
     */
    ConfigurableFileTree fileTree(Map<String, ?> args);

    /**

		{newDefined(Typ[Int]), Typ[Int], false},
		{newDefined(new(Struct)), new(Struct), true},
		{Typ[UntypedBool], Typ[Bool], true},
		{Typ[UntypedString], Typ[Bool], false},
		// Neither untyped string nor untyped numeric assignments arise during
		// normal type checking, so the below behavior is technically undefined by
		// the spec.
		{Typ[UntypedString], Typ[String], true},
		{Typ[UntypedInt], Typ[Int], true},
	} {

		{newDefined(Typ[Int]), Typ[Int], false},
		{newDefined(new(Struct)), new(Struct), true},
		{Typ[UntypedBool], Typ[Bool], true},
		{Typ[UntypedString], Typ[Bool], false},
		// Neither untyped string nor untyped numeric assignments arise during
		// normal type checking, so the below behavior is technically undefined by
		// the spec.
		{Typ[UntypedString], Typ[String], true},
		{Typ[UntypedInt], Typ[Int], true},
	} {