int
main()
{
k5_response_items *ri;
check(k5_response_items_new(&ri));
check_pred(k5_response_items_empty(ri));
check(k5_response_items_ask_question(ri, TEST_STR1, TEST_STR1));
check(k5_response_items_ask_question(ri, TEST_STR2, NULL));
check_pred(nstrcmp(k5_response_items_get_challenge(ri, TEST_STR1),
TEST_STR1) == 0);
check_pred(nstrcmp(k5_response_items_get_challenge(ri, TEST_STR2),
NULL) == 0);
check_pred(!k5_response_items_empty(ri));
k5_response_items_reset(ri);
check_pred(k5_response_items_empty(ri));
check_pred(k5_response_items_get_challenge(ri, TEST_STR1) == NULL);
check_pred(k5_response_items_get_challenge(ri, TEST_STR2) == NULL);
check(k5_response_items_ask_question(ri, TEST_STR1, TEST_STR1));
check_pred(nstrcmp(k5_response_items_get_challenge(ri, TEST_STR1),
TEST_STR1) == 0);
check(k5_response_items_set_answer(ri, TEST_STR1, TEST_STR1));
check_pred(nstrcmp(k5_response_items_get_answer(ri, TEST_STR1),
TEST_STR1) == 0);
k5_response_items_free(ri);
return 0;
}
int dotest(char* a, char* b, int exp)
{
int res = nstrcmp(a, b);
int err = (cs(res) != cs(exp));
printf("nstrcmp(\"%s\", \"%s\")=%d %d %s\n", a, b, res, exp, err?"WRONG":"OK");
return err;
}
/**
* ulfius_send_http_request
* Send a HTTP request and store the result into a _u_response
* return U_OK on success
*/
int ulfius_send_http_request(const struct _u_request * request, struct _u_response * response) {
body body_data;
body_data.size = 0;
body_data.data = NULL;
int res;
const char * content_type;
res = ulfius_send_http_streaming_request(request, response, ulfius_write_body, (void *)&body_data);
if (res == U_OK && response != NULL) {
if (body_data.data != NULL && body_data.size > 0) {
response->string_body = nstrdup(body_data.data);
response->binary_body = malloc(body_data.size);
if (response->binary_body == NULL || response->string_body == NULL) {
y_log_message(Y_LOG_LEVEL_ERROR, "Ulfius - Error allocating memory for response->binary_body");
free(body_data.data);
return U_ERROR_MEMORY;
}
memcpy(response->binary_body, body_data.data, body_data.size);
response->binary_body_length = body_data.size;
content_type = u_map_get_case(response->map_header, ULFIUS_HTTP_HEADER_CONTENT);
if (content_type != NULL && 0 == nstrcmp(content_type, ULFIUS_HTTP_ENCODING_JSON)) {
// Parsing json content
response->json_body = json_loads(body_data.data, JSON_DECODE_ANY, NULL);
}
}
free(body_data.data);
return U_OK;
} else {
free(body_data.data);
return res;
}
}
unsigned char *WoreWaanRtn( register unsigned char *TempIndx ) {
register unsigned char *plus1 = TempIndx + 1, *minus3 = TempIndx - 3;
if ( istcon( *( TempIndx - 1 ) ) ) {
if ( istlvwl( *( TempIndx - 2 ) ) ) {
return( minus3 );
} else if ( istcon( *( TempIndx - 2 ) ) && istcon( *plus1 ) ) {
switch ( *( TempIndx + 1 ) ) {
case OrAng:
return( FAIL );
case RoreReo:
if ( *( TempIndx + 2 ) == RoreReo ) {
return( FAIL );
}
default:
if ( plus1 <= RightMargin ) {
if ( *( TempIndx + 3 ) == Karan ) {
return( FAIL );
} else {
return( !istrvwl( *( TempIndx + 2 ) ) ? plus1 : FAIL );
}
} else {
return( FAIL );
}
}
} else if ( isttnl( *( TempIndx - 1 ) ) && istcon( *( TempIndx - 2 ) ) && istcon( *minus3 ) ) {
if ( plus1 <= RightMargin ) {
return( plus1 );
} else if ( !nstrcmp( "¡Ã", minus3 ) || !nstrcmp( "¡Å", minus3 ) || !nstrcmp( "˹", minus3 ) || !nstrcmp( "ËÂ", minus3 ) ) {
return( TempIndx - 4 );
} else {
return( minus3 );
}
}
}
return( FAIL );
}
NUSHORT srvc_get_id(NPCHAR name) {
NUSHORT i;
for(i=0;i<SRVC_SIZE;i++) {
if(nstrlen(srvc_entries[i].name) != nstrlen(name)) continue;
if(nstrcmp(srvc_entries[i].name,name) != 1) continue;
#ifdef DEBUG_LVL_TWO
vid_print("[ SRVC ] Found as: ",0x0A);
vid_print(nitoa((int)srvc_entries[i].sid,10),0x0A);
vid_print("\r\n",0x07);
vid_print(srvc_entries[i].name,0x08);
vid_print(" /SRVC\r\n",0x08);
#endif
return srvc_entries[i].sid;
}
#ifdef DEBUG_LVL_TWO
vid_print("[ SRVC ] srvc_get_id could not find this service :(\r\n",0x04);
vid_print(name,0x4);
#endif
//kstop();
return 0;
}
static int
check ()
{
struct GNUNET_CONTAINER_Heap *myHeap;
struct GNUNET_CONTAINER_HeapNode *n1;
struct GNUNET_CONTAINER_HeapNode *n2;
struct GNUNET_CONTAINER_HeapNode *n3;
struct GNUNET_CONTAINER_HeapNode *n4;
struct GNUNET_CONTAINER_HeapNode *n5;
struct GNUNET_CONTAINER_HeapNode *n6;
struct GNUNET_CONTAINER_HeapNode *n7;
struct GNUNET_CONTAINER_HeapNode *n8;
const char *r;
myHeap = GNUNET_CONTAINER_heap_create (GNUNET_CONTAINER_HEAP_ORDER_MIN);
// GNUNET_CONTAINER_heap_remove_root heap empty, taking if-branch
n1 = GNUNET_CONTAINER_heap_remove_root (myHeap);
GNUNET_assert (NULL == n1);
// GNUNET_CONTAINER_heap_peek heap empty, taking if-branch
n1 = GNUNET_CONTAINER_heap_peek (myHeap);
