// Create an extra M for callbacks on threads not created by Go on first cgo call.
        if needextram == 1 && cas(&needextram, 1, 0) {
-               newextram()
+               onM(newextram)
        }
 
        /*
        gp := getg()
        if gp.m.needextram {
                gp.m.needextram = false
-               newextram()
+               onM(newextram)
        }
 
        // Add entry to defer stack in case of panic.
 
                runtime·ncpu = out;
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·get_random_data(byte **rnd, int32 *rnd_len)
 {
 
        *(int32*)0x1005 = 0x1005;
 }
 
+static void badfutexwakeup(void);
+
+#pragma textflag NOSPLIT
 void
 runtime·futexwakeup(uint32 *addr, uint32 cnt)
 {
        int32 ret;
+       void (*fn)(void);
 
        ret = runtime·sys_umtx_wakeup(addr, cnt);
        if(ret >= 0)
                return;
 
-       runtime·printf("umtx_wake addr=%p ret=%d\n", addr, ret);
+       g->m->ptrarg[0] = addr;
+       g->m->scalararg[0] = ret;
+       fn = badfutexwakeup;
+       if(g == g->m->gsignal)
+               fn();
+       else
+               runtime·onM(&fn);
        *(int32*)0x1006 = 0x1006;
 }
 
+static void
+badfutexwakeup(void)
+{
+       void *addr;
+       int32 ret;
+       
+       addr = g->m->ptrarg[0];
+       ret = g->m->scalararg[0];
+       runtime·printf("umtx_wake addr=%p ret=%d\n", addr, ret);
+}
+
 void runtime·lwp_start(void*);
 
 void
        runtime·ncpu = getncpu();
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·get_random_data(byte **rnd, int32 *rnd_len)
 {
 
        *(int32*)0x1005 = 0x1005;
 }
 
+static void badfutexwakeup(void);
+
+#pragma textflag NOSPLIT
 void
 runtime·futexwakeup(uint32 *addr, uint32 cnt)
 {
        int32 ret;
+       void (*fn)(void);
 
        ret = runtime·sys_umtx_op(addr, UMTX_OP_WAKE_PRIVATE, cnt, nil, nil);
        if(ret >= 0)
                return;
 
-       runtime·printf("umtx_wake addr=%p ret=%d\n", addr, ret);
+       g->m->ptrarg[0] = addr;
+       g->m->scalararg[0] = ret;
+       fn = badfutexwakeup;
+       if(g == g->m->gsignal)
+               fn();
+       else
+               runtime·onM(&fn);
        *(int32*)0x1006 = 0x1006;
 }
 
+static void
+badfutexwakeup(void)
+{
+       void *addr;
+       int32 ret;
+       
+       addr = g->m->ptrarg[0];
+       ret = g->m->scalararg[0];
+       runtime·printf("umtx_wake addr=%p ret=%d\n", addr, ret);
+}
+
 void runtime·thr_start(void*);
 
 void
        runtime·ncpu = getncpu();
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·get_random_data(byte **rnd, int32 *rnd_len)
 {
 
        runtime·futex(addr, FUTEX_WAIT, val, &ts, nil, 0);
 }
 
+static void badfutexwakeup(void);
+
 // If any procs are sleeping on addr, wake up at most cnt.
+#pragma textflag NOSPLIT
 void
 runtime·futexwakeup(uint32 *addr, uint32 cnt)
 {
        int64 ret;
+       void (*fn)(void);
 
        ret = runtime·futex(addr, FUTEX_WAKE, cnt, nil, nil, 0);
-
        if(ret >= 0)
                return;
 
        // I don't know that futex wakeup can return
        // EAGAIN or EINTR, but if it does, it would be
        // safe to loop and call futex again.
-       runtime·printf("futexwakeup addr=%p returned %D\n", addr, ret);
+       g->m->ptrarg[0] = addr;
+       g->m->scalararg[0] = (int32)ret; // truncated but fine
+       fn = badfutexwakeup;
+       if(g == g->m->gsignal)
+               fn();
+       else
+               runtime·onM(&fn);
        *(int32*)0x1006 = 0x1006;
 }
 
