C++ dump_hex函数代码示例

static void
lan_send(lan_data_t *lan,
	 struct iovec *data, int vecs,
	 void *addr, int addr_len)
{
    struct msghdr msg;
    lan_addr_t    *l = addr;
    int           rv;

    if (debug) {
	int left, i;
	lanserv_log(DEBUG, NULL, "Sending message to:\n  ");
	dump_hex(&l->addr, l->addr_len, 16);
	lanserv_log(DEBUG, NULL, "\nMsg:\n  ");
	left = 16;
	for (i=0; i<vecs; i++) {
	    left = dump_hex(data[i].iov_base, data[i].iov_len, left);
	}
	lanserv_log(DEBUG, NULL, "\n");
    }

    msg.msg_name = &(l->addr);
    msg.msg_namelen = l->addr_len;
    msg.msg_iov = data;
    msg.msg_iovlen = vecs;
    msg.msg_control = NULL;
    msg.msg_controllen = 0;
    msg.msg_flags = 0;

    rv = sendmsg(l->xmit_fd, &msg, 0);
    if (rv) {
	/* FIXME - log an error. */
    }
}

void diff_records( token_mod_link** differences,
                   tglobal* global_original, tglobal* global_updated,
                   tfixed* fixed_original, tfixed* fixed_updated,
                   tlog* log_original, tlog* log_updated,
                   bool print_diff_info ) {

    token_mod_link* diff_pair = NULL;

    /* We may want to print the timestamps of the records
     * being compared in order to differentiate them, in fact
     * this is an essential part of the process...
     */

    while( diff_pair = pop_tm_link( differences ) ) {
        printf( "Difference found on token [%d]\n",
                diff_pair->original ?
                (unsigned short)diff_pair->original->token :
                diff_pair->modified ?
                (unsigned short)diff_pair->modified->token :
                (unsigned short)-1 );
        printf( "Original:\n" );
        if ( diff_pair->original ) {
            dump_hex( diff_pair->original->buffer,
                      diff_pair->original->length,
                      (size_t)DUMP_BYTES, 
                      (size_t)16 );
        } else {
            printf( "NULL\n" ); 
        }
        printf( "Modified:\n" );
        if ( diff_pair->modified ) {
            dump_hex( diff_pair->modified->buffer,
                      diff_pair->modified->length,
                      (size_t)DUMP_BYTES, 
                      (size_t)16 );
        } else {
            printf( "NULL\n" ); 
        }
    }

    printf( "Global configuration modifications:\n" );
    if ( !diff_global( global_original, global_updated, print_diff_info ) ) {
        printf( "  None.\n" );
    }

    printf( "Fixed configuration modifications:\n" );
    if ( !diff_fixed( fixed_original, fixed_updated, print_diff_info ) ) {
        printf( "  None.\n" );
    }

    printf( "Log configuration modifications:\n" );
    if ( !diff_log( log_original, log_updated, print_diff_info ) ) {
        printf( "  None.\n" );
    }
}

int main(void)
{
	uint8_t ct1[32], pt1[32], pt2[32], key[64];
	int klen, plen, clen, i, j;
	serpent_key_t skey;
	serpent_blk ct2;
	uint32_t *p;

	printf("\nserpent-256 test\n");

	for (i = 0; i<sizeof(keys) / sizeof(char*); i++) {
		clen = hex2bin(ct1, cipher[i]);
		plen = hex2bin(pt1, plain[i]);
		klen = hex2bin(key, keys[i]);

		/* set key */
		memset(&skey, 0, sizeof(skey));
		p = (uint32_t*)&skey.x[0][0];

		serpent_set_encrypt_key(&skey, key);
		printf("\nkey=");

		for (j = 0; j<sizeof(skey) / sizeof(serpent_subkey_t) * 4; j++) {
			if ((j % 8) == 0) 
				putchar('\n');
			printf("%08X ", p[j]);
		}

		/* encrypt */
		memcpy(ct2.b, pt1, SERPENT_BLOCK_SIZE);

		printf("\n\n");
		dump_hex("plaintext", ct2.b, 16);

		serpent_encrypt(pt1,ct2.b, &skey);

		dump_hex("ciphertext", ct2.b, 16);

		if (memcmp(ct1, ct2.b, clen) == 0) {
			printf("\nEncryption OK");
			serpent_decrypt(ct2.b,pt1, &skey);
			if (memcmp(pt1, ct2.b, plen) == 0) {
				printf("\nDecryption OK");
				dump_hex("plaintext", ct2.b, 16);
			}
			else {
				printf("\nDecryption failed");
			}
		}
		else {
			printf("\nEncryption failed");
		}
	}
	return 0;
}

static void check_results (const cl_uint num_devices, gpu_ctx_t *gpu_ctxs)
{
  static uint64_t total = 0;

  for (cl_uint device_id = 0; device_id < num_devices; device_id++)
  {
    gpu_ctx_t *gpu_ctx = &gpu_ctxs[device_id];