GNUNET_assert (NULL == n1);
// GNUNET_CONTAINER_heap_walk_get_next: heap empty, taking if-branch
n1 = GNUNET_CONTAINER_heap_walk_get_next (myHeap);
GNUNET_assert (NULL == n1);
n1 = GNUNET_CONTAINER_heap_insert (myHeap, "11", 11);
GNUNET_assert (NULL != n1);
// GNUNET_CONTAINER_heap_peek not empty, taking if-branch
n2 = NULL;
n2 = GNUNET_CONTAINER_heap_peek (myHeap);
GNUNET_assert (NULL != n2);
// GNUNET_CONTAINER_heap_walk_get_next: 1 element
n1 = NULL;
n1 = GNUNET_CONTAINER_heap_walk_get_next (myHeap);
GNUNET_assert (NULL != n1);
GNUNET_CONTAINER_heap_iterate (myHeap, &iterator_callback, NULL);
GNUNET_assert (1 == GNUNET_CONTAINER_heap_get_size (myHeap));
n2 = GNUNET_CONTAINER_heap_insert (myHeap, "78", 78);
GNUNET_assert (2 == GNUNET_CONTAINER_heap_get_size (myHeap));
GNUNET_assert (0 == strcmp ("78", GNUNET_CONTAINER_heap_remove_node (n2)));
GNUNET_assert (1 == GNUNET_CONTAINER_heap_get_size (myHeap));
GNUNET_CONTAINER_heap_iterate (myHeap, &iterator_callback, NULL);
n3 = GNUNET_CONTAINER_heap_insert (myHeap, "15", 5);
GNUNET_CONTAINER_heap_update_cost (myHeap, n3, 15);
GNUNET_assert (2 == GNUNET_CONTAINER_heap_get_size (myHeap));
GNUNET_CONTAINER_heap_iterate (myHeap, &iterator_callback, NULL);
n4 = GNUNET_CONTAINER_heap_insert (myHeap, "50", 50);
GNUNET_CONTAINER_heap_update_cost (myHeap, n4, 50);
GNUNET_assert (3 == GNUNET_CONTAINER_heap_get_size (myHeap));
GNUNET_CONTAINER_heap_iterate (myHeap, &iterator_callback, NULL);
n5 = GNUNET_CONTAINER_heap_insert (myHeap, "100", 100);
n6 = GNUNET_CONTAINER_heap_insert (myHeap, "30/200", 30);
GNUNET_assert (5 == GNUNET_CONTAINER_heap_get_size (myHeap));
GNUNET_CONTAINER_heap_remove_node (n5);
r = GNUNET_CONTAINER_heap_remove_root (myHeap); /* n1 */
GNUNET_assert (NULL != r);
GNUNET_assert (0 == strcmp ("11", r));
GNUNET_CONTAINER_heap_update_cost (myHeap, n6, 200);
GNUNET_CONTAINER_heap_remove_node (n3);
r = GNUNET_CONTAINER_heap_remove_root (myHeap); /* n4 */
GNUNET_assert (NULL != r);
GNUNET_assert (0 == strcmp ("50", r));
r = GNUNET_CONTAINER_heap_remove_root (myHeap); /* n6 */
GNUNET_assert (NULL != r);
GNUNET_assert (0 == strcmp ("30/200", r));
GNUNET_assert (0 == GNUNET_CONTAINER_heap_get_size (myHeap));
GNUNET_CONTAINER_heap_destroy (myHeap);
// My additions to a complete testcase
// Testing a GNUNET_CONTAINER_HEAP_ORDER_MIN
// Testing remove_node
myHeap = GNUNET_CONTAINER_heap_create (GNUNET_CONTAINER_HEAP_ORDER_MIN);
n1 = GNUNET_CONTAINER_heap_insert (myHeap, "10", 10);
GNUNET_CONTAINER_heap_update_cost (myHeap, n1, 15);
r = GNUNET_CONTAINER_heap_remove_node (n1);
GNUNET_assert (NULL != r);
GNUNET_assert (0 == strcmp ("10", r));
n1 = GNUNET_CONTAINER_heap_insert (myHeap, "10", 10);
n2 = GNUNET_CONTAINER_heap_insert (myHeap, "20", 10);
GNUNET_CONTAINER_heap_walk_get_next (myHeap);
r = GNUNET_CONTAINER_heap_remove_node (n2);
GNUNET_assert (NULL != r);
GNUNET_assert (0 == strcmp ("20", r));
r = GNUNET_CONTAINER_heap_remove_node (n1);
GNUNET_assert (NULL != r);
GNUNET_assert (0 == strcmp ("10", r));
n1 = GNUNET_CONTAINER_heap_insert (myHeap, "10", 10);
n2 = GNUNET_CONTAINER_heap_insert (myHeap, "20", 10);
n3 = GNUNET_CONTAINER_heap_insert (myHeap, "30", 10);
GNUNET_CONTAINER_heap_remove_node (n2);
GNUNET_CONTAINER_heap_remove_node (n1);
r = GNUNET_CONTAINER_heap_remove_root (myHeap);
GNUNET_assert (NULL != r);
GNUNET_assert (0 == strcmp ("30", r));
n1 = GNUNET_CONTAINER_heap_insert (myHeap, "10", 10);
n2 = GNUNET_CONTAINER_heap_insert (myHeap, "20", 10);
n3 = GNUNET_CONTAINER_heap_insert (myHeap, "30", 10);
GNUNET_CONTAINER_heap_remove_node (n2);
GNUNET_CONTAINER_heap_remove_node (n1);
r = GNUNET_CONTAINER_heap_remove_node (n3);
GNUNET_assert (NULL != r);
GNUNET_assert (0 == strcmp ("30", r));
n1 = GNUNET_CONTAINER_heap_insert (myHeap, "10", 10);
n2 = GNUNET_CONTAINER_heap_insert (myHeap, "20", 20);
n3 = GNUNET_CONTAINER_heap_insert (myHeap, "30", 30);
GNUNET_assert (0 == nstrcmp ("20", GNUNET_CONTAINER_heap_remove_node (n2)));
GNUNET_assert (0 ==
nstrcmp ("10", GNUNET_CONTAINER_heap_remove_root (myHeap)));
GNUNET_assert (0 ==
nstrcmp ("30", GNUNET_CONTAINER_heap_remove_root (myHeap)));
n1 = GNUNET_CONTAINER_heap_insert (myHeap, "10", 10);
n2 = GNUNET_CONTAINER_heap_insert (myHeap, "20", 20);
n3 = GNUNET_CONTAINER_heap_insert (myHeap, "30", 30);
n4 = GNUNET_CONTAINER_heap_insert (myHeap, "40", 40);
n5 = GNUNET_CONTAINER_heap_insert (myHeap, "50", 50);
n6 = GNUNET_CONTAINER_heap_insert (myHeap, "60", 60);
// Inserting nodes deeper in the tree with lower costs
n7 = GNUNET_CONTAINER_heap_insert (myHeap, "70", 10);
n8 = GNUNET_CONTAINER_heap_insert (myHeap, "80", 10);
GNUNET_assert (0 == nstrcmp ("30", GNUNET_CONTAINER_heap_remove_node (n3)));
// Cleaning up...
