/*
* IP6 initialization: fill in IP6 protocol switch table.
* All protocols not implemented in kernel go to raw IP6 protocol handler.
*/
void
ip6_init(void)
{
struct protosw *pr;
int i;
struct timeval tv;
pr = pffindproto(PF_INET6, IPPROTO_RAW, SOCK_RAW);
if (pr == NULL)
panic("ip6_init");
for (i = 0; i < IPPROTO_MAX; i++)
ip6_protox[i] = pr - inet6sw;
for (pr = inet6domain.dom_protosw;
pr < inet6domain.dom_protoswNPROTOSW; pr++)
if (pr->pr_domain->dom_family == PF_INET6 &&
pr->pr_protocol && pr->pr_protocol != IPPROTO_RAW)
ip6_protox[pr->pr_protocol] = pr - inet6sw;
inet6_pfil_hook.ph_type = PFIL_TYPE_AF;
inet6_pfil_hook.ph_af = AF_INET6;
if ((i = pfil_head_register(&inet6_pfil_hook)) != 0) {
kprintf("%s: WARNING: unable to register pfil hook, "
"error %d\n", __func__, i);
}
netisr_register(NETISR_IPV6, ip6_input, NULL); /* XXX hashfn */
scope6_init();
addrsel_policy_init();
nd6_init();
frag6_init();
/*
* in many cases, random() here does NOT return random number
* as initialization during bootstrap time occur in fixed order.
*/
microtime(&tv);
ip6_flow_seq = krandom() ^ tv.tv_usec;
microtime(&tv);
ip6_desync_factor = (krandom() ^ tv.tv_usec) % MAX_TEMP_DESYNC_FACTOR;
}
int
gettimeofday(struct timeval *tv, struct timezone *tz)
{
if (tz != NULL)
goto err_param;
microtime(tv);
return 0;
err_param:
return EINVAL;
}
/*
* cfi_0002_busy_wait - wait until device is not busy
*/
static int
cfi_0002_busy_wait(struct cfi * const cfi, flash_off_t offset, u_long usec)
{
int error;
#ifdef CFI_0002_STATS
struct timeval start;
struct timeval now;
struct timeval delta;
if (usec > cfi->cfi_0002_stats.busy_usec_max)
cfi->cfi_0002_stats.busy_usec_max = usec;
if (usec < cfi->cfi_0002_stats.busy_usec_min)
cfi->cfi_0002_stats.busy_usec_min = usec;
microtime(&start);
#endif
if (usec > cfi->cfi_yield_time) {
error = cfi_0002_busy_yield(cfi, offset, usec);
#ifdef CFI_0002_STATS
microtime(&now);
cfi->cfi_0002_stats.busy_yield++;
timersub(&now, &start, &delta);
timeradd(&delta,
&cfi->cfi_0002_stats.busy_yield_tv,
&cfi->cfi_0002_stats.busy_yield_tv);
#endif
} else {
error = cfi_0002_busy_poll(cfi, offset, usec);
#ifdef CFI_0002_STATS
microtime(&now);
cfi->cfi_0002_stats.busy_poll++;
timersub(&now, &start, &delta);
timeradd(&delta,
&cfi->cfi_0002_stats.busy_poll_tv,
&cfi->cfi_0002_stats.busy_poll_tv);
#endif
}
return error;
}
gboolean timeout2(gpointer data){
if(!start) return true;
timer[2] = microtime();
Detect * detect = ((TimerAction *) data)->det;
freenect * frn = ((TimerAction *) data)->frn;
frn->reload();
cv_image = frn->get_image_depth_rgb();
