Diploma Thesis Percolation Simulation C++ Sourcecode Documentation

www.AndreasKrueger.de/thesis/code

                 

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datafiles Namespace Reference

Compounds
struct	resultfile
Functions
void	my_fprintf_ff_heading (FILE *outFile)
void	my_fprintf_ff (FILE *outFile, REAL fillingfactor, REAL radius, bool new_result)
void	write_intro (char *filename, NUMBER no, COORDFLOAT length, int loops, int dimension)
void	write_intro_square (char *filename, NUMBER no, COORDFLOAT length, int loops, int dimension, COUNTER cuts)
void	write_error (char *filename)
void	write_error (const char *filename)
bool	write_intro7 (char *filename, NUMBER no, COORDFLOAT length, int maxloops, int dimension, COUNTER cuts)
bool	write_one_step7 (char *filename, REAL radius, REAL fillingfactor, REAL sum_numberofcl, REAL sum_biggestcl, REAL sum_averagecl, REAL fluctuation_numberofcl, REAL fluctuation_biggestcl, REAL fluctuation_averagecl, NUMBER this_numberofcl, NUMBER this_biggestcl, REAL this_averagecl, COUNTER loop_no, clock_t sum_time)
bool	closefile7 (char *filename, clock_t totaltime, REAL min_fluct, REAL ffactor_min_fluct, REAL max_fluct, REAL ffactor_max_fluct)
void	write_results7 (char *filename, COUNTER FILE_STEPS, REAL *R, REAL *ffactor, REAL *sum_numberofcl, REAL *sum_biggestcl, REAL *sum_averagecl, REAL *fluctuation_numberofcl, REAL *fluctuation_biggestcl, REAL *fluctuation_averagecl, NUMBER *this_numberofcl, NUMBER *this_biggestcl, REAL *this_averagecl, COUNTER *loop_no, clock_t *sum_time, clock_t totaltime, REAL min_fluctuation, REAL ffactor_min_fluct, REAL max_fluctuation, REAL ffactor_max_fluct)
void	closefile (char *filename, clock_t totaltime)
void	setfilename (char *filename, char *head, NUMBER N, int dimension, int loops, REAL from, REAL to, int steps)
void	set_and_show_filename (char *filename, REAL FILE_FROM, REAL FILE_TO, int FILE_STEPS, int loops, COORDFLOAT gridsize, int dimension, NUMBER N, char *FILEHEAD, REAL &rfrom, REAL &rto, REAL &rstep)
void	write_one_step (char *filename, REAL radius, REAL fillingfactor, REAL sum_biggestcl, REAL sum_averagecl, clock_t sum_time)
void	write_one_step (char *filename, REAL radius, REAL fillingfactor, REAL sum_biggestcl, REAL sum_averagecl, REAL sum_square_biggestcl, REAL sum_square_averagecl, clock_t sum_time)
bool	write_one_step (char *filename, REAL radius, REAL fillingfactor, REAL sum_biggestcl, REAL sum_averagecl, REAL sum_square_biggestcl, REAL sum_square_averagecl, REAL fluctuation_biggestcl, REAL fluctuation_averagecl, NUMBER this_biggestcl, REAL this_averagecl, COUNTER loop_no, clock_t sum_time)
void	write_cuts_intro (char *filename, char *compname, COORDFLOAT length, int loops, int dimension)
void	write_one_cut (char *filename, NUMBER N, REAL radius, NUMBER max_cuts, NUMBER cuts, clock_t time)
void	write_averaged_cuts_intro (const char *filename, string compname, COORDFLOAT length, int dimension, int criterion)
void	write_one_averaged_cut (const char *filename, NUMBER N, REAL radius, NUMBER loops, NUMBER cuts, clock_t time, clock_t time_sdev)
void	testresultstruct ()
void	read_until_tab (FILE *filestream)
void	LoadResultFile (FILE *inFile, resultfile &rF, int ff_steps)
void	show_resultfile (resultfile rF, int ff_steps)
void	my_fprintf (FILE *outFile, one_result last, NUMBER N, int dim, COORDFLOAT L)
void	my_fprintf_nothing (FILE *outFile)
bool	write_one_result (const char *filename, REAL ff, one_result one, NUMBER N, int dim, COORDFLOAT L)
void	my_fprintf_heading_oneresult (FILE *outFile)
bool	write_intro8 (char *filename, NUMBER no, COORDFLOAT length, int maxloops, int dimension, COUNTER cuts)
bool	write_one_step8 (char *filename, REAL fillingfactor, REAL radius, bool new_result, one_result last, REAL spcl_av, REAL spcl_sdev, REAL spcl_lr_av, REAL spcl_lr_sdev, REAL spcl_tb_av, REAL spcl_tb_sdev, REAL spcl_alldirs_av, REAL spcl_alldirs_sdev, REAL numberof_cl_av, REAL numberof_cl_sdev, REAL biggest_clsz_av, REAL biggest_clsz_sdev, REAL biggest_clsz_variance, REAL biggest_clsz_variance_sdev, REAL biggest_clsz_skewness, REAL biggest_clsz_skewness_sdev, REAL biggest_clsz_kurtosis, REAL biggest_clsz_kurtosis_sdev, REAL mean_clsz_av, REAL mean_clsz_sdev, REAL mean_clsz2_av, REAL mean_clsz2_sdev, COUNTER loop_no, clock_t time_findcl, clock_t time_findspcl, NUMBER N, int dim)
void	write_results8 (char *filename, NUMBER N, int dimension, COUNTER FILE_STEPS, REAL *R, REAL *ffactor, all_results *res, clock_t totaltime, REAL min_fluctuation, REAL ffactor_min_fluct, REAL max_fluctuation, REAL ffactor_max_fluct)
void	save_results8 (int dim, NUMBER N, COUNTER maxloops, REAL ff_from, REAL ff_to, COUNTER ff_steps, COUNTER cuts, REAL *R, REAL *ffactor, all_results *res, clock_t starttime, REAL min_fluctuation, REAL ffactor_min_fluct, REAL max_fluctuation, REAL ffactor_max_fluct)
bool	create_clusteranalysis_resultfile (const char *filename, string namecriterion)
void	my_fprintf (FILE *outFile, muvarskewkurt< REAL > &avr)
bool	create_ffc_file (const char *filename)
bool	write_ff_line (const char *filename, NUMBER N, int dim, COORDFLOAT L, measure< REAL > one_ff, clock_t brackettime, COUNTER loop, COUNTER missedleft, COUNTER missedright, muvarskewkurt< REAL > &ff, const char *timestamp)
bool	create_ff_file (const char *filename, string namecriterion)
bool	create_ffc_bestresults_file (const char *filename)
bool	create_ff_bestresults_file (const char *filename, string namecriterion)
bool	write_best_ff_line (const char *filename, NUMBER N, int dim, COORDFLOAT L, muvarskewkurt< REAL > &ff, COUNTER steps, COUNTER missedleft, COUNTER missedright, REAL leftlimit, REAL rightlimit, clock_t totaltime, const char *timestamp)
bool	write_best_ff_outofmemory (const char *filename, NUMBER N, int dim, const char *objectname)

