Next: /media/sda-magnetic/david/Dok-15-2023-11-27/informatik/newC2023-10-23/c2023-10-23/reg7xxxsuper.c Up: vhdl - ttl - Previous: /media/sda-magnetic/david/Dok-15-2023-11-27/informatik/newC2023-10-23/c2023-10-23/reg7785.c
#include <stdio.h>
#include <stdlib.h>
#include <string.h>
#define X 2048
#define MAX_LINES 2048
#define END -1
#define REALEND -2
#define CONTROLSTATE -3
#define OPERATIONSTATESUBSTITUTE -14
#define OPERATIONSTATESUBSTITUTEWITH -15
#define OPERATIONSTATEFIND -16
#define OPERATIONSTATEEND -17
#define ASCIIMIN 0
#define ASCIIMAX 255
#define LEX_ROUND_BRACKET_OPEN -4
#define LEX_ROUND_BRACKET_CLOSE -5
#define LEX_SQUARE_BRACKET_OPEN -6
#define LEX_SQUARE_BRACKET_CLOSE -7
#define LEX_COMMA -8
#define LEX_STAR -9
#define LEX_DOT -10
#define LEX_END -11
#define LEX_EMPTY -12
#define LEX_SLASH -13
#define LEX_A '\a'
#define LEX_B '\b'
#define LEX_F '\f'
#define LEX_N '\n'
#define LEX_R '\r'
#define LEX_T '\t'
#define LEX_V '\v'
#define C_STRING_END 0
#define C_ROUND_BRACKET_OPEN '('
#define C_ROUND_BRACKET_CLOSE ')'
#define C_SQUARE_BRACKET_OPEN '['
#define C_SQUARE_BRACKET_CLOSE ']'
#define C_STAR '*'
#define C_COMMA ','
#define C_BACKSLASH '\\'
#define C_SLASH '/'
#define C_DOT '.'
#define C_A 'a'
#define C_B 'b'
#define C_F 'f'
#define C_N 'n'
#define C_R 'r'
#define C_T 't'
#define C_V 'v'
#define BUF_INPUT_SIZE 2048
#define ERR_NO_ERR_NORMAL 0
#define ERR_USAGE 1
#define ERR_PARSE 2
#define ERR_SYS 3
#define ERR_NO_ERROR_USER 4
#define ERR_PARSE_FORGOT_COMMA_IN_OR_INDEX 0
#define ERR_PARSE_FORGOT_SQUARE_BRACKET_CLOSE_IN_OR_INDEX 1
#define ERR_PARSE_FORGOT_ROUND_BRACKET_CLOSE_INDEX 2
#define ERR_PROG_USAGE_WRONG_ARGS_INDEX 3
#define ERR_SYS_NOT_ENOUGH_MEMORY_INDEX 4
#define ERR_PARSE_FORGOT_COMMA_IN_OR_MSG "%s Sie haben das Komma bei Alternative vergessen\n"
#define ERR_PARSE_FORGOT_SQUARE_BRACKET_CLOSE_IN_OR_MSG "%s Sie haben vergessen bei der Alternative die Klammer zu schliessen\n"
#define ERR_PARSE_FORGOT_ROUND_BRACKET_CLOSE_MSG "%s fehler klammer vergessen %c %i\n"
#define ERR_PROG_USAGE_WRONG_ARGS_MSG "%s Sie haben die falsche Anzahl an Parametern eingegeben oder sie haben Parameter fehlerhaft eingegeben\n"
#define ERR_SYS_NOT_ENOUGH_MEMORY_MSG "Nicht genug Arbeitsspeicher vorhanden"
#define ERR_TOP_NO_ERROR_NORMAL_MSG "Das Programm läuft korrekt"
#define ERR_TOP_USAGE_ERROR_MSG "Fehler bei der Verwendung des Programms: "
#define ERR_TOP_PARSER_ERROR_MSG "Parser Error: "
#define ERR_TOP_SYS_ERROR_MSG "System Error: "
#define ERR_TOP_NO_ERROR_USER_MSG "User Message: "