//cv_image = frn->get_image_rgb();
detect->NextFrame(cv_image,frn->get_image_rgb());
//cv_image = detec->GetFrame();
GtkWidget* widget = ((TimerAction *) data)->canvas_set;
timer[2] = microtime()-timer[2];
gtk_widget_queue_draw (widget);
if (record_video)
cvWriteFrame(writter_v, cv_image);
return true;
}
int
drm_wait_vblank(struct drm_device *dev, void *data, struct drm_file *file_priv)
{
struct timeval now;
union drm_wait_vblank *vblwait = data;
int ret, flags, crtc, seq;
if (!dev->irq_enabled || dev->vblank == NULL ||
vblwait->request.type & _DRM_VBLANK_SIGNAL)
return (EINVAL);
flags = vblwait->request.type & _DRM_VBLANK_FLAGS_MASK;
crtc = flags & _DRM_VBLANK_SECONDARY ? 1 : 0;
if (crtc >= dev->vblank->vb_num)
return (EINVAL);
if ((ret = drm_vblank_get(dev, crtc)) != 0)
return (ret);
seq = drm_vblank_count(dev, crtc);
if (vblwait->request.type & _DRM_VBLANK_RELATIVE) {
vblwait->request.sequence += seq;
vblwait->request.type &= ~_DRM_VBLANK_RELATIVE;
}
flags = vblwait->request.type & _DRM_VBLANK_FLAGS_MASK;
if ((flags & _DRM_VBLANK_NEXTONMISS) &&
(seq - vblwait->request.sequence) <= (1<<23)) {
vblwait->request.sequence = seq + 1;
}
if (flags & _DRM_VBLANK_EVENT)
return (drm_queue_vblank_event(dev, crtc, vblwait, file_priv));
DPRINTF("%s: %d waiting on %d, current %d\n", __func__, crtc,
vblwait->request.sequence, drm_vblank_count(dev, crtc));
DRM_WAIT_ON(ret, &dev->vblank->vb_crtcs[crtc], &dev->vblank->vb_lock,
3 * hz, "drmvblq", ((drm_vblank_count(dev, crtc) -
vblwait->request.sequence) <= (1 << 23)) || dev->irq_enabled == 0);
microtime(&now);
vblwait->reply.tval_sec = now.tv_sec;
vblwait->reply.tval_usec = now.tv_usec;
vblwait->reply.sequence = drm_vblank_count(dev, crtc);
DPRINTF("%s: %d done waiting, seq = %d\n", __func__, crtc,
vblwait->reply.sequence);
drm_vblank_put(dev, crtc);
return (ret);
}
/*
* resettodr:
*
* Reset the time-of-day register with the current time.
*/
void
resettodr(void)
{
struct timeval rtctime;
if (rtctime.tv_sec == 0)
return;
microtime(&rtctime);
if (todr_handle != NULL &&
todr_settime(todr_handle, &rtctime) != 0)
printf("resettodr: failed to set time\n");
}
struct ktr_header *
ktrgetheader(type)
{
register struct ktr_header *kth;
struct proc *p = curproc; /* XXX */
MALLOC(kth, struct ktr_header *, sizeof (struct ktr_header),
M_TEMP, M_WAITOK);
kth->ktr_type = type;
microtime(&kth->ktr_time);
kth->ktr_pid = p->p_pid;
bcopy(p->p_comm, kth->ktr_comm, MAXCOMLEN);
return (kth);
}
/*
* Mark an interface up and notify protocols of
* the transition.
* NOTE: must be called at splnet or eqivalent.
