c.s << *it-seq.begin() << " ";
++this_bin_fill;
}
- os << std::endl;
+ c.s << std::endl;
cum_fill += this_bin_fill;
cum_fill_sq += this_bin_fill*this_bin_fill;
}
epvector::const_iterator cit = seq.begin(), last = seq.end();
while (cit != last) {
v->push_back(split_ex_to_pair(f(recombine_pair_to_ex(*cit))));
- cit++;
+ ++cit;
}
return thisexpairseq(v, f(overall_coeff));
// merge p into s.seq
while (first!=last) {
- int cmpval=(*first).rest.compare(p.rest);
+ int cmpval = (*first).rest.compare(p.rest);
if (cmpval==0) {
// combine terms
- const numeric &newcoeff = ex_to<numeric>((*first).coeff).
+ const numeric &newcoeff = ex_to<numeric>(first->coeff).
add(ex_to<numeric>(p.coeff));
if (!newcoeff.is_zero()) {
- seq.push_back(expair((*first).rest,newcoeff));
- if (expair_needs_further_processing(seq.end()-1)) {
+ seq.push_back(expair(first->rest,newcoeff));
+ if (expair_needs_further_processing(seq.end()-1))
needs_further_processing = true;
- }
}
++first;
p_pushed = true;
while (cit!=v.end()) {
if (cit->rest.bp->tinfo()==this->tinfo()) {
++nexpairseqs;
- noperands += ex_to<expairseq>((*cit).rest).seq.size();
+ noperands += ex_to<expairseq>(cit->rest).seq.size();
}
++cit;
}
while (cit!=v.end()) {
if (cit->rest.bp->tinfo()==this->tinfo() &&
this->can_make_flat(*cit)) {
- const expairseq &subseqref = ex_to<expairseq>((*cit).rest);
+ const expairseq &subseqref = ex_to<expairseq>(cit->rest);
combine_overall_coeff(ex_to<numeric>(subseqref.overall_coeff),
- ex_to<numeric>((*cit).coeff));
+ ex_to<numeric>(cit->coeff));
epvector::const_iterator cit_s = subseqref.seq.begin();
while (cit_s!=subseqref.seq.end()) {
- seq.push_back(expair((*cit_s).rest,
- ex_to<numeric>((*cit_s).coeff).mul_dyn(ex_to<numeric>((*cit).coeff))));
+ seq.push_back(expair(cit_s->rest,
+ ex_to<numeric>(cit_s->coeff).mul_dyn(ex_to<numeric>(cit->coeff))));
//seq.push_back(combine_pair_with_coeff_to_pair(*cit_s,
// (*cit).coeff));
++cit_s;
// possible from then on the sequence has changed and must be compacted
bool must_copy = false;
while (itin2!=last) {
- if ((*itin1).rest.compare((*itin2).rest)==0) {
- (*itin1).coeff = ex_to<numeric>((*itin1).coeff).
- add_dyn(ex_to<numeric>((*itin2).coeff));
+ if ((*itin1).rest.compare(itin2->rest)==0) {
+ (*itin1).coeff = ex_to<numeric>(itin1->coeff).
+ add_dyn(ex_to<numeric>(itin2->coeff));
if (expair_needs_further_processing(itin1))
needs_further_processing = true;
must_copy = true;
} else {
- if (!ex_to<numeric>((*itin1).coeff).is_zero()) {
+ if (!ex_to<numeric>(itin1->coeff).is_zero()) {
if (must_copy)
*itout = *itin1;
++itout;
}
++itin2;
}
- if (!ex_to<numeric>((*itin1).coeff).is_zero()) {
+ if (!ex_to<numeric>(itin1->coeff).is_zero()) {
if (must_copy)
*itout = *itin1;
++itout;
++epplit;
}
if (!erased) {
- printtree(cout,0);
- cout << "tried to erase " << element-seq.begin() << std::endl;
- cout << "size " << seq.end()-seq.begin() << std::endl;
+ std::cout << "tried to erase " << element-seq.begin() << std::endl;
+ std::cout << "size " << seq.end()-seq.begin() << std::endl;
- unsigned hashindex = calc_hashindex((*element).rest);
+ unsigned hashindex = calc_hashindex(element->rest);
epplist &eppl = hashtab[hashindex];
- epplist::iterator epplit=eppl.begin();
- bool erased=false;
+ epplist::iterator epplit = eppl.begin();
+ bool erased = false;
while (epplit!=eppl.end()) {
if (*epplit == element) {
eppl.erase(epplit);
GINAC_ASSERT(epplit!=eppl.end());
}
-void expairseq::sorted_insert(epplist &eppl, epp elem)
+void expairseq::sorted_insert(epplist &eppl, epvector::const_iterator elem)
{
epplist::const_iterator current = eppl.begin();
- while ((current!=eppl.end())&&((*(*current)).is_less(*elem))) {
+ while ((current!=eppl.end()) && ((*current)->is_less(*elem))) {
++current;
}
eppl.insert(current,elem);
std::vector<bool> &touched,
unsigned &number_of_zeroes)
{
- epp current=seq.begin();
+ epp current = seq.begin();
while (current!=first_numeric) {
- if (is_ex_exactly_of_type((*current).rest,numeric)) {
+ if (is_ex_exactly_of_type(current->rest,numeric)) {
--first_numeric;
iter_swap(current,first_numeric);
} else {
// calculate hashindex
- unsigned currenthashindex = calc_hashindex((*current).rest);
+ unsigned currenthashindex = calc_hashindex(current->rest);
// test if there is already a matching expair in the hashtab-list
epplist &eppl=hashtab[currenthashindex];
epplist::iterator epplit = eppl.begin();
while (epplit!=eppl.end()) {
- if ((*current).rest.is_equal((*(*epplit)).rest))
+ if (current->rest.is_equal((*epplit)->rest))
break;
++epplit;
}
++current;
} else {
// epplit points to a matching expair, combine it with current
- (*(*epplit)).coeff = ex_to<numeric>((*(*epplit)).coeff).
