7:    "argument list too long",
	8:    "exec format error",
	9:    "bad file descriptor",
	10:   "no child processes",
	11:   "resource temporarily unavailable",
	12:   "cannot allocate memory",
	13:   "permission denied",
	14:   "bad address",
	15:   "block device required",
	16:   "device or resource busy",
	17:   "file exists",
	18:   "invalid cross-device link",

	7:    "argument list too long",
	8:    "exec format error",
	9:    "bad file descriptor",
	10:   "no child processes",
	11:   "resource temporarily unavailable",
	12:   "cannot allocate memory",
	13:   "permission denied",
	14:   "bad address",
	15:   "block device required",
	16:   "device or resource busy",
	17:   "file exists",
	18:   "invalid cross-device link",

	7:    "argument list too long",
	8:    "exec format error",
	9:    "bad file descriptor",
	10:   "no child processes",
	11:   "resource temporarily unavailable",
	12:   "cannot allocate memory",
	13:   "permission denied",
	14:   "bad address",
	15:   "block device required",
	16:   "device or resource busy",
	17:   "file exists",
	18:   "invalid cross-device link",

	7:    "argument list too long",
	8:    "exec format error",
	9:    "bad file descriptor",
	10:   "no child processes",
	11:   "resource temporarily unavailable",
	12:   "cannot allocate memory",
	13:   "permission denied",
	14:   "bad address",
	15:   "block device required",
	16:   "device or resource busy",
	17:   "file exists",
	18:   "invalid cross-device link",

func (p *Parser) AllQuestions() ([]Question, error) {
	// Multiple questions are valid according to the spec,
	// but servers don't actually support them. There will
	// be at most one question here.
	//
	// Do not pre-allocate based on info in p.header, since
	// the data is untrusted.
	qs := []Question{}
	for {
		q, err := p.Question()
		if err == ErrSectionDone {
			return qs, nil
		}
		if err != nil {
			return nil, err

	{8, "ENOEXEC", "exec format error"},
	{9, "EBADF", "bad file descriptor"},
	{10, "ECHILD", "no child processes"},
	{11, "EDEADLK", "resource deadlock avoided"},
	{12, "ENOMEM", "cannot allocate memory"},
	{13, "EACCES", "permission denied"},
	{14, "EFAULT", "bad address"},
	{15, "ENOTBLK", "block device required"},
	{16, "EBUSY", "device busy"},
	{17, "EEXIST", "file exists"},

	{8, "ENOEXEC", "exec format error"},
	{9, "EBADF", "bad file descriptor"},
	{10, "ECHILD", "no child processes"},
	{11, "EDEADLK", "resource deadlock avoided"},
	{12, "ENOMEM", "cannot allocate memory"},
	{13, "EACCES", "permission denied"},
	{14, "EFAULT", "bad address"},
	{15, "ENOTBLK", "block device required"},
	{16, "EBUSY", "device busy"},
	{17, "EEXIST", "file exists"},

// sample's magnitude.
//
// Second, having unlocked a mutex the M checks to see if it should capture the
// call stack into its local buffer. Finally, when the M unlocks its last mutex,
// it transfers the local buffer into the profile. As part of that step, it also
// transfers any "additional contention" time to the profile. Any lock

// flagged as bugs, and fixed appropriately.
//
// An additional factor of retainExtraPercent is added as a buffer to help ensure
// that there's more unscavenged memory to allocate out of, since each allocation
// out of scavenged memory incurs a potentially expensive page fault.
//
// If a memory limit is set, then we wish to pick a scavenge goal that maintains

			// Before we tell a driver to deallocate a claim, we
			// have to stop telling it to allocate. Otherwise,
			// depending on timing, it will deallocate the claim,
			// see a PodSchedulingContext with selected node, and
			// allocate again for that same node.
			if !clearAllocation &&
				state.podSchedulingState.schedulingCtx != nil &&