std::size_t size_of(const Type& type,
const std::unique_ptr<TypeParser>& parser) {
return type.match<std::size_t>(
[&](const VoidType*) -> std::size_t { always_assert(false); },
[&](const FuncType*) -> std::size_t { always_assert(false); },
[&](const MemberType*) -> std::size_t { always_assert(false); },
[&](const PtrType*) { return sizeof(void*); },
[&](const RefType*) { return sizeof(void*); },
[&](const RValueRefType*) { return sizeof(void*); },
[&](const ConstType* t) { return size_of(t->modified, parser); },
[&](const VolatileType* t) { return size_of(t->modified, parser); },
[&](const RestrictType* t) { return size_of(t->modified, parser); },
[&](const ArrType* t) {
return t->count ? *t->count * size_of(t->element, parser) : 0;
},
[&](const ObjectType* t) {
always_assert(!t->incomplete);
auto const obj = parser->getObject(t->key);
return obj.size;
}
);
}
inline bool check_consistent_sizes(const char* function,
const T1& x1,
const T2& x2,
const char* name1,
const char* name2,
T_result* result,
const Policy&) {
size_t max_size = std::max(size_of(x1),
size_of(x2));
return check_consistent_size(max_size,function,x1,name1,result,Policy())
&& check_consistent_size(max_size,function,x2,name2,result,Policy());
}
int il_energy(int i, int j, int k, int l)
{
int sl, sr;
sl = size_of(i,j);
sr = size_of(k,l);
if ((sl > 2) || (sr > 2))
return((il_ent (sl + sr))
+ (il_stack (i,j,k,l))
+ (il_asym(sl,sr))); else
if ((sl == 1) && (sr == 1)) return(il11_energy(i,l+1)); else
if ((sl == 1) && (sr == 2)) return(il12_energy(i,l+1)); else
if ((sl == 2) && (sr == 1)) return(il21_energy(i,l+1)); else
if ((sl == 2) && (sr == 2)) return(il22_energy(i,l+1)); else
return 65000;
}
int pop(Queue *queue, int *val) {
if (NULL == queue) {
fprintf(stderr,
"Failed to free the Queue, illegal access to a NULL pointer\n");
return -1;
}
if (is_empty(queue)) {
printf("Failed to pop value from the Queue, the Queue is empty now\n");
return -1;
}
// write the next element to val
*val = queue->front->val;
// remove the front element from the Queue
Queue_Node *tmp_node = queue->front;
if (1 == size_of(queue)) {
queue->front = NULL;
queue->back = NULL;
} else {
queue->front = queue->front->prev;
queue->front->next = NULL;
}
(queue->size)--;
free(tmp_node);
return 0;
}
void insert(string& str, int i, int vi) {
if (i == size_of(str)) {
node[vi].end = true;
return;
}
int ci = alph.toInt(str[i]);
if (node[vi].link[ci] != -1) {
insert(str, i + 1, node[vi].link[ci]);
} else {
node.push_back(Node(alph.N));
node[vi].link[ci] = size_of(node) - 1;
insert(str, i + 1, node[vi].link[ci]);
}
}
void *pinned(const size_t elements, const af::dtype type)
{
void *ptr;
AF_THROW(af_alloc_pinned(&ptr, elements * size_of(type)));
// FIXME: Add to map
return ptr;
}
/* Parse array declarations of the form [s0][s1]..[sn], resulting in type
* [s0] [s1] .. [sn] (base).
*
* Only the first dimension s0 can be unspecified, yielding an incomplete type.
* Incomplete types are represented by having size of zero.
