{"0x10.0", "16", true},
	{"0x1.8", "3/2", true},
	{"0X1.8p4", "24", true},
	{"0x1.1E2", "2289/2048", true}, // E is part of hex mantissa, not exponent
	{"0b1.1E2", "150", true},
	{"0B1.1P3", "12", true},
	{"0o10e-2", "2/25", true},
	{"0O10p-3", "1", true},

	// valid with separators
	// (smoke tests only - a comprehensive set of tests is in natconv_test.go)

			break // mismatched profile records and tags
		}

		// Deserialize the data in the profile buffer.
		recordLen := data[0]
		timestamp := data[1]
		ppid := data[2] >> 1
		if hasP := (data[2] & 0b1) != 0; !hasP {
			ppid = ^uint64(0)
		}
		goid := data[3]
		mpid := data[4]
		stk := data[5:recordLen]

		// Overflow records always have their headers contain
		// all zeroes.

		{IntLit, "0b01a0", "0b01 a0", ""}, // only accept 0-9

		{FloatLit, "0b.", "0b.", "invalid radix point in binary literal"},
		{FloatLit, "0b.1", "0b.1", "invalid radix point in binary literal"},
		{FloatLit, "0b1.0", "0b1.0", "invalid radix point in binary literal"},
		{FloatLit, "0b1e10", "0b1e10", "'e' exponent requires decimal mantissa"},
		{FloatLit, "0b1P-1", "0b1P-1", "'P' exponent requires hexadecimal mantissa"},

	// The receiver is always one word.
	a.valueStart = append(a.valueStart, len(a.steps))
	var ok, ptr bool
	if rcvr.IfaceIndir() || rcvr.Pointers() {
		ok = a.assignIntN(0, goarch.PtrSize, 1, 0b1)
		ptr = true
	} else {
		// TODO(mknyszek): Is this case even possible?
		// The interface data work never contains a non-pointer
		// value. This case was copied over from older code

        assertOrder(X_GT_Y, "1.0.m", "1.0");

        assertOrder(X_LT_Y, "1.0a1", "1.0");
        assertOrder(X_LT_Y, "1.0-a1", "1.0");
        assertOrder(X_LT_Y, "1.0.a1", "1.0");
        assertOrder(X_LT_Y, "1.0b1", "1.0");
        assertOrder(X_LT_Y, "1.0-b1", "1.0");
        assertOrder(X_LT_Y, "1.0.b1", "1.0");
        assertOrder(X_LT_Y, "1.0m1", "1.0");
        assertOrder(X_LT_Y, "1.0-m1", "1.0");

		// binary floats (invalid)
		{Float, "0b.", "0b.", "invalid radix point in binary literal"},
		{Float, "0b.1", "0b.1", "invalid radix point in binary literal"},
		{Float, "0b1.0", "0b1.0", "invalid radix point in binary literal"},
		{Float, "0b1e10", "0b1e10", "'e' exponent requires decimal mantissa"},
		{Float, "0b1P-1", "0b1P-1", "'P' exponent requires hexadecimal mantissa"},

		// octals

	{"0", 62, false, nil, 62, 1, nil, 0},
	{"1", 0, false, nat{1}, 10, 1, nil, 0},
	{"1", 10, false, nat{1}, 10, 1, nil, 0},
	{"0 ", 0, false, nil, 10, 1, nil, ' '},
	{"00 ", 0, false, nil, 8, 1, nil, ' '}, // octal 0
	{"0b1", 0, false, nat{1}, 2, 1, nil, 0},
	{"0B11000101", 0, false, nat{0xc5}, 2, 8, nil, 0},
	{"0B110001012", 0, false, nat{0xc5}, 2, 8, nil, '2'},
	{"07", 0, false, nat{7}, 8, 1, nil, 0},
	{"08", 0, false, nil, 10, 1, nil, '8'},

		{token.INT, "0b01a0", "0b01 a0", ""}, // only accept 0-9

		{token.FLOAT, "0b.", "0b.", "invalid radix point in binary literal"},
		{token.FLOAT, "0b.1", "0b.1", "invalid radix point in binary literal"},
		{token.FLOAT, "0b1.0", "0b1.0", "invalid radix point in binary literal"},
		{token.FLOAT, "0b1e10", "0b1e10", "'e' exponent requires decimal mantissa"},
		{token.FLOAT, "0b1P-1", "0b1P-1", "'P' exponent requires hexadecimal mantissa"},

      `inputs[1]`: required: the filter weight tensor
      `inputs[2]`: optional: the bias tensor
  }];

  let results = (outs TFL_TensorOf<[F32, QI8, QUI8, QI16]>:$output);

  let hasOptions = 0b1;
}


//===----------------------------------------------------------------------===//
// TFL op definitions.
//===----------------------------------------------------------------------===//