Some cosmetic changes

This commit is contained in:
kamel5 2019-03-22 13:21:18 +01:00
parent a8ca6f19da
commit f7e5ac3208
5 changed files with 243 additions and 253 deletions

View File

@ -22,18 +22,6 @@ cSwitchTimer::cSwitchTimer(const cEvent* Event) {
}
}
#if VDRVERSNUM >= 20305
cSwitchTimer& cSwitchTimer::operator= (const cSwitchTimer &SwitchTimer)
{
this->eventID = SwitchTimer.eventID;
this->startTime = SwitchTimer.startTime;
this->channelID = SwitchTimer.channelID;
this->switchMinsBefore = SwitchTimer.switchMinsBefore;
this->announceOnly = SwitchTimer.announceOnly;
return *this;
}
#endif
bool cSwitchTimer::Parse(const char *s) {
char *line;
char *pos;

View File

@ -12,7 +12,15 @@ public:
int announceOnly;
#if VDRVERSNUM >= 20305
cSwitchTimer(const cSwitchTimer &SwitchTimer) { *this = SwitchTimer; };
cSwitchTimer& operator= (const cSwitchTimer &SwitchTimer);
cSwitchTimer& operator= (const cSwitchTimer &SwitchTimer)
{
this->eventID = SwitchTimer.eventID;
this->startTime = SwitchTimer.startTime;
this->channelID = SwitchTimer.channelID;
this->switchMinsBefore = SwitchTimer.switchMinsBefore;
this->announceOnly = SwitchTimer.announceOnly;
return *this;
};
#endif
cSwitchTimer(void);
cSwitchTimer(const cEvent* Event);

View File

@ -71,7 +71,7 @@ void cTVGuideTimerConflicts::AddConflict(std::string epgSearchConflictLine) {
splitstring s3(flds2[2].c_str());
std::vector<std::string> flds3 = s3.split('#');
std::vector<int> timerIDs;
for (int k = 0; k < flds3.size(); k++) {
for (int k = 0; k < (int)flds3.size(); k++) {
timerIDs.push_back(atoi(flds3[k].c_str()) - 1);
}
conflict->timerIDs = timerIDs;
@ -80,18 +80,17 @@ void cTVGuideTimerConflicts::AddConflict(std::string epgSearchConflictLine) {
void cTVGuideTimerConflicts::CalculateConflicts(void) {
numConflicts = conflicts.size();
// time_t startTime = 0;
// time_t endTime = 0;
for (int i=0; i < numConflicts; i++) {
cTimeInterval *unionSet = NULL;
int numTimers = conflicts[i]->timerIDs.size();
for (int j=0; j < numTimers; j++) {
#if VDRVERSNUM >= 20301
LOCK_TIMERS_READ;
const cTimer *timer = Timers->Get(conflicts[i]->timerIDs[j]);
LOCK_TIMERS_READ;
const cTimers* timers = Timers;
#else
const cTimer *timer = Timers.Get(conflicts[i]->timerIDs[j]);
const cTimers* timers = &Timers;
#endif
for (int j=0; j < numTimers; j++) {
const cTimer *timer = timers->Get(conflicts[i]->timerIDs[j]);
if (timer) {
if (!unionSet) {
unionSet = new cTimeInterval(timer->StartTime(), timer->StopTime());
@ -110,12 +109,7 @@ void cTVGuideTimerConflicts::CalculateConflicts(void) {
cTimeInterval *intersect = NULL;
for (int j=0; j < numTimers; j++) {
#if VDRVERSNUM >= 20301
LOCK_TIMERS_READ;
const cTimer *timer = Timers->Get(conflicts[i]->timerIDs[j]);
#else
const cTimer *timer = Timers.Get(conflicts[i]->timerIDs[j]);
#endif
const cTimer *timer = timers->Get(conflicts[i]->timerIDs[j]);
if (timer) {
if (!intersect) {
intersect = new cTimeInterval(timer->StartTime(), timer->StopTime());