GNUNET_assert (0 == nstrcmp ("60", GNUNET_CONTAINER_heap_remove_node (n6)));
GNUNET_assert (0 == nstrcmp ("50", GNUNET_CONTAINER_heap_remove_node (n5)));
// Testing heap_walk_get_next
GNUNET_CONTAINER_heap_walk_get_next (myHeap);
GNUNET_CONTAINER_heap_walk_get_next (myHeap);
GNUNET_CONTAINER_heap_walk_get_next (myHeap);;
GNUNET_CONTAINER_heap_walk_get_next (myHeap);
GNUNET_CONTAINER_heap_walk_get_next (myHeap);
GNUNET_assert (0 == nstrcmp ("10", GNUNET_CONTAINER_heap_remove_node (n1)));
GNUNET_assert (0 == nstrcmp ("20", GNUNET_CONTAINER_heap_remove_node (n2)));
GNUNET_assert (0 == nstrcmp ("40", GNUNET_CONTAINER_heap_remove_node (n4)));
GNUNET_assert (0 == nstrcmp ("70", GNUNET_CONTAINER_heap_remove_node (n7)));
GNUNET_assert (0 == nstrcmp ("80", GNUNET_CONTAINER_heap_remove_node (n8)));
// End Testing remove_node
// Testing a GNUNET_CONTAINER_HEAP_ORDER_MAX
GNUNET_CONTAINER_heap_destroy (myHeap);
myHeap = GNUNET_CONTAINER_heap_create (GNUNET_CONTAINER_HEAP_ORDER_MAX);
n1 = GNUNET_CONTAINER_heap_insert (myHeap, "10", 10);
GNUNET_CONTAINER_heap_update_cost (myHeap, n1, 15);
GNUNET_assert (0 == nstrcmp ("10", GNUNET_CONTAINER_heap_remove_node (n1)));
n1 = GNUNET_CONTAINER_heap_insert (myHeap, "10", 10);
n2 = GNUNET_CONTAINER_heap_insert (myHeap, "20", 10);
GNUNET_CONTAINER_heap_walk_get_next (myHeap);
GNUNET_assert (0 == nstrcmp ("20", GNUNET_CONTAINER_heap_remove_node (n2)));
GNUNET_assert (0 == nstrcmp ("10", GNUNET_CONTAINER_heap_remove_node (n1)));
n1 = GNUNET_CONTAINER_heap_insert (myHeap, "10", 10);
n2 = GNUNET_CONTAINER_heap_insert (myHeap, "20", 10);
n3 = GNUNET_CONTAINER_heap_insert (myHeap, "30", 10);
GNUNET_CONTAINER_heap_remove_node (n2);
GNUNET_CONTAINER_heap_remove_node (n1);
GNUNET_assert (0 ==
nstrcmp ("30", GNUNET_CONTAINER_heap_remove_root (myHeap)));
n1 = GNUNET_CONTAINER_heap_insert (myHeap, "10", 10);
n2 = GNUNET_CONTAINER_heap_insert (myHeap, "20", 10);
n3 = GNUNET_CONTAINER_heap_insert (myHeap, "30", 10);
GNUNET_CONTAINER_heap_remove_node (n2);
GNUNET_CONTAINER_heap_remove_node (n1);
GNUNET_assert (0 == nstrcmp ("30", GNUNET_CONTAINER_heap_remove_node (n3)));
n1 = GNUNET_CONTAINER_heap_insert (myHeap, "10", 10);
n2 = GNUNET_CONTAINER_heap_insert (myHeap, "20", 20);
n3 = GNUNET_CONTAINER_heap_insert (myHeap, "30", 30);
n4 = GNUNET_CONTAINER_heap_insert (myHeap, "40", 40);
n5 = GNUNET_CONTAINER_heap_insert (myHeap, "50", 50);
n6 = GNUNET_CONTAINER_heap_insert (myHeap, "60", 60);
// Inserting nodes deeper in the tree with lower costs
n7 = GNUNET_CONTAINER_heap_insert (myHeap, "70", 10);
n8 = GNUNET_CONTAINER_heap_insert (myHeap, "80", 10);
GNUNET_assert (0 == nstrcmp ("30", GNUNET_CONTAINER_heap_remove_node (n3)));
// Cleaning up...
GNUNET_assert (0 == nstrcmp ("60", GNUNET_CONTAINER_heap_remove_node (n6)));
GNUNET_assert (0 == nstrcmp ("50", GNUNET_CONTAINER_heap_remove_node (n5)));
// Testing heap_walk_get_next
GNUNET_CONTAINER_heap_walk_get_next (myHeap);
GNUNET_CONTAINER_heap_walk_get_next (myHeap);
GNUNET_CONTAINER_heap_walk_get_next (myHeap);;
GNUNET_CONTAINER_heap_walk_get_next (myHeap);
GNUNET_CONTAINER_heap_walk_get_next (myHeap);
GNUNET_assert (0 == nstrcmp ("10", GNUNET_CONTAINER_heap_remove_node (n1)));
GNUNET_assert (0 == nstrcmp ("20", GNUNET_CONTAINER_heap_remove_node (n2)));
GNUNET_assert (0 == nstrcmp ("40", GNUNET_CONTAINER_heap_remove_node (n4)));
GNUNET_assert (0 == nstrcmp ("70", GNUNET_CONTAINER_heap_remove_node (n7)));
GNUNET_assert (0 == nstrcmp ("80", GNUNET_CONTAINER_heap_remove_node (n8)));
// End Testing remove_node
GNUNET_CONTAINER_heap_destroy (myHeap);
return 0;
}
int main(int argc, char *argv[])
{
XCBConnection *c;
int scrn;
char *display_name = NULL;
char *name = NULL;
XCBWINDOW root_window = {0};
XCBSCREEN *screen;
XCBXvQueryExtensionRep *query_ext;
XCBXvQueryAdaptorsRep *adaptors_rep;
XCBXvAdaptorInfoIter adaptors_iter;
XCBXvAdaptorInfo *ainfo;
XCBXvFormat *format;
XCBXvQueryPortAttributesRep *attr_rep;
XCBXvAttributeInfoIter attr_iter;
XCBXvAttributeInfo *attribute;
int nscreens, nattr, i, j, k;
if ((argc != 1) && (argc != 3))
PrintUsage();
if (argc != 1) {
if (strcmp(argv[1], "-display"))
PrintUsage();
display_name = argv[2];
}
if (!display_name) display_name = getenv("DISPLAY");
if (!(c = XCBConnect(display_name, &scrn)))
{
fprintf(stderr, "xcbxvinfo: Unable to open display %s\n", display_name);
exit(1);
}
if (!(query_ext = XCBXvQueryExtensionReply(c, XCBXvQueryExtension(c), NULL)))
{
fprintf(stderr, "xvinfo: No X-Video extension on %s\n", display_name);
exit(0);
}
else
{
fprintf(stdout, "X-Video Extension version %i.%i\n", query_ext->major, query_ext->minor);
}
free(query_ext);
nscreens = XCBConnSetupSuccessRepRootsIter(XCBGetSetup(c)).rem;
for (i = 0; i < nscreens; i++)
{
fprintf(stdout, "screen #%i\n", i);
screen = ScreenOfDisplay(c, scrn);
if (screen) root_window = screen->root;
adaptors_rep = XCBXvQueryAdaptorsReply(c, XCBXvQueryAdaptors(c, root_window), NULL);
if (!adaptors_rep->num_adaptors) {
fprintf(stdout, " no adaptors present.\n");
continue;
}
adaptors_iter = XCBXvQueryAdaptorsInfoIter(adaptors_rep);
for (j = 0; j < adaptors_rep->num_adaptors; j++)
{
