NTSTATUS
kmdf1394_AsyncWrite (
IN WDFDEVICE Device,
IN WDFREQUEST Request,
IN PASYNC_WRITE AsyncWrite)
/*++
Routine Description:
Async Write routine.
Arguments:
Device - the current WDFDEVICE Object.
Request - the current request.
AsyncWrite - the Data buffer from usermode to be worked on.
Return Value:
VOID
--*/
{
NTSTATUS ntStatus = STATUS_SUCCESS;
PDEVICE_EXTENSION deviceExtension = GetDeviceContext(Device);
PIRB pIrb = NULL;
PMDL pMdl = NULL;
WDFIOTARGET ioTarget = NULL;
WDFMEMORY Memory;
ENTER("kmdf1394_AsyncWrite");
ioTarget = deviceExtension->StackIoTarget;
pIrb = ExAllocatePoolWithTag(NonPagedPool, sizeof(IRB), POOLTAG_KMDF_VDEV);
if (!pIrb)
{
TRACE(TL_ERROR, ("Failed to allocate pIrb!\n"));
return STATUS_INSUFFICIENT_RESOURCES;
}
RtlZeroMemory (pIrb, sizeof (IRB));
pIrb->FunctionNumber = REQUEST_ASYNC_WRITE;
pIrb->Flags = 0;
pIrb->u.AsyncWrite.DestinationAddress = AsyncWrite->DestinationAddress;
pIrb->u.AsyncWrite.nNumberOfBytesToWrite = AsyncWrite->nNumberOfBytesToWrite;
pIrb->u.AsyncWrite.nBlockSize = AsyncWrite->nBlockSize;
pIrb->u.AsyncWrite.fulFlags = AsyncWrite->fulFlags;
if (AsyncWrite->bGetGeneration)
{
TRACE(
TL_TRACE,
("Retrieved Generation Count = 0x%x\n",
pIrb->u.AsyncRead.ulGeneration));
pIrb->u.AsyncRead.ulGeneration = deviceExtension->GenerationCount;
}
else
{
pIrb->u.AsyncRead.ulGeneration = AsyncWrite->ulGeneration;
}
pMdl = IoAllocateMdl (
AsyncWrite->Data,
AsyncWrite->nNumberOfBytesToWrite,
FALSE,
FALSE,
NULL);
if(NULL == pMdl)
{
TRACE(TL_ERROR, ("Failed to allocate mdl!\n"));
ExFreePoolWithTag (pIrb, POOLTAG_KMDF_VDEV);
return STATUS_INSUFFICIENT_RESOURCES;
}
MmBuildMdlForNonPagedPool (pMdl);
pIrb->u.AsyncWrite.Mdl = pMdl;
//
// We need to create a WDF Memory object for the IRB to nestle in
// for an async request.
//
ntStatus = WdfMemoryCreatePreallocated (
WDF_NO_OBJECT_ATTRIBUTES,
pIrb,
sizeof (IRB),
&Memory);
if (!NT_SUCCESS (ntStatus))
{
TRACE (
TL_ERROR,
("Failed WdfMemoryCreate %d\n",
ntStatus));
IoFreeMdl (pIrb->u.AsyncWrite.Mdl);
ExFreePoolWithTag (pIrb, POOLTAG_KMDF_VDEV);
return ntStatus;
}
WdfRequestSetCompletionRoutine (
Request,
kmdf1394_AsyncWriteCompletion,
Memory);
ntStatus = kmdf1394_SubmitIrpAsync (ioTarget, Request, Memory);
if (!NT_SUCCESS(ntStatus))
{
if (ntStatus != STATUS_INVALID_GENERATION)
{
TRACE(TL_ERROR, ("SubmitIrpSync failed = 0x%x\n", ntStatus));
}
else
{
TRACE (TL_ERROR, ("Invalid Generation count\n"));
}
IoFreeMdl (pIrb->u.AsyncWrite.Mdl);
ExFreePoolWithTag (pIrb, POOLTAG_KMDF_VDEV);
WdfObjectDelete (Memory);
}
EXIT("kmdf1394_AsyncWrite", ntStatus);
return ntStatus;
} // kmdf1394_AsyncWrite
/*!
* Send message to queue or signal to thread
*/
int sys__msg_post ( int dest_type, void *dest, msg_t *msg, uint flags )
{
thread_t *thr;
kthread_t *kthr, *new_kthr;
kthrmsg_qs *thrmsg;
kgmsg_q *kgmsgq;
kmsg_q *kmsgq;
msg_q *msgq;
kmsg_t *kmsg;
msg_t *cmsg;
ASSERT_ERRNO_AND_EXIT ( dest && msg, E_INVALID_HANDLE );
if ( dest_type == MSG_THREAD || dest_type == MSG_SIGNAL )
{
thr = dest;
kthr = k_get_kthread ( thr );
ASSERT_ERRNO_AND_EXIT ( kthr, E_DONT_EXIST );
thrmsg = k_get_thrmsg ( kthr );
kmsgq = &thrmsg->msgq;
}
else if ( dest_type == MSG_QUEUE )
{
msgq = dest;
kgmsgq = msgq->handle;
ASSERT_ERRNO_AND_EXIT ( kgmsgq && kgmsgq->id == msgq->id,
E_INVALID_HANDLE );
kmsgq = &kgmsgq->mq;
}
else {
EXIT ( E_INVALID_TYPE );
}
if ( dest_type == MSG_THREAD || dest_type == MSG_QUEUE )
{
/* send message to queue */
if ( kmsgq->min_prio <= msg->type ) /* msg has required prio. */
{
kmsg = kmalloc ( sizeof (kmsg_t) + msg->size );
ASSERT_ERRNO_AND_EXIT ( kmsg, E_NO_MEMORY );
kmsg->msg.type = msg->type;
kmsg->msg.size = msg->size;
memcpy ( kmsg->msg.data, msg->data, msg->size );
list_append ( &kmsgq->msgs, kmsg, &kmsg->list );
/* is thread waiting for message? */
if ( k_release_thread ( &kmsgq->thrq ) )
k_schedule_threads ();
EXIT ( SUCCESS );
}
else { /* ignore message */
EXIT ( E_IGNORED );
}
}
/* must be MSG_SIGNAL */
if ( thrmsg->sig_prio <= msg->type )
{
/* create thread that will service this signal */
cmsg = k_create_thread_private_storage ( kthr,
sizeof (msg_t) + msg->size );
cmsg->type = msg->type;
cmsg->size = msg->size;
memcpy ( cmsg->data, msg->data, msg->size );
new_kthr = k_create_thread (
thrmsg->signal_handler, cmsg, pi.exit,
k_get_thread_prio ( kthr ) + 1, NULL, 0, 1
);
ASSERT_ERRNO_AND_EXIT ( new_kthr, k_get_errno() );
k_set_thread_private_storage ( new_kthr, cmsg );
SET_ERRNO ( SUCCESS );
k_schedule_threads ();
RETURN ( SUCCESS );
}
else { /* ignore signal */
EXIT ( E_IGNORED );
}
}
/*!
* Start new process
* \param prog_name Program name (as given with module)
* \param thr_desc Pointer to thread descriptor (user) for starting thread
* \param param Command line arguments for starting thread (if not NULL)
* \param prio Priority for starting thread
*/
int sys__start_program ( void *p )
{
char *prog_name;
void *param;
int prio;
thread_t *thr_desc;
kthread_t *kthr, *cur = active_thread;
char *arg, *karg, **args, **kargs = NULL;
int argnum, argsize;
prog_name = *( (void **) p ); p += sizeof (void *);
ASSERT_ERRNO_AND_EXIT ( prog_name, E_INVALID_HANDLE );
prog_name = U2K_GET_ADR ( prog_name, cur->proc );
thr_desc = *( (void **) p ); p += sizeof (void *);
param = *( (void **) p ); p += sizeof (void *);
prio = *( (int *) p );
if ( param ) /* copy parameters from one process space to another */
{
/* copy parameters to new process address space */
/* first copy them to kernel */
argnum = 0;
argsize = 0;
args = U2K_GET_ADR ( param, cur->proc );
while ( args[argnum] )
{
arg = U2K_GET_ADR ( args[argnum++], cur->proc );
argsize += strlen ( arg ) + 1;
}
if ( argnum > 0 )
{
kargs = kmalloc ( (argnum + 1) * sizeof (void *) +
argsize );
karg = (void *) kargs + (argnum + 1) * sizeof (void *);
argnum = 0;
while ( args[argnum] )
{
arg = U2K_GET_ADR ( args[argnum], cur->proc );
strcpy ( karg, arg );
kargs[argnum++] = karg;
karg += strlen ( karg ) + 1;
}
kargs[argnum] = NULL;
}
}
SET_ERRNO ( SUCCESS );
kthr = k_proc_start ( prog_name, kargs, prio );
if ( !kthr )
EXIT ( E_NO_MEMORY );
if ( thr_desc ) /* save thread descriptor */
{
thr_desc = U2K_GET_ADR ( thr_desc, cur->proc );
thr_desc->thread = kthr;
thr_desc->thr_id = kthr->id;
}
RETURN ( SUCCESS );
}
/*
* Execute the shell command tree pointed to by t.
*/
static void
execute(struct tnode *t, int *pin, int *pout)
{
struct tnode *t1;
enum tnflags f;
pid_t cpid;
int i, pfd[2];
const char **gav;
const char *cmd, *p;
if (t == NULL)
return;
switch (t->ntype) {
case TLIST:
f = t->nflags & (FFIN | FPIN | FINTR);
if ((t1 = t->nleft) != NULL)
t1->nflags |= f;
execute(t1, NULL, NULL);
if ((t1 = t->nright) != NULL)
t1->nflags |= f;
execute(t1, NULL, NULL);
return;
case TPIPE:
if (pipe(pfd) == -1) {
err(SH_ERR, FMT1S, ERR_PIPE);
if (pin != NULL) {
(void)close(pin[0]);
(void)close(pin[1]);
}
return;
}
f = t->nflags;
if ((t1 = t->nleft) != NULL)
t1->nflags |= FPOUT | (f & (FFIN|FPIN|FINTR|FPRS));
execute(t1, pin, pfd);
if ((t1 = t->nright) != NULL)
t1->nflags |= FPIN | (f & (FAND|FPOUT|FINTR|FPRS));
execute(t1, pfd, pout);
(void)close(pfd[0]);
(void)close(pfd[1]);
return;
case TCOMMAND:
if (t->nav == NULL || t->nav[0] == NULL) {
/* should never (but can) be true */
err(SH_ERR, FMT1S, "execute: Invalid command");
return;
}
cmd = t->nav[0];
if (EQUAL(cmd, ":")) {
status = SH_TRUE;
return;
}
if (EQUAL(cmd, "chdir")) {
ascan(t->nav[1], &trim);
if (t->nav[1] == NULL)
err(SH_ERR, FMT2S, cmd, ERR_ARGCOUNT);
else if (chdir(t->nav[1]) == -1)
err(SH_ERR, FMT2S, cmd, ERR_BADDIR);
else
status = SH_TRUE;
return;
}
if (EQUAL(cmd, "exit")) {
if (prompt == NULL) {
(void)lseek(FD0, (off_t)0, SEEK_END);
EXIT(status);
}
return;
}
if (EQUAL(cmd, "login") || EQUAL(cmd, "newgrp")) {
if (prompt != NULL) {
p = (*cmd == 'l') ? PATH_LOGIN : PATH_NEWGRP;
vscan(t->nav, &trim);
(void)sasignal(SIGINT, SIG_DFL);
(void)sasignal(SIGQUIT, SIG_DFL);
(void)pexec(p, (char *const *)t->nav);
(void)sasignal(SIGINT, SIG_IGN);
(void)sasignal(SIGQUIT, SIG_IGN);
}
err(SH_ERR, FMT2S, cmd, ERR_EXEC);
return;
}
if (EQUAL(cmd, "shift")) {
if (dolc > 1) {
dolv = &dolv[1];
dolc--;
status = SH_TRUE;
return;
}
err(SH_ERR, FMT2S, cmd, ERR_NOARGS);
return;
}
if (EQUAL(cmd, "wait")) {
pwait(-1);
return;
}
/*FALLTHROUGH*/
case TSUBSHELL:
f = t->nflags;
if ((cpid = ((f & FNOFORK) != 0) ? 0 : fork()) == -1) {
err(SH_ERR, FMT1S, ERR_FORK);
return;
}
/**** Parent! ****/
if (cpid != 0) {
if (pin != NULL && (f & FPIN) != 0) {
(void)close(pin[0]);
(void)close(pin[1]);
}
if ((f & FPRS) != 0)
fd_print(FD2, "%u\n", (unsigned)cpid);
if ((f & FAND) != 0)
return;
if ((f & FPOUT) == 0)
pwait(cpid);
return;
}
/**** Child! ****/
/*
* Redirect (read) input from pipe.
*/
if (pin != NULL && (f & FPIN) != 0) {
if (dup2(pin[0], FD0) == -1)
err(FC_ERR, FMT1S, strerror(errno));
(void)close(pin[0]);
(void)close(pin[1]);
}
/*
* Redirect (write) output to pipe.
*/
if (pout != NULL && (f & FPOUT) != 0) {
if (dup2(pout[1], FD1) == -1)
err(FC_ERR, FMT1S, strerror(errno));
(void)close(pout[0]);
(void)close(pout[1]);
}
/*
* Redirect (read) input from file.
*/
if (t->nfin != NULL && (f & FPIN) == 0) {
f |= FFIN;
ascan(t->nfin, &trim);
if ((i = open(t->nfin, O_RDONLY)) == -1)
err(FC_ERR, FMT2S, t->nfin, ERR_OPEN);
if (dup2(i, FD0) == -1)
err(FC_ERR, FMT1S, strerror(errno));
(void)close(i);
}
/*
* Redirect (write) output to file.