+static void
+badfutexwakeup(void)
+{
+       void *addr;
+       int64 ret;
+       
+       addr = g->m->ptrarg[0];
+       ret = (int32)g->m->scalararg[0];
+       runtime·printf("futexwakeup addr=%p returned %D\n", addr, ret);
+}
+
 extern runtime·sched_getaffinity(uintptr pid, uintptr len, uintptr *buf);
 static int32
 getproccount(void)
 byte*  runtime·startup_random_data;
 uint32 runtime·startup_random_data_len;
 
+#pragma textflag NOSPLIT
 void
 runtime·get_random_data(byte **rnd, int32 *rnd_len)
 {
 
        *(int32*)0 = 0;
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·get_random_data(byte **rnd, int32 *rnd_len)
 {
        }
 }
 
-uintptr
-runtime·semacreate(void)
+static void
+semacreate(void)
 {
        int32 mu, cond;
        
                runtime·throw("semacreate");
        }
        g->m->waitsemalock = mu;
-       return cond; // assigned to m->waitsema
+       g->m->scalararg[0] = cond; // assigned to m->waitsema
 }
 
 #pragma textflag NOSPLIT
-int32
-runtime·semasleep(int64 ns)
+uint32
+runtime·semacreate(void)
+{
+       void (*fn)(void);
+       uint32 x;
+       
+       fn = semacreate;
+       runtime·onM(&fn);
+       x = g->m->scalararg[0];
+       g->m->scalararg[0] = 0;
+       return x;
+}
+
+static void
+semasleep(void)
 {
        int32 ret;
+       int64 ns;
+       
+       ns = (int64)(uint32)g->m->scalararg[0] | (int64)(uint32)g->m->scalararg[1]<<32;
+       g->m->scalararg[0] = 0;
+       g->m->scalararg[1] = 0;
        
        ret = runtime·nacl_mutex_lock(g->m->waitsemalock);
        if(ret < 0) {
        if(g->m->waitsemacount > 0) {
                g->m->waitsemacount = 0;
                runtime·nacl_mutex_unlock(g->m->waitsemalock);
-               return 0;
+               g->m->scalararg[0] = 0;
+               return;
        }
 
        while(g->m->waitsemacount == 0) {
                        ret = runtime·nacl_cond_timed_wait_abs(g->m->waitsema, g->m->waitsemalock, &ts);
                        if(ret == -ETIMEDOUT) {
                                runtime·nacl_mutex_unlock(g->m->waitsemalock);
-                               return -1;
+                               g->m->scalararg[0] = -1;
+                               return;
                        }
                        if(ret < 0) {
                                //runtime·printf("nacl_cond_timed_wait_abs: error %d\n", -ret);
                        
        g->m->waitsemacount = 0;
        runtime·nacl_mutex_unlock(g->m->waitsemalock);
-       return 0;
+       g->m->scalararg[0] = 0;
 }
 
-void
-runtime·semawakeup(M *mp)
+#pragma textflag NOSPLIT
+int32
+runtime·semasleep(int64 ns)
+{
+       int32 r;
+       void (*fn)(void);
+
+       g->m->scalararg[0] = (uint32)ns;
+       g->m->scalararg[1] = (uint32)(ns>>32);
+       fn = semasleep;
+       runtime·onM(&fn);
+       r = g->m->scalararg[0];
+       g->m->scalararg[0] = 0;
+       return r;
+}
+
+static void
+semawakeup(void)
 {
        int32 ret;
+       M *mp;
        
+       mp = g->m->ptrarg[0];
+       g->m->ptrarg[0] = nil;
+
        ret = runtime·nacl_mutex_lock(mp->waitsemalock);
        if(ret < 0) {
                //runtime·printf("nacl_mutex_lock: error %d\n", -ret);
        runtime·nacl_mutex_unlock(mp->waitsemalock);
 }
 
+#pragma textflag NOSPLIT
+void
+runtime·semawakeup(M *mp)
+{
+       void (*fn)(void);
+
+       g->m->ptrarg[0] = mp;
+       fn = semawakeup;
+       runtime·onM(&fn);
+}
+
 uintptr
 runtime·memlimit(void)
 {
 
        runtime·ncpu = getncpu();
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·get_random_data(byte **rnd, int32 *rnd_len)
 {
 
        runtime·ncpu = getncpu();
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·get_random_data(byte **rnd, int32 *rnd_len)
 {
 