- add_dyn(ex_to<numeric>((*current).coeff));
+ (*epplit)->coeff = ex_to<numeric>((*epplit)->coeff).
+ add_dyn(ex_to<numeric>(current->coeff));
// move obsolete current expair to end by swapping with last_non_zero element
// if this was a numeric, it is swapped with the expair before first_numeric
--last_non_zero;
++number_of_zeroes;
// test if combined term has coeff 0 and can be removed is done later
- touched[(*epplit)-seq.begin()]=true;
+ touched[(*epplit)-seq.begin()] = true;
}
}
}
if (current!=last_non_zero) {
iter_swap(current,last_non_zero);
--first_numeric;
- bool numeric_swapped=first_numeric!=last_non_zero;
- if (numeric_swapped) iter_swap(first_numeric,current);
+ bool numeric_swapped = first_numeric!=last_non_zero;
+ if (numeric_swapped)
+ iter_swap(first_numeric,current);
epvector::iterator changed_entry;
if (numeric_swapped)
epvector::const_iterator it = seq.begin(), itend = seq.end();
epvector::const_iterator it_last = it;
for (++it; it!=itend; it_last=it, ++it) {
- if (!((*it_last).is_less(*it) || (*it_last).is_equal(*it))) {
- if (!is_ex_exactly_of_type((*it_last).rest,numeric) ||
- !is_ex_exactly_of_type((*it).rest,numeric)) {
+ if (!(it_last->is_less(*it) || it_last->is_equal(*it))) {
+ if (!is_ex_exactly_of_type(it_last->rest,numeric) ||
+ !is_ex_exactly_of_type(it->rest,numeric)) {
// double test makes it easier to set a breakpoint...
- if (!is_ex_exactly_of_type((*it_last).rest,numeric) ||
- !is_ex_exactly_of_type((*it).rest,numeric)) {
+ if (!is_ex_exactly_of_type(it_last->rest,numeric) ||
+ !is_ex_exactly_of_type(it->rest,numeric)) {
printpair(std::clog, *it_last, 0);
std::clog << ">";
printpair(std::clog, *it, 0);
std::clog << "\n";
std::clog << "pair1:" << std::endl;
- (*it_last).rest.print(print_tree(std::clog));
- (*it_last).coeff.print(print_tree(std::clog));
+ it_last->rest.print(print_tree(std::clog));
+ it_last->coeff.print(print_tree(std::clog));
std::clog << "pair2:" << std::endl;
- (*it).rest.print(print_tree(std::clog));
- (*it).coeff.print(print_tree(std::clog));
+ it->rest.print(print_tree(std::clog));
+ it->coeff.print(print_tree(std::clog));
return 0;
}
}
epvector::const_iterator last = seq.end();
epvector::const_iterator cit = seq.begin();
while (cit!=last) {
- const ex &expanded_ex = (*cit).rest.expand(options);
- if (!are_ex_trivially_equal((*cit).rest,expanded_ex)) {
+ const ex &expanded_ex = cit->rest.expand(options);
+ if (!are_ex_trivially_equal(cit->rest,expanded_ex)) {
// something changed, copy seq, eval and return it
epvector *s = new epvector;
}
// copy first changed element
s->push_back(combine_ex_with_coeff_to_pair(expanded_ex,
- (*cit2).coeff));
+ cit2->coeff));
++cit2;
// copy rest
while (cit2!=last) {
- s->push_back(combine_ex_with_coeff_to_pair((*cit2).rest.expand(options),
- (*cit2).coeff));
+ s->push_back(combine_ex_with_coeff_to_pair(cit2->rest.expand(options),
+ cit2->coeff));
++cit2;
}
return s;
throw(std::runtime_error("max recursion level reached"));
--level;
- epvector::const_iterator last=seq.end();
- epvector::const_iterator cit=seq.begin();
+ epvector::const_iterator last = seq.end();
+ epvector::const_iterator cit = seq.begin();
while (cit!=last) {
- const ex &evaled_ex = (*cit).rest.eval(level);
- if (!are_ex_trivially_equal((*cit).rest,evaled_ex)) {