#define HLP_MSG_0_MSG "%s %s: Zeigt diese hilfe an\n"
#define HLP_MSG_SEARCH_MSG "%s <PATTERN> Sucht nach dem Muster <PATTERN> im Text\n"
#define USER_MSG_FOUND "%s Das Suchmuster wurde gefunden\n"
#define USER_MSG_NOT_FOUND "%s Das Suchmuster wurde nicht gefunden\n"
#define USER_MSG_LINE "%s Zeile: %i, Spalte: %i\n"
#define PARAMETER_0_HELP_STR "--help"
#define PARAMETER_SEARCH_STR "--search"
#define MIN_ARGC 2
#define MAX_ARGC 3
#define HLP_MSG_0_INDEX 0
#define HLP_MSG_SEARCH_INDEX 1
#define HLP_MSG_MAX_INDEX 1
#define PARAMETER_0_HELP_INDEX 0
#define PARAMETER_SEARCH_INDEX 1
#define PARAMETER_MAX_INDEX 1
#define USER_MSG_FOUND_INDEX 0
#define USER_MSG_NOT_FOUND_INDEX 1
#define USER_MSG_LINE_INDEX 2
#define CODE_FOUND 1
#define CODE_NOT_FOUND 0
const char errtopmsg [][128] = {ERR_TOP_NO_ERROR_NORMAL_MSG, ERR_TOP_USAGE_ERROR_MSG , ERR_TOP_PARSER_ERROR_MSG, ERR_TOP_SYS_ERROR_MSG, ERR_TOP_NO_ERROR_USER_MSG};
const char errmsg [][256] = {ERR_PARSE_FORGOT_COMMA_IN_OR_MSG, \
ERR_PARSE_FORGOT_SQUARE_BRACKET_CLOSE_IN_OR_MSG, \
ERR_PARSE_FORGOT_ROUND_BRACKET_CLOSE_MSG, \
ERR_PROG_USAGE_WRONG_ARGS_MSG, \
ERR_SYS_NOT_ENOUGH_MEMORY_MSG };
const char helpmsg [][256] = {HLP_MSG_0_MSG, HLP_MSG_SEARCH_MSG};
const char parameterstr [][32] = {PARAMETER_0_HELP_STR, PARAMETER_SEARCH_STR};
const char usermsg [][256] = {USER_MSG_FOUND, \
USER_MSG_NOT_FOUND, \
USER_MSG_LINE};
int *state1 = NULL;
int *state2 = NULL;
int *v = NULL;
char *text;
int i = 0;
int x = 0;
int statexn = 0;
char *expr = NULL;
int initstates () {
int l;
for (l = 0; l < X; l++) {
v [l] = CONTROLSTATE;
state1 [l] = state2 [l] = 0;
}
}
void allocstates () {
int k;
if (x == 0) {
if ((void *)state2 == NULL) {
if ((state1 = (int *) malloc (sizeof (int) * X)) == NULL) {
fprintf (stderr, errmsg[ERR_SYS_NOT_ENOUGH_MEMORY_INDEX], errtopmsg [ERR_SYS]);
exit (ERR_SYS);
}
if ((state2 = (int *) malloc (sizeof (int) * X)) == NULL) {
fprintf (stderr, errmsg[ERR_SYS_NOT_ENOUGH_MEMORY_INDEX], errtopmsg [ERR_SYS]);
exit (ERR_SYS);
}
if ((v = (int *) malloc (sizeof (int) * X)) == NULL) {
fprintf (stderr, errmsg[ERR_SYS_NOT_ENOUGH_MEMORY_INDEX], errtopmsg [ERR_SYS]);
exit (ERR_SYS);
}
for (k = 0; k < X; k++)
v [k] = CONTROLSTATE;
statexn = X;
return;
}
else {
if ((state1 = (int *) realloc (state1, sizeof (int) * (X + statexn))) == NULL) {
fprintf (stderr, errmsg[ERR_SYS_NOT_ENOUGH_MEMORY_INDEX], errtopmsg [ERR_SYS]);
exit (ERR_SYS);
}
if ((state2 = (int *) realloc (state2, sizeof (int) * (X + statexn))) == NULL) {
fprintf (stderr, errmsg[ERR_SYS_NOT_ENOUGH_MEMORY_INDEX], errtopmsg [ERR_SYS]);
