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change space indention

pull/552/head
fcarli3 4 years ago
parent
commit
067f675faa
  1. 1257
      src/edge.c
  2. 4160
      src/edge_utils.c
  3. 27
      src/edge_utils_win32.c
  4. 82
      src/example_edge_embed.c
  5. 60
      src/example_edge_embed_quick_edge_init.c
  6. 40
      src/example_sn_embed.c
  7. 788
      src/n2n.c
  8. 598
      src/n2n_regex.c
  9. 1167
      src/network_traffic_filter.c
  10. 988
      src/sn.c
  11. 94
      src/sn_selection.c
  12. 2666
      src/sn_utils.c
  13. 600
      src/wire.c

1257
src/edge.c

File diff suppressed because it is too large

4160
src/edge_utils.c

File diff suppressed because it is too large

27
src/edge_utils_win32.c

@ -8,7 +8,7 @@
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
@ -24,28 +24,29 @@
static DWORD* tunReadThread (LPVOID lpArg) {
struct tunread_arg *arg = (struct tunread_arg*)lpArg;
struct tunread_arg *arg = (struct tunread_arg*)lpArg;
while(*arg->keep_running)
edge_read_from_tap(arg->eee);
while(*arg->keep_running) {
edge_read_from_tap(arg->eee);
}
return((DWORD*)NULL);
return((DWORD*)NULL);
}
/* ************************************** */
/** Start a second thread in Windows because TUNTAP interfaces do not expose
* file descriptors. */
* file descriptors. */
HANDLE startTunReadThread (struct tunread_arg *arg) {
DWORD dwThreadId;
DWORD dwThreadId;
return(CreateThread(NULL, /* security attributes */
0, /* use default stack size */
(LPTHREAD_START_ROUTINE)tunReadThread, /* thread function */
(void*)arg, /* argument to thread function */
0, /* thread creation flags */
&dwThreadId)); /* thread id out */
return(CreateThread(NULL, /* security attributes */
0, /* use default stack size */
(LPTHREAD_START_ROUTINE)tunReadThread, /* thread function */
(void*)arg, /* argument to thread function */
0, /* thread creation flags */
&dwThreadId)); /* thread id out */
}
#endif

