/*
* mount 'source_mnt' under the destination 'dest_mnt' at
* dentry 'dest_dentry'. And propagate that mount to
* all the peer and slave mounts of 'dest_mnt'.
* Link all the new mounts into a propagation tree headed at
* source_mnt. Also link all the new mounts using ->mnt_list
* headed at source_mnt's ->mnt_list
*
* @dest_mnt: destination mount.
* @dest_dentry: destination dentry.
* @source_mnt: source mount.
* @tree_list : list of heads of trees to be attached.
*/
int propagate_mnt(struct mount *dest_mnt, struct mountpoint *dest_mp,
struct mount *source_mnt, struct hlist_head *tree_list)
{
struct mount *m, *n;
int ret = 0;
/*
* we don't want to bother passing tons of arguments to
* propagate_one(); everything is serialized by namespace_sem,
* so globals will do just fine.
*/
user_ns = current->nsproxy->mnt_ns->user_ns;
last_dest = dest_mnt;
last_source = source_mnt;
mp = dest_mp;
list = tree_list;
dest_master = dest_mnt->mnt_master;
/* all peers of dest_mnt, except dest_mnt itself */
for (n = next_peer(dest_mnt); n != dest_mnt; n = next_peer(n)) {
ret = propagate_one(n);
if (ret)
goto out;
}
/* all slave groups */
for (m = next_group(dest_mnt, dest_mnt); m;
m = next_group(m, dest_mnt)) {
/* everything in that slave group */
n = m;
do {
ret = propagate_one(n);
if (ret)
goto out;
n = next_peer(n);
} while (n != m);
}
out:
read_seqlock_excl(&mount_lock);
hlist_for_each_entry(n, tree_list, mnt_hash) {
m = n->mnt_parent;
if (m->mnt_master != dest_mnt->mnt_master)
CLEAR_MNT_MARK(m->mnt_master);
}
/// Returns the next variable in a group, recursing into groups
/// as needed
AP_Param *AP_Param::next_group(uint8_t vindex, const struct GroupInfo *group_info,
bool *found_current,
uint8_t group_base,
uint8_t group_shift,
ParamToken *token,
enum ap_var_type *ptype)
{
enum ap_var_type type;
for (uint8_t i=0;
(type=(enum ap_var_type)PGM_UINT8(&group_info[i].type)) != AP_PARAM_NONE;
i++) {
#ifdef AP_NESTED_GROUPS_ENABLED
if (type == AP_PARAM_GROUP) {
// a nested group
const struct GroupInfo *ginfo = (const struct GroupInfo *)PGM_POINTER(&group_info[i].group_info);
AP_Param *ap;
ap = next_group(vindex, ginfo, found_current, GROUP_ID(group_info, group_base, i, group_shift),
group_shift + _group_level_shift, token, ptype);
if (ap != NULL) {
return ap;
}
} else
#endif // AP_NESTED_GROUPS_ENABLED
{
if (*found_current) {
// got a new one
token->key = vindex;
token->group_element = GROUP_ID(group_info, group_base, i, group_shift);
token->idx = 0;
if (ptype != NULL) {
*ptype = type;
}
return (AP_Param*)(PGM_POINTER(&_var_info[vindex].ptr) + PGM_UINT16(&group_info[i].offset));
}
if (GROUP_ID(group_info, group_base, i, group_shift) == token->group_element) {
*found_current = true;
if (type == AP_PARAM_VECTOR3F && token->idx < 3) {
// return the next element of the vector as a
// float
token->idx++;
if (ptype != NULL) {
*ptype = AP_PARAM_FLOAT;
}
uintptr_t ofs = (uintptr_t)PGM_POINTER(&_var_info[vindex].ptr) + PGM_UINT16(&group_info[i].offset);
ofs += sizeof(float)*(token->idx-1);
return (AP_Param *)ofs;
}
}
}
}
return NULL;
}
void grouped_node_base<A>::unlink_node(bucket& b, node_ptr n)
{
node_ptr next = n->next_;
node_ptr* pos = &next_group(n);
if(*pos != n) {
// The node is at the beginning of a group.
