}

    private LinkedHashMap<String, String> toTokens(Map<String, ?> options) {
        def artifact = toArtifact(options)
        def tokens = [organisation: organisation, module: module, revision: revision, artifact: artifact.name, type: artifact.type, ext: artifact.ext, classifier: artifact.classifier]
        tokens
    }

    /**

// For instance, if the mode is ScanIdents (not ScanStrings), the string
// "foo" is scanned as the token sequence '"' [Ident] '"'.
//
// Use GoTokens to configure the Scanner such that it accepts all Go
// literal tokens including Go identifiers. Comments will be skipped.
const (
	ScanIdents     = 1 << -Ident
	ScanInts       = 1 << -Int
	ScanFloats     = 1 << -Float // includes Ints and hexadecimal floats

				if d.byteAvailable {
					// There is still one pending token that needs to be flushed
					d.tokens = append(d.tokens, literalToken(uint32(d.window[d.index-1])))
					d.byteAvailable = false
				}
				if len(d.tokens) > 0 {
					if d.err = d.writeBlock(d.tokens, d.index); d.err != nil {
						return
					}
					d.tokens = d.tokens[:0]
				}
				break Loop
			}
		}
		if d.index < d.maxInsertIndex {

		return
	}
	actuals := in.argsFor(macro)
	var tokens []Token
	for _, tok := range macro.tokens {
		if tok.ScanToken != scanner.Ident {
			tokens = append(tokens, tok)
			continue
		}
		substitution := actuals[tok.text]
		if substitution == nil {
			tokens = append(tokens, tok)
			continue
		}
		tokens = append(tokens, substitution...)
	}
	in.Push(NewSlice(in.Base(), in.Line(), tokens))

        if (langs == null || langs.length == 0) {
            final List<AnalyzeToken> tokens = analyzer.analyze(searchWord, "", null);
            return tokens == null || tokens.size() == 0;
        }
        for (final String lang : langs) {
            final List<AnalyzeToken> tokens = analyzer.analyze(searchWord, field, lang);
            if (tokens != null && tokens.size() > 0) {
                return false;
            }
        }

        'a(,)'                                             | 'a'     | [tokens(''), tokens('')]
        'a((a,b))'                                         | 'a'     | [tokens('(a,b)')]
        'a((a,b,(c, d)))'                                  | 'a'     | [tokens('(a,b,(c,d))')]
        'a( ( a ,,, b ), c)'                               | 'a'     | [tokens('(a,,,b)'), token('c')]

						new := &Line{Token: tokens[1:], InBlock: true}
						stmt.Line[j+1] = new
						return new
					}
				}
			}
		}
	}

	new := &Line{Token: tokens}
	x.Stmt = append(x.Stmt, new)
	return new
}

func (x *FileSyntax) updateLine(line *Line, tokens ...string) {
	if line.InBlock {
		tokens = tokens[1:]
	}
	line.Token = tokens
}

# OAuth2 mit Password (und Hashing), Bearer mit JWT-Tokens

Da wir nun über den gesamten Sicherheitsablauf verfügen, machen wir die Anwendung tatsächlich sicher, indem wir <abbr title="JSON Web Tokens">JWT</abbr>-Tokens und sicheres Passwort-Hashing verwenden.

Diesen Code können Sie tatsächlich in Ihrer Anwendung verwenden, die Passwort-Hashes in Ihrer Datenbank speichern, usw.

Wir bauen auf dem vorherigen Kapitel auf.

## Über JWT

	var kubeConfigFile string
	var dryRun bool
	tokenCmd := &cobra.Command{
		Use:   "token",
		Short: "Manage bootstrap tokens",
		Long: dedent.Dedent(`
			This command manages bootstrap tokens. It is optional and needed only for advanced use cases.

			In short, bootstrap tokens are used for establishing bidirectional trust between a client and a server.

			description:  "valid bootstrap tooken",
			usages:       []string{"signing", "authentication"},
			extraGroups:  []string{"system:bootstrappers:kubeadm:default-node-token"},
			outputFormat: "json",
			expected: `{
    "kind": "BootstrapToken",
    "apiVersion": "output.kubeadm.k8s.io/v1alpha3",
    "token": "abcdef.1234567890123456",
    "description": "valid bootstrap tooken",
    "usages": [
        "signing",