static GEN
addsr_sign(long x, GEN y, long sy)
{
long e, l, ly, sx;
GEN z;
if (!x) return rcopy_sign(y, sy);
if (x < 0) { sx = -1; x = -x; } else sx = 1;
e = expo(y) - expu(x);
if (!sy)
{
if (e >= 0) return rcopy_sign(y, sy);
if (sx == -1) x = -x;
return stor(x, nbits2prec(-e));
}
ly = lg(y);
if (e > 0)
{
l = ly - divsBIL(e);
if (l < 3) return rcopy_sign(y, sy);
}
else l = ly + nbits2extraprec(-e);
z = (GEN)avma;
y = addrr_sign(stor(x,l), sx, y, sy);
ly = lg(y); while (ly--) *--z = y[ly];
avma = (pari_sp)z; return z;
}
int main( int argc, char ** argv )
{
cgiScript script( "text/html", false );
Store_Form stor(script);
Store_List mylist(script); // so you can set cookies
if( oLogin.testLoginStatus() )
{
script.closeHeader();
cgiTemplates pgTemplate;
pgTemplate.load("Templates/adminPane.htmp");
script << pgTemplate.getParagraph("top");
stor.loadControlTemplates("Templates/form.htmp");
stor.form_action();
stor.form_display();
mylist.loadListTemplates("Templates/list.htmp");
mylist.list_display();
script << pgTemplate.getParagraph("bottom");
}
else
{
script.Redirect("signIn.html");
}
};
// You declared this function in the extern "C" block of the header.
// R will call this function to drive the processing of the Tree/Chain.
// Except for the name of your class (in this case met), your
// function should look identical to the below...
SEXP metToR(SEXP manager, SEXP nEntriesR, SEXP firstEntryR,
SEXP initialSizeR, SEXP growthFactorR, SEXP argsR)
{
try {
// Pull out the arguments
Long64_t nEntries = INTEGER(nEntriesR)[0];
Long64_t firstEntry = INTEGER(firstEntryR)[0];
int initialSize = INTEGER(initialSizeR)[0];
double growthFactor = REAL(growthFactorR)[0];
// Get the Root chain manager
checkForRootChainManagerPtr(manager);
RootChainManager* rcm = (RootChainManager*) R_ExternalPtrAddr(manager);
bool verbose = rcm->getVerbose();
// Get the chain we wish to deal with
TChain* tree = rcm->tree();
// Create the TSelector (replace Met with your class name)
Met stor(initialSize, growthFactor, verbose, tree->GetTreeOffset() );
// Process it!
tree->Process(&stor, "", nEntries, firstEntry);
// Return the data frame
return stor.rDataFrame();
}
catch ( RDataFrameException e ) {
error(e.what().c_str());
return 0;
}
}
void
dsi_recv(globus_gfs_operation_t Operation,
globus_gfs_transfer_info_t * TransferInfo,
void * UserArg)
{
stor(UserArg, Operation, TransferInfo);
}
void init(int tamMemoria) {
iniciaMemoria(tamMemoria);
int i;
for (i = 0; i < tamMemoria; i++) {
stor(i,0);
}
ula.AC = 0;
ula.MBR = 0;
ula.MQ = 0;
uc.PC = 0;
uc.MAR = 0;
uc.IR = 0;
uc.IBR = 0;
uc.CIRCUITOCONTROLE.instrucaoEsquerdaRequirida = 1;
uc.CIRCUITOCONTROLE.erro = 0;
uc.CIRCUITOCONTROLE.proximaIBR = 0;
}
/* return a bound for T_2(P), P | polbase
* max |b_i|^2 <= 3^{3/2 + d} / (4 \pi d) [P]_2,
* where [P]_2 is Bombieri's 2-norm
