return 1L;
            }

            @Override
            public String symbol() {
                return "B";
            }
        },
        KILOBYTE {
            @Override
            public long bytes() {
                return 1000L;
            }

            @Override
            public String symbol() {
                return "kB";
            }
        },
        MEGABYTE {

		}
		return
	case "GLOBL", "PCDATA":
		// No text definitions or symbol references.
	case "DATA", "FUNCDATA":
		// For DATA, operands[0] is defined symbol.
		// For FUNCDATA, operands[0] is an immediate constant.
		// Remaining operands may have references.
		if len(operands) < 2 {
			return
		}
		operands = operands[1:]
	}
	// Search for symbol references.
	for _, op := range operands {
		p.start(op)

	<local>, assuming it will be resolved by a dynamic library
	symbol. The optional <remote> specifies the symbol's name and
	possibly version in the dynamic library, and the optional "<library>"
	names the specific library where the symbol should be found.

	On AIX, the library pattern is slightly different. It must be
	"lib.a/obj.o" with obj.o the member of this library exporting
	this symbol.

	if addr.Sym == nil || addr.Name != obj.NAME_EXTERN && addr.Name != obj.NAME_STATIC || addr.Scale != 0 || addr.Reg != 0 {
		p.errorf("%s symbol %q must be a symbol(SB)", pseudo, symbolName(addr))
		return false
	}
	if !offsetOk && addr.Offset != 0 {
		p.errorf("%s symbol %q must not be offset from SB", pseudo, symbolName(addr))
		return false
	}
	return true
}

    implementation("org.codenarc:CodeNarc") {
        exclude(group = "org.apache.groovy")
        exclude(group = "org.codehaus.groovy")
    }
    implementation("com.github.javaparser:javaparser-symbol-solver-core") {
        exclude(group = "com.google.guava")
    }
    implementation(kotlin("gradle-plugin"))
    implementation(kotlin("compiler-embeddable") as String) {

flagged as a TODO by the automated tooling. That is true even for proposals that add API.

Use the following forms in your markdown:

	[http.Request]                     # symbol documentation; auto-linked as in Go doc strings
	[Request]                          # short form, for symbols in the package being documented
	[net/http]                         # package link
	[#12345](/issue/12345)             # GitHub issues

        }

        // Java Libraries
        api("com.github.javaparser:javaparser-core:$javaParserVersion")
        api("com.github.javaparser:javaparser-symbol-solver-core:$javaParserVersion")
        api("com.google.guava:guava:32.1.2-jre")
        api("com.google.errorprone:error_prone_annotations:2.5.1")
        api("com.google.code.gson:gson:2.8.9")

`Header` hat weitere Funktionalität, zusätzlich zu der, die `Path`, `Query` und `Cookie` bereitstellen.

Die meisten Standard-Header benutzen als Trennzeichen einen Bindestrich, auch bekannt als das „Minus-Symbol“ (`-`).

Aber eine Variable wie `user-agent` ist in Python nicht gültig.

Darum wird `Header` standardmäßig in Parameternamen den Unterstrich (`_`) zu einem Bindestrich (`-`) konvertieren.

                        if (duplicateTermRemoved && alphanumSize > 0) {
                            isSpace = removeLastDuplication(buf, alphanumSize, isSpace, termCache);
                        }
                        // symbol
                        if (maxSymbolTermSize >= 0) {
                            if (symbolSize < maxSymbolTermSize) {
                                buf.appendCodePoint(c);
                                symbolSize++;

///

## Automatic conversion

`Header` has a little extra functionality on top of what `Path`, `Query` and `Cookie` provide.

Most of the standard headers are separated by a "hyphen" character, also known as the "minus symbol" (`-`).

But a variable like `user-agent` is invalid in Python.

So, by default, `Header` will convert the parameter names characters from underscore (`_`) to hyphen (`-`) to extract and document the headers.