    if (gpu_ctx->num_cached == 0) continue;

    const size_t size_results = gpu_ctx->num_threads * sizeof (uint32_t);

    gc_clEnqueueReadBuffer (gpu_ctx->command_queue, gpu_ctx->d_results, CL_TRUE, 0, size_results, gpu_ctx->h_results, 0, NULL, NULL);

    for (uint32_t thread = 0; thread < gpu_ctx->num_threads; thread++)
    {
      if (gpu_ctx->h_results[thread] != 0xffffffff)
      {
        uint32_t gid = gpu_ctx->h_results[thread];

        fprintf (stdout, "\nGPU #%2d: ALARM! Candidate number %u cracked the hash! Hex dump following:\n\n", device_id, gid);

        dump_hex (stdout, gpu_ctx->plains_buf[gid], gpu_ctx->plains_len[gid]);

        FILE *fd = fopen (POTFILE, "ab");

        if (fd) // ignore error
        {
          fprintf (fd, "\nGPU #%2d: ALARM! Candidate number %u cracked the hash! Hex dump following:\n\n", device_id, gid);

          dump_hex (fd, gpu_ctx->plains_buf[gid], gpu_ctx->plains_len[gid]);

          fclose (fd);
        }

        exit (0);
      }
    }

    const uint32_t num_cached = gpu_ctx->num_cached;

    total += num_cached;

    float ms;

    timer_get (gpu_ctx->timer, ms);

    if (ms == 0) continue;

    float speed = (num_cached / ms) * 1000;

    printf ("GPU #%2d: %u candidates in %u ms [%u/s] - Total = %llu...\n", device_id, num_cached, (uint32_t) ms, (uint32_t) speed, (long long unsigned int) total);
  }
}

CC_INLINE bool
ccsrp_component_equal(char *label, ccsrp_ctx_t srp, cc_unit *a, cc_unit *b) {
    bool retval = ccn_cmp(ccsrp_ctx_n(srp), a, b) == 0;
    if(!retval) {
        size_t bytes_n = ccsrp_ctx_sizeof_n(srp);
        cc_printf("ccsrp_test_calculations: mismatch for %s:\n", label);
        cc_printf("\t");
        dump_hex((void *) a, bytes_n);
        cc_printf("\t");
        dump_hex((void *) b, bytes_n);
        cc_printf("\n");
    }
    return retval;
}

static void
thex_dump_dime_records(const pslist_t *records)
{
	const pslist_t *iter;

	PSLIST_FOREACH(records, iter) {
		const struct dime_record *record = iter->data;

		g_assert(record);
		dump_hex(stderr, "THEX DIME record type",
			dime_record_type(record), dime_record_type_length(record));
		dump_hex(stderr, "THEX DIME record ID",
			dime_record_id(record), dime_record_id_length(record));
	}
}

static void
thex_dump_dime_records(const GSList *records)
{
	const GSList *iter;

	for (iter = records; NULL != iter; iter = g_slist_next(iter)) {
		const struct dime_record *record;

		record = iter->data;
		g_assert(record);
		dump_hex(stderr, "THEX DIME record type",
			dime_record_type(record), dime_record_type_length(record));
		dump_hex(stderr, "THEX DIME record ID",
			dime_record_id(record), dime_record_id_length(record));
	}
}

static int pack_unpack_datatype( void* send_data, ompi_datatype_t *datatype, int count,
                                 void* recv_data,
                                 checker_t validator, void* validator_arg)
{
    MPI_Aint position = 0, buffer_size;
    void* buffer;
    int error;

    error = ompi_datatype_pack_external_size("external32",
                                             count, datatype, &buffer_size);
    if( MPI_SUCCESS != error ) goto return_error_code;

    buffer = (void*)malloc(buffer_size);
    if( NULL == buffer ) { error = MPI_ERR_UNKNOWN; goto return_error_code; }

    error = ompi_datatype_pack_external("external32", (void*)send_data, count, datatype,
                                        buffer, buffer_size, &position);
    if( MPI_SUCCESS != error ) goto return_error_code;
    if( 0 != validator(send_data, buffer, datatype, count, validator_arg) ) {
        printf("Error during pack external. Bailing out\n");
        return -1;
    }

    printf("packed %ld bytes into a %ld bytes buffer ", position, buffer_size); dump_hex(buffer, position); printf("\n");

    position = 0;
    error = ompi_datatype_unpack_external("external32", buffer, buffer_size, &position,
                                          recv_data, count, datatype);
    if( MPI_SUCCESS != error ) goto return_error_code;
    free(buffer);

 return_error_code:
    return (error == MPI_SUCCESS ? 0 : -1);
}

/* 
 * ===  FUNCTION  ======================================================================
 *         Name: main 
 *  Description:  
 * =====================================================================================
 */
int main(int argc, char *argv[])
{
    if (argc != 2)
    {
        printf("Usage:  HexDump file  \n");
        return 1;
    }
    FILE *file = fopen(argv[1], "rb");
    if (!file)
    {
        printf("Can't open the file.\n");
        return 2;
    }