*/
if (t->nfout != NULL && (f & FPOUT) == 0) {
if ((f & FCAT) != 0)
i = O_WRONLY | O_APPEND | O_CREAT;
else
i = O_WRONLY | O_TRUNC | O_CREAT;
ascan(t->nfout, &trim);
if ((i = open(t->nfout, i, 0666)) == -1)
err(FC_ERR, FMT2S, t->nfout, ERR_CREATE);
if (dup2(i, FD1) == -1)
err(FC_ERR, FMT1S, strerror(errno));
(void)close(i);
}
/*
* Set the action for the SIGINT and SIGQUIT signals, and
* redirect input for `&' commands from `/dev/null' if needed.
*/
if ((f & FINTR) != 0) {
(void)sasignal(SIGINT, SIG_IGN);
(void)sasignal(SIGQUIT, SIG_IGN);
if (t->nfin == NULL && (f & (FFIN|FPIN|FPRS)) == FPRS) {
(void)close(FD0);
if (open("/dev/null", O_RDONLY) != FD0)
err(FC_ERR,FMT2S,"/dev/null",ERR_OPEN);
}
} else {
if ((sig_child & S_SIGINT) != 0)
(void)sasignal(SIGINT, SIG_DFL);
if ((sig_child & S_SIGQUIT) != 0)
(void)sasignal(SIGQUIT, SIG_DFL);
}
/* Set the SIGTERM signal to its default action if needed. */
if ((sig_child & S_SIGTERM) != 0)
(void)sasignal(SIGTERM, SIG_DFL);
if (t->ntype == TSUBSHELL) {
if ((t1 = t->nsub) != NULL)
t1->nflags |= (f & (FFIN | FPIN | FINTR));
execute(t1, NULL, NULL);
_exit(status);
}
glob_flag = false;
vscan(t->nav, &tglob);
if (glob_flag) {
for (i = 0; t->nav[i] != NULL; i++)
; /* nothing */
#ifdef DEBUG
#ifdef DEBUG_GLOB
fd_print(FD2, "execute: i == %2d;\n", i);
fd_print(FD2, " : (i + 2) == %2d;\n", (i + 2));
fd_print(FD2, " : (i + 1) == %2d;\n", (i + 1));
#endif
#endif
gav = xmalloc((i + 2) * sizeof(char *));
gav[0] = "glob6";
cmd = gav[0];
(void)memcpy(&gav[1], t->nav, (i + 1) * sizeof(char *));
#ifdef DEBUG
#ifdef DEBUG_GLOB
for (i = 0; gav[i] != NULL; i++)
fd_print(FD2, " : gav[%2d] == %s;\n",
i, gav[i]);
fd_print(FD2, " : gav[%2d] == NULL;\n", i);
#endif
#endif
(void)err_pexec(cmd, (char *const *)gav);
} else {
vscan(t->nav, &trim);
cmd = t->nav[0];
(void)err_pexec(cmd, (char *const *)t->nav);
}
/*NOTREACHED*/
}
}
int main(int argc, char **argv)
{
BN_GENCB *cb;
DSA *dsa = NULL;
int counter, ret = 0, i, j;
unsigned char buf[256];
unsigned long h;
unsigned char sig[256];
unsigned int siglen;
if (bio_err == NULL)
bio_err = BIO_new_fp(stderr, BIO_NOCLOSE | BIO_FP_TEXT);
CRYPTO_set_mem_debug(1);
CRYPTO_mem_ctrl(CRYPTO_MEM_CHECK_ON);
RAND_seed(rnd_seed, sizeof rnd_seed);
BIO_printf(bio_err, "test generation of DSA parameters\n");
cb = BN_GENCB_new();
if (!cb)
goto end;
BN_GENCB_set(cb, dsa_cb, bio_err);
if (((dsa = DSA_new()) == NULL) || !DSA_generate_parameters_ex(dsa, 512,
seed, 20,
&counter,
&h, cb))
goto end;
BIO_printf(bio_err, "seed\n");
for (i = 0; i < 20; i += 4) {
BIO_printf(bio_err, "%02X%02X%02X%02X ",
seed[i], seed[i + 1], seed[i + 2], seed[i + 3]);
}
BIO_printf(bio_err, "\ncounter=%d h=%ld\n", counter, h);
DSA_print(bio_err, dsa, 0);
if (counter != 105) {
BIO_printf(bio_err, "counter should be 105\n");
goto end;
}
if (h != 2) {
BIO_printf(bio_err, "h should be 2\n");
goto end;
}
i = BN_bn2bin(dsa->q, buf);
j = sizeof(out_q);
if ((i != j) || (memcmp(buf, out_q, i) != 0)) {
BIO_printf(bio_err, "q value is wrong\n");
goto end;
}
i = BN_bn2bin(dsa->p, buf);
j = sizeof(out_p);
if ((i != j) || (memcmp(buf, out_p, i) != 0)) {
BIO_printf(bio_err, "p value is wrong\n");
goto end;
}
i = BN_bn2bin(dsa->g, buf);
j = sizeof(out_g);
if ((i != j) || (memcmp(buf, out_g, i) != 0)) {
BIO_printf(bio_err, "g value is wrong\n");
goto end;
}
dsa->flags |= DSA_FLAG_NO_EXP_CONSTTIME;
DSA_generate_key(dsa);
DSA_sign(0, str1, 20, sig, &siglen, dsa);
if (DSA_verify(0, str1, 20, sig, siglen, dsa) == 1)
ret = 1;
dsa->flags &= ~DSA_FLAG_NO_EXP_CONSTTIME;
DSA_generate_key(dsa);
DSA_sign(0, str1, 20, sig, &siglen, dsa);
if (DSA_verify(0, str1, 20, sig, siglen, dsa) == 1)
ret = 1;
end:
if (!ret)
ERR_print_errors(bio_err);
DSA_free(dsa);
BN_GENCB_free(cb);
#ifndef OPENSSL_NO_CRYPTO_MDEBUG
if (CRYPTO_mem_leaks(bio_err) <= 0)
ret = 0;
#endif
BIO_free(bio_err);
bio_err = NULL;
EXIT(!ret);
}
int main(int argc,char **argv)
{
size_t preload_read;
const char *preload_buffer;
int yyparse_result;
tree_init();
#ifdef WITH_CGI
cgi_check_request();
if (cgi_status < 0) {
cgi_write_error_bad_req();
return 0;
}
#endif
params_set_defaults();
#ifdef WITH_CGI
if (!cgi_status)
process_parameters(argc, argv);
preload_buffer = charset_init_preload(param_inputf, &preload_read);
if (cgi_status > 0)
cgi_process_parameters(&preload_buffer, &preload_read);
charset_auto_detect(preload_read);
charset_preload_to_input(param_charset_in, preload_read);
if (cgi_status == CGI_ST_MULTIPART)
charset_cgi_boundary(boundary, boundary_len);
#else
/* process command line arguments */
process_parameters(argc, argv);
charset_init_preload(param_inputf, &preload_read);
charset_auto_detect(preload_read);
charset_preload_to_input(param_charset_in, preload_read);
#endif
/* intialize the converter */
saxStartDocument();
if (param_inputf != stdin)
parser_set_input(param_inputf);
/* parse the input file and convert it */
yyparse_result = yyparse();
if (yyparse_result) {
EXIT("Unrecoverable parse error");
}
charset_close();
saxEndDocument();
#ifdef WITH_CGI
if (!cgi_status) {
/* write the output */
if (writeOutput())
EXIT("Bad state in writeOutput()");
/* close de output file */
if (param_outputf != stdout)
fclose(param_outputf);
} else {
cgi_write_output();
}
#else
/* write the output */
if (writeOutput())
EXIT("Bad state in writeOutput()");
/* close de output file */
if (param_outputf != stdout)
fclose(param_outputf);
#endif
/* show final messages */
write_end_messages();
freeMemory();
return 0;
}
/*!
\brief updates the ms2 user_outputs controls which are a bit special purpose
\param widget is the pointer to the widget to update
*/
G_MODULE_EXPORT void update_ms2_user_outputs(GtkWidget *widget)
{
GtkTreeModel *model = NULL;
DataSize size = MTX_U08;
GtkTreeIter iter;
gint tmpi = 0;
gint t_bitval = 0;
gboolean valid = FALSE;
gfloat * multiplier = NULL;
gfloat * adder = NULL;
gchar *lower = NULL;
gchar *upper = NULL;
gchar *range = NULL;
gchar *tempc_range = NULL;
gchar *tempf_range = NULL;
gchar *tempk_range = NULL;
gchar *tmpbuf = NULL;
gchar *tmpstr = NULL;
gint bitmask = 0;
gint bitshift = 0;
gfloat tmpf = 0.0;
gfloat tmpf2 = 0.0;
gfloat value = 0.0;
gboolean temp_dep = FALSE;
gint i = 0;
gint precision = 0;
void *eval = NULL;
GtkWidget *tmpwidget = NULL;
ENTER();
/*printf("update_ms2_user_outputs widget %s %p\n",glade_get_widget_name(widget),(void *)widget);*/
get_essential_bits_f(widget, NULL, NULL, NULL, NULL, &bitmask, &bitshift);
value = convert_after_upload_f(widget);
tmpi = ((GINT)value & bitmask) >> bitshift;
model = gtk_combo_box_get_model(GTK_COMBO_BOX(widget));
valid = gtk_tree_model_get_iter_first(GTK_TREE_MODEL(model),&iter);
i = 0;
while (valid)
{
gtk_tree_model_get(GTK_TREE_MODEL(model),&iter,UO_BITVAL_COL,&t_bitval,-1);
if (tmpi == t_bitval)
{
/* Get the rest of the data from the combo */
gtk_tree_model_get(GTK_TREE_MODEL(model),&iter,
UO_TEMP_DEP_COL,&temp_dep,
UO_SIZE_COL,&size,
UO_RAW_LOWER_COL,&lower,
UO_RAW_UPPER_COL,&upper,
UO_RANGE_COL,&range,
UO_RANGE_TEMPC_COL,&tempc_range,
UO_RANGE_TEMPF_COL,&tempf_range,
UO_RANGE_TEMPK_COL,&tempk_range,
UO_PRECISION_COL,&precision,
UO_FROMECU_MULT_COL,&multiplier,
UO_FROMECU_ADD_COL,&adder,-1);
/*
if (temp_dep)
{
printf("THIS WIDGET IS TEMP DEPENDENT\n");
printf("raw_lower %s, raw_upper %s in treemodel\n",lower,upper);
if (multiplier)
printf("multiplier %f\n",*multiplier);
if (adder)
printf("adder %f\n",*adder);
printf("size %i, precision %i, temp_dep %i\n",(gint)size,precision,(gint)temp_dep);
}
*/
tmpbuf = (gchar *)OBJ_GET(widget,"range_label");
if (tmpbuf)
tmpwidget = lookup_widget_f(tmpbuf);
if (GTK_IS_LABEL(tmpwidget))
{
if (temp_dep)
{
OBJ_SET(tmpwidget,"widget_temp",DATA_GET(global_data,"mtx_temp_units"));
OBJ_SET(tmpwidget,"c_label",tempc_range);
OBJ_SET(tmpwidget,"f_label",tempf_range);
OBJ_SET(tmpwidget,"k_label",tempk_range);
bind_to_lists_f(tmpwidget,"temperature");
gtk_label_set_text(GTK_LABEL(tmpwidget),tempf_range);
convert_temps_f(tmpwidget,DATA_GET(global_data,"mtx_temp_units"));
}
else
{
remove_from_lists_f("temperature",tmpwidget);
OBJ_SET(tmpwidget,"widget_temp",NULL);
OBJ_SET(tmpwidget,"temp_dep",NULL);
/*OBJ_SET(tmpwidget,"c_label",NULL);
OBJ_SET(tmpwidget,"f_label",NULL);
OBJ_SET(tmpwidget,"k_label",NULL);
*/
gtk_label_set_text(GTK_LABEL(tmpwidget),range);
}
}
tmpbuf = (gchar *)OBJ_GET(widget,"thresh_widget");
if (tmpbuf)
tmpwidget = lookup_widget_f(tmpbuf);
if (GTK_IS_WIDGET(tmpwidget))
{
if (temp_dep)
{
OBJ_SET(tmpwidget,"widget_temp",DATA_GET(global_data,"mtx_temp_units"));
OBJ_SET(tmpwidget,"temp_dep",GINT_TO_POINTER(temp_dep));
bind_to_lists_f(tmpwidget,"temperature");
}
else
{
OBJ_SET(tmpwidget,"widget_temp",NULL);
OBJ_SET(tmpwidget,"temp_dep",NULL);
remove_from_lists_f("temperature",tmpwidget);
}
OBJ_SET(tmpwidget,"size",GINT_TO_POINTER(size));
OBJ_SET(tmpwidget,"precision",GINT_TO_POINTER(precision));
OBJ_SET(tmpwidget,"raw_lower",lower);
OBJ_SET(tmpwidget,"raw_upper",upper);
if (multiplier)
OBJ_SET(tmpwidget,"fromecu_mult",multiplier);
else
OBJ_SET(tmpwidget,"fromecu_mult",NULL);
if (adder)
OBJ_SET(tmpwidget,"fromecu_add",adder);
else
OBJ_SET(tmpwidget,"fromecu_add",NULL);
//convert_temps_f(tmpwidget,DATA_GET(global_data,"mtx_temp_units"));
update_widget_f(tmpwidget,NULL);
}
tmpbuf = (gchar *)OBJ_GET(widget,"hyst_widget");
if (tmpbuf)
tmpwidget = lookup_widget_f(tmpbuf);
if (GTK_IS_WIDGET(tmpwidget))
{
OBJ_SET(tmpwidget,"size",GINT_TO_POINTER(size));
OBJ_SET(tmpwidget,"precision",GINT_TO_POINTER(precision));
OBJ_SET(tmpwidget,"raw_lower",lower);
OBJ_SET(tmpwidget,"raw_upper",upper);
if (multiplier)
OBJ_SET(tmpwidget,"fromecu_mult",multiplier);
else
OBJ_SET(tmpwidget,"fromecu_mult",NULL);
if (adder)
OBJ_SET(tmpwidget,"fromecu_add",adder);
else
OBJ_SET(tmpwidget,"fromecu_add",NULL);
update_widget_f(tmpwidget,NULL);
}
g_free(range);
}
valid = gtk_tree_model_iter_next(GTK_TREE_MODEL(model), &iter);
i++;
}
EXIT();
return;
}
/*-------------------------------------------------------------------*/
static IFD
open_input_image (char *ifname, U16 *devt, U32 *vcyls,
U32 *itrkl, BYTE **itrkb, BYTE *volser)
{