428
tools.c
View File

@ -144,7 +144,7 @@ std::vector<std::string>& splitstring::split(char delim, int rep) {
std::string work = data();
std::string buf = "";
int i = 0;
while (i < work.length()) {
while (i < (int)work.length()) {
if (work[i] != delim)
buf += work[i];
else if (rep == 1) {
@ -179,61 +179,61 @@ int FindIgnoreCase(const std::string& expr, const std::string& query)
* GetAuxValue
****************************************************************************************/
char* GetAuxValue(const char* aux, const char* name) {
if (isempty(aux))
return NULL;
if (isempty(aux))
return NULL;
char* descr = strdup(aux);
char* beginaux = strstr(descr, "<epgsearch>");
char* endaux = strstr(descr, "</epgsearch>");
if (!beginaux || !endaux) {
char* descr = strdup(aux);
char* beginaux = strstr(descr, "<epgsearch>");
char* endaux = strstr(descr, "</epgsearch>");
if (!beginaux || !endaux) {
free(descr);
return NULL;
}
beginaux += 11; // strlen("<epgsearch>");
endaux[0] = 0;
memmove(descr, beginaux, endaux - beginaux + 1);
if (strcmp(name, "epgsearch") == 0)
return descr; // full aux
int namelen = strlen(name);
char catname[100] = "";
catname[0] = '<';
memcpy(catname + 1, name, namelen);
catname[1 + namelen] = '>';
catname[2 + namelen] = 0;
char* cat = strcasestr(descr, catname);
if (!cat) {
free(descr);
return NULL;
return NULL;
}
cat += namelen + 2;
char* end = strstr(cat, "</");
if (!end) {
free(descr);
return NULL;
beginaux += 11; // strlen("<epgsearch>");
endaux[0] = 0;
memmove(descr, beginaux, endaux - beginaux + 1);
if (strcmp(name, "epgsearch") == 0)
return descr; // full aux
int namelen = strlen(name);
char catname[100] = "";
catname[0] = '<';
memcpy(catname + 1, name, namelen);
catname[1 + namelen] = '>';
catname[2 + namelen] = 0;
char* cat = strcasestr(descr, catname);
if (!cat) {
free(descr);
return NULL;
}
end[0] = 0;
int catlen = end - cat + 1;
char* value = (char *) malloc(catlen);
memcpy(value, cat, catlen);
cat += namelen + 2;
char* end = strstr(cat, "</");
if (!end) {
free(descr);
return NULL;
}
end[0] = 0;
free(descr);
return value;
int catlen = end - cat + 1;
char* value = (char *) malloc(catlen);
memcpy(value, cat, catlen);
free(descr);
return value;
}
char* GetAuxValue(const cRecording *recording, const char* name) {
if (!recording || !recording->Info())
if (!recording || !recording->Info())
return NULL;
return GetAuxValue(recording->Info()->Aux(), name);
}
char* GetAuxValue(const cTimer *timer, const char* name) {
if (!timer || !timer->Aux())
if (!timer || !timer->Aux())
return NULL;
return GetAuxValue(timer->Aux(), name);
}
@ -244,239 +244,239 @@ char* GetAuxValue(const cTimer *timer, const char* name) {
/******************************************************************************
FUNCTION afuzzy_init()
Initialization of the fuzzy search routine. This applies to the consequent
calls of the afuzzy_CheckRTR (whole string matching) and afuzzy_CheckSUB
(substring match) routines. afuzzy_init() should be called for each
new pattern or error length. The search is case sensitive
Initialization of the fuzzy search routine. This applies to the consequent
calls of the afuzzy_CheckRTR (whole string matching) and afuzzy_CheckSUB
(substring match) routines. afuzzy_init() should be called for each
new pattern or error length. The search is case sensitive