ainfo = adaptors_iter.data;
name = ExtractString(XCBXvAdaptorInfoName(ainfo), XCBXvAdaptorInfoNameLength(ainfo));
fprintf(stdout, " Adaptor #%i: \"%s\"\n", j, name);
fprintf(stdout, " number of ports: %i\n", ainfo->num_ports);
fprintf(stdout, " port base: %li\n", ainfo->base_id.xid);
fprintf(stdout, " operations supported: ");
free(name);
switch(ainfo->type & (XCBXvTypeInputMask | XCBXvTypeOutputMask)) {
case XCBXvTypeInputMask:
if (ainfo->type & XCBXvTypeVideoMask)
fprintf(stdout, "PutVideo ");
if (ainfo->type & XCBXvTypeStillMask)
fprintf(stdout, "PutStill ");
if (ainfo->type & XCBXvTypeImageMask)
fprintf(stdout, "PutImage ");
break;
case XCBXvTypeOutputMask:
if (ainfo->type & XCBXvTypeVideoMask)
fprintf(stdout, "GetVideo ");
if (ainfo->type & XCBXvTypeStillMask)
fprintf(stdout, "GetStill ");
break;
default:
fprintf(stdout, "none ");
break;
}
fprintf(stdout, "\n");
format = XCBXvAdaptorInfoFormats(ainfo);
fprintf(stdout, " supported visuals:\n");
for (k=0; k < ainfo->num_formats; k++, format++)
fprintf(stdout, " depth %i, visualID 0x%2lx\n",
format->depth, format->visual.id);
attr_rep = XCBXvQueryPortAttributesReply(c,
XCBXvQueryPortAttributes(c, ainfo->base_id), NULL);
nattr = attr_rep->num_attributes;
attr_iter = XCBXvQueryPortAttributesAttributesIter(attr_rep);
if (nattr) {
fprintf(stdout, " number of attributes: %i\n", nattr);
for (k = 0; k < nattr; k++) {
attribute = attr_iter.data;
fprintf(stdout, " \"%s\" (range %li to %li)\n",
XCBXvAttributeInfoName(attribute),
attribute->min,
attribute->max);
if (attribute->flags & XCBXvAttributeFlagSettable)
fprintf(stdout, " client settable attribute\n");
if (attribute->flags & XCBXvAttributeFlagGettable) {
XCBATOM the_atom;
XCBInternAtomRep *atom_rep;
fprintf(stdout, " client gettable attribute");
atom_rep = XCBInternAtomReply(c,
XCBInternAtom(c,
1,
/*XCBXvAttributeInfoNameLength(attribute),*/
strlen(XCBXvAttributeInfoName(attribute)),
XCBXvAttributeInfoName(attribute)),
NULL);
the_atom = atom_rep->atom;
if (the_atom.xid != 0) {
XCBXvGetPortAttributeRep *pattr_rep =
XCBXvGetPortAttributeReply(c,
XCBXvGetPortAttribute(c, ainfo->base_id, the_atom),
NULL);
if (pattr_rep) fprintf(stdout, " (current value is %li)", pattr_rep->value);
free(pattr_rep);
}
fprintf(stdout, "\n");
free(atom_rep);
}
XCBXvAttributeInfoNext(&attr_iter);
}
}
else {
fprintf(stdout, " no port attributes defined\n");
}
XCBXvQueryEncodingsRep *qencodings_rep;
qencodings_rep = XCBXvQueryEncodingsReply(c, XCBXvQueryEncodings(c, ainfo->base_id), NULL);
int nencode = qencodings_rep->num_encodings;
XCBXvEncodingInfoIter encoding_iter = XCBXvQueryEncodingsInfoIter(qencodings_rep);
XCBXvEncodingInfo *encoding;
int ImageEncodings = 0;
if (nencode) {
int n;
for (n = 0; n < nencode; n++) {
encoding = encoding_iter.data;
name = ExtractString(XCBXvEncodingInfoName(encoding), XCBXvEncodingInfoNameLength(encoding));
if (!nstrcmp(name, strlen(name), "XV_IMAGE"))
ImageEncodings++;
XCBXvEncodingInfoNext(&encoding_iter);
free(name);
}
if(nencode - ImageEncodings) {
fprintf(stdout, " number of encodings: %i\n", nencode - ImageEncodings);
/* Reset the iter. */
encoding_iter = XCBXvQueryEncodingsInfoIter(qencodings_rep);
for(n = 0; n < nencode; n++) {
encoding = encoding_iter.data;
name = ExtractString(XCBXvEncodingInfoName(encoding), XCBXvEncodingInfoNameLength(encoding));
if(nstrcmp(name, strlen(name), "XV_IMAGE")) {
fprintf(stdout,
" encoding ID #%li: \"%*s\"\n",
encoding->encoding.xid,
strlen(name),
name);
fprintf(stdout, " size: %i x %i\n",
encoding->width,
encoding->height);
fprintf(stdout, " rate: %f\n",
(float)encoding->rate.numerator/
(float)encoding->rate.denominator);
free(name);
}
XCBXvEncodingInfoNext(&encoding_iter);
}
}
if(ImageEncodings && (ainfo->type & XCBXvTypeImageMask)) {
char imageName[5] = {0, 0, 0, 0, 0};
encoding_iter = XCBXvQueryEncodingsInfoIter(qencodings_rep);
for(n = 0; n < nencode; n++) {
encoding = encoding_iter.data;
name = ExtractString(XCBXvEncodingInfoName(encoding), XCBXvEncodingInfoNameLength(encoding));
if(!nstrcmp(name, strlen(name), "XV_IMAGE")) {
fprintf(stdout,
" maximum XvImage size: %i x %i\n",
encoding->width, encoding->height);
break;
}
free(name);
}
XCBXvListImageFormatsRep *formats_rep;
formats_rep = XCBXvListImageFormatsReply(c,
XCBXvListImageFormats(c, ainfo->base_id),
NULL);
int numImages = formats_rep->num_formats;
XCBXvImageFormatInfo *format;
XCBXvImageFormatInfoIter formats_iter = XCBXvListImageFormatsFormatIter(formats_rep);
fprintf(stdout, " Number of image formats: %i\n",
numImages);
for(n = 0; n < numImages; n++) {
format = formats_iter.data;
memcpy(imageName, &(format->id), 4);
fprintf(stdout, " id: 0x%lx", format->id);
if(isprint(imageName[0]) && isprint(imageName[1]) &&
isprint(imageName[2]) && isprint(imageName[3]))
{
fprintf(stdout, " (%s)\n", imageName);
} else {
fprintf(stdout, "\n");
}
fprintf(stdout, " guid: ");
fprintf(stdout, "%02x", (unsigned char)
format->guid[0]);
fprintf(stdout, "%02x", (unsigned char)
format->guid[1]);
fprintf(stdout, "%02x", (unsigned char)
format->guid[2]);
fprintf(stdout, "%02x-", (unsigned char)
format->guid[3]);