int rc; /* Return code */
H30CKD_TRKHDR h30trkhdr; /* Input track header */
IFD ifd; /* Input file descriptor */
int len; /* Length of input */
U16 code; /* Device type code */
U16 dt; /* Device type */
U32 cyls; /* Device size (pri+alt cyls)*/
U32 alts; /* Number of alternate cyls */
BYTE *itrkbuf; /* -> Input track buffer */
U32 itrklen; /* Input track length */
BYTE *pbuf; /* Current byte in input buf */
BYTE klen; /* Key length */
U16 dlen; /* Data length */
BYTE *kptr; /* -> Key in input buffer */
BYTE *dptr; /* -> Data in input buffer */
U32 cyl; /* Cylinder number */
U32 head; /* Head number */
BYTE rec; /* Record number */
char pathname[MAX_PATH]; /* file path in host format */
hostpath(pathname, (char *)ifname, sizeof(pathname));
/* Open the HDR-30 CKD image file */
#if defined(HAVE_LIBZ)
if (strcmp(ifname, "-") == 0)
ifd = gzdopen (STDIN_FILENO, "rb");
else
ifd = gzopen (pathname, "rb");
if (ifd == NULL)
{
fprintf (stderr, MSG(HHC02412, "E", "gzopen()", strerror(errno)));
EXIT(3);
}
#else /*!defined(HAVE_LIBZ)*/
if (strcmp(ifname, "-") == 0)
ifd = STDIN_FILENO;
else
{
ifd = HOPEN (pathname, O_RDONLY | O_BINARY);
if (ifd < 0)
{
fprintf (stderr, MSG(HHC02412, "E", "open()", strerror(errno)));
EXIT(3);
}
}
#endif /*!defined(HAVE_LIBZ)*/
/* Read the first track header */
read_input_data (ifd, ifname, (BYTE*)&h30trkhdr,
H30CKD_TRKHDR_SIZE, 0);
#if !defined(HAVE_LIBZ)
/* Reject input if compressed and we lack gzip support */
if (memcmp(h30trkhdr.devcode, gz_magic_id, sizeof(gz_magic_id)) == 0)
{
fprintf (stderr, MSG(HHC02413, "E"));
EXIT(3);
}
#endif /*!defined(HAVE_LIBZ)*/
/* Reject input if it is already in CKD or CCKD format */
if (memcmp((BYTE*)&h30trkhdr, ckd_ident, sizeof(ckd_ident)) == 0)
{
fprintf (stderr, MSG(HHC02414, "I"));
EXIT(3);
}
/* Extract the device type code from the track header */
FETCH_HW (code, h30trkhdr.devcode);
/* Determine the input device type and size from the device code */
switch (code) {
case 0x01: dt=0x3330; cyls=411; alts=7; break; /* 3330 */
case 0x02: dt=0x3330; cyls=815; alts=7; break; /* 3330-11 */
case 0x03: dt=0x3340; cyls=351; alts=1; break; /* 3340-35 */
case 0x04: dt=0x3340; cyls=701; alts=1; break; /* 3340-70 */
case 0x05: dt=0x3350; cyls=562; alts=7; break; /* 3350 */
case 0x06: dt=0x3375; cyls=962; alts=3; break; /* 3375 */
case 0x08: dt=0x3380; cyls=888; alts=3; break; /* 3380-A,D,J*/
case 0x09: dt=0x3380; cyls=1774; alts=4; break; /* 3380-E */
case 0x0A: dt=0x3380; cyls=2660; alts=5; break; /* 3380-K */
case 0x0B: dt=0x3390; cyls=1117; alts=4; break; /* 3390-1 */
case 0x0C: dt=0x3390; cyls=2230; alts=4; break; /* 3390-2 */
case 0x0D: dt=0x3390; cyls=3343; alts=4; break; /* 3390-3 */
case 0x12: dt=0x2314; cyls=203; alts=3; break; /* 2314 */
case 0x13: dt=0x3390; cyls=10038; alts=21; break; /* 3390-9 */
case 0x14: dt=0x9345; cyls=1454; alts=14; break; /* 9345-1 */
case 0x15: dt=0x9345; cyls=2170; alts=14; break; /* 9345-2 */
default:
fprintf (stderr, MSG(HHC02415, "E", code));
EXIT(3);
} /* end switch(code) */
/* Use the device type to determine the input image track size */
switch (dt) {
case 0x2314: itrklen = 0x2000; break;
case 0x3330: itrklen = 0x3400; break;
case 0x3340: itrklen = 0x2400; break;
case 0x3350: itrklen = 0x4C00; break;
case 0x3375: itrklen = 0x9000; break;
case 0x3380: itrklen = 0xBC00; break;
case 0x3390: itrklen = 0xE400; break;
case 0x9345: itrklen = 0xBC00; break;
default:
fprintf (stderr, MSG(HHC02416, "E", dt));
EXIT(3);
} /* end switch(dt) */
/* Obtain the input track buffer */
itrkbuf = malloc (itrklen);
if (itrkbuf == NULL)
{
char buf[40];
MSGBUF( buf, "malloc(%u)", itrklen);
fprintf (stderr, MSG(HHC02412, "E", buf, strerror(errno)));
EXIT(3);
}
/* Copy the first track header to the input track buffer */
memcpy (itrkbuf, &h30trkhdr, H30CKD_TRKHDR_SIZE);
/* Read the remainder of the first track into the buffer */
read_input_data (ifd, ifname,
itrkbuf + H30CKD_TRKHDR_SIZE,
itrklen - H30CKD_TRKHDR_SIZE,
H30CKD_TRKHDR_SIZE);
/* Initialize the volume serial number */
strcpy ((char *)volser, "(NONE)");
/* Search for volume label in record 3 of first track */
pbuf = itrkbuf + H30CKD_TRKHDR_SIZE;
len = itrklen - H30CKD_TRKHDR_SIZE;
while (1)
{
/* Find next input record */
rc = find_input_record (itrkbuf, &pbuf, &len,
&klen, &kptr, &dlen, &dptr,
&cyl, &head, &rec);
/* Give up if error or end of track */
if (rc != 0) break;
/* Process when record 3 is found */
if (cyl == 0 && head == 0 && rec == 3)
{
/* Extract volser if it is a volume label */
if (klen == 4 && memcmp(kptr, ebcdicvol1, 4) == 0
&& dlen == 80 && memcmp(dptr, ebcdicvol1, 4) == 0)
make_asciiz ((char *)volser, 7, dptr+4, 6);
break;
}
} /* end while */
/* Set output variables and return the input file descriptor */
*devt = dt;
*vcyls = cyls - alts;
*itrkl = itrklen;
*itrkb = itrkbuf;
return ifd;
} /* end function open_input_image */
/*-------------------------------------------------------------------*/
static void
convert_ckd_file (IFD ifd, char *ifname, int itrklen, BYTE *itrkbuf,
int repl, int quiet,
char *ofname, int fseqn, U16 devtype, U32 heads,
U32 trksize, BYTE *obuf, U32 start, U32 end,
U32 volcyls, BYTE *volser)
{
int rc; /* Return code */
int ofd; /* Output file descriptor */
CKDDASD_DEVHDR devhdr; /* Output device header */
CKDDASD_TRKHDR *trkhdr; /* -> Output track header */
CKDDASD_RECHDR *rechdr; /* -> Output record header */
U32 cyl; /* Cylinder number */
U32 head; /* Head number */
int fileseq; /* CKD header sequence number*/
int highcyl; /* CKD header high cyl number*/
BYTE *opos; /* -> Byte in output buffer */
BYTE klen; /* Key length */
U16 dlen; /* Data length */
BYTE rec; /* Record number */
BYTE *iptr; /* -> Byte in input buffer */
BYTE *kptr; /* -> Key in input buffer */
BYTE *dptr; /* -> Data in input buffer */
int ilen; /* Bytes left in input buffer*/
H30CKD_TRKHDR *ith; /* -> Input track header */
U32 ihc, ihh; /* Input trk header cyl,head */
U32 offset; /* Current input file offset */
char pathname[MAX_PATH]; /* file path in host format */
UNREFERENCED(volser);
/* Set file sequence number to zero if this is the only file */
if (fseqn == 1 && end + 1 == volcyls)
fileseq = 0;
else
fileseq = fseqn;
/* Set high cylinder number to zero if this is the last file */
if (end + 1 == volcyls)
highcyl = 0;
else
highcyl = end;
/* Create the AWSCKD image file */
hostpath(pathname, (char *)ofname, sizeof(pathname));
ofd = HOPEN (pathname,
O_WRONLY | O_CREAT | O_BINARY | (repl ? 0 : O_EXCL),
S_IRUSR | S_IWUSR | S_IRGRP);
if (ofd < 0)
{
fprintf (stderr, MSG(HHC02412, "E", "open()", strerror(errno)));
EXIT(8);
}
/* Create the device header */
memset(&devhdr, 0, CKDDASD_DEVHDR_SIZE);
memcpy(devhdr.devid, "CKD_P370", 8);
devhdr.heads[3] = (heads >> 24) & 0xFF;
devhdr.heads[2] = (heads >> 16) & 0xFF;
devhdr.heads[1] = (heads >> 8) & 0xFF;
devhdr.heads[0] = heads & 0xFF;
devhdr.trksize[3] = (trksize >> 24) & 0xFF;
devhdr.trksize[2] = (trksize >> 16) & 0xFF;
devhdr.trksize[1] = (trksize >> 8) & 0xFF;
devhdr.trksize[0] = trksize & 0xFF;
devhdr.devtype = devtype & 0xFF;
devhdr.fileseq = fileseq;
devhdr.highcyl[1] = (highcyl >> 8) & 0xFF;
devhdr.highcyl[0] = highcyl & 0xFF;
/* Write the device header */
rc = write (ofd, &devhdr, CKDDASD_DEVHDR_SIZE);
if (rc < CKDDASD_DEVHDR_SIZE)
{
fprintf (stderr, MSG(HHC02412, "E", "write()", errno ? strerror(errno) : "incomplete"));
EXIT(1);
}
/* Write each cylinder */
for (cyl = start; cyl <= end; cyl++)
{
/* Display progress message every 10 cylinders */
if ((cyl % 10) == 0)
{
#ifdef EXTERNALGUI
if (extgui)
fprintf (stderr, "CYL=%u\n", cyl);
else
#endif /*EXTERNALGUI*/
if (quiet == 0)
fprintf (stderr, "Writing cylinder %u\r", cyl);
}
for (head = 0; head < heads; head++)
{
/* Calculate the current offset in the file */
offset = ((cyl*heads)+head)*itrklen;
/* Read the input track image (except cyl 0 head 0
already read by the open_input_image procedure) */
if (cyl > 0 || head > 0)
{
read_input_data (ifd, ifname,
itrkbuf, itrklen,
offset);
} /* end if(cyl>0||head>0) */
/* Validate the track header */
ith = (H30CKD_TRKHDR*)itrkbuf;
FETCH_HW (ihc, ith->cyl);
FETCH_HW (ihh, ith->head);
if (ihc != cyl || ihh != head)
{
fprintf (stderr, MSG(HHC02417, "E", offset));
fprintf (stderr, MSG(HHC02418, "E",
cyl, head, ihc, ihh));
EXIT(8);
}
/* Clear the output track image to zeroes */
memset (obuf, 0, trksize);
/* Build the output track header */
trkhdr = (CKDDASD_TRKHDR*)obuf;
trkhdr->bin = 0;
STORE_HW (trkhdr->cyl, cyl);
STORE_HW (trkhdr->head, head);
opos = obuf + CKDDASD_TRKHDR_SIZE;
/* Copy each record from the input buffer */
iptr = itrkbuf + H30CKD_TRKHDR_SIZE;
ilen = itrklen - H30CKD_TRKHDR_SIZE;
while (1)
{
/* Locate the next input record */
rc = find_input_record (itrkbuf, &iptr, &ilen,
&klen, &kptr, &dlen, &dptr,
&ihc, &ihh, &rec);
/* Exit at end of track */
if (rc == 1) break;
/* Error if invalid record header detected */
if (rc > 1)
{
fprintf (stderr, MSG(HHC02419, "E",
rc, (unsigned int)(iptr-itrkbuf), cyl, head,
offset, ifname));
EXIT(9);
}
/* Build AWSCKD record header in output buffer */
rechdr = (CKDDASD_RECHDR*)opos;
opos += CKDDASD_RECHDR_SIZE;
STORE_HW (rechdr->cyl, ihc);
STORE_HW (rechdr->head, ihh);
rechdr->rec = rec;
rechdr->klen = klen;
STORE_HW (rechdr->dlen, dlen);
/* Copy key and data to output buffer */
if (klen != 0)
{
memcpy (opos, kptr, klen);
opos += klen;
}
if (dlen != 0)
{
memcpy (opos, dptr, dlen);
opos += dlen;
}
} /* end while */
/* Build the end of track marker */
memcpy (opos, eighthexFF, 8);
/* Write the track to the file */
rc = write (ofd, obuf, trksize);
if (rc < 0 || (U32)rc < trksize)
{
fprintf (stderr, MSG(HHC02412, "E", "write()",
errno ? strerror(errno) : "incomplete"));
EXIT(1);
}
} /* end for(head) */
} /* end for(cyl) */
/* Close the AWSCKD image file */
rc = close (ofd);
if (rc < 0)
{
fprintf (stderr, MSG(HHC02412, "E", "close()", strerror(errno)));
EXIT(10);
}
/* Display completion message */
fprintf (stderr, MSG(HHC02420, "I",
cyl - start, ofname));
} /* end function convert_ckd_file */
/*! Receive message from queue (global or from own thread message queue) */
