fatal("concurrent map writes")
	}
	hash := t.Hasher(key, uintptr(h.hash0))

	// Set hashWriting after calling t.hasher, since t.hasher may panic,
	// in which case we have not actually done a write.
	h.flags ^= hashWriting

	if h.buckets == nil {
		h.buckets = newobject(t.Bucket) // newarray(t.Bucket, 1)
	}

again:
	bucket := hash & bucketMask(h.B)
	if h.growing() {
		growWork(t, h, bucket)

  struct HashSignatureForAndOr {
    size_t operator()(const SignatureForAndOr& signature) const {
      size_t hash = ::tensorflow::hash<Predicate::Kind>()(signature.first);
      for (Predicate* p : signature.second) {
        hash = Hash64Combine(hash, ::tensorflow::hash<Predicate*>()(p));
      }
      return hash;
    }
  };

  struct HashSignatureForSymbol {

type loadState struct {
	l            *Loader
	hashed64Syms map[uint64]symAndSize         // short hashed (content-addressable) symbols, keyed by content hash
	hashedSyms   map[goobj.HashType]symAndSize // hashed (content-addressable) symbols, keyed by content hash

	linknameVarRefs []linknameVarRef // linknamed var refererces
}

type linknameVarRef struct {

  }

  private static <E> List<E> list(E... elements) {
    return ImmutableList.copyOf(elements);
  }

  /**
   * Utility method to verify that the given LinkedHashSet is equal to and hashes identically to a
   * set constructed with the elements in the given collection. Also verifies that the ordering in
   * the set is the same as the ordering of the given contents.
   */

// be used:
//
//	// Assume hashfd is already configured using the setup process.
//	hash := os.NewFile(hashfd, "sha1")
//	// Hash an input string and read the results. Each Write discards
//	// previous hash state. Read always reads the current state.
//	b := make([]byte, 20)
//	for i := 0; i < 2; i++ {
//	    io.WriteString(hash, "Hello, world.")
//	    hash.Read(b)
//	    fmt.Println(hex.EncodeToString(b))
//	}

// Sign given request using Signature V4.
func signStreamingRequest(req *http.Request, accessKey, secretKey string, currTime time.Time) (string, error) {
	// Get hashed payload.
	hashedPayload := req.Header.Get("x-amz-content-sha256")
	if hashedPayload == "" {
		return "", fmt.Errorf("Invalid hashed payload")
	}

	// Set x-amz-date.
	req.Header.Set("x-amz-date", currTime.Format(iso8601Format))

	// Get header map.

	hashed := sha512.Sum512(b[:])
	// The first 16 bytes of the hash used to be exposed on the wire as a ticket
	// prefix. They MUST NOT be used as a secret. In the future, it would make
	// sense to use a proper KDF here, like HKDF with a fixed salt.
	const legacyTicketKeyNameLen = 16
	copy(key.aesKey[:], hashed[legacyTicketKeyNameLen:])
	copy(key.hmacKey[:], hashed[legacyTicketKeyNameLen+len(key.aesKey):])

}

type transcriptHash interface {
	Write([]byte) (int, error)
}

// transcriptMsg is a helper used to hash messages which are not hashed when
// they are read from, or written to, the wire. This is typically the case for
// messages which are either not sent, or need to be hashed out of order from
// when they are read/written.
//
// For most messages, the message is marshalled using their marshal method,

# (2)
WORKDIR /tmp

# (3)
RUN pip install poetry

# (4)
COPY ./pyproject.toml ./poetry.lock* /tmp/

# (5)
RUN poetry export -f requirements.txt --output requirements.txt --without-hashes

# (6)
FROM python:3.9

# (7)
WORKDIR /code

# (8)
COPY --from=requirements-stage /tmp/requirements.txt /code/requirements.txt

# (9)

	*ft = *prototype

	// Build a hash and minimally populate ft.
	var hash uint32
	for _, in := range in {
		t := in.(*rtype)
		args = append(args, t)
		hash = fnv1(hash, byte(t.t.Hash>>24), byte(t.t.Hash>>16), byte(t.t.Hash>>8), byte(t.t.Hash))
	}
	if variadic {
		hash = fnv1(hash, 'v')
	}
	hash = fnv1(hash, '.')
	for _, out := range out {
		t := out.(*rtype)