<developers>
    <developer>
      <id>michal</id>
      <name>Michal Maczka</name>
      <email>******@****.***</email>
      <organization>Codehaus</organization>
      <roles>
        <role>Developer</role>
      </roles>
    </developer>
  </developers>
  <scm>
    <connection>scm:svn:https://svn.apache.org/repos/asf/maven/wagon/tags/wagon-1.0-beta-2</connection>

  <developers>
    <developer>
      <id>michal</id>
      <name>Michal Maczka</name>
      <email>******@****.***</email>
      <organization>Codehaus</organization>
      <roles>
        <role>Developer</role>
      </roles>
    </developer>
  </developers>
  <scm>
    <connection>scm:svn:https://svn.apache.org/repos/asf/maven/wagon/tags/wagon-1.0-beta-2</connection>

			case '\t':
				dst.WriteByte('t')
			default:
				// This encodes bytes < 0x20 except for \t, \n and \r.
				// If escapeHTML is set, it also escapes <, >, and &
				// because they can lead to security holes when
				// user-controlled strings are rendered into JSON
				// and served to some browsers.
				dst.WriteString(`u00`)
				dst.WriteByte(hexTable[b>>4])
				dst.WriteByte(hexTable[b&0xF])
			}
			i++

apps may target different 'environments' which contain different instances and variants of Istio.

- Better security: separate Istio components reside in different namespaces, allowing different teams or
roles to manage different parts of Istio. For example, a security team would maintain the
root CA and policy, a telemetry team may only have access to Prometheus,

  // Items is a list of RoleBindings
  repeated RoleBinding items = 2;
}

// RoleList is a collection of Roles
message RoleList {
  // Standard object's metadata.
  // +optional
  optional k8s.io.apimachinery.pkg.apis.meta.v1.ListMeta metadata = 1;

  // Items is a list of Roles
  repeated Role items = 2;
}

// RoleRef contains information that points to the role being used
// +structType=atomic

<code>cmd/internal/obj/x86/a.out.go</code>.
</p>

<p>
The architectures share syntax for common addressing modes such as
<code>(R1)</code> (register indirect),
<code>4(R1)</code> (register indirect with offset), and
<code>$foo(SB)</code> (absolute address).
The assembler also supports some (not necessarily all) addressing modes
specific to each architecture.
The sections below list these.
</p>

<p>

  <developers>
    <developer>
      <name>Jason van Zyl</name>
      <id>jvanzyl</id>
      <email>******@****.***</email>
      <organization>Zenplex</organization>
      <roles>
        <role>Founder</role>
        <role>Release Manager</role>
      </roles>
    </developer>
  </developers>

  <contributors>
    <contributor>
      <name>Martin van dem Bemt</name>
      <email>******@****.***</email>
    </contributor>

      },
      "gidNumber" : {
        "type" : "long"
      },
      "homeDirectory" : {
        "type" : "keyword"
      },
      "groups": {
        "type": "keyword"
      },
      "roles": {
        "type": "keyword"
      }
    }

    RoundToDoubleTester(BigDecimal input) {
      this.input = input;
    }

    RoundToDoubleTester setExpectation(double expectedValue, RoundingMode... modes) {
      for (RoundingMode mode : modes) {
        Double previous = expectedValues.put(mode, expectedValue);
        if (previous != null) {
          throw new AssertionError();
        }
      }
      return this;
    }

		Remove prefix from recorded source file paths.
	-v
		Print debug output.

Input language:

The assembler uses mostly the same syntax for all architectures,
the main variation having to do with addressing modes. Input is
run through a simplified C preprocessor that implements #include,
#define, #ifdef/endif, but not #if or ##.

For more information, see https://golang.org/doc/asm.
*/