int sys__msg_recv ( void *p )
{
/* parameters on thread stack */
int src_type; /* MSG_QUEUE or MSG_THREAD */
void *src; /* (msg_q *) or (thread_t *) */
msg_t *msg; /* { type, size, data[0..size-1] } */
int type; /* message type (identifier) */
size_t size; /* size of 'data' member */
uint flags;
/* local variables */
kthread_t *kthr;
kthrmsg_qs *thrmsg;
kgmsg_q *kgmsgq;
kmsg_q *kmsgq;
msg_q *msgq;
kmsg_t *kmsg;
src_type = *( (int *) p ); p += sizeof (int);
src = *( (void **) p ); p += sizeof (void *);
msg = *( (msg_t **) p ); p += sizeof (msg_t *);
type = *( (int *) p ); p += sizeof (int);
size = *( (size_t *) p ); p += sizeof (size_t);
flags = *( (uint *) p );
ASSERT_ERRNO_AND_EXIT ( src && msg, E_INVALID_HANDLE );
ASSERT_ERRNO_AND_EXIT ( src_type == MSG_THREAD || src_type == MSG_QUEUE,
E_INVALID_TYPE );
if ( src_type == MSG_THREAD )
{
kthr = k_get_active_thread ();
thrmsg = k_get_thrmsg ( kthr );
kmsgq = &thrmsg->msgq;
}
else { /* src_type == MSG_QUEUE */
msgq = src;
kgmsgq = msgq->handle;
ASSERT_ERRNO_AND_EXIT ( kgmsgq && kgmsgq->id == msgq->id,
E_INVALID_HANDLE );
kmsgq = &kgmsgq->mq;
}
/* get first message from queue */
kmsg = list_get ( &kmsgq->msgs, FIRST );
if ( type != 0 ) /* type != 0 => search for first message 'type' */
while ( kmsg && kmsg->msg.type != type )
kmsg = list_get_next ( &kmsg->list );
if ( kmsg ) /* have message */
{
if ( size < kmsg->msg.size )
{
msg->size = 0;
EXIT ( E_TOO_BIG );
}
msg->type = kmsg->msg.type;
msg->size = kmsg->msg.size;
memcpy ( msg->data, kmsg->msg.data, msg->size );
kmsg = list_remove ( &kmsgq->msgs, FIRST, &kmsg->list );
ASSERT ( kmsg );
kfree ( kmsg );
EXIT ( SUCCESS );
}
else { /* queue empty! */
if ( !( flags & IPC_WAIT ) )
EXIT ( E_EMPTY );
SET_ERRNO ( E_RETRY );
/* block thread */
k_enqueue_thread ( NULL, &kmsgq->thrq );
k_schedule_threads ();
RETURN ( E_RETRY );
}
}
/*-------------------------------------------------------------------*/
int main ( int argc, char *argv[] )
{
char *pgmname; /* prog name in host format */
char *pgm; /* less any extension (.ext) */
char msgbuf[512]; /* message build work area */
IFD ifd; /* Input file descriptor */
int repl = 0; /* 1=replace existing file */
int quiet = 0; /* 1=suppress progress msgs */
BYTE *itrkbuf; /* -> Input track buffer */
U32 itrklen; /* Input track length */
U32 volcyls; /* Total cylinders on volume */
U32 heads = 0; /* Number of tracks/cylinder */
U32 maxdlen = 0; /* Maximum R1 data length */
U16 devtype; /* Device type */
char ifname[256]; /* Input file name */
char ofname[256]; /* Output file name */
BYTE volser[7]; /* Volume serial (ASCIIZ) */
int lfs = 0; /* 1 = Build large file */
char *strtok_str = NULL;
/* Set program name */
if ( argc > 0 )
{
if ( strlen(argv[0]) == 0 )
{
pgmname = strdup( UTILITY_NAME );
}
else
{
char path[MAX_PATH];
#if defined( _MSVC_ )
GetModuleFileName( NULL, path, MAX_PATH );
#else
strncpy( path, argv[0], sizeof( path ) );
#endif
pgmname = strdup(basename(path));
#if !defined( _MSVC_ )
strncpy( path, argv[0], sizeof(path) );
#endif
}
}
else
{
pgmname = strdup( UTILITY_NAME );
}
pgm = strtok_r( strdup(pgmname), ".", &strtok_str);
INITIALIZE_UTILITY( pgm );
/* Display the program identification message */
MSGBUF( msgbuf, MSG_C( HHC02499, "I", pgm, "DASD CKD image conversion" ) );
display_version (stderr, msgbuf+10, FALSE);
/* Process the options in the argument list */
for (; argc > 1; argc--, argv++)
{
if (strcmp(argv[1], "-") == 0) break;
if (argv[1][0] != '-') break;
if (strcmp(argv[1], "-r") == 0)
repl = 1;
else if (strcmp(argv[1], "-q") == 0)
quiet = 1;
else
if (sizeof(off_t) > 4 && strcmp(argv[1], "-lfs") == 0)
lfs = 1;
else
argexit(5, pgm);
}
if (argc != 3)
argexit(5, pgm);
/* The first argument is the input file name */
if (argv[1] == NULL || strlen(argv[1]) == 0
|| strlen(argv[1]) > sizeof(ifname)-1)
argexit(1, pgm);
strcpy (ifname, argv[1]);
/* The second argument is the output file name */
if (argv[2] == NULL || strlen(argv[2]) == 0
|| strlen(argv[2]) > sizeof(ofname)-1)
argexit(2, pgm);
strcpy (ofname, argv[2]);
/* Read the first track of the input file, and determine
the device type and size from the track header */
ifd = open_input_image (ifname, &devtype, &volcyls,
&itrklen, &itrkbuf, volser);
/* Use the device type to determine track characteristics */
switch (devtype) {
case 0x2314: heads = 20; maxdlen = 7294; break;
case 0x3330: heads = 19; maxdlen = 13030; break;
case 0x3340: heads = 12; maxdlen = 8368; break;
case 0x3350: heads = 30; maxdlen = 19069; break;
case 0x3375: heads = 12; maxdlen = 35616; break;
case 0x3380: heads = 15; maxdlen = 47476; break;
case 0x3390: heads = 15; maxdlen = 56664; break;
case 0x9345: heads = 15; maxdlen = 46456; break;
default:
fprintf (stderr, MSG(HHC02416, "E", devtype));
EXIT(3);
} /* end switch(devtype) */
/* Create the device */
convert_ckd (lfs, ifd, ifname, itrklen, itrkbuf, repl, quiet,
ofname, devtype, heads, maxdlen, volcyls, volser);
/* Release the input buffer and close the input file */
free (itrkbuf);
IFCLOS (ifd);
/* Display completion message */
fprintf (stderr, MSG(HHC02423, "I"));
return 0;
} /* end function main */
void OnCmdStart(CCommandParser* pParser)
{
if(!s_vtClients.empty())
{
::LogClientStartFail(SE_ILLEGAL_STATE, ::HP_GetSocketErrorDesc(SE_ILLEGAL_STATE));
return;
}
s_stat.Reset();
for(DWORD i = 0; i < g_app_arg.conn_count; i++)
{
CSSLClientPtr pSocket(&s_listener);
if(!pSocket->SetupSSLContext(g_c_iVerifyMode, g_c_lpszPemCertFile, g_c_lpszPemKeyFile, g_c_lpszKeyPasswod, g_c_lpszCAPemCertFileOrPath))
{
int iErrCode = ::SYS_GetLastError();
::LogClientStartFail(iErrCode, _T("initialize SSL env fail"));
ClearHPSocketPtrSet(s_vtClients);
EXIT(EX_CONFIG, iErrCode);
}
pSocket->SetKeepAliveTime(g_app_arg.keep_alive ? TCP_KEEPALIVE_TIME : 0);
if(pSocket->Start(g_app_arg.remote_addr, g_app_arg.port, g_app_arg.async))
s_vtClients.push_back(pSocket.Detach());
else
{
::LogClientStartFail(pSocket->GetLastError(), pSocket->GetLastErrorDesc());
ClearHPSocketPtrSet(s_vtClients);
return;
}
}
::LogClientStart(g_app_arg.remote_addr, g_app_arg.port);
DWORD dwSendDelay = 3;
CString strMsg;
strMsg.Format(_T("*** willing to send data after %d seconds ***"), dwSendDelay);
::LogMsg(strMsg);
::WaitFor(dwSendDelay * 500);
while(true)
{
int iConnected = s_stat.GetConnected();
if(iConnected < 0)
{
ClearHPSocketPtrSet(s_vtClients);
::LogClientStartFail(ERROR_CONNREFUSED, ::HP_GetSocketErrorDesc(SE_CONNECT_SERVER));
return;
}
else if(iConnected == (int)g_app_arg.conn_count)
break;
::WaitFor(3);
}
::WaitFor(dwSendDelay * 500);
s_sendBuffer.Malloc(g_app_arg.data_length, true);
::LogMsg(_T("*** Go Now ! ***"));
s_stat.StartTest();
BOOL bTerminated = FALSE;
for(DWORD i = 0; i < g_app_arg.test_times; i++)
{
for(DWORD j = 0; j < g_app_arg.conn_count; j++)
{
ITcpClient* pSocket = s_vtClients[j];
if(!pSocket->Send(s_sendBuffer, (int)s_sendBuffer.Size()))
{
::LogClientSendFail(i + 1, j + 1, ::SYS_GetLastError(), ::HP_GetSocketErrorDesc(SE_DATA_SEND));
bTerminated = TRUE;
break;
}
}
if(bTerminated)
break;
if(g_app_arg.test_interval > 0 && i + 1 < g_app_arg.test_times)
::WaitFor(g_app_arg.test_interval);
}
if(bTerminated)
ClearHPSocketPtrSet(s_vtClients);
s_sendBuffer.Free();
}
int main(int argc,char **argv)
{
const char *szTestFile;
FILE *f;
if(argc != 2)
{
fprintf(stderr,"%s <test file>\n",argv[0]);
EXIT(1);
}
CRYPTO_malloc_debug_init();
CRYPTO_set_mem_debug_options(V_CRYPTO_MDEBUG_ALL);
CRYPTO_mem_ctrl(CRYPTO_MEM_CHECK_ON);
szTestFile=argv[1];
f=fopen(szTestFile,"r");
if(!f)
{
perror(szTestFile);
EXIT(2);
}
/* Load up the software EVP_CIPHER and EVP_MD definitions */
OpenSSL_add_all_ciphers();
OpenSSL_add_all_digests();
#ifndef OPENSSL_NO_ENGINE
/* Load all compiled-in ENGINEs */
ENGINE_load_builtin_engines();
#endif
#if 0
OPENSSL_config();
#endif
#ifndef OPENSSL_NO_ENGINE
/* Register all available ENGINE implementations of ciphers and digests.
* This could perhaps be changed to "ENGINE_register_all_complete()"? */
ENGINE_register_all_ciphers();
ENGINE_register_all_digests();
/* If we add command-line options, this statement should be switchable.
* It'll prevent ENGINEs being ENGINE_init()ialised for cipher/digest use if
* they weren't already initialised. */
/* ENGINE_set_cipher_flags(ENGINE_CIPHER_FLAG_NOINIT); */
#endif
for( ; ; )
{
char line[4096];
char *p;
char *cipher;
unsigned char *iv,*key,*plaintext,*ciphertext;
int encdec;
int kn,in,pn,cn;
if(!fgets((char *)line,sizeof line,f))
break;
if(line[0] == '#' || line[0] == '\n')
continue;
p=line;
cipher=sstrsep(&p,":");
key=ustrsep(&p,":");
iv=ustrsep(&p,":");
plaintext=ustrsep(&p,":");
ciphertext=ustrsep(&p,":");
if (p[-1] == '\n') {
p[-1] = '\0';
encdec = -1;
} else {
encdec = atoi(sstrsep(&p,"\n"));
}
kn=convert(key);
in=convert(iv);
pn=convert(plaintext);
cn=convert(ciphertext);
if(!test_cipher(cipher,key,kn,iv,in,plaintext,pn,ciphertext,cn,encdec)
&& !test_digest(cipher,plaintext,pn,ciphertext,cn))
{
#ifdef OPENSSL_NO_AES
if (strstr(cipher, "AES") == cipher)
{
fprintf(stdout, "Cipher disabled, skipping %s\n", cipher);
continue;
}
#endif
#ifdef OPENSSL_NO_DES
if (strstr(cipher, "DES") == cipher)
{
fprintf(stdout, "Cipher disabled, skipping %s\n", cipher);
continue;
}
#endif
#ifdef OPENSSL_NO_RC4
if (strstr(cipher, "RC4") == cipher)
{
fprintf(stdout, "Cipher disabled, skipping %s\n", cipher);
continue;
}
#endif
#ifdef OPENSSL_NO_CAMELLIA
if (strstr(cipher, "CAMELLIA") == cipher)
{
fprintf(stdout, "Cipher disabled, skipping %s\n", cipher);
continue;
}
#endif
#ifdef OPENSSL_NO_SEED
if (strstr(cipher, "SEED") == cipher)
{
fprintf(stdout, "Cipher disabled, skipping %s\n", cipher);
continue;
}
#endif
fprintf(stderr,"Can't find %s\n",cipher);
EXIT(3);
}
}
fclose(f);
#ifndef OPENSSL_NO_ENGINE
ENGINE_cleanup();
#endif
EVP_cleanup();
CRYPTO_cleanup_all_ex_data();
ERR_remove_thread_state(NULL);
ERR_free_strings();
CRYPTO_mem_leaks_fp(stderr);
return 0;
}
static int test1_exit(int ec)
{
EXIT(ec);
return(0); /* To keep some compilers quiet */
}
// Upon return no more I/O is possible. The stream is closed.
