os.Setenv("CGO_TEST_DISALLOW", "-fplugin=lint.so")
	if err := checkCompilerFlags("TEST", "test", []string{"-fplugin=faster.so"}); err != nil {
		t.Fatalf("unexpected error for -fplugin=faster.so: %v", err)
	}
	if err := checkCompilerFlags("TEST", "test", []string{"-fplugin=lint.so"}); err == nil {
		t.Fatalf("missing error for -fplugin=lint.so: %v", err)
	}
}

	//
	// This uses racereleasemerge rather than just racerelease so
	// the acquire in profBuf.read synchronizes with *all* prior
	// setProfLabel operations, not just the most recent one. This
	// is important because profBuf.read will observe different
	// labels set by different setProfLabel operations on
	// different goroutines, so it needs to synchronize with all
	// of them (this wouldn't be an issue if we could synchronize

    * So, by using FastAPI you are saving development time, bugs, lines of code, and you would probably get the same performance (or better) you would...

    ) {
        this.userInput = userInput;
        // Use a single reader thread, and make it a daemon thread so that it does not block process shutdown
        // In most cases, we try to cleanly shut down all threads. However, in this case it is difficult to disconnect a thread blocked trying to read from the
        // process' stdin, so use a daemon thread instead.
        executor = Executors.newSingleThreadExecutor(r -> {

    /**
     * Runs any registered dependency actions for this Configuration, and any parent Configuration.
     * Actions may mutate the dependency set for this configuration.
     * After execution, all actions are de-registered, so execution will only occur once.
     */
    void runDependencyActions();

    void markAsObserved(InternalState requestedState);

    void addMutationValidator(MutationValidator validator);

		//
		// Here we reuse the same now for start the world so that the
		// time added to /sched/pauses/total/gc:seconds will be
		// consistent with the value in memstats.
		startTheWorldWithSema(now, stw)
	})

	// Flush the heap profile so we can start a new cycle next GC.
	// This is relatively expensive, so we don't do it with the
	// world stopped.
	mProf_Flush()

// gcc-compiled function written by cgo.
//
// runtime.cgocall (below) calls entersyscall so as not to block
// other goroutines or the garbage collector, and then calls
// runtime.asmcgocall(_cgo_Cfunc_f, frame).
//
// runtime.asmcgocall (in asm_$GOARCH.s) switches to the m->g0 stack
// (assumed to be an operating system-allocated stack, so safe to run
// gcc-compiled code on) and calls _cgo_Cfunc_f(frame).
//

        // corruption, so we don't care at this level if it's corrupt
        fileAccess.writeFile(() -> cache.put(key, value));
    }

    @Override
    public void remove(final K key) {
        final BTreePersistentIndexedCache<K, V> cache = getCache();
        // Use writeFile because the cache can internally recover from datafile
        // corruption, so we don't care at this level if it's corrupt

		// tree cannot encode anything and a length-1 tree can only
		// encode EOF and so is superfluous. We reject both.
		if len(codes) < 2 {
			return 0, StructuralError("empty Huffman tree")
		}

		// In this case the recursion doesn't always reduce the length
		// of codes so we need to ensure termination via another
		// mechanism.
		if level == 31 {

		Extreloc:         extreloc,
		Machoreloc1:      machoreloc1,
		Gentext:          gentext,

		ELF: ld.ELFArch{
			Linuxdynld:     "/lib64/ld-linux-loongarch-lp64d.so.1",
			LinuxdynldMusl: "/lib/ld-musl-loongarch64.so.1",
			Freebsddynld:   "XXX",
			Openbsddynld:   "XXX",
			Netbsddynld:    "XXX",
			Dragonflydynld: "XXX",
			Solarisdynld:   "XXX",

			Reloc1:    elfreloc1,
			RelocSize: 24,