        *(int32*)0 = 0;
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·get_random_data(byte **rnd, int32 *rnd_len)
 {
 
        }
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·get_random_data(byte **rnd, int32 *rnd_len)
 {
 
        }
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·get_random_data(byte **rnd, int32 *rnd_len)
 {
 
        g->lockedm = g->m;
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·LockOSThread(void)
 {
        lockOSThread();
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·lockOSThread(void)
 {
        g->lockedm = nil;
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·UnlockOSThread(void)
 {
        unlockOSThread();
 }
 
+static void badunlockOSThread(void);
+
+#pragma textflag NOSPLIT
 void
 runtime·unlockOSThread(void)
 {
-       if(g->m->locked < LockInternal)
-               runtime·throw("runtime: internal error: misuse of lockOSThread/unlockOSThread");
+       void (*fn)(void);
+
+       if(g->m->locked < LockInternal) {
+               fn = badunlockOSThread;
+               runtime·onM(&fn);
+       }
        g->m->locked -= LockInternal;
        unlockOSThread();
 }
 
+static void
+badunlockOSThread(void)
+{
+       runtime·throw("runtime: internal error: misuse of lockOSThread/unlockOSThread");
+}
+
 bool
 runtime·lockedOSThread(void)
 {
 
 void runtime·racecall(void(*f)(void), ...);
 
 // checks if the address has shadow (i.e. heap or data/bss)
+#pragma textflag NOSPLIT
 static bool
 isvalidaddr(uintptr addr)
 {
        return false;
 }
 
+#pragma textflag NOSPLIT
 uintptr
 runtime·raceinit(void)
 {
        return racectx;
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·racefini(void)
 {
        runtime·racecall(__tsan_fini);
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·racemapshadow(void *addr, uintptr size)
 {
        runtime·racecall(__tsan_malloc, p, sz);
 }
 
+#pragma textflag NOSPLIT
 uintptr
 runtime·racegostart(void *pc)
 {
        return racectx;
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·racegoend(void)
 {
        runtime·racecall(__tsan_go_end, g->racectx);
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·racewriterangepc(void *addr, uintptr sz, void *callpc, void *pc)
 {
                runtime·racefuncexit();
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·racereadrangepc(void *addr, uintptr sz, void *callpc, void *pc)
 {
                runtime·racefuncexit();
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·racewriteobjectpc(void *addr, Type *t, void *callpc, void *pc)
 {
                runtime·racewritepc(addr, callpc, pc);
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·racereadobjectpc(void *addr, Type *t, void *callpc, void *pc)
 {
                runtime·racereadpc(addr, callpc, pc);
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·raceacquire(void *addr)
 {
        runtime·raceacquireg(g, addr);
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·raceacquireg(G *gp, void *addr)
 {
        runtime·racecall(__tsan_acquire, gp->racectx, addr);
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·racerelease(void *addr)
 {
        runtime·racereleaseg(g, addr);
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·racereleaseg(G *gp, void *addr)
 {
        runtime·racecall(__tsan_release, gp->racectx, addr);
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·racereleasemerge(void *addr)
 {
        runtime·racereleasemergeg(g, addr);
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·racereleasemergeg(G *gp, void *addr)
 {
        runtime·racecall(__tsan_release_merge, gp->racectx, addr);
 }
 
+#pragma textflag NOSPLIT
 void
 runtime·racefingo(void)
 {
 }
 
 // func RaceAcquire(addr unsafe.Pointer)
+#pragma textflag NOSPLIT
 void
 runtime·RaceAcquire(void *addr)
 {
 }
 
 // func RaceRelease(addr unsafe.Pointer)
+#pragma textflag NOSPLIT
 void
 runtime·RaceRelease(void *addr)
 {
 }
 
 // func RaceReleaseMerge(addr unsafe.Pointer)
+#pragma textflag NOSPLIT
 void
 runtime·RaceReleaseMerge(void *addr)
 {
 }
 