82
src/example_edge_embed.c

@ -8,7 +8,7 @@
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
@ -22,52 +22,52 @@ static int keep_running;
int main() {
n2n_edge_conf_t conf;
tuntap_dev tuntap;
n2n_edge_t *eee;
int rc;
n2n_edge_conf_t conf;
tuntap_dev tuntap;
n2n_edge_t *eee;
int rc;
edge_init_conf_defaults(&conf);
conf.allow_p2p = 1; // Whether to allow peer-to-peer communication
conf.allow_routing = 1; // Whether to allow the edge to route packets to other edges
snprintf((char *)conf.community_name, sizeof(conf.community_name), "%s", "mycommunity"); // Community to connect to
conf.disable_pmtu_discovery = 1; // Whether to disable the path MTU discovery
conf.drop_multicast = 0; // Whether to disable multicast
conf.tuntap_ip_mode = TUNTAP_IP_MODE_SN_ASSIGN; // How to set the IP address
conf.encrypt_key = "mysecret"; // Secret to decrypt & encrypt with
conf.local_port = 0; // What port to use (0 = any port)
conf.mgmt_port = N2N_EDGE_MGMT_PORT; // Edge management port (5644 by default)
conf.register_interval = 1; // Interval for both UDP NAT hole punching and supernode registration
conf.register_ttl = 1; // Interval for UDP NAT hole punching through supernode
edge_conf_add_supernode(&conf, "localhost:1234"); // Supernode to connect to
conf.tos = 16; // Type of service for sent packets
conf.transop_id = N2N_TRANSFORM_ID_TWOFISH; // Use the twofish encryption
edge_init_conf_defaults(&conf);
conf.allow_p2p = 1; // Whether to allow peer-to-peer communication
conf.allow_routing = 1; // Whether to allow the edge to route packets to other edges
snprintf((char *)conf.community_name, sizeof(conf.community_name), "%s", "mycommunity"); // Community to connect to
conf.disable_pmtu_discovery = 1; // Whether to disable the path MTU discovery
conf.drop_multicast = 0; // Whether to disable multicast
conf.tuntap_ip_mode = TUNTAP_IP_MODE_SN_ASSIGN; // How to set the IP address
conf.encrypt_key = "mysecret"; // Secret to decrypt & encrypt with
conf.local_port = 0; // What port to use (0 = any port)
conf.mgmt_port = N2N_EDGE_MGMT_PORT; // Edge management port (5644 by default)
conf.register_interval = 1; // Interval for both UDP NAT hole punching and supernode registration
conf.register_ttl = 1; // Interval for UDP NAT hole punching through supernode
edge_conf_add_supernode(&conf, "localhost:1234"); // Supernode to connect to
conf.tos = 16; // Type of service for sent packets
conf.transop_id = N2N_TRANSFORM_ID_TWOFISH; // Use the twofish encryption
if(edge_verify_conf(&conf) != 0) {
return -1;
}
if(tuntap_open(&tuntap,
"edge0", // Name of the device to create
"static", // IP mode; static|dhcp
"10.0.0.1", // Set ip address
"255.255.255.0", // Netmask to use
"DE:AD:BE:EF:01:10", // Set mac address
DEFAULT_MTU) < 0) // MTU to use
{
if(edge_verify_conf(&conf) != 0) {
return -1;
}
eee = edge_init(&conf, &rc);
if(eee == NULL) {
exit(1);
}
if(tuntap_open(&tuntap,
"edge0", // Name of the device to create
"static", // IP mode; static|dhcp
"10.0.0.1", // Set ip address
"255.255.255.0", // Netmask to use
"DE:AD:BE:EF:01:10", // Set mac address
DEFAULT_MTU) < 0) // MTU to use
{
return -1;
}
eee = edge_init(&conf, &rc);
if(eee == NULL) {
exit(1);
}
keep_running = 1;
rc = run_edge_loop(eee, &keep_running);
keep_running = 1;
rc = run_edge_loop(eee, &keep_running);
edge_term(eee);
tuntap_close(&tuntap);
edge_term(eee);
tuntap_close(&tuntap);
return rc;
return rc;
}

60
src/example_edge_embed_quick_edge_init.c

@ -8,7 +8,7 @@
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
@ -19,37 +19,37 @@
#include "n2n.h"
/*
This tool demonstrates how to easily embed
n2n on an existing application
This tool demonstrates how to easily embed
n2n on an existing application
*/
int main (int argc, char* argv[]) {
char *device_name = (char*)"n2n0";
char *network_name = (char*)"mynetwork";
char *secret_key = (char*)"mysecret";
char *my_mac_address = (char*)"DE:AD:BE:EF:01:10";
char *my_ipv4_addr = (char*)"1.2.3.4";
char *supernode = (char*)"7.8.9.10:1234";
int keep_on_running = 1;
/* Increase tracelevel to see what's happening */
setTraceLevel(10);
/* Random seed */
n2n_srand (n2n_seed());
/*
NOTE
As the function below won't end, you should
call it inside a separate thread
*/
return(quick_edge_init(device_name,
network_name,
secret_key,
my_mac_address,
my_ipv4_addr,
supernode,
&keep_on_running));
char *device_name = (char*)"n2n0";
char *network_name = (char*)"mynetwork";
char *secret_key = (char*)"mysecret";
char *my_mac_address = (char*)"DE:AD:BE:EF:01:10";
char *my_ipv4_addr = (char*)"1.2.3.4";
char *supernode = (char*)"7.8.9.10:1234";
int keep_on_running = 1;
/* Increase tracelevel to see what's happening */
setTraceLevel(10);
/* Random seed */
n2n_srand (n2n_seed());
/*
NOTE
As the function below won't end, you should
call it inside a separate thread
*/
return(quick_edge_init(device_name,
network_name,
secret_key,
my_mac_address,
my_ipv4_addr,
supernode,
&keep_on_running));
}