fprintf(stdout, "%02x", (unsigned char)
format->guid[4]);
fprintf(stdout, "%02x-", (unsigned char)
format->guid[5]);
fprintf(stdout, "%02x", (unsigned char)
format->guid[6]);
fprintf(stdout, "%02x-", (unsigned char)
format->guid[7]);
fprintf(stdout, "%02x", (unsigned char)
format->guid[8]);
fprintf(stdout, "%02x-", (unsigned char)
format->guid[9]);
fprintf(stdout, "%02x", (unsigned char)
format->guid[10]);
fprintf(stdout, "%02x", (unsigned char)
format->guid[11]);
fprintf(stdout, "%02x", (unsigned char)
format->guid[12]);
fprintf(stdout, "%02x", (unsigned char)
format->guid[13]);
fprintf(stdout, "%02x", (unsigned char)
format->guid[14]);
fprintf(stdout, "%02x\n", (unsigned char)
format->guid[15]);
fprintf(stdout, " bits per pixel: %i\n",
format->bpp);
fprintf(stdout, " number of planes: %i\n",
format->num_planes);
fprintf(stdout, " type: %s (%s)\n",
(format->type == XCBXvImageFormatInfoTypeRGB) ? "RGB" : "YUV",
(format->format == XCBXvImageFormatInfoFormatPacked) ? "packed" : "planar");
if(format->type == XCBXvImageFormatInfoTypeRGB) {
fprintf(stdout, " depth: %i\n",
format->depth);
fprintf(stdout, " red, green, blue masks: "
"0x%lx, 0x%lx, 0x%lx\n",
format->red_mask,
format->green_mask,
format->blue_mask);
} else {
}
XCBXvImageFormatInfoNext(&formats_iter);
}
free(formats_rep);
}
}
free(qencodings_rep);
XCBXvAdaptorInfoNext(&adaptors_iter);
}
}
free(adaptors_rep);
adaptors_rep = NULL;
return 1;
}
uint8_t Nordic::term_complete() {
uint8_t ret_val = _SENTENCE_NONE;
// the first term determines the sentence type
if (_term_number == 0) {
if (!nstrcmp(_term, _LOC_TERM))
_sentence_type = _SENTENCE_LOC;
else if (!nstrcmp(_term, _HRM_TERM))
_sentence_type = _SENTENCE_HRM;
else if (!nstrcmp(_term, _CAD_TERM))
_sentence_type = _SENTENCE_CAD;
else if (!nstrcmp(_term, _ANCS_TERM))
_sentence_type = _SENTENCE_ANCS;
else if (!nstrcmp(_term, _PC_TERM))
_sentence_type = _SENTENCE_PC;
else if (!nstrcmp(_term, _BTN_TERM))
_sentence_type = _SENTENCE_BTN;
else if (!nstrcmp(_term, _DBG_TERM))
_sentence_type = _SENTENCE_DBG;
else
_sentence_type = _SENTENCE_OTHER;
return false;
}
if (_sentence_type != _SENTENCE_OTHER && _term[0]) {
// on doit parser l'info (_term)
switch (COMBINE(_sentence_type, _term_number)) {
case COMBINE(_SENTENCE_LOC, 1):
_sec_jour = natol(_term);
break;
case COMBINE(_SENTENCE_LOC, 2):
_lat = parse_sint();
break;
case COMBINE(_SENTENCE_LOC, 3):
_lon = parse_sint();
break;
case COMBINE(_SENTENCE_LOC, 4):
_ele = parse_sint();
break;
case COMBINE(_SENTENCE_LOC, 5):
_gps_speed = parse_sint();
ret_val = _SENTENCE_LOC;
break;
case COMBINE(_SENTENCE_HRM, 1):
_bpm = natol(_term);
break;
case COMBINE(_SENTENCE_HRM, 2):
_rr = natol(_term);
ret_val = _SENTENCE_HRM;
break;
case COMBINE(_SENTENCE_CAD, 1):
_rpm = natol(_term);
break;
case COMBINE(_SENTENCE_CAD, 2):
_cad_speed = natol(_term);
ret_val = _SENTENCE_CAD;
break;
case COMBINE(_SENTENCE_ANCS, 1):
_ancs_type = natol(_term);
break;
case COMBINE(_SENTENCE_ANCS, 2):
if (_ancs_type == 0) {
_ancs_msg = _term;
ret_val = _SENTENCE_ANCS;
} else {
_ancs_title = _term;
}
break;
case COMBINE(_SENTENCE_ANCS, 3):
_ancs_msg = _term;
ret_val = _SENTENCE_ANCS;
break;
case COMBINE(_SENTENCE_DBG, 1):
_dbg_type = natol(_term);
break;
case COMBINE(_SENTENCE_DBG, 2):
_dbg_code = natol(_term);
break;
case COMBINE(_SENTENCE_DBG, 3):
_dbg_line = natol(_term);
if (_dbg_type == 0) {
ret_val = _SENTENCE_DBG;
}
break;
case COMBINE(_SENTENCE_DBG, 4):
if (_dbg_type == 1) {
_dbg_file = _term;
ret_val = _SENTENCE_DBG;
}
break;
case COMBINE(_SENTENCE_BTN, 1):
_btn = natol(_term) + 1;
ret_val = _SENTENCE_BTN;
break;
case COMBINE(_SENTENCE_PC, 1):
_pc = natol(_term);
ret_val = _SENTENCE_PC;
break;
}
}
return ret_val;
}
unsigned char *SaraORtn( register unsigned char *TempIndx ) {
register short i;
unsigned char *TempIndxm1 = TempIndx - 1;
short SoreSeoTbLen = 6; /* 7 - 1 */
short OrAngTbLen = 8; /* 9 - 1 */
short MoreMarTbLen = 6; /* 7 - 1 */
short NoreNooTbLen = 1; /* 2 - 1 */
short ShoreChangTbLen = 3; /* 4 - 1 */
static char *SoreSeoTable[] = { "╩т┼╟ь", "╩т╣╟ь", "╩т╡├ь", "╩т┴╩├", "╩т╡╣", "╩тд╗", "╩т┼сб╣" };
static char *OrAngTable[] = { "═т│╖╤┬", "═т├д┬╥", "═т╦╩╘", "═т╣к╥", "═т╖╩╨", "═т┴╦╨", "═т┼└╨", "═т┼╦╨", "═т╚б" };
static char *MoreMarTable[] = { "┴т╦├╨╖╓б", "┴т╦├╩╛", "┴т╦╠╥├", "┴т╦├╒", "┴т╦╩╢", "┴т╣└╥╛", "┴т╣╕├├┴" };
static char *NoreNooTable[] = { "╣т┬║╥┬", "╣т├┤┴" };
static char *ShoreChangTable[] = { "кт┼║┼", "кт┼╕├", "кт┼┴", "кт┬" };
static char ToreTaharnWord[] = "╖т┴╣";
static char RoreReoWord[] = "├т╦░╥╣";
static char YoreYakWord[] = "┬т╩";
static char KorKaiWord[] = "вт┴┬";
switch ( *( TempIndxm1 ) ) {
case SoreSeo: /* ╩т┼╟ь ╩т╣╟ь ╩т╡├ь ╩т┴╩├ ╩т╡╣ ╩тд╗ ╩т┼сб╣*/
for ( i = 0; i <= SoreSeoTbLen; ++i ) {
if ( !( nstrcmp( SoreSeoTable[i], TempIndxm1 ) ) ) {
return( TempIndx - 2 ); /* cut before consonant that before Sara O */
}
}
return( TempIndxm1 ); /* cut before sara O */
case OrAng: /* ═т│╖╤┬ ═т├д┬╥ ═т╦╩╘ ═т╣к╥ ═т╖╩╨ ═т┴╦╨ ═т┼└╨ ═т┼╦╨ ═т╚б*/
for ( i = 0; i <= OrAngTbLen; ++i ) {
if ( !( nstrcmp( OrAngTable[i], TempIndxm1 ) ) ) {
return( TempIndx - 2 ); /* cut before consonant that before Sara O */
}
}
