// functions are correctly handled. This smashes
	// the stack frame but we're not going back there
	// anyway.
	sp := c.sp() - sys.MinFrameSize
	c.set_sp(sp)
	*(*uint32)(unsafe.Pointer(uintptr(sp))) = c.link()

	pc := gp.sigpc

	if shouldPushSigpanic(gp, pc, uintptr(c.link())) {
		// Make it look the like faulting PC called sigpanic.
		c.set_link(uint32(pc))
	}

	// In case we are panicking from external C code

	// functions are correctly handled. This smashes
	// the stack frame but we're not going back there
	// anyway.
	sp := c.sp() - goarch.PtrSize
	c.set_sp(sp)
	*(*uint64)(unsafe.Pointer(uintptr(sp))) = c.link()

	pc := gp.sigpc

	if shouldPushSigpanic(gp, pc, uintptr(c.link())) {
		// Make it look the like faulting PC called sigpanic.
		c.set_link(uint64(pc))
	}

	// In case we are panicking from external C code

func (h *debugCallHandler) restoreSigContext(ctxt *sigctxt) {
	// Restore all registers except for pc and sp
	pc, sp := ctxt.pc(), ctxt.sp()
	*ctxt.regs() = h.sigCtxt.savedRegs
	ctxt.set_pc(pc + 4)
	ctxt.set_sp(sp)
}

// storeRegArgs sets up argument registers in the signal
// context state from an abi.RegArgs.
//
// Both src and dst must be non-nil.
func storeRegArgs(dst *sigcontext, src *abi.RegArgs) {
	for i, r := range src.Ints {

func (h *debugCallHandler) restoreSigContext(ctxt *sigctxt) {
	// Restore all registers except for pc and sp
	pc, sp := ctxt.pc(), ctxt.sp()
	*ctxt.cregs() = h.sigCtxt.savedRegs
	ctxt.set_pc(pc + 4)
	ctxt.set_sp(sp)
}

// storeRegArgs sets up argument registers in the signal
// context state from an abi.RegArgs.
//
// Both src and dst must be non-nil.
func storeRegArgs(dst *sigcontext, src *abi.RegArgs) {

     */
    public String getUser() {
        return user;
    }

    /**
     * Sets the user for this message.
     *
     * @param user The user.
     */
    public void setUser(String user) {
        this.user = user;
    }

    /**
     * Returns the workstation from which authentication is being performed.
     *

func netpoll(delay int64) (gList, int32) {
	if kq == -1 {
		return gList{}, 0
	}
	var tp *timespec
	var ts timespec
	if delay < 0 {
		tp = nil
	} else if delay == 0 {
		tp = &ts
	} else {
		ts.setNsec(delay)
		if ts.tv_sec > 1e6 {
			// Darwin returns EINVAL if the sleep time is too long.
			ts.tv_sec = 1e6
		}
		tp = &ts
	}
	var events [64]keventt
retry:

 *     <li>EXECUTE access: the capability to run a file as a program; executing a directory doesn't really make sense, it's more like
 *     a traverse permission; for example, a user must have 'execute' access to the 'bin' directory in order to execute the 'ls' or 'cd' commands.</li>
 * </ul>
 *
 * @since 8.3
 */

	// functions are correctly handled. This smashes
	// the stack frame but we're not going back there
	// anyway.
	sp := c.sp() - sys.MinFrameSize
	c.set_sp(sp)
	*(*uint64)(unsafe.Pointer(uintptr(sp))) = c.link()

	pc := gp.sigpc

	if shouldPushSigpanic(gp, pc, uintptr(c.link())) {
		// Make it look the like faulting PC called sigpanic.
		c.set_link(uint64(pc))
	}

	// In case we are panicking from external C code

        this.explain(formatter);
        return new GradleException(formatter.toString());
    }

    @Override
    public boolean requiresDebugBinaryStripping() {
        // Doesn't really make sense
        return true;
    }

    @Override
    public String getObjectFileExtension() {
        throw failure();
    }

    @Override
    public String getExecutableName(String executablePath) {

// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.

// Issue 20529: Large stack frames caused compiler panics.
// Only tested on amd64 because the test only makes sense
// on a 64 bit system, and it is platform-agnostic,
// so testing one suffices.

package p

import "runtime"

func f() { // GC_ERROR "stack frame too large"
	x := [][]int{1e9: []int{}}
	runtime.KeepAlive(x)