void CPU::PrintMemory()
{
std::ofstream file;
file.open("memory.txt");
for (int i = 0; i < 0x10000; i++)
{
file << int_to_hex(i) << "\t" << int_to_hex(ReadByte(i)) << std::endl;
}
file.close();
}
void CPU::PrintRegisters()
{
std::ofstream file;
file.open("registers.txt", std::ios::app | std::ios::out);
file << "---PC:\t" << int_to_hex(PC) << std::endl;
file << "A:\t" << int_to_hex(A) << std::endl;
file << "B:\t" << int_to_hex(B) << std::endl;
file << "C:\t" << int_to_hex(C) << std::endl;
file << "D:\t" << int_to_hex(D) << std::endl;
file << "E:\t" << int_to_hex(E) << std::endl;
file << "F:\t" << int_to_hex(F) << std::endl;
file << "H:\t" << int_to_hex(H) << std::endl;
file << "L:\t" << int_to_hex(L) << std::endl;
file << "SP:\t" << int_to_hex(SP) << std::endl << std::endl << std::endl;
file.close();
}
static void hex_encode(char *hexval, const unsigned char *hashval)
{
int i;
for (i = 0; i < APR_MD5_DIGESTSIZE; i++)
{
hexval[2 * i] = int_to_hex((hashval[i] >> 4) & 0xf);
hexval[2 * i + 1] = int_to_hex(hashval[i] & 0xf);
}
}
// See ConfigDlg.h for documentation of this method.
void ConfigDlg::UpdateDataOfBootloaderConfigureArea(BOOL direction)
{
if (direction)
{
UpdateData(TRUE); // Update UI to CString m_bcaBinaries
int length = m_bcaBinaries.GetLength();
LPWSTR buffer = m_bcaBinaries.GetBuffer();
char tempHigh, tempLow;
int posBin = 0, posChar = 0;
while ((posBin < 64) && (posChar < length))
{
// Only convert legal characters.
if (isxdigit(buffer[posChar * 2]) && isxdigit(buffer[posChar * 2 + 1]))
{
tempHigh = buffer[posChar * 2] & 0xFF; // change TCHAR to char, abandon the high bits.
tempLow = buffer[posChar * 2 + 1] & 0xFF; // change TCHAR to char, abandon the high bits.
m_bcaData[posBin] = ((hex_to_int(tempHigh) & 0xFF) << 4) | (hex_to_int(tempLow) & 0xFF);
posBin++;
posChar++;
}
else
{
// Skip the illegal character pairs.
posChar++;
}
}
m_bcaBinaries.ReleaseBuffer();
}
else
{
LPTSTR buffer = m_bcaBinaries.GetBuffer(128 + 2 * 4 + 1); // 128 for 128 BCA characters
// 2 * 4 for enter characters("\r\n") each line
// 1 byte more for for terminator("\0")
int posBin = 0, posChar = 0;
for (; posBin < 64; posChar++, posBin++)
{
// 32 characters each line.
if ((!(posBin % 0x10)) && (posBin != 0))
{
// Add "\r\n" at the end of each line
buffer[posChar * 2] = '\r';
buffer[posChar * 2 + 1] = '\n';
posChar++;
}
buffer[posChar * 2] = int_to_hex(m_bcaData[posBin] >> 4);
buffer[posChar * 2 + 1] = int_to_hex(m_bcaData[posBin]);
}
buffer[posChar * 2] = '\0';
m_bcaBinaries.ReleaseBuffer();
UpdateData(FALSE); // Update CString m_bcaBinaries to UI
}
}
//@strcat:test_int_to_hex3 => [int_to_hex ne retourne pas "0" quand number=0]
void test_int_to_hex3(void)
{
unsigned int i = 0;
char* hex = malloc(sizeof(char));
if (hex == NULL) {
CU_FAIL("Erreur lors l'allocation de la mémoire pendant le test test_int_to_hex3.");
return;
}
int_to_hex(i,hex);
CU_ASSERT_STRING_EQUAL(hex,"0");
free(hex);
}
/*
* 0x00876543
*/
void
uart_print_hex(unsigned int data)
{
char num[9];
int i;
int_to_hex(data, num);
uart_putc('0');
uart_putc('x');
for (i = 0; num[i] != '\0'; ++i)
uart_putc(num[i]);
}
//@strcat:test_int_to_hex2 => [int_to_hex doit retourner la meme adresse que celle donnee a l'argument dest]
void test_int_to_hex2(void)
{
unsigned int i = 10601284;
char* hex1 = malloc(sizeof(char)*6);
if (hex1 == NULL) {
CU_FAIL("Erreur lors l'allocation de la mémoire pendant le test test_int_to_hex2.");
return;
}
char* hex2 = NULL;
hex2 = int_to_hex(i,hex1);
CU_ASSERT_PTR_EQUAL(hex1,hex2);
free(hex1);
}
/**
* Convert a string if ASCII characters HASHVAL to its hexadecimal
* representation.