40
src/example_sn_embed.c

@ -20,31 +20,29 @@
static int keep_running;
int main()
{
n2n_sn_t sss_node;
int rc;
int main () {
sn_init(&sss_node);
sss_node.daemon = 0; // Whether to daemonize
sss_node.lport = 1234; // Main UDP listen port
n2n_sn_t sss_node;
int rc;
sss_node.sock = open_socket(sss_node.lport, 1);
if (-1 == sss_node.sock)
{
exit(-2);
}
sn_init(&sss_node);
sss_node.daemon = 0; // Whether to daemonize
sss_node.lport = 1234; // Main UDP listen port
sss_node.mgmt_sock = open_socket(5645, 0); // Main UDP management port
if (-1 == sss_node.mgmt_sock)
{
exit(-2);
}
sss_node.sock = open_socket(sss_node.lport, 1);
if(-1 == sss_node.sock) {
exit(-2);
}
keep_running = 1;
rc = run_sn_loop(&sss_node, &keep_running);
sss_node.mgmt_sock = open_socket(5645, 0); // Main UDP management port
if(-1 == sss_node.mgmt_sock) {
exit(-2);
}
sn_term(&sss_node);
keep_running = 1;
rc = run_sn_loop(&sss_node, &keep_running);
return rc;
sn_term(&sss_node);
return rc;
}