 // func RaceDisable()
+#pragma textflag NOSPLIT
 void
 runtime·RaceDisable(void)
 {
 }
 
 // func RaceEnable()
+#pragma textflag NOSPLIT
 void
 runtime·RaceEnable(void)
 {
        if(--g->raceignore == 0)
                runtime·racecall(__tsan_go_ignore_sync_end, g->racectx);
 }
-
-typedef struct SymbolizeContext SymbolizeContext;
-struct SymbolizeContext
-{
-       uintptr pc;
-       int8*   func;
-       int8*   file;
-       uintptr line;
-       uintptr off;
-       uintptr res;
-};
-
-// Callback from C into Go, runs on g0.
-void
-runtime·racesymbolize(SymbolizeContext *ctx)
-{
-       Func *f;
-       String file;
-
-       f = runtime·findfunc(ctx->pc);
-       if(f == nil) {
-               ctx->func = "??";
-               ctx->file = "-";
-               ctx->line = 0;
-               ctx->off = ctx->pc;
-               ctx->res = 1;
-               return;
-       }
-       ctx->func = runtime·funcname(f);
-       ctx->line = runtime·funcline(f, ctx->pc, &file);
-       ctx->file = (int8*)file.str;  // assume zero-terminated
-       ctx->off = ctx->pc - f->entry;
-       ctx->res = 1;
-}
 
        if kind == kindArray || kind == kindStruct {
                // for composite objects we have to read every address
                // because a write might happen to any subobject.
-               racereadrangepc(addr, int(t.size), callerpc, pc)
+               racereadrangepc(addr, t.size, callerpc, pc)
        } else {
                // for non-composite objects we can read just the start
                // address, as any write must write the first byte.
        if kind == kindArray || kind == kindStruct {
                // for composite objects we have to write every address
                // because a write might happen to any subobject.
-               racewriterangepc(addr, int(t.size), callerpc, pc)
+               racewriterangepc(addr, t.size, callerpc, pc)
        } else {
                // for non-composite objects we can write just the start
                // address, as any write must write the first byte.
                racewritepc(addr, callerpc, pc)
        }
 }
+
+//go:noescape
+func racereadpc(addr unsafe.Pointer, callpc, pc uintptr)
+
+//go:noescape
+func racewritepc(addr unsafe.Pointer, callpc, pc uintptr)
+
+//go:noescape
+func racereadrangepc(addr unsafe.Pointer, len uintptr, callpc, pc uintptr)
+
+//go:noescape
+func racewriterangepc(addr unsafe.Pointer, len uintptr, callpc, pc uintptr)
+
+//go:noescape
+func raceacquire(addr unsafe.Pointer)
+
+//go:noescape
+func racerelease(addr unsafe.Pointer)
+
+//go:noescape
+func raceacquireg(gp *g, addr unsafe.Pointer)
+
+//go:noescape
+func racereleaseg(gp *g, addr unsafe.Pointer)
+
+func racefingo()
+
+//go:noescape
+func racemalloc(p unsafe.Pointer, size uintptr)
+
+//go:noescape
+func racereleasemerge(addr unsafe.Pointer)
+
+type symbolizeContext struct {
+       pc   uintptr
+       fn   *byte
+       file *byte
+       line uintptr
+       off  uintptr
+       res  uintptr
+}
+
+var qq = [...]byte{'?', '?', 0}
+var dash = [...]byte{'-', 0}
+
+// Callback from C into Go, runs on g0.
+func racesymbolize(ctx *symbolizeContext) {
+       f := findfunc(ctx.pc)
+       if f == nil {
+               ctx.fn = &qq[0]
+               ctx.file = &dash[0]
+               ctx.line = 0
+               ctx.off = ctx.pc
+               ctx.res = 1
+               return
+       }
+
+       ctx.fn = funcname(f)
+       var file string
+       ctx.line = uintptr(funcline(f, ctx.pc, &file))
+       ctx.file = &bytes(file)[0] // assume NUL-terminated
+       ctx.off = ctx.pc - f.entry
+       ctx.res = 1
+       return
+}
 
