/**
* @brief Find next separate node in a sub-trie
*
* @param d : the double-array structure
* @param root : the sub-trie root to search from
* @param sep : the current separate node
* @param keybuff : the TrieString buffer for incrementally calcuating key
*
* @return index to the next separate node; TRIE_INDEX_ERROR if no more
* separate node is found
*
* Find the next separate node under a sub-trie rooted at @a root starting
* from the current separate node @a sep.
*
* On return, @a keybuff is incrementally updated from the key which walks
* to previous separate node to the one which walks to the new separate node.
* So, it is assumed to be initialized by at least one da_first_separate()
* call before. This incremental key calculation is more efficient than later
* totally reconstructing key from the given separate node.
*
* Available since: 0.2.6
*/
TrieIndex
da_next_separate (DArray *d, TrieIndex root, TrieIndex sep, TrieString *keybuff)
{
TrieIndex parent;
TrieIndex base;
TrieIndex c, max_c;
while (sep != root) {
parent = da_get_check (d, sep);
base = da_get_base (d, parent);
c = sep - base;
trie_string_cut_last (keybuff);
/* find next sibling of sep */
max_c = MIN_VAL (TRIE_CHAR_MAX, d->num_cells - base);
while (++c <= max_c) {
if (da_get_check (d, base + c) == parent) {
trie_string_append_char (keybuff, c);
return da_first_separate (d, base + c, keybuff);
}
}
sep = parent;
}
return TRIE_INDEX_ERROR;
}
static INT buffRdbkVerify(struct bcm_mini_adapter *Adapter, PUCHAR mappedbuffer, UINT u32FirmwareLength, ULONG u32StartingAddress)
{
UINT len = u32FirmwareLength;
INT retval = STATUS_SUCCESS;
PUCHAR readbackbuff = kzalloc(MAX_TRANSFER_CTRL_BYTE_USB, GFP_KERNEL);
int bytes;
if (NULL == readbackbuff) {
BCM_DEBUG_PRINT(Adapter, DBG_TYPE_INITEXIT, MP_INIT, DBG_LVL_ALL, "MEMORY ALLOCATION FAILED");
return -ENOMEM;
}
while (u32FirmwareLength && !retval) {
len = MIN_VAL(u32FirmwareLength, MAX_TRANSFER_CTRL_BYTE_USB);
bytes = rdm(Adapter, u32StartingAddress, readbackbuff, len);
if (bytes < 0) {
retval = bytes;
BCM_DEBUG_PRINT(Adapter, DBG_TYPE_INITEXIT, MP_INIT, DBG_LVL_ALL, "rdm failed with status %d", retval);
break;
}
retval = bcm_compare_buff_contents(readbackbuff, mappedbuffer, len);
if (STATUS_SUCCESS != retval)
break;
u32StartingAddress += len;
u32FirmwareLength -= len;
mappedbuffer += len;
} /* end of while (u32FirmwareLength && !retval) */
kfree(readbackbuff);
return retval;
}
static INT buffRdbkVerify(struct bcm_mini_adapter *Adapter,
PUCHAR mappedbuffer, UINT u32FirmwareLength,
ULONG u32StartingAddress)
{
UINT len = u32FirmwareLength;
INT retval = STATUS_SUCCESS;
PUCHAR readbackbuff = kzalloc(MAX_TRANSFER_CTRL_BYTE_USB, GFP_KERNEL);
int bytes;
if (NULL == readbackbuff)
return -ENOMEM;
while (u32FirmwareLength && !retval) {
len = MIN_VAL(u32FirmwareLength, MAX_TRANSFER_CTRL_BYTE_USB);
bytes = rdm(Adapter, u32StartingAddress, readbackbuff, len);
if (bytes < 0) {
retval = bytes;
break;
}
if (memcmp(readbackbuff, mappedbuffer, len) != 0) {
pr_err("%s() failed. The firmware doesn't match what was written",
__func__);
retval = -EIO;
}
u32StartingAddress += len;
u32FirmwareLength -= len;
mappedbuffer += len;
} /* end of while (u32FirmwareLength && !retval) */
kfree(readbackbuff);