*/
static struct typetree *direct_declarator_array(struct typetree *base)
{
if (peek().token == '[') {
long length = 0;
consume('[');
if (peek().token != ']') {
struct var expr = constant_expression();
assert(expr.kind == IMMEDIATE);
if (!is_integer(expr.type) || expr.imm.i < 1) {
error("Array dimension must be a natural number.");
exit(1);
}
length = expr.imm.i;
}
consume(']');
base = direct_declarator_array(base);
if (!size_of(base)) {
error("Array has incomplete element type.");
exit(1);
}
base = type_init(T_ARRAY, base, length);
}
return base;
}
int
gx_begin_transparency_mask(gs_imager_state * pis, gx_device * pdev,
const gs_pdf14trans_params_t * pparams)
{
gx_transparency_mask_params_t tmp;
const int l = sizeof(pparams->Background[0]) * pparams->Background_components;
tmp.subtype = pparams->subtype;
tmp.Background_components = pparams->Background_components;
memcpy(tmp.Background, pparams->Background, l);
tmp.GrayBackground = pparams->GrayBackground;
tmp.function_is_identity = pparams->function_is_identity;
tmp.idle = pparams->idle;
tmp.replacing = pparams->replacing;
tmp.mask_id = pparams->mask_id;
memcpy(tmp.transfer_fn, pparams->transfer_fn, size_of(tmp.transfer_fn));
if_debug8('v', "[v](0x%lx)gx_begin_transparency_mask [%g %g %g %g]\n\
subtype = %d Background_components = %d %s\n",
(ulong)pis, pparams->bbox.p.x, pparams->bbox.p.y,
pparams->bbox.q.x, pparams->bbox.q.y,
(int)tmp.subtype, tmp.Background_components,
(tmp.function_is_identity ? "no TR" :
"has TR"));
if (dev_proc(pdev, begin_transparency_mask) != 0)
return (*dev_proc(pdev, begin_transparency_mask))
(pdev, &tmp, &(pparams->bbox), pis, NULL, NULL);
else
return 0;
}
void *array::pinned(size_t elements, af_dtype type)
{
void *ptr;
AF_THROW(af_alloc_pinned(&ptr, elements * size_of(type)));
// FIXME: Add to map
return ptr;
}
/*******************************Get Map Routine*************************************/
char* getMapReduceRoutine(char* pathFile) {
int mapper;
char* mapeo;
int size;
/* Get size of File */
int size_of(int fd) {
struct stat buf;
fstat(fd, &buf);
return buf.st_size;
}
mapper = open(pathFile, O_RDONLY);
size = size_of(mapper);
if ((mapeo = mmap( NULL, size, PROT_READ, MAP_SHARED, mapper, 0))
== MAP_FAILED) {
//Si no se pudo ejecutar el MMAP, imprimir el error y abortar;
fprintf(stderr,
"Error al ejecutar MMAP del archivo '%s' de tamaño: %d: %s\nfile_size",
pathFile, size, strerror(errno));
abort();
}
//Se unmapea , y se cierrra el archivo
//munmap( mapeo, size );
close(mapper);
return mapeo;
}
bool find(string& str, int i, int vi) {
if (i == size_of(str)) return node[vi].end;
int ci = alph.toInt(str[i]);
if (node[vi].link[ci] != -1) return find(str, i + 1, node[vi].link[ci]);
return false;
}
//////////////////////////////////////////////////////////////////////////////////////////
//! Path::getModulePath
//! Get absolute path of the executing module
//!
//! \return Path - New instance containing absolute path of the executing module
//!
