}
		inStart = 1
	}

	// Handle arguments.
	for i, v := range in {
		v.mustBeExported()
		targ := toRType(t.In(i))
		// TODO(mknyszek): Figure out if it's possible to get some
		// scratch space for this assignment check. Previously, it
		// was possible to use space in the argument frame.
		v = v.assignTo("reflect.Value.Call", &targ.t, nil)
	stepsLoop:
		for _, st := range abid.call.stepsForValue(i + inStart) {

            "description": "Name is an identifier for this match condition, used for strategic merging of MatchConditions, as well as providing an identifier for logging purposes. A good name should be descriptive of the associated expression. Name must be a qualified name consisting of alphanumeric characters, '-', '_' or '.', and must start and end with an alphanumeric character (e.g. 'MyName',  or 'my.name',  or '123-abc', regex used for validation is '([A-Za-z0-9][-A-Za-z0-9_.]*)?[A-Za-z0-9]')...

		byteRange      string
		expectedString string
	}{
		// request for byte range 10-11.
		// expecting the result to contain only putContent[10:12] bytes.
		{"10-11", putContent[10:12]},
		// request for object data after the first byte.
		{"1-", putContent[1:]},
		// request for object data after the first byte.
		{"6-", putContent[6:]},
		// request for last 2 bytes of the object.
		{"-2", putContent[len(putContent)-2:]},

    output[i] = max(data[j....]) where segment_ids[j...] = i
    if the maximum is empty for a given segment ID i,
    it outputs the smallest possible value for the specific numeric type,
    output[i] = numeric_limits::lowest().
    Note the values of segment_ids are always validated to be less than
    num_segments and an error is thrown for out-of-bound indices.
  }];

  let arguments = (ins

				// would disable type checking. We plan to wait for "heterogeneous type" support.
				//"self.m['a'] == null": "found no matching overload for '_==_' applied to '(string, null)",
				//"self.l[0] == null": "found no matching overload for '_==_' applied to '(string, null)",
				//"self.s[0] == null": "found no matching overload for '_==_' applied to '(string, null)",
			},

    // [0]: bound for begin, [1]: bound for end
    int64_t bounds[] = {stride_i > 0 ? 0 : -1,
                        stride_i > 0 ? dim_i : dim_i - 1};

    // Canonicalizes the given range `point` (begin/end) according to the
    // current dimension. `c` means case: 0 for begin, 1 for end.
    auto canonicalize = [&](int64_t point, int c) {
      if (masks[c]) return stride_i > 0 ? bounds[c] : bounds[(c + 1) & 1];

		}
		if fieldNum <= 0 {
			return fmt.Errorf("proto: ControllerRevision: illegal tag %d (wire type %d)", fieldNum, wire)
		}
		switch fieldNum {
		case 1:
			if wireType != 2 {
				return fmt.Errorf("proto: wrong wireType = %d for field ObjectMeta", wireType)
			}
			var msglen int
			for shift := uint(0); ; shift += 7 {
				if shift >= 64 {

	// result: x
	for {
		x := v_0
		if x.Op != OpRISCV64FEQS {
			break
		}
		v.copyOf(x)
		return true
	}
	// match: (MOVBUreg x:(FNES _ _))
	// result: x
	for {
		x := v_0
		if x.Op != OpRISCV64FNES {
			break
		}
		v.copyOf(x)
		return true
	}
	// match: (MOVBUreg x:(FLED _ _))
	// result: x
	for {
		x := v_0

    }

    send_from_host = node_map[send_node_in_host_graph];
  } else {
    // This is an outside compilation generated for If/While/gradient/etc.
    // It will be enough for shape inference. Leave `g` unchanged.
  }

  // Control edges are not useful for shape inference. Remove them.
  for (auto e : g->edges()) {
    if (e->IsControlEdge()) {
      g->RemoveEdge(e);
    }
  }

		}
		if fieldNum <= 0 {
			return fmt.Errorf("proto: ControllerRevision: illegal tag %d (wire type %d)", fieldNum, wire)
		}
		switch fieldNum {
		case 1:
			if wireType != 2 {
				return fmt.Errorf("proto: wrong wireType = %d for field ObjectMeta", wireType)
			}
			var msglen int
			for shift := uint(0); ; shift += 7 {
				if shift >= 64 {