t.Fatal("ticket didn't change after resumption")
	}

	// An old session ticket is replaced with a ticket encrypted with a fresh key.
	ticket = getTicket()
	serverConfig.Time = func() time.Time { return time.Now().Add(24*time.Hour + time.Minute) }
	testResumeState("ResumeWithOldTicket", true)
	if bytes.Equal(ticket, getTicket()) {
		t.Fatal("old first ticket matches the fresh one")
	}

		data, err := os.ReadFile(name)
		if err != nil {
			t.Fatal(err)
		}
		old := data
		data = append(data, fmt.Sprintf("var DummyUnusedVar%d bool\n", idx)...)
		if err := os.WriteFile(name, append(data, '\n'), 0666); err != nil {
			t.Fatal(err)
		}
		tg.sleep()
		return func() {
			if err := os.WriteFile(name, old, 0666); err != nil {
				t.Fatal(err)
			}
		}
	}

    subclasses. We've restored that support!


## Version 3.13.0

_2019-02-04_

 *  **This release bumps our minimum requirements to Java 8+ or Android 5+.** Cutting off old
    devices is a serious change and we don't do it lightly! [This post][require_android_5] explains
    why we're doing this and how to upgrade.

build:release_arm64_linux --copt=-flax-vector-conversions
test:release_arm64_linux --flaky_test_attempts=3

# The old gcc linux build options are preserved in the unsupported_*_linux
# configs. If your project fails to build with Clang, you can use these
# unsupported flags to replace the release flags in your build command.
# However, please note that the old toolchain is no longer officially supported

Starting from Java 9, the language version must not contain the `1.` prefix.
This affects the format of the `sourceCompatiblity` and `targetCompatibility` properties on the `JavaCompile` task and `JavaExtension`.
The old format is still supported when resolving the `JavaVersion` from a string.

[cols="1,1"]
|===
| Gradle 7.6 | Gradle 8.0
| `1.8` | `1.8`
| `1.9` | `9`
| `1.10`| `10`
| `11`  | `11`
|===

(AtomicExchange(32|64) ...) => (LoweredAtomicExchange(32|64) ...)

(AtomicAdd(32|64) ...) => (LoweredAtomicAdd(32|64) ...)

(AtomicCompareAndSwap(32|64) ptr old new_ mem) => (LoweredAtomicCas(32|64) [1] ptr old new_ mem)
(AtomicCompareAndSwapRel32   ptr old new_ mem) => (LoweredAtomicCas32 [0] ptr old new_ mem)

(AtomicAnd(8|32)  ...) => (LoweredAtomicAnd(8|32)  ...)
(AtomicOr(8|32)   ...) => (LoweredAtomicOr(8|32)   ...)

		// Compare and swap.
		// arg0 = pointer, arg1 = old value, arg2 = new value, arg3 = memory.
		// if *(arg0+auxint+aux) == arg1 {
		//   *(arg0+auxint+aux) = arg2
		//   return (true, memory)
		// } else {
		//   return (false, memory)
		// }
		// Note that these instructions also return the old value in arg1, but we ignore it.

	for p.tok == token.COMMA {
		p.next()
		list = append(list, p.parseExpr())
	}

	return
}

func (p *parser) parseList(inRhs bool) []ast.Expr {
	old := p.inRhs
	p.inRhs = inRhs
	list := p.parseExprList()
	p.inRhs = old
	return list
}

// ----------------------------------------------------------------------------
// Types

func (p *parser) parseType() ast.Expr {
	if p.trace {

(AtomicExchange64 ptr val mem) => (LoweredAtomicExchange64 ptr val mem)

// Atomic compare and swap.
(AtomicCompareAndSwap32 ptr old new_ mem) => (LoweredAtomicCas32 ptr old new_ mem)
(AtomicCompareAndSwap64 ptr old new_ mem) => (LoweredAtomicCas64 ptr old new_ mem)

// Atomic and: *(*uint8)(ptr) &= val
//
// Round pointer down to nearest word boundary and pad value with ones before

// depends on both functions (such as re-queueing on sync error).
func processSync(ctx context.Context, rsc *ReplicaSetController, key string) error {
	// Save old syncHandler and replace with one that captures the error.
	oldSyncHandler := rsc.syncHandler
	defer func() {
		rsc.syncHandler = oldSyncHandler
	}()
	var syncErr error