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Function Documentation

void closefile (  char *    filename, clock_t    totaltime )

Definition at line 234 of file datafiles.h. References FORMATBIGFLOAT, ms(), and REAL. Referenced by starters::into_file(), and starters::into_file2(). { FILE* outFile = fopen( filename, "a+" ); totaltime=clock()-totaltime; REAL totaltime_minutes=(REAL)ms(totaltime)/1000/60; fprintf(outFile,"%c",'\n'); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","total time in minutes\t"); fprintf(outFile,FORMATBIGFLOAT,totaltime_minutes); fprintf(outFile,"%c",'\n'); fclose( outFile ) ; }

bool closefile7 (  char *    filename, clock_t    totaltime, REAL    min_fluct, REAL    ffactor_min_fluct, REAL    max_fluct, REAL    ffactor_max_fluct )

Definition at line 169 of file datafiles.h. References FORMATBIGFLOAT, FORMATSMALLFLOAT, ms(), REAL, and write_error(). Referenced by write_results7(), and write_results8(). { FILE* outFile = fopen( filename, "a+" ); if (outFile==NULL) {write_error (filename); return false;} else { fprintf(outFile,"%c",'\n'); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","total time in minutes\t"); fprintf(outFile,FORMATBIGFLOAT,(REAL)ms(totaltime)/60000); fprintf(outFile,"%c",'\t'); fprintf(outFile,"%s","in seconds\t"); fprintf(outFile,FORMATBIGFLOAT,(REAL)ms(totaltime)/1000); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","minimum (fluctuation)\t"); fprintf(outFile,FORMATBIGFLOAT,min_fluct); fprintf(outFile,"%c",'\t'); fprintf(outFile,"%s","at fillingfactor\t"); fprintf(outFile,FORMATSMALLFLOAT,ffactor_min_fluct); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","maximum (fluctuation)\t"); fprintf(outFile,FORMATBIGFLOAT,max_fluct); fprintf(outFile,"%c",'\t'); fprintf(outFile,"%s","at fillingfactor\t"); fprintf(outFile,FORMATSMALLFLOAT,ffactor_max_fluct); fprintf(outFile,"%c",'\n'); fclose( outFile ) ; return true; } }

bool create_clusteranalysis_resultfile (  const char *    filename, string    namecriterion )

Definition at line 851 of file datafiles.h. References my_fprintf_ff_heading(), my_fprintf_heading_oneresult(), version, and write_error(). Referenced by ff::find_ff_with_criterion_scanning_N_and_dim(), and ff::find_ffc_scanning_N_and_dim(). { FILE* outFile= fopen(filename, "w" ); if (outFile==NULL) {write_error (filename); return false;}; fprintf(outFile,"%s","Andreas Krueger (cpp__at__AndreasKrueger__dot__de) presents:\n"); fprintf(outFile,"%s","results of clusteranalysis around the "); fprintf(outFile,"%s",namecriterion.c_str()); fprintf(outFile,"%s"," fillingfactor (" ); fprintf(outFile,"%s",version); fprintf(outFile,"%s",")\n\n"); my_fprintf_ff_heading(outFile); my_fprintf_heading_oneresult(outFile); fprintf(outFile,"%s","\n"); fclose(outFile); return true; }

bool create_ff_bestresults_file (  const char *    filename, string    namecriterion )

Definition at line 966 of file datafiles.h. References version, and write_error(). Referenced by ff::find_ff_with_criterion_scanning_N_and_dim(). { FILE* outFile= fopen( filename, "w" ); if (outFile==NULL) {write_error (filename); return false;}; fprintf(outFile,"%s","Andreas Krueger (cpp__at__AndreasKrueger__dot__de) presents:\n"); fprintf(outFile,"%s","Best results of the fillingfactor "); fprintf(outFile,"%s",namecriterion.c_str()); fprintf(outFile,"%s"," after many steps ("); fprintf(outFile,"%s",version); fprintf(outFile,"%s",")\n\n"); fprintf(outFile,"%s","dim\tN\tL\t"); fprintf(outFile,"%s","steps\tmissedleft\tmissedright\t"); fprintf(outFile,"%s","min_ff\tmax_ff\t"); fprintf(outFile,"%s","<ff>\t<ff>.dev\tvariance(<ff>)\tvariance(<ff>).dev\t"); fprintf(outFile,"%s","skewness(<ff>)\tskewness(<ff>).dev\t"); fprintf(outFile,"%s","kurtosis(<ff>)\tkurtosis(<ff>).dev\t"); fprintf(outFile,"%s","time[ms]\tend-timestamp"); fprintf(outFile,"%s","\n"); fclose(outFile); return true; }

bool create_ff_file (  const char *    filename, string    namecriterion )

Definition at line 923 of file datafiles.h. References version, and write_error(). Referenced by ff::find_mean_ff_with_criterion(). { FILE* outFile= fopen( filename, "w" ); if (outFile==NULL) {write_error (filename); return false;}; fprintf(outFile,"%s","Andreas Krueger (cpp__at__AndreasKrueger__dot__de) presents:\n"); fprintf(outFile,"%s","bracket the fillingfactor "); fprintf(outFile,"%s",namecriterion.c_str()); fprintf(outFile,"%s"," ("); fprintf(outFile,"%s",version); fprintf(outFile,"%s",")\n\n"); fprintf(outFile,"%s","dim\tN\tL\tone_"); fprintf(outFile,"%s",namecriterion.c_str()); fprintf(outFile,"%s","\tone_"); fprintf(outFile,"%s",namecriterion.c_str()); fprintf(outFile,"%s",".dev\t"); fprintf(outFile,"%s","time[ms]\tstep\tmissedleft\tmissedright\t"); fprintf(outFile,"%s","<ff>\t<ff>.dev\tvariance(<ff>)\tvariance(<ff>).dev\t"); fprintf(outFile,"%s","skewness(<ff>)\tskewness(<ff>).dev\t"); fprintf(outFile,"%s","kurtosis(<ff>)\tkurtosis(<ff>).dev\t"); fprintf(outFile,"%s","timestamp"); fprintf(outFile,"%s","\n"); fclose(outFile); return true; }

bool create_ffc_bestresults_file (  const char *    filename )

Definition at line 946 of file datafiles.h. References version, and write_error(). Referenced by ff::find_ffc_scanning_N_and_dim(). { FILE* outFile= fopen( filename, "w" ); if (outFile==NULL) {write_error (filename); return false;}; fprintf(outFile,"%s","Andreas Krueger (cpp__at__AndreasKrueger__dot__de) presents:\n"); fprintf(outFile,"%s","Best results of the critical fillingfactor after many steps ("); fprintf(outFile,"%s",version); fprintf(outFile,"%s",")\n\n"); fprintf(outFile,"%s","dim\tN\tL\t"); fprintf(outFile,"%s","steps\tmissedleft\tmissedright\t"); fprintf(outFile,"%s","min_ffc\tmax_ffc\t"); fprintf(outFile,"%s","<ffc>\t<ffc>.dev\tvariance(<ffc>)\tvariance(<ffc>).dev\t"); fprintf(outFile,"%s","skewness(<ffc>)\tskewness(<ffc>).dev\t"); fprintf(outFile,"%s","kurtosis(<ffc>)\tkurtosis(<ffc>).dev\t"); fprintf(outFile,"%s","time[ms]\tend-timestamp"); fprintf(outFile,"%s","\n"); fclose(outFile); return true; }

bool create_ffc_file (  const char *    filename )

