equivalenceMock.expectHash(group1Item2, 2);

    equivalenceMock.replay();

    try {
      tester.addEquivalenceGroup(group1Item1, group1Item2).test();
    } catch (AssertionFailedError expected) {
      String expectedMessage =
          "the hash (1) of TestObject{group=1, item=1} [group 1, item 1] must be "
              + "equal to the hash (2) of TestObject{group=1, item=2} [group 1, item 2]";

    equivalenceMock.expectHash(group1Item2, 2);

    equivalenceMock.replay();

    try {
      tester.addEquivalenceGroup(group1Item1, group1Item2).test();
    } catch (AssertionFailedError expected) {
      String expectedMessage =
          "the hash (1) of TestObject{group=1, item=1} [group 1, item 1] must be "
              + "equal to the hash (2) of TestObject{group=1, item=2} [group 1, item 2]";

	VPCOMPRESSW X12, K5, X7                            // 6272fd0d63e7
	VPCOMPRESSW X20, K5, 17(SP)(BP*2)                  // 62e2fd0d63a46c11000000
	VPCOMPRESSW X16, K5, 17(SP)(BP*2)                  // 62e2fd0d63846c11000000
	VPCOMPRESSW X12, K5, 17(SP)(BP*2)                  // 6272fd0d63a46c11000000
	VPCOMPRESSW X20, K5, -7(DI)(R8*4)                  // 62a2fd0d63a487f9ffffff

        // Mapped inline to the sequence: [b2].
        sink.writeByte(ranges[rangesIndex + 2].code)
      }
      123 -> {
        // Mapped inline to the sequence: [b2a].
        sink.writeByte(ranges[rangesIndex + 2].code or 0x80)
      }
      124 -> {
        // Mapped inline to the sequence: [b2, b3].
        sink.writeByte(ranges[rangesIndex + 2].code)
        sink.writeByte(ranges[rangesIndex + 3].code)
      }
      125 -> {

			r:            metadataResolutionParams{dirQuorum: 2, objQuorum: 2, strict: true},
			wantSelected: &inputSerialized[0],
			wantOk:       true,
		},
		{
			name:         "2 additional versions, quorum two",
			m:            metaCacheEntries{inputSerialized[0], inputSerialized[0], inputSerialized[2], inputSerialized[2]},
			r:            metadataResolutionParams{dirQuorum: 2, objQuorum: 2, strict: true},

##### RESTRICTED_TLS versions

* TLSv1.3
* TLSv1.2

##### MODERN_TLS versions

* TLSv1.3
* TLSv1.2
* **REMOVED:** ~~TLSv1.1~~
* **REMOVED:** ~~TLSv1~~

##### COMPATIBLE_TLS versions

* **NEW:** TLSv1.3
* **NEW:** TLSv1.2
* **NEW:** TLSv1.1
* TLSv1

[OkHttp 3.12][OkHttp312]
------------------------

_2018-11-16_

      String[] suffix = {"h", "i"};

      String[] all = new String[2 + elements.length + 2];
      arraycopy(prefix, 0, all, 0, 2);
      arraycopy(elements, 0, all, 2, elements.length);
      arraycopy(suffix, 0, all, 2 + elements.length, 2);

      return ImmutableList.copyOf(all).subList(2, elements.length + 2);
    }
  }

          "format": "time_series",
          "intervalFactor": 1,
          "legendFormat": "{{ source_workload }}.{{ source_workload_namespace }} : {{ response_code }} (🔐mTLS)",
          "refId": "A",
          "step": 2
        },
        {
          "datasource": {
            "type": "prometheus",
            "uid": "${datasource}"
          },

                + "<doc>\n"//
                + "<field name=\"title\">タイトル</field>\n"//
                + "<field name=\"body\">第一章 第一節 ほげほげふがふが LINK 第2章 第2節</field>\n"//
                + "<field name=\"list\"><list><item>リスト1</item><item>リスト2</item><item>リスト3</item></list></field>\n"//
                + "</doc>";

        final AccessResultDataImpl accessResultDataImpl = new AccessResultDataImpl();

#   $1: The URL of the ztunnel binary to be downloaded.
#   $2: The full path of the output binary.
#   $3: Non-versioned name to use
function download_ztunnel_if_necessary () {
  if [[ -f "$2" ]]; then
    return
  fi
  # Enter the output directory.
  mkdir -p "$(dirname "$2")"
  pushd "$(dirname "$2")"

  # Download and make the binary executable
  echo "Downloading ztunnel: $1 to $2"