//
// If ne_close indicates a recoverable error, then the object is
// logged to the "degraded object log".
int mc_sync(DAL_Context* ctx) {
ENTRY();
ObjectStream* os = MC_OS(ctx);
ne_handle handle = MC_HANDLE(ctx);
MC_Config* config = MC_CONFIG(ctx);
MC_Context* mc_context = MC_CONTEXT(ctx);
if(! (os->flags & OSF_OPEN)) {
LOG(LOG_ERR, "%s isn't open\n", os->url);
errno = EINVAL;
return -1;
}
// the result of close for a handle opened for reading is an
// indicator of whether the data is degraded and, if so, which
// block is corrupt or missing.
int error_pattern = ne_close(handle);
if(error_pattern > 0) {
// Keeping the log message as well as writing to the degraded
// object file for debugging purposes.
LOG(LOG_INFO, "WARNING: Object %s degraded. Error pattern: 0x%x."
" (N: %d, E: %d, Start: %d).\n",
mc_context->path_template, error_pattern,
config->n, config->e, mc_context->start_block);
// we shouldn't need more then 512 bytes to hold the extra data
// needed for rebuild
char buf[MC_MAX_LOG_LEN];
snprintf(buf, MC_MAX_LOG_LEN,
MC_DEGRADED_LOG_FORMAT, mc_context->path_template,
config->n, config->e,
mc_context->start_block, error_pattern,
MC_FH(ctx)->info.pre.repo->name,
mc_context->pod, mc_context->cap);
WAIT(&config->lock);
// If the degraded log file has not already been opened, open it now.
if(config->degraded_log_fd == -1) {
config->degraded_log_fd =
open_degraded_object_log(config->degraded_log_path);
if(config->degraded_log_fd < 0) {
LOG(LOG_ERR, "failed to open degraded log file\n");
}
else {
// If we successfully opened it, then free the resources
// used to store the path.
free(config->degraded_log_path);
config->degraded_log_path = NULL;
}
}
if(write(config->degraded_log_fd, buf, strlen(buf))
!= strlen(buf)) {
LOG(LOG_ERR, "Failed to write to degraded object log\n");
// theoretically the data is still safe, so we can just log
// and ignore the failure.
}
POST(&config->lock);
}
else if(error_pattern < 0) {
// close the stream, a failed sync renders the ne_handle
// invalid calling mc_close should prevent marfs from ever
// trying to use it again.
mc_close(ctx);
os->flags |= OSF_ERRORS;
LOG(LOG_ERR, "ne_close failed on %s", mc_context->path_template);
return -1;
}
EXIT();
return 0;
}
/*-------------------------------------------------------------------*/
static void
convert_ckd (int lfs, IFD ifd, char *ifname, int itrklen,
BYTE *itrkbuf, int repl, int quiet,
char *ofname, U16 devtype, U32 heads,
U32 maxdlen, U32 volcyls, BYTE *volser)
{
int i; /* Array subscript */
char *s; /* String pointer */
int fileseq; /* File sequence number */
char sfname[260]; /* Suffixed name of this file*/
char *suffix; /* -> Suffix character */
U32 endcyl; /* Last cylinder of this file*/
U32 cyl; /* Cylinder number */
U32 cylsize; /* Cylinder size in bytes */
BYTE *obuf; /* -> Output track buffer */
U32 mincyls; /* Minimum cylinder count */
U32 maxcyls; /* Maximum cylinder count */
U32 maxcpif; /* Maximum number of cylinders
in each CKD image file */
int rec0len = 8; /* Length of R0 data */
U32 trksize; /* AWSCKD image track length */
/* Compute the AWSCKD image track length */
trksize = sizeof(CKDDASD_TRKHDR)
+ sizeof(CKDDASD_RECHDR) + rec0len
+ sizeof(CKDDASD_RECHDR) + maxdlen
+ sizeof(eighthexFF);
trksize = ROUND_UP(trksize,512);
/* Compute minimum and maximum number of cylinders */
cylsize = trksize * heads;
mincyls = 1;
if (!lfs)
{
maxcpif = 0x80000000 / cylsize;
maxcyls = maxcpif * CKD_MAXFILES;
}
else
maxcpif = maxcyls = volcyls;
if (maxcyls > 65536) maxcyls = 65536;
/* Check for valid number of cylinders */
if (volcyls < mincyls || volcyls > maxcyls)
{
fprintf (stderr, MSG(HHC02421, "E",
volcyls, mincyls, maxcyls));
EXIT(4);
}
/* Obtain track data buffer */
obuf = malloc(trksize);
if (obuf == NULL)
{
char buf[40];
MSGBUF( buf, "malloc(%u)", trksize);
fprintf (stderr, MSG(HHC02412, "E", buf, strerror(errno)));
EXIT(6);
}
/* Display progress message */
fprintf (stderr, MSG(HHC02422, "I",
devtype, volser, volcyls, heads, trksize));
#ifdef EXTERNALGUI
if (extgui)
fprintf (stderr, "CYLS=%u\n", volcyls);
#endif /*EXTERNALGUI*/
/* Copy the unsuffixed AWSCKD image file name */
strcpy (sfname, ofname);
suffix = NULL;
/* Create the suffixed file name if volume will exceed 2GB */
if (volcyls > maxcpif)
{
/* Look for last slash marking end of directory name */
s = strrchr (ofname, '/');
if (s == NULL) s = ofname;
/* Insert suffix before first dot in file name, or
append suffix to file name if there is no dot */
s = strchr (s, '.');
if (s != NULL)
{
i = s - ofname;
strcpy (sfname + i, "_1");
strcat (sfname, ofname + i);
suffix = sfname + i + 1;
}
else
{
strcat (sfname, "_1");
suffix = sfname + strlen(sfname) - 1;
}
}
/* Create the AWSCKD image files */
for (cyl = 0, fileseq = 1; cyl < volcyls;
cyl += maxcpif, fileseq++)
{
/* Insert the file sequence number in the file name */
if (suffix) *suffix = '0' + fileseq;
/* Calculate the ending cylinder for this file */
if (cyl + maxcpif < volcyls)
endcyl = cyl + maxcpif - 1;
else
endcyl = volcyls - 1;
/* Create an AWSCKD image file */
convert_ckd_file (ifd, ifname, itrklen, itrkbuf, repl, quiet,
sfname, fileseq, devtype, heads, trksize,
obuf, cyl, endcyl, volcyls, volser);
}
/* Release the output track buffer */
free (obuf);
} /* end function convert_ckd */
static void process_parameters(int argc, char **argv)
{
int i, fich, tmpnum;
/* process command line arguments */
for (i=1, fich=0; i<argc; i++) {
if (!strcmp(argv[i], "-e")) {
param_strict = 0;
} else if (!strcmp(argv[i], "-t") && ((i+1) < argc)) {
param_doctype = dtd_get_dtd_index(argv[++i]);
} else if (!strcmp(argv[i], "-o") && ((i+1) < argc)) {
/* open the output file */
param_outputf = fopen(argv[++i], "wb");
if (!param_outputf) {
perror("fopen");
EXIT("Could not open the output file for writing");
}
} else if (!strcmp(argv[i], "-l") && ((i+1) < argc)) {
tmpnum= atoi(argv[++i]);
if (tmpnum >= 40)
param_chars_per_line = tmpnum;
} else if (!strcmp(argv[i], "-b") && ((i+1) < argc)) {
tmpnum= atoi(argv[++i]);
if (tmpnum >= 0 && tmpnum <= 16)
param_tab_len = tmpnum;
} else if (!strcmp(argv[i], "--preserve-space-comments")) {
param_pre_comments = 1;
} else if (!strcmp(argv[i], "--no-protect-cdata")) {
param_protect_cdata = 0;
} else if (!strcmp(argv[i], "--compact-block-elements")) {
param_compact_block_elms = 1;
} else if (!strcmp(argv[i], "--compact-empty-elem-tags")) {
param_compact_empty_elm_tags = 1;
} else if (!strcmp(argv[i], "--empty-elm-tags-always")) {
param_empty_tags = 1;
} else if (!strcmp(argv[i], "--dos-eol")) {
param_crlf_eol = 1;
} else if (!fich && argv[i][0]!='-') {
fich = 1;
param_inputf = fopen(argv[i], "r");
if (!param_inputf) {
perror("fopen");
EXIT("Could not open the input file for reading");
}
} else if (!strcmp(argv[i], "--help") || !strcmp(argv[i], "-h")) {
help();
exit(0);
} else if (!strcmp(argv[i], "--version") || !strcmp(argv[i], "-v")) {
print_version();
exit(0);
} else if (!strcmp(argv[i], "-L")) {
print_doctype_keys();
exit(0);
} else if (!strcmp(argv[i], "--ics") && ((i+1) < argc)) {
param_charset_in = charset_lookup_alias(argv[++i]);
if (!param_charset_in) {
EPRINTF1("Trying to set input character set: %s\n", argv[i]);
EXIT("Unsupported character set");
}
} else if (!strcmp(argv[i], "--ocs") && ((i+1) < argc)) {
param_charset_out = charset_lookup_alias(argv[++i]);
if (!param_charset_out) {
EPRINTF1("Trying to set output character set: %s\n", argv[i]);
EXIT("Unsupported character set");
}
} else if (!strcmp(argv[i], "--lcs")) {
charset_dump_aliases(stdout);
exit(0);
} else if (!strcmp(argv[i], "--generate-snippet")) {
param_generate_snippet = 1;
} else {
help();
exit(1);
}
}
}
NTSTATUS
t1394Cmdr_SystemSetPowerIrpCompletion(
IN PDEVICE_OBJECT DeviceObject,
IN PIRP Irp,
IN PVOID NotUsed
)
{
PDEVICE_EXTENSION deviceExtension = DeviceObject->DeviceExtension;
NTSTATUS ntStatus = Irp->IoStatus.Status;
PIO_STACK_LOCATION stack = IoGetCurrentIrpStackLocation(Irp);
POWER_STATE state = stack->Parameters.Power.State;
POWER_COMPLETION_CONTEXT *powerContext = NULL;
PIRP pDIrp = NULL;
ENTER("t1394Cmdr_SystemPowerIrpCompletion");
if (!NT_SUCCESS(ntStatus)) {
TRACE(TL_TRACE, ("Set System Power Irp failed, status = 0x%x\n", ntStatus));
PoStartNextPowerIrp(Irp);
ntStatus = STATUS_SUCCESS;
goto Exit_SystemSetPowerIrpCompletion;
}
// allocate powerContext
powerContext = (POWER_COMPLETION_CONTEXT*)
ExAllocatePool(NonPagedPool, sizeof(POWER_COMPLETION_CONTEXT));
if (!powerContext) {
TRACE(TL_TRACE, ("Failed to allocate powerContext, status = 0x%x\n", ntStatus));
ntStatus = STATUS_INSUFFICIENT_RESOURCES;
goto Exit_SystemSetPowerIrpCompletion;
} else {
if (state.SystemState == PowerSystemWorking) {
state.DeviceState = PowerDeviceD0;
}
else {
state.DeviceState = PowerDeviceD3;
}
powerContext->DeviceObject = DeviceObject;
powerContext->SIrp = Irp;
ntStatus = PoRequestPowerIrp(deviceExtension->StackDeviceObject,
IRP_MN_SET_POWER,
state,
t1394Cmdr_DeviceSetPowerIrpCompletion,
powerContext,
&pDIrp);
TRACE(TL_TRACE, ("New Device Set Power Irp = 0x%x\n", pDIrp));
}
Exit_SystemSetPowerIrpCompletion:
if (!NT_SUCCESS(ntStatus)) {
TRACE(TL_TRACE, ("System SetPowerIrp Completion routine failed = 0x%x\n", ntStatus));
if (powerContext) {
ExFreePool(powerContext);
}
PoStartNextPowerIrp(Irp);
Irp->IoStatus.Status = ntStatus;
}
else
{
ntStatus = STATUS_MORE_PROCESSING_REQUIRED;
}
EXIT("t1394Cmdr_SystemPowerIrpCompletion", ntStatus);
return ntStatus;
}
Window::Window(int width, int height, bool enableVsync)
:m_window(nullptr), m_context(nullptr), m_width(width), m_height(height)
{
if(!init(enableVsync))
EXIT("Window initialization failed.");
}
VOID
t1394Cmdr_DeviceSetPowerIrpCompletion(
PDEVICE_OBJECT DeviceObject,
UCHAR MinorFunction,
POWER_STATE state,
POWER_COMPLETION_CONTEXT* PowerContext,
PIO_STATUS_BLOCK IoStatus
)
{
PDEVICE_EXTENSION deviceExtension = (PDEVICE_EXTENSION) PowerContext->DeviceObject->DeviceExtension;
PIRP sIrp = PowerContext->SIrp;
NTSTATUS ntStatus = IoStatus->Status;
ENTER("t1394Cmdr_DevicePowerIrpCompletion");
if(!NT_SUCCESS(ntStatus))
{
TRACE(TL_WARNING, ("Device Power Irp failed by driver below us = 0x%x\n", ntStatus));
goto Exit_t1394Cmdr_DeviceSetPowerIrpCompletion;
}
// set the new power state
PoSetPowerState(DeviceObject, DevicePowerState, state);
// figure out how to respond to this power state change
if (state.DeviceState < deviceExtension->CurrentDevicePowerState)
{
// adding power
// check to see if we are working again
if (PowerDeviceD0 == state.DeviceState)
{
TRACE (TL_TRACE, ("Restarting our device\n"));
deviceExtension->bShutdown = FALSE;
// update the generation count
t1394_GetGenerationCount(DeviceObject, NULL, &deviceExtension->GenerationCount);
}
}
else
{
// removing power
deviceExtension->bShutdown = TRUE;
}
// save the current device power state
deviceExtension->CurrentDevicePowerState = state.DeviceState;
Exit_t1394Cmdr_DeviceSetPowerIrpCompletion:
// Here we copy the D-IRP status into the S-IRP
sIrp->IoStatus.Status = IoStatus->Status;
// Release the IRP
PoStartNextPowerIrp(sIrp);
sIrp->IoStatus.Information = 0;
IoCompleteRequest(sIrp, IO_NO_INCREMENT);
// Cleanup
ExFreePool(PowerContext);
EXIT("t1394Cmdr_DevicePowerIrpCompletion", ntStatus);
}
/*!