+++ /dev/null
-// Copyright 2011 The Go Authors. All rights reserved.
-// Use of this source code is governed by a BSD-style
-// license that can be found in the LICENSE file.
-
-// Stub implementation of the race detector API.
-// +build !race
-
-#include "runtime.h"
-
-uintptr
-runtime·raceinit(void)
-{
-       return 0;
-}
-
-void
-runtime·racefini(void)
-{
-}
-
-
-void
-runtime·racemapshadow(void *addr, uintptr size)
-{
-       USED(addr);
-       USED(size);
-}
-
-void
-runtime·racewritepc(void *addr, void *callpc, void *pc)
-{
-       USED(addr);
-       USED(callpc);
-       USED(pc);
-}
-
-void
-runtime·racereadpc(void *addr, void *callpc, void *pc)
-{
-       USED(addr);
-       USED(callpc);
-       USED(pc);
-}
-
-void
-runtime·racewriterangepc(void *addr, uintptr sz, void *callpc, void *pc)
-{
-       USED(addr);
-       USED(sz);
-       USED(callpc);
-       USED(pc);
-}
-
-void
-runtime·racereadrangepc(void *addr, uintptr sz, void *callpc, void *pc)
-{
-       USED(addr);
-       USED(sz);
-       USED(callpc);
-       USED(pc);
-}
-
-void
-runtime·raceacquire(void *addr)
-{
-       USED(addr);
-}
-
-void
-runtime·raceacquireg(G *gp, void *addr)
-{
-       USED(gp);
-       USED(addr);
-}
-
-void
-runtime·racerelease(void *addr)
-{
-       USED(addr);
-}
-
-void
-runtime·racereleaseg(G *gp, void *addr)
-{
-       USED(gp);
-       USED(addr);
-}
-
-void
-runtime·racereleasemerge(void *addr)
-{
-       USED(addr);
-}
-
-void
-runtime·racereleasemergeg(G *gp, void *addr)
-{
-       USED(gp);
-       USED(addr);
-}
-
-void
-runtime·racefingo(void)
-{
-}
-
-void
-runtime·racemalloc(void *p, uintptr sz)
-{
-       USED(p);
-       USED(sz);
-}
-
-uintptr
-runtime·racegostart(void *pc)
-{
-       USED(pc);
-       return 0;
-}
-
-void
-runtime·racegoend(void)
-{
-}
 
 
 const raceenabled = false
 
-func raceReadObjectPC(t *_type, addr unsafe.Pointer, callerpc, pc uintptr) {
-}
-func raceWriteObjectPC(t *_type, addr unsafe.Pointer, callerpc, pc uintptr) {
-}
+// Because raceenabled is false, none of these functions should be called.
+
+func raceReadObjectPC(t *_type, addr unsafe.Pointer, callerpc, pc uintptr)  { gothrow("race") }
+func raceWriteObjectPC(t *_type, addr unsafe.Pointer, callerpc, pc uintptr) { gothrow("race") }
+func raceinit()                                                             { gothrow("race") }
+func racefini()                                                             { gothrow("race") }
+func racemapshadow(addr unsafe.Pointer, size uintptr)                       { gothrow("race") }
+func racewritepc(addr unsafe.Pointer, callerpc, pc uintptr)                 { gothrow("race") }
+func racereadpc(addr unsafe.Pointer, callerpc, pc uintptr)                  { gothrow("race") }
+func racereadrangepc(addr unsafe.Pointer, sz, callerpc, pc uintptr)         { gothrow("race") }
+func racewriterangepc(addr unsafe.Pointer, sz, callerpc, pc uintptr)        { gothrow("race") }
+func raceacquire(addr unsafe.Pointer)                                       { gothrow("race") }
+func raceacquireg(gp *g, addr unsafe.Pointer)                               { gothrow("race") }
+func racerelease(addr unsafe.Pointer)                                       { gothrow("race") }
+func racereleaseg(gp *g, addr unsafe.Pointer)                               { gothrow("race") }
+func racereleasemerge(addr unsafe.Pointer)                                  { gothrow("race") }
+func racereleasemergeg(gp *g, addr unsafe.Pointer)                          { gothrow("race") }
+func racefingo()                                                            { gothrow("race") }
+func racemalloc(p unsafe.Pointer, sz uintptr)                               { gothrow("race") }
+func racegostart(pc uintptr) uintptr                                        { gothrow("race"); return 0 }
+func racegoend()                                                            { gothrow("race") }
 
