// a.T.m instead of b.T.m.
func F1(i interface{ m() }) { i.m() }

// The interface method calling convention depends on interface method
// sets being sorted in the same order across compilation units.  In
// the test case below, at the call to b.F2(b.T{}) in c.go, the
// interface method set is sorted as { a.m(); b.m() }.
//
// However, while compiling package b, its package path is set to "",

     */
    void progress(String status);

    /**
     * Indicates some progress of this build operation.
     */
    void progress(long progress, long total, String units, String status);

				return fmt.Errorf("reading meta-data file %s: %v",
					p.MetaFile, err)
			}
			key := pkfunc{pk: pkIdx, fcn: fnIdx}
			counters, haveCounters := pmm[key]
			for i := 0; i < len(fd.Units); i++ {
				u := fd.Units[i]
				// Skip units with non-zero parent (no way to represent
				// these in the existing format).
				if u.Parent != 0 {
					continue
				}
				count := uint32(0)
				if haveCounters {

	if hcid := coverage.HardCodedPkgID(ppath); hcid != -1 {
		return fmt.Sprintf("uint32(%d)", uint32(hcid))
	}
	return mkPackageIdVar()
}

func (f *File) preFunc(fn ast.Node, fname string) {
	f.fn.units = f.fn.units[:0]

	// create a new counter variable for this function.
	cv := mkCounterVarName(len(f.pkg.counterLengths))
	f.fn.counterVar = cv
}

import java.nio.file.Path;
import java.nio.file.Paths;
import java.util.Optional;

import static java.util.concurrent.TimeUnit.SECONDS;

/*
 * Benchmark                     Mode  Cnt          Score         Error  Units
 * OptionalBenchmark.nullCheck  thrpt   20  107887111.061 ±  882182.482  ops/s
 * OptionalBenchmark.optional   thrpt   20   86746312.090 ± 1150860.296  ops/s
 **/
@Fork(2)
@Warmup(iterations = 10, time = 1, timeUnit = SECONDS)

  no-transition-all: 0
  no-url-domains: 2
  no-url-protocols: 2
  no-warn: 2
  one-declaration-per-line: 2
  placeholder-in-extend: 2
  placeholder-name-format: 2
  property-sort-order: 0
  property-units: 2
  pseudo-element: 2
  quotes:
    - 2
    -
      style: double
  shorthand-values: 2
  single-line-per-selector: 0
  space-after-bang: 2
  space-after-colon: 2
  space-after-comma: 2

        1000      | "1000 s"      | "16.667 m"
        0.123     | "0.123 s"     | "123 ms"
        0.1234567 | "0.1234567 s" | "123.457 ms"
        -12       | "-12 s"       | "-12 s"
    }

    def "can convert between units"() {
        expect:
        Duration.millis(45000) == Duration.seconds(45)
        Duration.seconds(0.98) == Duration.millis(980)
        Duration.seconds(120) == Duration.minutes(2)

wall:
	MOVL	(_SYSTEM_TIME+time_hi1), CX
	MOVL	(_SYSTEM_TIME+time_lo), AX
	MOVL	(_SYSTEM_TIME+time_hi2), DX
	CMPL	CX, DX
	JNE	wall

	// w = DX:AX
	// convert to Unix epoch (but still 100ns units)
	#define delta 116444736000000000
	SUBL	$(delta & 0xFFFFFFFF), AX
	SBBL $(delta >> 32), DX

	// nano/100 = DX:AX
	// split into two decimal halves by div 1e9.
	// (decimal point is two spots over from correct place,

See the License for the specific language governing permissions and
limitations under the License.
*/

package request

import (
	"fmt"
	"math"
	"time"
)

// SeatSeconds is a measure of work, in units of seat-seconds, using a fixed-point representation.
// `SeatSeconds(n)` represents `n/ssScale` seat-seconds.
// The `ssScale` constant is private to the implementation here,
// no other code should use it.
type SeatSeconds uint64

namespace mlir::quant::stablehlo {

// A `PassInstrumentation` that saves quantization report to file after
// `QuantizeCompositeFunctionsPass` is run. It inspects the `ModuleOp` after
// quantization and analyzes the quantizable units and quantization methods
// used. The report file will be saved at the `file_path`. The report file
// contains textproto of `QuantizationResults`. `file_path`'s base directories