return( TempIndxm1 ); /* cut before sara O */
case MoreMar: /* ┴т╦├╨╖╓б, ┴т╦├╩╛,┴т╦╠╥├,┴т╦├,┴т╦╩╢ */
for ( i = 0; i <= MoreMarTbLen; ++i ) {
if ( !( nstrcmp( MoreMarTable[i], TempIndxm1 ) ) ) {
return( TempIndx - 2 ); /* cut before consonant that before Sara O */
}
}
return( TempIndxm1 ); /* cut before sara O */
case NoreNoo: /* ╣т┬║╥┬ ╣т├┤┴ */
if ( !( nstrcmp( "╣т┴", TempIndxm1 ) ) && !( istlvwl( *( TempIndx - 2 ) ) ) ) {
if ( !( isttnl( *( TempIndx + 2 ) ) ) ) {
return( TempIndx - 2 ); /*cut before NoreNoo */
}
}
for ( i = 0; i <= NoreNooTbLen; ++i ) {
if ( !( nstrcmp( NoreNooTable[i], TempIndxm1 ) ) ) {
return( TempIndx - 2 ); /* cut before consonant that before Sara O */
}
}
return( TempIndxm1 ); /* cut before sara O */
case ShoreChang: /* кт┼║┼ кт┼╕├ кт┼┴ кт┬ */
for ( i = 0; i <= ShoreChangTbLen; ++i ) {
if ( !( nstrcmp( ShoreChangTable[i], TempIndxm1 ) ) ) {
return( TempIndx - 2 ); /* cut before consonant that before Sara O */
}
}
return( TempIndxm1 ); /* cut before sara O */
case ToreTaharn: /* ╖т┴╣ */
if ( nstrcmp( ToreTaharnWord, TempIndxm1 ) ) {
return( TempIndxm1 ); /* cut before sara O */
} else {
return( TempIndx - 2 ); /* cut before consonant that before Sara O */
}
break;
case RoreReo: /* ├т╦░╥╣ */
if ( nstrcmp( RoreReoWord, TempIndxm1 ) ) {
return( TempIndxm1 ); /* cut before sara O */
} else {
return( TempIndx - 2 ); /* cut before consonant that before Sara O */
}
break;
case YoreYak: /* ┬т╩ */
if ( nstrcmp( YoreYakWord, TempIndxm1 ) ) {
return( TempIndxm1 ); /* cut before sara O */
} else {
return( TempIndx - 2 ); /* cut before consonant that before Sara O */
}
break;
case KorKai: /* вт┴┬ */
if ( nstrcmp( KorKaiWord, TempIndxm1 ) ) {
return( TempIndxm1 ); /* cut before sara O */
} else {
return( TempIndx - 2 ); /* cut before consonant that before Sara O */
}
break;
/*
default:
return( TempIndx - 1 );
*/
}
return( TempIndx - 1 );
}
unsigned char *HunAkadRtn( register unsigned char *TempIndx ) {
register unsigned char *plus1 = TempIndx + 1;
register unsigned char *minus2 = TempIndx - 2;
if ( plus1 <= RightMargin ) {
switch ( *( plus1 ) ) {
case KoreGai:
if ( findchar( *( TempIndx - 1 ), "¡§ª«´µ¶º»¿ÁÇË" ) ) {
return( plus1 );
}
break;
case NgorNgoo:
switch ( *( TempIndx - 1 ) ) {
case SoreSeo:
if ( *( TempIndx + 2 ) != KorKai && *( TempIndx + 2 ) != KoreRakung ) {
return( plus1 );
}
break;
case RoreReo:
if ( !nstrcmp( "¡Ãѧ´ì", minus2 ) ) {
return( TempIndx - 3 );
} else {
return( plus1 );
}
default:
return( plus1 );
}
break;
case DoreDek:
return( plus1 );
case NoreNoo:
if ( *( TempIndx + 3 ) != Karan ) {
return( plus1 );
}
break;
case YoreYak:
if ( !nstrcmp( "¹Ñ¹ì", TempIndx - 1 ) ) {
return( minus2 );
} else {
return( plus1 );
}
case SoreSeo:
if ( *( TempIndx + 4 ) != Karan ) {
return( plus1 );
}
break;
case WoreWaan:
switch ( *( TempIndx + 2 ) ) {
case SaraAh:
if ( TempIndx + 2 <= RightMargin ) {
return( TempIndx + 2 );
}
break;
case RoreReo:
if ( *( TempIndx + 3 ) == Karan ) {
return( minus2 );
}
break;
default:
return( plus1 );
}
break;
default:
if ( isttnl( *( plus1 ) ) ) {
if ( *( TempIndx + 4 ) == Karan ) {
return( minus2 );
} else {
if ( TempIndx + 2 <= RightMargin ) {
return( TempIndx + 2 );
}
}
}
}
switch ( *( TempIndx - 1 ) ) {
case NgorNgoo:
return( plus1 );
case NoreNoo:
if ( !findchar( *( plus1 ), "µ¹Â" ) ) {
return( plus1 );
}
break;
case MoreMar:
if ( !findchar( *( plus1 ), "¤¹Ç" ) ) {
return( plus1 );
}
break;
case RoreReo:
if ( !findchar( *( plus1 ), "¡µ¾È" ) ) {
return( plus1 );
}
break;
case HorHeeb:
if ( *( plus1 ) != ToreTao && *( plus1 ) != NoreNoo ) {
return( plus1 );
}
break;
case HorNokHook:
return( plus1 );
}
}
if ( findchar( *( TempIndx - 1 ), "¢¤¦ª«±³¶¸»¼½¾¿ÈÊÍÎ" ) ) {
return( minus2 );
} else {
switch ( *( TempIndx - 1 ) ) {
case KoreGai:
return( *minus2 == SoreSeo ? FAIL : minus2 );
case NgorNgoo:
switch ( *minus2 ) {
case HorHeeb:
return( TempIndx - 3 );
case SoreSeo:
return( FAIL );
default:
return( minus2 );
}
case JoreJarn:
return( ( *minus2 == KorKai ) ? FAIL : minus2 );
case DoreDek:
return( ( *minus2 == SoreSeo ) ? FAIL : minus2 );
case ToreTao:
return( ( *minus2 == KoreGai ) ? FAIL : minus2 );
case ToreTaharn:
switch ( *minus2 ) {
case HorHeeb:
return( TempIndx - 3 );
case WoreWaan:
return( FAIL );
default:
return( minus2 );
}
case BoreBaimai:
return( ( *minus2 == ChorChing ) ? TempIndx - 3 : minus2 );
case PoreSumpao:
return( ( *minus2 == OrAng ) ? FAIL : minus2 );
case WoreWaan:
return( findchar( *minus2, "¡¢¤¨©µ¶¸ÊË" ) ? FAIL : minus2 );
case HorHeeb:
return( findchar( *minus2, "ÁÃÍ" ) ? FAIL : minus2 );
}
}
return( FAIL );
}
int read_input_file( char *fname, FILE *outfp, int *dim, RAT **ar, int *nel_ar,
char *intkey1, int **intli1, char *intkey2, int **intli2,
char *RATkey1, RAT **RATli1 )
/*****************************************************************/
/*
* Read the dimension "dim",
* a table "ar" of points (in case of a .poi file),
* or of inequalities (in case of a .ieq file),
* a line "intli1" of integers occurring after keyword "intkey1",
* a line "intli2" of integers occurring after keyword "intkey2",
* a line "RATli1" of rationals occurring after keyword "RATkey1".