Definition at line 880 of file datafiles.h. References version, and write_error(). Referenced by ff::find_mean_ffc(). { FILE* outFile= fopen( filename, "w" ); if (outFile==NULL) {write_error (filename); return false;}; fprintf(outFile,"%s","Andreas Krueger (cpp__at__AndreasKrueger__dot__de) presents:\n"); fprintf(outFile,"%s","bracket the critical fillingfactor ("); fprintf(outFile,"%s",version); fprintf(outFile,"%s",")\n\n"); fprintf(outFile,"%s","dim\tN\tL\tff.perc_lr\tff.perc_lr.dev\t"); fprintf(outFile,"%s","time[ms]\tstep\tmissedleft\tmissedright\t"); fprintf(outFile,"%s","<ffc>\t<ffc>.dev\tvariance(<ffc>)\tvariance(<ffc>).dev\t"); fprintf(outFile,"%s","skewness(<ffc>)\tskewness(<ffc>).dev\t"); fprintf(outFile,"%s","kurtosis(<ffc>)\tkurtosis(<ffc>).dev\t"); fprintf(outFile,"%s","timestamp"); fprintf(outFile,"%s","\n"); fclose(outFile); return true; }

void LoadResultFile (  FILE *    inFile, resultfile &    rF, int    ff_steps )

Definition at line 519 of file datafiles.h. References datafiles::resultfile::average, datafiles::resultfile::average_fluct, datafiles::resultfile::average_square, datafiles::resultfile::average_this, datafiles::resultfile::biggest, datafiles::resultfile::biggest_fluct, datafiles::resultfile::biggest_square, datafiles::resultfile::biggest_this, COUNTER, datafiles::resultfile::cuts, datafiles::resultfile::dim, datafiles::resultfile::ffactor, datafiles::resultfile::length, datafiles::resultfile::loop_no, datafiles::resultfile::maxfluct, datafiles::resultfile::maxfluct_ffactor, datafiles::resultfile::maxloops, datafiles::resultfile::minfluct, datafiles::resultfile::minfluct_ffactor, datafiles::resultfile::N, datafiles::resultfile::radius, read_until_tab(), datafiles::resultfile::time, datafiles::resultfile::totaltime, and datafiles::resultfile::unitsphere. { char stringline[200]; double totaltime; COUNTER rstep; // skip text intro fgets(stringline,200,inFile); fgets(stringline,200,inFile); fgets(stringline,200,inFile); // read parameters read_until_tab(inFile); fscanf(inFile,"%f",& rF.length); read_until_tab(inFile); fscanf(inFile,"%d",& rF.dim); read_until_tab(inFile); fscanf(inFile,"%ld",& rF.N); read_until_tab(inFile); fscanf(inFile,"%d",& rF.maxloops); read_until_tab(inFile); read_until_tab(inFile); fscanf(inFile,"%d",& rF.cuts); read_until_tab(inFile); fscanf(inFile,"%lf",& rF.unitsphere); // skip heading line fgets(stringline,200,inFile); fgets(stringline,200,inFile); fgets(stringline,200,inFile); // read lines of data, each radius step is one line for (rstep=0;rstep<=ff_steps;rstep++){ fscanf(inFile,"%lf",& rF.radius[rstep]); fscanf(inFile,"%lf",& rF.ffactor[rstep]); fscanf(inFile,"%lf",& rF.biggest[rstep]); fscanf(inFile,"%lf",& rF.average[rstep]); fscanf(inFile,"%lf",& rF.biggest_square[rstep]); fscanf(inFile,"%lf",& rF.average_square[rstep]); fscanf(inFile,"%lf",& rF.biggest_fluct[rstep]); fscanf(inFile,"%lf",& rF.average_fluct[rstep]); fscanf(inFile,"%ld",& rF.biggest_this[rstep]); fscanf(inFile,"%lf",& rF.average_this[rstep]); fscanf(inFile,"%d",& rF.loop_no[rstep]); fscanf(inFile,"%ld",& rF.time[rstep]); fgets(stringline,200,inFile); } // read the summary (totaltime and fluctuation extrema) read_until_tab(inFile); read_until_tab(inFile); read_until_tab(inFile); fscanf(inFile,"%lf",& totaltime); rF.totaltime=(NUMBER)totaltime*1000; read_until_tab(inFile); fscanf(inFile,"%lf",& rF.minfluct); read_until_tab(inFile); read_until_tab(inFile); fscanf(inFile,"%lf",& rF.minfluct_ffactor); read_until_tab(inFile); fscanf(inFile,"%lf",& rF.maxfluct); read_until_tab(inFile); read_until_tab(inFile); fscanf(inFile,"%lf",& rF.maxfluct_ffactor); }

void my_fprintf (  FILE *    outFile, muvarskewkurt< REAL > &    avr )

Definition at line 869 of file datafiles.h. References FORMATSMALLFLOAT. { fprintf(outFile,FORMATSMALLFLOAT,avr.mu.av()); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,avr.mu.sdev());fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,avr.variance.av()); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,avr.variance.sdev()); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,avr.skewness.av()); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,avr.skewness.sdev()); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,avr.kurtosis.av()); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,avr.kurtosis.sdev()); fprintf(outFile,"%c",'\t'); }

void my_fprintf (  FILE *    outFile, one_result    last, NUMBER    N, int    dim, COORDFLOAT    L )

Definition at line 611 of file datafiles.h. References COORDFLOAT, FORMAT, FORMATBIGFLOAT, FORMATINT, FORMATLONG, FORMATNUMBER, ms(), and NUMBER. Referenced by write_best_ff_line(), write_ff_line(), write_one_result(), and write_one_step8(). { // TODO: Evtl. Remove all perc...() because spcl_dirs contains all data fprintf(outFile,FORMATINT,last.percolate()); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATINT,last.perc_lr()); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATINT,last.perc_tb()); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATINT,last.perc_all_dirs(dim)); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATLONG,last.spcl_dirs); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATNUMBER,last.numberof_cl); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATNUMBER,last.biggest_clsz); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,last.mean_clsz); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,last.mean_clsz2); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,ms(last.last_counttime)); fprintf(outFile,"%c",'\t'); fprintf(outFile,"%s",last.counttime.c_str()); fprintf(outFile,"%c",'\t'); fprintf(outFile,"%s",last.throwtime.c_str()); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMAT,N); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMAT,dim); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,L); fprintf(outFile,"%c",'\t'); }

void my_fprintf_ff (  FILE *    outFile, REAL    fillingfactor, REAL    radius, bool    new_result )