ARGUMENTS:
p Pattern
kerr Number of possible errors. Shouldn't exceed pattern length
UseFilter Use agrep filter algorithm that speeds up search.
fuzzy pointer to the structure that will be later passes to Check*
(the first 6 elements should be NULLs for the first call)
p Pattern
kerr Number of possible errors. Shouldn't exceed pattern length
UseFilter Use agrep filter algorithm that speeds up search.
fuzzy pointer to the structure that will be later passes to Check*
(the first 6 elements should be NULLs for the first call)
RETURN VALUE:
none
none
ALGORITHM
see. the article on agrep algorithms.
The only change is accounting transpositions as one edit operation .
see. the article on agrep algorithms.
The only change is accounting transpositions as one edit operation .
******************************************************************************/
void afuzzy_init(const char *p, int kerr, int UseFilter, AFUZZY *fuzzy)
{
int cnt, p_len, i, j, l, d, m, dd;
char PatFilter[sizeof(Uint)*8 + 1];
int cnt, p_len, i, j, l, d, m, dd;
char PatFilter[sizeof(Uint)*8 + 1];
fuzzy->k = kerr;
m = strlen(p);
fuzzy->FilterSet = 0;
memset(fuzzy->Map, 0 , sizeof(fuzzy->Map) );
fuzzy->k = kerr;
m = strlen(p);
fuzzy->FilterSet = 0;
memset(fuzzy->Map, 0 , sizeof(fuzzy->Map) );
if (fuzzy->S)
free(fuzzy->S);
if (fuzzy->R)
free(fuzzy->R);
if (fuzzy->R1)
free(fuzzy->R1);
if (fuzzy->RP)
free(fuzzy->RP);
if (fuzzy->RI)
free(fuzzy->RI);
if (fuzzy->FilterS)
free(fuzzy->FilterS);
if (fuzzy->S)
free(fuzzy->S);
if (fuzzy->R)
free(fuzzy->R);
if (fuzzy->R1)
free(fuzzy->R1);
if (fuzzy->RP)
free(fuzzy->RP);
if (fuzzy->RI)
free(fuzzy->RI);
if (fuzzy->FilterS)
free(fuzzy->FilterS);
fuzzy->FilterS = NULL;
fuzzy->S = (Uint *)calloc(m + 1, sizeof(Uint));
fuzzy->R = (Uint *)calloc(fuzzy->k + 1, sizeof(Uint));
fuzzy->R1 = (Uint *)calloc(fuzzy->k + 1, sizeof(Uint));
fuzzy->RI = (Uint *)calloc(fuzzy->k + 1, sizeof(Uint));
fuzzy->RP = (Uint *)calloc(fuzzy->k + 1, sizeof(Uint));
fuzzy->FilterS = NULL;
fuzzy->S = (Uint *)calloc(m + 1, sizeof(Uint));
fuzzy->R = (Uint *)calloc(fuzzy->k + 1, sizeof(Uint));
fuzzy->R1 = (Uint *)calloc(fuzzy->k + 1, sizeof(Uint));
fuzzy->RI = (Uint *)calloc(fuzzy->k + 1, sizeof(Uint));
fuzzy->RP = (Uint *)calloc(fuzzy->k + 1, sizeof(Uint));
for (i = 0, cnt = 0; i < m; i++)
{
l = fuzzy->Map[(unsigned char)p[i]];
if (!l)
{
l = fuzzy->Map[(unsigned char)p[i]] = ++cnt;
fuzzy->S[l] = 0;
}
fuzzy->S[l] |= 1 << i;
}
for (i = 0, cnt = 0; i < m; i++)
{
l = fuzzy->Map[(unsigned char)p[i]];
if (!l)
{
l = fuzzy->Map[(unsigned char)p[i]] = ++cnt;
fuzzy->S[l] = 0;
}
fuzzy->S[l] |= 1 << i;
}
for (d = 0; d <= fuzzy->k; d++)
fuzzy->RI[d] = (1 << d) - 1;
for (d = 0; d <= fuzzy->k; d++)
fuzzy->RI[d] = (1 << d) - 1;
fuzzy->mask_ok = (1 << (m - 1));
fuzzy->r_size = sizeof(Uint) * (fuzzy->k + 1);
p_len = m;
fuzzy->mask_ok = (1 << (m - 1));
fuzzy->r_size = sizeof(Uint) * (fuzzy->k + 1);
p_len = m;
if (p_len > (int) sizeof(Uint)*8)
p_len = (int) sizeof(Uint)*8;
if (p_len > (int) sizeof(Uint)*8)
p_len = (int) sizeof(Uint)*8;
/* If k is zero then no filter is needed! */
if (fuzzy->k && (p_len >= 2*(fuzzy->k + 1)) )
{
if (UseFilter)
{
fuzzy->FilterSet = 1;
memset(fuzzy->FilterMap, 0 , sizeof(fuzzy->FilterMap) );
fuzzy->FilterS = (Uint *)calloc(m + 1, sizeof(Uint));
/* If k is zero then no filter is needed! */
