extern "C" void
badReceiver(void *arg)
{
epicsMessageQueue *q = (epicsMessageQueue *)arg;
char cbuf[80];
int len;
cbuf[0] = '\0';
len = q->receive(cbuf, 1);
if (len < 0 && cbuf[0] == '\0')
testPass("receive into undersized buffer returned error (%d)", len);
else if (len == 1 && cbuf[0] == *msg1)
testPass("receive into undersized buffer truncated message");
else
testFail("receive into undersized buffer returned %d", len);
epicsThreadSleep(3.0);
cbuf[0] = '\0';
len = q->receive(cbuf, 1);
if (len < 0 && cbuf[0] == '\0')
testPass("receive into undersized buffer returned error (%d)", len);
else if (len == 1 && cbuf[0] == *msg1)
testPass("receive into undersized buffer truncated message");
else
testFail("receive into undersized buffer returned %d", len);
}
bool xpathplugin_xbn_and::testUnit()
{
return testPass("true() and true()" , 1, xbnode::xbn_temp, "true")
& testPass("true() and false()" , 1, xbnode::xbn_temp, "false")
& testPass("false() and true()" , 1, xbnode::xbn_temp, "false")
& testPass("false() and false()" , 1, xbnode::xbn_temp, "false");
}
bool xpathplugin_xbn_or::testUnit()
{
return testPass("true() or true()" , 1, xbnode::xbn_temp, "true")
| testPass("true() or false()" , 1, xbnode::xbn_temp, "true")
| testPass("false() or true()" , 1, xbnode::xbn_temp, "true")
| testPass("false() or false()" , 1, xbnode::xbn_temp, "false");
}
bool xpathplugin_round::testUnit()
{
return testPass( "round(1)", 1, xbnode::xbn_temp, "1" )
&testPass( "round(1.5)", 1, xbnode::xbn_temp, "2" )
&testPass( "round(1.4)", 1, xbnode::xbn_temp, "1" )
&testPass( "round(-1.5)", 1, xbnode::xbn_temp, "-2" )
&testPass( "round(-1.4)", 1, xbnode::xbn_temp, "-1" );
}
/* Action function for state "get" in state set "read_named" */
static void seqg_action_read_named_0_get(SS_ID seqg_env, int seqg_trn, int *seqg_pnst)
{
switch(seqg_trn)
{
case 0:
{
# line 37 "../pvGet.st"
seq_efSet(seqg_env, ef_read_named);
}
return;
case 1:
{
# line 40 "../pvGet.st"
epicsMutexMustLock(mutex);
# line 41 "../pvGet.st"
seqg_var->seqg_vars_read_named.expected = shared;
# line 42 "../pvGet.st"
seq_pvGetTmo(seqg_env, 1/*named*/, ASYNC, DEFAULT_TIMEOUT);
# line 43 "../pvGet.st"
epicsMutexUnlock(mutex);
# line 44 "../pvGet.st"
if (seq_pvGetComplete(seqg_env, 1/*named*/))
{
# line 46 "../pvGet.st"
testOk(seqg_var->seqg_vars_read_named.expected == seqg_var->seqg_vars_read_named.named, "immediate completion: expected=%d==%d=named", seqg_var->seqg_vars_read_named.expected, seqg_var->seqg_vars_read_named.named);
}
else
{
# line 48 "../pvGet.st"
testPass("no immediate completion");
}
# line 50 "../pvGet.st"
epicsThreadSleep(0.1);
# line 51 "../pvGet.st"
if (seq_pvGetComplete(seqg_env, 1/*named*/))
{
# line 53 "../pvGet.st"
testOk(seqg_var->seqg_vars_read_named.expected == seqg_var->seqg_vars_read_named.named, "completion after delay: expected=%d==%d=named", seqg_var->seqg_vars_read_named.expected, seqg_var->seqg_vars_read_named.named);
}
else
{
# line 55 "../pvGet.st"
testPass("no completion after delay");
}
}
return;
}
}
/* Action function for state "get" in state set "read_anon" */
static void seqg_action_read_anon_1_get(SS_ID seqg_env, int seqg_trn, int *seqg_pnst)
{
switch(seqg_trn)
{
case 0:
{
# line 77 "../pvGet.st"
seq_efSet(seqg_env, ef_read_anon);
}
return;
case 1:
{
# line 80 "../pvGet.st"
epicsMutexMustLock(mutex);
# line 81 "../pvGet.st"
seqg_var->seqg_vars_read_anon.expected = shared;
# line 82 "../pvGet.st"
seq_pvGetTmo(seqg_env, 0/*anon*/, ASYNC, DEFAULT_TIMEOUT);
# line 83 "../pvGet.st"
epicsMutexUnlock(mutex);
# line 84 "../pvGet.st"
if (seq_pvGetComplete(seqg_env, 0/*anon*/))
{
# line 86 "../pvGet.st"
testOk(seqg_var->seqg_vars_read_anon.expected == seqg_var->anon, "immediate completion: expected=%d==%d=anon", seqg_var->seqg_vars_read_anon.expected, seqg_var->anon);
}
else
{
# line 88 "../pvGet.st"
testPass("no immediate completion");
}
# line 90 "../pvGet.st"
epicsThreadSleep(0.1);
# line 91 "../pvGet.st"
if (seq_pvGetComplete(seqg_env, 0/*anon*/))
{
# line 93 "../pvGet.st"
testOk(seqg_var->seqg_vars_read_anon.expected == seqg_var->anon, "completion after delay: expected=%d==%d=anon", seqg_var->seqg_vars_read_anon.expected, seqg_var->anon);
}
else
{
# line 95 "../pvGet.st"
testPass("no completion after delay");
}
}
return;
}
}
/* Entry function for state "check_msg" in state set "check" */
static void seqg_entry_check_1_check_msg(SS_ID seqg_env)
{
# line 103 "../opttVar.st"
seqg_var->seqg_vars_check.xp = seqg_var->seqg_vars_check.expected;
# line 104 "../opttVar.st"
testPass("start 1st round...");
}
/**
* Test for ethernet loopback (ethloop) driver packet acceptance.