//! \throw wtl::platform_error - Unable to query module path
//////////////////////////////////////////////////////////////////////////////////////////
static Path getModulePath()
{
typename base::array_t tmp; //!< Path storage
// Get absolute module path
if (!WinAPI<encoding>::getModuleFileName(nullptr, tmp, size_of(tmp)))
throw wtl::platform_error(HERE, "Unable to query module path");
// Return path
return tmp;
}
int in_M(double complex z){
double complex c = z;
int count = 0;
while(size_of(z) <= 2){
if(count > 200){
return 1;
}
z = map(z, c);
++count;
}
return 0;
}
int br_energy(int bl, int i, int j, int br){
int stacking, size, entropy;
if (bl < 1)
return UNDEF;
stacking = stack_dg[inp(bl)][inp(bl+1)][inp(i)][inp(br)];
size = size_of(i,j);
entropy = bl_ent(size);
if (size==1) return(stacking + entropy - termaupenalty_ar[inp(bl+1)][inp(br-2)]);
if (size>1) return(entropy + termaupenalty_ar[inp(bl)][inp(br)]);
}
bool ascp_path(const char **cmd, const char **key) {
static int idx = 0;
static const char *c[] = {
"C:\\Program Files (x86)\\Aspera\\Aspera Connect\\bin\\ascp.exe",
"C:\\Program Files (x86)\\Aspera\\Aspera Connect\\bin\\ascp.exe",
"C:\\Program Files\\Aspera\\Aspera Connect\\bin\\ascp.exe",
"C:\\Program Files\\Aspera\\Aspera Connect\\bin\\ascp.exe",
};
static const char *k[] = {
"C:\\Program Files (x86)\\Aspera\\Aspera Connect\\etc\\asperaweb_id_dsa.openssh"
,
"C:\\Program Files (x86)\\Aspera\\Aspera Connect\\etc\\asperaweb_id_dsa.putty",
"C:\\Program Files\\Aspera\\Aspera Connect\\etc\\asperaweb_id_dsa.openssh"
,
"C:\\Program Files\\Aspera\\Aspera Connect\\etc\\asperaweb_id_dsa.putty",
};
int size = size_of(c);
assert(cmd != NULL && key != NULL);
assert(size_of(c) == size_of(k));
if (idx < size) {
*cmd = c[idx];
*key = k[idx];
++idx;
return true;
}
else {
*cmd = *key = NULL;
idx = 0;
return false;
}
}
int bl_energy(int bl, int i, int j, int br){
int stacking, size, entropy;
if (br < 2 || bl < 1)
return UNDEF;
stacking = stack_dg[inp(bl)][inp(j+1)][inp(br-1)][inp(br)];
size = size_of(i,j);
entropy = bl_ent(size);
if (size==1) return(stacking + entropy - termaupenalty_ar[inp(bl+2)][inp(br-1)]);
else if (size>1) return(entropy + termaupenalty_ar[inp(bl)][inp(br)]);
else {printf("bl_energy size < 1\n"); exit(-1);}
}
PCB_p search(Priority_queue_p pq) {
if(pq != NULL && size_of(pq) != 0) {
int i = pq->topPriority;
if(i > 15 || i < 0) return NULL;
FIFO_queue_p tempList = pq->Queue_List[i];
struct node* temp = dequeue(tempList);
if(temp == NULL) return NULL;
pq->topPriority = checkTopPriority(pq);
return temp->data;
} else {
return NULL;
}
}
void symbol_table::new_func_params(const vector<func_arg>& args)
{
// add parameter as variable
int offset = 0;
for (auto arg : args)
{
symbol_entry arg_ent;
new_variable(arg.name, arg.type, arg_ent);
arg_ent->second.place("ebp");
arg_ent->second.offset(offset);
arg_ent->second.is_parameter(true);
offset += size_of(arg.type);
}
}
void consumer(struct buffer *b)
/*@ requires [_]b->m |-> ?m &*&
[_]b->v |-> ?v &*&
[_]mutex(m) &*&
inv(m) == buffer(b) &*&
[_]b->gid |-> ?gid &*&
obs(?O) &*&
tic(gid) &*&
no_cycle(v,O) == true &*&
no_cycle(m,O) == true; @*/
/*@ ensures [_]b->m |-> m &*&
[_]b->v |-> v &*&
[_]mutex(m) &*&
obs(O); @*/
{
//@ close mutex_inv(m,buffer(b));
mutex_acquire(b->m);
//@ open buffer(b)(?Wt1,?Ot1);
//@ leak [_]b->v |-> v;
while (size_of(b->q)==0)
/*@ invariant [_]b->m |-> m &*&
[_]b->v |-> v &*&
b->q |-> ?q &*&
[_]b->gid |-> gid &*&
queue(q,?s) &*&
s>=0 &*&
mutex_held(m, _, ?Wt, ?Ot) &*&
ctr(gid,?Ct) &*&
Wt(v) + Ct <= Ot(v) + s &*&
Wt(v) <= Ot(v) &*&
obs(cons(m,O)) &*&
tic(gid); @*/
{
//@ dec_ctr(gid);
//@ close buffer(b)(finc(Wt,v),Ot);
//@ close mutex_inv(m,buffer(b));
//@ close condvar_trn(v,vtrn(gid));
condvar_wait(b->v, b->m);
//@ open buffer(b)(_,_);
//@ open vtrn(gid)();
}
dequeue(b->q);
//@ dec_ctr(gid);
//@ close buffer(b)(Wt, Ot);
//@ close mutex_inv(m,buffer(b));
mutex_release(b->m);
//@ leak [_]mutex(m);
}
String get_line(){
char c;
int saida;