*/
void
if_up(struct ifnet *ifp)
{
ifp->if_flags |= IFF_UP;
microtime(&ifp->if_lastchange);
#ifdef notyet
struct ifaddr *ifa;
/* this has no effect on IP, and will kill all iso connections XXX */
for (ifa = ifp->if_addrlist; ifa; ifa = ifa->ifa_next)
pfctlinput(PRC_IFUP, ifa->ifa_addr);
#endif
rt_ifmsg(ifp);
}
int
sys_fmaster_kqueue(struct thread *td, struct fmaster_kqueue_args *uap)
{
struct timeval time_start;
int error;
fmaster_log(td, LOG_DEBUG, "kqueue: started");
microtime(&time_start);
error = fmaster_kqueue_main(td, uap);
fmaster_log_syscall_end(td, "kqueue", &time_start, error);
return (error);
}
static int synthfs_insertnode(struct synthfsnode *newnode_sp, struct synthfsnode *parent_sp) {
struct timeval now;
DBG_ASSERT(parent_sp->s_type == SYNTHFS_DIRECTORY);
TAILQ_INSERT_TAIL(&parent_sp->s_u.d.d_subnodes, newnode_sp, s_sibling);
++parent_sp->s_u.d.d_entrycount;
newnode_sp->s_parent = parent_sp;
parent_sp->s_nodeflags |= IN_CHANGE | IN_MODIFIED;
microtime(&now);
synthfs_update(STOV(parent_sp), &now, &now, 0);
return 0;
}
void doit() {
double t0,t1;
const int imax = 1000;
const char* key = "mypassword";
const char* salt_bf = "$2a$99$01234567890ABCDEF$";
const char* salt_256 = "$5$rounds=5000$01234567890ABCDEF$";
const char* salt_512 = "$6$rounds=5000$01234567890ABCDEF$";
t0 = microtime();
for (int i = 0; i < imax; ++i) {
crypt(key, salt_512);
}
t1 = microtime();
printf("sha_512\t%f RPS\n", (double)(imax)/(t1-t0) );
t0 = microtime();
for (int i = 0; i < imax; ++i) {
crypt(key, salt_256);
}
t1 = microtime();
printf("sha_256\t%f RPS\n", (double)(imax)/(t1-t0) );
}
int
sys_fmaster_dup(struct thread *td, struct fmaster_dup_args *uap)
{
struct timeval time_start;
int error, fd;
fd = uap->fd;
fmaster_log(td, LOG_DEBUG, "dup: started: fd=%u", fd);
microtime(&time_start);
error = fmaster_dup_main(td, fd);
fmaster_log_syscall_end(td, "dup", &time_start, error);
return (error);
}
/*
* Initialise reassembly queue and fragment identifier.
*/
void
frag6_init()
{
struct timeval tv;
ip6_maxfragpackets = nmbclusters / 32;
ip6_maxfrags = nmbclusters / 4;
/*
* in many cases, random() here does NOT return random number
* as initialization during bootstrap time occur in fixed order.
*/
microtime(&tv);
ip6_id = random() ^ tv.tv_usec;
ip6q.ip6q_next = ip6q.ip6q_prev = &ip6q;
}
int
sys_fmaster_thr_exit(struct thread *td, struct fmaster_thr_exit_args *uap)
{
struct timeval time_start;
const char *sysname = "thr_exit";
int error;
fmaster_log(td, LOG_DEBUG, "%s: started", sysname);
microtime(&time_start);
error = fmaster_thr_exit_main(td, uap);
fmaster_log_syscall_end(td, sysname, &time_start, error);
return (error);
}
void PseudoWorld::onFrame(VideoFrame *frame)
{
for (std::vector<VideoFrame::Blob *>::size_type i = 0; i < frame->blobs.size(); i++)
{
VideoFrame::Blob *blob = frame->blobs[i];
switch (blob->color)
{
case VideoFrame::Blob::COLOR_BALL:
this->readBallBlob(frame, blob);
break;
case VideoFrame::Blob::COLOR_YELLOW:
case VideoFrame::Blob::COLOR_BLUE:
this->readGoalBlob(frame, blob);
break;
}
}
std::map<int, PseudoWorld::Ball *>::iterator it = this->balls.begin();
PseudoWorld::Ball *ball;
// Removing balls that are no longer visible
while (it != this->balls.end())
{
ball = it->second;
if (frame->sequence - ball->sequence > 10)
{
delete it->second;
it = this->balls.erase(it);
}
else
{
++it;
}
}
// Set the goal as not visible, if necessary
if (frame->sequence - this->target.sequence > 5)
{
this->target.visible = false;
}
this->age++;
this->lastFrame = microtime();
}
gettimeofday()
{
register struct a {
struct timeval *tp;
struct timezone *tzp;
} *uap = (struct a *)u.u_ap;
struct timeval atv;
microtime(&atv);
u.u_error = copyout((caddr_t)&atv, (caddr_t)uap->tp, sizeof (atv));
if (u.u_error)
return;
if (uap->tzp == 0)
return;
/* SHOULD HAVE PER-PROCESS TIMEZONE */
u.u_error = copyout((caddr_t)&tz, (caddr_t)uap->tzp, sizeof (tz));
}
/*
* MPSAFE
*/
static struct ktr_header *