*/
thread test_ethloop(bool verbose)
{
#if NETHLOOP
/* the failif macro depends on 'passed' and 'verbose' vars */
bool passed = TRUE;
int i;
for (i = 0; i < NETHLOOP; i++)
{
passed &= ethloopn_test(verbose, i + ELOOP);
}
/* always print out the overall tests status */
if (passed)
{
testPass(TRUE, "");
}
else
{
testFail(TRUE, "");
}
#else /* NETHLOOP */
testSkip(TRUE, "");
#endif /* !NETHLOOP */
return OK;
}
/* Action function for state "check_msg" in state set "check" */
static void seqg_action_check_1_check_msg(SS_ID seqg_env, int seqg_trn, int *seqg_pnst)
{
switch(seqg_trn)
{
case 0:
{
# line 107 "../opttVar.st"
seqg_var->seqg_vars_check.xp = seqg_var->seqg_vars_check.expected;
# line 108 "../opttVar.st"
testPass("one more time...");
# line 109 "../opttVar.st"
seqg_var->seqg_vars_check.repeat = 0;
}
return;
case 1:
{
}
return;
case 2:
{
# line 114 "../opttVar.st"
testOk(strcmp(*seqg_var->seqg_vars_check.xp, seqg_var->msg) == 0, "msg=%s", seqg_var->msg);
# line 115 "../opttVar.st"
seqg_var->seqg_vars_check.xp++;
}
return;
}
}
void catchWrongTypeTestsInitialPass(ParamVal *param, const char* fcnName, ParamValWrongType *e ){
testPass("Should not be able to %s on %s\n %s",
fcnName, param->getTypeName(), e->what());
testOk(!param->isDefined(), "%s value should be undefined after initial %s",
param->getName(), fcnName);
testOk(!param->hasValueChanged(), "%s value should report value "
"not changed after initial %s", param->getName(), fcnName);
}
void assertTest(void *given, void *expected, char info[])
{
if (given == expected)
{
testPass(info);
}
else
{
testFail(info, given, expected);
}
}
/* Action function for state "done" in state set "reassign" */
static void A_reassign_0_done(SS_ID ssId, struct UserVar *pVar, int transNum, int *pNextState)
{
switch(transNum)
{
case 0:
{
# line 90 "../reassign.st"
testPass("ok");
}
return;
}
}
static
void toolate(void *arg, epicsJobMode mode)
{
epicsJob *job=arg;
if(mode==epicsJobModeCleanup){
epicsJobDestroy(job);
return;
}
testPass("Job runs");
numtoolate++;
epicsEventSignal(cancel[0]);
epicsEventMustWait(cancel[1]);
}
/* Action function for state "get_async" in state set "pvGetAsync" */
static void A_pvGetAsync_0_get_async(SS_ID ssId, struct UserVar *pVar, int transNum, int *pNextState)
{
switch(transNum)
{
case 0:
{
# line 30 "../pvGetAsync.st"
testPass("pvGet completed %d times", 100000);
}
return;
case 1:
{
}
return;
}
}
/* Action function for state "check_not_set" in state set "myss" */
static void seqg_action_myss_0_check_not_set(SS_ID seqg_env, int seqg_trn, int *seqg_pnst)
{
switch(seqg_trn)
{
case 0:
{
# line 29 "../userfuncEf.st"
testFail("argh, no timeout!");
}
return;
case 1:
{
# line 32 "../userfuncEf.st"
testPass("cool, we came here");
}
return;
}
}
/*------------------------------------------------------------------------
* main -- user main program
*------------------------------------------------------------------------
*/
int test_bigargs(int argc, char **argv)
{
uchar testArray[20];
printf("Test Suite: More than four arguments");
ready(create((void *)bigargs, INITSTK, 31, "BIGARGS",
7, 10, 20, 30, 40, 50, 60, testArray), RESCHED_YES);
if ((10 == testArray[0])
&& (20 == testArray[1])
&& (30 == testArray[2])
&& (40 == testArray[3])
&& (50 == testArray[4])
&& (60 == testArray[5])
&& (210 == testArray[6]))
{ testPass(""); }
else
{ testFail(""); }
return OK;
}
/* Action function for state "makeRequest" in state set "monitorEvflagTest" */
static void A_monitorEvflagTest_0_makeRequest(SS_ID ssId, struct UserVar *pVar, int transNum, int *pNextState)
{
switch(transNum)
{
case 0:
{
}
return;
case 1:
{
# line 38 "../monitorEvflag.st"
testPass("no error in %d cycles", (20 * 500));
}
return;
case 2:
{
# line 41 "../monitorEvflag.st"
pVar->requested = pVar->UserVar_monitorEvflagTest.cycleCount;
# line 42 "../monitorEvflag.st"
seq_pvPut(ssId, 0/*requested*/, 0);
}
return;
}
}
/* Action function for state "makeRequest" in state set "monitorEvflagTest" */
static void seqg_action_monitorEvflagTest_0_makeRequest(SS_ID seqg_env, int seqg_trn, int *seqg_pnst)
{
switch(seqg_trn)
{
case 0:
{
}
return;
case 1:
{
# line 38 "../monitorEvflag.st"
testPass("no error in %d cycles", (20 * 500));
}
return;
case 2:
{
# line 41 "../monitorEvflag.st"
seqg_var->requested = seqg_var->seqg_vars_monitorEvflagTest.cycleCount;
# line 42 "../monitorEvflag.st"
seq_pvPutTmo(seqg_env, 0/*requested*/, DEFAULT, DEFAULT_TIMEOUT);
}
return;
}
}
/**
* Tests the stdlib.h header in the Xinu Standard Library.