String string = new_string();
string = copy_string("");
saida = scanf(" %c", &c);
while (c != '\n') {
if ((saida == EOF) && (size_of(string) > 0))
return copy_string("exit");
if (saida != 0)
append(&string, c);
saida = scanf("%c", &c);
}
append(&string, '\0');
return string;
}
void generate_entry(const Object& object, std::ostream& o,
const std::unique_ptr<TypeParser>& parser) {
o << folly::format(
" {{\n"
" \"{}\",\n"
" [](const void* base, const void* internal) -> const char* {{\n"
" auto const diff = reinterpret_cast<const char*>(internal) -\n"
" reinterpret_cast<const char*>(base);\n"
" (void)diff;\n",
object.name.name
);
auto const gen_range_check = [&] (const Object::Member& member,
std::size_t base_off) {
if (!member.offset) return; // static
auto const off = base_off + *member.offset;
auto const size = size_of(member.type, parser);
auto const name = member.name.empty()
? folly::format("union@{}", off).str()
: member.name;
o << " " << folly::format(
"if ({} <= diff && diff < {}) return \"{}\";\n",
off, off + size, name
);
};
for (auto const& base : object.bases) {
if (!base.offset) continue;
auto const base_object = parser->getObject(base.type.key);
for (auto const& member : base_object.members) {
gen_range_check(member, *base.offset);
}
}
for (auto const& member : object.members) {
gen_range_check(member, 0);
}
o << " return nullptr;\n"
<< " }\n"
<< " }";
}
String parse_proc_name(String name){
int i;
int size = size_of(name);
int found = -1;
String buffer = new_string();
for(i = 0; i < size; i++){
append(&buffer, name[i]);
if(name[i] == '/'){
found = i;
dispose_string(&buffer);
buffer = new_string();
}
}
if(found == -1)
return name;
return buffer;
}
//Quebra uma String e cria um StringList, separando os comandos, do parser
StringList explode(String string, char separator){
StringList list = new_string_list();
int i;
int size = size_of(string);
String buffer = new_string();
// loop in string
for(i = 0; i <= size; i++){
if(string[i] != separator && i < size)
append(&buffer, string[i]);
else{
list_append(&list, buffer);
dispose_string(&buffer);
buffer = new_string();
}
}
dispose_string(&buffer);
return list;
}
FLOW dfs(int v, int t, FLOW f) {
if (v == t) return f;
int edge_nums = size_of(edges[v]);
for (int& i = iter[v]; i < edge_nums; ++i) {
Edge& e = edges[v][i];
if (e.cost > 0 && level[v] < level[e.to]) {
FLOW d = dfs(e.to, t, min(f, e.cost));
if (d > 0) {
e.cost -= d;
edges[e.to][e.rev].cost += d;
return d;
}
}
}
return FLOW(-1);
}
int
gx_begin_transparency_mask(gs_imager_state * pis, gx_device * pdev,
const gs_pdf14trans_params_t * pparams)
{
gx_transparency_mask_params_t tmp;
const int l = sizeof(pparams->Background[0]) * pparams->Background_components;
tmp.group_color = pparams->group_color;
tmp.subtype = pparams->subtype;
tmp.group_color_numcomps = pparams->group_color_numcomps;
tmp.Background_components = pparams->Background_components;
memcpy(tmp.Background, pparams->Background, l);
tmp.GrayBackground = pparams->GrayBackground;
tmp.function_is_identity = pparams->function_is_identity;
tmp.idle = pparams->idle;
tmp.replacing = pparams->replacing;
tmp.mask_id = pparams->mask_id;
if (tmp.group_color == ICC ) {
/* Do I need to ref count here? */
tmp.iccprofile = pparams->iccprofile;
tmp.icc_hashcode = pparams->icc_hash;
} else {
tmp.iccprofile = NULL;
tmp.icc_hashcode = 0;
}
memcpy(tmp.transfer_fn, pparams->transfer_fn, size_of(tmp.transfer_fn));
if_debug9('v', "[v](0x%lx)gx_begin_transparency_mask [%g %g %g %g]\n\
subtype = %d Background_components = %d Num_grp_clr_comp = %d %s\n",
(ulong)pis, pparams->bbox.p.x, pparams->bbox.p.y,
pparams->bbox.q.x, pparams->bbox.q.y,
(int)tmp.subtype, tmp.Background_components,
tmp.group_color_numcomps,
(tmp.function_is_identity ? "no TR" :
"has TR"));
if (dev_proc(pdev, begin_transparency_mask) != 0)
return (*dev_proc(pdev, begin_transparency_mask))
(pdev, &tmp, &(pparams->bbox), pis, NULL, NULL);
else
return 0;
}
// pos is assumed to be a global coordinate.