return retval;
}
static void
da_relocate_base (DArray *d,
TrieIndex s,
TrieIndex new_base)
{
TrieIndex old_base;
Symbols *symbols;
int i;
old_base = da_get_base (d, s);
symbols = da_output_symbols (d, s);
for (i = 0; i < symbols_num (symbols); i++) {
TrieIndex old_next, new_next, old_next_base;
old_next = old_base + symbols_get (symbols, i);
new_next = new_base + symbols_get (symbols, i);
old_next_base = da_get_base (d, old_next);
/* allocate new next node and copy BASE value */
da_alloc_cell (d, new_next);
da_set_check (d, new_next, s);
da_set_base (d, new_next, old_next_base);
/* old_next node is now moved to new_next
* so, all cells belonging to old_next
* must be given to new_next
*/
/* preventing the case of TAIL pointer */
if (old_next_base > 0) {
TrieIndex c, max_c;
max_c = MIN_VAL (TRIE_CHAR_MAX, TRIE_INDEX_MAX - old_next_base);
for (c = 0; c < max_c; c++) {
if (da_get_check (d, old_next_base + c) == old_next)
da_set_check (d, old_next_base + c, new_next);
}
}
/* free old_next node */
da_free_cell (d, old_next);
}
symbols_free (symbols);
/* finally, make BASE[s] point to new_base */
da_set_base (d, s, new_base);
}
static Symbols *
da_output_symbols (const DArray *d,
TrieIndex s)
{
Symbols *syms;
TrieIndex base;
TrieIndex c, max_c;
syms = symbols_new ();
base = da_get_base (d, s);
max_c = MIN_VAL (TRIE_CHAR_MAX, TRIE_INDEX_MAX - base);
for (c = 0; c < max_c; c++) {
if (da_get_check (d, base + c) == s)
symbols_add_fast (syms, (TrieChar) c);
}
return syms;
}
static Bool
da_has_children (DArray *d,
TrieIndex s)
{
TrieIndex base;
TrieIndex c, max_c;
base = da_get_base (d, s);
if (TRIE_INDEX_ERROR == base || base < 0)
return FALSE;
max_c = MIN_VAL (TRIE_CHAR_MAX, TRIE_INDEX_MAX - base);
for (c = 0; c < max_c; c++) {
if (da_get_check (d, base + c) == s)
return TRUE;
}
return FALSE;
}
static INT buffDnld(struct bcm_mini_adapter *Adapter, PUCHAR mappedbuffer, UINT u32FirmwareLength, ULONG u32StartingAddress)
{
unsigned int len = 0;
int retval = STATUS_SUCCESS;
len = u32FirmwareLength;
while (u32FirmwareLength) {
len = MIN_VAL(u32FirmwareLength, MAX_TRANSFER_CTRL_BYTE_USB);
retval = wrm(Adapter, u32StartingAddress, mappedbuffer, len);
if (retval) {
BCM_DEBUG_PRINT(Adapter, DBG_TYPE_INITEXIT, MP_INIT, DBG_LVL_ALL, "wrm failed with status :%d", retval);
break;
}
u32StartingAddress += len;
u32FirmwareLength -= len;
mappedbuffer += len;
}
return retval;
}
static INT buffDnld(struct bcm_mini_adapter *Adapter,
PUCHAR mappedbuffer, UINT u32FirmwareLength,
ULONG u32StartingAddress)
{
unsigned int len = 0;
int retval = STATUS_SUCCESS;
len = u32FirmwareLength;
while (u32FirmwareLength) {
len = MIN_VAL(u32FirmwareLength, MAX_TRANSFER_CTRL_BYTE_USB);
retval = wrm(Adapter, u32StartingAddress, mappedbuffer, len);
if (retval)
break;
u32StartingAddress += len;
u32FirmwareLength -= len;
mappedbuffer += len;
}
return retval;
}
/**
* @brief Find first separate node in a sub-trie
*
* @param d : the double-array structure
* @param root : the sub-trie root to search from
* @param keybuff : the TrieString buffer for incrementally calcuating key
*
* @return index to the first separate node; TRIE_INDEX_ERROR on any failure
*
* Find the first separate node under a sub-trie rooted at @a root.
