/*
* tick_wstat()
* Allow writing of supported stat messages
*/
void
tick_wstat(struct msg *m, struct file *f)
{
char *field, *val;
/*
* See if common handling code can do it
*/
if (do_wstat(m, NULL, ACC_CHMOD, &field, &val) == 0)
return;
/*
* Start perhaps participating in the select() protocol.
*/
if (sc_wstat(m, &f->f_selfs, field, val) == 0) {
if (f->f_selfs.sc_mask && !f->f_sentry) {
f->f_sentry = ll_insert(&selectors, f);
}
return;
}
/*
* Not a field we support
*/
msg_err(m->m_sender, EINVAL);
}
int
permitted_create( struct exp_addr *e_addr, char **permitted )
{
int idx;
char *namedup;
if (( permitted != NULL ) && (( *permitted ) != NULL )) {
/*
** Normalize the permitted group list
** normalization happens "in-place"
*/
for ( idx = 0; permitted[idx] != NULL; idx++ ) {
dn_normalize_case( permitted[idx] );
namedup = strdup( permitted[idx] );
if ( ll_insert( &e_addr->e_addr_ok, namedup, namedup,
NULL ) != 0 ) {
return( 1 );
}
}
}
return( 0 );
}
int main(void) {
LinkedList* list = ll_new(0);
for(size_t i =1;i<=5;i++)
ll_insert(list,i,i-1);
ll_print(list);
list = ll_reverse(list);
ll_print(list);
ll_free(list);
return EXIT_SUCCESS;
}
int cache_add_element(cache_t *c, struct ce_t *obj, int locked)
{
accessed_cache(c);
if(!locked) rwlock_acquire(c->rwl, RWL_WRITER);
chash_add(c->hash, obj->id, obj->key, obj);
obj->list_node = ll_insert(&c->primary_ll, obj);
c->count++;
obj->acount=1;
if(!locked) rwlock_release(c->rwl, RWL_WRITER);
return 0;
}
int main( int argc, char** argv){
int d = 0, quit = 1, commandNum, numRead;
char *input, command;
Line l = line_init(stdin);
Ll ll = ll_init();
gen_parse_args( argc, argv, &d);
while( quit){
printf("Command: ");
line_read_line( l);
input = get_line( l);
sscanf(input, " %c%n", &command, &numRead);
switch( command){
case 'q': quit = 0; break;
case 'i': if( gen_exists_num( input+numRead) ){
sscanf(input+numRead, "%d", &commandNum);
ll_insert( ll, commandNum , d);
}
else printf("Sorry, you didn't enter a number!\n");
break;
case 'd': if( gen_exists_num( input+numRead) ){
sscanf( input+numRead, "%d", &commandNum);
ll_delete( ll, commandNum, d);
}
else printf("Sorry, you didn't enter a number!\n");
break;
case 'c': if( gen_exists_num( input+numRead) ){
sscanf( input+numRead, "%d", &commandNum);
if( ll_contains( ll, commandNum, d) )
printf("LIST DOES CONTAIN %d\n", commandNum);
else printf("LIST DOES NOT CONATAIN %d\n", commandNum);
}
else printf("Sorry, you didn't enter a number!\n");
break;
case 'e': ll_empty( ll, d); break;
case 'l': ll_print( ll, d); break;
case 'r': ll_print_rev( ll, d); break;
case '?': gen_print_help(); break;
case 'h': gen_print_help(); break;
case '\n': break;
default: printf("Invalid Command\n");
}
free( input);
}
ll_free( ll, d);
line_free( l);
return 0;
}
main() {
int n = 0, i = 0, data = 0;
node *head = NULL;
printf("Enter the number of elements to insert: ");
scanf("%d", &n);
for(i = 0; i < n; i++) {
scanf("%d", &data);
ll_insert(&head, data);
}
ll_print(head);
ll_recursive_reverse(&head);
ll_print(head);
}
llist * ll_filter(llist * list, ll_filter_f * f){
llist * iter = NULL;
llist * result = NULL;
assert(f != NULL);
if (list == NULL || f == NULL)
return NULL;
for (iter = list; iter != NULL; iter = ll_next(iter))
if ((*f)(iter->val, iter->size))
result = result ? result : ll_insert(result, iter->val, iter->size);
return result;
}
void exit(int code)
{
if(!current_task || current_task->pid == 0)
panic(PANIC_NOSYNC, "kernel tried to exit");
task_t *t = (task_t *)current_task;
/* Get ready to exit */
assert(t->thread->magic == THREAD_MAGIC);
ll_insert(kill_queue, (void *)t);
raise_flag(TF_EXITING);
if(code != -9)
t->exit_reason.cause = 0;
t->exit_reason.ret = code;
t->exit_reason.pid = t->pid;
/* Clear out system resources */
free_thread_specific_directory();
/* tell our parent that we're dead */
if(t->parent)
do_send_signal(t->parent->pid, SIGCHILD, 1);
if(!sub_atomic(&t->thread->count, 1))
{
/* we're the last thread to share this data. Clean it up */
close_all_files(t);
if(t->thread->root)iput(t->thread->root);
if(t->thread->pwd) iput(t->thread->pwd);
mutex_destroy(&t->thread->files_lock);
void *addr = t->thread;
t->thread = 0;
kfree(addr);
}
/* don't do this while the state is dead, as we may step on the toes of waitpid.