void set_patch( vec3i pos, volT vol )
{
STRONG_ASSERT((this->rng_).contains(pos));
// [08/15/2014]
// This condition can be relaxed.
STRONG_ASSERT(size_of(vol) == this->FoV_);
pos -= this->off_; // local coordinate
vec3i uc = pos - this->rad_; // upper corner
std::size_t ox = uc[0];
std::size_t oy = uc[1];
std::size_t oz = uc[2];
std::size_t sx = this->FoV_[0];
std::size_t sy = this->FoV_[1];
std::size_t sz = this->FoV_[2];
(*(this->vol_))[boost::indices[range(ox,ox+sx)][range(oy,oy+sy)][range(oz,oz+sz)]] =
(*vol)[boost::indices[range(0,sx)][range(0,sy)][range(0,sz)]];
}
static int
ref_param_begin_read_collection(gs_param_list * plist, gs_param_name pkey,
gs_param_dict * pvalue,
gs_param_collection_type_t coll_type)
{
iparam_list *const iplist = (iparam_list *) plist;
iparam_loc loc;
bool int_keys = coll_type != 0;
int code = ref_param_read(iplist, pkey, &loc, -1);
dict_param_list *dlist;
if (code != 0)
return code;
dlist = (dict_param_list *)
gs_alloc_bytes(plist->memory, size_of(dict_param_list),
"ref_param_begin_read_collection");
if (dlist == 0)
return_error(e_VMerror);
if (r_has_type(loc.pvalue, t_dictionary)) {
code = dict_param_list_read(dlist, loc.pvalue, NULL, false,
iplist->ref_memory);
dlist->int_keys = int_keys;
if (code >= 0)
pvalue->size = dict_length(loc.pvalue);
} else if (int_keys && r_is_array(loc.pvalue)) {
code = array_indexed_param_list_read(dlist, loc.pvalue, NULL, false,
iplist->ref_memory);
if (code >= 0)
pvalue->size = r_size(loc.pvalue);
} else
code = gs_note_error(e_typecheck);
if (code < 0) {
gs_free_object(plist->memory, dlist, "ref_param_begin_write_collection");
return iparam_note_error(loc, code);
}
pvalue->list = (gs_param_list *) dlist;
return 0;
}
static int
ref_param_begin_write_collection(gs_param_list * plist, gs_param_name pkey,
gs_param_dict * pvalue,
gs_param_collection_type_t coll_type)
{
iparam_list *const iplist = (iparam_list *) plist;
gs_ref_memory_t *imem = iplist->ref_memory;
dict_param_list *dlist = (dict_param_list *)
gs_alloc_bytes(plist->memory, size_of(dict_param_list),
"ref_param_begin_write_collection");
int code;
if (dlist == 0)
return_error(e_VMerror);
if (coll_type != gs_param_collection_array) {
ref dref;
code = dict_alloc(imem, pvalue->size, &dref);
if (code >= 0) {
code = dict_param_list_write(dlist, &dref, NULL, imem);
dlist->int_keys = coll_type == gs_param_collection_dict_int_keys;
}
} else {
ref aref;
code = gs_alloc_ref_array(imem, &aref, a_all, pvalue->size,
"ref_param_begin_write_collection");
if (code >= 0)
code = array_new_indexed_plist_write(dlist, &aref, NULL, imem);
}
if (code < 0)
gs_free_object(plist->memory, dlist, "ref_param_begin_write_collection");
else
pvalue->list = (gs_param_list *) dlist;
return code;
}
// take a tokenized expression (expr) with precalculated internal values (llp and ldp) and evaluate it
// HIHI maybe put the return value in an arg, and pass back an error flag? -- otherwise need *inf, so I can show_errors?
