for _, test := range tests {
		info := Info{
			Implicits: make(map[syntax.Node]Object),
		}
		name := mustTypecheck(test.src, nil, &info).Name()

		// the test cases expect at most one Implicits entry
		if len(info.Implicits) > 1 {
			t.Errorf("package %s: %d Implicits entries found", name, len(info.Implicits))
			continue
		}

		// extract Implicits entry, if any
		var got string

	}

	for _, test := range tests {
		info := Info{
			Implicits: make(map[ast.Node]Object),
		}
		name := mustTypecheck(test.src, nil, &info).Name()

		// the test cases expect at most one Implicits entry
		if len(info.Implicits) > 1 {
			t.Errorf("package %s: %d Implicits entries found", name, len(info.Implicits))
			continue
		}

		// extract Implicits entry, if any
		var got string

                // For implicit invoke, we resolve the calleeExpression of the CallExpression to the call that creates the receiver of this
                // implicit invoke call. For example,
                // ```
                // fun test(f: () -> Unit) {
                //   f() // calleeExpression `f` resolves to the local variable access, while `f()` resolves to the implicit `invoke` call.

        gradleInvocation.args.addAll(getAllArgs());

        transformInvocation(gradleInvocation);

        if (!gradleInvocation.implicitLauncherJvmArgs.isEmpty()) {
            throw new IllegalStateException("Implicit JVM args have not been handled.");
        }

        return gradleInvocation;
    }

    protected void validateDaemonVisibility() {
        if (isUseDaemon() && isSharedDaemons()) {

	//
	// The suffix array sa therefore serves simultaneously as input, output,
	// and a miraculously well-tailored work queue.

	// placeLMS_8_64 left out the implicit entry sa[-1] == len(text),
	// corresponding to the identified type-L index len(text)-1.
	// Process it before the left-to-right scan of sa proper.
	// See body in loop for commentary.
	k := len(text) - 1

    /**
     * Returns true if the class symbol has a type parameter that is supposed to be provided for its parent class.
     *
     * Example:
     * class Outer<T> {
     *   inner class Inner // Inner has an implicit type parameter `T`.
     * }
     */
    private fun FirClassLikeSymbol<*>.hasTypeParameterFromParent(): Boolean = typeParameterSymbols.orEmpty().any {
        it.containingDeclarationSymbol != this
    }

        // the implicit capability to the list, in order to make sure we can discover conflicts
        // between variants of the same module.
        // We also need to add the implicit capability if it was seen before as an explicit
        // capability in order to detect the conflict between the two.
        // Note that the fact that the implicit capability is not included in other cases

	if info, ok := check.untyped[x]; ok {
		info.val = val
		check.untyped[x] = info
	}
}

// implicitTypeAndValue returns the implicit type of x when used in a context
// where the target type is expected. If no such implicit conversion is
// possible, it returns a nil Type and non-zero error code.
//
// If x is a constant operand, the returned constant.Value will be the

	if info, ok := check.untyped[x]; ok {
		info.val = val
		check.untyped[x] = info
	}
}

// implicitTypeAndValue returns the implicit type of x when used in a context
// where the target type is expected. If no such implicit conversion is
// possible, it returns a nil Type and non-zero error code.
//
// If x is a constant operand, the returned constant.Value will be the

T("    k	REG_ESCAPE		\\ to ecape [...] delimiter\n");
T("    l	REG_LEFT		implicit ^...\n");
T("    m	REG_MINIMAL		minimal match\n");
T("    n	REG_NEWLINE		explicit \\n match\n");
T("    o	REG_ENCLOSED		(|&) magic inside [@|&](...)\n");
T("    p	REG_SHELL_PATH		explicit / match\n");
T("    q	REG_DELIMITED		delimited pattern\n");
T("    r	REG_RIGHT		implicit ...$\n");
T("    s	REG_SHELL_ESCAPED	\\ not special\n");