Definition at line 30 of file datafiles.h. References FORMATINT, FORMATSMALLFLOAT, and REAL. Referenced by write_one_result(), and write_one_step8(). { fprintf(outFile,FORMATSMALLFLOAT,fillingfactor); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,radius); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATINT,new_result); fprintf(outFile,"%c",'\t'); }

void my_fprintf_ff_heading (  FILE *    outFile )

Definition at line 25 of file datafiles.h. Referenced by create_clusteranalysis_resultfile(), and write_intro8(). { fprintf(outFile,"%s","f-factor\tradius\tnew\t"); }

void my_fprintf_heading_oneresult (  FILE *    outFile )

Definition at line 646 of file datafiles.h. Referenced by create_clusteranalysis_resultfile(), and write_intro8(). { // TODO: remove left-right & top-bottom (is in "..._dirs" anyway) fprintf(outFile,"%s","spanning_any\t"); fprintf(outFile,"%s","spanning_lr\tspanning_tb\t"); fprintf(outFile,"%s","spanning_all\t"); fprintf(outFile,"%s","spanning_dirs\t"); fprintf(outFile,"%s","numberof_cl\tbiggest_clsz\tmean_clsz\tmean_clsz2\t"); fprintf(outFile,"%s","time(ms)\tcounttime\tthrowtime\t"); fprintf(outFile,"%s","N\tdim\tL\t"); // TODO: IP-Nummer }

void my_fprintf_nothing (  FILE *    outFile )

Definition at line 629 of file datafiles.h. Referenced by write_one_step8(). { fprintf(outFile,"%s"," \t \t \t \t \t \t \t \t \t \t \t \t \t \t \t"); }

void read_until_tab (  FILE *    filestream )

Definition at line 511 of file datafiles.h. Referenced by LoadResultFile(). { char c; do { c=(char)fgetc(filestream); } while (c!='\t'); }

void save_results8 (  int    dim, NUMBER    N, COUNTER    maxloops, REAL    ff_from, REAL    ff_to, COUNTER    ff_steps, COUNTER    cuts, REAL *    R, REAL *    ffactor, all_results *    res, clock_t    starttime, REAL    min_fluctuation, REAL    ffactor_min_fluct, REAL    max_fluctuation, REAL    ffactor_max_fluct )

Definition at line 819 of file datafiles.h. References COUNTER, FILEHEAD1, FILEHEAD2, GRIDSIZE, NUMBER, REAL, setfilename(), write_intro8(), and write_results8(). Referenced by starters::into_file8_pt1(). { char filename[100]; // save to network harddisc: setfilename(filename,FILEHEAD1,N,dim,maxloops, ff_from, ff_to, ff_steps); write_intro8(filename,N,GRIDSIZE, maxloops, dim, cuts); write_results8(filename, N, dim, ff_steps, R, ffactor, res, clock()-starttime, min_fluctuation, ffactor_min_fluct, max_fluctuation, ffactor_max_fluct); // local copy for security reasons: setfilename(filename,FILEHEAD2,N,dim,maxloops, ff_from, ff_to, ff_steps); write_intro8(filename,N,GRIDSIZE, maxloops, dim, cuts); write_results8(filename, N, dim, ff_steps, R, ffactor, res, clock()-starttime, min_fluctuation, ffactor_min_fluct, max_fluctuation, ffactor_max_fluct); }

void set_and_show_filename (  char *    filename, REAL    FILE_FROM, REAL    FILE_TO, int    FILE_STEPS, int    loops, COORDFLOAT    gridsize, int    dimension, NUMBER    N, char *    FILEHEAD, REAL &    rfrom, REAL &    rto, REAL &    rstep )

Definition at line 260 of file datafiles.h. References COORDFLOAT, FILE_FROM, FILE_TO, FILEHEAD, give_radius(), NUMBER, REAL, setfilename(), and waitanykey(). Referenced by starters::into_file(), and starters::into_file2(). { rfrom=give_radius(FILE_FROM, N, gridsize, dimension); rto=give_radius(FILE_TO, N, gridsize, dimension); rstep=(rto-rfrom)/FILE_STEPS; setfilename(filename, FILEHEAD,N,dimension,loops,FILE_FROM,FILE_TO,FILE_STEPS); cout << "\nFrom r="<<rfrom<<" to "<<rto<<" in "<<FILE_STEPS<<" steps of size "<<rstep<<endl; cout <<"write results to "<<filename<<endl; waitanykey(); }

void setfilename (  char *    filename, char *    head, NUMBER    N, int    dimension, int    loops, REAL    from, REAL    to, int    steps )

Definition at line 251 of file datafiles.h. References NUMBER, and REAL. Referenced by starters::into_file2(), starters::into_file7_pt1(), save_results8(), and set_and_show_filename(). { sprintf(filename, "%scluster-%ddim-N%d-F%1.2f-T%1.2f-S%d-(L%d).txt",head, dimension, N, from, to, steps, loops); }

void show_resultfile (  resultfile    rF, int    ff_steps )

Definition at line 582 of file datafiles.h. References datafiles::resultfile::average, datafiles::resultfile::average_fluct, datafiles::resultfile::average_square, datafiles::resultfile::average_this, datafiles::resultfile::biggest, datafiles::resultfile::biggest_fluct, datafiles::resultfile::biggest_square, datafiles::resultfile::biggest_this, COUNTER, datafiles::resultfile::cuts, datafiles::resultfile::dim, datafiles::resultfile::ffactor, datafiles::resultfile::length, datafiles::resultfile::loop_no, datafiles::resultfile::maxfluct, datafiles::resultfile::maxfluct_ffactor, datafiles::resultfile::maxloops, datafiles::resultfile::minfluct, datafiles::resultfile::minfluct_ffactor, datafiles::resultfile::N, datafiles::resultfile::radius, datafiles::resultfile::time, datafiles::resultfile::totaltime, and datafiles::resultfile::unitsphere. { cout <<rF.length<<endl; cout <<rF.dim<<endl; cout <<rF.N<<endl; cout <<rF.maxloops<<endl; cout <<rF.cuts<<endl; cout <<rF.unitsphere<<endl; cout <<"\n!!!Now the data!!!"<<endl; for (COUNTER rstep=0;rstep<=ff_steps;rstep++){ cout <<rF.radius[rstep]<<"\t"; cout <<rF.ffactor[rstep]<<"\t"; cout <<rF.biggest[rstep]<<"\t"; cout <<rF.average[rstep]<<"\t"; cout <<rF.biggest_square[rstep]<<"\t"; cout <<rF.average_square[rstep]<<"\t"; cout <<rF.biggest_fluct[rstep]<<"\t"; cout <<rF.average_fluct[rstep]<<"\t"; cout <<rF.biggest_this[rstep]<<"\t"; cout <<rF.average_this[rstep]<<"\t"; cout <<rF.loop_no[rstep]<<"\t"; cout <<rF.time[rstep]<<"\n"; } cout <<rF.totaltime<<endl; cout <<rF.minfluct<<endl; cout <<rF.minfluct_ffactor<<endl; cout <<rF.maxfluct<<endl; cout <<rF.maxfluct_ffactor<<endl<<endl; }

void testresultstruct (    )