* "ar6" is a point that is output in the VALID section in the .ieq file.
*
* Change by M.S. 5.6.92:
* If "outfp" exists (e.g. if is_set(Sort)),
* copy the input file into outfp,
* except for the INEQUALITIES_SECTION, the CONV_SECTION, and the CONE_SECTION,
* and END.
*/
{
int i,j,ieqs,nonempty,arrows=0,arrowl=0,cone = 0,conv = 0,line;
int *hip;
char *in,*end = "END",
equalities[22],
convstr[13],conestr[13],key_eli[18],key_val[6],key_low[13],key_upp[13],
*comm = "COMMENT" ;
char scanned_inline[MAXLINE];
char in_line[MAXLINE];
RAT val;
line = 0;
strcpy (equalities,"INEQUALITIES_SECTION");
strcpy (convstr,"CONV_SECTION");
strcpy (conestr,"CONE_SECTION");
strcpy (key_eli,"ELIMINATION_ORDER");
strcpy (key_val,"VALID");
strcpy (key_upp,"UPPER_BOUNDS");
strcpy (key_low,"LOWER_BOUNDS");
fp = fopen(fname,"r");
if (fp == 0)
msg( "%s : no such file", fname, 0 );
/*
* Read the first line into string "in_line". Leading blanks are skipped.
* In_Line should start with "DIM=".
*/
do
{
nonempty = get_line(fp,fname,in_line,&line );
}
while (!nonempty);
scan_line(&val,3,0,line,fname,in_line,scanned_inline);
if (strncmp(scanned_inline,"DIM=",4) == 0)
{
in = scanned_inline+4;
*dim = atoi(in);
if (*dim == 0)
msg("%s, line %i : dimension error",fname,line);
if (outfp)
{
fprintf(outfp,"%s",in_line);
/* 17.01.1994: include logging on file porta.log */
porta_log( "%s",in_line);
}
}
ieqs = (strcmp(fname+strlen(fname)-4,".ieq") == 0);
if( ieqs )
{
equa = ineq = 0;
convstr[0] = conestr[0] = '\n';
arrowl = *dim+2;
if (!strcmp(intkey1,"ELIMINATION_ORDER") || !strcmp(intkey2,"ELIMINATION_ORDER"))
key_eli[0] = '\n';
if (!strcmp(intkey1,"LOWER_BOUNDS") || !strcmp(intkey2,"LOWER_BOUNDS"))
key_low[0] = '\n';
if (!strcmp(intkey1,"UPPER_BOUNDS") || !strcmp(intkey2,"UPPER_BOUNDS"))
key_upp[0] = '\n';
if (!strcmp(RATkey1,"VALID"))
key_val[0] = '\n';
}
else
{
/*
* key_eli, key_low, key_upp, and key_val are set to 0,
* if they already appear as input parameters to this subroutine.
* In this way, if e.g. the keyword "VALID" is encountered twice in the
* input file, an error message is produced.
* "convstr" and "conestr" are set to "\n",
* so that the keywords "CONV_SECTION" and "CONE_SECTION"
* result in an error message, if they appear in the .ieq file.
*/
cone = conv = 0;
key_val[0] = key_upp[0] = key_low[0] = key_eli[0] = equalities[0] = '\n';
arrowl = *dim+1;
}
/*
* ar6 is initialized to 0.
* It is overwritten by a point in the CONV_SECTION,
* or by a point in the VALID section.
*/
ar6 = (RAT *) RATallo(ar6,0,*dim);
for (j = 0; j < *dim; j++)
{
ar6[j].num = 0;
ar6[j].den.i = 1;
}
/* Read the next line into string "in_line" and scan it */
nonempty = get_line(fp,fname,in_line,&line );
scan_line(&val,3,0,line,fname,in_line,scanned_inline);
do
{
if (!nonempty)
{
if(outfp)
{
fprintf(outfp,"%s",in_line);
/* 17.01.1994: include logging on file porta.log */
porta_log( "%s",in_line);
}
nonempty = get_line(fp,fname,in_line,&line);
scan_line(&val,3,0,line,fname,in_line,scanned_inline);
}
else if (strncmp(scanned_inline,comm,7) == 0)
{
/*
* Overread keyword COMMENT and all following lines,
* until the next keyword (i.e. one of the arguments of nstrcmp() )
* is encountered.
*/
do
{
if(outfp)
{
fprintf(outfp,"%s",in_line);
/* 17.01.1994: include logging on file porta.log */
porta_log( "%s",in_line);
}
nonempty = get_line(fp,fname,in_line,&line);
scan_line(&val,3,0,line,fname,in_line,scanned_inline);
}
while (nstrcmp(scanned_inline,conestr,equalities,end,
intkey1,intkey2,RATkey1,convstr) || !nonempty);
}
else if (strcmp(scanned_inline,RATkey1) == 0)
{
/*
* If the keyword RATkey1 is encountered,
* read the next line of "dim" rationals into array RATli1.
* RATkey1 is "VALID" for "traf *.ieq" applications.
*/
if(outfp)
{
fprintf(outfp,"%s",in_line);
/* 17.01.1994: include logging on file porta.log */
porta_log( "%s",in_line);
}
/*
When calling read_input_file, RATkey1 is always
assigned to a const argument (string).
Therefore it isn't allowed to assign new
values to this argument. By the way, this
statement causes a bus error on some architectures
like the HP!
18.01.1994, Andreas Loebel
RATkey1[0] = '\n';
*RATli1 = (RAT *) RATallo(*RATkey1,0,*dim);
*/
*RATli1 = (RAT *) RATallo(CP 0,0,*dim);
do
{
nonempty = get_line(fp,fname,in_line,&line);
if(outfp)
{
fprintf(outfp,"%s",in_line);
/* 17.01.1994: include logging on file porta.log */
porta_log( "%s",in_line);
}
}
while (!nonempty);
scan_line(*RATli1,1,*dim,line,fname,in_line,scanned_inline);
nonempty = get_line(fp,fname,in_line,&line);
scan_line(&val,3,0,line,fname,in_line,scanned_inline);
}
else if (strcmp(scanned_inline,key_val) == 0)
{
/*
* keyval[0] == "VALID", iff
* Ratkey1 was not "VALID" at the start of function read_input_file()
* Otherwise keyval[0] = '\n'
* --> "VALID" is accepted as a keyword at most once.