* Sum over conjugates
*/
static GEN
nf_Beauzamy_bound(GEN nf, GEN polbase)
{
GEN lt,C,run,s, G = gmael(nf,5,2), POL, bin;
long i,prec,precnf, d = degpol(polbase), n = degpol(nf[1]);
precnf = gprecision(G);
prec = MEDDEFAULTPREC;
bin = vecbinome(d);
POL = polbase + 2;
/* compute [POL]_2 */
for (;;)
{
run= real_1(prec);
s = real_0(prec);
for (i=0; i<=d; i++)
{
GEN p1 = gnorml2(arch_for_T2(G, gmul(run, gel(POL,i)))); /* T2(POL[i]) */
if (!signe(p1)) continue;
if (lg(p1) == 3) break;
/* s += T2(POL[i]) / binomial(d,i) */
s = addrr(s, gdiv(p1, gel(bin,i+1)));
}
if (i > d) break;
prec = (prec<<1)-2;
if (prec > precnf)
{
nffp_t F; remake_GM(nf, &F, prec); G = F.G;
if (DEBUGLEVEL>1) pari_warn(warnprec, "nf_factor_bound", prec);
}
}
lt = leading_term(polbase);
s = gmul(s, mulis(sqri(lt), n));
C = powrshalf(stor(3,DEFAULTPREC), 3 + 2*d); /* 3^{3/2 + d} */
return gdiv(gmul(C, s), gmulsg(d, mppi(DEFAULTPREC)));
}
void converteGrava(char * hexadecimal, int j) {
int i;
int numero;
long int decimal = 0;
long int expoente = 1;
for (i = strlen(hexadecimal) - 1; i >= 0; i--) {
switch (hexadecimal[i]) {
case 10: //quando tem um \n
continue;
case '0' ... '9':
numero = hexadecimal[i] - 48;
break;
case 'A':
numero = 10;
break;
case 'B':
numero = 11;
break;
case 'C':
numero = 12;
break;
case 'D':
numero = 13;
break;
case 'E':
numero = 14;
break;
case 'F':
numero = 15;
break;
}
decimal += numero*expoente;
expoente *= 16;
}
ula.MBR = decimal;
stor(j);
}
/**
* @brief conf_get_rules read rules from conf
*
* @param acc_str rules string
*
* @return zimg conf
*/
zimg_access_conf_t * conf_get_rules(const char *acc_str)
{
if(acc_str == NULL)
return NULL;
zimg_access_conf_t *acconf = (zimg_access_conf_t *)malloc(sizeof(zimg_access_conf_t));
if(acconf == NULL)
return NULL;
acconf->n = 0;
acconf->rules = NULL;
size_t acc_len = strlen(acc_str);
char *acc = (char *)malloc(acc_len);
if(acc == NULL)
{
return NULL;
}
strncpy(acc, acc_str, acc_len);
char *start = acc, *end;
while(start <= acc+acc_len)
{
end = strchr(start, ';');
end = (end) ? end : acc+acc_len;
char *mode = start;
char *range = strchr(mode, ' ');
if (range)
{
zimg_rule_t *this_rule = (zimg_rule_t *)malloc(sizeof(zimg_rule_t));
if (this_rule == NULL) {
start = end + 1;
continue;
}
(void) memset(this_rule, 0, sizeof(zimg_rule_t));
this_rule->deny = (mode[0] == 'd') ? 1 : 0;
size_t range_len;
range++;
range_len = end - range;
uint all = (range_len == 3 && strstr(range, "all") == range);
if (!all) {
int rc;
rc = stor((unsigned char *)range, range_len, this_rule);
if (rc == ZIMG_ERROR) {
start = end + 1;
continue;
}
}
zimg_rules_t *rules = (zimg_rules_t *)malloc(sizeof(zimg_rules_t));
if (rules == NULL) {
start = end + 1;
continue;
}
rules->value= this_rule;
rules->next = acconf->rules;
acconf->rules = rules;
acconf->n++;
}
