copy.call();
        } else {
            Object[] argList = new Object[inputs.size() + 1];
            argList[0] = subject;
            int i = 1;
            for (Object arg : inputs) {
                argList[i++] = arg;
            }
            copy.call(argList);
        }
    }

    private List<Class<?>> parseInputTypes(Closure<?> closure) {

    protected String filename;

    protected List<String> argList = new ArrayList<>();

    public PythonJob filename(final String filename) {
        this.filename = filename;
        return this;
    }

    public PythonJob arg(final String value) {
        argList.add(value);
        return this;
    }

    public PythonJob args(final String... values) {

			// position, code, format string, and arguments to format
			if n := len(call.ArgList); n < errorfMinArgCount {
				t.Errorf("%s: got %d arguments, want at least %d", call.Pos(), n, errorfMinArgCount)
				return false
			}
			format := call.ArgList[errorfFormatIndex]
			syntax.Inspect(format, func(n syntax.Node) bool {

		registerTaintsUsingFlags: registerTaintsUsingFlags,
	}
	stringMap := buildKubeletArgs(flagOpts)
	argList := kubeadmutil.ArgumentsToCommand(stringMap, nodeReg.KubeletExtraArgs)
	envFileContent := fmt.Sprintf("%s=%q\n", constants.KubeletEnvFileVariableName, strings.Join(argList, " "))

	return writeKubeletFlagBytesToDisk([]byte(envFileContent), kubeletDir)
}

		X   Expr  // X.(type)
		expr
	}

	Operation struct {
		Op   Operator
		X, Y Expr // Y == nil means unary expression
		expr
	}

	// Fun(ArgList[0], ArgList[1], ...)
	CallExpr struct {
		Fun     Expr
		ArgList []Expr // nil means no arguments
		HasDots bool   // last argument is followed by ...
		expr
	}

	// ElemList[0], ElemList[1], ...
	ListExpr struct {
		ElemList []Expr

		case *AssertExpr:
			m = n.Type
		case *TypeSwitchGuard:
			m = n.X
		case *Operation:
			if n.Y != nil {
				m = n.Y
				continue
			}
			m = n.X
		case *CallExpr:
			if l := lastExpr(n.ArgList); l != nil {
				m = l
				continue
			}
			m = n.Fun
		case *ListExpr:
			if l := lastExpr(n.ElemList); l != nil {
				m = l
				continue
			}
			return n.Pos()

		// types

			result.combine(arg.analyze(s))
		}
		return result

	case sqlFnCharLength, sqlFnCharacterLength:
		if len(e.SFunc.ArgsList) != 1 {
			return qProp{err: fmt.Errorf("%s needs exactly 2 arguments", string(funcName))}
		}
		for _, arg := range e.SFunc.ArgsList {
			result.combine(arg.analyze(s))
		}
		return result

	case sqlFnLower, sqlFnUpper:
		if len(e.SFunc.ArgsList) != 1 {

			c, err := ListenPacket(tt.network, tt.address)
			if err != nil {
				continue
			}
			c.Close()
			priv.argLists = append(priv.argLists, tt.args)
		}
		if len(priv.argLists) > 0 {
			tests = append(tests, priv)
		}
	}

	for _, tt := range tests {
		for _, args := range tt.argLists {
			_, err := Dial(args[0], args[1])
			if tt.shouldFail != (err != nil) {

        tg.enumerate(tgList);

        boolean seen = false;

        for (ThreadGroup aTgList : tgList) {
            if (!aTgList.getName().equals(DefaultArtifactResolver.DaemonThreadCreator.THREADGROUP_NAME)) {
                continue;
            }

            seen = true;

            tg = aTgList;
            Thread[] ts = new Thread[tg.activeCount()];
            tg.enumerate(ts);

		case types.UntypedString,
			types.String:
			return m.t&argString != 0

		case types.UnsafePointer:
			return m.t&(argPointer|argInt) != 0

		case types.UntypedRune:
			return m.t&(argInt|argRune) != 0

		case types.UntypedNil:
			return false

		case types.Invalid:
			return true // Probably a type check problem.
		}
		panic("unreachable")
	}

	return false
}