\brief sets up and populates the MS2-Extra combo for output choice
\param widget is the pointer to the combo to initialize
*/
G_MODULE_EXPORT void ms2_output_combo_setup(GtkWidget *widget)
{
guint i = 0;
GtkWidget *parent = NULL;
gchar * lower = NULL;
gchar * upper = NULL;
gfloat * multiplier = NULL;
gfloat * adder = NULL;
gfloat * testmult = NULL;
gchar * range = NULL;
gint bitval = 0;
gint width = 0;
DataSize size = MTX_U08;
gint precision = 0;
gconstpointer * object = NULL;
gint raw_lower = 0;
gint raw_upper = 0;
gboolean temp_dep = FALSE;
gchar *raw_lower_str = NULL;
gchar *raw_upper_str = NULL;
gchar *tempc_range = NULL;
gchar *tempf_range = NULL;
gchar *tempk_range = NULL;
gfloat real_lower = 0.0;
gfloat real_upper = 0.0;
gfloat tmpf = 0.0;
gchar * name = NULL;
gchar *internal_names = NULL;
GtkWidget *entry = NULL;
GtkEntryCompletion *completion = NULL;
GtkListStore *store = NULL;
GtkTreeIter iter;
ENTER();
Rtv_Map *rtv_map = NULL;
rtv_map = (Rtv_Map *)DATA_GET(global_data,"rtv_map");
if (!rtv_map)
{
EXIT();
return;
}
/* Create the store for the combo, with severla hidden values
*/
store = gtk_list_store_new(UO_COMBO_COLS,
G_TYPE_STRING, /* Choice */
G_TYPE_UCHAR, /* BITval */
G_TYPE_POINTER, /* FromECU Multiplier (gfloat *) */
G_TYPE_POINTER, /* FromECU Adder (gfloat *) */
G_TYPE_STRING, /* Raw Lower clamp limit */
G_TYPE_STRING, /* Raw Upper clamp limit */
G_TYPE_STRING, /* Range widget string (non temp ctrls) */
G_TYPE_STRING, /* Range widget string (Celsius) */
G_TYPE_STRING, /* Range widget string (Fahrenheit) */
G_TYPE_STRING, /* Range widget string (Kelvin) */
G_TYPE_INT, /* Size enumeration (_U08_, _U16_, etc.) */
G_TYPE_UCHAR, /* Precision (floating point precision) */
G_TYPE_BOOLEAN);/* Temp dependent flag */
/* Iterate across valid variables */
for (i=0;i<rtv_map->rtv_list->len;i++)
{
object = NULL;
name = NULL;
object = (gconstpointer *)g_ptr_array_index(rtv_map->rtv_list,i);
if (!object)
continue;
name = (gchar *) DATA_GET(object,"dlog_gui_name");
if (!name)
continue;
if (DATA_GET(object,"fromecu_complex"))
continue;
if (DATA_GET(object,"special"))
continue;
internal_names = (gchar *) DATA_GET(object,"internal_names");
if (!find_in_list(rtv_map->raw_list,internal_names))
continue;
temp_dep = (GBOOLEAN)DATA_GET(object,"temp_dep");
size = (DataSize)(GINT)DATA_GET(object,"size");
multiplier = (gfloat *)DATA_GET(object,"fromecu_mult");
adder = (gfloat *)DATA_GET(object,"fromecu_add");
precision = (GINT) DATA_GET(object,"precision");
bitval = (GINT) DATA_GET(object,"offset");
if (DATA_GET(object,"real_lower"))
{
lower = (gchar *)DATA_GET(object,"real_lower");
real_lower = g_strtod(lower,NULL);
raw_lower = calc_value_f(real_lower,multiplier,adder,TOECU);
}
else
raw_lower = get_extreme_from_size_f(size,LOWER);
if (DATA_GET(object,"real_upper"))
{
upper = (gchar *)DATA_GET(object,"real_upper");
real_upper = g_strtod(upper,NULL);
raw_upper = calc_value_f(real_upper,multiplier,adder,TOECU);
}
else
raw_upper = get_extreme_from_size_f(size,UPPER);
range = g_strdup_printf("Valid Range: %.1f <-> %.1f",real_lower,real_upper);
if (temp_dep)
{
tempc_range = g_strdup_printf("Valid Range: %.1f\302\260C <-> %.1f\302\260C",f_to_c_f(real_lower),f_to_c_f(real_upper));
tempf_range = g_strdup_printf("Valid Range: %.1f\302\260F <-> %.1f\302\260F",real_lower,real_upper);
tempk_range = g_strdup_printf("Valid Range: %.1f\302\260K <-> %.1f\302\260K",f_to_k_f(real_lower),f_to_k_f(real_upper));
}
else
{
tempc_range = g_strdup(range);
tempf_range = g_strdup(range);
tempk_range = g_strdup(range);
}
raw_lower_str = g_strdup_printf("%i",raw_lower);
raw_upper_str = g_strdup_printf("%i",raw_upper);
gtk_list_store_append(store,&iter);
gtk_list_store_set(store,&iter,
UO_CHOICE_COL,name,
UO_BITVAL_COL,bitval,
UO_FROMECU_MULT_COL,multiplier,
UO_FROMECU_ADD_COL,adder,
UO_RAW_LOWER_COL,raw_lower_str,
UO_RAW_UPPER_COL,raw_upper_str,
UO_RANGE_COL,range,
UO_RANGE_TEMPC_COL,tempc_range,
UO_RANGE_TEMPF_COL,tempf_range,
UO_RANGE_TEMPK_COL,tempk_range,
UO_SIZE_COL,size,
UO_PRECISION_COL,precision,
UO_TEMP_DEP_COL,temp_dep,
-1);
g_free(raw_lower_str);
g_free(raw_upper_str);
g_free(range);
g_free(tempc_range);
g_free(tempf_range);
g_free(tempk_range);
}
if (GTK_IS_COMBO_BOX_ENTRY(widget))
{
gtk_combo_box_entry_set_text_column(GTK_COMBO_BOX_ENTRY(widget),UO_CHOICE_COL);
gtk_combo_box_set_model(GTK_COMBO_BOX(widget),GTK_TREE_MODEL(store));
g_object_unref(store);
entry = gtk_bin_get_child(GTK_BIN(widget));
/* Nasty hack, but otherwise the entry is an obnoxious size.. */
if ((width = (GINT)OBJ_GET((GtkWidget *)widget,"max_chars")) > 0)
gtk_entry_set_width_chars(GTK_ENTRY(entry),width);
else
gtk_entry_set_width_chars(GTK_ENTRY(entry),12);
gtk_widget_set_size_request(GTK_WIDGET(widget),-1,(3*(GINT)DATA_GET(global_data,"font_size")));
// gtk_container_remove (GTK_CONTAINER (widget), gtk_bin_get_child(GTK_BIN(widget)));
// gtk_container_add (GTK_CONTAINER (widget), entry);
completion = gtk_entry_completion_new();
gtk_entry_set_completion(GTK_ENTRY(entry),completion);
g_object_unref(completion);
gtk_entry_completion_set_model(completion,GTK_TREE_MODEL(store));
gtk_entry_completion_set_text_column(completion,UO_CHOICE_COL);
gtk_entry_completion_set_inline_completion(completion,TRUE);
gtk_entry_completion_set_inline_selection(completion,TRUE);
gtk_entry_completion_set_popup_single_match(completion,FALSE);
OBJ_SET(widget,"arrow-size",GINT_TO_POINTER(1));
}
EXIT();
return;
}
NTSTATUS
t1394Cmdr_Power(
IN PDEVICE_OBJECT DeviceObject,
IN PIRP Irp
)
{
NTSTATUS ntStatus = STATUS_SUCCESS;
PIO_STACK_LOCATION IrpSp;
PDEVICE_EXTENSION deviceExtension;
POWER_STATE State;
KIRQL Irql;
ENTER("t1394Cmdr_Power");
deviceExtension = DeviceObject->DeviceExtension;
IrpSp = IoGetCurrentIrpStackLocation(Irp);
State = IrpSp->Parameters.Power.State;
TRACE(TL_TRACE, ("Power.Type = 0x%x\n", IrpSp->Parameters.Power.Type));
TRACE(TL_TRACE, ("Power.State.SystemState = 0x%x\n", State.SystemState));
TRACE(TL_TRACE, ("Power.State.DeviceState = 0x%x\n", State.DeviceState));
switch (IrpSp->MinorFunction) {
case IRP_MN_SET_POWER:
TRACE(TL_TRACE, ("IRP_MN_SET_POWER\n"));
switch (IrpSp->Parameters.Power.Type) {
case SystemPowerState:
TRACE(TL_TRACE, ("SystemPowerState\n"));
// Send the IRP down
PoStartNextPowerIrp(Irp);
IoCopyCurrentIrpStackLocationToNext(Irp);
IoSetCompletionRoutine(Irp,
(PIO_COMPLETION_ROUTINE) t1394Cmdr_SystemSetPowerIrpCompletion,
NULL, TRUE, TRUE, TRUE);
ntStatus = PoCallDriver(deviceExtension->StackDeviceObject, Irp);
break;
case DevicePowerState:
TRACE(TL_TRACE, ("DevicePowerState\n"));
TRACE(TL_TRACE, ("Current device state = 0x%x, new device state = 0x%x\n",
deviceExtension->CurrentDevicePowerState, State.DeviceState));
PoStartNextPowerIrp(Irp);
IoCopyCurrentIrpStackLocationToNext(Irp);
ntStatus = PoCallDriver(deviceExtension->StackDeviceObject, Irp);
break; // DevicePowerState
default:
break;
}
break; // IRP_MN_SET_POWER
case IRP_MN_QUERY_POWER:
TRACE(TL_TRACE, ("IRP_MN_QUERY_POWER\n"));
PoStartNextPowerIrp(Irp);
IoSkipCurrentIrpStackLocation(Irp);
ntStatus = PoCallDriver(deviceExtension->StackDeviceObject, Irp);
break; // IRP_MN_QUERY_POWER
default:
TRACE(TL_TRACE, ("Default = 0x%x\n", IrpSp->MinorFunction));
PoStartNextPowerIrp(Irp);
IoSkipCurrentIrpStackLocation(Irp);
ntStatus = PoCallDriver(deviceExtension->StackDeviceObject, Irp);
break; // default
} // switch
EXIT("t1394Cmdr_Power", ntStatus);
return(ntStatus);
} // t1394Cmdr_Power
int main(int argc, char *argv[])
{
BN_GENCB _cb;
DH *a;
DH *b = NULL;
char buf[12];
unsigned char *abuf = NULL, *bbuf = NULL;
int i, alen, blen, aout, bout, ret = 1;
BIO *out;
CRYPTO_malloc_debug_init();
CRYPTO_dbg_set_options(V_CRYPTO_MDEBUG_ALL);
CRYPTO_mem_ctrl(CRYPTO_MEM_CHECK_ON);
# ifdef OPENSSL_SYS_WIN32
CRYPTO_malloc_init();
# endif
RAND_seed(rnd_seed, sizeof rnd_seed);
out = BIO_new(BIO_s_file());
if (out == NULL)
EXIT(1);
BIO_set_fp(out, stdout, BIO_NOCLOSE);
BN_GENCB_set(&_cb, &cb, out);
if (((a = DH_new()) == NULL) || !DH_generate_parameters_ex(a, 64,
DH_GENERATOR_5,
&_cb))
goto err;
if (!DH_check(a, &i))
goto err;
if (i & DH_CHECK_P_NOT_PRIME)
BIO_puts(out, "p value is not prime\n");
if (i & DH_CHECK_P_NOT_SAFE_PRIME)
BIO_puts(out, "p value is not a safe prime\n");
if (i & DH_UNABLE_TO_CHECK_GENERATOR)
BIO_puts(out, "unable to check the generator value\n");
if (i & DH_NOT_SUITABLE_GENERATOR)
BIO_puts(out, "the g value is not a generator\n");
BIO_puts(out, "\np =");
BN_print(out, a->p);
BIO_puts(out, "\ng =");
BN_print(out, a->g);
BIO_puts(out, "\n");
b = DH_new();
if (b == NULL)
goto err;
b->p = BN_dup(a->p);
b->g = BN_dup(a->g);
if ((b->p == NULL) || (b->g == NULL))
goto err;
/* Set a to run with normal modexp and b to use constant time */
a->flags &= ~DH_FLAG_NO_EXP_CONSTTIME;
b->flags |= DH_FLAG_NO_EXP_CONSTTIME;
if (!DH_generate_key(a))
goto err;
BIO_puts(out, "pri 1=");
BN_print(out, a->priv_key);
BIO_puts(out, "\npub 1=");
BN_print(out, a->pub_key);
BIO_puts(out, "\n");
if (!DH_generate_key(b))
goto err;
BIO_puts(out, "pri 2=");
BN_print(out, b->priv_key);
BIO_puts(out, "\npub 2=");
BN_print(out, b->pub_key);
BIO_puts(out, "\n");
alen = DH_size(a);
abuf = (unsigned char *)OPENSSL_malloc(alen);
aout = DH_compute_key(abuf, b->pub_key, a);
BIO_puts(out, "key1 =");
for (i = 0; i < aout; i++) {
sprintf(buf, "%02X", abuf[i]);
BIO_puts(out, buf);
}
BIO_puts(out, "\n");
blen = DH_size(b);
bbuf = (unsigned char *)OPENSSL_malloc(blen);
bout = DH_compute_key(bbuf, a->pub_key, b);
BIO_puts(out, "key2 =");
for (i = 0; i < bout; i++) {
sprintf(buf, "%02X", bbuf[i]);
BIO_puts(out, buf);
}
BIO_puts(out, "\n");
if ((aout < 4) || (bout != aout) || (memcmp(abuf, bbuf, aout) != 0)) {
fprintf(stderr, "Error in DH routines\n");
ret = 1;
} else
ret = 0;
if (!run_rfc5114_tests())
ret = 1;
err:
ERR_print_errors_fp(stderr);
if (abuf != NULL)
OPENSSL_free(abuf);
if (bbuf != NULL)
OPENSSL_free(bbuf);
if (b != NULL)
DH_free(b);
if (a != NULL)
DH_free(a);
BIO_free(out);
# ifdef OPENSSL_SYS_NETWARE
if (ret)
printf("ERROR: %d\n", ret);
# endif
EXIT(ret);
return (ret);
}
int main(int Argc, char *ARGV[])
{
ARGS arg;
#define PROG_NAME_SIZE 39
char pname[PROG_NAME_SIZE+1];
FUNCTION f,*fp;
MS_STATIC const char *prompt;
MS_STATIC char buf[1024];
char *to_free=NULL;
int n,i,ret=0;
int argc;
char **argv,*p;
LHASH_OF(FUNCTION) *prog=NULL;
long errline;
#if defined( OPENSSL_SYS_VMS) && (__INITIAL_POINTER_SIZE == 64)
/* 2011-03-22 SMS.
