char * __mod_ssl_sni_common_handler (MyQttCtx * myqtt_ctx,
MyQttConn * conn,
const char * serverName,
axlPointer user_data,
const char * attr_name)
{
MyQttdCtx * ctx = user_data;
axlNode * node;
/* find certificate node by Name */
node = __mod_ssl_get_certificate_node_by_name (ctx, serverName);
if (! node) {
wrn ("No certificate was found for serverName=%s, requested by connecting ip=%s",
serverName, myqtt_conn_get_host_ip (conn));
return NULL; /* no node certificate was found, finish
* here */
} /* end if */
if (! HAS_ATTR (node, attr_name)) {
wrn ("No certificate was found for serverName=%s, requested by connecting ip=%s, node %s attribute was not defined",
serverName, myqtt_conn_get_host_ip (conn), attr_name);
return NULL; /* no crt attr was found, finish here */
} /* end if */
/* ok, now report certificate location */
if (__mod_ssl_debug)
msg ("Reporting certificate %s=%s for serverName=%s", attr_name, ATTR_VALUE (node, attr_name), serverName);
/* report certificate */
return axl_strdup (ATTR_VALUE (node, attr_name));
}
void
backTrack (void *v, int device, int mouseDown)
{
pWmj cW = (pWmj)v, pW = cW->prev;
/* WmjAct *Ap = (device == LEFTMOUSE ? cW->lefMouse : cW->midMouse); */
pDmj cD = &cW->D;
long bxA, byA, nxA, nyA, oxA,oyA, wx,ww,wy,wh;
long widA = winget();
if (! mouseDown) return;
getorigin(&wx,&wy);
getsize( &ww,&wh); ww -= 1; wh -= 1;
oxA = bxA = (getvaluator(MOUSEX) - wx);
oyA = byA = (getvaluator(MOUSEY) - wy);
cursoff();
drawmode(OVERDRAW);
while(getbutton(device)) {
nxA = getvaluator(MOUSEX) - wx; if (nxA < 0) nxA = 0; else if (nxA > ww) nxA = ww;
nyA = getvaluator(MOUSEY) - wy; if (nyA < 0) nyA = 0; else if (nyA > wh) nyA = wh;
if (nxA != oxA || nyA != oyA) {
/* winset(widA); */
color(BLACK); /* black erases */
sboxi(bxA,byA,oxA,oyA); /* NB: sbox is faster than rect, but less flex */
color(RED); /* set color of new circle */
sboxi(bxA,byA,nxA,nyA);
oxA = nxA, oyA = nyA;
}
}
color(BLACK);
sboxi(bxA,byA,oxA,oyA);
drawmode(NORMALDRAW);
cpack(FcGRN);
sboxi(bxA,byA,nxA,nyA);
if (pW) {
pDmj pD = &pW->D;
flt pzX = pW->zX, zX = pzX/cW->zX;
flt pzY = pW->zY, zY = pzY/cW->zY;
long L = cD->l*pzX, B = cD->b*pzY;
wrn("bT: id: %d pD->lb: %3d %3d zXY: %.1f %.1f", pW->id, pD->l, pD->b, zX, zY);
wrn("bT: id: %d cD->lb: %3d %3d czXY: %.1f %.1f", cW->id, cD->l, cD->b,cW->zX,cW->zY);
winset(pW->id);
drawmode(OVERDRAW);
color(YELLOW);
sboxi(L + bxA*zX, B + byA*zY, L + oxA*zX, B + oyA*zY);
drawmode(NORMALDRAW);
}
winset(widA);
curson();
}
/**
* @internal
* Function used to read content from the socket in the loop into the
* connection proxied.