Definition at line 501 of file datafiles.h. References datafiles::resultfile::createtables(), datafiles::resultfile::destroytables(), and waitanykey(). { waitanykey(); resultfile rF; rF.createtables(70); waitanykey(); rF.destroytables(); }

void write_averaged_cuts_intro (  const char *    filename, string    compname, COORDFLOAT    length, int    dimension, int    criterion )

Definition at line 399 of file datafiles.h. References COORDFLOAT, FORMAT, FORMATCOORD, FORMATEXACT, length(), MAXDIM, and unitsphere(). Referenced by optimize::cuts_test_average_time(). { FILE* outFile= fopen( filename, "w" ); fprintf(outFile,"%s","cpp__at__AndreasKrueger__dot__de and his famous clustercount programm present:\n"); fprintf(outFile,"%s","time-averaging loops for predefined cuts-intervalls that generate an\n"); fprintf(outFile,"%s","Algorithm configuration table for percolating hyperspheres\nthrown on a "); fprintf(outFile,FORMAT,dimension); fprintf(outFile,"%s"," dimensional volume of length "); fprintf(outFile,FORMATCOORD,length); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","length of volume\t"); fprintf(outFile,FORMATCOORD,length); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","dimensions\t"); fprintf(outFile,FORMAT,dimension); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","MAXDIM(internal)\t"); fprintf(outFile,FORMAT,MAXDIM); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","ff-criterion\t"); fprintf(outFile,FORMAT,criterion); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","volume of unit sphere\t"); fprintf(outFile,FORMATEXACT,unitsphere(dimension)); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","computername\t"); fprintf(outFile,"%s",compname.c_str()); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","N\tR\tloops\tcuts\ttime(ms)\ttime_sdev(ms)\n"); fclose( outFile ) ; }

bool write_best_ff_line (  const char *    filename, NUMBER    N, int    dim, COORDFLOAT    L, muvarskewkurt< REAL > &    ff, COUNTER    steps, COUNTER    missedleft, COUNTER    missedright, REAL    leftlimit, REAL    rightlimit, clock_t    totaltime, const char *    timestamp )

Definition at line 988 of file datafiles.h. References COORDFLOAT, COUNTER, FORMATBIGFLOAT, FORMATCOUNTER, FORMATINT, FORMATNUMBER, FORMATSMALLFLOAT, ms(), my_fprintf(), NUMBER, REAL, and write_error(). Referenced by ff::find_mean_ff_with_criterion(), and ff::find_mean_ffc(). { FILE* outFile= fopen( filename, "a+" ); if (outFile==NULL) {write_error (filename); return false;} else { fprintf(outFile,FORMATINT,dim); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATNUMBER,N); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,L); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATCOUNTER,steps); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATCOUNTER,missedleft); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATCOUNTER,missedright); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,leftlimit); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,rightlimit); fprintf(outFile,"%c",'\t'); my_fprintf(outFile, ff); fprintf(outFile,FORMATBIGFLOAT,ms(totaltime)); fprintf(outFile,"%c",'\t'); fprintf(outFile,"%s",timestamp); fprintf(outFile,"%c",'\t'); } fprintf(outFile,"%c",'\n'); fclose(outFile); return true; }

bool write_best_ff_outofmemory (  const char *    filename, NUMBER    N, int    dim, const char *    objectname )

Definition at line 1014 of file datafiles.h. References FORMATINT, FORMATNUMBER, NUMBER, and write_error(). Referenced by ff::find_mean_ff_with_criterion(), and ff::find_mean_ffc(). { FILE* outFile= fopen( filename, "a+" ); if (outFile==NULL) {write_error (filename); return false;} else { fprintf(outFile,FORMATINT,dim); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATNUMBER,N); fprintf(outFile,"%c",'\t'); fprintf(outFile,"%s","Out of memory:"); fprintf(outFile,"%s",objectname); fprintf(outFile,"%c",'\n'); fclose(outFile); return true; } }

void write_cuts_intro (  char *    filename, char *    compname, COORDFLOAT    length, int    loops, int    dimension )

Definition at line 358 of file datafiles.h. References COORDFLOAT, FORMAT, FORMATCOORD, FORMATEXACT, length(), and unitsphere(). Referenced by optimize::double_N_and_run_all_faster_cuts(), and optimize::double_N_and_run_specified_cuts(). { FILE* outFile= fopen( filename, "w" ); fprintf(outFile,"%s","cpp__at__AndreasKrueger__dot__de and his famous clustercount programm present:\n"); fprintf(outFile,"%s","Algorithm configuration table for percolating hyperspheres\nthrown on a "); fprintf(outFile,FORMAT,dimension); fprintf(outFile,"%s"," dimensional volume of length "); fprintf(outFile,FORMATCOORD,length); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","length of volume\t"); fprintf(outFile,FORMATCOORD,length); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","dimensions\t"); fprintf(outFile,FORMAT,dimension); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","volume of unit sphere\t"); fprintf(outFile,FORMATEXACT,unitsphere(dimension)); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","loops per one cut\t"); fprintf(outFile,FORMAT,loops); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","computername\t"); fprintf(outFile,"%s",compname); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","N\tR\tmax_cuts\tcuts\ttime(milliseconds)\n"); fclose( outFile ) ; }

void write_error (  const char *    filename )

Definition at line 91 of file datafiles.h. References errorout(). { errorout("file open - error. Couldn't write!"); cout << filename<<endl; cout <<"Continue without saving!"<<endl; }

void write_error (  char *    filename )

Definition at line 86 of file datafiles.h. References errorout(). Referenced by closefile7(), create_clusteranalysis_resultfile(), create_ff_bestresults_file(), create_ff_file(), create_ffc_bestresults_file(), create_ffc_file(), write_best_ff_line(), write_best_ff_outofmemory(), write_ff_line(), write_intro7(), write_intro8(), write_one_result(), write_one_step(), write_one_step7(), and write_one_step8(). { errorout("file open - error. Couldn't write!"); cout << filename<<endl; cout <<"Continue without saving!"<<endl; }

bool write_ff_line (  const char *    filename, NUMBER    N, int    dim, COORDFLOAT    L, measure< REAL >    one_ff, clock_t    brackettime, COUNTER    loop, COUNTER    missedleft, COUNTER    missedright, muvarskewkurt< REAL > &    ff, const char *    timestamp )

Definition at line 898 of file datafiles.h. References measure< T >::av(), COORDFLOAT, COUNTER, FORMATBIGFLOAT, FORMATCOUNTER, FORMATINT, FORMATNUMBER, FORMATSMALLFLOAT, ms(), my_fprintf(), NUMBER, measure< T >::sdev(), and write_error(). Referenced by ff::find_mean_ff_with_criterion(), and ff::find_mean_ffc(). { FILE* outFile= fopen( filename, "a+" ); if (outFile==NULL) {write_error (filename); return false;} else { fprintf(outFile,FORMATINT,dim); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATNUMBER,N); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,L); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,one_ff.av()); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,one_ff.sdev());fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,ms(brackettime));fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATCOUNTER,loop); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATCOUNTER,missedleft); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATCOUNTER,missedright); fprintf(outFile,"%c",'\t'); my_fprintf(outFile, ff); fprintf(outFile,"%s",timestamp); fprintf(outFile,"%c",'\t'); } fprintf(outFile,"%c",'\n'); fclose(outFile); return true; }

void write_intro (  char *    filename, NUMBER    no, COORDFLOAT    length, int    loops, int    dimension )