* @return OK when testing is complete
*/
thread test_libStdlib(bool verbose)
{
int i;
char list[10] = "BCADFEHGI";
bool passed = TRUE;
/* atoi */
testPrint(verbose, "ASCII to integer");
failif((-456 != atoi("-456"))
|| (123 != atoi("+123"))
|| (2147483647 != atoi("2147483647"))
|| (-1 != atoi("-1one"))
|| (2 != atoi("+2two"))
|| (3 != atoi("3three"))
|| (0 != atoi("-on1e"))
|| (0 != atoi("+tw2o")) || (0 != atoi("thre3e")), "");
/* atol */
testPrint(verbose, "ASCII to long");
failif((-456 != atol("-456"))
|| (123 != atol("+123"))
|| (2147483647 != atol("2147483647"))
|| (-1 != atol("-1one"))
|| (2 != atol("+2two"))
|| (3 != atol("3three"))
|| (0 != atol("-one"))
|| (0 != atol("+two")) || (0 != atol("three")), "");
/* qsort */
testPrint(verbose, "Quick sort");
qsort(list, sizeof(list) - 1, 1, (void *)qsort_callback);
failif((0 != strncmp(list, "ABCDEFGHI", sizeof(list))), "");
/* bzero */
testPrint(verbose, "bzero");
bzero(list, sizeof(list));
for (i = 0; i < sizeof(list); i++)
{
if ('\0' != *(list + i))
{
testFail(verbose, "");
passed = FALSE;
break;
}
}
if (i == sizeof(list))
{
testPass(verbose, "");
}
/* abs */
testPrint(verbose, "Absolute value");
failif((2147483647 != abs(-2147483647))
|| (123 != abs(123)) || (0 != abs(0)), "");
/* labs */
testPrint(verbose, "Long absolute value");
failif((2147483647 != labs(-2147483647))
|| (123 != labs(123)) || (0 != labs(0)), "");
/* rand */
testPrint(verbose, "Random number generation");
failif((rand() == rand())
&& (rand() == rand())
&& (rand() == rand())
&& (rand() == rand()), "that was unlikely");
/* malloc (in test_umemory.c) */
if (passed)
{
testPass(TRUE, "");
}
else
{
testFail(TRUE, "");
}
return OK;
}
/**
* Tests UDP
* @return OK when testing is complete
*/
thread test_udp(bool verbose)
{
#ifdef UDP1
struct udp *udpptr = NULL;
ushort pta;
ushort ptb;
struct netaddr ipc;
struct netaddr ipd;
struct netaddr ipl;
struct netaddr src;
struct netaddr dst;
struct netaddr mask;
struct netaddr ipzero;
struct packet *pkt[10];
struct udpPkt *udppkt;
struct udpPseudoHdr *pseudo;
uchar buffera[12];
uchar bufferb[12];
uchar bufferc[12];
uchar bufferd[12];
uchar bufferp[40];
bool passed = TRUE;
/* struct pcap_pkthdr phdr;
struct netif *netptr;
int nproc;
int i;
int wait;
struct packet *pktA;
uchar buf[100];
uchar *data;
uchar *buffer;
*/
pta = 20000;
ptb = 30000;
/* IP address "C" */
ipc.type = NETADDR_IPv4;
ipc.len = IPv4_ADDR_LEN;
ipc.addr[0] = 192;
ipc.addr[1] = 168;
ipc.addr[2] = 1;
ipc.addr[3] = 5;
/* IP address "D" */
ipd.type = NETADDR_IPv4;
ipd.len = IPv4_ADDR_LEN;
ipd.addr[0] = 192;
ipd.addr[1] = 168;
ipd.addr[2] = 1;
ipd.addr[3] = 7;
/* "Local" IP address */
ipl.type = NETADDR_IPv4;
ipl.len = IPv4_ADDR_LEN;
ipl.addr[0] = 192;
ipl.addr[1] = 168;
ipl.addr[2] = 1;
ipl.addr[3] = 8;
/* Source IP address */
src.type = NETADDR_IPv4;
src.len = IPv4_ADDR_LEN;
src.addr[0] = 192;
src.addr[1] = 168;
src.addr[2] = 1;
src.addr[3] = 6;
/* Destination IP address */
dst.type = NETADDR_IPv4;
dst.len = IPv4_ADDR_LEN;
dst.addr[0] = 192;
dst.addr[1] = 168;
dst.addr[2] = 1;
dst.addr[3] = 1;
/* Mask */
mask.type = NETADDR_IPv4;
mask.len = IPv4_ADDR_LEN;
mask.addr[0] = 255;
mask.addr[1] = 255;
mask.addr[2] = 255;
mask.addr[3] = 0;
/* Empty address */
ipzero.type = 0;
ipzero.len = 0;
ipzero.addr[0] = 0;
ipzero.addr[1] = 0;
ipzero.addr[2] = 0;
ipzero.addr[3] = 0;
ipzero.addr[4] = 0;
ipzero.addr[5] = 0;
/* Test udpPkt structure */
//testPrint(verbose, "Header structure");
/* TODO: Figure out how this should be done */
/* Test udpOpen */
testPrint(verbose, "Open UDP devices (NULL local port)");
if (SYSERR == open(UDP0, &ipl, &ipd, NULL, ptb))
{
failif(TRUE, "");
}
if (SYSERR == open(UDP1, &ipl, &ipc, NULL, pta))
{
failif(TRUE, "");
}
failif((udptab[0].localpt == udptab[1].localpt)
|| (udptab[0].localpt < UDP_PSTART)
|| (udptab[0].localpt > UDP_PMAX)
|| (udptab[1].localpt < UDP_PSTART)
|| (udptab[1].localpt > UDP_PMAX), "");
if (SYSERR == close(UDP0))
{
failif(TRUE, "");
}
if (SYSERR == close(UDP1))
{
failif(TRUE, "");
}
/* Test udpOpen */
testPrint(verbose, "Open UDP device (NULL remote port)");
if (SYSERR == open(UDP0, &ipl, &ipd, pta, NULL))
{
failif(TRUE, "");
}
failif(udptab[0].remotept != NULL, "");
if (SYSERR == close(UDP0))
{
failif(TRUE, "");