788
src/n2n.c

File diff suppressed because it is too large

598
src/n2n_regex.c

@ -8,7 +8,7 @@
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
@ -29,21 +29,21 @@
*
* Supports:
* ---------
* '.' Dot, matches any character
* '^' Start anchor, matches beginning of string -- NOTE: currently disabled (checking for full matches anyway)
* '$' End anchor, matches end of string -- NOTE: currently disabled (checking for full matches anyway)
* '*' Asterisk, match zero or more (greedy)
* '+' Plus, match one or more (greedy)
* '?' Question, match zero or one (non-greedy)
* '[abc]' Character class, match if one of {'a', 'b', 'c'}
* '[^abc]' Inverted class, match if NOT one of {'a', 'b', 'c'} -- NOTE: feature is currently broken!
* '[a-zA-Z]' Character ranges, the character set of the ranges { a-z | A-Z }
* '\s' Whitespace, \t \f \r \n \v and spaces
* '\S' Non-whitespace
* '\w' Alphanumeric, [a-zA-Z0-9_]
* '\W' Non-alphanumeric
* '\d' Digits, [0-9]
* '\D' Non-digits
* '.' Dot, matches any character
* '^' Start anchor, matches beginning of string -- NOTE: currently disabled (checking for full matches anyway)
* '$' End anchor, matches end of string -- NOTE: currently disabled (checking for full matches anyway)
* '*' Asterisk, match zero or more (greedy)
* '+' Plus, match one or more (greedy)
* '?' Question, match zero or one (non-greedy)
* '[abc]' Character class, match if one of {'a', 'b', 'c'}
* '[^abc]' Inverted class, match if NOT one of {'a', 'b', 'c'} -- NOTE: feature is currently broken!
* '[a-zA-Z]' Character ranges, the character set of the ranges { a-z | A-Z }
* '\s' Whitespace, \t \f \r \n \v and spaces
* '\S' Non-whitespace
* '\w' Alphanumeric, [a-zA-Z0-9_]
* '\W' Non-alphanumeric
* '\d' Digits, [0-9]
* '\D' Non-digits
*
*
*/
@ -54,18 +54,18 @@
/* Definitions: */
#define MAX_REGEXP_OBJECTS 30 /* Max number of regex symbols in expression. */
#define MAX_CHAR_CLASS_LEN 40 /* Max length of character-class buffer in. */
#define MAX_REGEXP_OBJECTS 30 /* Max number of regex symbols in expression. */
#define MAX_CHAR_CLASS_LEN 40 /* Max length of character-class buffer in. */
enum { UNUSED, DOT, BEGIN, END, QUESTIONMARK, STAR, PLUS, CHAR_TYPE, CHAR_CLASS, INV_CHAR_CLASS, DIGIT, NOT_DIGIT, ALPHA, NOT_ALPHA, WHITESPACE, NOT_WHITESPACE, /* BRANCH */ };
typedef struct regex_t {
unsigned char type; /* CHAR_TYPE, STAR, etc. */
union {
unsigned char ch; /* the character itself */
unsigned char* ccl; /* OR a pointer to characters in class */
};
unsigned char type; /* CHAR_TYPE, STAR, etc. */
union {
unsigned char ch; /* the character itself */
unsigned char* ccl; /* OR a pointer to characters in class */
};
} regex_t;
@ -89,187 +89,187 @@ static int ismetachar (char c);
/* Public functions: */
int re_match (const char* pattern, const char* text, int* matchlength) {
re_t re_p; /* pointer to (to be created) copy of compiled regex */
int ret = -1;
re_t re_p; /* pointer to (to be created) copy of compiled regex */
int ret = -1;
re_p = re_compile (pattern);
ret = re_matchp(re_p, text, matchlength);
free(re_p);
re_p = re_compile (pattern);
ret = re_matchp(re_p, text, matchlength);
free(re_p);
return(ret);
return(ret);
}
int re_matchp (re_t pattern, const char* text, int* matchlength) {
*matchlength = 0;
*matchlength = 0;
if(pattern != 0) {
if(pattern[0].type == BEGIN) {
return ((matchpattern(&pattern[1], text, matchlength)) ? 0 : -1);
} else {
int idx = -1;
do {
idx += 1;
if(matchpattern(pattern, text, matchlength)) {
if(text[0] == '\0') {
return -1;
}
return idx;
if(pattern != 0) {
if(pattern[0].type == BEGIN) {
return ((matchpattern(&pattern[1], text, matchlength)) ? 0 : -1);
} else {
int idx = -1;
do {
idx += 1;
if(matchpattern(pattern, text, matchlength)) {
if(text[0] == '\0') {
return -1;
}
return idx;
}
} while(*text++ != '\0');
}
} while(*text++ != '\0');
}
}
return -1;
return -1;
}
re_t re_compile (const char* pattern) {