// Find the previous node pointer:
pos = &b.next_;
while(*pos != n) pos = &next_group(*pos);
// Remove from group
if(BOOST_UNORDERED_BORLAND_BOOL(next) &&
get(next).group_prev_ == n)
{
get(next).group_prev_ = get(n).group_prev_;
}
}
else if(BOOST_UNORDERED_BORLAND_BOOL(next) &&
get(next).group_prev_ == n)
{
// The deleted node is not at the end of the group, so
// change the link from the next node.
get(next).group_prev_ = get(n).group_prev_;
}
else {
// The deleted node is at the end of the group, so the
// first node in the group is pointing to it.
// Find that to change its pointer.
node_ptr x = get(n).group_prev_;
while(get(x).group_prev_ != n) {
x = get(x).group_prev_;
}
get(x).group_prev_ = get(n).group_prev_;
}
*pos = next;
}
/// Returns the next variable in _var_info, recursing into groups
/// as needed
AP_Param *AP_Param::next(ParamToken *token, enum ap_var_type *ptype)
{
uint8_t i = token->key;
bool found_current = false;
if (i >= _num_vars) {
// illegal token
return NULL;
}
enum ap_var_type type = (enum ap_var_type)PGM_UINT8(&_var_info[i].type);
// allow Vector3f to be seen as 3 variables. First as a vector,
// then as 3 separate floats
if (type == AP_PARAM_VECTOR3F && token->idx < 3) {
token->idx++;
if (ptype != NULL) {
*ptype = AP_PARAM_FLOAT;
}
return (AP_Param *)(((token->idx-1)*sizeof(float))+(uintptr_t)PGM_POINTER(&_var_info[i].ptr));
}
if (type != AP_PARAM_GROUP) {
i++;
found_current = true;
}
for (; i<_num_vars; i++) {
type = (enum ap_var_type)PGM_UINT8(&_var_info[i].type);
if (type == AP_PARAM_GROUP) {
const struct GroupInfo *group_info = (const struct GroupInfo *)PGM_POINTER(&_var_info[i].group_info);
AP_Param *ap = next_group(i, group_info, &found_current, 0, 0, token, ptype);
if (ap != NULL) {
return ap;
}
} else {
// found the next one
token->key = i;
token->group_element = 0;
token->idx = 0;
if (ptype != NULL) {
*ptype = type;
}
return (AP_Param *)(PGM_POINTER(&_var_info[i].ptr));
}
}
return NULL;
}
lzma_index_read(lzma_index *i, lzma_index_record *info)
{
if (i->current.group == NULL) {
// We are at the beginning of the Record list. Set up
// i->current point at the first Record. Return if there
// are no Records.
if (init_current(i))
return true;
} else do {
// Try to go the next Record.
if (i->current.record < i->current.group->last)
++i->current.record;
else if (i->current.group->next == NULL)
return true;
else
next_group(i);
} while (i->current.group->paddings[i->current.record]);
// We found a new Record. Set the information to *info.
set_info(i, info);
return false;
}
lzma_index_locate(lzma_index *i, lzma_index_record *info, lzma_vli target)
{
// Check if it is possible to fullfill the request.
if (target >= i->uncompressed_size)
return true;
// Now we know that we will have an answer. Initialize the current
// read position if needed.
if (i->current.group == NULL && init_current(i))
return true;
// Locate the group where the wanted Block is. First search forward.
while (i->current.uncompressed_offset <= target) {
// If the first uncompressed byte of the next group is past
// the target offset, it has to be this or an earlier group.
if (i->current.uncompressed_offset + i->current.group
->uncompressed_sums[i->current.group->last]
> target)
break;
// Go forward to the next group.
next_group(i);
}
// Then search backward.
while (i->current.uncompressed_offset > target)
previous_group(i);
// Now the target Block is somewhere in i->current.group. Offsets
// in groups are relative to the beginning of the group, thus
// we must adjust the target before starting the search loop.
assert(target >= i->current.uncompressed_offset);
target -= i->current.uncompressed_offset;
// Use binary search to locate the exact Record. It is the first
// Record whose uncompressed_sums[] value is greater than target.