}
/* Test udpOpen */
testPrint(verbose, "Open UDP device (NULL remote ip)");
if (SYSERR == open(UDP0, &ipl, NULL, pta, ptb))
{
failif(TRUE, "");
}
failif(0 == netaddrequal(&udptab[0].remoteip, &ipzero), "");
if (SYSERR == close(UDP0))
{
failif(TRUE, "");
}
/* Test udpOpen */
testPrint(verbose, "Open UDP devices (same local port)");
if (SYSERR == open(UDP0, &ipl, &ipd, pta, ptb))
{
failif(TRUE, "");
}
if (SYSERR == open(UDP1, &ipl, &ipd, pta, pta))
{
failif(TRUE, "");
}
failif(udptab[0].localpt != udptab[1].localpt, "");
/* Only close the second UDP device this time, we want to test close
* using UDP0 */
if (SYSERR == close(UDP1))
{
failif(TRUE, "");
}
/* Test udpClose */
testPrint(verbose, "Close UDP device");
if (SYSERR == close(UDP0))
{
failif(TRUE, "");
}
failif((udptab[0].dev != 0) || (udptab[0].icount != 0)
|| (udptab[0].istart != 0) || (udptab[0].isem != 0)
|| (udptab[0].localpt != 0) || (udptab[0].remotept != 0)
|| (FALSE == netaddrequal(&udptab[0].localip, &ipzero))
|| (FALSE == netaddrequal(&udptab[0].remoteip, &ipzero))
|| (udptab[0].state != 0) || (udptab[0].flags != 0), "");
/* Test udpControl */
testPrint(verbose, "UDP Control: Binding");
/* Open UDP device to resume testing of that device */
if (SYSERR == open(UDP0, &ipl, NULL, NULL, NULL))
{
failif(TRUE, "");
}
control(UDP0, UDP_CTRL_ACCEPT, pta, (long)&ipl);
control(UDP0, UDP_CTRL_BIND, ptb, (long)&ipc);
failif((udptab[0].localpt != pta)
|| (FALSE == netaddrequal(&udptab[0].localip, &ipl))
|| (udptab[0].remotept != ptb)
|| (FALSE == netaddrequal(&udptab[0].remoteip, &ipc)), "");
/* Test udpControl */
testPrint(verbose, "UDP Control: Flags");
control(UDP0, UDP_CTRL_SETFLAG, UDP_FLAG_PASSIVE | UDP_FLAG_NOBLOCK
| UDP_FLAG_BINDFIRST, NULL);
control(UDP0, UDP_CTRL_CLRFLAG, UDP_FLAG_NOBLOCK, NULL);
/* At this point NOBLOCK should be the only flag that is off */
failif((FALSE == (udptab[0].flags & UDP_FLAG_PASSIVE))
|| (udptab[0].flags & UDP_FLAG_NOBLOCK)
|| (FALSE == (udptab[0].flags & UDP_FLAG_BINDFIRST)), "");
/* Test udpDemux */
testPrint(verbose, "UDP Demux (2 sockets)");
open(UDP1, &ipl, NULL, pta, NULL);
udpptr = udpDemux(pta, ptb, &ipl, &ipc);
failif((udpptr == &udptab[1]) || (NULL == udpptr), "");
/* Test udpRecv and udpRead */
testPrint(verbose, "Receive and read UDP packets");
control(UDP0, UDP_CTRL_CLRFLAG, UDP_FLAG_PASSIVE
| UDP_FLAG_BINDFIRST, NULL);
control(UDP0, UDP_CTRL_ACCEPT, pta, (long)&ipl);
control(UDP0, UDP_CTRL_BIND, ptb, (long)&ipc);
pkt[0] = makePkt(ptb, pta, &ipl, &ipc, 5, "ABCDE");
pkt[1] = makePkt(ptb, pta, &ipl, &ipc, 4, "FGHI");
pkt[2] = makePkt(ptb, pta, &ipl, &ipc, 3, "JKL");
pkt[3] = makePkt(ptb, pta, &ipl, &ipc, 2, "MN");
if (SYSERR == udpRecv(pkt[0], &ipc, &ipl))
{
failif(TRUE, "recva");
}
if (SYSERR == udpRecv(pkt[1], &ipc, &ipl))
{
failif(TRUE, "recvb");
}
if (SYSERR == udpRecv(pkt[2], &ipc, &ipl))
{
failif(TRUE, "recvc");
}
if (SYSERR == udpRecv(pkt[3], &ipc, &ipl))
{
failif(TRUE, "recvd");
}
if (SYSERR == read(UDP0, buffera, 5))
{
failif(TRUE, "reada");
}
if (SYSERR == read(UDP0, bufferb, 5))
{
failif(TRUE, "readb");
}
if (SYSERR == read(UDP0, bufferc, 5))
{
failif(TRUE, "readc");
}
if (SYSERR == read(UDP0, bufferd, 5))
{
failif(TRUE, "readd");
}
failif((0 != strncmp((char *)buffera, "ABCDE", 5))
|| (0 != strncmp((char *)bufferb, "FGHI", 4))
|| (0 != strncmp((char *)bufferc, "JKL", 3))
|| (0 != strncmp((char *)bufferd, "MN", 2)), "");
/* Test udpRecv and udpRead */
testPrint(verbose, "Two UDP sockets");
pkt[0] = makePkt(pta, pta, &ipc, &ipl, 9, "ABCDEFGHI");
udpRecv(pkt[0], &ipc, &ipl);
read(UDP1, bufferc, 9);
failif(0 != strncmp((char *)bufferc, "ABCDEFGHI", 9), "");
/* Test udpRecv and udpRead */
testPrint(verbose, "Receive and read UDP packets (again)");
control(UDP0, UDP_CTRL_CLRFLAG, UDP_FLAG_PASSIVE
| UDP_FLAG_BINDFIRST, NULL);
control(UDP0, UDP_CTRL_ACCEPT, pta, (long)&ipl);
control(UDP0, UDP_CTRL_BIND, ptb, (long)&ipc);
pkt[0] = makePkt(ptb, pta, &ipl, &ipc, 5, "OPQRS");
pkt[1] = makePkt(ptb, pta, &ipl, &ipc, 3, "TUV");
pkt[2] = makePkt(ptb, pta, &ipl, &ipc, 2, "WX");
pkt[3] = makePkt(ptb, pta, &ipl, &ipc, 2, "YZ");
udpRecv(pkt[0], &ipc, &ipl);
udpRecv(pkt[1], &ipc, &ipl);
udpRecv(pkt[2], &ipc, &ipl);
udpRecv(pkt[3], &ipc, &ipl);
if (SYSERR == read(UDP0, buffera, 5))