*
* On return, @a keybuff is appended with the key characters which walk from
* @a root to the separate node. This is for incrementally calculating the
* transition key, which is more efficient than later totally reconstructing
* key from the given separate node.
*
* Available since: 0.2.6
*/
TrieIndex
da_first_separate (DArray *d, TrieIndex root, TrieString *keybuff)
{
TrieIndex base;
TrieIndex c, max_c;
while ((base = da_get_base (d, root)) >= 0) {
max_c = MIN_VAL (TRIE_CHAR_MAX, d->num_cells - base);
for (c = 0; c <= max_c; c++) {
if (da_get_check (d, base + c) == root)
break;
}
if (c == max_c)
return TRIE_INDEX_ERROR;
trie_string_append_char (keybuff, c);
root = base + c;
}
return root;
}
/* RFC 6189 p 4.5.1 */
soter_status_t soter_kdf(const void *key, size_t key_length, const char *label, const soter_kdf_context_buf_t *context, size_t context_count, void *output, size_t output_length)
{
soter_hmac_ctx_t hmac_ctx;
soter_status_t soter_status;
soter_status_t res = SOTER_SUCCESS;
uint8_t out[MAX_HMAC_SIZE] = {0, 0, 0, 1};
size_t out_length = sizeof(out);
size_t i;
size_t j;
uint8_t implicit_key[32];
/* If key is not specified, we will generate it from other information (useful for using this kdf for generating data from non-secret parameters such as session_id) */
if (!key)
{
memset(implicit_key, 0, sizeof(implicit_key));
memcpy(implicit_key, label, MIN_VAL(sizeof(implicit_key), strlen(label)));
for (i = 0; i < context_count; i++)
{
if (context[i].data)
{
for (j = 0; j < MIN_VAL(sizeof(implicit_key), context[i].length); j++)
{
implicit_key[j] ^= context[i].data[j];
}
}
}
key = implicit_key;
key_length = sizeof(implicit_key);
}
soter_status = soter_hmac_init(&hmac_ctx, SOTER_HASH_SHA256, key, key_length);
if (SOTER_SUCCESS != soter_status)
{
return soter_status;
}
/* i (counter) */
soter_status = soter_hmac_update(&hmac_ctx, out, 4);
if (SOTER_SUCCESS != soter_status)
{
res = soter_status;
goto err;
}
/* label */
soter_status = soter_hmac_update(&hmac_ctx, label, strlen(label));
if (SOTER_SUCCESS != soter_status)
{
res = soter_status;
goto err;
}
/* 0x00 delimiter */
soter_status = soter_hmac_update(&hmac_ctx, out, 1);
if (SOTER_SUCCESS != soter_status)
{
res = soter_status;
goto err;
}
/* context */
for (i = 0; i < context_count; i++)
{
if (context[i].data)
{
soter_status = soter_hmac_update(&hmac_ctx, context[i].data, context[i].length);
if (SOTER_SUCCESS != soter_status)
{
res = soter_status;
goto err;
}
}
}
soter_status = soter_hmac_final(&hmac_ctx, out, &out_length);
if (SOTER_SUCCESS != soter_status)
{
res = soter_status;
goto err;
}
if (output_length > out_length)
{
res = SOTER_INVALID_PARAMETER;
goto err;
}
memcpy(output, out, output_length);
err:
memset(out, 0, sizeof(out));
soter_hmac_cleanup(&hmac_ctx);
return res;
}
CMP_FN MIN_CMP(const Pixel_t * a, const Pixel_t * b) {