// This is because we want the rightmost Record that fullfills the
// search criterion. It is possible that there are empty Blocks or
// padding, we don't want to return them.
size_t left = 0;
size_t right = i->current.group->last;
while (left < right) {
const size_t pos = left + (right - left) / 2;
if (i->current.group->uncompressed_sums[pos] <= target)
left = pos + 1;
else
right = pos;
}
i->current.record = left;
#ifndef NDEBUG
// The found Record must not be padding or have zero uncompressed size.
assert(!i->current.group->paddings[i->current.record]);
if (i->current.record == 0)
assert(i->current.group->uncompressed_sums[0] > 0);
else
assert(i->current.group->uncompressed_sums[i->current.record]
- i->current.group->uncompressed_sums[
i->current.record - 1] > 0);
#endif
set_info(i, info);
return false;
}
int main()
{
int totalTime;
totalTime = 0;
int quantum;
int op;
int cpp = 0;
pcbCtrl *ctrl;
pcbStates *states;
groupsCtrl *ctrlG;
usersCtrl *ctrlU;
ctrl = malloc(sizeof(pcbCtrl));
states = malloc(sizeof(pcbStates));
states->readys = malloc(sizeof(pcbCtrl));
states->waiting = malloc(sizeof(pcbCtrl));
states->sleeping = malloc(sizeof(pcbCtrl));
ctrlG = malloc(sizeof(groupsCtrl));
ctrlU = malloc(sizeof(usersCtrl));
printf("\n");
quantum = set_int("Quantum del programa", 1);
if(val_npos(quantum, 1) != FAIL)
{
do
{
printf("\n \t\t<< SIMULACION DE ALGORITMO DE DESPACHO RONUD-ROBIN >>\n");
print_options(0);
printf("\n>");
scanf("%i",&op);
getchar();
switch(op)
{
case 1:
printf("\n");
create_group(ctrlG);
break;
case 2:
printf("\n");
create_user(ctrlU);
break;
case 3:
printf("\n");
create_process(cpp,ctrl,states,ctrlG,ctrlU);
cpp++;
break;
case 4:
printf("\n");
state_change(ctrl,states);
break;
case 5:
printf("\n");
show_everything(ctrl,states,ctrlG,ctrlU);
break;
case 6:
printf("\n");
rr(states, ctrl, quantum, &totalTime);
break;
case 7:
printf("\n");
del_option(ctrl,states,ctrlG,ctrlU);
break;
case 8:
break;
default:
printf("Opcion invalida, vuelva a intentarlo.\n");
}
}while(op != 8);
if(ctrl->front != NULL)
{
pcb *aux = ctrl->front;
while( next_pcb(&aux,ctrl->front) != FAIL )
free(aux);
}
if(ctrlG->front != NULL)
{
groups *aux = ctrlG->front;
while( next_group(&aux,ctrlG->front) != FAIL )
free(aux);
}
if(ctrlU->front != NULL)
{
users *aux = ctrlU->front;
while( next_user(&aux,ctrlU->front) != FAIL )
free(aux);
}
free(ctrl->front);
free(ctrlG->front);
free(ctrlU->front);
free(ctrl);
free(ctrlG);
free(ctrlU);
}
return 0;
}
int main (int argc, char *argv[])
{
int status = 0;
static char eoferrmsg[] =
"Unexpected end of file in %s section of file \"%s\" (line %d)\n";
parseoptions(argc, argv);
InitTables();
InitConvert();
errno = 0;
infp = fopen(Inputfile, "r");