{
failif(TRUE, "reada");
}
if (SYSERR == read(UDP0, bufferb, 3))
{
failif(TRUE, "readb");
}
if (SYSERR == read(UDP0, bufferc, 2))
{
failif(TRUE, "readc");
}
if (SYSERR == read(UDP0, bufferd, 2))
{
failif(TRUE, "readd");
}
failif(0 != strncmp((char *)buffera, "OPQRS", 5)
|| (0 != strncmp((char *)bufferb, "TUV", 3))
|| (0 != strncmp((char *)bufferc, "WX", 2))
|| (0 != strncmp((char *)bufferd, "YZ", 2)), "");
/* Test udpRecv and udpRead on multiple sockets */
testPrint(verbose, "Recv/read with varying sockets (1)");
/* Test 1 */
control(UDP0, UDP_CTRL_ACCEPT, pta, (long)&ipl);
control(UDP0, UDP_CTRL_BIND, NULL, NULL);
pkt[0] = makePkt(ptb, pta, &ipc, &ipl, 5, "test1");
udpRecv(pkt[0], &ipc, &ipl);
read(UDP0, buffera, 5);
failif(strncmp((char *)buffera, "test1", 5), "");
/* Test 2 */
testPrint(verbose, "Recv/read socket test 2");
control(UDP0, UDP_CTRL_ACCEPT, pta, (long)&ipl);
control(UDP0, UDP_CTRL_BIND, ptb, NULL);
control(UDP1, UDP_CTRL_ACCEPT, pta, (long)&ipl);
control(UDP1, UDP_CTRL_BIND, 0, NULL);
pkt[0] = makePkt(ptb, pta, &ipc, &ipl, 6, "test2a");
pkt[1] = makePkt(pta, pta, &ipc, &ipl, 6, "test2b");
udpRecv(pkt[0], &ipc, &ipl);
udpRecv(pkt[1], &ipc, &ipl);
read(UDP0, buffera, 6);
read(UDP1, bufferb, 6);
failif(0 != strncmp((char *)buffera, "test2a", 6)
|| (0 != strncmp((char *)bufferb, "test2b", 6)), "");
/* Test 3 */
testPrint(verbose, "Recv/read socket test 3");
control(UDP0, UDP_CTRL_BIND, ptb, (long)&ipc);
control(UDP1, UDP_CTRL_BIND, ptb, NULL);
pkt[0] = makePkt(ptb, pta, &ipc, &ipl, 6, "test3a");
pkt[1] = makePkt(ptb, pta, &ipd, &ipl, 6, "test3b");
udpRecv(pkt[0], &ipc, &ipl);
udpRecv(pkt[1], &ipd, &ipl);
read(UDP0, buffera, 6);
read(UDP1, bufferb, 6);
failif((0 != strncmp((char *)buffera, "test3a", 6))
|| (0 != strncmp((char *)bufferb, "test3b", 6)), "");
/* Test 4 */
testPrint(verbose, "Recv/read socket test 4");
control(UDP0, UDP_CTRL_BIND, ptb, (long)&ipc);
control(UDP1, UDP_CTRL_BIND, ptb, (long)&ipd);
pkt[0] = makePkt(ptb, pta, &ipc, &ipl, 6, "test4a");
pkt[1] = makePkt(ptb, pta, &ipd, &ipl, 6, "test4b");
udpRecv(pkt[0], &ipc, &ipl);
udpRecv(pkt[1], &ipd, &ipl);
read(UDP0, buffera, 6);
read(UDP1, bufferb, 6);
failif((0 != strncmp((char *)buffera, "test4a", 6))
|| (0 != strncmp((char *)bufferb, "test4b", 6)), "");
/* Test 5 */
testPrint(verbose, "Recv/read socket test 5");
control(UDP0, UDP_CTRL_BIND, 0, NULL);
control(UDP1, UDP_CTRL_ACCEPT, ptb, (long)&ipl);
control(UDP1, UDP_CTRL_BIND, 0, NULL);
pkt[0] = makePkt(ptb, pta, &ipc, &ipl, 6, "test5a");
pkt[1] = makePkt(pta, ptb, &ipc, &ipl, 6, "test5b");
udpRecv(pkt[0], &ipc, &ipl);
udpRecv(pkt[1], &ipc, &ipl);
read(UDP0, buffera, 6);
read(UDP1, bufferb, 6);
failif((0 != strncmp((char *)buffera, "test5a", 6))
|| (0 != strncmp((char *)bufferb, "test5b", 6)), "");
/* Read entire UDP packet */
testPrint(verbose, "Read entire UDP packet");
control(UDP0, UDP_CTRL_SETFLAG, UDP_FLAG_PASSIVE, NULL);
pkt[0] = makePkt(ptb, pta, &ipc, &ipl, 7, "passive");
udpRecv(pkt[0], &ipc, &ipl);
read(UDP0, bufferp, UDP_HDR_LEN + 7 + sizeof(struct udpPseudoHdr));
pseudo = (struct udpPseudoHdr *)bufferp;
udppkt = (struct udpPkt *)(pseudo + 1);
failif((0 != memcmp(pseudo->srcIp, ipc.addr, IPv4_ADDR_LEN))
|| (0 != memcmp(pseudo->dstIp, ipl.addr, IPv4_ADDR_LEN))
|| (udppkt->srcPort != ptb) || (udppkt->dstPort != pta)
|| (udppkt->len != UDP_HDR_LEN + 7)
|| (0 != strncmp((char *)udppkt->data, "passive", 7)), "");
/* Done testing, attempt to close all UDP devices (MAKE SURE BOTH
* DEVICES ARE OPEN BEFORE YOU CLOSE THEM!!!) */
close(UDP0);
close(UDP1);
/* Print out the overall test's status (pass or fail) */
if (passed)
{
testPass(TRUE, "");
}
else
{
testFail(TRUE, "");
}
#else /* UDP1 */
testSkip(TRUE, "");
#endif /* !UDP1 */
return OK;
}
thread test_semaphore3(bool verbose)
{
#if NSEM
tid_typ atid, btid;
bool passed = TRUE;
semaphore s;
uchar testResult = 0;
char msg[50];
testPrint(verbose, "Semaphore creation: ");
s = semcreate(1);
if (isbadsem(s))
{
passed = FALSE;
sprintf(msg, "%d", s);
testFail(verbose, msg);
}
else if (test_checkSemCount(s, 1))
{
testPass(verbose, "");
}
else
{
passed = FALSE;
}
/* We use a higher priority for thread A to ensure it is not rescheduled to
* thread B before it is even able to wait on the semaphore. */