Definition at line 36 of file datafiles.h. References COORDFLOAT, FORMAT, FORMATCOORD, FORMATEXACT, length(), NUMBER, and unitsphere(). Referenced by optimize::double_N_and_run_all_faster_cuts(), optimize::double_N_and_run_specified_cuts(), starters::into_file(), and starters::into_file2(). { FILE* outFile= fopen( filename, "w" ); fprintf(outFile,"%s","cpp__at__AndreasKrueger__dot__de and his famous clustercount programm presents:\n"); fprintf(outFile,FORMAT,no); fprintf(outFile,"%s"," thrown spheres on a "); fprintf(outFile,FORMAT,dimension); fprintf(outFile,"%s"," dimensional volume of length "); fprintf(outFile,FORMATCOORD,length); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","length of volume\t"); fprintf(outFile,FORMATCOORD,length); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","dimensions\t"); fprintf(outFile,FORMAT,dimension); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","number of spheres\t"); fprintf(outFile,FORMAT,no); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","loops per radius\t"); fprintf(outFile,FORMAT,loops); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","volume of unit sphere\t"); fprintf(outFile,FORMATEXACT,unitsphere(dimension)); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","radius\tf-factor\tbiggest\taverage\tmostfrq\t\ttime (milliseconds)\n"); fclose( outFile ) ; }

bool write_intro7 (  char *    filename, NUMBER    no, COORDFLOAT    length, int    maxloops, int    dimension, COUNTER    cuts )

Definition at line 99 of file datafiles.h. References COORDFLOAT, COUNTER, FORMAT, FORMATCOORD, FORMATEXACT, length(), NUMBER, unitsphere(), and write_error(). Referenced by starters::into_file7_pt1(). { FILE* outFile= fopen( filename, "w" ); if (outFile==NULL) {write_error (filename); return false;} else { fprintf(outFile,"%s","cpp__at__AndreasKrueger__dot__de and his famous clustercount programm presents:\n"); fprintf(outFile,FORMAT,no); fprintf(outFile,"%s"," thrown spheres on a "); fprintf(outFile,FORMAT,dimension); fprintf(outFile,"%s"," dimensional volume of length "); fprintf(outFile,FORMATCOORD,length); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","length of volume\t"); fprintf(outFile,FORMATCOORD,length); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","dimensions\t"); fprintf(outFile,FORMAT,dimension); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","number of spheres\t"); fprintf(outFile,FORMAT,no); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","maximal loops per radius\t"); fprintf(outFile,FORMAT,maxloops); fprintf(outFile,"%c",'\t'); fprintf(outFile,"%s","#cuts(N,dim)\t"); fprintf(outFile,FORMAT,cuts); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","volume of unit sphere\t"); fprintf(outFile,FORMATEXACT,unitsphere(dimension)); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","radius\tf-factor\t<numberofcl>\t<biggestcl>\t<meancl>"); fprintf(outFile,"%s","\tfluctuation(numberofcl)\tfluctuation(biggestcl)\tfluctuation(meancl)\tthis(numberofcl)\tthis(biggestcl)\tthis(meancl)"); fprintf(outFile,"%s","\t#loops\ttime (milliseconds)\n"); fclose( outFile ) ; return true; } }

bool write_intro8 (  char *    filename, NUMBER    no, COORDFLOAT    length, int    maxloops, int    dimension, COUNTER    cuts )

Definition at line 659 of file datafiles.h. References COORDFLOAT, COUNTER, FORMAT, FORMATCOORD, FORMATEXACT, length(), my_fprintf_ff_heading(), my_fprintf_heading_oneresult(), NUMBER, unitsphere(), and write_error(). Referenced by save_results8(). { FILE* outFile= fopen( filename, "w" ); if (outFile==NULL) {write_error (filename); return false;} else { fprintf(outFile,"%s","cpp__at__AndreasKrueger__dot__de and his famous clustercount programm (v8.d) present:\n"); fprintf(outFile,FORMAT,no); fprintf(outFile,"%s"," thrown spheres on a "); fprintf(outFile,FORMAT,dimension); fprintf(outFile,"%s"," dimensional volume of length "); fprintf(outFile,FORMATCOORD,length); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","length of volume\t"); fprintf(outFile,FORMATCOORD,length); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","dimensions\t"); fprintf(outFile,FORMAT,dimension); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","number of spheres\t"); fprintf(outFile,FORMAT,no); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","maximal loops per radius\t"); fprintf(outFile,FORMAT,maxloops); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","#cuts(N,dim)\t"); fprintf(outFile,FORMAT,cuts); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","volume of unit sphere\t"); fprintf(outFile,FORMATEXACT,unitsphere(dimension)); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%c",'\n'); my_fprintf_ff_heading(outFile); // last result my_fprintf_heading_oneresult(outFile); // end: last result // from here: statistics fprintf(outFile,"%s","loop_no\t"); fprintf(outFile,"%s","<spanningcl>\tsdev(<spanningcl>)\t"); fprintf(outFile,"%s","<spanningcl_lr>\tsdev(<spanningcl_lr>)\t"); fprintf(outFile,"%s","<spanningcl_tb>\tsdev(<spanningcl_tb>)\t"); fprintf(outFile,"%s","<spanningcl_alldirs>\tsdev(<spanningcl_alldirs>)\t"); fprintf(outFile,"%s","<numberof_cl>\tsdev(<numberof_cl>)\t"); fprintf(outFile,"%s","<biggest_clsz>\tsdev(<biggest_clsz>)\t"); fprintf(outFile,"%s","biggest_clsz.variance\tsdev(biggest_clsz.variance)\t"); fprintf(outFile,"%s","biggest_clsz.skewness\tsdev(biggest_clsz.skewness)\t"); fprintf(outFile,"%s","biggest_clsz.kurtosis\tsdev(biggest_clsz.kurtosis)\t"); fprintf(outFile,"%s","<mean_clsz>\tsdev(<mean_clsz>)\t"); fprintf(outFile,"%s","<mean_clsz2>\tsdev(<mean_clsz2>)\t"); fprintf(outFile,"%s","total(clcount-time)(ms)\t"); fprintf(outFile,"%s","total(spsearch-time)(ms)\n"); fclose( outFile ) ; return true; } }

void write_intro_square (  char *    filename, NUMBER    no, COORDFLOAT    length, int    loops, int    dimension, COUNTER    cuts )