return MIN_VAL(a) - MIN_VAL(b);
}
int main(int argc, char* argv[])
{
if (TIMER_RESOLUTION_IN_MS>0)
{
TIMECAPS tc;
UINT wTimerRes;
if (timeGetDevCaps(&tc,sizeof(TIMECAPS))==TIMERR_NOERROR)
{
wTimerRes=MIN_VAL(MAX_VAL(tc.wPeriodMin,TIMER_RESOLUTION_IN_MS),tc.wPeriodMax);
timeBeginPeriod(wTimerRes);
}
}
char curDirAndFile[1024];
GetModuleFileName(NULL,curDirAndFile,1023);
PathRemoveFileSpec(curDirAndFile);
std::string currentDirAndPath(curDirAndFile);
std::string temp(currentDirAndPath);
temp+="\\v_rep.dll";
LIBRARY lib=loadVrepLibrary(temp.c_str());
bool wasRunning=false;
if (lib!=NULL)
{
if (getVrepProcAddresses(lib)!=0)
{
int guiItems=sim_gui_all;
for (int i=1;i<argc;i++)
{
std::string arg(argv[i]);
if (arg[0]=='-')
{
if (arg.length()>=2)
{
if (arg[1]=='h')
guiItems=sim_gui_headless;
if (arg[1]=='s')
{
autoStart=true;
simStopDelay=0;
unsigned int p=2;
while (arg.length()>p)
{
simStopDelay*=10;
if ((arg[p]>='0')&&(arg[p]<='9'))
simStopDelay+=arg[p]-'0';
else
{
simStopDelay=0;
break;
}
p++;
}
}
if (arg[1]=='q')
autoQuit=true;
if ((arg[1]=='a')&&(arg.length()>2))
{
std::string tmp;
tmp.assign(arg.begin()+2,arg.end());
simSetStringParameter(sim_stringparam_additional_addonscript_firstscene,tmp.c_str()); // normally, never call API functions before simRunSimulator!!
}
if ((arg[1]=='b')&&(arg.length()>2))
{
std::string tmp;
tmp.assign(arg.begin()+2,arg.end());
simSetStringParameter(sim_stringparam_additional_addonscript,tmp.c_str()); // normally, never call API functions before simRunSimulator!!
}
if ((arg[1]=='g')&&(arg.length()>2))
{
static int cnt=0;
std::string tmp;
tmp.assign(arg.begin()+2,arg.end());
if (cnt<9)
simSetStringParameter(sim_stringparam_app_arg1+cnt,tmp.c_str()); // normally, never call API functions before simRunSimulator!!
cnt++;
}
}
}
else
{
if (sceneOrModelOrUiToLoad.length()==0)
sceneOrModelOrUiToLoad=arg;
}
}
if (simRunSimulator("V-REP",guiItems,simulatorInit,simulatorLoop,simulatorDeinit)!=1)
printf("Failed initializing and running V-REP\n");
else
wasRunning=true;
}
else
printf("Error: could not find all required functions in v_rep.dll\n");
unloadVrepLibrary(lib);
}
else
printf("Error: could not find or correctly load v_rep.dll\n");
if (!wasRunning)
getchar();
return(0);
}
/*=================================================== Test body ========================== */
static int fmaNormMask(void)
{
/* Some Variables */
int nx, ny, n, n4, it, ir, nr, nerr=0, coi, step, step4;
int xoff, yoff, roiw, roih, nerrt[9];
CvSize size;
AtsRandState state1, state2, state3, state4;
IplImage *A_8uC1, *A_8sC1, *A_32fC1, *B_8uC1, *B_8sC1, *B_32fC1;
IplImage *A_8uC3, *A_8sC3, *A_32fC3, *B_8uC3, *B_8sC3, *B_32fC3;
IplImage *mask;
IplROI r, rm;
double norm, testnorm, err;
double Mask_density, d1, d2;
trsiRead( &Min_Image_Width, "1", "Minimal image width" );
