addr := (*Pointer[byte])(paddr)
	v := uintptr(unsafe.Pointer(addr.Load()))
	new := v
	if arch32 {
		vlo := v & ((1 << 16) - 1)
		vhi := v >> 16
		if vlo != vhi {
			t.Fatalf("Pointer: %#x != %#x", vlo, vhi)
		}
		new = v + 1 + 1<<16
		if vlo == 1e4 {
			new = 0
		}
	} else {
		vlo := v & ((1 << 32) - 1)
		vhi := v >> 32
		if vlo != vhi {

			if l2 == nil {
				throw("out of memory allocating heap arena map")
			}
			if h.arenasHugePages {
				sysHugePage(unsafe.Pointer(l2), unsafe.Sizeof(*l2))
			} else {
				sysNoHugePage(unsafe.Pointer(l2), unsafe.Sizeof(*l2))
			}
			atomic.StorepNoWB(unsafe.Pointer(&h.arenas[ri.l1()]), unsafe.Pointer(l2))
		}

		if l2[ri.l2()] != nil {
			throw("arena already initialized")
		}
		var r *heapArena

	_       sys.NotInHeap
	special special
	fn      *funcval // May be a heap pointer.
	nret    uintptr
	fint    *_type   // May be a heap pointer, but always live.
	ot      *ptrtype // May be a heap pointer, but always live.
}

// Adds a finalizer to the object p. Returns true if it succeeded.
func addfinalizer(p unsafe.Pointer, f *funcval, nret uintptr, fint *_type, ot *ptrtype) bool {
	lock(&mheap_.speciallock)

func TrusteeValueFromString(str string) TrusteeValue {
	return TrusteeValue(unsafe.Pointer(StringToUTF16Ptr(str)))
}
func TrusteeValueFromSID(sid *SID) TrusteeValue {
	return TrusteeValue(unsafe.Pointer(sid))
}
func TrusteeValueFromObjectsAndSid(objectsAndSid *OBJECTS_AND_SID) TrusteeValue {
	return TrusteeValue(unsafe.Pointer(objectsAndSid))
}

// rewritten to use _cgo_unsafe.Pointer instead.
func (p *Package) rewriteUnsafe(t ast.Expr) ast.Expr {
	switch t := t.(type) {
	case *ast.Ident:
		// We don't see a SelectorExpr for unsafe.Pointer;
		// this is created by code in this file.
		if t.Name == "unsafe.Pointer" {
			return ast.NewIdent("_cgo_unsafe.Pointer")
		}
	case *ast.ArrayType:

				// We skip one fewer frame than the provided value for frame
				// pointer unwinding because the skip value includes the current
				// frame, whereas the saved frame pointer will give us the
				// caller's return address first (so, not including
				// saveblockevent)
				mp.profStack[0] -= 1
			}
			nstk += fpTracebackPCs(unsafe.Pointer(getfp()), mp.profStack[1:])
		} else {
			mp.profStack[1] = gp.m.curg.sched.pc

									CacheSize: pointer.Int32(1000),
								},
							},
							{
								KMS: &apiserver.KMSConfiguration{
									Name:       "another-kms",
									APIVersion: "v2",
									Timeout: &metav1.Duration{
										Duration: 1 * time.Second,
									},
									Endpoint:  "unix:///tmp/anothertestprovider.sock",
									CacheSize: pointer.Int32(1000),
								},
							},
						},

			opts:                         listOptions(true, pointer.Bool(true), ""),
			expectedWatchResourceVersion: 100,
		},
		{
			name:                         "RV=unset, allowWatchBookmarks=true, sendInitialEvents=false",
			opts:                         listOptions(true, pointer.Bool(false), ""),
			expectedWatchResourceVersion: 100,
		},
		{

}

func (x *Address) Reset() {
	*x = Address{}
	if protoimpl.UnsafeEnabled {
		mi := &file_workloadapi_workload_proto_msgTypes[0]
		ms := protoimpl.X.MessageStateOf(protoimpl.Pointer(x))
		ms.StoreMessageInfo(mi)
	}
}

func (x *Address) String() string {
	return protoimpl.X.MessageStringOf(x)
}

func (*Address) ProtoMessage() {}

//    b. Start the world. From this point, GC work is done by mark
//    workers started by the scheduler and by assists performed as
//    part of allocation. The write barrier shades both the
//    overwritten pointer and the new pointer value for any pointer
//    writes (see mbarrier.go for details). Newly allocated objects
//    are immediately marked black.
//
//    c. GC performs root marking jobs. This includes scanning all