}

	hashes, err := r.ReadHashes(indexes)
	if err != nil {
		return nil, err
	}
	if len(hashes) != len(indexes) {
		return nil, fmt.Errorf("tlog: ReadHashes(%d indexes) = %d hashes", len(indexes), len(hashes))
	}

	tile := make([]byte, size*HashSize)
	for i := 0; i < size; i++ {
		copy(tile[i*HashSize:], hashes[i][:])
	}
	return tile, nil
}

		if s.checkSHA256(certificate) {
			return nil
		}

		hashes = append(hashes, Hash(certificate))
	}
	return errors.Errorf("none of the public keys %q are pinned", strings.Join(hashes, ":"))
}

// Empty returns true if the Set contains no pinned public keys.
func (s *Set) Empty() bool {
	return len(s.sha256Hashes) == 0
}

// Hash calculates the SHA-256 hash of the Subject Public Key Information (SPKI)

====
<1> Apply the `base` plugin so that you'll have a `clean` task to use to remove the output.
<2> MD5 hash files will be written to `build/md5`.
<3> This task will generate MD5 hash files for every file in the `src` directory.

You will need some source to generate MD5 hashes from.
Create three files in the `src` directory:

.src/einstein.txt
[source,text]
----

	source := filepath.Join("testdata", "fma.go")
	output := filepath.Join(tmpdir, "fma.exe")
	cmd := testenv.Command(t, gocmd, "build", "-o", output, source)
	// The hash-dependence on file path name is dodged by specifying "all hashes ending in 1" plus "all hashes ending in 0"
	// i.e., all hashes.  This will print all the FMAs; this test is only interested in one of them (that should appear near the end).

-dontwarn sun.misc.Unsafe

# Striped64 appears to make some assumptions about object layout that
# really might not be safe. This should be investigated.
-keepclassmembers class com.google.common.hash.Striped64 {
  *** base;
  *** busy;
}
-keepclassmembers class com.google.common.hash.Striped64$Cell {
  <fields>;

// limitations under the License.

package hash

import (
	"encoding/hex"

	"github.com/cespare/xxhash/v2"
)

type Hash interface {
	Write(p []byte) (n int)
	WriteString(s string) (n int)
	Sum() string
	Sum64() uint64
}

type instance struct {
	hash *xxhash.Digest
}

var _ Hash = &instance{}

func New() Hash {
	return &instance{
		hash: xxhash.New(),
	}
}

// otherwise it returns a generic implementation.
func new224() hash.Hash {
	if cpu.S390X.HasSHA3 {
		return newAsmState(sha3_224)
	}
	return new224Generic()
}

// new256 returns an assembly implementation of SHA3-256 if available,
// otherwise it returns a generic implementation.
func new256() hash.Hash {
	if cpu.S390X.HasSHA3 {
		return newAsmState(sha3_256)
	}
	return new256Generic()

                encoder.writeString(entry.getKey());
                Collection<HashCode> hashes = entry.getValue();
                encoder.writeSmallInt(hashes.size());
                for (HashCode hash : hashes) {
                    hashCodeSerializer.write(encoder, hash);
                }
            }
        } catch (IOException e) {

#   limitations under the License.

FROM python:3.12.1-slim

WORKDIR /

COPY requirements.txt ./
RUN pip3 install -vvv --require-hashes --no-cache-dir -r requirements.txt

COPY test-requirements.txt ./
RUN pip3 install --no-cache-dir --require-hashes -r test-requirements.txt

COPY productpage.py /opt/microservices/
COPY tests/unit/* /opt/microservices/
COPY templates /opt/microservices/templates

     * equality. Two <tt>NtlmPasswordAuthentication</tt> objects are equal if
     * their caseless domain and username fields are equal and either both hashes are external and they are equal or
     * both internally supplied passwords are equal. If one <tt>NtlmPasswordAuthentication</tt> object has external
     * hashes (meaning negotiated via NTLM HTTP Authentication) and the other does not they will not be equal. This is