ktrgetheader(int type)
{
struct ktr_header *kth;
struct proc *p = curproc; /* XXX */
struct lwp *lp = curthread->td_lwp;
kth = kmalloc(sizeof(struct ktr_header), M_KTRACE, M_WAITOK);
kth->ktr_type = type;
/* XXX threaded flag is a hack at the moment */
kth->ktr_flags = (p->p_nthreads > 1) ? KTRH_THREADED : 0;
microtime(&kth->ktr_time);
kth->ktr_pid = p->p_pid;
kth->ktr_tid = lp->lwp_tid;
bcopy(p->p_comm, kth->ktr_comm, MAXCOMLEN + 1);
return (kth);
}
void
FFree(void *mem, char *file, int line)
{
int s;
int i;
s = splhigh();
for (i = 0; i < malloccount; i++) {
if ((caddr_t) mem == malloced[i].address) { /* found it */
bzero(mem, malloced[i].size); /* XXX */
free(mem, M_DEVBUF);
malloccount--;
total_malloced -= malloced[i].size;
if (debug & DEBUG_MEMFREE) { /* keep track of recent frees */
char *f = strrchr(file, '/'); /* chop off dirname if present */
if (f == NULL)
f = file;
else
f++; /* skip the / */
microtime(&freeinfo[lastfree].time);
freeinfo[lastfree].seq = malloced[i].seq;
freeinfo[lastfree].size = malloced[i].size;
freeinfo[lastfree].line = line;
freeinfo[lastfree].address = mem;
bcopy(f, freeinfo[lastfree].file, min(strlen(f), MCFILENAMELEN - 1));
freeinfo[lastfree].file[MCFILENAMELEN - 1] = '\0';
if (++lastfree == FREECOUNT)
lastfree = 0;
}
if (i < malloccount) /* more coming after */
bcopy(&malloced[i + 1], &malloced[i], (malloccount - i) * sizeof(struct mc));
splx(s);
return;
}
}
splx(s);
log(LOG_ERR,
"Freeing unallocated data at 0x%p from %s, line %d\n",
mem,
file,
line);
panic("Free");
}
Link* NetworkServer::accept_link(){
Link *link = serv_link->accept();
if(link == NULL){
log_error("accept failed! %s", strerror(errno));
return NULL;
}
if(!ip_filter->check_pass(link->remote_ip)){
log_debug("ip_filter deny link from %s:%d", link->remote_ip, link->remote_port);
delete link;
return NULL;
}
link->nodelay();
link->noblock();
link->create_time = microtime();
link->active_time = link->create_time;
return link;
}
caddr_t
MMalloc(int size, char *file, int line)
{
int s;
caddr_t result;
int i;
if (malloccount >= MALLOCENTRIES) { /* too many */
log(LOG_ERR, "vinum: can't allocate table space to trace memory allocation");
return 0; /* can't continue */
}
/* Wait for malloc if we can */
/*
* XXX We can wait if we're in process context. How do we tell?
*/
result = malloc(size, M_DEVBUF, M_NOWAIT);
if (result == NULL)
log(LOG_ERR, "vinum: can't allocate %d bytes from %s:%d\n", size, file, line);
else {
s = splhigh();
for (i = 0; i < malloccount; i++) {
if (((result + size) > malloced[i].address)
&& (result < malloced[i].address + malloced[i].size)) /* overlap */
panic("Malloc overlap");
}
if (result) {
char *f = basename(file);
i = malloccount++;
total_malloced += size;
microtime(&malloced[i].time);
malloced[i].seq = mallocseq++;
malloced[i].size = size;
malloced[i].line = line;
malloced[i].address = result;
bcopy(f, malloced[i].file, min(strlen(f), MCFILENAMELEN - 1));
malloced[i].file[MCFILENAMELEN - 1] = '\0';
}
if (malloccount > highwater)
highwater = malloccount;
splx(s);
}
return result;
}
static int
pmtimer_resume(device_t dev)
{
int pl;
u_int second, minute, hour;
struct timeval resume_time, tmp_time;
/* modified for adjkerntz */
pl = splsoftclock();
timer_restore(); /* restore the all timers */
inittodr(0); /* adjust time to RTC */
microtime(&resume_time);
getmicrotime(&tmp_time);
timevaladd(&tmp_time, &diff_time);
#ifdef FIXME
/* XXX THIS DOESN'T WORK!!! */
time = tmp_time;
#endif
#ifdef PMTIMER_FIXUP_CALLTODO
/* Calculate the delta time suspended */
timevalsub(&resume_time, &suspend_time);
/* Fixup the calltodo list with the delta time. */
adjust_timeout_calltodo(&resume_time);
#endif /* PMTIMER_FIXUP_CALLTODOK */
splx(pl);
#ifndef PMTIMER_FIXUP_CALLTODO
second = resume_time.tv_sec - suspend_time.tv_sec;
#else /* PMTIMER_FIXUP_CALLTODO */
/*
* We've already calculated resume_time to be the delta between
* the suspend and the resume.