* this fixes all tasks that are children of current_task, or are waiting
* on current_task. For those waiting, it signals the task. For those that
* are children, it fixes the 'parent' pointer. */
search_tqueue(primary_queue, TSEARCH_EXIT_PARENT | TSEARCH_EXIT_WAITING, 0, 0, 0, 0);
char flag_last_page_dir_task;
/* is this the last task to use this pd_info? */
flag_last_page_dir_task = (sub_atomic(&pd_cur_data->count, 1) == 0) ? 1 : 0;
if(flag_last_page_dir_task) {
/* no one else is referencing this directory. Clean it up... */
free_thread_shared_directory();
vm_unmap(PDIR_DATA);
raise_flag(TF_LAST_PDIR);
}
set_as_dead(t);
for(;;) schedule();
}
cache_t *get_empty_cache(int (*sync)(struct ce_t *), char *name)
{
cache_t *c = (void *)kmalloc(sizeof(cache_t));
c->sync = sync;
c->syncing=0;
c->dirty=0;
c->rwl = rwlock_create(0);
c->count=0;
c->slow=1000;
c->hash = chash_create(100000);
strncpy(c->name, name, 32);
ll_create(&c->dirty_ll);
ll_create(&c->primary_ll);
ll_insert(cache_list, c);
printk(0, "[cache]: Allocated new cache '%s'\n", name);
return c;
}
int ht_insert(struct hash_table *ht, void *key, void *value){
unsigned int hash;
int ret;
hash = ht->hash(key, ht->keysz) % ht->size;
if(ht->table[hash] == NULL){ /* Nothing at this index */
ht->table[hash] = ll_create(ht->keysz, ht->valsz, ht->key_compare);
if(ht->table[hash] == NULL)
return -1;
}
ret = ll_insert(ht->table[hash], key, value, 0);
if(ret)
return -1;
return 0;
}
ext2_fs_t *get_new_fsvol()
{
ext2_fs_t *fs = (ext2_fs_t *)kmalloc(sizeof(ext2_fs_t));
fs->flag=add_atomic(&fs_num, 1);
fs->sb = (ext2_superblock_t *)kmalloc(1024);
fs->block_prev_alloc=0;
fs->read_only=0;
fs->m_node = mutex_create(0, 0);
fs->m_block = mutex_create(0, 0);
mutex_create(&fs->bg_lock, 0);
mutex_create(&fs->fs_lock, 0);
mutex_create(&fs->ac_lock, 0);
char tm[32];
sprintf(tm, "ext2-%d", fs_num);
fs->cache = get_empty_cache(0, tm);
fs->llnode = ll_insert(fslist, fs);
return fs;
}
void ll_prepend(lnklist* ll, void* data)
{ ll_insert(ll, 0, data); }
int main(int argc, char *argv[]) {
char buf[1024];
char *p;
LinkedList *ll;
long i, n;
FILE *fd;
char **array;
Iterator *it;
if (argc != 2) {
fprintf(stderr, "usage: ./lltest file\n");
return -1;
}
if ((ll = ll_create()) == NULL) {
fprintf(stderr, "Error creating linked list of strings\n");
return -1;
}
if ((fd = fopen(argv[1], "r")) == NULL) {
fprintf(stderr, "Unable to open %s to read\n", argv[1]);
return -1;
}
/*
* test of add()
*/
printf("===== test of add\n");
while (fgets(buf, 1024, fd) != NULL) {
if ((p = strdup(buf)) == NULL) {
fprintf(stderr, "Error duplicating string\n");
return -1;
}
if (!ll_add(ll, p)) {
fprintf(stderr, "Error adding string to linked list\n");
return -1;
}
}