exit (ERR_SYS);
}
if ((v = (int *) realloc (v, sizeof (int) * (X + statexn))) == NULL) {
fprintf (stderr, errmsg[ERR_SYS_NOT_ENOUGH_MEMORY_INDEX], errtopmsg [ERR_SYS]);
exit (ERR_SYS);
}
for (k = statexn; k < (statexn + X); k++)
v [k] = CONTROLSTATE;
statexn += X;
return;
}
}
return;
}
int gettoken () {
if ((expr [i] == C_STRING_END))
return LEX_END;
else if (expr [i] == C_ROUND_BRACKET_OPEN) {
i++;
return LEX_ROUND_BRACKET_OPEN;
}
else if (expr [i] == C_ROUND_BRACKET_CLOSE) {
i++;
return LEX_ROUND_BRACKET_CLOSE;
}
else if (expr [i] == C_SQUARE_BRACKET_OPEN) {
i++;
return LEX_SQUARE_BRACKET_OPEN;
}
else if (expr [i] == C_SQUARE_BRACKET_CLOSE) {
i++;
return LEX_SQUARE_BRACKET_CLOSE;
}
else if (expr [i] == C_STAR) {
i++;
return LEX_STAR;
}
else if (expr [i] == C_COMMA) {
i++;
return LEX_COMMA;
}
else if (expr [i] == C_DOT) {
i++;
return LEX_DOT;
}
else if (expr [i] == C_SLASH) {
i++;
return LEX_SLASH;
}
else if (expr [i] == C_BACKSLASH) {
i++;
if (expr [i] == C_A) {
i++;
return LEX_A;
}
else if (expr [i] == C_B) {
i++;
return LEX_B;
}
else if (expr [i] == C_F) {
i++;
return LEX_F;
}
else if (expr [i] == C_N) {
i++;
return LEX_N;
}
else if (expr [i] == C_R) {
i++;
return LEX_R;
}
else if (expr [i] == C_T) {
i++;
return LEX_T;
}
else if (expr [i] == C_V) {
i++;
return LEX_V;
}
return expr [i++];
}
else if ((expr [i] >= ASCIIMIN) && (expr [i] <= ASCIIMAX)) {
return expr [i++];
}
}
int tokenback_rec_mask1(int);
int tokenback_rec_mask2(int);
int tokenback_rec_mask1 (int j) {
if (expr [j] == '\\')
return tokenback_rec_mask2 (j-1);
else
return 1;
}
int tokenback_rec_mask2 (int j) {
if (expr [j] == '\\')
return tokenback_rec_mask1 (j-1);
else
return 0;
}
void tokenback () {
i-=(2-tokenback_rec_mask1(i-2));
}
struct fracture {
int begin;
int mid;
int end;
int tail;
int d1_begin;
int d2_begin;
int d3_begin;
int d1_end;
int d2_end;
int d3_end;
int exists;
};
struct fracture stream ();
struct fracture followed ();
struct fracture compound ();
struct fracture or_operator ();
struct fracture repeat_operator ();
struct fracture fracinit ();
void operations ();
void debug (char fname [], struct fracture ret) {
int k;
/*
printf ("=====================================\n");
printf ("function name:\t\t%s\n", fname);
printf ("y.begin:\t\t %3i\n", ret.begin);
printf ("y.end:\t\t %3i\n", ret.end);
printf ("y.d1_begin:\t\t %3i\n", ret.d1_begin);
printf ("y.d1_end:\t\t %3i\n", ret.d1_end);
printf ("y.d2_begin:\t\t %3i\n", ret.d2_begin);
printf ("y.d2_end:\t\t %3i\n", ret.d2_end);