*/
second = resume_time.tv_sec;
#endif /* PMTIMER_FIXUP_CALLTODO */
hour = second / 3600;
second %= 3600;
minute = second / 60;
second %= 60;
log(LOG_NOTICE, "wakeup from sleeping state (slept %02d:%02d:%02d)\n",
hour, minute, second);
return (0);
}
int
sys_fmaster_dup2(struct thread *td, struct fmaster_dup2_args *uap)
{
struct timeval time_start;
int error, from, to;
from = uap->from;
to = uap->to;
fmaster_log(td, LOG_DEBUG,
"%s: started: from=%u, to=%u",
sysname, from, to);
microtime(&time_start);
error = fmaster_dup2_main(td, from, to);
fmaster_log_syscall_end(td, sysname, &time_start, error);
return (error);
}
void
logrq(enum rqinfo_type type, union rqinfou info, struct buf *ubp)
{
int s = splhigh();
microtime(&rqip->timestamp); /* when did this happen? */
rqip->type = type;
rqip->bp = ubp; /* user buffer */
switch (type) {
case loginfo_user_bp:
case loginfo_user_bpl:
case loginfo_sdio: /* subdisk I/O */
case loginfo_sdiol: /* subdisk I/O launch */
case loginfo_sdiodone: /* subdisk I/O complete */
bcopy(info.bp, &rqip->info.b, sizeof(struct buf));
rqip->devmajor = major(info.bp->b_dev);
rqip->devminor = minor(info.bp->b_dev);
break;
case loginfo_iodone:
case loginfo_rqe:
case loginfo_raid5_data:
case loginfo_raid5_parity:
bcopy(info.rqe, &rqip->info.rqe, sizeof(struct rqelement));
rqip->devmajor = major(info.rqe->b.b_dev);
rqip->devminor = minor(info.rqe->b.b_dev);
break;
case loginfo_lockwait:
case loginfo_lock:
case loginfo_unlock:
bcopy(info.lockinfo, &rqip->info.lockinfo, sizeof(struct rangelock));
break;
case loginfo_unused:
break;
}
rqip++;
if (rqip >= &rqinfo[RQINFO_SIZE]) /* wrap around */
rqip = rqinfo;
splx(s);
}
static int
ngetdir_9p(node_9p *np)
{
dir_9p *dp;
struct timeval tv;
int e;
microtime(&tv);
if (np->dirtimer && tv.tv_sec-np->dirtimer < DIRTIMEOUT)
return 0;
if ((e=stat_9p(np->nmp, np->fid, &dp)))
return e;
bcopy(dp, &np->dir, sizeof(*dp));
np->dir.name = np->dir.uid = np->dir.gid = np->dir.muid = NULL;
free_9p(dp);
return 0;
}
/*
* called with DEVFS_LOCK held
*/
static int
devfs_update(struct vnode *vp, struct timeval *access, struct timeval *modify)
{
devnode_t * ip;
struct timeval now;
ip = VTODN(vp);
if (vp->v_mount->mnt_flag & MNT_RDONLY) {
ip->dn_access = 0;
ip->dn_change = 0;
ip->dn_update = 0;
return (0);
}
microtime(&now);
dn_times(ip, access, modify, &now);
return (0);
}
irqreturn_t via_driver_irq_handler(DRM_IRQ_ARGS)
{
struct drm_device *dev = (struct drm_device *) arg;
drm_via_private_t *dev_priv = (drm_via_private_t *) dev->dev_private;
u32 status;
int handled = 0;
struct timeval cur_vblank;
