* to the set.
   *
   * <p><b>Warning:</b> This method assumes that for any instance {@code k} of key type {@code K},
   * {@code k.equals(k2)} implies that {@code k2} is also of type {@code K}. Using a key type for
   * which this may not hold, such as {@code ArrayList}, may risk a {@code ClassCastException} when
   * calling methods on the resulting map view.
   *

		}
	}
	collectmachosyms(ctxt)
	sort.Slice(sortsym[:nsortsym], func(i, j int) bool {
		s1 := sortsym[i]
		s2 := sortsym[j]
		k1 := symkind(ldr, s1)
		k2 := symkind(ldr, s2)
		if k1 != k2 {
			return k1 < k2
		}
		return ldr.SymExtname(s1) < ldr.SymExtname(s2) // Note: unnamed symbols are not added in collectmachosyms
	})
	for i, s := range sortsym {
		ldr.SetSymDynid(s, int32(i))
	}

	cache.Range(func(name, s any) bool {
		if !did[name.(string)] {
			s.(*setting).value.Store(&empty)
		}
		return true
	})
}

// parse parses the GODEBUG setting string s,
// which has the form k=v,k2=v2,k3=v3.
// Later settings override earlier ones.
// Parse only updates settings k=v for which did[k] = false.
// It also sets did[k] = true for settings that it updates.
// Each value v can also have the form v#pattern,

    k1Creator.setString(1, "C")
    k1Creator.commit()
    val k2Creator = cache.edit("k2")!!
    k2Creator.setString(0, "DEF")
    k2Creator.setString(1, "G")
    k2Creator.commit()
    val k1Snapshot = cache["k1"]!!
    k1Snapshot.close()
    cache.close()
    assertJournalEquals("DIRTY k1", "CLEAN k1 2 1", "DIRTY k2", "CLEAN k2 3 1", "READ k1")
  }

  @ParameterizedTest

// without UseNumber
var ifaceNumAsFloat64 = map[string]any{
	"k1": float64(1),
	"k2": "s",
	"k3": []any{float64(1), float64(2.0), float64(3e-3)},
	"k4": map[string]any{"kk1": "s", "kk2": float64(2)},
}

var ifaceNumAsNumber = map[string]any{
	"k1": Number("1"),
	"k2": "s",
	"k3": []any{Number("1"), Number("2.0"), Number("3e-3")},
	"k4": map[string]any{"kk1": "s", "kk2": Number("2")},
}

namespace gtest_internal {

// SameSizeTuplePrefixComparator<k, k>::Eq(t1, t2) returns true if the
// first k fields of t1 equals the first k fields of t2.
// SameSizeTuplePrefixComparator(k1, k2) would be a compiler error if
// k1 != k2.
template <int kSize1, int kSize2>
struct SameSizeTuplePrefixComparator;

template <>
struct SameSizeTuplePrefixComparator<0, 0> {
  template <class Tuple1, class Tuple2>

                if (firDefaultStatement.resolvedType.isUnit) {
                    return null
                }
            }
        }

        @Suppress("USELESS_IS_CHECK") // K2 warning suppression, TODO: KT-62472
        require(firDefaultStatement is FirExpression)

        val defaultStatementFromFir = firDefaultStatement.psi as? KtExpression ?: return null

	}

	if len(subSystemValue) == 2 {
		tgt = subSystemValue[1]
	}

	return subSys, inputs, tgt, e
}

// kvFields - converts an input string of form "k1=v1 k2=v2" into
// fields of ["k1=v1", "k2=v2"], the tokenization of each `k=v`
// happens with the right number of input keys, if keys
// input is empty returned value is empty slice as well.
func kvFields(input string, keys []string) []string {

   *
   * <p><b>Warning:</b> This method assumes that for any instance {@code k} of {@code
   * EntryTransformer} key type {@code K}, {@code k.equals(k2)} implies that {@code k2} is also of
   * type {@code K}. Using an {@code EntryTransformer} key type for which this may not hold, such as
   * {@code ArrayList}, may risk a {@code ClassCastException} when calling methods on the

   *
   * <p><b>Warning:</b> This method assumes that for any instance {@code k} of {@code
   * EntryTransformer} key type {@code K}, {@code k.equals(k2)} implies that {@code k2} is also of
   * type {@code K}. Using an {@code EntryTransformer} key type for which this may not hold, such as
   * {@code ArrayList}, may risk a {@code ClassCastException} when calling methods on the