fclose(fd);
n = ll_size(ll);
/*
* test of get()
*/
printf("===== test of get\n");
for (i = 0; i < n; i++) {
if (!ll_get(ll, i, (void **)&p)) {
fprintf(stderr, "Error retrieving %ld'th element\n", i);
return -1;
}
printf("%s", p);
}
/*
* test of remove
*/
printf("===== test of remove\n");
for (i = n - 1; i >= 0; i--) {
if (!ll_remove(ll, i, (void **)&p)) {
fprintf(stderr, "Error removing string from linked list\n");
return -1;
}
free(p);
}
/*
* test of destroy with NULL userFunction
*/
printf("===== test of destroy(NULL)\n");
ll_destroy(ll, NULL);
/*
* test of insert
*/
if ((ll = ll_create()) == NULL) {
fprintf(stderr, "Error creating linked list of strings\n");
return -1;
}
fd = fopen(argv[1], "r"); /* we know we can open it */
printf("===== test of insert\n");
while (fgets(buf, 1024, fd) != NULL) {
if ((p = strdup(buf)) == NULL) {
fprintf(stderr, "Error duplicating string\n");
return -1;
}
if (!ll_insert(ll, 0, p)) {
fprintf(stderr, "Error adding string to linked list\n");
return -1;
}
}
fclose(fd);
for (i = 0; i < n; i++) {
if (!ll_get(ll, i, (void **)&p)) {
fprintf(stderr, "Error retrieving %ld'th element\n", i);
return -1;
}
printf("%s", p);
}
/*
* test of set
*/
printf("===== test of set\n");
for (i = 0; i < n; i++) {
char bf[1024], *q;
sprintf(bf, "line %ld\n", i);
if ((p = strdup(bf)) == NULL) {
fprintf(stderr, "Error duplicating string\n");
return -1;
}
if (!ll_set(ll, i, p, (void **)&q)) {
fprintf(stderr, "Error replacing %ld'th element\n", i);
return -1;
}
free(q);
}
/*
* test of toArray
*/
printf("===== test of toArray\n");
if ((array = (char **)ll_toArray(ll, &n)) == NULL) {
fprintf(stderr, "Error in invoking ll_toArray()\n");
return -1;
}
for (i = 0; i < n; i++) {
printf("%s", array[i]);
}
free(array);
/*
* test of iterator
*/
printf("===== test of iterator\n");
if ((it = ll_it_create(ll)) == NULL) {
fprintf(stderr, "Error in creating iterator\n");
return -1;
}
while (it_hasNext(it)) {
char *p;
(void) it_next(it, (void **)&p);
printf("%s", p);
}
it_destroy(it);
/*
* test of destroy with free() as userFunction
*/
printf("===== test of destroy(free)\n");
ll_destroy(ll, free);
return 0;
}
/*************************************************************************
*
*N parse_expression
*
*::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::
*
* Purpose:
*P
* This function returns a list of selection expression clause
* structures. This list forms the internal structure of the query
* expression.
*E
*::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::
*
* Parameters:
*A
* expression <input>==(char *) selection expression string.
* table <input>==(vpf_table_type) VPF table structure.
* return <output>==(linked_list_type) list of expression clauses.