ready(atid =
create((void *)test_semWaiter, INITSTK, 32,
"SEMAPHORE-A", 3, s, 1, &testResult), RESCHED_NO);
ready(btid =
create((void *)test_semWaiter, INITSTK, 31,
"SEMAPHORE-B", 3, s, 1, &testResult), RESCHED_YES);
testPrint(verbose, "Wait on semaphore: ");
/* Process A should be admitted, but B should wait. */
if (test_checkProcState(atid, THRFREE)
&& test_checkProcState(btid, THRWAIT)
&& test_checkSemCount(s, -1) && test_checkResult(testResult, 1))
{
testPass(verbose, "");
}
else
{
passed = FALSE;
}
signal(s);
/* Process B waited, so signal should release it. */
testPrint(verbose, "Signal waiting semaphore: ");
if (test_checkProcState(btid, THRFREE)
&& test_checkSemCount(s, 0) && test_checkResult(testResult, 2))
{
testPass(verbose, "");
}
else
{
passed = FALSE;
}
if (TRUE == passed)
{
testPass(TRUE, "");
}
else
{
testFail(TRUE, "");
}
/* Processes should be dead, but in case the test failed. */
kill(atid);
kill(btid);
semfree(s);
#else /* NSEM */
testSkip(TRUE, "");
#endif /* NSEM == 0 */
return OK;
}
int test_policychecker(int argc, char *argv[])
{
PKIX_Boolean initialPolicyMappingInhibit = PKIX_FALSE;
PKIX_Boolean initialAnyPolicyInhibit = PKIX_FALSE;
PKIX_Boolean initialExplicitPolicy = PKIX_FALSE;
PKIX_Boolean expectedResult = PKIX_FALSE;
PKIX_UInt32 chainLength = 0;
PKIX_UInt32 initArgs = 0;
PKIX_UInt32 firstCert = 0;
PKIX_UInt32 i = 0;
PKIX_Int32 j = 0;
PKIX_UInt32 actualMinorVersion;
PKIX_ProcessingParams *procParams = NULL;
char *firstTrustAnchor = "yassir2yassir";
char *secondTrustAnchor = "yassir2bcn";
char *dateAscii = "991201000000Z";
PKIX_ValidateParams *valParams = NULL;
PKIX_ValidateResult *valResult = NULL;
PKIX_List *userInitialPolicySet = NULL; /* List of PKIX_PL_OID */
char *certNames[PKIX_TEST_MAX_CERTS];
PKIX_PL_Cert *certs[PKIX_TEST_MAX_CERTS];
PKIX_List *chain = NULL;
PKIX_Error *validationError = NULL;
PKIX_VerifyNode *verifyTree = NULL;
PKIX_PL_String *verifyString = NULL;
char *dirName = NULL;
char *dataCentralDir = NULL;
char *anchorName = NULL;
PKIX_TEST_STD_VARS();
PKIX_TEST_EXPECT_NO_ERROR(
PKIX_PL_NssContext_Create(0, PKIX_FALSE, NULL, &plContext));
/*
* Perform hard-coded tests if no command line args.
* If command line args are provided, they must be:
* arg[1]: test name
* arg[2]: "ENE" or "EE", for "expect no error" or "expect error"
* arg[3]: directory for certificates
* arg[4]: user-initial-policy-set, consisting of braces
* containing zero or more OID sequences, separated by commas
* arg[5]: (optional) "E", indicating initialExplicitPolicy
* arg[firstCert]: the path and filename of the trust anchor certificate
* arg[firstCert+1..(n-1)]: successive certificates in the chain
* arg[n]: the end entity certificate
*
* Example: test_policychecker test1EE ENE
* {2.5.29.32.0,2.5.29.32.3.6} Anchor CA EndEntity
*/
dirName = argv[3+j];
dataCentralDir = argv[4+j];
if (argc <= 5 || ((6 == argc) && (j))) {
testPass
(dataCentralDir,
firstTrustAnchor,
secondTrustAnchor,
dateAscii);
testNistTest1(dirName);
testNistTest2(dirName);
goto cleanup;
}
if (argc < (7 + j)) {
printUsage(argv[0]);
pkixTestErrorMsg = "Invalid command line arguments.";
goto cleanup;
}
if (PORT_Strcmp(argv[2+j], "ENE") == 0) {
expectedResult = PKIX_TRUE;
} else if (PORT_Strcmp(argv[2+j], "EE") == 0) {
expectedResult = PKIX_FALSE;
} else {
printUsage(argv[0]);
pkixTestErrorMsg = "Invalid command line arguments.";
goto cleanup;
}
userInitialPolicySet = policySetParse(argv[5+j]);
if (!userInitialPolicySet) {
printUsage(argv[0]);
pkixTestErrorMsg = "Invalid command line arguments.";
goto cleanup;
}
for (initArgs = 0; initArgs < 3; initArgs++) {
if (PORT_Strcmp(argv[6+j+initArgs], "A") == 0) {
initialAnyPolicyInhibit = PKIX_TRUE;
} else if (PORT_Strcmp(argv[6+j+initArgs], "E") == 0) {
initialExplicitPolicy = PKIX_TRUE;
} else if (PORT_Strcmp(argv[6+j+initArgs], "P") == 0) {
initialPolicyMappingInhibit = PKIX_TRUE;
} else {
break;
}
}
firstCert = initArgs + j + 6;
chainLength = argc - (firstCert + 1);
if (chainLength > PKIX_TEST_MAX_CERTS) {
printUsageMax(chainLength);
pkixTestErrorMsg = "Invalid command line arguments.";
goto cleanup;
}
/*
* Create a chain, but don't include the first certName.
* That's the anchor, and is supplied separately from
* the chain.