*
* Read Write
* [ Loop socket ] --> [ Proxy connection ]
*/
axl_bool __myqttd_conn_proxy_reads_loop (MyQttdLoop * loop,
MyQttdCtx * ctx,
int descriptor,
axlPointer ptr,
axlPointer ptr2)
{
MyQttConn * conn = ptr;
char buffer[4096];
int bytes_read;
/* read content */
bytes_read = recv (descriptor, buffer, 4096, 0);
/* msg ("PROXY: reading from socket=%d (bytes read=%d, errno=%d)", descriptor, bytes_read, errno); */
/* send content */
if (bytes_read <= 0 ||
! myqtt_conn_is_ok (conn, axl_false) ||
! myqtt_msg_send_raw (conn, (unsigned char *) buffer, bytes_read)) {
/* close socket and unregister it and close associated conn */
wrn ("PROXY-fd: connection-id=%d is falling (wasn't able to send %d bytes, is zero?), closing associated socket=%d",
myqtt_conn_get_id (conn), bytes_read, descriptor);
/* check connection status to finish it */
if (myqtt_conn_is_ok (conn, axl_false))
myqtt_conn_shutdown (conn);
return axl_false;
} /* end if */
return axl_true; /* continue reading that socket */
}
void myqttd_conn_mgr_unref (axlPointer data)
{
/* get a reference to the state */
MyQttdConnMgrState * state = data;
MyQttdCtx * ctx = state->ctx;
/* check connection status */
if (state->conn) {
/* uninstall on close full handler to avoid race conditions */
myqtt_conn_remove_on_close (state->conn, myqttd_conn_mgr_on_close, ctx);
/* unref the connection */
msg ("Unregistering connection: %d (%p, socket: %d)",
myqtt_conn_get_id ((MyQttConn*) state->conn), state->conn, myqtt_conn_get_socket (state->conn));
myqtt_conn_unref ((MyQttConn*) state->conn, "myqttd-conn-mgr");
} /* end if */
/* nullify and free */
memset (state, 0, sizeof (MyQttdConnMgrState));
axl_free (state);
/* check if we have to initiate child process termination */
if (ctx->child && ctx->started) {
/* msg ("CHILD: Checking for process termination, current connections are: %d",
axl_hash_items (ctx->conn_mgr_hash)); */
if (axl_hash_items (ctx->conn_mgr_hash) == 0) {
wrn ("CHILD: Starting finishing process, current connections are: 0");
myqttd_process_check_for_finish (ctx);
}
} /* end if */
return;
}
void
sgiWritFB(ppf rgb[4], int dX, int dY, unt dW, unt dH, unt dD, char *path)
{
IMAGE *sgim;
int k,y,yI;
flt *sr, *sg, *sb ;
pus dr, dg, db, rr, gg, bb;
mallocAss(rr,ush,dW);
mallocAss(gg,ush,dW);
mallocAss(bb,ush,dW);
wrn("sgiWritFB dD: %u path: %s", dD,path);
if (dD < 3 || rgb[1] == NULL) {
sgiWritFlt(rgb[0],dX,dY,dW,dH,path);
return;
}
sgim = iopen(path,"w",RLE(1),3,dW,dH,3); /* WHAT'S the 1st 3? */
for (y = 0, yI = dH+dY; yI > dY ; y++) {
sr = &rgb[1][--yI][dX];
sg = &rgb[2][ yI][dX];
sb = &rgb[3][ yI][dX];
for (dr = rr, dg = gg, db = bb, k = dW; k; k--) {
*dr++ = 0.5F + *sr++;
*dg++ = 0.5F + *sg++;
*db++ = 0.5F + *sb++;
}
putrow(sgim,rr,y,0);
putrow(sgim,gg,y,1);
putrow(sgim,bb,y,2);
}
iclose(sgim); free(rr); free(gg); free(bb);
}
void
rubberRectZoid (void *v, int device, int mouseDown)
{
static WmjAct backAct;
pWmj cW = (pWmj)v;
WmjAct *Ap = (device == LEFTMOUSE ? cW->lefMouse : cW->midMouse);
/* Tetra *trp = Ap->data; */
flt zX = cW->zX, zY = cW->zY;
long bxA, byA, nxA, nyA, oxA,oyA, wx,ww,wy,wh;
long widA = winget();
if (! mouseDown) return;
getorigin(&wx,&wy);
getsize( &ww,&wh); ww -= 1; wh -= 1;
oxA = bxA = (getvaluator(MOUSEX) - wx);
oyA = byA = (getvaluator(MOUSEY) - wy);
cursoff();
drawmode(OVERDRAW);
while(getbutton(device)) {
nxA = getvaluator(MOUSEX) - wx; if (nxA < 0) nxA = 0; else if (nxA > ww) nxA = ww;
nyA = getvaluator(MOUSEY) - wy; if (nyA < 0) nyA = 0; else if (nyA > wh) nyA = wh;
if (nxA != oxA || nyA != oyA) {
winset(widA);
color(BLACK); /* black erases */
sboxi(bxA,byA,oxA,oyA);
color(RED); /* set color of new circle */
sboxi(bxA,byA,nxA,nyA);
oxA = nxA, oyA = nyA;
}
}
color(BLACK);
sboxi(bxA,byA,oxA,oyA);
drawmode(NORMALDRAW);
cpack(FcGRN);
sboxi(bxA,byA,nxA,nyA);
if (bxA > nxA) nxA = bxA, bxA = oxA;
if (byA > nyA) nyA = byA, byA = oyA;
wrn("rubberRectZ B4 showSub: %4d %4d %4d %4d zX:%.2f zY:%.2f",bxA,byA,nxA,nyA, zX, zY);
backAct = *Ap;
backAct.func = &testChain;
cW->next = showSub(cW, bxA/zX,byA/zY,nxA/zX,nyA/zY,"subA",zX*2.0,zY*2.0,5);
cW->next->lefMouse = &backAct;
cW->next->prev = cW;
winset(widA);
curson();
}
/**
* @internal Creates a object that will represents a child object and
* initialize internal data structures for its function.