printf ("y.exists:\t\t %2i\n", ret.exists);
printf ("x:\t\t\t (%3i, (%i, %i))\n", x, state1 [x], state2 [x]);
printf ("=====================================\n");
for (k = 0; k <= x; k++) {
if ((v[k] >= 'a') && (v[k] <= 'z'))
printf ("(%i, (%c, %i, %i))\n", k, v[k], state1 [k], state2 [k]);
else
printf ("(%i, (%i, %i))\n", k, state1 [k], state2 [k]);
}
printf ("=====================================\n");*/
//getchar ();
}
struct fracture fracinit () {
struct fracture x;
x.begin = 0;
x.mid = 0;
x.end = 0;
x.tail = 0;
x.d1_begin = 0;
x.d1_end = 0;
x.d2_begin = 0;
x.d2_end = 0;
x.d3_begin = 0;
x.d3_end = 0;
x.exists = 0;
return x;
}
void string () {
int ch;
while (((ch = gettoken ()) != END) && ((ch >= ASCIIMIN) && (ch <= ASCIIMAX))) {
allocstates ();
state1 [x] = x+1;
state2 [x] = x+1;
v [x] = ch;
x++;
}
allocstates ();
state1 [x] = 0;
state2 [x] = 0;
v [x] = CONTROLSTATE;
allocstates ();
x++;
tokenback ();
}
void operations () {
int ch;
if ((ch = gettoken ()) == LEX_SLASH) {
if ((ch = gettoken ()) == 's') {
allocstates ();
state1 [x] = x+1;
state2 [x] = x+1;
v [x] = OPERATIONSTATESUBSTITUTE;
x++;
if ((ch = gettoken ()) != LEX_SLASH) {
fprintf (stderr, errmsg [ERR_PROG_USAGE_WRONG_ARGS_INDEX], errtopmsg [ERR_USAGE]);
exit (ERR_USAGE);
}
or_operator ();
if ((ch = gettoken ()) != LEX_SLASH) {
fprintf (stderr, errmsg [ERR_PROG_USAGE_WRONG_ARGS_INDEX], errtopmsg [ERR_USAGE]);
exit (ERR_USAGE);
}
x++;
allocstates ();
state1 [x] = x+1;
state2 [x] = x+1;
v [x] = OPERATIONSTATESUBSTITUTEWITH;
x++;
string ();
if ((ch = gettoken ()) != LEX_SLASH) {
fprintf (stderr, errmsg [ERR_PROG_USAGE_WRONG_ARGS_INDEX], errtopmsg [ERR_USAGE]);
exit (ERR_USAGE);
}
allocstates ();
state1 [x] = x+1;
state2 [x] = x+1;
v [x] = OPERATIONSTATEEND;
x++;
operations ();
}
else if (ch == 'f') {
if ((ch = gettoken ()) != LEX_SLASH) {
fprintf (stderr, errmsg [ERR_PROG_USAGE_WRONG_ARGS_INDEX], errtopmsg [ERR_USAGE]);
exit (ERR_USAGE);
}
or_operator ();
if ((ch = gettoken ()) != LEX_SLASH) {
fprintf (stderr, errmsg [ERR_PROG_USAGE_WRONG_ARGS_INDEX], errtopmsg [ERR_USAGE]);
exit (ERR_USAGE);
}
}
else {
fprintf (stderr, errmsg [ERR_PROG_USAGE_WRONG_ARGS_INDEX], errtopmsg [ERR_USAGE]);
exit (ERR_USAGE);
}
}
else if (ch != LEX_END){
fprintf (stderr, errmsg [ERR_PROG_USAGE_WRONG_ARGS_INDEX], errtopmsg [ERR_USAGE]);
exit (ERR_USAGE);
}
}
struct fracture or_operator () {
int ch;
struct fracture x1 = fracinit ();
struct fracture x2 = fracinit ();
struct fracture x3 = fracinit ();
struct fracture y = fracinit ();
if ((ch = gettoken ()) == LEX_SQUARE_BRACKET_OPEN) {