start = end + 1;
}
free(acc);
return acconf;
}
void exec_comm(int cl){
int size,j=0,i=0, port;
char buff[1024], *param,*command, *param1,*filename;
char commands[100],buff2[200],dir[200];
fd_set fds;
memset(buff, '\0', 1024);
if((recv(clients[cl]->sock, buff, sizeof(buff), 0))<0){
perror("error in Receiving");
exit(1);
}
printf("%s\n",buff);
command = strtok (buff," ");
//buff[size-2]=0; // -'\r' et -'\n'
/*while(buff[j]){
param[i]=buff[j+1];
i++;j++;
}*/
//param = strchr(buff," "); // param <- commande
param = strtok (NULL, " ");
for (j = 0; j < strlen(command); j++)
command[j]=toupper(command[j]);
printf("%s\n",command);
printf("%s\n",param);
for (j = 0; j < 8; j++)
if (!strcmp(command,commandes[j])) break;
switch(j){
case QUIT: if (clients[cl]->pid) kill(clients[cl]->pid,SIGTERM);
clients[cl]->pid=0;
close(clients[cl]->sock);
clients[cl]->sock=0;
clients[cl]->dataport=0;
nb_users--;
printf("%s\n", commandes[j]);
break;
case PORT: port = atoi(param);
clients[cl]->dataport = port;
printf("%s %s\n", commandes[j], param);
send(clients[cl]->sock, ok, strlen(ok)+1, 0);
break;
case CWD: strcpy(tmp,clients[cl]->curdir);
strcat(tmp,"/");
strcat(tmp,param);
if(chdir(tmp)<0){
perror("error");
memset(msz,'\0',sizeof(msz));
sprintf(msz,"%s","No Such Directory");
send(clients[cl]->sock, msz, strlen(msz)+1, 0);
}
else{
memset(clients[cl]->curdir, '\0', (strlen(clients[cl]->curdir)+1));
strcpy(clients[cl]->curdir,tmp);
memset(msz,'\0',sizeof(msz));
sprintf(msz,"%s","Directory Changed");
send(clients[cl]->sock, msz, strlen(msz)+1, 0);
printf("%s %s\n", commandes[j],clients[cl]->curdir);
}
prompt();
break;
case RGET: //param1 = strtok(param,"-");
//filename = strtok(NULL,"-");
//port = atoi(param1);
//clients[cl]->dataport = port;
//send(clients[cl]->sock, ok, strlen(ok)+1, 0);
// printf("%s %s\n", commandes[j], filename);
strcat(commands,"ls -R ");
system("ls");
strcat(commands,param);
printf("%s",param);
system(commands);
FILE *fd = popen(commands,"r");
while(fgets(buff, sizeof(buff), fd)!=NULL){
if(buff[(strlen(buff)-1)]==':'){
//strcpy(dir,buff);
//printf("%s",dir);
memcpy(dir,buff,strlen(buff)-2);
if(send(clients[cl]->sock,buff, strlen(buff), 0)<0)
perror("Send");
}
else{
strcat(dir,"param/");
strcat(dir,buff);
strcpy(buff,dir);
if(send(clients[cl]->sock,buff, strlen(buff), 0)<0)
perror("Send");
}
}
//rget(cl,param);
break;
case MGET:
strcat(commands,"ls ");
//system("ls");
strcat(commands,param);
printf("%s",param);
//system(commands);
fd = popen(commands,"r");
while(fgets(buff, sizeof(buff), fd)!=NULL){
printf("\n%s",buff);
if(send(clients[cl]->sock,buff, strlen(buff), 0)<0)
perror("Send");
}
//rget(cl,param);
break;
// Since the list of files can be a considerable size, it is better to create a child
// Which will deal with the client
case LIST: port = atoi(param);
printf("%d",port);