*E
*::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::
*
* History:
*H
* Barry Michaels May 1991 DOS Turbo C
*E
*::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::
*
* External Variables:
*X
* None
*E
*::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::
*
* Functions Called:
*F
* char *get_token( char *expression, char *token, int *token_type,
* int *token_value) VPFQUERY.C
* void display_message( char *input) USER DEFINED
* linked_list_type ll_init() LINKLIST.C
* void ll_reset( linked_list_type list ) LINKLIST.C
* void ll_insert( void *element, unsigned size,
* position_type position ) LINKLIST.C
*E
*************************************************************************/
static linked_list_type parse_expression( char *expression, vpf_table_type table )
{
linked_list_type exprlist;
position_type pos;
expr_type expr;
int i, token_type, token_value;
char token[260];
exprlist = ll_init();
pos = exprlist;
/* Set up static globals */
nfields = table.nfields;
fieldname = (char **)memalloc( (nfields+2) * sizeof(char *) );
fieldcol = (int *)memalloc( (nfields+2) * sizeof(int) );
for (i=0;i<table.nfields;i++) {
fieldname[i] = (char *)memalloc(40*sizeof(char));
strcpy(fieldname[i], table.header[i].name);
fieldcol[i] = i;
}
/*****/
expression = get_token( expression, token, &token_type, &token_value );
while (token_type != FINISHED) {
if (token_type != FIELD) {
display_message("Expression syntax error -- Invalid field name");
ll_reset(exprlist);
exprlist = NULL;
break;
}
expr.field = token_value;
expression = get_token( expression, token, &token_type, &token_value );
if (token_type != LOP) {
display_message("Expression syntax error");
ll_reset(exprlist);
exprlist = NULL;
break;
}
expr.op = (char)token_value;
expression = get_token( expression, token, &token_type, &token_value );
if (token_type == ERROR) {
display_message("Expression syntax error");
ll_reset(exprlist);
exprlist = NULL;
break;
}
strcpy(expr.value,token);
expression = get_token( expression, token, &token_type, &token_value );
if (token_type == JOIN) {
expr.join = (char)token_value;
ll_insert( &expr, sizeof(expr), pos );
pos = pos->next;
expression = get_token( expression, token, &token_type,
&token_value );
} else if (token_type == FINISHED) {
expr.join = '\0';
ll_insert( &expr, sizeof(expr), pos );
} else {
display_message("Expression syntax error");
ll_reset(exprlist);
exprlist = NULL;
break;
}
}
for (i=0;i<nfields;i++) free(fieldname[i]);
free(fieldname);
free(fieldcol);
return exprlist;
}
/**************************************************************************
*
*N fc_row_numbers
*
*:::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::
*
* Purpose:
*P
* Given the starting row of a feature class relationship, return the
* list of row numbers of the table at the end of the feature class
* relate chain.
* If your relate goes from the feature to the primitive, this will
* return the primitive ids for the given feature row.
* If your relate goes from the primitive to the feature, this will
* return the feature ids of the given primitive row.
*
* Currently only supports relates on 'I' or 'K' fields.
*E
*:::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::
*
* History:
*H
* Barry Michaels DOS Turbo C
*E
*************************************************************************/
linked_list_type fc_row_numbers( row_type row,
fcrel_type fcrel,
long int tile,
ThematicIndex *idx )
{
row_type relrow;
long int count;
long int n, rownum, keyval;
id_triplet_type triplet_keyval;
int KEY1_, KEY_;
position_type p, prow, pkey;