if (fuzzy->k && (p_len >= 2*(fuzzy->k + 1)) )
{
if (UseFilter)
{
fuzzy->FilterSet = 1;
memset(fuzzy->FilterMap, 0 , sizeof(fuzzy->FilterMap) );
fuzzy->FilterS = (Uint *)calloc(m + 1, sizeof(Uint));
/* Not let's fill the interleaved pattern */
dd = p_len / (fuzzy->k + 1);
p_len = dd * (fuzzy->k + 1);
/* Not let's fill the interleaved pattern */
dd = p_len / (fuzzy->k + 1);
p_len = dd * (fuzzy->k + 1);
for (i = 0, cnt = 0; i < dd; i++)
for (j = 0; j < fuzzy->k + 1; j++, cnt++)
PatFilter[cnt] = (unsigned char)p[j*dd + i];
PatFilter[p_len] = 0;
for (i = 0, cnt = 0; i < dd; i++)
for (j = 0; j < fuzzy->k + 1; j++, cnt++)
PatFilter[cnt] = (unsigned char)p[j*dd + i];
PatFilter[p_len] = 0;
for (i = 0, cnt = 0; i < p_len; i++)
{
l = fuzzy->FilterMap[(unsigned char)PatFilter[i]];
if (!l)
{
l = fuzzy->FilterMap[(unsigned char)PatFilter[i]] = ++cnt;
fuzzy->FilterS[l] = 0;
}
fuzzy->FilterS[l] |= 1 << i;
}
fuzzy->filter_ok = 0;
for (i = p_len - fuzzy->k - 1; i <= p_len - 1; i++) /* k+1 times */
fuzzy->filter_ok |= 1 << i;
for (i = 0, cnt = 0; i < p_len; i++)
{
l = fuzzy->FilterMap[(unsigned char)PatFilter[i]];
if (!l)
{
l = fuzzy->FilterMap[(unsigned char)PatFilter[i]] = ++cnt;
fuzzy->FilterS[l] = 0;
}
fuzzy->FilterS[l] |= 1 << i;
}
fuzzy->filter_ok = 0;
for (i = p_len - fuzzy->k - 1; i <= p_len - 1; i++) /* k+1 times */
fuzzy->filter_ok |= 1 << i;
/* k+1 first bits set to 1 */
fuzzy->filter_shift = (1 << (fuzzy->k + 2)) - 1;
}
}
/* k+1 first bits set to 1 */
fuzzy->filter_shift = (1 << (fuzzy->k + 2)) - 1;
}
}
}
/******************************************************************************
FUNCTION afuzzy_free()
Cleaning up after previous afuzzy_init() call.
Cleaning up after previous afuzzy_init() call.
ARGUMENTS:
fuzzy pointer to the afuzzy parameters structure
fuzzy pointer to the afuzzy parameters structure
RETURN VALUE:
none
none
******************************************************************************/
void afuzzy_free(AFUZZY *fuzzy)
{
if (fuzzy->S)
{
free(fuzzy->S);
fuzzy->S = NULL;
}
if (fuzzy->R)
{
free(fuzzy->R);
fuzzy->R = NULL;
}
if (fuzzy->R1)
{
free(fuzzy->R1);
fuzzy->R1 = NULL;
}
if (fuzzy->RP)
{
free(fuzzy->RP);
fuzzy->RP = NULL;
}
if (fuzzy->RI)
{
free(fuzzy->RI);
fuzzy->RI = NULL;
}
if (fuzzy->FilterS)
{
free(fuzzy->FilterS);
fuzzy->FilterS = NULL;
}
if (fuzzy->S)
{
free(fuzzy->S);
fuzzy->S = NULL;
}
if (fuzzy->R)
{
free(fuzzy->R);
fuzzy->R = NULL;
}
if (fuzzy->R1)
{
free(fuzzy->R1);
fuzzy->R1 = NULL;
}
if (fuzzy->RP)
{
free(fuzzy->RP);
fuzzy->RP = NULL;
}
if (fuzzy->RI)
{
free(fuzzy->RI);
fuzzy->RI = NULL;
}
if (fuzzy->FilterS)
{
free(fuzzy->FilterS);
fuzzy->FilterS = NULL;
}
}
/******************************************************************************
FUNCTION afuzzy_CheckSUB()
Perform a fuzzy pattern substring matching. afuzzy_init() should be
called previously to initialize the pattern and error length.
Positive result means that some part of the string given matches the
pattern with no more than afuzzy->k errors (1 error = 1 letter
replacement or transposition)
Perform a fuzzy pattern substring matching. afuzzy_init() should be
called previously to initialize the pattern and error length.
Positive result means that some part of the string given matches the
pattern with no more than afuzzy->k errors (1 error = 1 letter