+ const ex &evaled_ex = cit->rest.eval(level);
+ if (!are_ex_trivially_equal(cit->rest,evaled_ex)) {
// something changed, copy seq, eval and return it
epvector *s = new epvector;
}
// copy first changed element
s->push_back(combine_ex_with_coeff_to_pair(evaled_ex,
- (*cit2).coeff));
+ cit2->coeff));
++cit2;
// copy rest
while (cit2!=last) {
- s->push_back(combine_ex_with_coeff_to_pair((*cit2).rest.eval(level),
- (*cit2).coeff));
+ s->push_back(combine_ex_with_coeff_to_pair(cit2->rest.eval(level),
+ cit2->coeff));
++cit2;
}
return s;
// is a product or power. In this case we have to recombine the pairs
// because the numeric coefficients may be part of the search pattern.
bool complex_subs = false;
- for (unsigned i=0; i<ls.nops(); i++)
+ for (unsigned i=0; i<ls.nops(); ++i)
if (is_ex_exactly_of_type(ls.op(i), mul) || is_ex_exactly_of_type(ls.op(i), power)) {
complex_subs = true;
break;
return generate_from_to($template,$seq_template1,$seq_template2,1,$maxargs);
}
-$declare_function_macro = <<'END_OF_DECLARE_FUNCTION_1_AND_2P_MACRO';
-#define DECLARE_FUNCTION_1P(NAME) \
-extern const unsigned function_index_##NAME; \
-inline GiNaC::function NAME(const GiNaC::ex & p1) { \
- return GiNaC::function(function_index_##NAME, p1); \
-}
-#define DECLARE_FUNCTION_2P(NAME) \
-extern const unsigned function_index_##NAME; \
-inline GiNaC::function NAME(const GiNaC::ex & p1, const GiNaC::ex & p2) { \
- return GiNaC::function(function_index_##NAME, p1, p2); \
-}
-
-END_OF_DECLARE_FUNCTION_1_AND_2P_MACRO
-
-$declare_function_macro .= generate_from_to(
- <<'END_OF_DECLARE_FUNCTION_MACRO','const GiNaC::ex & p${N}','p${N}',3,$maxargs);
+$declare_function_macro = generate_from_to(
+ <<'END_OF_DECLARE_FUNCTION_MACRO','const GiNaC::ex & p${N}','p${N}',1,$maxargs);
#define DECLARE_FUNCTION_${N}P(NAME) \\
extern const unsigned function_index_##NAME; \\
-inline GiNaC::function NAME(${SEQ1}) { \\
+inline const GiNaC::function NAME(${SEQ1}) { \\
return GiNaC::function(function_index_##NAME, ${SEQ2}); \\
}
#include <string>
#include <vector>
-// CINT needs <algorithm> to work properly with <vector>
+// CINT needs <algorithm> to work properly with <vector>
#include <algorithm>
#include "exprseq.h"
serial = ser;
return;
}
- i++; ser++;
+ ++i; ++ser;
}
throw (std::runtime_error("unknown function '" + s + "' in archive"));
} else
exvector::const_iterator it = seq.begin(), itend = seq.end();
while (it != itend) {
it->print(c);
- it++;
+ ++it;
if (it != itend)
c.s << ",";
}
throw(std::runtime_error("max recursion level reached"));
else
eseq.reserve(seq.size());
- level--;
+ --level;
exvector::const_iterator it = seq.begin(), itend = seq.end();
while (it != itend) {
- eseq.push_back((*it).evalf(level));
- it++;
+ eseq.push_back(it->evalf(level));
+ ++it;
}
if (registered_functions()[serial].evalf_f==0) {
unsigned same_name = 0;
for (unsigned i=0; i<registered_functions().size(); ++i) {
if (registered_functions()[i].name==opt.name) {
- same_name++;
+ ++same_name;
}
}
if (same_name>=opt.functions_with_same_name) {
while (i != end) {
if (i->get_name() == name && i->get_nparams() == nparams)
return serial;
- i++;
- serial++;
+ ++i;
+ ++serial;
}
throw (std::runtime_error("no function '" + name + "' with " + ToString(nparams) + " parameters defined"));
}