allocstates ();
y.begin = x;
x++;
x1 = or_operator ();
if ((ch = gettoken ()) != LEX_COMMA) {
fprintf (stderr, errmsg [ERR_PARSE_FORGOT_COMMA_IN_OR_INDEX], errtopmsg [ERR_PARSE]);
exit (1);
}
y.d1_begin = x1.begin;
y.d1_end = x1.end;
x2 = or_operator ();
y.d2_begin = x2.begin;
y.d2_end = x2.end;
if ((ch = gettoken ()) != LEX_SQUARE_BRACKET_CLOSE) {
fprintf (stderr, errmsg [ERR_PARSE_FORGOT_SQUARE_BRACKET_CLOSE_IN_OR_INDEX], errtopmsg [ERR_PARSE]);
exit (1);
}
allocstates ();
y.end = x;
x++;
state1 [y.begin] = x1.begin;
state2 [y.begin] = x2.begin;
state1 [x1.end] = y.end;
state2 [x1.end] = y.end;
state1 [x2.end] = y.end;
state2 [x2.end] = y.end;
x3 = or_operator ();
if (x3.begin != 0) {
allocstates ();
state1 [y.end] = x+1;
state2 [y.end] = x+1;
x++;
y.end = x;
y.tail = x3.begin;
state1 [y.end] = y.tail;
state2 [y.end] = y.tail;
}
debug ("or_operator", y);
return y;
}
else if (ch == LEX_END)
return fracinit ();
else {
tokenback ();
y = repeat_operator ();
if (y.exists != 0)
or_operator ();
debug ("or_operator", y);
return y;
}
}
struct fracture repeat_operator () {
int ch;
struct fracture y = fracinit ();
struct fracture x1 = fracinit ();
if ((ch = gettoken ()) == LEX_STAR) {
allocstates ();
x1 = compound ();
y.begin = x1.begin;
y.mid = x;
x++;
allocstates ();
y.end = x;
x++;
state1 [x1.end] = y.mid;
state2 [x1.end] = y.mid;
state1 [y.end] = y.end+1;
state2 [y.end] = y.end+1;
state1 [x1.end] = x1.end+1;
state2 [x1.end] = x1.end+1;
state1 [y.mid] = x1.begin;
state2 [y.mid] = y.end;
// Den zweiten Zustand der muss auf das naechste zeigen
stream ();
debug ("repeat_operator", y);
y.exists = 1;
return y;
}
else if (ch == LEX_END)
return fracinit ();
else {
tokenback ();
y = stream ();
debug ("repeat_operator", y);
return y;
}
}
struct fracture stream () {
struct fracture x1 = fracinit ();
struct fracture x2 = fracinit ();
struct fracture x3 = fracinit ();
struct fracture y = fracinit ();
x1 = compound ();
x2 = followed ();
//state1 [x1.end] = x2.begin;
//stream ();
if (x1.exists || x2.exists) {
or_operator ();/*
x3 = or_operator ();
if (x2.exists) {
state1 [x2.end] = x3.begin;
}
else {
state1 [x1.end] = x3.begin;
}*/
}
debug ("stream", y);
y = x2;
return y;
}
struct fracture followed () {
struct fracture x1 = fracinit ();
struct fracture y = fracinit ();
int ch = gettoken ();
if ((ch >= ASCIIMIN) && (ch <= ASCIIMAX)) {
allocstates ();
v [x] = ch;
y.begin = x;
x = x+1;
x1 = or_operator ();
if (x1.end == 0) {
y.end = y.begin;
y.exists = 1;
}
else {
y.d1_begin = x1.begin;
y.end = x1.end;
