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,

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

		//   Option a: Set HostConfig.CpuPercent. The units are whole percent of the total CPU capacity of the system, meaning the resolution
		//      is different based on the number of cores.
		//   Option b: Set HostConfig.NanoCpus integer <int64> - CPU quota in units of 10e-9 CPUs. Moby scales this to the Windows job object
		//      resolution of 1-10000, so it's higher resolution than option a.

*/

package cm

import (
	"fmt"
	"strconv"
	"strings"
	"sync"
	"time"

	v1 "k8s.io/api/core/v1"
	"k8s.io/klog/v2"

	"k8s.io/apimachinery/pkg/util/wait"

	units "github.com/docker/go-units"
	libcontainercgroups "github.com/opencontainers/runc/libcontainer/cgroups"
	utilfeature "k8s.io/apiserver/pkg/util/feature"

	"k8s.io/kubernetes/pkg/api/v1/resource"

    }

    /**
     * Determine the identity of the work unit that uniquely identifies it
     * among the other work units of the same type in the current build.
     */
    Identity identify(Map<String, ValueSnapshot> identityInputs, Map<String, CurrentFileCollectionFingerprint> identityFileInputs);

    interface Identity {
        /**
         * The identity of the work unit that uniquely identifies it

	return resource.ParseQuantity(pageSize)
}

// HugePageUnitSizeFromByteSize returns hugepage size has the format.
// `size` must be guaranteed to divisible into the largest units that can be expressed.
// <size><unit-prefix>B (1024 = "1KB", 1048576 = "1MB", etc).
func HugePageUnitSizeFromByteSize(size int64) (string, error) {
	// hugePageSizeUnitList is borrowed from opencontainers/runc/libcontainer/cgroups/utils.go

import (
	"fmt"
	"strconv"
)

// Parse the type units stored in a DWARF4 .debug_types section. Each
// type unit defines a single primary type and an 8-byte signature.
// Other sections may then use formRefSig8 to refer to the type.

// The typeUnit format is a single type with a signature. It holds
// the same data as a compilation unit.
type typeUnit struct {
	unit
	toff  Offset // Offset to signature type within data.

	// For histograms, multiple units may apply. For instance, the units of the buckets and
	// the count. By convention, for histograms, the units of the count are always "samples"
	// with the type of sample evident by the metric's name, while the unit in the name
	// specifies the buckets' unit.
	//
	// A complete name might look like "/memory/heap/free:bytes".
	Name string

	// Description is an English language sentence describing the metric.

     */
    @Nullable @Optional @Input
    String getMinHeapSize();

    /**
     * Sets the minimum heap size for the process.
     * Supports the units megabytes (e.g. "512m") and gigabytes (e.g. "1g").
     *
     * @param heapSize The minimum heap size. Use null for the default minimum heap size.
     */
    void setMinHeapSize(@Nullable String heapSize);

    /**