// for the batch.
	gen, err := binary.ReadUvarint(r)
	if err != nil {
		return batch{}, gen, fmt.Errorf("error reading batch gen: %w", err)
	}
	m, err := binary.ReadUvarint(r)
	if err != nil {
		return batch{}, gen, fmt.Errorf("error reading batch M ID: %w", err)
	}
	ts, err := binary.ReadUvarint(r)
	if err != nil {

  // Move binary op before reshape: reshape -> binary => binary -> reshape.
  // This is valid only when the binary operand is constant and the shape is the
  // tail of the other operand and the intermediate result isn't used by other
  // ops.
  // $rhs is required to be the tail shape of $lhs, so after transformation the
  // shape of the binary op result is valid. For example, assume the shapes of

|5
|Java
|Binary plugin
|an abstract class that implements the `apply(Project project)` method of the `Plugin<Project>` interface in Java.
|Yes

|6
|Kotlin / Kotlin DSL
|Binary plugin

	default:
		return nil, fmt.Errorf("unrecognised archive magic: 0x%x", magic)
	}

	var fhdr bigarFileHeader
	if _, err := sr.Seek(0, io.SeekStart); err != nil {
		return nil, err
	}
	if err := binary.Read(sr, binary.BigEndian, &fhdr); err != nil {
		return nil, err
	}

	off, err := parseDecimalBytes(fhdr.Flfstmoff[:])
	if err != nil {

// for the final link of the gofmt binary and comparing it against the
// already-installed gofmt binary. But computing the action ID for the link
// means knowing the content ID of main.a, which we did not keep.
// To sidestep this problem, each binary actually stores an expanded build ID:
//
//	actionID(binary)/actionID(main.a)/contentID(main.a)/contentID(binary)
//
// (Note that this can be viewed equivalently as:
//

	}
	w.Flush()
	return nil
}

func encodedSize(e *raw.Event) int {
	size := 1
	var buf [binary.MaxVarintLen64]byte
	for _, arg := range e.Args {
		size += binary.PutUvarint(buf[:], arg)
	}
	spec := e.Version.Specs()[e.Ev]
	if spec.HasData {
		size += binary.PutUvarint(buf[:], uint64(len(e.Data)))
		size += len(e.Data)
	}
	return size
}

type countingReader struct {

            inputsWithBinary.add(InstanceModelView.of(getSubject().getPath(), getSubject().getType(), binary));

            invoke(invoker, inputsWithBinary, cast, binary, binary);
        }
    }

    private static class ExtractedBinaryTasksRule<T extends BinarySpec>  extends AbstractExtractedModelRule {
        private final ModelType<T> binaryType;

//
//go:linkname Float32bits

// Float32bits returns the IEEE 754 binary representation of f,
// with the sign bit of f and the result in the same bit position.
// Float32bits(Float32frombits(x)) == x.
func Float32bits(f float32) uint32 { return *(*uint32)(unsafe.Pointer(&f)) }

// Float32frombits returns the floating-point number corresponding
// to the IEEE 754 binary representation b, with the sign bit of b

env GOPATH=
env HOME=''
env USERPROFILE=''
env home=''

# Relocated Executable
# Since we built with -trimpath and the binary isn't installed in a
# normal-looking GOROOT, this command should fail.

! exec $WORK/new/bin/go$GOEXE env GOROOT
stderr '^go: cannot find GOROOT directory: ''go'' binary is trimmed and GOROOT is not set$'
! stderr 'GOPATH set to GOROOT'

    Node* f = Unary(d, b1.opts().WithName("F").WithAttr("_encapsulate", "F1"));
    Node* g = Unary(f, b1.opts()
                           .WithName("G")
                           .WithAttr("_encapsulate", "F1")
                           .WithAttr("_outside", "O2")
                           .WithControlInput(e));
    Node* h = Unary(g, b1.opts().WithName("H").WithAttr("_encapsulate", "F1"));