if(!infp) {
fprintf(stderr, "Can't open file '%s' for input (E%d: %s)\n",
Inputfile, errno, strerror(errno));
exit(-1);
}
/* Initialise group */
Group.line = 0;
/* Read DXF file and write Radiance data. */
next_group(infp, &Group);
while (!feof(infp) && strcmp(Group.value,FILEEND) != 0) {
if(Group.code == 0) {
if(strcmp(Group.value, SECTION) == 0) {
next_group(infp, &Group); /* code 2 group */
if(strcmp(Group.value,HEADER) == 0) {
if(Options.verbose > 0) {
fprintf(stderr, " Reading headers\n");
}
HeaderSection();
if(feof(infp)) {
fprintf(stderr, eoferrmsg,
"HEADER", Inputfile, Group.line);
status = -1;
}
}
else if(strcmp(Group.value,CLASSES) == 0) {
if(Options.verbose > 0) {
fprintf(stderr, " Ignoring classes\n");
}
IgnoreSection();
if(feof(infp)) {
fprintf(stderr, eoferrmsg,
"CLASSES", Inputfile, Group.line);
status = -1;
}
}
else if(strcmp(Group.value,TABLES) == 0) {
if(Options.verbose > 0) {
fprintf(stderr, " Reading tables\n");
}
TablesSection();
if(feof(infp)) {
fprintf(stderr, eoferrmsg,
"TABLES", Inputfile, Group.line);
status = -1;
}
}
else if(strcmp(Group.value,BLOCKS) == 0) {
if(Options.verbose > 0) {
fprintf(stderr, " Reading blocks\n");
}
BlocksSection();
if(feof(infp)) {
fprintf(stderr, eoferrmsg,
"BLOCKS", Inputfile, Group.line);
status = -1;
}
}
else if(strcmp(Group.value,ENTITIES) == 0) {
if(Options.geom) {
int i;
time_t ltime;
if(*Outputfile == '\0') {
outf = stdout;
} else {
errno = 0;
outf = fopen((const char*)&Outputfile, "w");
if(outf == NULL) {
fprintf(stderr,
"Can't open file '%s' for output (E%d: %s)\n",
Outputfile, errno, strerror(errno));
exit(1);
}
}
(void)time(<ime);
fprintf(outf, "## Radiance geometry file \"%s\"\n",
Outputfile[0] ? Outputfile : "<stdout>");
fprintf(outf, "## Converted by dxf2rad %s: %s##",
DXF2RAD_VER, ctime(<ime));
for(i = 0; i < argc; i ++) {
fprintf(outf, " %s", argv[i]);
}
fprintf(outf, "\n\n");
if(Options.verbose > 0) {
fprintf(stderr, " Reading entities\n");
}
EntitiesSection();
if(feof(infp)) {
fprintf(stderr, eoferrmsg,
"ENTITIES", Inputfile, Group.line);
status = -1;
}
} else {
if(Options.verbose > 0) {
fprintf(stderr, " Ignoring entities\n");
}
IgnoreSection();
if(feof(infp)) {
fprintf(stderr, eoferrmsg,
"ENTITIES", Inputfile, Group.line);
status = -1;
}
}
}
else if(strcmp(Group.value,OBJECTS) == 0) {
if(Options.verbose > 0) {
fprintf(stderr, " Ignoring objects\n");
}
IgnoreSection();
if(feof(infp)) {
fprintf(stderr, eoferrmsg,
"OBJECTS", Inputfile, Group.line);
status = -1;
}
}
}
}
next_group(infp, &Group);
}
if(outf) {
if (status == 0) {
fprintf(outf, "\n## End of Radiance geometry file \"%s\"\n\n",
Outputfile[0] ? Outputfile : "<stdout>");
}
fclose(outf);
}
fclose(infp);
return status;
}