y.exists = 1;
}
state1 [y.begin] = x1.begin;
state2 [y.begin] = x1.begin;
state1 [y.end] = y.end+1;
state2 [y.end] = y.end+1;
debug ("followed", y);
return y;
}
else if (ch == LEX_END)
return fracinit ();
else {
y.exists = 0;
tokenback ();
y = fracinit ();
debug ("followed", y);
return y;
}
}
struct fracture compound () {
struct fracture x1 = fracinit ();
int ch;
if (gettoken () == LEX_ROUND_BRACKET_OPEN) {
x1 = or_operator ();
if ((ch = gettoken ()) != LEX_ROUND_BRACKET_CLOSE) {
fprintf (stderr, errmsg[ERR_PARSE_FORGOT_ROUND_BRACKET_CLOSE_INDEX], errtopmsg [ERR_PARSE], expr [i], i);
exit (1);
}
x1.exists = 1;
debug ("compound", x1);
return x1;
}
else if (ch == LEX_END)
return fracinit ();
else {
x1.exists = 0;
tokenback ();
debug ("compound", x1);
return x1;
}
}
int automat (int, int);
int to;
int outerautomat (int xtext) {
int fromto;
int xy;
for (xy = 0, fromto = 1; xtext < strlen (text); xtext += fromto) {
if (xy < x) {
while ((v [xy] == CONTROLSTATE) && (state1 [xy] == 0) && (state2 [xy] == 0))
xy++;
if (v [xy] == OPERATIONSTATESUBSTITUTE) {
xy++;
if (automat (xy, xtext) == 0) {
while (v [xy] != OPERATIONSTATEEND) xy++;
xy++;
while (v [xy] == CONTROLSTATE) xy++;
fromto = 0;
}
else {
while (v [xy] != OPERATIONSTATESUBSTITUTEWITH)
xy++;
xy++;
while ((state1 [xy] != 0) && (state2 [xy] != 0)) {
printf ("%c", v[xy]);
xy = state1 [xy];
}
xy = 0;
fromto = (to - xtext)+1;
}
}
}
else if (xy >= x) {
printf ("%c", text [xtext]);
fromto = 1;
xy = 0;
}
}
}
int automat (int xreal, int xtext) {
int exists = 0;
if ((strlen (text) <= xtext) || (state1 [xreal] == 0)) {
to = xtext;
return 1;
}
if (v [xreal] == CONTROLSTATE) {
if (state1 [xreal] == state2 [xreal])
exists = automat (state1 [xreal], xtext);
else
exists = automat (state1 [xreal], xtext) || automat (state2 [xreal], xtext);
}
else if ((v [xreal] >= ASCIIMIN) && (v [xreal] <= ASCIIMAX)) {
if (v [xreal] == text [xtext]) {
exists = 1;
}
else if (v [xreal] != text [xtext])
return 0;
if (state1 [xreal] == state2 [xreal])
exists &= automat (state1 [xreal], xtext+1);
else
exists &= (automat (state1 [xreal], xtext+1) || automat (state2 [xreal], xtext+1));
}
return exists;
}
void main (int argc, char *argv[]) {
int h;
int k, l;
int ch;
char textbuf [BUF_INPUT_SIZE];
char *p;
int t1, t2;
int line = 0;
int *lines;
int lineindicator = 0;
int columnindicator = 0;
int lineindicatorindex = 0;
if (!((argc >= MIN_ARGC) && (argc <= MAX_ARGC))) {
fprintf (stderr, errmsg [ERR_PROG_USAGE_WRONG_ARGS_INDEX], errtopmsg [ERR_USAGE]);