drm_via_irq_t *cur_irq = dev_priv->via_irqs;
int i;
status = VIA_READ(VIA_REG_INTERRUPT);
if (status & VIA_IRQ_VBLANK_PENDING) {
atomic_inc(&dev_priv->vbl_received);
if (!(atomic_read(&dev_priv->vbl_received) & 0x0F)) {
microtime(&cur_vblank);
if (dev_priv->last_vblank_valid) {
dev_priv->usec_per_vblank =
time_diff(&cur_vblank,
&dev_priv->last_vblank) >> 4;
}
void
adb_msa3_complete(void *buffer, void *data_area, int adb_command)
{
adb_event_t event;
ADBDataBlock adbdata;
int adbaddr;
int error;
#ifdef ADB_DEBUG
int i;
if (adb_debug)
printf("adb: transaction completion\n");
#endif
adbaddr = ADB_CMDADDR(adb_command);
error = GetADBInfo(&adbdata, adbaddr);
#ifdef ADB_DEBUG
if (adb_debug)
printf("adb: GetADBInfo returned %d\n", error);
#endif
event.addr = adbaddr;
event.hand_id = ADBMS_MSA3;
event.def_addr = (int)(adbdata.origADBAddr);
event.byte_count = buffer[0];
memcpy(event.bytes, buffer + 1, event.byte_count);
#ifdef ADB_DEBUG
if (adb_debug) {
printf("adb: from %d at %d (org %d) %d:",
event.addr, event.hand_id, event.def_addr, buffer[0]);
for (i = 1; i <= buffer[0]; i++)
printf(" %x", buffer[i]);
printf("\n");
}
#endif
microtime(&event.timestamp);
adb_processevent(&event);
}
static int
devfsspec_close(struct vnop_close_args *ap)
/* struct vnop_close_args {
struct vnode *a_vp;
int a_fflag;
vfs_context_t a_context;
} */
{
struct vnode * vp = ap->a_vp;
register devnode_t * dnp;
struct timeval now;
if (vnode_isinuse(vp, 1)) {
DEVFS_LOCK();
microtime(&now);
dnp = VTODN(vp);
dn_times(dnp, &now, &now, &now);
DEVFS_UNLOCK();
}
return (VOCALL (spec_vnodeop_p, VOFFSET(vnop_close), ap));
}
static void
activate(struct sbsh_softc *sc)
{
struct timeval tv;
sc->regs->SR = 0xff; /* clear it! */
sc->regs->CTDR = sc->regs->LTDR = sc->regs->CRDR = sc->regs->LRDR = 0;
sc->head_tdesc = sc->head_rdesc = 0;
alloc_rx_buffers(sc);
sc->regs->CRB &= ~RXDE;
sc->regs->IMR = EXT | RXS | TXS | CRC | OFL | UFL;
sc->regs->CR |= TXEN | RXEN;
sc->state = ACTIVE;
++sc->in_stats.attempts;
microtime(&tv);
sc->in_stats.last_time = tv.tv_sec;
start_xmit_frames(sc);
}
static int
sd_openlog(vfs_context_t ctx)
{
int error = 0;
struct timeval tv;
/* Open shutdown log */
if ((error = vnode_open(PROC_SHUTDOWN_LOG, (O_CREAT | FWRITE | O_NOFOLLOW), 0644, 0, &sd_logvp, ctx))) {
printf("Failed to open %s: error %d\n", PROC_SHUTDOWN_LOG, error);
sd_logvp = NULLVP;
return error;
}
vnode_setsize(sd_logvp, (off_t)0, 0, ctx);
/* Write a little header */
microtime(&tv);
sd_log(ctx, "Process shutdown log. Current time is %lu (in seconds).\n\n", tv.tv_sec);
return 0;
}