 
        if raceenabled {
                callerpc := getcallerpc(unsafe.Pointer(&t))
-               racereadrangepc(old.array, old.len*int(t.elem.size), callerpc, funcPC(growslice))
+               racereadrangepc(old.array, uintptr(old.len*int(t.elem.size)), callerpc, funcPC(growslice))
        }
 
        et := t.elem
        if raceenabled {
                callerpc := getcallerpc(unsafe.Pointer(&to))
                pc := funcPC(slicecopy)
-               racewriterangepc(to.array, n*int(width), callerpc, pc)
-               racereadrangepc(fm.array, n*int(width), callerpc, pc)
+               racewriterangepc(to.array, uintptr(n*int(width)), callerpc, pc)
+               racereadrangepc(fm.array, uintptr(n*int(width)), callerpc, pc)
        }
 
        size := uintptr(n) * width
        if raceenabled {
                callerpc := getcallerpc(unsafe.Pointer(&to))
                pc := funcPC(slicestringcopy)
-               racewriterangepc(unsafe.Pointer(&to[0]), n, callerpc, pc)
+               racewriterangepc(unsafe.Pointer(&to[0]), uintptr(n), callerpc, pc)
        }
 
        memmove(unsafe.Pointer(&to[0]), unsafe.Pointer((*stringStruct)(unsafe.Pointer(&fm)).str), uintptr(n))
 
 func slicebytetostring(b []byte) string {
        if raceenabled && len(b) > 0 {
                racereadrangepc(unsafe.Pointer(&b[0]),
-                       len(b),
+                       uintptr(len(b)),
                        getcallerpc(unsafe.Pointer(&b)),
                        funcPC(slicebytetostring))
        }
 
        if raceenabled && len(b) > 0 {
                racereadrangepc(unsafe.Pointer(&b[0]),
-                       len(b),
+                       uintptr(len(b)),
                        getcallerpc(unsafe.Pointer(&b)),
                        funcPC(slicebytetostringtmp))
        }
 func slicerunetostring(a []rune) string {
        if raceenabled && len(a) > 0 {
                racereadrangepc(unsafe.Pointer(&a[0]),
-                       len(a)*int(unsafe.Sizeof(a[0])),
+                       uintptr(len(a))*unsafe.Sizeof(a[0]),
                        getcallerpc(unsafe.Pointer(&a)),
                        funcPC(slicerunetostring))
        }
 
 const ptrSize = 4 << (^uintptr(0) >> 63) // unsafe.Sizeof(uintptr(0)) but an ideal const
 const regSize = 4 << (^uintreg(0) >> 63) // unsafe.Sizeof(uintreg(0)) but an ideal const
 
-//go:noescape
-func racereadpc(addr unsafe.Pointer, callpc, pc uintptr)
-
-//go:noescape
-func racewritepc(addr unsafe.Pointer, callpc, pc uintptr)
-
-//go:noescape
-func racereadrangepc(addr unsafe.Pointer, len int, callpc, pc uintptr)
-
-//go:noescape
-func racewriterangepc(addr unsafe.Pointer, len int, callpc, pc uintptr)
-
-//go:noescape
-func raceacquire(addr unsafe.Pointer)
-
-//go:noescape
-func racerelease(addr unsafe.Pointer)
-
-//go:noescape
-func racereleasemerge(addr unsafe.Pointer)
-
-//go:noescape
-func raceacquireg(gp *g, addr unsafe.Pointer)
-
-//go:noescape
-func racereleaseg(gp *g, addr unsafe.Pointer)
-
-func racefingo()
-
 // Should be a built-in for unsafe.Pointer?
 //go:nosplit
 func add(p unsafe.Pointer, x uintptr) unsafe.Pointer {
 //go:noescape
 func memclr(ptr unsafe.Pointer, n uintptr)
 
-func racemalloc(p unsafe.Pointer, size uintptr)
-
 // memmove copies n bytes from "from" to "to".
 // in memmove_*.s
 //go:noescape