*/
MyQttdChild * myqttd_child_new (MyQttdCtx * ctx)
{
MyQttdChild * result;
char * temp_dir;
struct timeval now;
result = axl_new (MyQttdChild, 1);
/* check allocation */
if (result == NULL)
return NULL;
/* get current time */
gettimeofday (&now, NULL);
/* create socket path: socket used to transfer file descriptors from parent to child */
result->socket_control_path = axl_strdup_printf ("%s%s%s%s%p%d%d.myqttd",
myqttd_runtime_datadir (ctx),
MYQTT_FILE_SEPARATOR,
"myqttd",
MYQTT_FILE_SEPARATOR,
result, now.tv_sec, now.tv_usec);
/* check result */
if (result->socket_control_path == NULL) {
axl_free (result);
return NULL;
} /* end if */
/* now check check base dir for socket control path exists */
temp_dir = myqttd_base_dir (result->socket_control_path);
if (temp_dir && ! myqtt_support_file_test (temp_dir, FILE_EXISTS)) {
/* base directory having child socket control do not exists */
wrn ("run time directory %s do not exists, creating..", temp_dir);
if (! myqttd_create_dir (temp_dir)) {
/* call to finish references */
myqttd_child_unref (result);
error ("Unable to create directory to hold child socket connection, unable to create child process..");
axl_free (temp_dir);
return NULL;
} /* end if */
} /* end if */
/* free temporal directory */
axl_free (temp_dir);
/* set context */
result->ctx = ctx;
/* set default reference counting */
result->ref_count = 1;
myqtt_mutex_create (&result->mutex);
return result;
}
static int initputvar() {
if (!isatty(STDERR_FILENO))
return 0;
if (putvarc)
free(putvarc);
if (!termsetup) {
int status;
if (! (termsetup = (setupterm(NULL, STDERR_FILENO, &status) == OK && status == 1))) {
wrn( "Terminal doesn't support color (setupterm errno %d).\n", status );
return 0;
}
}
putvarc=(char *)calloc(256, sizeof(char));
putvari=0;
return 1;
}
MyQttConn * __mod_ssl_start_listener (MyQttdCtx * ctx, MyQttCtx * my_ctx, axlNode * port_node,
const char * bind_addr, const char * port, axlPointer user_data)
{
MyQttConn * listener;
axlNode * node;
const char * crt, * key, * chain;
/* create listener on the port indicated */
listener = myqtt_tls_listener_new (
/* the context where the listener will
* be started */
my_ctx,
/* listener name */
bind_addr ? bind_addr : "0.0.0.0",
/* port to use */
port,
/* opts */
NULL,
/* on ready callbacks */
NULL, NULL);
/* configure default certificates from store */
node = __mod_ssl_get_default_certificate (ctx, my_ctx);
if (node) {
/* configure certificates */
crt = ATTR_VALUE (node, "crt");
key = ATTR_VALUE (node, "key");
chain = ATTR_VALUE (node, "chain");
msg ("mod-ssl: configuring default crt=%s, key=%s, chain=%s", crt, key, chain);
if (! myqtt_tls_set_certificate (listener, crt, key, chain)) {
error ("unable to configure certificates for TLS mqtt (myqtt_tls_set_certificate failed)..");
return NULL;
} /* end if */
} else {
wrn ("Unable to configure any certificate. No default certificate was found. __mod_ssl_get_default_certificate() reported NULL");
} /* end if */
return listener; /* basic configuration done */
}
/**
* @internal
* Function used to read content from the connection and write that
* content into the child socket.
*
* Read Write
* [ Proxied connection ] --> [ Child socket ]
*/
void __myqttd_conn_mgr_proxy_reads (MyQttCtx * myqtt_ctx, MyQttConn * listener, MyQttConn * conn, MyQttConnOpts * opts, axlPointer user_data)
{
char buffer[4096];
int bytes_read;
/* get socket associated */
int _socket = PTR_TO_INT (myqtt_conn_get_data (conn, "myqttd:proxy:fd"));
MyQttdCtx * ctx = user_data;
/* check connection status */
if (! myqtt_conn_is_ok (conn, axl_false))
return;
/* check status and close the other connection if found that */
bytes_read = myqtt_msg_receive_raw (conn, (unsigned char *) buffer, 4096);
/* msg ("PROXY-mqtt: Read %d bytes from conn-id=%d, sending them to child socket=%d (refs: %d, status: %d, errno=%d%s%s)",
bytes_read, myqtt_conn_get_id (conn), _socket,
myqtt_conn_ref_count (conn), myqtt_conn_is_ok (conn, axl_false), errno,
errno != 0 ? " : " : "",
errno != 0 ? strerror (errno) : ""); */
if (bytes_read > 0) {
/* send content */
if (send (_socket, buffer, bytes_read, 0) != bytes_read) {
wrn ("PROXY-mqtt: closing conn-id=%d because socket=%d isn't working",
myqtt_conn_get_id (conn), _socket);
/* remove preread handler and shutdown */
myqtt_conn_shutdown (conn);
return;
} /* end if */
/* buffer[bytes_read] = 0;
msg ("PROXY-mqtt: sent content (mqtt conn-id=%d -> socket=%d): %s", myqtt_conn_get_id (conn), _socket, buffer); */
} /* end if */
return;
}
/**
* @internal Places current process identifier into the file provided
* by the user.