/* The sizes of the two static arrays below substantiates the static RAM usage of this module.
MAX_REGEXP_OBJECTS is the max number of symbols in the expression.
MAX_CHAR_CLASS_LEN determines the size of buffer for chars in all char-classes in the expression. */
static regex_t re_compiled[MAX_REGEXP_OBJECTS];
re_t re_p; /* pointer to (to be created) copy of compiled regex in re_compiled */
static unsigned char ccl_buf[MAX_CHAR_CLASS_LEN];
int ccl_bufidx = 1;
char c; /* current char in pattern */
int i = 0; /* index into pattern */
int j = 0; /* index into re_compiled */
while(pattern[i] != '\0' && (j+1 < MAX_REGEXP_OBJECTS)) {
c = pattern[i];
switch(c) {
/* Meta-characters: */
// case '^': { re_compiled[j].type = BEGIN; } break; <-- disabled (always full matches)
// case '$': { re_compiled[j].type = END; } break; <-- disabled (always full matches)
case '.': { re_compiled[j].type = DOT; } break;
case '*': { re_compiled[j].type = STAR; } break;
case '+': { re_compiled[j].type = PLUS; } break;
case '?': { re_compiled[j].type = QUESTIONMARK; } break;
/* case '|': { re_compiled[j].type = BRANCH; } break; <-- not working properly */
/* Escaped character-classes (\s \w ...): */
case '\\': {
if(pattern[i+1] != '\0') {
/* Skip the escape-char '\\' */
i += 1;
/* ... and check the next */
switch(pattern[i]) {
/* Meta-character: */
case 'd': { re_compiled[j].type = DIGIT; } break;
case 'D': { re_compiled[j].type = NOT_DIGIT; } break;
case 'w': { re_compiled[j].type = ALPHA; } break;
case 'W': { re_compiled[j].type = NOT_ALPHA; } break;
case 's': { re_compiled[j].type = WHITESPACE; } break;
case 'S': { re_compiled[j].type = NOT_WHITESPACE; } break;
/* Escaped character, e.g. '.' */
default: {
re_compiled[j].type = CHAR_TYPE;
re_compiled[j].ch = pattern[i];
/* The sizes of the two static arrays below substantiates the static RAM usage of this module.
MAX_REGEXP_OBJECTS is the max number of symbols in the expression.
MAX_CHAR_CLASS_LEN determines the size of buffer for chars in all char-classes in the expression. */
static regex_t re_compiled[MAX_REGEXP_OBJECTS];
re_t re_p; /* pointer to (to be created) copy of compiled regex in re_compiled */
static unsigned char ccl_buf[MAX_CHAR_CLASS_LEN];
int ccl_bufidx = 1;
char c; /* current char in pattern */
int i = 0; /* index into pattern */
int j = 0; /* index into re_compiled */
while(pattern[i] != '\0' && (j + 1 < MAX_REGEXP_OBJECTS)) {
c = pattern[i];
switch(c) {
/* Meta-characters: */
// case '^': { re_compiled[j].type = BEGIN; } break; <-- disabled (always full matches)
// case '$': { re_compiled[j].type = END; } break; <-- disabled (always full matches)
case '.': { re_compiled[j].type = DOT; } break;
case '*': { re_compiled[j].type = STAR; } break;
case '+': { re_compiled[j].type = PLUS; } break;
case '?': { re_compiled[j].type = QUESTIONMARK; } break;
/* case '|': { re_compiled[j].type = BRANCH; } break; <-- not working properly */
/* Escaped character-classes (\s \w ...): */
case '\\': {
if(pattern[i + 1] != '\0') {
/* Skip the escape-char '\\' */
i += 1;
/* ... and check the next */
switch(pattern[i]) {
/* Meta-character: */
case 'd': { re_compiled[j].type = DIGIT; } break;
case 'D': { re_compiled[j].type = NOT_DIGIT; } break;
case 'w': { re_compiled[j].type = ALPHA; } break;
case 'W': { re_compiled[j].type = NOT_ALPHA; } break;
case 's': { re_compiled[j].type = WHITESPACE; } break;
case 'S': { re_compiled[j].type = NOT_WHITESPACE; } break;
/* Escaped character, e.g. '.' */
default: {
re_compiled[j].type = CHAR_TYPE;
re_compiled[j].ch = pattern[i];
} break;
}
}
/* '\\' as last char in pattern -> invalid regular expression. */
/*
else
{
re_compiled[j].type = CHAR_TYPE;
re_compiled[j].ch = pattern[i];
}
*/
} break;
}
}
/* '\\' as last char in pattern -> invalid regular expression. */
/*
else
{
re_compiled[j].type = CHAR_TYPE;
re_compiled[j].ch = pattern[i];
}
*/
} break;
/* Character class: */
case '[': {