*
* The returned string will be allocated in the POOL and be null-terminated.
*/
static const char *
hex_encode(const unsigned char *hashval,
apr_pool_t *pool)
{
int i;
char *hexval = apr_palloc(pool, (APR_MD5_DIGESTSIZE * 2) + 1);
for (i = 0; i < APR_MD5_DIGESTSIZE; i++) {
hexval[2 * i] = int_to_hex((hashval[i] >> 4) & 0xf);
hexval[2 * i + 1] = int_to_hex(hashval[i] & 0xf);
}
hexval[APR_MD5_DIGESTSIZE * 2] = '\0';
return hexval;
}
void pointeur(va_list ap, t_env *e)
{
long int long_int;
long_int = 0;
if (e->type == 'p')
{
long_int = va_arg(ap, unsigned long long);
e->buffer = int_to_hex(long_int, 0);
if (e->largeur == 0)
{
e->buffer = ft_str_add_before(e->buffer, ft_strlen(e->buffer) + 1, 'x');
e->buffer = ft_str_add_before(e->buffer, ft_strlen(e->buffer) + 1, '0');
}
}
/*
* For little-endin
* 0xEA000006 is store like this:
*
* high address +----+
* | EA |
* +----+
* | 00 |
* +----+
* | 00 |
* +----+
* | 06 |
* low address +----+
*
* So we get the address value EA000006, and print out: 060000EA
* This function is used for update program and check for the binary file!
*/
void
uart_print_addr_value(unsigned int data)
{
char num[9];
int_to_hex(data, num);
/* After int_to_hex(), we get num: EA000006 */
/* EA_00_00_06 -> 06_00_00_EA */
uart_putc(num[6]);
uart_putc(num[7]);
uart_putc(num[4]);
uart_putc(num[5]);
uart_putc(num[2]);
uart_putc(num[3]);
uart_putc(num[0]);
uart_putc(num[1]);
}
// Dans ce test, on va s'assurer que l'utilisateur n'accède pas à la mémoire située après la fin de la chaine de caractères
// @strcasecmp:test_int_to_hex4 => [int_to_hex accède à une adresse mémoire à droite de la zone mémoire de la chaine de caractères passée en argument.]
void test_int_to_hex4(void) {
unsigned int i = 10601281;
char* hex1;
//On cherche à allouer 2 pages de la mémoire, la première avec le droit d'écriture et de lecture
void *ptr = mmap(NULL, getpagesize()*2, PROT_READ | PROT_WRITE, MAP_PRIVATE|MAP_ANONYMOUS, -1, 0);
if (ptr == MAP_FAILED) {
CU_FAIL("La mémoire n'a pas pu être allouée pour le test test_int_to_hex6.");
return;
}
// On protège ensuite la deuxième page mémoire en enlevant les droits de lecture et écriture
mprotect(ptr+getpagesize(), getpagesize(), PROT_NONE);
// On écrit à la fin de la première page mémoire une chaine de taille 9
hex1 = (char*) ptr+getpagesize()-9;
strcpy(hex1, "00000000");
/* Si le code de l'utilisateur accède à de la mémoire située après le caractère de fin \0,
* autrement dit la mémoire protégée de la seconde page, un segfault sera envoyé.