replacement or transposition)
ARGUMENTS:
t the string to test
fuzzy pointer to the afuzzy parameters structure
t the string to test
fuzzy pointer to the afuzzy parameters structure
RETURN VALUE:
0 - no match
> 0 - strings match
0 - no match
> 0 - strings match
ALGORITHM
????????????????
????????????????
******************************************************************************/
int afuzzy_checkSUB(const char *t, AFUZZY *fuzzy)
{
register char c;
register int j, d;
register char c;
register int j, d;
/* For eficciency this case should be little bit optimized */
if (!fuzzy->k)
{
Uint R = 0, R1;
/* For eficciency this case should be little bit optimized */
if (!fuzzy->k)
{
Uint R = 0, R1;
for (j = 0; (c = t[j]) != '\0'; j++)
{
R1 = ( ((R<<1) | 1) & fuzzy->S[fuzzy->Map[(unsigned char)c]]);
R = R1;
for (j = 0; (c = t[j]) != '\0'; j++)
{
R1 = ( ((R<<1) | 1) & fuzzy->S[fuzzy->Map[(unsigned char)c]]);
R = R1;
if (R1 & fuzzy->mask_ok)
return 1;
} /* end for (register int j = 0 ... */
return 0;
}
if (R1 & fuzzy->mask_ok)
return 1;
} /* end for (register int j = 0 ... */
return 0;
}
if (fuzzy->FilterSet && !afuzzy_checkFLT(t, fuzzy))
return 0;
if (fuzzy->FilterSet && !afuzzy_checkFLT(t, fuzzy))
return 0;
memcpy(fuzzy->R, fuzzy->RI, fuzzy->r_size); /* R = RI */
memcpy(fuzzy->R, fuzzy->RI, fuzzy->r_size); /* R = RI */
for (j = 0; (c = t[j]); j++)
{
for (d = 0; d <= fuzzy->k; d++)
{
fuzzy->R1[d] = (((fuzzy->R[d]<<1) | 1) &
fuzzy->S[fuzzy->Map[(unsigned char)c]]);
if (d > 0)
fuzzy->R1[d] |= ((fuzzy->R[d-1] | fuzzy->R1[d-1])<<1) | 1 |
fuzzy->R[d-1];
}
if (fuzzy->R1[fuzzy->k] & fuzzy->mask_ok)
return j;
for (j = 0; (c = t[j]); j++)
{
for (d = 0; d <= fuzzy->k; d++)
{
fuzzy->R1[d] = (((fuzzy->R[d]<<1) | 1) &
fuzzy->S[fuzzy->Map[(unsigned char)c]]);
if (d > 0)
fuzzy->R1[d] |= ((fuzzy->R[d-1] | fuzzy->R1[d-1])<<1) | 1 |
fuzzy->R[d-1];
}
if (fuzzy->R1[fuzzy->k] & fuzzy->mask_ok)
return j;
memcpy(fuzzy->R, fuzzy->R1, fuzzy->r_size);
memcpy(fuzzy->R, fuzzy->R1, fuzzy->r_size);
} /* end for (register int j = 0 ... */
} /* end for (register int j = 0 ... */
return 0;
return 0;
}
int afuzzy_checkFLT(const char *t, AFUZZY *fuzzy)
{
register Uint FilterR = 0;
register Uint FilterR1;
register int j;
register Uint FilterR = 0;
register Uint FilterR1;
register int j;
for (j = 0; t[j] != '\0'; j++)
{
FilterR1 = ( ((FilterR<<(fuzzy->k+1)) | fuzzy->filter_shift) &
fuzzy->FilterS[fuzzy->FilterMap[(unsigned char)t[j]]]);
if (FilterR1 & fuzzy->filter_ok)
return 1;
FilterR = FilterR1;
} /* end for (register int j = 0 ... */
for (j = 0; t[j] != '\0'; j++)
{
FilterR1 = ( ((FilterR<<(fuzzy->k+1)) | fuzzy->filter_shift) &
fuzzy->FilterS[fuzzy->FilterMap[(unsigned char)t[j]]]);
if (FilterR1 & fuzzy->filter_ok)
return 1;
FilterR = FilterR1;
} /* end for (register int j = 0 ... */
return 0;
return 0;
}

28
tools.h
View File

@ -45,21 +45,21 @@ typedef unsigned int Uint;
typedef struct
{
Uint *R,
*R1,
*RP,
*S,
*RI;
Uint *FilterS;
Uint *R,
*R1,
*RP,
*S,
*RI;
Uint *FilterS;
int Map[256];
int FilterMap[256];
int k;
Uint mask_ok;
Uint filter_ok;
Uint filter_shift;
int r_size;
int FilterSet;
int Map[256];
int FilterMap[256];
int k;
Uint mask_ok;
Uint filter_ok;
Uint filter_shift;
int r_size;
int FilterSet;
} AFUZZY;
void afuzzy_init(const char *p, int kerr, int UseFilter, AFUZZY *fuzzy);