Definition at line 61 of file datafiles.h. References COORDFLOAT, COUNTER, FORMAT, FORMATCOORD, FORMATEXACT, length(), NUMBER, and unitsphere(). { FILE* outFile= fopen( filename, "w" ); fprintf(outFile,"%s","cpp__at__AndreasKrueger__dot__de and his famous clustercount programm presents:\n"); fprintf(outFile,FORMAT,no); fprintf(outFile,"%s"," thrown spheres on a "); fprintf(outFile,FORMAT,dimension); fprintf(outFile,"%s"," dimensional volume of length "); fprintf(outFile,FORMATCOORD,length); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","length of volume\t"); fprintf(outFile,FORMATCOORD,length); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","dimensions\t"); fprintf(outFile,FORMAT,dimension); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","number of spheres\t"); fprintf(outFile,FORMAT,no); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","loops per radius\t"); fprintf(outFile,FORMAT,loops); fprintf(outFile,"%c",'\t'); fprintf(outFile,"%s","#cuts(N,dim)\t"); fprintf(outFile,FORMAT,cuts); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","volume of unit sphere\t"); fprintf(outFile,FORMATEXACT,unitsphere(dimension)); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%c",'\n'); fprintf(outFile,"%s","radius\tf-factor\tbiggest\taverage\tbiggest^2\taverage^2\t\ttime (milliseconds)\n"); fclose( outFile ) ; }

void write_one_averaged_cut (  const char *    filename, NUMBER    N, REAL    radius, NUMBER    loops, NUMBER    cuts, clock_t    time, clock_t    time_sdev )

Definition at line 428 of file datafiles.h. References FORMAT, FORMATBIGFLOAT, FORMATSMALLFLOAT, ms(), NUMBER, and REAL. Referenced by optimize::test_average_time_for_specified_cuts(). { FILE *outFile = fopen( filename, "a+" ); fprintf(outFile,FORMAT,N); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,radius); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMAT,loops); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMAT,cuts); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,ms(time)); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,ms(time_sdev)); fprintf(outFile,"%c",'\n'); fclose( outFile ); }

void write_one_cut (  char *    filename, NUMBER    N, REAL    radius, NUMBER    max_cuts, NUMBER    cuts, clock_t    time )

Definition at line 382 of file datafiles.h. References FORMAT, FORMATBIGFLOAT, FORMATSMALLFLOAT, ms(), NUMBER, and REAL. Referenced by optimize::double_N_and_run_all_faster_cuts(), and optimize::double_N_and_run_specified_cuts(). { FILE *outFile = fopen( filename, "a+" ); fprintf(outFile,FORMAT,N); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,radius); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMAT,max_cuts); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMAT,cuts); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,ms(time)); fprintf(outFile,"%c",'\n'); fclose( outFile ); }

bool write_one_result (  const char *    filename, REAL    ff, one_result    one, NUMBER    N, int    dim, COORDFLOAT    L )

Definition at line 633 of file datafiles.h. References COORDFLOAT, give_radius(), GRIDSIZE, my_fprintf(), my_fprintf_ff(), NUMBER, REAL, and write_error(). Referenced by ff::is_the_biggestcluster_bigger_than_a_ratio(), ff::is_the_incl_meancluster_bigger_than_a_ratio(), ff::is_the_numberofcl_smaller_than_a_ratio(), ff::is_there_a_spanning_cluster(), and ff::is_there_only_one_cluster(). { FILE* outFile= fopen( filename, "a+" ); if (outFile==NULL) {write_error (filename); return false;}; my_fprintf_ff(outFile,ff,give_radius(ff,N,GRIDSIZE,dim),true); // true means new result (not only averaging of old ones) // TODO: true -> enum newresult{no, increment, ffc} 0,1,2 my_fprintf(outFile, one, N, dim, L); fprintf(outFile, "%s","\n"); fclose(outFile); return true; }

bool write_one_step (  char *    filename, REAL    radius, REAL    fillingfactor, REAL    sum_biggestcl, REAL    sum_averagecl, REAL    sum_square_biggestcl, REAL    sum_square_averagecl, REAL    fluctuation_biggestcl, REAL    fluctuation_averagecl, NUMBER    this_biggestcl, REAL    this_averagecl, COUNTER    loop_no, clock_t    sum_time )

Definition at line 325 of file datafiles.h. References COUNTER, FORMATBIGFLOAT, FORMATCOUNTER, FORMATNUMBER, FORMATSMALLFLOAT, ms(), NUMBER, REAL, and write_error(). { FILE *outFile = fopen( filename, "a+" ); if (outFile==NULL) {write_error (filename); return false;} else { fprintf(outFile,FORMATSMALLFLOAT,radius); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,fillingfactor); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,sum_biggestcl); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,sum_averagecl); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,sum_square_biggestcl); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,sum_square_averagecl); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,fluctuation_biggestcl); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,fluctuation_averagecl); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATNUMBER,this_biggestcl); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,this_averagecl); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATCOUNTER,loop_no); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,ms(sum_time)); fprintf(outFile,"%c",'\n'); fclose( outFile ); return true; } }

void write_one_step (  char *    filename, REAL    radius, REAL    fillingfactor, REAL    sum_biggestcl, REAL    sum_averagecl, REAL    sum_square_biggestcl, REAL    sum_square_averagecl, clock_t    sum_time )

Definition at line 303 of file datafiles.h. References FORMATBIGFLOAT, FORMATSMALLFLOAT, ms(), and REAL. { FILE *outFile = fopen( filename, "a+" ); fprintf(outFile,FORMATSMALLFLOAT,radius); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,fillingfactor); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,sum_biggestcl); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,sum_averagecl); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,sum_square_biggestcl); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,sum_square_averagecl); fprintf(outFile,"%c",'\t'); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,ms(sum_time)); fprintf(outFile,"%c",'\n'); fclose( outFile ); }

void write_one_step (  char *    filename, REAL    radius, REAL    fillingfactor, REAL    sum_biggestcl, REAL    sum_averagecl, clock_t    sum_time )

Definition at line 286 of file datafiles.h. References FORMATBIGFLOAT, FORMATSMALLFLOAT, ms(), and REAL. { FILE *outFile = fopen( filename, "a+" ); fprintf(outFile,FORMATSMALLFLOAT,radius); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,fillingfactor); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,sum_biggestcl); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,sum_averagecl); fprintf(outFile,"%c",'\t'); fprintf(outFile,"%c",'\t'); fprintf(outFile,"%c",'\t'); // instead of mostfrequent fprintf(outFile,FORMATBIGFLOAT,ms(sum_time)); fprintf(outFile,"%c",'\n'); fclose( outFile ); }

bool write_one_step7 (  char *    filename, REAL    radius, REAL    fillingfactor, REAL    sum_numberofcl, REAL    sum_biggestcl, REAL    sum_averagecl, REAL    fluctuation_numberofcl, REAL    fluctuation_biggestcl, REAL    fluctuation_averagecl, NUMBER    this_numberofcl, NUMBER    this_biggestcl, REAL    this_averagecl, COUNTER    loop_no, clock_t    sum_time )