vpf_relate_struct rcell;
linked_list_type rowlist, keylist, templist;
p = ll_first(fcrel.relate_list);
ll_element(p,&rcell);
KEY1_ = table_pos(rcell.key1,fcrel.table[0]);
get_table_element(0,row,fcrel.table[0],&rownum,&count);
if (KEY1_ == 0) { /* "ID" */
keyval = rownum;
} else {
switch (fcrel.table[0].header[KEY1_].type) {
case 'I':
get_table_element(KEY1_,row,fcrel.table[0],&keyval,&count);
break;
case 'K':
get_table_element(KEY1_,row,fcrel.table[0],&triplet_keyval,
&count);
keyval = triplet_keyval.exid;
if (tile != triplet_keyval.tile) {
keyval = -2;
}
break;
default:
keyval = 0;
break;
}
}
keylist = ll_init();
ll_insert(&keyval,sizeof(keyval),keylist);
n = 0;
p = ll_first(fcrel.relate_list);
for (n=1;n<(fcrel.nchain-1);n++) {
/* Relate through Join table(s) */
rowlist = ll_init();
pkey = ll_first(keylist);
while (!ll_end(pkey)) {
ll_element(pkey,&keyval);
templist = related_rows(&keyval,fcrel.table[n],rcell.key2,0,NULL);
prow = ll_first(templist);
while (!ll_end(prow)) {
ll_element(prow,&rownum);
if (!ll_locate(&rownum,rowlist))
ll_insert(&rownum,sizeof(rownum),ll_last(rowlist));
prow = ll_next(prow);
}
ll_reset(templist);
pkey = ll_next(pkey);
}
ll_reset(keylist);
p = ll_next(p);
ll_element(p,&rcell);
KEY_ = table_pos(rcell.key1,fcrel.table[n]);
keylist = ll_init();
prow = ll_first(rowlist);
while (!ll_end(prow)) {
ll_element(prow,&rownum);
relrow = get_row(rownum,fcrel.table[n]);
if (KEY_ == 0) { /* "ID" */
keyval = rownum;
} else {
switch (fcrel.table[n].header[KEY_].type) {
case 'I':
get_table_element(KEY_,relrow,fcrel.table[n],&keyval,&count);
break;
case 'K':
get_table_element(KEY_,relrow,fcrel.table[n],&triplet_keyval,
&count);
keyval = triplet_keyval.exid;
if (tile != triplet_keyval.tile) {
keyval = -2;
}
break;
default:
keyval = 0;
break;
}
}
if (keyval > 0)
ll_insert(&keyval,sizeof(keyval),ll_last(keylist));
prow = ll_next(prow);
free_row(relrow,fcrel.table[n]);
}
ll_reset(rowlist);
}
rowlist = ll_init();
p = ll_first(keylist);
while (!ll_end(p)) {
ll_element(p,&keyval);
templist = related_rows(&keyval,fcrel.table[n],rcell.key2,0,idx);
prow = ll_first(templist);
while (!ll_end(prow)) {
ll_element(prow,&rownum);
if (!ll_locate(&rownum,rowlist))
ll_insert(&rownum,sizeof(rownum),ll_last(rowlist));
prow = ll_next(prow);
}
ll_reset(templist);
p = ll_next(p);
}
ll_reset(keylist);
return rowlist;
}
/**************************************************************************
*
*N related_rows
*
*:::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::
*
* Purpose:
*P
* Return the list of related rows of table2 based upon the value of
* table 1's key.
* Supported data types - I and T<n>.
* Binary search supported only for data type I. (column must be sorted)
* Thematic index used, if present on key column.
* NOTE: A sequential search operation will search the entire
* table ...zzz...
*E
*:::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::
*
* History:
*H
* Barry Michaels DOS Turbo C
*E
*************************************************************************/
linked_list_type related_rows( void *keyval1,
vpf_table_type table2, char *key2,
int sort_flag,
ThematicIndex *idx )
{
linked_list_type rowlist;
set_type rowset;
long int rowid, i, ival, kval, n, start,end;
row_type row = 0;
int KEY2_;
char cval, *tval;
rowlist = ll_init();
if (ossim_strcasecmp(key2,"ID")==0) {
memcpy( &rowid, keyval1, sizeof(rowid) );
ll_insert(&rowid,sizeof(rowid),rowlist);
return rowlist;
}
KEY2_ = table_pos(key2,table2);
if ((table2.header[KEY2_].type != 'I')&&
(table2.header[KEY2_].type != 'T')) return rowlist;