* If we have 32-bit pointers everywhere, then we're safe, and
* we bypass this mess, as on non-VMS systems. (See ARGV,
* above.)
* Problem 1: Compaq/HP C before V7.3 always used 32-bit
* pointers for argv[].
* Fix 1: For a 32-bit argv[], when we're using 64-bit pointers
* everywhere else, we always allocate and use a 64-bit
* duplicate of argv[].
* Problem 2: Compaq/HP C V7.3 (Alpha, IA64) before ECO1 failed
* to NULL-terminate a 64-bit argv[]. (As this was written, the
* compiler ECO was available only on IA64.)
* Fix 2: Unless advised not to (VMS_TRUST_ARGV), we test a
* 64-bit argv[argc] for NULL, and, if necessary, use a
* (properly) NULL-terminated (64-bit) duplicate of argv[].
* The same code is used in either case to duplicate argv[].
* Some of these decisions could be handled in preprocessing,
* but the code tends to get even uglier, and the penalty for
* deciding at compile- or run-time is tiny.
*/
char **Argv = NULL;
int free_Argv = 0;
if ((sizeof( _Argv) < 8) /* 32-bit argv[]. */
# if !defined( VMS_TRUST_ARGV)
|| (_Argv[ Argc] != NULL) /* Untrusted argv[argc] not NULL. */
# endif
)
{
int i;
Argv = OPENSSL_malloc( (Argc+ 1)* sizeof( char *));
if (Argv == NULL)
{
ret = -1;
goto end;
}
for(i = 0; i < Argc; i++)
Argv[i] = _Argv[i];
Argv[ Argc] = NULL; /* Certain NULL termination. */
free_Argv = 1;
}
else
{
/* Use the known-good 32-bit argv[] (which needs the
* type cast to satisfy the compiler), or the trusted or
* tested-good 64-bit argv[] as-is. */
Argv = (char **)_Argv;
}
#endif /* defined( OPENSSL_SYS_VMS) && (__INITIAL_POINTER_SIZE == 64) */
arg.data=NULL;
arg.count=0;
if (bio_err == NULL)
if ((bio_err=BIO_new(BIO_s_file())) != NULL)
BIO_set_fp(bio_err,stderr,BIO_NOCLOSE|BIO_FP_TEXT);
if (getenv("OPENSSL_DEBUG_MEMORY") != NULL) /* if not defined, use compiled-in library defaults */
{
if (!(0 == strcmp(getenv("OPENSSL_DEBUG_MEMORY"), "off")))
{
CRYPTO_malloc_debug_init();
CRYPTO_set_mem_debug_options(V_CRYPTO_MDEBUG_ALL);
}
else
{
/* OPENSSL_DEBUG_MEMORY=off */
CRYPTO_set_mem_debug_functions(0, 0, 0, 0, 0);
}
}
CRYPTO_mem_ctrl(CRYPTO_MEM_CHECK_ON);
#if 0
if (getenv("OPENSSL_DEBUG_LOCKING") != NULL)
#endif
{
CRYPTO_set_locking_callback(lock_dbg_cb);
}
if(getenv("OPENSSL_FIPS")) {
#ifdef OPENSSL_FIPS
if (!FIPS_mode_set(1)) {
ERR_load_crypto_strings();
ERR_print_errors(BIO_new_fp(stderr,BIO_NOCLOSE));
EXIT(1);
}
#else
fprintf(stderr, "FIPS mode not supported.\n");
EXIT(1);
#endif
}
apps_startup();
/* Lets load up our environment a little */
p=getenv("OPENSSL_CONF");
if (p == NULL)
p=getenv("SSLEAY_CONF");
if (p == NULL)
p=to_free=make_config_name();
default_config_file=p;
config=NCONF_new(NULL);
i=NCONF_load(config,p,&errline);
if (i == 0)
{
if (ERR_GET_REASON(ERR_peek_last_error())
== CONF_R_NO_SUCH_FILE)
{
#if 0 /* ANDROID */
BIO_printf(bio_err,
"WARNING: can't open config file: %s\n",p);
#endif
ERR_clear_error();
NCONF_free(config);
config = NULL;
}
else
{
ERR_print_errors(bio_err);
NCONF_free(config);
exit(1);
}
}
prog=prog_init();
/* first check the program name */
program_name(Argv[0],pname,sizeof pname);
f.name=pname;
fp=lh_FUNCTION_retrieve(prog,&f);
if (fp != NULL)
{
Argv[0]=pname;
ret=fp->func(Argc,Argv);
goto end;
}
/* ok, now check that there are not arguments, if there are,
* run with them, shifting the ssleay off the front */
if (Argc != 1)
{
Argc--;
Argv++;
ret=do_cmd(prog,Argc,Argv);
if (ret < 0) ret=0;
goto end;
}
/* ok, lets enter the old 'OpenSSL>' mode */
for (;;)
{
ret=0;
p=buf;
n=sizeof buf;
i=0;
for (;;)
{
p[0]='\0';
if (i++)
prompt=">";
else prompt="OpenSSL> ";
fputs(prompt,stdout);
fflush(stdout);
if (!fgets(p,n,stdin))
goto end;
if (p[0] == '\0') goto end;
i=strlen(p);
if (i <= 1) break;
if (p[i-2] != '\\') break;
i-=2;
p+=i;
n-=i;
}
if (!chopup_args(&arg,buf,&argc,&argv)) break;
ret=do_cmd(prog,argc,argv);
if (ret < 0)
{
ret=0;
goto end;
}
if (ret != 0)
BIO_printf(bio_err,"error in %s\n",argv[0]);
(void)BIO_flush(bio_err);
}
BIO_printf(bio_err,"bad exit\n");
ret=1;
end:
if (to_free)
OPENSSL_free(to_free);
if (config != NULL)
{
NCONF_free(config);
config=NULL;
}
if (prog != NULL) lh_FUNCTION_free(prog);
if (arg.data != NULL) OPENSSL_free(arg.data);
apps_shutdown();
CRYPTO_mem_leaks(bio_err);
if (bio_err != NULL)
{
BIO_free(bio_err);
bio_err=NULL;
}
#if defined( OPENSSL_SYS_VMS) && (__INITIAL_POINTER_SIZE == 64)
/* Free any duplicate Argv[] storage. */
if (free_Argv)
{
OPENSSL_free(Argv);
}
#endif
OPENSSL_EXIT(ret);
}
int main(int argc, char *argv[])
{
# ifndef OPENSSL_NO_MD5
int i;
char *p;
# endif
int err = 0;
HMAC_CTX ctx, ctx2;
unsigned char buf[EVP_MAX_MD_SIZE];
unsigned int len;
# ifdef OPENSSL_NO_MD5
printf("test skipped: MD5 disabled\n");
# else
# ifdef CHARSET_EBCDIC
ebcdic2ascii(test[0].data, test[0].data, test[0].data_len);
ebcdic2ascii(test[1].data, test[1].data, test[1].data_len);
ebcdic2ascii(test[2].key, test[2].key, test[2].key_len);
ebcdic2ascii(test[2].data, test[2].data, test[2].data_len);
# endif
for (i = 0; i < 4; i++) {
p = pt(HMAC(EVP_md5(),
test[i].key, test[i].key_len,
test[i].data, test[i].data_len, NULL, NULL),
MD5_DIGEST_LENGTH);
if (strcmp(p, (const char *)test[i].digest) != 0) {
printf("Error calculating HMAC on %d entry'\n", i);
printf("got %s instead of %s\n", p, test[i].digest);
err++;
} else
printf("test %d ok\n", i);
}
# endif /* OPENSSL_NO_MD5 */
/* test4 */
HMAC_CTX_init(&ctx);
if (HMAC_Init_ex(&ctx, NULL, 0, NULL, NULL)) {
printf("Should fail to initialise HMAC with empty MD and key (test 4)\n");
err++;
goto test5;
}
if (HMAC_Update(&ctx, test[4].data, test[4].data_len)) {
printf("Should fail HMAC_Update with ctx not set up (test 4)\n");
err++;
goto test5;
}
if (HMAC_Init_ex(&ctx, NULL, 0, EVP_sha1(), NULL)) {
printf("Should fail to initialise HMAC with empty key (test 4)\n");
err++;
goto test5;
}
if (HMAC_Update(&ctx, test[4].data, test[4].data_len)) {
printf("Should fail HMAC_Update with ctx not set up (test 4)\n");
err++;
goto test5;
}
printf("test 4 ok\n");
test5:
HMAC_CTX_cleanup(&ctx);
HMAC_CTX_init(&ctx);
if (HMAC_Init_ex(&ctx, test[4].key, test[4].key_len, NULL, NULL)) {
printf("Should fail to initialise HMAC with empty MD (test 5)\n");
err++;
goto test6;
}
if (HMAC_Update(&ctx, test[4].data, test[4].data_len)) {
printf("Should fail HMAC_Update with ctx not set up (test 5)\n");
err++;
goto test6;
}
if (HMAC_Init_ex(&ctx, test[4].key, -1, EVP_sha1(), NULL)) {
printf("Should fail to initialise HMAC with invalid key len(test 5)\n");
err++;
goto test6;
}
if (!HMAC_Init_ex(&ctx, test[4].key, test[4].key_len, EVP_sha1(), NULL)) {
printf("Failed to initialise HMAC (test 5)\n");
err++;
goto test6;
}
if (!HMAC_Update(&ctx, test[4].data, test[4].data_len)) {
printf("Error updating HMAC with data (test 5)\n");
err++;
goto test6;
}
if (!HMAC_Final(&ctx, buf, &len)) {
printf("Error finalising data (test 5)\n");
err++;
goto test6;
}
p = pt(buf, len);
if (strcmp(p, (const char *)test[4].digest) != 0) {
printf("Error calculating interim HMAC on test 5\n");
printf("got %s instead of %s\n", p, test[4].digest);
err++;
goto test6;
}
if (HMAC_Init_ex(&ctx, NULL, 0, EVP_sha256(), NULL)) {
printf("Should disallow changing MD without a new key (test 5)\n");
err++;
goto test6;
}
if (!HMAC_Init_ex(&ctx, test[4].key, test[4].key_len, EVP_sha256(), NULL)) {
printf("Failed to reinitialise HMAC (test 5)\n");
err++;
goto test6;
}
if (!HMAC_Update(&ctx, test[5].data, test[5].data_len)) {
printf("Error updating HMAC with data (sha256) (test 5)\n");
err++;
goto test6;
}
if (!HMAC_Final(&ctx, buf, &len)) {
printf("Error finalising data (sha256) (test 5)\n");
err++;
goto test6;
}
p = pt(buf, len);
if (strcmp(p, (const char *)test[5].digest) != 0) {
printf("Error calculating 2nd interim HMAC on test 5\n");
printf("got %s instead of %s\n", p, test[5].digest);
err++;
goto test6;
}
if (!HMAC_Init_ex(&ctx, test[6].key, test[6].key_len, NULL, NULL)) {
printf("Failed to reinitialise HMAC with key (test 5)\n");
err++;
goto test6;
}
if (!HMAC_Update(&ctx, test[6].data, test[6].data_len)) {
printf("Error updating HMAC with data (new key) (test 5)\n");
err++;
goto test6;
}
if (!HMAC_Final(&ctx, buf, &len)) {
printf("Error finalising data (new key) (test 5)\n");
err++;
goto test6;
}
p = pt(buf, len);
if (strcmp(p, (const char *)test[6].digest) != 0) {
printf("error calculating HMAC on test 5\n");
printf("got %s instead of %s\n", p, test[6].digest);
err++;
} else {
printf("test 5 ok\n");
}
test6:
HMAC_CTX_cleanup(&ctx);
HMAC_CTX_init(&ctx);
if (!HMAC_Init_ex(&ctx, test[7].key, test[7].key_len, EVP_sha1(), NULL)) {
printf("Failed to initialise HMAC (test 6)\n");
err++;
goto end;
}
if (!HMAC_Update(&ctx, test[7].data, test[7].data_len)) {
printf("Error updating HMAC with data (test 6)\n");
err++;
goto end;
}
if (!HMAC_CTX_copy(&ctx2, &ctx)) {
printf("Failed to copy HMAC_CTX (test 6)\n");
err++;
goto end;
}
if (!HMAC_Final(&ctx2, buf, &len)) {
printf("Error finalising data (test 6)\n");
err++;
goto end;
}
p = pt(buf, len);
if (strcmp(p, (const char *)test[7].digest) != 0) {
printf("Error calculating HMAC on test 6\n");
printf("got %s instead of %s\n", p, test[7].digest);
err++;
} else {
printf("test 6 ok\n");
}
end:
HMAC_CTX_cleanup(&ctx);
EXIT(err);
return (0);
}
CallbackPipeline::~CallbackPipeline() {
ENTER();
EXIT();
}
/*!