*/
for (i = 0; i < chainLength; i++) {
certNames[i] = argv[i + (firstCert + 1)];
certs[i] = NULL;
}
chain = createCertChainPlus
(dirName, certNames, certs, chainLength, plContext);
subTest(argv[1+j]);
valParams = createValidateParams
(dirName,
argv[firstCert],
NULL,
NULL,
userInitialPolicySet,
initialPolicyMappingInhibit,
initialAnyPolicyInhibit,
initialExplicitPolicy,
PKIX_FALSE,
chain,
plContext);
if (expectedResult == PKIX_TRUE) {
subTest(" (expecting successful validation)");
PKIX_TEST_EXPECT_NO_ERROR(PKIX_ValidateChain
(valParams, &valResult, &verifyTree, plContext));
printValidPolicyTree(valResult);
} else {
subTest(" (expecting validation to fail)");
validationError = PKIX_ValidateChain
(valParams, &valResult, &verifyTree, plContext);
if (!validationError) {
printValidPolicyTree(valResult);
pkixTestErrorMsg = "Should have thrown an error here.";
}
PKIX_TEST_DECREF_BC(validationError);
}
PKIX_TEST_EXPECT_NO_ERROR(PKIX_PL_Object_ToString
((PKIX_PL_Object*)verifyTree, &verifyString, plContext));
(void) printf("verifyTree is\n%s\n", verifyString->escAsciiString);
cleanup:
PKIX_PL_Free(anchorName, plContext);
PKIX_TEST_DECREF_AC(verifyString);
PKIX_TEST_DECREF_AC(verifyTree);
PKIX_TEST_DECREF_AC(userInitialPolicySet);
PKIX_TEST_DECREF_AC(chain);
PKIX_TEST_DECREF_AC(valParams);
PKIX_TEST_DECREF_AC(valResult);
PKIX_TEST_DECREF_AC(validationError);
PKIX_Shutdown(plContext);
PKIX_TEST_RETURN();
endTests("PolicyChecker");
return (0);
}
thread test_ip(bool verbose)
{
#if NETHER
struct netaddr dst;
struct netaddr src;
struct netaddr mask;
struct netif *netptr;
struct pcap_file_header pcap;
struct pcap_pkthdr phdr;
struct packet *pktA;
struct packet *pktB;
uchar *data;
uchar buf[500];
int i;
int nproc;
int wait;
bool passed = TRUE;
src.type = NETADDR_IPv4;
src.len = IPv4_ADDR_LEN;
dst.type = NETADDR_IPv4;
dst.len = IPv4_ADDR_LEN;
mask.type = NETADDR_IPv4;
mask.len = IPv4_ADDR_LEN;
src.addr[0] = 192;
src.addr[1] = 168;
src.addr[2] = 1;
src.addr[3] = 6;
dst.addr[0] = 192;
dst.addr[1] = 168;
dst.addr[2] = 1;
dst.addr[3] = 1;
mask.addr[0] = 255;
mask.addr[1] = 255;
mask.addr[2] = 255;
mask.addr[3] = 0;
testPrint(verbose, "Initialization");
sleep(500);
if (SYSERR == open(ELOOP))
{
failif(TRUE, "Open returned SYSERR");
}
else
{
if (SYSERR == netUp(ELOOP, &src, &mask, &dst))
{
failif(TRUE, "netUp returned SYSERR");
}
else
{
netptr = NULL;
for (i = 0; i < NNETIF; i++)
{
if (ELOOP == netiftab[i].dev)
{
netptr = &netiftab[i];
break;
}
}
pktA = netGetbuf();
pktB = netGetbuf();
failif(((NULL == netptr)
|| (SYSERR == (int)pktA)
|| (SYSERR == (int)pktB)),
"Buffer allocation failed");
}
}
if (!passed)
{
testFail(TRUE, "");
return OK;
}
data = (uchar *)(&_binary_data_testip_pcap_start);
memcpy(&pcap, data, sizeof(pcap));
data += sizeof(pcap);
testPrint(verbose, "Ipv4Send");
/* Get 1st Packet */
memcpy(&phdr, data, sizeof(phdr));
data += sizeof(phdr);
if (PCAP_MAGIC != pcap.magic)
{
phdr.caplen = endswap(phdr.caplen);
}
nproc = netptr->nproc;
write(ELOOP, data, phdr.caplen);
wait = 0;
while ((wait < MAX_WAIT) && (netptr->nproc == nproc))
{
wait++;
sleep(10);
}
if (MAX_WAIT == wait)
{
failif(TRUE, "Wait time expired");
}
else
{
/* Get 2nd Packet */
data += phdr.caplen;
memcpy(&phdr, data, sizeof(phdr));
data += sizeof(phdr);
if (PCAP_MAGIC != pcap.magic)
{
phdr.caplen = endswap(phdr.caplen);
}
memcpy(pktA->data, data, phdr.caplen);
pktA->len = phdr.caplen;
pktA->nif = netptr;
pktA->linkhdr = pktA->data;
pktA->nethdr = pktA->linkhdr + ETH_HDR_LEN;
pktA->curr = pktA->nethdr + IPv4_HDR_LEN;
pktB->curr -= UDP_HDR_LEN + 4;
pktB->len += UDP_HDR_LEN + 4;
memcpy(pktB->curr, pktA->curr, pktB->len);
control(ELOOP, ELOOP_CTRL_SETFLAG, ELOOP_FLAG_HOLDNXT, NULL);
if (OK != ipv4Send(pktB, &src, &dst, IPv4_PROTO_UDP))
{
failif(TRUE, "ipv4Send didn't return okay");
}
else
{
control(ELOOP, ELOOP_CTRL_GETHOLD, (long)buf, 500);
failif(0 != memcmp(buf, pktA->linkhdr, pktA->len), "");
}
}
/* ipv4Recv Testing */
//TODO: Finish ipv4Recv
/* testPrint(verbose, "ipv4Recv");
pktA->curr -= IPv4_HDR_LEN;
if (SYSERR == rawOpen(RAW0, IPv4_PROTO_UDP, ))
{
failif(TRUE, "Open returned SYSERR");
}
if (OK != ipv4Recv(pktA))
{
failif(TRUE, "Didn't return okay");
}
else
{
}
*/
netDown(ELOOP);
close(ELOOP);
/* always print out the overall tests status */
if (passed)
{
testPass(TRUE, "");
}
else
{
testFail(TRUE, "");
}
#else /* NETHER */
testSkip(TRUE, "");
#endif /* NETHER == 0 */
return OK;
}
/**
* Tests the string.h header in the Xinu Standard Library.