if ((table2.header[KEY2_].type == 'I')&&
(table2.header[KEY2_].count != 1)) return rowlist;
if ((table2.header[KEY2_].type == 'T')&&(sort_flag)) sort_flag = 0;
if (idx) {
if (idx->fp) {
rowset = search_thematic_index(idx,(char *)keyval1);
start = set_min(rowset);
end = set_max(rowset);
for (i=start;i<=end;i++)
if (set_member(i,rowset)) {
ll_insert(&i,sizeof(i),ll_last(rowlist));
}
set_nuke(&rowset);
return rowlist;
}
}
if (!sort_flag) { /* Sequential search */
for (i=1;i<=table2.nrows;i++) {
row = get_row(i,table2);
if (table2.header[KEY2_].type == 'I') {
get_table_element(KEY2_,row,table2,&ival,&n);
if (memcmp(&ival,keyval1,sizeof(ival))==0)
ll_insert(&i,sizeof(i),ll_last(rowlist));
} else {
if (table2.header[KEY2_].count==1) {
get_table_element(KEY2_,row,table2,&cval,&n);
if (memcmp(&cval,keyval1,sizeof(ival))==0)
ll_insert(&i,sizeof(i),ll_last(rowlist));
} else {
tval = (char*)get_table_element(KEY2_,row,table2,NULL,&n);
if (strcmp(tval,(char *)keyval1)==0)
ll_insert(&i,sizeof(i),ll_last(rowlist));
}
}
free_row(row,table2);
}
} else { /* Binary search */
memcpy(&kval,keyval1,sizeof(kval));
rowid = vpf_binary_search( kval, KEY2_, table2 );
if (rowid > 0) {
ll_insert(&rowid,sizeof(rowid),ll_last(rowlist));
i = rowid-1L;
do {
get_row(i,table2);
get_table_element(KEY2_,row,table2,&ival,&n);
if (ival == kval)
ll_insert(&i,sizeof(i),ll_last(rowlist));
i--;
} while ((ival==kval)&&(i>0));
i = rowid+1L;
do {
get_row(i,table2);
get_table_element(KEY2_,row,table2,&ival,&n);
if (ival == kval)
ll_insert(&i,sizeof(i),ll_last(rowlist));
i++;
} while ((ival==kval)&&(i<=table2.nrows));
}
}
return rowlist;
}
/**************************************************************************
*
*N fcs_relate_list
*
*:::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::
*
* Purpose:
*P
* Read the feature class schema table and create the list of
* tables to chain through.
*E
*:::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::
*
* Parameters:
*A
* fcname <input> == (char *) feature class name.
* start_table <input> == (char *) table to start from.
* end_table <input> == (char *) table to end with.
* fcs <input> == (vpf_table_type) feature class schema table.
* fcs_relate_list <output> == (linked_list_type) list of tables to
* chain through.
*E
*:::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::
*
* History:
*H
* Barry Michaels DOS Turbo C
*E
*************************************************************************/
linked_list_type fcs_relate_list( char *fcname, char *start_table,
char *end_table, vpf_table_type fcs )
{
linked_list_type rlist;
vpf_relate_struct rstruct;
set_type fcset, set1, set2;
char tablename[255], *buf, expr[255];
row_type row;
long int rownum,n;
int TABLE1_, KEY1_, TABLE2_, KEY2_;
rlist = ll_init();
sprintf(expr,"FEATURE_CLASS = %s",fcname);
fcset = query_table(expr,fcs);
if (set_empty(fcset)) {
set_nuke(&fcset);
return rlist;
}
TABLE1_ = table_pos("TABLE1",fcs);
KEY1_ = table_pos("FOREIGN_KEY",fcs);
if (KEY1_ < 0) KEY1_ = table_pos("TABLE1_KEY",fcs);
TABLE2_ = table_pos("TABLE2",fcs);
KEY2_ = table_pos("PRIMARY_KEY",fcs);
if (KEY2_ < 0) KEY2_ = table_pos("TABLE2_KEY",fcs);
strcpy( tablename, start_table );
while (1) {
sprintf(expr,"TABLE1 = %s",tablename);
set1 = query_table(expr,fcs);
set2 = set_intersection(set1,fcset);
set_nuke(&set1);
if (set_empty(set2)) {
set_nuke(&fcset);
set_nuke(&set2);
return rlist;
}
rownum = set_min(set2);
set_nuke(&set2);
row = get_row(rownum,fcs);
buf = (char *)get_table_element(TABLE1_,row,fcs,NULL,&n);
strcpy(rstruct.table1,buf);
rightjust(rstruct.table1);
