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 {

// 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,

// Arguments are passed in registers, but the space for those arguments are allocated
// in the caller's stack frame. These stubs write the args into that stack space and
// then tail call to the corresponding runtime handler.
// The tail call makes these stubs disappear in backtraces.
// Defined as ABIInternal since they do not use the stack-based Go ABI.
TEXT runtime·panicIndex<ABIInternal>(SB),NOSPLIT,$0-16

        fails 'checkDeps'
        failure.assertHasCause("Could not resolve group:projectA:1.+.")
        failure.assertHasCause("No cached version listing for group:projectA:1.+ available for offline mode.")
        failure.assertHasCause("Could not resolve group:projectB:latest.release.")
        failure.assertHasCause("No cached version listing for group:projectB:latest.release available for offline mode.")

        when:
        repositoryInteractions {

		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)

		fmt.Fprintf(os.Stderr, "testcache: %s: test ID %x => input ID %x => %x\n", a.Package.ImportPath, testID, testInputsID, testAndInputKey(testID, testInputsID))
	}

	// Parse cached result in preparation for changing run time to "(cached)".
	// If we can't parse the cached result, don't use it.
	data, entry, err = cache.GetBytes(cache.Default(), testAndInputKey(testID, testInputsID))
	if len(data) == 0 || data[len(data)-1] != '\n' {

      self._emit_with_loc('\n{} = arith.index_cast {} : index to i64'.format(
          casted, value))
      return casted, TFRTypes.I64
    else:
      return value, ty

  def _i64_to_index(self, value, ty):
    if ty == TFRTypes.I64:
      casted = self._ssa_name('casted')
      self._emit_with_loc('\n{} = arith.index_cast {} : i64 to index'.format(
          casted, value))

		// Before the update, the cached value should be nil
		cached := provider.getContainerUsageNanoCores(test.stats)
		assert.Nil(t, cached)

		// Update the cache and get the latest value.
		real := provider.getAndUpdateContainerUsageNanoCores(test.stats)
		assert.Equal(t, test.expected, real, test.desc)

		// After the update, the cached value should be up-to-date