    char str[640000];
    int len = 0;
    char d[17] ; d[16]=0;
    unsigned int bytes =  0;

    while (bytes = fread(d, 1, 16, file))
    {
        memcpy(str+len,d,bytes);
	    printf("%s",d);
        len += bytes;
    }

    printf("len = %d\n",len);

    dump_hex(str,len);

    fclose(file);
	return 0;
}

bool
huge_tth_extract32(const char *buf, size_t len, struct tth *tth,
	const gnutella_node_t *n)
{
	if (len != TTH_BASE32_SIZE)
		goto bad;

	if (TTH_RAW_SIZE != base32_decode(tth->data, sizeof tth->data, buf, len))
		goto bad;

	return TRUE;

bad:
	if (GNET_PROPERTY(share_debug)) {
		if (is_printable(buf, len)) {
			g_warning("%s has bad TTH (len=%u): %.*s",
				gmsg_node_infostr(n),
				(unsigned) len,
				(int) MIN(len, (size_t) INT_MAX),
				buf);
		} else {
			g_warning("%s has bad TTH (len=%u",
				gmsg_node_infostr(n), (unsigned) len);
			if (len)
				dump_hex(stderr, "Base32 TTH", buf, len);
		}
	}
	return FALSE;
}

bool WriteFdExactly(int fd, const void* buf, size_t len) {
    const char* p = reinterpret_cast<const char*>(buf);
    int r;

#if ADB_TRACE
    D("writex: fd=%d len=%d: ", fd, (int)len);
    if (ADB_TRACING) {
        dump_hex(reinterpret_cast<const unsigned char*>(buf), len);
    }
#endif

    while (len > 0) {
        r = adb_write(fd, p, len);
        if (r == -1) {
            D("writex: fd=%d error %d: %s\n", fd, errno, strerror(errno));
            if (errno == EAGAIN) {
                adb_sleep_ms(1); // just yield some cpu time
                continue;
            } else if (errno == EPIPE) {
                D("writex: fd=%d disconnected\n", fd);
                errno = 0;
                return false;
            } else {
                return false;
            }
        } else {
            len -= r;
            p += r;
        }
    }
    return true;
}

int writex(int fd, const void *ptr, size_t len)
{
	char *p = (char*)ptr;
	int r;

#if ADB_TRACE
	D("writex: fd=%d len=%d: ", fd, (int)len);
	dump_hex((const unsigned char *)ptr, len);
#endif
	while (len > 0) {
		r = adb_write(fd, p, len);
		if (r > 0) {
			len -= r;
			p += r;
		}
		else {
			if (r < 0) {
				D("writex: fd=%d error %d: %s\n", fd, errno, strerror(errno));
				if (errno == EINTR)
					continue;
				if (errno == EAGAIN) {
					adb_sleep_ms(1); // just yield some cpu time
					continue;
				}
			}
			else {
				D("writex: fd=%d disconnected\n", fd);
			}
			return -1;
		}
	}
	return 0;
}

void update_dump()
{
	if(hex_dlg != NULL)
		dump_hex();
	if(text_dlg != NULL)
		dump_text();
}

void DumpCobol(BYTE level)
{
    BYTE   ch;

    StdOutPrintf(L"\tLevel = %2d", level & 0x7f);
    if (level & 0x80) {
        StdOutPuts(L"(Group)");
    }
loop:
    // check next byte of type string

    ch = getbyte();
    if ((ch & 0xfe) == 0xc0) {
        // output linkage informatioon byte
        DumpCobLinkage (ch);
        if (Leaf_pos < Leaf_bytes) {
            ch = getbyte();
        }
        goto loop;
    }
    if (Leaf_pos <= Leaf_bytes) {
        if ((ch & 0xe0) == 0xe0) {
            // output OCCURS subscript information
            DumpCobOccurs (ch);
            goto loop;
        }
    }
    if (Leaf_pos <= Leaf_bytes) {
        DumpCobItem (ch);
    }
    dump_hex((Leaf_bytes - Leaf_pos), true);
    StdOutPuts(L"\n");
}

int readx(int fd, void *ptr, size_t len)
{
    char *p = ptr;
    int r;
#if ADB_TRACE
    int  len0 = len;
#endif
    D("readx: %d %p %d\n", fd, ptr, (int)len);
    while(len > 0) {
        r = adb_read(fd, p, len);
        if(r > 0) {
            len -= r;
            p += r;
        } else {
            D("readx: %d %d %s\n", fd, r, strerror(errno));
            if((r < 0) && (errno == EINTR)) continue;
            return -1;
        }
    }

#if ADB_TRACE
    D("readx: %d ok: ", fd);
    dump_hex( ptr, len0 );
#endif
    return 0;
}