*/
if(outfp)
{
fprintf(outfp,"%s",in_line);
/* 17.01.1994: include logging on file porta.log */
porta_log( "%s",in_line);
}
key_val[0] = '\n';
/*
* Change by M.S.: "ar6" was already allocated earlier,
* and it is never freed in this loop.
ar6 = (RAT *) RATallo(ar6,0,*dim);
*/
do
{
nonempty = get_line(fp,fname,in_line,&line);
if(outfp)
{
fprintf(outfp,"%s",in_line);
/* 17.01.1994: include logging on file porta.log */
porta_log( "%s",in_line);
}
}
while (!nonempty);
scan_line(ar6,1,*dim,line,fname,in_line,scanned_inline);
nonempty = get_line(fp,fname,in_line,&line);
scan_line(&val,3,0,line,fname,in_line,scanned_inline);
/* change by M.S. 31.5.92:
* "ar6" is also used when reading the CONV_SECTION, so don't free it.
ar6 = (RAT *) RATallo(ar6,*dim,0);
*/
}
else if (strcmp(scanned_inline,intkey1) == 0)
{
if(outfp)
{
fprintf(outfp,"%s",in_line);
/* 17.01.1994: include logging on file porta.log */
porta_log( "%s",in_line);
}
intkey1[0] = '\n';
*intli1 = (int *) allo(*intli1,0,*dim*sizeof(int));
do
{
nonempty = get_line(fp,fname,in_line,&line);
if(outfp)
{
fprintf(outfp,"%s",in_line);
/* 17.01.1994: include logging on file porta.log */
porta_log( "%s",in_line);
}
}
while (!nonempty);
scan_line((RAT *)*intli1,2,*dim,line,fname,in_line,scanned_inline);
nonempty = get_line(fp,fname,in_line,&line);
scan_line(&val,3,0,line,fname,in_line,scanned_inline);
}
else if (strcmp(scanned_inline,intkey2) == 0)
{
if(outfp)
{
fprintf(outfp,"%s",in_line);
/* 17.01.1994: include logging on file porta.log */
porta_log( "%s",in_line);
}
intkey2[0] = '\n';
*intli2 = (int *) allo(*intli2,0,*dim*sizeof(int));
do
{
nonempty = get_line(fp,fname,in_line,&line);
if(outfp)
{
fprintf(outfp,"%s",in_line);
/* 17.01.1994: include logging on file porta.log */
porta_log( "%s",in_line);
}
}
while (!nonempty);
scan_line((RAT *)*intli2,2,*dim,line,fname,in_line,scanned_inline);
nonempty = get_line(fp,fname,in_line,&line);
scan_line(&val,3,0,line,fname,in_line,scanned_inline);
}
else if (!strcmp(scanned_inline,key_eli)
|| !strcmp(scanned_inline,key_low)
|| !strcmp(scanned_inline,key_upp) )
{
/*
* array "hip" is just a temporary array.
*/
if(outfp)
{
fprintf(outfp,"%s",in_line);
/* 17.01.1994: include logging on file porta.log */
porta_log( "%s",in_line);
}
if (!strcmp(scanned_inline,key_eli)) key_eli[0] = '\n';
if (!strcmp(scanned_inline,key_low)) key_low[0] = '\n';
if (!strcmp(scanned_inline,key_upp)) key_upp[0] = '\n';
hip = (int *) allo(CP 0,0,*dim*sizeof(int));
do
{
nonempty = get_line(fp,fname,in_line,&line);
if(outfp)
{
fprintf(outfp,"%s",in_line);
/* 17.01.1994: include logging on file porta.log */
porta_log( "%s",in_line);
}
}
while (!nonempty);
scan_line((RAT *)hip,2,*dim,line,fname,in_line,scanned_inline);
nonempty = get_line(fp,fname,in_line,&line);
scan_line(&val,3,0,line,fname,in_line,scanned_inline);
hip = (int *) allo(hip,*dim*sizeof(int),0);
}
else if (strcmp(scanned_inline, convstr) == 0)
{
/*
* Read the CONV_SECTION into array "ar".
* For all points j=1,...,conv in the CONV_SECTION,
* ar[j-1][dim] is set to 1.
* "arrowl" was set to dim+1 earlier.
*/
convstr[0] = '\n';
*ar = (RAT *) RATallo(*ar,arrows*arrowl,
(arrows+INCR_INSYS_ROW)*arrowl);
arrows += INCR_INSYS_ROW;
do
{
nonempty = get_line(fp,fname,in_line,&line);
}
while (!nonempty);
while (scan_line(*ar+(conv+cone)*arrowl,0,*dim,line,fname,
in_line,scanned_inline))
{
(*ar+(conv+cone)*arrowl+*dim)->num = 1;
if (conv+cone+2 > arrows)
{
*ar = (RAT *) RATallo(*ar,arrows*arrowl,
(arrows+INCR_INSYS_ROW)*arrowl);
arrows += INCR_INSYS_ROW;
}
do
{
nonempty = get_line(fp,fname,in_line,&line);
}
while (!nonempty);
conv++;
}
/* repeat the last point in array "ar6" */
for (j = 0; j < *dim; j++)
ar6[j] = (*ar+(conv+cone-1)*arrowl)[j];
}
else if ((strcmp(scanned_inline, conestr) == 0))
{
/*
* Read the CONE_SECTION
* ar[j-1][dim] is initialized by RATallo to 0.
*/
conestr[0] = '\n';
*ar = (RAT *) RATallo(*ar,arrows*arrowl,
(arrows+INCR_INSYS_ROW)*arrowl);
arrows += INCR_INSYS_ROW;
do
{
nonempty = get_line(fp,fname,in_line,&line);
}
while (!nonempty);
while (scan_line(*ar+(conv+cone)*arrowl,0,*dim,line,fname,
in_line,scanned_inline))
{
if (conv+cone+2 > arrows)
{
*ar = (RAT *) RATallo(*ar,arrows*arrowl,
(arrows+INCR_INSYS_ROW)*arrowl);
arrows += INCR_INSYS_ROW;
}
do
{
nonempty = get_line(fp,fname,in_line,&line);
}
while (!nonempty);
cone++;
}
}
else if ( (strcmp(scanned_inline, equalities) == 0))
{
/*
* Read the INEQUALITIES_SECTION
* "arrowl" was set to dim+2 earlier.
*/
equalities[0] = '\n';
*ar = (RAT *) RATallo(*ar,arrows*arrowl,
(arrows+INCR_INSYS_ROW)*arrowl);
arrows += INCR_INSYS_ROW;
read_eqie(ar,*dim,&equa,&ineq,&arrows,&line,
fname,in_line,scanned_inline);
nonempty = 1;
}
else if (strcmp(scanned_inline,end) == 0)
{
i = (ieqs) ? equa+ineq : conv+cone;
*nel_ar = (i+1)*arrowl;
*ar = (RAT *) RATallo(*ar,arrows*arrowl,*nel_ar);
fclose(fp);
fprintf(prt,"input file %s o.k.\n",fname);
fprintf(prt, "dimension : %4i \n",*dim);
/* 17.01.1994: include logging on file porta.log */
porta_log( "input file %s o.k.\n",fname);
porta_log( "dimension : %4i \n",*dim);
if (ieqs)
{
fprintf(prt,"number of equations : %4i \n",equa);
fprintf(prt,"number of inequalities : %4i \n\n",ineq);
/* 17.01.1994: include logging on file porta.log */
porta_log( "number of equations : %4i \n",equa);
porta_log( "number of inequalities : %4i \n\n",ineq);
}
else
{
fprintf(prt,"number of cone-points : %4i \n",cone);
fprintf(prt,"number of conv-points : %4i \n\n",conv);
/* 17.01.1994: include logging on file porta.log */
porta_log( "number of cone-points : %4i \n",cone);
porta_log( "number of conv-points : %4i \n\n",conv);
}
return (i);
}
else
msg("%s, line %i : invalid format",fname,line);
}
while (1);
}