* La mécanique utilisée ici permet d'"attraper" un segfault sans que tout le programme ne plante */
//On enregistre un signal handler. Cette fonction sera exécutée par le programme lorsque
//le code produira une segmentation fault (ce qui lance le signal SIGSEGV).
if (signal(SIGSEGV, sig_handler2) == SIG_ERR) {
CU_FAIL("Impossible d'enregistrer un signal handler.");
return;
}
//On définit ici un jump avec le label label_test_int_to_hex6 qui attend le paramètre 0 (par défaut)
if(setjmp(label_test_int_to_hex4)==0) {
CU_ASSERT_PTR_NOT_NULL(int_to_hex(i,hex1));
}
else { //On a reçu un autre paramètre que 0, autrement dit le code a exécuté sig_handler
//On a donc intercepté une segmentation fault, donc le code de l'utilisateur est fautif.
CU_ASSERT_TRUE(0);
}
//On enlève le signal handler précédemment assigné à SIGSEGV
signal(SIGSEGV, SIG_DFL);
//On libère la mémoire précédemment allouée
munmap(ptr, getpagesize()*2);
}
// Proxy <-- Client
//
// Triggered when a client sends a message.
RakNet::PluginReceiveResult
CProxy::OnReceive(RakNet::Packet* packet)
{
if (!packet)
return RakNet::RR_CONTINUE_PROCESSING;
ff::fmt(pan::debug, "({0}) Packet<{1}>", packet->systemAddress.ToString(false),
int_to_hex((int)packet->data[0]));
std::map<RakNet::SystemAddress, s_clientInfos*>::iterator it = m_mapClientAddr.find(packet->systemAddress);
if (it != m_mapClientAddr.end())
{
s_clientInfos* pInfos = (*it).second;
return pInfos->m_sendFunc(packet, pInfos);
}
return RakNet::RR_CONTINUE_PROCESSING;
}
void ColorPicker::draw()
{
Drawable::draw();
TextRendererTTF tr = text;
tr.setScreenSize(ge->getSize().x, ge->getSize().y);
glm::ivec4 col = {r->getValue(), g->getValue(), b->getValue(), a->getValue()};
std::string str = "#" + int_to_hex(((col.r & 255) << 24) | ((col.g & 255) << 16) | ((col.b & 255) << 8) | (col.a & 255));
tr.draw(str, pos.x + (width / 2) - (tr.textWidth(str) / 2), ge->getSize().y - 10 - 18, 0);
if (col != prevColor)
{
prevColor = col;
color->setColor(getColor());
}
glUseProgram(GraphicsEngine::defaultShader);
}
/*
* Set symbols of hex str to value of corresponded bytes(max 16):
*
* '******** ******** ******** ********'
*
* NOTE: Spaces between group of digits is not set by this function.
* Same for terminated null-character.
*/
static void bytes_to_hex16(char hex[35], const char* bytes, size_t len)
{
assert(len <= 16);
int i;
int addend = -1;
for(i = 0; i < len; i++)
{
if(i % 4 == 0) addend++;
hex[i * 2 + addend] = int_to_hex((bytes[i] & 0xf0) >> 4);
hex[i * 2 + addend + 1] = int_to_hex(bytes[i] & 0xf);
}
for(; i < 16; i++)
{
if(i % 4 == 0) addend++;
hex[i * 2 + addend] = ' ';
hex[i * 2 + addend + 1] = ' ';
}
}
void put_int(uint32_t num)
{
char output[11];
int_to_hex(output, num);
put_str(output);
}
int nterfacer_line_event(struct esocket *sock, char *newline) {
struct sconnect *socket = sock->tag;
char *response, *theirnonceh = NULL, *theirivh = NULL;
unsigned char theirnonce[16], theiriv[16];
int number, reason;
switch(socket->status) {
case SS_IDLE:
if(strcasecmp(newline, ANTI_FULL_VERSION)) {
nterface_log(nrl, NL_INFO, "Protocol mismatch from %s: %s", socket->permit->hostname->content, newline);
return 1;
} else {
unsigned char challenge[32];
char ivhex[16 * 2 + 1], noncehex[16 * 2 + 1];
if(!get_entropy(challenge, 32) || !get_entropy(socket->iv, 16)) {
nterface_log(nrl, NL_ERROR, "Unable to open challenge/IV entropy bin!");
return 1;
}
int_to_hex(challenge, socket->challenge, 32);
int_to_hex(socket->iv, ivhex, 16);