// -- move this back into cpp?? It's not generic enough.
int32_t calculate_expr(uint8_t *expr, uint64_t *llp, int32_t llcnt, double *ldp, int32_t ldblcnt)
{
uint8_t *s, *e, *p, *c, restart, tok, type[200];
int i;
restart = 0;
i = 200;
while (--i >= 0) type[i] = 0; // init the unused part of the array to 0
i = llcnt;
while (--i >= 0) type[i] = 1; // init all the ints to uint64_t
i = ldblcnt;
while (--i >= 0) type[199 - i] = 42; // init all the floats to long double
// HIHI! enforce that llcnt + ldblcnt < 256 - TOK_SIZEOF
s = expr;
// scan to the first ')' token, scan backwards to the first '(' token -- then evaluate that subexpression
// -- each pair of parens get deleted after their whole subexpression is done parsing
while (*s != TOK_C_PAREN && *s != TOK_ILLEGAL) ++s;
while (*s != TOK_ILLEGAL)
{
e = s;
while (*--s != TOK_O_PAREN);
// find the highest precedence operator in the expression
// no "primary" operators are allowed in the preprocessor -- scan right to left for the first active unary operator
p = e;
// + - ! ~ sizeof(cast) (casts)=masking
while (*--p != TOK_O_PAREN && restart == 0)
{
if (*p == TOK_B_NOT || *p == TOK_NOT) // in this compiler, bitwise not and boolean not are the same operator
{
tok = next_tok(p); // the next token *must* be an rvalue for the operator
// if (tok <= TOK_SIZEOF, or if the variable is a float?) show_error;
// modify the rvalue at the right end of the expression
llp[tok - TOK_SIZEOF - 1] = ~llp[tok - TOK_SIZEOF - 1];
*p = TOK_NO_OP; // now that the operator has been processed, delete it
p = e;
}
// a minus sign is a NEG unary operator if there is another operator (and not a "variable") to the left
// HIHI!! gotta handle the float case, too!
else if (*p == TOK_SUB && prev_tok(p) <= TOK_SIZEOF)
{
tok = next_tok(p); // the next token *must* be an rvalue for the operator
// if (tok <= TOK_SIZEOF) show_error;
// modify the rvalue at the right end of the expression
// check "type" to see if this tok is a float
llp[tok - TOK_SIZEOF - 1] = - (int64_t) llp[tok - TOK_SIZEOF - 1];
*p = TOK_NO_OP; // now that the operator has been processed, delete it
p = e;
}
// a plus sign is a unary operator (and a no-op) if there is another operator (and not a "variable") to the left
else if (*p == TOK_ADD && prev_tok(p) <= TOK_SIZEOF)
{
*p = TOK_NO_OP; // delete the + operator and restart the scan
p = e;
}
else if (*p >= TOK_BOOL_T && *p <= TOK_UNSGN_T)
{
// either this is an input into sizeof (as a cast), or it's a cast of the following value
// -- so (multiple) type keywords should be the only thing inside the parens
// -- because the preprocessor doesn't know about function or variable declarations
c = p - 1;
while (*c == TOK_NO_OP || (*c >= TOK_BOOL_T && *c <= TOK_UNSGN_T)) --c;
// verify the open and close parens around this (cast)
// obviously, s also points at the '(' and e points at the ')'
// HIHI!!! woops! the next tok may be a *, and not a paren! Need to scan that direction, too!
if (next_tok(p) != TOK_C_PAREN || c != s)
{
i = 0;
// show_error(0,"typecast(?) not in parens",NULL,1);
}
p = s;
while (*--p == TOK_NO_OP);
if (*p == TOK_SIZEOF) // immediately convert a sizeof(cast) into a variable (with the correct value)
{
// get the next open int variable number
type[llcnt] = 0;
i = -1;
while (type[++i] != 0);
if (i == llcnt) ++llcnt; // HIHI!! need to put a 199 limit on llcnt!