trsiRead( &Max_Image_Width, "32", "Maximal image width" );
trsiRead( &Max_ROI_Offset, "8", "Maximal ROI offset" );
trsdRead( &Mask_density, "0.5", "Mask density (0 - 1)" );
if( Min_Image_Width < 1 ) Min_Image_Width = 1;
if( Max_Image_Width < Min_Image_Width ) Max_Image_Width = Min_Image_Width;
if( Max_ROI_Offset < 0 ) Max_ROI_Offset = 0;
if( Mask_density < 0.0 ) Mask_density = 0.0;
if( Mask_density >= 1.0 ) { d1 = 2.0; d2 = 4.0; }
else { d1 = 0.0; d2 = 1.0/(1.0-Mask_density); }
if(d2>256.0) d2=256.0;
atsRandInit( &state1, MIN_VAL(IPL_DEPTH_8U), MAX_VAL(IPL_DEPTH_8U), 13 );
atsRandInit( &state2, MIN_VAL(IPL_DEPTH_8S), MAX_VAL(IPL_DEPTH_8S), 14 );
atsRandInit( &state3, MIN_VAL(IPL_DEPTH_32F), MAX_VAL(IPL_DEPTH_32F), 15 );
atsRandInit( &state4, d1, d2, 16 );
for( it=0; it<9; it++ ) nerrt[it] = 0;
/* Image size cycle starts ________________________ */
for( nx = Min_Image_Width; nx<=Max_Image_Width; nx++ )
{
ny = nx;
/*if(nx>1)ny=(int)(0.7*nx); // Non-square images test */
size.width = nx; size.height = ny;
/* Initial images allocating & random filling */
A_8uC1 = cvCreateImage( size, IPL_DEPTH_8U, 1 );
A_8sC1 = cvCreateImage( size, IPL_DEPTH_8S, 1 );
A_32fC1 = cvCreateImage( size, IPL_DEPTH_32F, 1 );
B_8uC1 = cvCreateImage( size, IPL_DEPTH_8U, 1 );
B_8sC1 = cvCreateImage( size, IPL_DEPTH_8S, 1 );
B_32fC1 = cvCreateImage( size, IPL_DEPTH_32F, 1 );
A_8uC3 = cvCreateImage( size, IPL_DEPTH_8U, 3 );
A_8sC3 = cvCreateImage( size, IPL_DEPTH_8S, 3 );
A_32fC3 = cvCreateImage( size, IPL_DEPTH_32F, 3 );
B_8uC3 = cvCreateImage( size, IPL_DEPTH_8U, 3 );
B_8sC3 = cvCreateImage( size, IPL_DEPTH_8S, 3 );
B_32fC3 = cvCreateImage( size, IPL_DEPTH_32F, 3 );
mask = cvCreateImage( size, IPL_DEPTH_8U, 1 );
step = A_8uC1->widthStep; step4 = (A_32fC1->widthStep)/4;
n = ny*step; n4 = ny*step4;
atsbRand8u ( &state1, (uchar*)A_8uC1->imageData, n );
atsbRand8s ( &state2, A_8sC1->imageData, n );
atsbRand32f( &state3, (float*)A_32fC1->imageData, n4);
atsbRand8u ( &state1, (uchar*)B_8uC1->imageData, n );
atsbRand8s ( &state2, B_8sC1->imageData, n );
atsbRand32f( &state3, (float*)B_32fC1->imageData, n4);
atsbRand8u ( &state4, (uchar*)mask->imageData, n );
for(ir=0; ir<n; ir++) if((mask->imageData)[ir]>1) (mask->imageData)[ir]=1;
(mask->imageData)[0] = 1;
step = A_8uC3->widthStep; step4 = (A_32fC3->widthStep)/4;
n = ny*step; n4 = ny*step4;
atsbRand8u ( &state1, (uchar*)A_8uC3->imageData, n );
atsbRand8s ( &state2, A_8sC3->imageData, n );
atsbRand32f( &state3, (float*)A_32fC3->imageData, n4);
atsbRand8u ( &state1, (uchar*)B_8uC3->imageData, n );
atsbRand8s ( &state2, B_8sC3->imageData, n );
atsbRand32f( &state3, (float*)B_32fC3->imageData, n4);
nr = (ny-1)/2>Max_ROI_Offset ? Max_ROI_Offset : (ny-1)/2;
A_8uC1->roi = A_8sC1->roi = A_32fC1->roi =
A_8uC3->roi = A_8sC3->roi = A_32fC3->roi =