memcpy(socket->response, challenge_response(socket->challenge, socket->permit->password->content), sizeof(socket->response));
socket->response[sizeof(socket->response) - 1] = '\0'; /* just in case */
socket->status = SS_VERSIONED;
if(!generate_nonce(socket->ournonce, 1)) {
nterface_log(nrl, NL_ERROR, "Unable to generate nonce!");
return 1;
}
int_to_hex(socket->ournonce, noncehex, 16);
if(esocket_write_line(sock, "%s %s %s", socket->challenge, ivhex, noncehex))
return BUF_ERROR;
return 0;
}
break;
case SS_VERSIONED:
for(response=newline;*response;response++) {
if((*response == ' ') && (*(response + 1))) {
*response = '\0';
theirivh = response + 1;
break;
}
}
if(theirivh) {
for(response=theirivh;*response;response++) {
if((*response == ' ') && (*(response + 1))) {
*response = '\0';
theirnonceh = response + 1;
break;
}
}
}
if(!theirivh || (strlen(theirivh) != 32) || !hex_to_int(theirivh, theiriv, sizeof(theiriv)) ||
!theirnonceh || (strlen(theirnonceh) != 32) || !hex_to_int(theirnonceh, theirnonce, sizeof(theirnonce))) {
nterface_log(nrl, NL_INFO, "Protocol error drop: %s", socket->permit->hostname->content);
return 1;
}
if(!memcmp(socket->ournonce, theirnonce, sizeof(theirnonce))) {
nterface_log(nrl, NL_INFO, "Bad nonce drop: %s", socket->permit->hostname->content);
return 1;
}
if(!strncasecmp(newline, socket->response, sizeof(socket->response))) {
unsigned char theirkey[32], ourkey[32];
derive_key(ourkey, socket->permit->password->content, socket->challenge, socket->ournonce, theirnonce, (unsigned char *)"SERVER", 6);
derive_key(theirkey, socket->permit->password->content, socket->response, theirnonce, socket->ournonce, (unsigned char *)"CLIENT", 6);
nterface_log(nrl, NL_INFO, "Authed: %s", socket->permit->hostname->content);
socket->status = SS_AUTHENTICATED;
switch_buffer_mode(sock, ourkey, socket->iv, theirkey, theiriv);
if(esocket_write_line(sock, "Oauth"))
return BUF_ERROR;
} else {
nterface_log(nrl, NL_INFO, "Bad CR drop: %s", socket->permit->hostname->content);
return 1;
}
break;
case SS_AUTHENTICATED:
nterface_log(nrl, NL_INFO|NL_LOG_ONLY, "L(%s): %s", socket->permit->hostname->content, newline);
reason = nterfacer_new_rline(newline, sock, &number);
if(reason) {
if(reason == RE_SOCKET_ERROR)
return BUF_ERROR;
if(reason != RE_BAD_LINE) {
if(esocket_write_line(sock, "%d,E%d,%s", number, reason, request_error(reason)))
return BUF_ERROR;
return 0;
} else {
return 1;
}
}
break;
}
return 0;
}
int vprintf( const char *fmt, va_list arg )
{
int character_count = 0;
char temp_buf[64];
if ( fmt == NULL )
return -1;
while ( *fmt )
{
if ( *fmt == '@' )
{
fmt++;
// We don't handle any special formatting
switch ( *fmt )
{
case '@':
putc( '@' );
break;
case 'c':
// single charß
{
char c = (char )va_arg(arg, int);
putc(c);
}
break;
case 'd':
// Integer
{
int int_arg = va_arg( arg, int );
char *c;
int_to_str( int_arg, temp_buf );
c = temp_buf;
while ( *c )
{
putc( *c );
character_count++;
c++;
}
}
break;
case 'x':
// hex
{
unsigned int int_arg = va_arg( arg, unsigned int );
char *c;
int_to_hex( int_arg, temp_buf );
c = temp_buf;
while ( *c )
{
putc( *c );
character_count++;
c++;
}
}
break;
case 'f':
// Float
{
double float_arg = va_arg( arg, double );
char *c;
float_to_str( float_arg, temp_buf );
c = temp_buf;
while ( *c )
{
putc( *c );
character_count++;
c++;
}
}
break;
case 's':
// String
{
char *string_arg = va_arg( arg, char * );
while ( *string_arg )
{
putc( *string_arg );
character_count++;
string_arg++;
}
}
break;
case '\0':
return -1;
default:
// Unknown
return -1;
}
fmt++;
}
else
{