// replace the sizeof() token with the actual size, and no-op the cast
*p = i + TOK_SIZEOF + 1;
llp[i] = size_of(s + 1);
type[i] = 1;
while (*++p != TOK_C_PAREN) *p = TOK_NO_OP;
*p = TOK_NO_OP;
restart = 1;
}
else
{
// do an immediate mask and type modification of the rvalue variable
tok = next_tok(p); // get the variable index
i = size_of(s + 1) - 1; // get the byte count - 1
if (i == 3) i = 2; // convert to a mask index
if (i < 3)
llp[tok - TOK_SIZEOF - 1] &= size_mask[i];
else i = 3;
type[tok - TOK_SIZEOF - 1] = 4 - i; // convert to a type (maybe I should reverse the order of the types?? HIHI)
}
}
}
// then the multiplicative operators -- p already points to the start
while (restart == 0 && *++p != TOK_C_PAREN)
{
if (*p == TOK_MULT || *p == TOK_DIV || *p == TOK_MOD)
{
restart = 1;
binary_op(p, llp, type);
}
}
// then additiive
p = s;
while (restart == 0 && *++p != TOK_C_PAREN)
{
if (*p == TOK_ADD || *p == TOK_SUB)
{
restart = 1;
binary_op(p, llp, type);
}
}
// then shifts
p = s;
while (restart == 0 && *++p != TOK_C_PAREN)
{
if (*p == TOK_SHR || *p == TOK_SHL)
{
restart = 1;
binary_op(p, llp, type);
}
}
// then relational conditionals
p = s;
while (restart == 0 && *++p != TOK_C_PAREN)
{
if (*p == TOK_B_LT || *p == TOK_B_GT || *p == TOK_B_LE || *p == TOK_B_GE)
{
restart = 1;
binary_op(p, llp, type);
}
}
// then equality conditionals
p = s;
while (restart == 0 && *++p != TOK_C_PAREN)
{
if (*p == TOK_B_EQ || *p == TOK_B_NE)
{
restart = 1;
binary_op(p, llp, type);
}
}
// then bitwise operators -- AND &
p = s;
while (restart == 0 && *++p != TOK_C_PAREN)
{
if (*p == TOK_AND)
{
restart = 1;
binary_op(p, llp, type);
}
}
// XOR ^
p = s;
while (restart == 0 && *++p != TOK_C_PAREN)
{
if (*p == TOK_XOR)
{
restart = 1;
binary_op(p, llp, type);
}
}
// OR |
p = s;
while (restart == 0 && *++p != TOK_C_PAREN)
{
if (*p == TOK_OR)
{
restart = 1;
binary_op(p, llp, type);
}
}
// then booleans &&
p = s;
while (restart == 0 && *++p != TOK_C_PAREN)
{
if (*p == TOK_B_AND)
{
restart = 1;
binary_op(p, llp, type);
}
}
// ||
p = s;
while (restart == 0 && *++p != TOK_C_PAREN)
{
if (*p == TOK_B_OR)
{
restart = 1;
binary_op(p, llp, type);
}
}
// and last, the stupid "ternary condtional" ? evaluate right to left, p is already set properly
while (restart == 0 && *--p != TOK_O_PAREN)
{
if (*p == TOK_QMARK)
i = 8; // HIHI!!! gotta parse it and eliminate it from the expr
}
// are there any operators left between s and e? If not, destroy the parens of this fully evaluated subexpression.
p = s + 1;
while (*p > TOK_SIZEOF || *p == TOK_NO_OP) ++p;
if (*p == TOK_C_PAREN)
{
*s = TOK_NO_OP;
*p = TOK_NO_OP;
}
restart = 0;
s = expr;
while (*s != TOK_C_PAREN && *s != TOK_ILLEGAL) ++s;
}
// there must be one variable left in the expression now -- that's the return value
p = expr + 1;
while (*p < TOK_SIZEOF) ++p;
if (llp[*p - TOK_SIZEOF - 1] == 0) return 0;
return -1;
}
size_t array::bytes() const
{
dim_type nElements;
AF_THROW(af_get_elements(&nElements, arr));
return nElements * size_of(type());
}