continue;
            }

            int fromParam = 0;
            int toParam = 0;
            for (; fromParam < params.length; fromParam++) {
                Object param = params[fromParam];
                while (param != null && toParam < parameterTypes.length) {
                    Class<?> toType = parameterTypes[toParam];
                    if (toType.isPrimitive()) {

	{
		// type nullaryP = func[P any]()
		tparam := NewTypeParam(NewTypeName(nopos, nil, "P", nil), &emptyInterface)
		nullaryP = NewSignatureType(nil, nil, []*TypeParam{tparam}, nil, nil, false)
	}
	{
		// type nullaryQ = func[Q any]()
		tparam := NewTypeParam(NewTypeName(nopos, nil, "Q", nil), &emptyInterface)
		nullaryQ = NewSignatureType(nil, nil, []*TypeParam{tparam}, nil, nil, false)
	}
	{

	{
		// type nullaryP = func[P any]()
		tparam := NewTypeParam(NewTypeName(nopos, nil, "P", nil), &emptyInterface)
		nullaryP = NewSignatureType(nil, nil, []*TypeParam{tparam}, nil, nil, false)
	}
	{
		// type nullaryQ = func[Q any]()
		tparam := NewTypeParam(NewTypeName(nopos, nil, "Q", nil), &emptyInterface)
		nullaryQ = NewSignatureType(nil, nil, []*TypeParam{tparam}, nil, nil, false)
	}
	{

	err := syscall.Sysinfo(&info)
	if err != nil {
		errorList = append(errorList, errors.Wrapf(err, "failed to get system info"))
	}

	// Totalram holds the total usable memory. Unit holds the size of a memory unit in bytes. Multiply them and convert to MB
	actual := uint64(info.Totalram) * uint64(info.Unit) / 1024 / 1024
	if actual < mc.Mem {

      case NONE:
        return true;
    }
  }

  /// @brief Implements visitor pattern for doing type-based dispatch.
  ///
  /// @tparam R The desired return type.
  /// @tparam Visitor The visitor class which has a callable operator.
  /// @return The `visitor` called on the correct value.
  template <class R, class Visitor>
  R visit(Visitor visitor) {
    switch (type_) {

//
// StructuralTerms makes no guarantees about the order of terms, except that it
// is deterministic.
func StructuralTerms(tparam *types.TypeParam) ([]*types.Term, error) {
	constraint := tparam.Constraint()
	if constraint == nil {
		return nil, fmt.Errorf("%s has nil constraint", tparam)
	}
	iface, _ := constraint.Underlying().(*types.Interface)
	if iface == nil {

	tparams2 := make([]*TypeParam, len(tparams))
	for i, tparam := range tparams {
		tname := NewTypeName(tparam.Obj().Pos(), tparam.Obj().Pkg(), tparam.Obj().Name(), nil)
		tparams2[i] = NewTypeParam(tname, nil)
		tparams2[i].index = tparam.index // == i
	}

	renameMap := makeRenameMap(tparams, tparams2)
	for i, tparam := range tparams {
		tparams2[i].bound = check.subst(pos, tparam.bound, renameMap, nil, check.context())
	}

	tparams2 := make([]*TypeParam, len(tparams))
	for i, tparam := range tparams {
		tname := NewTypeName(tparam.Obj().Pos(), tparam.Obj().Pkg(), tparam.Obj().Name(), nil)
		tparams2[i] = NewTypeParam(tname, nil)
		tparams2[i].index = tparam.index // == i
	}

	renameMap := makeRenameMap(tparams, tparams2)
	for i, tparam := range tparams {
		tparams2[i].bound = check.subst(pos, tparam.bound, renameMap, nil, check.context())
	}

	panic(T)
}

func findTypeParam(obj types.Object, list *types.TypeParamList, path []byte, seen map[*types.TypeName]bool) []byte {
	for i := 0; i < list.Len(); i++ {
		tparam := list.At(i)
		path2 := appendOpArg(path, opTypeParam, i)
		if r := find(obj, tparam, path2, seen); r != nil {
			return r
		}
	}
	return nil
}

// Object returns the object denoted by path p within the package pkg.

			// Find the corresponding type argument for the type parameter
			// and proceed with checking that type argument.
			for i, tparam := range inst.TypeParams().list() {
				// The type parameter and type argument lists should
				// match in length but be careful in case of errors.
				if t == tparam && i < inst.TypeArgs().Len() {
					targ := inst.TypeArgs().At(i)
					// The type argument must be valid in the enclosing