}

    def "distribution size should not exceed a certain number"() {
        expect:
        def size = getZip().size()

        assert size <= getMaxDistributionSizeBytes() : "Distribution content needs to be verified. If the increase is expected, raise the size by ${Math.ceil((size - getMaxDistributionSizeBytes()) / 1024 / 1024)}"
    }

	}

	*(*slice)(unsafe.Pointer(&b)) = slice{p, size, int(cap)}
	return
}

// rawruneslice allocates a new rune slice. The rune slice is not zeroed.
func rawruneslice(size int) (b []rune) {
	if uintptr(size) > maxAlloc/4 {
		throw("out of memory")
	}
	mem := roundupsize(uintptr(size)*4, true)
	p := mallocgc(mem, nil, false)
	if mem != uintptr(size)*4 {

package sha1

import (
	"crypto"
	"crypto/internal/boring"
	"errors"
	"hash"
	"internal/byteorder"
)

func init() {
	crypto.RegisterHash(crypto.SHA1, New)
}

// The size of a SHA-1 checksum in bytes.
const Size = 20

// The blocksize of SHA-1 in bytes.
const BlockSize = 64

const (
	chunk = 64
	init0 = 0x67452301
	init1 = 0xEFCDAB89
	init2 = 0x98BADCFE
	init3 = 0x10325476

        def modules2 = endorseFrom2.targetComponent.nodes[0].ownStrictVersionConstraints.getModules()

        modulesAll.size() == 5
        modules1.size() == 1
        modules2.size() == 4

        modulesAll == modules1 + modules2

        endorseFrom1.targetComponent.nodes[0].ownStrictVersionConstraints != endorsedStrictVersions

        if (trimmed.matches("\\d+")) {
            int value = Integer.parseInt(trimmed);
            if (value > 0 && value <= options.size()) {
                return PromptResult.response(value - 1);
            }
        }
        return PromptResult.newPrompt("Please enter a value between 1 and " + options.size() + ": ");
    }

		if err != nil {
			return nil, ObjectInfo{}, err
		}
		if size > len(b) {
			size = len(b)
		}

		// Calculate the object real size if encrypted
		if _, ok := crypto.IsEncrypted(gr.ObjInfo.UserDefined); ok {
			objSize, err = gr.ObjInfo.DecryptedSize()
			if err != nil {
				return nil, ObjectInfo{}, err
			}
		} else {
			objSize = gr.ObjInfo.Size
		}

		progress := cr.bytesRead.Load()
		pct := float64(progress) / float64(size) * 100
		log.Printf("%s of %s (%.1f%%) processed...", byteCount(progress), byteCount(size), pct)
	}
	return
}

type parsedTrace struct {
	events      []trace.Event
	summary     *trace.Summary
	size, valid int64
	err         error
}

func parseTrace(rr io.Reader, size int64) (*parsedTrace, error) {
	// Set up the reader.

        immutable.packaging == "jar"
        !immutable.relocated
        immutable.getConfiguration("compile").artifacts.size() == 1
        immutable.getConfiguration("runtime").artifacts.size() == 1
        immutable.getConfiguration("default").artifacts.size() == 1
        immutable.getConfiguration("master").artifacts.size() == 1
        !immutable.getConfiguration("unknown")

        and:
        def copy = immutable.asMutable()

	{PKCS1WithSHA256, 19 + crypto.SHA256.Size() + 11, VersionTLS12},
	{PKCS1WithSHA384, 19 + crypto.SHA384.Size() + 11, VersionTLS12},
	{PKCS1WithSHA512, 19 + crypto.SHA512.Size() + 11, VersionTLS12},
	{PKCS1WithSHA1, 15 + crypto.SHA1.Size() + 11, VersionTLS12},
}

// signatureSchemesForCertificate returns the list of supported SignatureSchemes

}

const (
	// Size is the size, in bytes, of a SHA-512 checksum.
	Size = 64

	// Size224 is the size, in bytes, of a SHA-512/224 checksum.
	Size224 = 28

	// Size256 is the size, in bytes, of a SHA-512/256 checksum.
	Size256 = 32

	// Size384 is the size, in bytes, of a SHA-384 checksum.
	Size384 = 48

	// BlockSize is the block size, in bytes, of the SHA-512/224,