free(buf);
buf = (char *)get_table_element(KEY1_,row,fcs,NULL,&n);
strcpy(rstruct.key1,buf);
rightjust(rstruct.key1);
free(buf);
buf = (char *)get_table_element(TABLE2_,row,fcs,NULL,&n);
strcpy(rstruct.table2,buf);
rightjust(rstruct.table2);
free(buf);
buf = (char *)get_table_element(KEY2_,row,fcs,NULL,&n);
strcpy(rstruct.key2,buf);
rightjust(rstruct.key2);
free(buf);
rstruct.degree = R_ONE; /* Default */
free_row( row, fcs );
if (table_in_list(rstruct.table1, rlist)) break;
ll_insert( &rstruct, sizeof(rstruct), ll_last(rlist) );
strcpy( tablename, rstruct.table2 );
if (ossim_strcasecmp(tablename,end_table)==0) break;
}
set_nuke(&fcset);
return rlist;
}
/*
* find_buf()
* Given starting sector #, return pointer to buf
*/
struct buf *
find_buf(daddr_t d, uint nsec, int flags)
{
struct buf *b;
ASSERT_DEBUG(nsec > 0, "find_buf: zero");
ASSERT_DEBUG(nsec <= EXTSIZ, "find_buf: too big");
/*
* If we can find it, this is easy
*/
b = hash_lookup(bufpool, d);
if (b) {
return(b);
}
/*
* Get a buf struct
*/
b = malloc(sizeof(struct buf));
if (b == 0) {
return(0);
}
/*
* Make room in our buffer cache if needed
*/
while ((bufsize+nsec) > coresec) {
age_buf();
}
/*
* Get the buffer space
*/
b->b_data = malloc(stob(nsec));
if (b->b_data == 0) {
free(b);
return(0);
}
/*
* Add us to pool, and mark us very new
*/
b->b_list = ll_insert(&allbufs, b);
if (b->b_list == 0) {
free(b->b_data);
free(b);
return(0);
}
if (hash_insert(bufpool, d, b)) {
ll_delete(b->b_list);
free(b->b_data);
free(b);
return(0);
}
/*
* Fill in the rest & return
*/
init_lock(&b->b_lock);
b->b_start = d;
b->b_nsec = nsec;
b->b_locks = 0;
b->b_handles = 0;
b->b_nhandle = 0;
if (flags & ABC_FILL) {
b->b_flags = 0;
} else {
b->b_flags = B_SEC0 | B_SECS;
}
bufsize += nsec;
/*
* If ABC_BG, initiate fill now
*/
if (flags & ABC_BG) {
qio(b, Q_FILLBUF);
}
return(b);
}
int main(int argc, char** argv) {
llist *l = malloc(sizeof(llist));
const int reference[11] = {20, 19, 18, 14, 12, 10, 8, 6, 4, 2, -1};
const int size = sizeof(reference) / sizeof(int);
int error = 1;
// Add numbers 20, 18, 16, 14, ... 2, 0 to the list.
{
int i;
for (i = 20; i >= 0; i -= 2) {
ll_push(l, i);
}
}
if (ll_size(l) != 11) {
return error;
}
ll_print(l);
error++;
ll_pop(l);
ll_push(l, -1);
ll_insert(l, 1, 19);
ll_remove(l, 3);
printf("Phase 2 complete (pop, push, insert, remove).\n");
// Check first and last index.
if (l -> first -> value != reference[0]) {
return error;
}
printf("Phase 3A complete (check first value).\n");
error++;
if (l -> last -> value != reference[size - 1]) {
return error;
}
printf("Phase 3B complete (check last value).\n");
error++;
// Check by traversing.
{
node *n = l -> first;
int index = 0;
while (n != NULL) {
if (n -> value == reference[index++]) {
n = n -> next;
} else {
return error;
}
}
}
printf("Phase 4A complete (traverse forward).\n");
error++;
// Check by backward traversing.
{
node *n = l -> last;
int index = size - 1;
while (n != NULL) {
if (n -> value == reference[index--]) {
n = n -> prev;
} else {
return error;
}
}
}
printf("Phase 4B complete (traverse backward).\n");
error++;
// Check by indexing.
{
int i;
for (i = 0; i < ll_size(l); i++) {
if (reference[i] != ll_get(l, i)) {
return error;
}
}
}
printf("Phase 5 complete (iterate).\n");
error++;
printf("Completed without error.\n");
return 0;
}
llist * ll_append(llist * list, const void * val, size_t size){
return ll_insert(ll_tail(list), val, size);
}
/* Add and remove items from the list of dirty items */
void add_dlist(cache_t *c, struct ce_t *e)
{
e->dirty_node = ll_insert(&c->dirty_ll, e);
}