/* Remember where the char-buffer starts. */
int buf_begin = ccl_bufidx;
/* Look-ahead to determine if negated */
if(pattern[i+1] == '^') {
re_compiled[j].type = INV_CHAR_CLASS;
i += 1; /* Increment i to avoid including '^' in the char-buffer */
} else {
re_compiled[j].type = CHAR_CLASS;
}
/* Character class: */
case '[': {
/* Remember where the char-buffer starts. */
int buf_begin = ccl_bufidx;
/* Look-ahead to determine if negated */
if(pattern[i+1] == '^') {
re_compiled[j].type = INV_CHAR_CLASS;
i += 1; /* Increment i to avoid including '^' in the char-buffer */
} else {
re_compiled[j].type = CHAR_CLASS;
}
/* Copy characters inside [..] to buffer */
while((pattern[++i] != ']')
&& (pattern[i] != '\0')) /* Missing ] */
{
if(pattern[i] == '\\') {
if(ccl_bufidx >= MAX_CHAR_CLASS_LEN - 1) {
//fputs("exceeded internal buffer!\n", stderr);
return 0;
}
ccl_buf[ccl_bufidx++] = pattern[i++];
} else if(ccl_bufidx >= MAX_CHAR_CLASS_LEN) {
//fputs("exceeded internal buffer!\n", stderr);
return 0;
}
ccl_buf[ccl_bufidx++] = pattern[i];
}
if(ccl_bufidx >= MAX_CHAR_CLASS_LEN) {
/* Catches cases such as [00000000000000000000000000000000000000][ */
//fputs("exceeded internal buffer!\n", stderr);
return 0;
}
/* Null-terminate string end */
ccl_buf[ccl_bufidx++] = 0;
re_compiled[j].ccl = &ccl_buf[buf_begin];
} break;
/* Copy characters inside [..] to buffer */
while( (pattern[++i] != ']')
&& (pattern[i] != '\0')) /* Missing ] */
{
if(pattern[i] == '\\') {
if(ccl_bufidx >= MAX_CHAR_CLASS_LEN - 1) {
//fputs("exceeded internal buffer!\n", stderr);
return 0;
}
ccl_buf[ccl_bufidx++] = pattern[i++];
} else if(ccl_bufidx >= MAX_CHAR_CLASS_LEN) {
//fputs("exceeded internal buffer!\n", stderr);
return 0;
}
ccl_buf[ccl_bufidx++] = pattern[i];
}
if(ccl_bufidx >= MAX_CHAR_CLASS_LEN) {
/* Catches cases such as [00000000000000000000000000000000000000][ */
//fputs("exceeded internal buffer!\n", stderr);
return 0;
/* Other characters: */
default: {
re_compiled[j].type = CHAR_TYPE;
re_compiled[j].ch = c;
} break;
}
/* Null-terminate string end */
ccl_buf[ccl_bufidx++] = 0;
re_compiled[j].ccl = &ccl_buf[buf_begin];
} break;
/* Other characters: */
default: {
re_compiled[j].type = CHAR_TYPE;
re_compiled[j].ch = c;
} break;
i += 1;
j += 1;
}
i += 1;
j += 1;
}
/* 'UNUSED' is a sentinel used to indicate end-of-pattern */
re_compiled[j].type = UNUSED;
/* 'UNUSED' is a sentinel used to indicate end-of-pattern */
re_compiled[j].type = UNUSED;
re_p = (re_t)calloc(1, sizeof(re_compiled));
memcpy (re_p, re_compiled, sizeof(re_compiled));
re_p = (re_t)calloc(1, sizeof(re_compiled));
memcpy (re_p, re_compiled, sizeof(re_compiled));
return (re_t) re_p;
return (re_t) re_p;
}
void re_print (regex_t* pattern) {
const char* types[] = { "UNUSED", "DOT", "BEGIN", "END", "QUESTIONMARK", "STAR", "PLUS", "CHAR_TYPE", "CHAR_CLASS", "INV_CHAR_CLASS", "DIGIT", "NOT_DIGIT", "ALPHA", "NOT_ALPHA", "WHITESPACE" , "NOT_WHITESPACE", /* "BRANCH" */ };
int i;
int j;
char c;
const char* types[] = { "UNUSED", "DOT", "BEGIN", "END", "QUESTIONMARK", "STAR", "PLUS", "CHAR_TYPE", "CHAR_CLASS", "INV_CHAR_CLASS", "DIGIT", "NOT_DIGIT", "ALPHA", "NOT_ALPHA", "WHITESPACE" , "NOT_WHITESPACE", /* "BRANCH" */ };
int i;
int j;
char c;
for(i = 0; i < MAX_REGEXP_OBJECTS; ++i) {
if(pattern[i].type == UNUSED) {
break;
}
for(i = 0; i < MAX_REGEXP_OBJECTS; ++i) {
if(pattern[i].type == UNUSED) {
break;
}
printf("type: %s", types[pattern[i].type]);
if((pattern[i].type == CHAR_CLASS) || (pattern[i].type == INV_CHAR_CLASS)) {
printf(" [");
for(j = 0; j < MAX_CHAR_CLASS_LEN; ++j) {
c = pattern[i].ccl[j];
if((c == '\0') || (c == ']')) {
break;
printf("type: %s", types[pattern[i].type]);
if((pattern[i].type == CHAR_CLASS) || (pattern[i].type == INV_CHAR_CLASS)) {
printf(" [");
for(j = 0; j < MAX_CHAR_CLASS_LEN; ++j) {
c = pattern[i].ccl[j];
if((c == '\0') || (c == ']')) {
break;
}
printf("%c", c);
}
printf("]");