B_8uC1->roi = B_8sC1->roi = B_32fC1->roi =
B_8uC3->roi = B_8sC3->roi = B_32fC3->roi = &r;
for( ir = 0; ir<=nr; ir++) /* ROI size cycle starts ----------------- */
{
/* IPL ROI structures filling */
xoff = ir/11;
yoff = ir;
roiw = nx - (int)(1.2*xoff);
roih = ny - (int)(1.5*yoff);
r.xOffset = xoff;
r.yOffset = yoff;
r.width = roiw;
r.height = roih;
rm = r;
rm.coi = 0;
mask->roi = &rm;
/* T E S T I N G */
for(it = 0; it<9; it++)
{
IplImage* B;
r.coi = 0;
//if( it >= 3 )
// continue;
B = it<3 ? NULL : B_8uC1;
A_8uC1->maskROI = B_8uC1->maskROI = NULL;
norm = cvNormMask( A_8uC1, B, mask, cvlType[it] );
testnorm = TestNormMask( A_8uC1, B, mask, cvlType[it] );
err = fabs((norm-testnorm)/testnorm);
if( err > EPS )
{
nerrt[it]++;
printf(" 8uC1 %d norm fail: %f %f\n", it+1, norm, testnorm);
}
B = it<3 ? NULL : B_8sC1;
A_8sC1->maskROI = B_8sC1->maskROI = NULL;
norm = cvNormMask( A_8sC1, B, mask, cvlType[it] );
testnorm = TestNormMask( A_8sC1, B, mask, cvlType[it] );
err = fabs((norm-testnorm)/testnorm);
if( err > EPS )
{
nerrt[it]++;
printf(" 8sC1 %d norm fail: %f %f\n", it+1, norm, testnorm);
}
B = it<3 ? NULL : B_32fC1;
A_32fC1->maskROI = B_32fC1->maskROI = NULL;
norm = cvNormMask( A_32fC1, B, mask, cvlType[it] );
testnorm = TestNormMask( A_32fC1, B, mask, cvlType[it] );
err = fabs((norm-testnorm)/testnorm);
if( err > FEPS )
{
nerrt[it]++;
printf(" 32fC1 %d norm fail: %f %f\n", it+1, norm, testnorm);
}
B = it<3 ? NULL : B_8uC3;
for( coi=1; coi<4; coi++ )
{
r.coi = coi;
A_8uC3->maskROI = B_8uC3->maskROI = NULL;
norm = cvNormMask( A_8uC3, B, mask, cvlType[it] );
testnorm = TestNormMask( A_8uC3, B, mask, cvlType[it] );
err = fabs((norm-testnorm)/testnorm);
if( err > EPS )
{
nerrt[it]++;
printf(" 8uC3 %d norm fail: %f %f, coi = %d\n", it+1, norm, testnorm, coi);
}
}
B = it<3 ? NULL : B_8sC3;
for( coi=1; coi<4; coi++ )
{
r.coi = coi;
A_8sC3->maskROI = B_8sC3->maskROI = NULL;
norm = cvNormMask( A_8sC3, B, mask, cvlType[it] );
testnorm = TestNormMask( A_8sC3, B, mask, cvlType[it] );
err = fabs((norm-testnorm)/testnorm);
if( err > EPS )
{
nerrt[it]++;
printf(" 8sC3 %d norm fail: %f %f, coi = %d\n", it+1, norm, testnorm, coi);
}
}
B = it<3 ? NULL : B_32fC3;
for( coi=1; coi<4; coi++ )
{
r.coi = coi;
A_32fC3->maskROI = B_32fC3->maskROI = NULL;
norm = cvNormMask( A_32fC3, B, mask, cvlType[it] );
testnorm = TestNormMask( A_32fC3, B, mask, cvlType[it] );
err = fabs((norm-testnorm)/testnorm);
if( err > FEPS )
{
nerrt[it]++;
printf(" 32fC3 %d norm fail: %f %f, coi = %d\n", it+1, norm, testnorm, coi);
}
}
} /* norm type */
for( it=0; it<9; it++ ) nerr += nerrt[it];
} /* ROI */
A_8uC1->roi = A_8sC1->roi = A_32fC1->roi =
A_8uC3->roi = A_8sC3->roi = A_32fC3->roi =
B_8uC1->roi = B_8sC1->roi = B_32fC1->roi =
B_8uC3->roi = B_8sC3->roi = B_32fC3->roi = 0;
mask->roi = 0;