*/
void valvulad_place_pidfile (ValvuladCtx * ctx)
{
FILE * pid_file = NULL;
int pid = getpid ();
char buffer[20];
int size;
axlNode * node;
int gid, uid;
/* check if pid file exists */
if (! exarg_is_defined ("skip-pid-check")) {
if (valvula_support_file_test (pid_file_path, FILE_EXISTS)) {
abort_error ("Unable to start server, found pid file in place %s. There is a valvula server running. If not, remove file %s",
pid_file_path, pid_file_path);
exit (-1);
return;
} /* end if */
} else {
wrn ("Skipping pid file checking..");
} /* end if */
/* open pid file or create it to place the pid file */
pid_file = fopen (pid_file_path, "w");
if (pid_file == NULL) {
abort_error ("Unable to open pid file at: %s", pid_file_path);
return;
} /* end if */
/* stringfy pid */
size = axl_stream_printf_buffer (buffer, 20, NULL, "%d", pid);
msg ("signaling PID %d at %s", pid, pid_file_path);
if (fwrite (buffer, size, 1, pid_file) <= 0) {
abort_error ("Unable to write pid file content at %s, error was: errno=%d : %s",
pid_file, errno, strerror (errno));
return;
}
fclose (pid_file);
pid_file = fopen (valvula_status, "w");
if (pid_file == NULL) {
abort_error ("Unable to open valvula status file at: %s (errno=%d)", valvula_status, errno);
return;
} /* end if */
fprintf (pid_file, "<valvula-state>\n");
fprintf (pid_file, " <attr name='valvula pid' value='%d' />\n", getpid ());
fprintf (pid_file, "</valvula-state>\n");
fclose (pid_file);
/* now change permissions (if required) */
node = axl_doc_get (ctx->config, "/valvula/global-settings/running");
if (node && ATTR_VALUE (node, "user") && ATTR_VALUE (node, "group") && HAS_ATTR_VALUE (node, "enabled", "yes")) {
/* change group first */
gid = valvulad_get_system_id (ctx, ATTR_VALUE (node, "group"), axl_false);
uid = valvulad_get_system_id (ctx, ATTR_VALUE (node, "user"), axl_true);
msg ("Attempting to update pid ownership to %d:%d", uid, gid);
if (gid > 0 && uid > 0) {
if (chown (valvula_status, uid, gid) != 0) {
error ("Unable to change permissions to file %s (%d:%d), error was errno=%d (%s)",
valvula_status, uid, gid, errno, strerror (errno));
} /* end if */
/**** do no change pid file ownership is a security problem ****/
} /* end if */
} /* end if */
return;
}
int
hoghdd (long long forks, int clean, long long files, long long bytes)
{
long long i, j;
int fd, pid, retval = 0;
int chunk = (1024 * 1024) - 1; /* Minimize slow writing. */
char buff[chunk];
/* Make local copies of global variables. */
int ignore = global_ignore;
int retry = global_retry;
int timeout = global_timeout;
long backoff = global_backoff * forks;
/* Initialize buffer with some random ASCII data. */
dbg (stdout, "seeding buffer with random data\n");
for (i = 0; i < chunk - 1; i++)
{
j = rand ();
j = (j < 0) ? -j : j;
j %= 95;
j += 32;
buff[i] = j;
}
buff[i] = '\n';
dbg (stdout, "using backoff sleep of %lius for hoghdd\n", backoff);
for (i = 0; forks == 0 || i < forks; i++)
{
switch (pid = fork ())
{
case 0: /* child */
alarm (timeout);
/* Use a backoff sleep to ensure we get good fork throughput. */
usleep (backoff);
while (1)
{
for (i = 0; i < files; i++)
{
char name[] = "./stress.XXXXXX";
if ((fd = mkstemp (name)) < 0)
{
perror ("mkstemp");
err (stderr, "mkstemp failed\n");
exit (1);
}
if (clean == 0)
{
dbg (stdout, "unlinking %s\n", name);
if (unlink (name))
{
err (stderr, "unlink failed\n");
exit (1);
}
}
dbg (stdout, "fast writing to %s\n", name);
for (j = 0; bytes == 0 || j + chunk < bytes; j += chunk)
{
if (write (fd, buff, chunk) != chunk)
{
err (stderr, "write failed\n");
exit (1);
}
}
dbg (stdout, "slow writing to %s\n", name);
for (; bytes == 0 || j < bytes - 1; j++)
{
if (write (fd, "Z", 1) != 1)
{
err (stderr, "write failed\n");
exit (1);
}
}
if (write (fd, "\n", 1) != 1)
{
err (stderr, "write failed\n");
exit (1);
}
++j;