clients[cl]->dataport = port;
if( (clients[cl]->pid = fork()) == 0 ){
send(clients[cl]->sock, ok, strlen(ok)+1, 0);
my_list(cl);
}
//send(clients[cl]->sock, ok, strlen(ok)+1, 0);
printf("%s %s\n", commandes[j], clients[cl]->curdir);
break;
// Because a file can be of great size, it is better to create a child Which will deal with the sending to the client
case RETR: param1 = strtok(param,"-");
filename = strtok(NULL,"-");
port = atoi(param1);
clients[cl]->dataport = port;
if( (clients[cl]->pid = fork()) == 0 ) {
send(clients[cl]->sock, ok, strlen(ok)+1, 0);
retr(cl, filename);
}
printf("%s %s\n", commandes[j], param);
break;
// Because a file can be of great size, it is better to create a child Which will deal with the recovery from the client
case STOR: param1 = strtok(param,"-");
filename = strtok(NULL,"-");
port = atoi(param1);
clients[cl]->dataport = port;
if( (clients[cl]->pid = fork()) == 0 ){
if(send(clients[cl]->sock, ok, strlen(ok)+1, 0)<0)
perror("send");
stor(cl, filename);
}
printf("%s %s\n", commandes[j], param);
break;
// Because a file can be of great size, it is better to create a child Which will deal with the removal
//By default, we consider that if a client sends commands incomprehensible, it must be disconnected
default: if (clients[cl]->pid) kill(clients[cl]->pid,SIGTERM);
if (clients[cl]->pid) kill(clients[cl]->pid,SIGTERM);
clients[cl]->pid=0;
close(clients[cl]->sock);
clients[cl]->sock = 0;
clients[cl]->dataport = 0;
nb_users--;
printf("Client %d Disocnnected\n",cl);
break;
prompt();
}
}
int main()
{
//allocate memory for registers and program data
byte reg[16];
byte mem[4096];
//unsigned int offset = (unsigned int)mem - 0x200;
word I = 0x200;
int i;
//printf("Hello World!\n");
//printf("Char size: %u\n",CHAR_BIT);
//printf("Char min: %u\n",CHAR_MIN);
//printf("Char max: %u\n",UCHAR_MAX);
//printf("mem start: %p\n",mem);
//printf("mem + 1: %p\n",mem+1);
//fill registers to make the string "Hello World",
//print it with printf, save it to memory, then
//load it again
seti(reg+0x0,0x48);
seti(reg+0x1,0x65);
seti(reg+0x2,0x6C);
seti(reg+0x3,0x6C);
seti(reg+0x4,0x6F);
seti(reg+0x5,0x20);
seti(reg+0x6,0x57);
seti(reg+0x7,0x6F);
seti(reg+0x8,0x72);
seti(reg+0x9,0x6C);
seti(reg+0xA,0x64);
seti(reg+0xB,0x0);
//print string
printf("%s\n",reg);
printf("Register contents after setting\n");
printregs(stdout,reg);
printf("Memory contents before doing anythong\n");
printmem(stdout,mem,0x200,0x20F);
//printf("Store register contents in memory");
stor(reg,0xB,mem,&I);
//printmem(stdout,mem,0x200,0x20F);
//zero all the registers
memset(reg,0,REG_COUNT);
printf("Memory after saving\n");
printmem(stdout,mem,0x200,0x20F);
printf("Read memory as a string, line below should read \"Hello World\"\n");
printf("%s\n",mem+0x200);
printf("Registers should all be 0\n");
