}
	return res
}

// Helpers for Go. Must be NOSPLIT, must only call NOSPLIT functions, and must not block.

//go:nosplit
func acquirem() *m {
	gp := getg()
	gp.m.locks++
	return gp.m
}

//go:nosplit
func releasem(mp *m) {
	gp := getg()
	mp.locks--
	if mp.locks == 0 && gp.preempt {
		// restore the preemption request in case we've cleared it in newstack
		gp.stackguard0 = stackPreempt
	}
}

	gp := getg()
	if gp.m.locks == 0 && gp.m.mallocing == 0 && gp != gp.m.g0 {
		throw("mspan.sweep: m is not locked")
	}

	s := sl.mspan
	if !preserve {
		// We'll release ownership of this span. Nil it out to
		// prevent the caller from accidentally using it.
		sl.mspan = nil
	}

	sweepgen := mheap_.sweepgen
	if state := s.state.get(); state != mSpanInUse || s.sweepgen != sweepgen-1 {

	// ProgRequest.Command types that are supported by the program.
	//
	// This lets us extend the protocol gracefully over time (adding "get2",
	// etc), or fail gracefully when needed. It also lets us verify the program
	// wants to be a cache helper.
	KnownCommands []ProgCmd `json:",omitempty"`

	// For Get requests.

	Miss     bool       `json:",omitempty"` // cache miss
	OutputID []byte     `json:",omitempty"`

// A gcWork provides the interface to produce and consume work for the
// garbage collector.
//
// A gcWork can be used on the stack as follows:
//
//	(preemption must be disabled)
//	gcw := &getg().m.p.ptr().gcw
//	.. call gcw.put() to produce and gcw.tryGet() to consume ..
//
// It's important that any use of gcWork during the mark phase prevent
// the garbage collector from transitioning to mark termination since

	// calls back into Go.
	c := &getg().m.winsyscall
	c.fn = fn
	c.n = uintptr(len(args))
	if c.n != 0 {
		c.args = uintptr(noescape(unsafe.Pointer(&args[0])))
	}
	cgocall(asmstdcallAddr, unsafe.Pointer(c))
	// cgocall may reschedule us on to a different M,
	// but it copies the return values into the new M's
	// so we can read them from there.
	c = &getg().m.winsyscall
	return c.r1, c.r2, c.err

        a.delete()
        c.delete()
        file("src/main/$languageName/a/A1.java").text = "package a; class A { void m1() {} }"
        b.text = "package b; $compileStaticAnnotation class B { B getB() { return 0; } }"
        file("src/main/$languageName/c/C1.java").text = "package c; class C { void m1() {} }"
        runAndFail language.compileTaskName

        then:
        outputs.noneRecompiled()

import org.gradle.api.tasks.Optional;
import java.io.File;

public class SomeTask extends DefaultTask {
    public CustomType v;
    @Input @Optional
    public CustomType getV() { return v; }

    public File f;
    @OutputDirectory
    public File getF() { return f; }

    @TaskAction
    public void go() { }
}
"""
    }

	}
	if t.NumResults() == 1 {
		n.SetType(l.Type().Result(0).Type)

		if n.Op() == ir.OCALLFUNC && n.Fun.Op() == ir.ONAME {
			if sym := n.Fun.(*ir.Name).Sym(); types.RuntimeSymName(sym) == "getg" {
				// Emit code for runtime.getg() directly instead of calling function.
				// Most such rewrites (for example the similar one for math.Sqrt) should be done in walk,

      continue;

    const auto inputs = partitioned_input.getInputs();
    const bool packed_input = partitioned_input.getIsPacked();
    int num_cores_per_replica = partitioned_input.getN();
    if (num_cores_per_replica_attr) {
      num_cores_per_replica = num_cores_per_replica_attr.getInt();
    } else if (packed_input) {
      return partitioned_input->emitOpError()

            jvmPoolObj.capacity = p.getTotalCapacity().getBytes();
            return jvmPoolObj;
        }).toArray(n -> new JvmPoolObj[n]);
        final GarbageCollectors gc = jvmStats.getGc();
        jvmObj.gc = Arrays.stream(gc.getCollectors()).map(c -> {
            final JvmGcObj jvmGcObj = new JvmGcObj();
            jvmGcObj.key = c.getName();
            jvmGcObj.count = c.getCollectionCount();