dbg (stdout, "closing %s after writing %lli bytes\n", name,
j);
close (fd);
if (clean == 1)
{
if (unlink (name))
{
err (stderr, "unlink failed\n");
exit (1);
}
}
}
if (retval == 0)
{
dbg (stdout, "hoghdd worker starting over\n");
continue;
}
exit (retval);
}
/* This case never falls through; alarm signal can cause exit. */
case -1: /* error */
if (ignore)
{
++retval;
wrn (stderr, "hoghdd worker fork failed, continuing\n");
usleep (retry);
continue;
}
err (stderr, "hoghdd worker fork failed\n");
return 1;
default: /* parent */
dbg (stdout, "--> hoghdd worker forked (%i)\n", pid);
}
}
/* Wait for our children to exit. */
while (i)
{
int status, ret;
if ((pid = wait (&status)) > 0)
{
if ((WIFEXITED (status)) != 0)
{
if ((ret = WEXITSTATUS (status)) != 0)
{
err (stderr, "hoghdd worker %i exited %i\n", pid, ret);
retval += ret;
}
else
{
dbg (stdout, "<-- hoghdd worker exited (%i)\n", pid);
}
}
else
{
dbg (stdout, "<-- hoghdd worker signalled (%i)\n", pid);
}
--i;
}
else
{
dbg (stdout, "wait() returned error: %s\n", strerror (errno));
err (stderr, "detected missing hoghdd worker children\n");
++retval;
break;
}
}
return retval;
}
int
hogvm (long long forks, long long chunks, long long bytes)
{
long long i, j, k;
int pid, retval = 0;
char *ptr;
/* Make local copies of global variables. */
int ignore = global_ignore;
int retry = global_retry;
int timeout = global_timeout;
long backoff = global_backoff * forks;
dbg (stdout, "using backoff sleep of %lius for hogvm\n", backoff);
if (bytes == 0)
{
/* 512MB is guess at the largest value can than be malloced at once. */
bytes = 512 * 1024 * 1024;
}
for (i = 0; forks == 0 || i < forks; i++)
{
switch (pid = fork ())
{
case 0: /* child */
alarm (timeout);
/* Use a backoff sleep to ensure we get good fork throughput. */
usleep (backoff);
while (1)
{
for (j = 0; chunks == 0 || j < chunks; j++)
{
if ((ptr = (char *) malloc (bytes * sizeof (char))))
{
for (k = 0; k < bytes; k++)
ptr[k] = 'Z'; /* Ensure that COW happens. */
dbg (stdout, "hogvm worker malloced %lli bytes\n", k);
}
else if (ignore)
{
++retval;
wrn (stderr, "hogvm malloc failed, continuing\n");
usleep (retry);
continue;
}
else
{
++retval;
err (stderr, "hogvm malloc failed\n");
break;
}
}
if (global_vmhang && retval == 0)
{
dbg (stdout, "sleeping forever with allocated memory\n");
while (1)
sleep (1024);
}
if (retval == 0)
{
dbg (stdout,
"hogvm worker freeing memory and starting over\n");
free (ptr);
continue;
}
exit (retval);
}
/* This case never falls through; alarm signal can cause exit. */
case -1: /* error */
if (ignore)
{
++retval;
wrn (stderr, "hogvm worker fork failed, continuing\n");
usleep (retry);
continue;
}
err (stderr, "hogvm worker fork failed\n");
return 1;
default: /* parent */
dbg (stdout, "--> hogvm worker forked (%i)\n", pid);
}
}
/* Wait for our children to exit. */
while (i)
{
int status, ret;
if ((pid = wait (&status)) > 0)
{
if ((WIFEXITED (status)) != 0)
{
if ((ret = WEXITSTATUS (status)) != 0)
{
err (stderr, "hogvm worker %i exited %i\n", pid, ret);
retval += ret;
}
else
{
dbg (stdout, "<-- hogvm worker exited (%i)\n", pid);
}
}
else
{
dbg (stdout, "<-- hogvm worker signalled (%i)\n", pid);
}
--i;
}
else
{
dbg (stdout, "wait() returned error: %s\n", strerror (errno));
err (stderr, "detected missing hogvm worker children\n");
++retval;
break;
}
}
return retval;
}
int
hogio (long long forks)
{
long long i;
int pid, retval = 0;
/* Make local copies of global variables. */
int ignore = global_ignore;
int retry = global_retry;
int timeout = global_timeout;
long backoff = global_backoff * forks;
dbg (stdout, "using backoff sleep of %lius for hogio\n", backoff);
for (i = 0; forks == 0 || i < forks; i++)
{
switch (pid = fork ())
{
case 0: /* child */
alarm (timeout);
/* Use a backoff sleep to ensure we get good fork throughput. */
usleep (backoff);