* Receive message from queue (global or from own thread message queue)
*/
int sys__msg_recv ( int src_type, void *src, msg_t *msg, int type, size_t size,
uint flags )
{
kthread_t *kthr;
kthrmsg_qs *thrmsg;
kgmsg_q *kgmsgq;
kmsg_q *kmsgq;
msg_q *msgq;
kmsg_t *kmsg;
ASSERT_ERRNO_AND_EXIT ( src && msg, E_INVALID_HANDLE );
ASSERT_ERRNO_AND_EXIT ( src_type == MSG_THREAD || src_type == MSG_QUEUE,
E_INVALID_TYPE );
if ( src_type == MSG_THREAD )
{
kthr = k_get_active_thread ();
thrmsg = k_get_thrmsg ( kthr );
kmsgq = &thrmsg->msgq;
}
else { /* src_type == MSG_QUEUE */
msgq = src;
kgmsgq = msgq->handle;
ASSERT_ERRNO_AND_EXIT ( kgmsgq && kgmsgq->id == msgq->id,
E_INVALID_HANDLE );
kmsgq = &kgmsgq->mq;
}
/* get first message from queue */
kmsg = list_get ( &kmsgq->msgs, FIRST );
if ( type != 0 ) /* type != 0 => search for first message 'type' */
while ( kmsg && kmsg->msg.type != type )
kmsg = list_get_next ( &kmsg->list );
if ( kmsg ) /* have message */
{
if ( size < kmsg->msg.size )
{
msg->size = 0;
EXIT ( E_TOO_BIG );
}
msg->type = kmsg->msg.type;
msg->size = kmsg->msg.size;
memcpy ( msg->data, kmsg->msg.data, msg->size );
kmsg = list_remove ( &kmsgq->msgs, FIRST, &kmsg->list );
ASSERT ( kmsg );
kfree ( kmsg );
EXIT ( SUCCESS );
}
else { /* queue empty! */
if ( !( flags & IPC_WAIT ) )
EXIT ( E_EMPTY );
SET_ERRNO ( E_RETRY );
/* block thread */
k_enqueue_thread ( NULL, &kmsgq->thrq );
k_schedule_threads ();
RETURN ( E_RETRY );
}
}
int main(int argc, char ** argv)
{
SETLOGMASK();
{
TEST();
ASSERT(diminuto_shaper_bursttolerance(2, 3, 7, 5) == 23);
ASSERT(diminuto_shaper_bursttolerance(2, 0, 7, 5) == 20);
ASSERT(diminuto_shaper_bursttolerance(0, 0, 2, 5) == 8);
ASSERT(diminuto_shaper_bursttolerance(7, 3, 7, 5) == 3);
ASSERT(diminuto_shaper_bursttolerance(2, 3, 7, 1) == 3);
ASSERT(diminuto_shaper_bursttolerance(2, 3, 7, 0) == 3);
STATUS();
}
{
static const size_t PEAK = 2048;
static const diminuto_ticks_t TOLERANCE = 0;
static const size_t SUSTAINED = 1024;
static const size_t BURST = 512;
static const size_t OPERATIONS = 1000000;
diminuto_shaper_t shaper;
diminuto_shaper_t * sp;
size_t size = 0;
diminuto_ticks_t now = 0;
diminuto_ticks_t delay;
size_t iops;
int admissable;
uint64_t total = 0;
diminuto_ticks_t duration = 0;
double peak = 0.0;
double sustained;
double rate;
diminuto_ticks_t frequency;
diminuto_ticks_t peakincrement;
diminuto_ticks_t jittertolerance;
diminuto_ticks_t sustainedincrement;
diminuto_ticks_t bursttolerance;
/**/
frequency = diminuto_frequency();
/**/
peakincrement = diminuto_throttle_interarrivaltime(PEAK, 1, frequency);
jittertolerance = diminuto_throttle_jittertolerance(peakincrement, BURST) + TOLERANCE;
sustainedincrement = diminuto_throttle_interarrivaltime(SUSTAINED, 1, frequency);
bursttolerance = diminuto_shaper_bursttolerance(peakincrement, jittertolerance, sustainedincrement, BURST);
/**/
sp = diminuto_shaper_init(&shaper, peakincrement, 0 /* jittertolerance */, sustainedincrement, bursttolerance, now);
ASSERT(sp == &shaper);
diminuto_shaper_log(sp);
srand(diminuto_time_clock());
/**/
for (iops = 0; iops < OPERATIONS; ++iops) {
delay = diminuto_shaper_request(sp, now);
ASSERT(delay >= 0);
now += delay;
duration += delay;
if (iops <= 0) {
/* Do nothing. */
} else if (delay <= 0) {
/* Do nothing. */
} else {
rate = size;
rate *= frequency;
rate /= delay;
if (rate > peak) { peak = rate; }
}
delay = diminuto_shaper_request(sp, now);
ASSERT(delay == 0);
size = blocksize(BURST);
ASSERT(size > 0);
ASSERT(size <= BURST);
total += size;
admissable = !diminuto_shaper_commitn(sp, size);
ASSERT(admissable);
}
/**/
delay = diminuto_shaper_getexpected(sp);
ASSERT(delay >= 0);
now += delay;
duration += delay;
if (delay > 0) {
rate = size;
rate *= frequency;
rate /= delay;
if (rate > peak) { peak = rate; }
}
diminuto_shaper_update(sp, now);
/**/
ASSERT(total > 0);
ASSERT(duration > frequency);
diminuto_shaper_log(sp);
sustained = total;
sustained *= frequency;
sustained /= duration;
DIMINUTO_LOG_DEBUG("operations=%zu total=%llubytes average=%llubytes duration=%lldseconds peak=%zubytes/second measured=%lfbytes/second sustained=%zubytes/second measured=%lfdbytes/second\n", iops, total, total / iops, duration / diminuto_frequency(), PEAK, peak, SUSTAINED, sustained);
ASSERT(fabs(sustained - SUSTAINED) < (SUSTAINED / 200) /* 0.5% */);
ADVISE(fabs(peak - PEAK) < (PEAK / 200) /* 0.5% */);
}
EXIT();
}
static isc_result_t
process_request(isc_httpd_t *httpd, int length)
{
char *s;
char *p;
int delim;
ENTER("request");
httpd->recvlen += length;
httpd->recvbuf[httpd->recvlen] = 0;
/*
* If we don't find a blank line in our buffer, return that we need
* more data.
*/
s = strstr(httpd->recvbuf, "\r\n\r\n");
delim = 1;
if (s == NULL) {
s = strstr(httpd->recvbuf, "\n\n");
delim = 2;
}
if (s == NULL)
return (ISC_R_NOTFOUND);
/*
* Determine if this is a POST or GET method. Any other values will
* cause an error to be returned.
*/
if (strncmp(httpd->recvbuf, "GET ", 4) == 0) {
httpd->method = ISC_HTTPD_METHODGET;
p = httpd->recvbuf + 4;
} else if (strncmp(httpd->recvbuf, "POST ", 5) == 0) {
httpd->method = ISC_HTTPD_METHODPOST;
p = httpd->recvbuf + 5;
} else {
return (ISC_R_RANGE);
}
/*
* From now on, p is the start of our buffer.
*/
/*
* Extract the URL.
*/
s = p;
while (LENGTHOK(s) && BUFLENOK(s) &&
(*s != '\n' && *s != '\r' && *s != '\0' && *s != ' '))
s++;
if (!LENGTHOK(s))
return (ISC_R_NOTFOUND);
if (!BUFLENOK(s))
return (ISC_R_NOMEMORY);
*s = 0;
/*
* Make the URL relative.
*/
if ((strncmp(p, "http:/", 6) == 0)
|| (strncmp(p, "https:/", 7) == 0)) {
/* Skip first / */
while (*p != '/' && *p != 0)
p++;
if (*p == 0)
return (ISC_R_RANGE);
p++;
/* Skip second / */
while (*p != '/' && *p != 0)
p++;
if (*p == 0)
return (ISC_R_RANGE);
p++;
/* Find third / */
while (*p != '/' && *p != 0)
p++;
if (*p == 0) {
p--;
*p = '/';
}
}
httpd->url = p;
p = s + delim;
s = p;
/*
* Now, see if there is a ? mark in the URL. If so, this is
* part of the query string, and we will split it from the URL.
*/
httpd->querystring = strchr(httpd->url, '?');
if (httpd->querystring != NULL) {
*(httpd->querystring) = 0;
httpd->querystring++;
}
/*
* Extract the HTTP/1.X protocol. We will bounce on anything but
* HTTP/1.1 for now.
*/
while (LENGTHOK(s) && BUFLENOK(s) &&
(*s != '\n' && *s != '\r' && *s != '\0'))
s++;
if (!LENGTHOK(s))
return (ISC_R_NOTFOUND);
if (!BUFLENOK(s))
return (ISC_R_NOMEMORY);
*s = 0;
if ((strncmp(p, "HTTP/1.0", 8) != 0)
&& (strncmp(p, "HTTP/1.1", 8) != 0))
return (ISC_R_RANGE);
httpd->protocol = p;
p = s + 1;
s = p;
if (strstr(s, "Connection: close") != NULL)
httpd->flags |= HTTPD_CLOSE;
if (strstr(s, "Host: ") != NULL)
httpd->flags |= HTTPD_FOUNDHOST;
/*
* Standards compliance hooks here.
*/
if (strcmp(httpd->protocol, "HTTP/1.1") == 0
&& ((httpd->flags & HTTPD_FOUNDHOST) == 0))
return (ISC_R_RANGE);
EXIT("request");
return (ISC_R_SUCCESS);
}
NTSTATUS
kmdf1394_SetAddressData (
IN WDFDEVICE Device,
IN WDFREQUEST Request,
IN PSET_ADDRESS_DATA SetAddrData)
/*++
Routine Description:
Set Address Range routine.
Arguments:
Device - the current WDFDEVICE Object.
Request - the current request.
SetAddrData - the Data buffer from usermode to be worked on.
Return Value:
VOID
--*/
{
NTSTATUS ntStatus = STATUS_SUCCESS;
PDEVICE_EXTENSION deviceExtension = GetDeviceContext(Device);
PASYNC_ADDRESS_DATA AsyncAddressData = NULL;
PLIST_ENTRY listHead, thisEntry;
UNREFERENCED_PARAMETER(Request);
ENTER("kmdf1394_SetAddressData");
//
// have to find our struct...
//
WdfSpinLockAcquire(deviceExtension->AsyncSpinLock);
listHead = &deviceExtension->AsyncAddressData;
for(thisEntry = listHead->Flink; thisEntry != listHead;
AsyncAddressData = NULL, thisEntry = thisEntry->Flink)
{
AsyncAddressData = CONTAINING_RECORD(
thisEntry,
ASYNC_ADDRESS_DATA,
AsyncAddressList);
if (AsyncAddressData->hAddressRange == SetAddrData->hAddressRange)
{
PULONG pBuffer;
//
// found it, let's copy over the contents from data...
//
pBuffer = \
(PULONG)((ULONG_PTR)AsyncAddressData->Buffer + \
SetAddrData->ulOffset);
TRACE(TL_TRACE, ("pBuffer = 0x%x\n", pBuffer));
TRACE(TL_TRACE, ("Data = 0x%x\n", SetAddrData->Data));
if(pBuffer && SetAddrData->Data)
{
RtlCopyMemory(pBuffer, SetAddrData->Data, SetAddrData->nLength);
}
break;
}
}
WdfSpinLockRelease(deviceExtension->AsyncSpinLock);
//
// never found an entry...
//
if (!AsyncAddressData)
{
ntStatus = STATUS_INVALID_PARAMETER;
}
EXIT("kmdf1394_SetAddressData", ntStatus);
return ntStatus;
} // kmdf1394_SetAddressData