printregs(stdout,reg);
printf("Registers should now hold just the 2nd word\n");
I = 0x206;
load(reg,0x5,mem,&I); //should load "World"
printregs(stdout,reg);
printf("%s\n",reg);
//test the other opcodes
printf("Clear registers\n");
memset(reg,0,REG_COUNT);
printregs(stdout,reg);
seti(reg+0x0,0x1);
printf("set V0 to 1\n");
printregs(stdout,reg);
set(reg+0x1,reg+0x0);
printf("Set V1 to V0 (1)\n");
printregs(stdout,reg);
addi(reg+0x0,0x2);
printf("Added 2 to V0,should now be 3\n");
printregs(stdout,reg);
add(reg+0x0,reg+0x1,reg+0xF);
printf("Add V0 and V1, store answer in V0\n");
printregs(stdout,reg);
addi(reg+0x2,0xFF);
add(reg+0x0,reg+0x2,reg+0xF);
printf("Testing carry flag, add 255 to V2 and add V2 to V0 (sets CF)\n");
printregs(stdout,reg);
subyx(reg+0x0,reg+0x2,reg+0xF);
printf("V0 - V2, V0 should be 0xFC, VF = 0\n");
printregs(stdout,reg);
subxy(reg+0x1,reg+0x2,reg+0xF);
printf("V2 (0xFF) - V1 (0x1) -> V1 (0xFE),VF = 1\n");
printregs(stdout,reg);
}
void decodificaExecuta() {
switch (uc.IR) {
case 0xA: //load mq
ula.AC = ula.MQ;
break;
case 0x9: //load mq,m(x)
buscaOperandos();
ula.MQ = ula.MBR;
break;
case 0x21: //stor m(x)
ula.MBR = ula.AC;
stor(uc.MAR);
break;
case 0x1: //load m(x)
buscaOperandos();
ula.AC = ula.MBR;
break;
case 0x2: //load -m(x)
buscaOperandos();
ula.AC = ula.MBR;
ula.AC ^= 0x8000000000;
break;
case 0x3: //load |m(x)|
buscaOperandos();
ula.AC = ula.MBR;
ula.AC &= 0x7FFFFFFFFF;
break;
case 0x4: //load -|m(x)|
buscaOperandos();
ula.AC = ula.MBR;
ula.AC &= 0x7FFFFFFFFF;
ula.AC ^= 0x8000000000;
break;
case 0xD: //jump m(x,0:19)
uc.PC = uc.MAR;
uc.CIRCUITOCONTROLE.proximaIBR = 0;
break;
case 0xE: //jump m(x,20:39)
uc.PC = uc.MAR;
uc.CIRCUITOCONTROLE.proximaIBR = 0;
uc.CIRCUITOCONTROLE.instrucaoEsquerdaRequirida = 0;
break;
case 0xF: //jump+ m(x,0:19)
if (ula.AC <= 0x7FFFFFFFFF){
uc.PC = uc.MAR;
uc.CIRCUITOCONTROLE.proximaIBR = 0;
}
break;
case 0x10: //jump + m(x,20:39)
if (ula.AC <= 0x7FFFFFFFFF){
uc.PC = uc.MAR;
uc.CIRCUITOCONTROLE.proximaIBR = 0;
uc.CIRCUITOCONTROLE.instrucaoEsquerdaRequirida = 0;
}
break;
case 0x5: //add m(x)
buscaOperandos();
circuitoLogicoAritmetico();
break;
case 0x6: //sub m(x)
buscaOperandos();
circuitoLogicoAritmetico();
break;
case 0x7: //add |m(x)|
buscaOperandos();
circuitoLogicoAritmetico();
break;
case 0x8: //sub |m(x)|
buscaOperandos();
circuitoLogicoAritmetico();
break;
case 0xB: //mul m(x)
buscaOperandos();
circuitoLogicoAritmetico();
break;
case 0xC: //div m(x)
buscaOperandos();
circuitoLogicoAritmetico();
break;
case 0x14: //lsh
circuitoLogicoAritmetico();
break;
case 0x15: //rsh
circuitoLogicoAritmetico();
break;
case 0x12: //stor m(x,8:19)
ula.MBR = ula.AC;
storEndereco(uc.MAR,1);
break;
case 0x13: //stor m(x,28:39)
ula.MBR = ula.AC;
storEndereco(uc.MAR,0);
break;
case 0x0: //exit
uc.PC = -1;
}
}