while (1)
sync ();
/* This case never falls through; alarm signal can cause exit. */
case -1: /* error */
if (ignore)
{
++retval;
wrn (stderr, "hogio worker fork failed, continuing\n");
usleep (retry);
continue;
}
err (stderr, "hogio worker fork failed\n");
return 1;
default: /* parent */
dbg (stdout, "--> hogio worker forked (%i)\n", pid);
}
}
/* Wait for our children to exit. */
while (i)
{
int status, ret;
if ((pid = wait (&status)) > 0)
{
if ((WIFEXITED (status)) != 0)
{
if ((ret = WEXITSTATUS (status)) != 0)
{
err (stderr, "hogio worker %i exited %i\n", pid, ret);
retval += ret;
}
else
{
dbg (stdout, "<-- hogio worker exited (%i)\n", pid);
}
}
else
{
dbg (stdout, "<-- hogio worker signalled (%i)\n", pid);
}
--i;
}
else
{
dbg (stdout, "wait() returned error: %s\n", strerror (errno));
err (stderr, "detected missing hogio worker children\n");
++retval;
break;
}
}
return retval;
}
int
main (int argc, char **argv)
{
int i, pid, children = 0, retval = 0;
long starttime, stoptime, runtime, forks;
/* Variables that indicate which options have been selected. */
int do_dryrun = 0;
long long do_backoff = 3000;
long long do_timeout = 0;
long long do_cpu = 0;
long long do_io = 0;
long long do_vm = 0;
long long do_vm_bytes = 256 * 1024 * 1024;
long long do_vm_stride = 4096;
long long do_vm_hang = -1;
int do_vm_keep = 0;
long long do_hdd = 0;
int do_hdd_clean = 2;
long long do_hdd_bytes = 1024 * 1024 * 1024;
/* Record our start time. */
if ((starttime = time (NULL)) == -1)
{
err (stderr, "failed to acquire current time: %s\n", strerror (errno));
exit (1);
}
/* SuSv3 does not define any error conditions for this function. */
global_progname = basename (argv[0]);
/* For portability, parse command line options without getopt_long. */
for (i = 1; i < argc; i++)
{
char *arg = argv[i];
if (strcmp (arg, "--help") == 0 || strcmp (arg, "-?") == 0)
{
usage (0);
}
else if (strcmp (arg, "--version") == 0)
{
version (0);
}
else if (strcmp (arg, "--verbose") == 0 || strcmp (arg, "-v") == 0)
{
global_debug = 3;
}
else if (strcmp (arg, "--quiet") == 0 || strcmp (arg, "-q") == 0)
{
global_debug = 0;
}
else if (strcmp (arg, "--dry-run") == 0 || strcmp (arg, "-n") == 0)
{
do_dryrun = 1;
}
else if (strcmp (arg, "--backoff") == 0)
{
assert_arg ("--backoff");
if (sscanf (arg, "%lli", &do_backoff) != 1)
{
err (stderr, "invalid number: %s\n", arg);
exit (1);
}
if (do_backoff < 0)
{
err (stderr, "invalid backoff factor: %lli\n", do_backoff);
exit (1);
}
dbg (stdout, "setting backoff coeffient to %llius\n", do_backoff);
}
else if (strcmp (arg, "--timeout") == 0 || strcmp (arg, "-t") == 0)
{
assert_arg ("--timeout");
do_timeout = atoll_s (arg);
if (do_timeout <= 0)
{
err (stderr, "invalid timeout value: %llis\n", do_timeout);
exit (1);
}
}
else if (strcmp (arg, "--cpu") == 0 || strcmp (arg, "-c") == 0)
{
assert_arg ("--cpu");
do_cpu = atoll_b (arg);
if (do_cpu <= 0)
{
err (stderr, "invalid number of cpu hogs: %lli\n", do_cpu);
exit (1);
}
}
else if (strcmp (arg, "--io") == 0 || strcmp (arg, "-i") == 0)
{
assert_arg ("--io");
do_io = atoll_b (arg);
if (do_io <= 0)
{
err (stderr, "invalid number of io hogs: %lli\n", do_io);
exit (1);
}
}
else if (strcmp (arg, "--vm") == 0 || strcmp (arg, "-m") == 0)
{
assert_arg ("--vm");
do_vm = atoll_b (arg);
if (do_vm <= 0)
{
err (stderr, "invalid number of vm hogs: %lli\n", do_vm);
exit (1);
}
}
else if (strcmp (arg, "--vm-bytes") == 0)
{
assert_arg ("--vm-bytes");
do_vm_bytes = atoll_b (arg);
if (do_vm_bytes <= 0)
{
err (stderr, "invalid vm byte value: %lli\n", do_vm_bytes);
exit (1);
}
}
else if (strcmp (arg, "--vm-stride") == 0)
{
assert_arg ("--vm-stride");
do_vm_stride = atoll_b (arg);
if (do_vm_stride <= 0)
{
err (stderr, "invalid stride value: %lli\n", do_vm_stride);
exit (1);
}
}
else if (strcmp (arg, "--vm-hang") == 0)
{
assert_arg ("--vm-hang");
