val plan1 = routePlanner.addPlan()
    plan1.connectState = TLS_CONNECTED

    taskRunner.newQueue().execute("connect") {
      val result0 = finder.find()
      assertThat(result0).isEqualTo(plan0.connection)
      val result1 = finder.find()
      assertThat(result1).isEqualTo(plan1.connection)
    }

    taskFaker.runTasks()
    assertEvents(
      "take plan 0",
      "take plan 1",
    )

  }

  // If there are no immutable states, use the result's state if it is the
  // only one result and has parameters propagated.
  if (op->getNumResults() == 1 && mutable_results_num == 1) {
    return mutable_states.back()->params;
  }

  // Use the first propagated state to quantize the rest operands and results.
  if (!mutable_states.empty()) return mutable_states.front()->params;

					return false
				}
			}

			yparams = check.subst(nopos, y.params, smap, nil, ctxt).(*Tuple)
			yresults = check.subst(nopos, y.results, smap, nil, ctxt).(*Tuple)
		}

		return x.variadic == y.variadic &&
			c.identical(x.params, yparams, p) &&
			c.identical(x.results, yresults, p)

	case *Union:
		if y, _ := y.(*Union); y != nil {

					return false
				}
			}

			yparams = check.subst(nopos, y.params, smap, nil, ctxt).(*Tuple)
			yresults = check.subst(nopos, y.results, smap, nil, ctxt).(*Tuple)
		}

		return x.variadic == y.variadic &&
			c.identical(x.params, yparams, p) &&
			c.identical(x.results, yresults, p)

	case *Union:
		if y, _ := y.(*Union); y != nil {

	// type->type operators
	opElem       = 'E' // .Elem()		        (Pointer, Slice, Array, Chan, Map)
	opKey        = 'K' // .Key()		        (Map)
	opParams     = 'P' // .Params()		      (Signature)
	opResults    = 'R' // .Results()	      (Signature)
	opUnderlying = 'U' // .Underlying()	    (Named)
	opTypeParam  = 'T' // .TypeParams.At(i) (Named, Signature)
	opConstraint = 'C' // .Constraint()     (TypeParam)

            statement.setString(1, results.getTestClass());
            statement.setString(2, results.getTestId());
            statement.setString(3, results.getTestProject());
            statement.setTimestamp(4, new Timestamp(results.getStartTime()));
            statement.setTimestamp(5, new Timestamp(results.getEndTime()));
            statement.setString(6, results.getVersionUnderTest());

            statement.setObject(8, toArray(results.getArgs()));
            statement.setObject(9, toArray(results.getGradleOpts()));
            statement.setBoolean(10, results.getDaemon());
            statement.setString(11, results.getOperatingSystem());
            statement.setString(12, results.getJvm());
            statement.setString(13, results.getVcsBranch());

      input fallback tensors.

    results: the converted corert tensorhandles.
  }];

  let arguments = (ins
    Variadic<TFTensorType>:$args,
    StrAttr:$device
  );

  let results = (outs
    Variadic<CoreRT_TensorHandleType>:$results
  );

  let assemblyFormat = "operands attr-dict `:` `(` type($args) `)` `->` `(` type($results) `)`";
}

                textCell(results.getVersionUnderTest());
                textCell(results.getOperatingSystem());
                textCell(results.getHost());
                textCell(results.getJvm());
                textCell(results.getTestProject());
                textCell(results.getTasks());
                textCell(results.getCleanTasks());
                textCell(results.getArgs());

                    )
                    rhs = BooleanLiteral [indexes: 45..50, line/column: 5/5..5/10, file: test] (false)
                )""".trimIndent()
        results.assert(expected)
    }

    @Test
    fun `parses imports`() {
        val results = parse(
            """
            import a.b.c
            import a.b.MyData
            import MyOtherData
            """.trimIndent()
        )