A_8uC1->maskROI = A_8sC1->maskROI = A_32fC1->maskROI =
A_8uC3->maskROI = A_8sC3->maskROI = A_32fC3->maskROI =
B_8uC1->maskROI = B_8sC1->maskROI = B_32fC1->maskROI =
B_8uC3->maskROI = B_8sC3->maskROI = B_32fC3->maskROI = 0;
mask->maskROI = 0;
cvReleaseImage( &A_8uC1 );
cvReleaseImage( &A_8sC1 );
cvReleaseImage( &A_32fC1 );
cvReleaseImage( &B_8uC1 );
cvReleaseImage( &B_8sC1 );
cvReleaseImage( &B_32fC1 );
cvReleaseImage( &A_8uC3 );
cvReleaseImage( &A_8sC3 );
cvReleaseImage( &A_32fC3 );
cvReleaseImage( &B_8uC3 );
cvReleaseImage( &B_8sC3 );
cvReleaseImage( &B_32fC3 );
cvReleaseImage( &mask );
} /* Nx */
/*trsWrite (TW_RUN|TW_CON|TW_SUM," %d norm %s%s flavor fail: %g %g\n",
it+1, f1, f2, norm, testnorm);*/
if(nerr) return trsResult( TRS_FAIL, "Algorithm test has passed. %d errors.", nerr );
else return trsResult( TRS_OK, "Algorithm test has passed successfully" );
} /* fmaNorm */
static
char* prependcode(const char* s, int code) {
char* sdup = strdup(s);
char* nextline = sdup;
char* buffer;
char* end, *replaceend, *bufferend, *bufferstart;
char dashp = '-';
const char* const linefeed = "\r\n";
const char* const empty = "";
const char* append = linefeed;
int count = 0;
int i, length;
size_t bufsize;
enough_mem(sdup);
replace_not_larger(sdup, "\\r", "\r");
replace_not_larger(sdup, "\\n", "\n");
if (code < 0) {
code = -code;
}
if (code > 999) {
code = code % 1000;
}
if (code < 100) {
code += 100;
}
/* count the newlines */
while ((nextline = strstr(nextline, "\r\n"))) {
count++;
nextline++; /* thus this position does not match again */
}
/* memory: (count + 1) * strlen("xxx ") + 4 (to terminate for sure
* with "\r\n") + 1 (Terminator)
*
* memory = (count + 1) * 4 + 1
*/
bufsize = strlen(sdup) + (count + 1) * 4 + 4 + 1;
bufferstart = buffer = (char*) malloc(bufsize);
enough_mem(buffer);
bufferend = buffer + bufsize - 1;
end = nextline = sdup;
while (strlen(end)) {
end = strstr(nextline, "\r\n");
if (!end) {
end = nextline + strlen(nextline);
replaceend = end;
dashp = ' ';
append = linefeed;
} else {
/* don't replace the first '\' */
replaceend = end - 1;
end += strlen("\r\n");
if (end == nextline + strlen(nextline)) {
/* at the very end */
dashp = ' ';
} else {
dashp = '-';
}
append = empty;
}
i = 0;
while ((nextline + i) < replaceend) {
if (nextline[i] == '%') {
/* Remove the '%' */
nextline[i] = '/';
}
/* remove any special characters between nextline
* and end */
if ((unsigned char) nextline[i] < 32) {
nextline[i] = '_';
}
i++;
}
length = MIN_VAL( bufferend - bufferstart,
strlen("xxx ")
+ (end - nextline)
+ strlen(append)
+ 1
);
snprintf(bufferstart, length, "%d%c%s%s",
code, dashp, nextline, append);
bufferstart += strlen(bufferstart);
if (!*nextline) { /* end */
nextline = 0;
}
nextline = strstr(nextline, "\r\n") + strlen("\r\n");
}
free(sdup);
return buffer;
}