do_vm_hang = atoll_b (arg);
if (do_vm_hang < 0)
{
err (stderr, "invalid value: %lli\n", do_vm_hang);
exit (1);
}
}
else if (strcmp (arg, "--vm-keep") == 0)
{
do_vm_keep = 1;
}
else if (strcmp (arg, "--hdd") == 0 || strcmp (arg, "-d") == 0)
{
assert_arg ("--hdd");
do_hdd = atoll_b (arg);
if (do_hdd <= 0)
{
err (stderr, "invalid number of hdd hogs: %lli\n", do_hdd);
exit (1);
}
}
else if (strcmp (arg, "--hdd-noclean") == 0)
{
do_hdd_clean = 0;
}
else if (strcmp (arg, "--hdd-bytes") == 0)
{
assert_arg ("--hdd-bytes");
do_hdd_bytes = atoll_b (arg);
if (do_hdd_bytes <= 0)
{
err (stderr, "invalid hdd byte value: %lli\n", do_hdd_bytes);
exit (1);
}
}
else
{
err (stderr, "unrecognized option: %s\n", arg);
exit (1);
}
}
/* Print startup message if we have work to do, bail otherwise. */
if (do_cpu + do_io + do_vm + do_hdd)
{
out (stdout, "dispatching hogs: %lli cpu, %lli io, %lli vm, %lli hdd\n",
do_cpu, do_io, do_vm, do_hdd);
}
else
usage (0);
/* Round robin dispatch our worker processes. */
while ((forks = (do_cpu + do_io + do_vm + do_hdd)))
{
long long backoff, timeout = 0;
/* Calculate the backoff value so we get good fork throughput. */
backoff = do_backoff * forks;
dbg (stdout, "using backoff sleep of %llius\n", backoff);
/* If we are supposed to respect a timeout, calculate it. */
if (do_timeout)
{
long long currenttime;
/* Acquire current time. */
if ((currenttime = time (NULL)) == -1)
{
perror ("error acquiring current time");
exit (1);
}
/* Calculate timeout based on current time. */
timeout = do_timeout - (currenttime - starttime);
if (timeout > 0)
{
dbg (stdout, "setting timeout to %llis\n", timeout);
}
else
{
wrn (stderr, "used up time before all workers dispatched\n");
break;
}
}
if (do_cpu)
{
switch (pid = fork ())
{
case 0: /* child */
alarm (timeout);
usleep (backoff);
if (do_dryrun)
exit (0);
exit (hogcpu ());
case -1: /* error */
err (stderr, "fork failed: %s\n", strerror (errno));
break;
default: /* parent */
dbg (stdout, "--> hogcpu worker %lli [%i] forked\n",
do_cpu, pid);
++children;
}
--do_cpu;
}
if (do_io)
{
switch (pid = fork ())
{
case 0: /* child */
alarm (timeout);
usleep (backoff);
if (do_dryrun)
exit (0);
exit (hogio ());
case -1: /* error */
err (stderr, "fork failed: %s\n", strerror (errno));
break;
default: /* parent */
dbg (stdout, "--> hogio worker %lli [%i] forked\n", do_io, pid);
++children;
}
--do_io;
}
if (do_vm)
{
switch (pid = fork ())
{
case 0: /* child */
alarm (timeout);
usleep (backoff);
if (do_dryrun)
exit (0);
exit (hogvm
(do_vm_bytes, do_vm_stride, do_vm_hang, do_vm_keep));
case -1: /* error */
err (stderr, "fork failed: %s\n", strerror (errno));
break;
default: /* parent */
dbg (stdout, "--> hogvm worker %lli [%i] forked\n", do_vm, pid);
++children;
}
--do_vm;
}
if (do_hdd)
{
switch (pid = fork ())
{
case 0: /* child */
alarm (timeout);
usleep (backoff);
if (do_dryrun)
exit (0);
exit (hoghdd (do_hdd_bytes, do_hdd_clean));
case -1: /* error */
err (stderr, "fork failed: %s\n", strerror (errno));
break;
default: /* parent */
dbg (stdout, "--> hoghdd worker %lli [%i] forked\n",
do_hdd, pid);
++children;
}
--do_hdd;
}
}
/* Wait for our children to exit. */
while (children)
{
int status, ret;
if ((pid = wait (&status)) > 0)
{
--children;
if (WIFEXITED (status))
{
if ((ret = WEXITSTATUS (status)) == 0)
{
dbg (stdout, "<-- worker %i returned normally\n", pid);
}
else
{
err (stderr, "<-- worker %i returned error %i\n", pid, ret);
++retval;
wrn (stderr, "now reaping child worker processes\n");
if (signal (SIGUSR1, SIG_IGN) == SIG_ERR)
err (stderr, "handler error: %s\n", strerror (errno));
if (kill (-1 * getpid (), SIGUSR1) == -1)
err (stderr, "kill error: %s\n", strerror (errno));
}
}
else if (WIFSIGNALED (status))
{
if ((ret = WTERMSIG (status)) == SIGALRM)
{
dbg (stdout, "<-- worker %i signalled normally\n", pid);