Definition at line 130 of file datafiles.h. References COUNTER, FORMATBIGFLOAT, FORMATCOUNTER, FORMATNUMBER, FORMATSMALLFLOAT, ms(), NUMBER, REAL, and write_error(). Referenced by write_results7(). { FILE *outFile = fopen( filename, "a+" ); if (outFile==NULL) {write_error (filename); return false;} else { fprintf(outFile,FORMATSMALLFLOAT,radius); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,fillingfactor); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,sum_numberofcl); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,sum_biggestcl); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,sum_averagecl); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,fluctuation_numberofcl); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,fluctuation_biggestcl); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,fluctuation_averagecl); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATNUMBER,this_numberofcl); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATNUMBER,this_biggestcl); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,this_averagecl); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATCOUNTER,loop_no); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,ms(sum_time)); fprintf(outFile,"%c",'\n'); fclose( outFile ); return true; } }

bool write_one_step8 (  char *    filename, REAL    fillingfactor, REAL    radius, bool    new_result, one_result    last, REAL    spcl_av, REAL    spcl_sdev, REAL    spcl_lr_av, REAL    spcl_lr_sdev, REAL    spcl_tb_av, REAL    spcl_tb_sdev, REAL    spcl_alldirs_av, REAL    spcl_alldirs_sdev, REAL    numberof_cl_av, REAL    numberof_cl_sdev, REAL    biggest_clsz_av, REAL    biggest_clsz_sdev, REAL    biggest_clsz_variance, REAL    biggest_clsz_variance_sdev, REAL    biggest_clsz_skewness, REAL    biggest_clsz_skewness_sdev, REAL    biggest_clsz_kurtosis, REAL    biggest_clsz_kurtosis_sdev, REAL    mean_clsz_av, REAL    mean_clsz_sdev, REAL    mean_clsz2_av, REAL    mean_clsz2_sdev, COUNTER    loop_no, clock_t    time_findcl, clock_t    time_findspcl, NUMBER    N, int    dim )

Definition at line 711 of file datafiles.h. References COUNTER, FORMATBIGFLOAT, FORMATCOUNTER, FORMATSMALLFLOAT, GRIDSIZE, ms(), my_fprintf(), my_fprintf_ff(), my_fprintf_nothing(), NUMBER, REAL, and write_error(). Referenced by write_results8(). { FILE *outFile = fopen( filename, "a+" ); if (outFile==NULL) {write_error (filename); return false;} else { my_fprintf_ff(outFile, fillingfactor, radius, new_result); if (new_result){ my_fprintf(outFile, last, N, dim, GRIDSIZE); } else { my_fprintf_nothing(outFile); } fprintf(outFile,FORMATCOUNTER,loop_no); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,spcl_av); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,spcl_sdev); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,spcl_lr_av); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,spcl_lr_sdev); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,spcl_tb_av); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,spcl_tb_sdev); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,spcl_alldirs_av); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATSMALLFLOAT,spcl_alldirs_sdev);fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,numberof_cl_av); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,numberof_cl_sdev); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,biggest_clsz_av); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,biggest_clsz_sdev); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,biggest_clsz_variance); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,biggest_clsz_variance_sdev); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,biggest_clsz_skewness); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,biggest_clsz_skewness_sdev); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,biggest_clsz_kurtosis); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,biggest_clsz_kurtosis_sdev); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,mean_clsz_av); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,mean_clsz_sdev); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,mean_clsz2_av); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,mean_clsz2_sdev);fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,ms(time_findcl)); fprintf(outFile,"%c",'\t'); fprintf(outFile,FORMATBIGFLOAT,ms(time_findspcl)); fprintf(outFile,"%c",'\t'); fprintf(outFile,"%c",'\n'); fclose( outFile ); return true; } }

void write_results7 (  char *    filename, COUNTER    FILE_STEPS, REAL *    R, REAL *    ffactor, REAL *    sum_numberofcl, REAL *    sum_biggestcl, REAL *    sum_averagecl, REAL *    fluctuation_numberofcl, REAL *    fluctuation_biggestcl, REAL *    fluctuation_averagecl, NUMBER *    this_numberofcl, NUMBER *    this_biggestcl, REAL *    this_averagecl, COUNTER *    loop_no, clock_t *    sum_time, clock_t    totaltime, REAL    min_fluctuation, REAL    ffactor_min_fluct, REAL    max_fluctuation, REAL    ffactor_max_fluct )

Definition at line 198 of file datafiles.h. References closefile7(), COUNTER, NUMBER, REAL, and write_one_step7(). Referenced by starters::into_file7_pt1(). { for (COUNTER index=0;index<=FILE_STEPS; index++){ write_one_step7(filename, R[index], ffactor[index], sum_numberofcl[index], sum_biggestcl[index], sum_averagecl[index], fluctuation_numberofcl[index], fluctuation_biggestcl[index], fluctuation_averagecl[index], this_numberofcl[index], this_biggestcl[index], this_averagecl[index], loop_no[index], sum_time[index]); } closefile7( filename, totaltime, min_fluctuation, ffactor_min_fluct, max_fluctuation, ffactor_max_fluct); }

void write_results8 (  char *    filename, NUMBER    N, int    dimension, COUNTER    FILE_STEPS, REAL *    R, REAL *    ffactor, all_results *    res, clock_t    totaltime, REAL    min_fluctuation, REAL    ffactor_min_fluct, REAL    max_fluctuation, REAL    ffactor_max_fluct )

Definition at line 783 of file datafiles.h. References closefile7(), COUNTER, NUMBER, REAL, and write_one_step8(). Referenced by save_results8(). { for (COUNTER index=0;index<=FILE_STEPS; index++){ write_one_step8(filename, ffactor[index], R[index], res[index].new_result, res[index].last, res[index].spcl_cum.mu.av(), res[index].spcl_cum.mu.sdev(), res[index].spcl_lr_cum.mu.av(), res[index].spcl_lr_cum.mu.sdev(), res[index].spcl_tb_cum.mu.av(), res[index].spcl_tb_cum.mu.sdev(), res[index].spcl_alldirs_cum.mu.av(),res[index].spcl_alldirs_cum.mu.sdev(), res[index].numberof_cl.mu.av(), res[index].numberof_cl.mu.sdev(), res[index].biggest_clsz.mu.av(),res[index].biggest_clsz.mu.sdev(), res[index].biggest_clsz.variance.av(),res[index].biggest_clsz.variance.sdev(), res[index].biggest_clsz.skewness.av(),res[index].biggest_clsz.skewness.sdev(), res[index].biggest_clsz.kurtosis.av(),res[index].biggest_clsz.kurtosis.sdev(), res[index].mean_clsz.mu.av(), res[index].mean_clsz.mu.sdev(), res[index].mean_clsz2.mu.av(), res[index].mean_clsz2.mu.sdev(), res[index].loop_no, res[index].sum_time, res[index].sum_spsearch_time, N, dimension); } closefile7( filename, totaltime, min_fluctuation, ffactor_min_fluct, max_fluctuation, ffactor_max_fluct); }

Diploma Thesis Sourcecode Documentation check out the text and the executable binaries

www.AndreasKrueger.de/thesis/code