* @return OK when testing is complete
*/
thread test_libString(bool verbose)
{
char *s1 = NULL;
char *s2 = NULL;
char str[LEN_STR] = "ZYXWYZ";
bool passed = TRUE;
/* strncmp */
testPrint(verbose, "String n comparison");
failif(((0 > strncmp("ZYX", "WVU", 2))
|| (0 < strncmp("wvu", "zyx", 2))
|| (0 < strncmp("wvu", "zyx", 50))
|| (0 > strncmp("zyx", "wvu", 50))
|| (0 != strncmp("abc", "abc", 50))
|| (0 != strncmp("987", "987", 2))
|| (0 < strncmp("NOP", "NOQ", 3))
|| (0 > strncmp("noq", "nop", 3))
|| (0 != strncmp("450", "456", 2))), "");
/* strncpy */
testPrint(verbose, "String n copy");
char sB[6] = "abcde";
s1 = strncpy(sB, "fghij", 3);
failif(((0 != strncmp(sB, "fghde", 5)) || (s1 != sB)), "");
/* strncat */
testPrint(verbose, "String n concantenate");
char sD[6] = "zyx";
s1 = strncat(sD, "wv", 1);
failif(((0 != strncmp(sD, "zyxw", 4))
|| (0 != strncmp(s1, "zyxw", 4))), "");
/* * * strchr * * */
/* fail to find char */
testPrint(verbose, "Fail to find; strchr()");
s1 = strchr(str, 'a');
failif(NULL != s1, "");
/* find a uniq char */
testPrint(verbose, "Find unique char; strchr()");
s1 = strchr(str, 'X');
failif('W' != *(s1 + 1), "");
/* find a non-uniq char */
testPrint(verbose, "Find non-unique char; strchr()");
s1 = strchr(str, 'Y');
failif('X' != *(s1 + 1), "");
/* find null char */
testPrint(verbose, "Find null char; strchr()");
s1 = strchr(str, '\0');
failif(str + (LEN_STR - 1) != s1 || '\0' != *s1, "");
/* * * strrchr * * */
/* fail to find char */
testPrint(verbose, "Fail to find; strrchr()");
s1 = strrchr(str, 'a');
failif(NULL != s1, "");
/* find a uniq char */
testPrint(verbose, "Find unique char; strrchr()");
s1 = strrchr(str, 'X');
failif('W' != *(s1 + 1), "");
/* find a non-uniq char */
testPrint(verbose, "Find non-unique char; strrchr()");
s1 = strrchr(str, 'Y');
failif('Z' != *(s1 + 1), "");
/* find null char */
testPrint(verbose, "Find null char; strrchr()");
s1 = strrchr(str, '\0');
failif(str + (LEN_STR - 1) != s1 || '\0' != *s1, "");
/* strstr */
testPrint(verbose, "String search");
char sG[9] = "ABBCDEBA";
s1 = strstr(sG, "BCD");
s1 += 3;
failif(('E' != *s1), "");
/* strnlen */
testPrint(verbose, "String n length");
failif(((5 != strnlen("12345", 100))
|| (0 != strnlen("", 5))
|| (3 != strnlen("12345", 3))
|| (0 != strnlen("12345", 0))), "");
/* memcmp */
testPrint(verbose, "Memory comparsion");
failif(((0 < memcmp("ABC", "DEF", 3))
|| (0 > memcmp("def", "abc", 3))
|| (0 != memcmp("123", "123", 3))), "");
/* memcpy */
testPrint(verbose, "Memory copy");
char sH[6] = "ABCDE";
s1 = memcpy(sH, "FGHIJ", 5);
failif(((0 != memcmp(sH, "FGHIJ", 5))
|| (0 != memcmp(s1, "FGHIJ", 5))), "");
/* memchr */
testPrint(verbose, "Memory character search");
char sI[7] = "abcdba";
s1 = memchr(sI, 'b', 6) + 1;
s2 = memchr(sI, 'c', 6) + 1;
failif((('c' != *s1) || ('d' != *s2)), "");
/* memset */
testPrint(verbose, "Memory set");
char sJ[6] = "ABCDE";
s1 = memset(sJ, 'F', 3);
failif(((0 != memcmp(sJ, "FFFDE", 5)) || (s1 != sJ)), "");
if (passed)
{
testPass(TRUE, "");
}
else
{
testFail(TRUE, "");
}
return OK;
}
thread test_netaddr(bool verbose)
{
#if NETHER
bool passed = TRUE;
struct netaddr a;
struct netaddr b;
/* Setup structures */
a.type = NETADDR_ETHERNET;
a.len = ETH_ADDR_LEN;
a.addr[0] = 0xAA;
a.addr[1] = 0xBB;
a.addr[2] = 0xCC;
a.addr[3] = 0xDD;
a.addr[4] = 0xEE;
a.addr[5] = 0xFF;
b.type = NETADDR_ETHERNET;
b.len = ETH_ADDR_LEN;
b.addr[0] = 0xAA;
b.addr[1] = 0xBB;
b.addr[2] = 0xCC;
b.addr[3] = 0xDD;
b.addr[4] = 0xEE;
b.addr[5] = 0xFF;
testPrint(verbose, "Comparison (diff lengths)");
b.len = ETH_ADDR_LEN - 1;
failif((TRUE == netaddrequal(&a, &b)), "");
testPrint(verbose, "Comparison (diff types)");
b.len = ETH_ADDR_LEN;
a.type = NETADDR_IPv4;
failif((TRUE == netaddrequal(&a, &b)), "");
testPrint(verbose, "Comparison (equal MACs)");
a.type = NETADDR_ETHERNET;
failif((FALSE == netaddrequal(&a, &b)), "");
testPrint(verbose, "Comparison (diff MACs)");
b.addr[5] = 0x00;
failif((TRUE == netaddrequal(&a, &b)), "");
/* Setup structures */
a.type = NETADDR_IPv4;
a.len = IPv4_ADDR_LEN;
a.addr[0] = 192;
a.addr[1] = 168;
a.addr[2] = 1;
a.addr[3] = 1;
b.type = NETADDR_IPv4;
b.len = IPv4_ADDR_LEN;
b.addr[0] = 192;
b.addr[1] = 168;
b.addr[2] = 1;
b.addr[3] = 1;
testPrint(verbose, "Comparison (equal IPs)");
failif((FALSE == netaddrequal(&a, &b)), "");
testPrint(verbose, "Comparison (diff IPs)");
a.addr[3] = 2;
failif((TRUE == netaddrequal(&a, &b)), "");
/* always print out the overall tests status */
if (passed)
{
testPass(TRUE, "");
}
else
{
testFail(TRUE, "");
}
#else /* NETHER */
testSkip(TRUE, "");
#endif /* NETHER == 0 */
return OK;
}
void taskNotify(void *usr)
{
testPass("taskNotify");
}
void anyNotify(void *usr, epicsThreadId tid)
{
testPass("anyNotify(tid=%p)", (void *)tid);
}
void monRemove(void *usr, epicsThreadId tid)
{
testPass("monRemove(tid=%p)", (void *)tid);
}
void monNotify(void *usr, epicsThreadId tid, int suspended)
{
testPass("monNotify(tid=%p, suspended=%d)", (void *)tid, suspended);
epicsThreadResume(tid);
}
void monInsert(void *usr, epicsThreadId tid)
{
testPass("monInsert(tid=%p)", (void *)tid);
}