}
else if ((ret = WTERMSIG (status)) == SIGUSR1)
{
dbg (stdout, "<-- worker %i reaped\n", pid);
}
else
{
err (stderr, "<-- worker %i got signal %i\n", pid, ret);
++retval;
wrn (stderr, "now reaping child worker processes\n");
if (signal (SIGUSR1, SIG_IGN) == SIG_ERR)
err (stderr, "handler error: %s\n", strerror (errno));
if (kill (-1 * getpid (), SIGUSR1) == -1)
err (stderr, "kill error: %s\n", strerror (errno));
}
}
else
{
err (stderr, "<-- worker %i exited abnormally\n", pid);
++retval;
}
}
else
{
err (stderr, "error waiting for worker: %s\n", strerror (errno));
++retval;
break;
}
}
/* Record our stop time. */
if ((stoptime = time (NULL)) == -1)
{
err (stderr, "failed to acquire current time\n");
exit (1);
}
/* Calculate our runtime. */
runtime = stoptime - starttime;
/* Print final status message. */
if (retval)
{
err (stderr, "failed run completed in %lis\n", runtime);
}
else
{
out (stdout, "successful run completed in %lis\n", runtime);
}
exit (retval);
}
ValvulaState bwl_check_status_rules (ValvulaCtx * _ctx,
ValvulaRequest * request,
ValvulaModBwlLevel level,
const char * level_label,
char ** message,
ValvuladRes result,
axl_bool first_specific)
{
ValvuladRow row;
const char * status;
const char * source;
const char * destination;
/* reset cursor */
valvulad_db_first_row (ctx, result);
/* get row and then status */
row = GET_ROW (result);
while (row) {
/* get status */
status = GET_CELL (row, 0);
source = GET_CELL (row, 1);
destination = GET_CELL (row, 2);
/* skip general rules first, look for specific rules where all attributes are defined */
if (first_specific && (!source || strlen (source) == 0 || !destination || strlen (destination) == 0)) {
/* get next row */
row = GET_ROW (result);
continue;
} /* end if */
/* ensure source matches */
if (! valvula_address_rule_match (ctx->ctx, source, request->sender)) {
if (__mod_bwl_enable_debug)
wrn ("BWL: rule does not match(1) status=%s, source=%s, destination=%s", status, source, destination);
/* get next row */
row = GET_ROW (result);
continue;
} /* end if */
if (! valvula_address_rule_match (ctx->ctx, destination, request->recipient)) {
if (__mod_bwl_enable_debug)
wrn ("BWL: rule does not match(2) status=%s, source=%s, destination=%s", status, source, destination);
/* get next row */
row = GET_ROW (result);
continue;
} /* end if */
/* msg ("BWL: checking status=%s, source=%s, destination=%s", status, source, destination);
msg ("BWL: with request source=%s, destination=%s", request->sender, request->recipient); */
/* now check values */
if (axl_stream_casecmp (status, "ok", 2)) {
/* accept it if the sender or reception domain is local */
if (valvulad_run_is_local_delivery (ctx, request)) {
/* so, reached this point we have that
* the rule (whitelist) was added and
* it matches with a local delivery */
return VALVULA_STATE_OK;
} else {
if (__mod_bwl_enable_debug)
wrn ("Skipping rule because it is not a local delivery..");
} /* end if */
}
if (axl_stream_casecmp (status, "reject", 6)) {
valvulad_reject (ctx, VALVULA_STATE_REJECT, request, "Rejecting due to blacklist (%s)", level_label);
return VALVULA_STATE_REJECT;
} /* end if */
if (axl_stream_casecmp (status, "discard", 7)) {
valvulad_reject (ctx, VALVULA_STATE_DISCARD, request, "Discard due to blacklist (%s)", level_label);
return VALVULA_STATE_DISCARD;
} /* end if */
if (axl_stream_casecmp (status, "filter-discard", 14)) {
/* do a discard but instaed or returning DISCARD, use a filter to the transport discard: */
(*message) = axl_strdup ("discard:");
valvulad_reject (ctx, VALVULA_STATE_FILTER, request, "Discard (using filter-discard) due to blacklist (%s)", level_label);
return VALVULA_STATE_FILTER;
} /* end if */
/* get next row */
row = GET_ROW (result);
} /* end while */
/* report dunno state */
return VALVULA_STATE_DUNNO;
}