o1 &^= 0x3ffff
		o2 &^= 0x0ffff
		o1 |= computePrefix34HI(t)
		o2 |= computeLO(int32(t))
	case objabi.R_ADDRPOWER_D34:
		o1 &^= 0x3ffff
		o2 &^= 0x0ffff
		o1 |= computePrefix34HI(t)
		o2 |= computeLO(int32(t))
	case objabi.R_ADDRPOWER:
		o1 &^= 0xffff
		o2 &^= 0xffff
		o1 |= computeHA(int32(t))
		o2 |= computeLO(int32(t))
	case objabi.R_ADDRPOWER_DS:
		o1 &^= 0xffff
		o2 &^= 0xfffc

	EtcdVersions                  map[string][]string
	KubeletVersions               map[string][]string
}

// GetAvailableUpgrades fetches all versions from the specified VersionGetter and computes which
// kinds of upgrades can be performed
func GetAvailableUpgrades(versionGetterImpl VersionGetter, experimentalUpgradesAllowed, rcUpgradesAllowed bool, client clientset.Interface, printer output.Printer) ([]Upgrade, error) {

	// (don't sort embeddeds: they must correspond to *embedPos entries)

	// Compute type set as soon as possible to report any errors.
	// Subsequent uses of type sets will use this computed type
	// set and won't need to pass in a *Checker.
	check.later(func() {
		computeInterfaceTypeSet(check, iface.Pos(), ityp)
	}).describef(iface, "compute type set for %s", ityp)

                """

                initscript {
                    dependencies { classpath(files("fixture.jar")) }
                }

                val computer = ${DeepThought::class.qualifiedName}()
                val answer = computer.compute()
                println("*" + answer + "*")
                """
            )

        assert(
            build("-I", initScript.canonicalPath)

            }

            task("compute") {
                doLast {
                    val computer = ${DeepThought::class.qualifiedName}()
                    val answer = computer.compute()
                    println("*" + answer + "*")
                }
            }
            """.let(buildscriptTransformation)
        )

        assert(
            build("compute").output.contains("*42*")
        )
    }

	return ETag(sum)
}

// VerifyError is an error signaling that a
// computed ETag does not match an expected
// ETag.
type VerifyError struct {
	Expected ETag
	Computed ETag
}

func (v VerifyError) Error() string {
	return fmt.Sprintf("etag: expected ETag %q does not match computed ETag %q", v.Expected, v.Computed)
}

// UUIDHash - use uuid to make md5sum
type UUIDHash struct {
	uuid []byte

package maphash

// A Seed is a random value that selects the specific hash function
// computed by a [Hash]. If two Hashes use the same Seeds, they
// will compute the same hash values for any given input.
// If two Hashes use different Seeds, they are very likely to compute
// distinct hash values for any given input.
//
// A Seed must be initialized by calling [MakeSeed].

    /**
     * A compound access that read, compute, and write the computed value back. Note that calls to `<op>Assign` is not represented by this.
     */
    public class CompoundAssign(
        operationPartiallyAppliedSymbol: KaPartiallyAppliedFunctionSymbol<KaFunctionSymbol>,
        kind: Kind,
        operand: KtExpression,

     */
    public open fun computePackageNamesWithTopLevelClassifiers(): Set<String>? = computePackageNames()

    /**
     * Whether the declaration provider has a specific implementation of [computePackageNamesWithTopLevelCallables]. This allows the
     * Analysis API backend to determine whether callable package sets are computed and cached separately or with [computePackageNames].
     */

	"container/heap"
	"fmt"
	. "internal/types/errors"
	"sort"
)

// initOrder computes the Info.InitOrder for package variables.
func (check *Checker) initOrder() {
	// An InitOrder may already have been computed if a package is
	// built from several calls to (*Checker).Files. Clear it.
	check.Info.InitOrder = check.Info.InitOrder[:0]

	// Compute the object dependency graph and initialize
	// a priority queue with the list of graph nodes.