fprintf (stderr, helpmsg [HLP_MSG_0_INDEX], argv [0], parameterstr [PARAMETER_0_HELP_INDEX] );
exit (ERR_USAGE);
}
if (argc == 2) {
if (strcmp (argv [1], parameterstr [PARAMETER_0_HELP_INDEX]) == 0) {
fprintf (stderr, helpmsg [HLP_MSG_0_INDEX], argv [0], parameterstr [PARAMETER_0_HELP_INDEX] );
for (h = 1; h <= PARAMETER_MAX_INDEX; h++)
fprintf (stderr, helpmsg [h], parameterstr [h]);
}
}
else if (argc == 3) {
if (strcmp (argv [1], parameterstr [PARAMETER_SEARCH_INDEX]) == 0) {
if ((expr = (char *)malloc (sizeof (char) * strlen(argv [2]))) == NULL) {
fprintf (stderr, errmsg [ERR_SYS_NOT_ENOUGH_MEMORY_INDEX], errtopmsg [ERR_SYS]);
exit (ERR_SYS);
}
strcpy (expr, argv [2]);
}
}
//initstates ();
//or_operator ();
operations ();
//printf ("success\n");
if ((text = (char *)malloc (sizeof(char)*BUF_INPUT_SIZE)) == NULL) {
fprintf (stderr, errmsg [ERR_SYS_NOT_ENOUGH_MEMORY_INDEX], errtopmsg [ERR_SYS]);
exit (ERR_SYS);
}
if ((lines = (int *) malloc (sizeof (int) * BUF_INPUT_SIZE)) == NULL) {
fprintf (stderr, errmsg [ERR_SYS_NOT_ENOUGH_MEMORY_INDEX], errtopmsg [ERR_SYS]);
exit (ERR_SYS);
}
t1 = 0;
text [0] = 0;
do {
//if (fgets (textbuf, BUF_INPUT_SIZE, stdin) == NULL)
//break;
p = textbuf;
t2 = 0;
while (((ch = fgetc (stdin)) != EOF) && (t2 < BUF_INPUT_SIZE)) {
*p = ch;
if (ch == '\n') {
lines[line] = t1+t2;
line++;
}
p++;
t2++;
if (((line % BUF_INPUT_SIZE) == 0) && (line != 0)) {
if ((lines = realloc (lines, (line+BUF_INPUT_SIZE) * sizeof (int))) == NULL) {
fprintf (stderr, errmsg [ERR_SYS_NOT_ENOUGH_MEMORY_INDEX], errtopmsg [ERR_SYS]);
exit (ERR_SYS);
}
}
}
*p = 0;
t2++;
t1 = t1 + t2;
strcat (text, textbuf);
if (t2 >= BUF_INPUT_SIZE) {
if ((text = realloc (text, t1+BUF_INPUT_SIZE)) == NULL) {
fprintf (stderr, errmsg [ERR_SYS_NOT_ENOUGH_MEMORY_INDEX], errtopmsg [ERR_SYS]);
exit (ERR_SYS);
}
}
} while (strlen(textbuf) > 0);
//printf (text);
for (k = 0; k <= x; k++) {
if ((v[k] >= 'a') && (v[k] <= 'z'))
printf ("(%i, (%c, %i, %i))\n", k, v[k], state1 [k], state2 [k]);
else
printf ("(%i, (%i, %i, %i))\n", k, v[k], state1 [k], state2 [k]);
}
/*for (k = 0, lineindicator = 0, lineindicatorindex = 0; k < strlen (text); k++) {
if (k == lines[lineindicatorindex+1]) {
lineindicator = lines [lineindicatorindex];
columnindicator = 0;
lineindicatorindex++;
}
if (automat(0,k) == CODE_FOUND) {
fprintf (stdout, usermsg [USER_MSG_FOUND_INDEX], errtopmsg [ERR_NO_ERROR_USER] );
fprintf (stdout, usermsg [USER_MSG_LINE_INDEX], errtopmsg [ERR_NO_ERROR_USER], lineindicatorindex, columnindicator);
}
columnindicator++;
}*/
outerautomat (0);
exit (ERR_NO_ERR_NORMAL);
}