} else if(pattern[i].type == CHAR_TYPE) {
printf(" '%c'", pattern[i].ch);
}
printf("%c", c);
}
printf("]");
} else if(pattern[i].type == CHAR_TYPE) {
printf(" '%c'", pattern[i].ch);
printf("\n");
}
printf("\n");
}
}
@ -277,154 +277,154 @@ void re_print (regex_t* pattern) {
/* Private functions: */
static int matchdigit (char c) {
return ((c >= '0') && (c <= '9'));
return ((c >= '0') && (c <= '9'));
}
static int matchalpha (char c) {
return ((c >= 'a') && (c <= 'z')) || ((c >= 'A') && (c <= 'Z'));
return ((c >= 'a') && (c <= 'z')) || ((c >= 'A') && (c <= 'Z'));
}
static int matchwhitespace (char c) {
return ((c == ' ') || (c == '\t') || (c == '\n') || (c == '\r') || (c == '\f') || (c == '\v'));
return ((c == ' ') || (c == '\t') || (c == '\n') || (c == '\r') || (c == '\f') || (c == '\v'));
}
static int matchalphanum (char c) {
return ((c == '_') || matchalpha(c) || matchdigit(c));
return ((c == '_') || matchalpha(c) || matchdigit(c));
}
static int matchrange (char c, const char* str) {
return ((c != '-') && (str[0] != '\0') && (str[0] != '-') &&
(str[1] == '-') && (str[1] != '\0') &&
(str[2] != '\0') && ((c >= str[0]) && (c <= str[2])));
return ((c != '-') && (str[0] != '\0') && (str[0] != '-') &&
(str[1] == '-') && (str[1] != '\0') &&
(str[2] != '\0') && ((c >= str[0]) && (c <= str[2])));
}
static int matchdot (char c) {
return ((c != '\n') && (c != '\r'));
return ((c != '\n') && (c != '\r'));
}
static int ismetachar (char c) {
return ((c == 's') || (c == 'S') || (c == 'w') || (c == 'W') || (c == 'd') || (c == 'D'));
return ((c == 's') || (c == 'S') || (c == 'w') || (c == 'W') || (c == 'd') || (c == 'D'));
}
static int matchmetachar (char c, const char* str) {
switch(str[0]) {
case 'd': return matchdigit(c);
case 'D': return !matchdigit(c);
case 'w': return matchalphanum(c);
case 'W': return !matchalphanum(c);
case 's': return matchwhitespace(c);
case 'S': return !matchwhitespace(c);
default: return (c == str[0]);
}
switch(str[0]) {
case 'd': return matchdigit(c);
case 'D': return !matchdigit(c);
case 'w': return matchalphanum(c);
case 'W': return !matchalphanum(c);
case 's': return matchwhitespace(c);
case 'S': return !matchwhitespace(c);
default: return (c == str[0]);
}
}
static int matchcharclass (char c, const char* str) {
do {
if(matchrange(c, str)) {
return 1;
} else if(str[0] == '\\') {
/* Escape-char: increment str-ptr and match on next char */
str += 1;
if(matchmetachar(c, str)) {
return 1;
} else if((c == str[0]) && !ismetachar(c)) {
return 1;
}
} else if(c == str[0]) {
if(c == '-') {
return ((str[-1] == '\0') || (str[1] == '\0'));
} else {
return 1;
}
}
} while(*str++ != '\0');
do {
if(matchrange(c, str)) {
return 1;
} else if(str[0] == '\\') {
/* Escape-char: increment str-ptr and match on next char */
str += 1;
if(matchmetachar(c, str)) {
return 1;
} else if((c == str[0]) && !ismetachar(c)) {
return 1;
}
} else if(c == str[0]) {
if(c == '-') {
return ((str[-1] == '\0') || (str[1] == '\0'));
} else {
return 1;
}
}
} while(*str++ != '\0');
return 0;
return 0;
}
static int matchone (regex_t p, char c) {
switch(p.type) {
case DOT: return matchdot(c);
case CHAR_CLASS: return matchcharclass(c, (const char*)p.ccl);
case INV_CHAR_CLASS: return !matchcharclass(c, (const char*)p.ccl);
case DIGIT: return matchdigit(c);
case NOT_DIGIT: return !matchdigit(c);
case ALPHA: return matchalphanum(c);
case NOT_ALPHA: return !matchalphanum(c);
case WHITESPACE: return matchwhitespace(c);
case NOT_WHITESPACE: return !matchwhitespace(c);
default: return (p.ch == c);
}
switch(p.type) {
case DOT: return matchdot(c);
case CHAR_CLASS: return matchcharclass(c, (const char*)p.ccl);
case INV_CHAR_CLASS: return !matchcharclass(c, (const char*)p.ccl);
case DIGIT: return matchdigit(c);
case NOT_DIGIT: return !matchdigit(c);
case ALPHA: return matchalphanum(c);
case NOT_ALPHA: return !matchalphanum(c);
case WHITESPACE: return matchwhitespace(c);
case NOT_WHITESPACE: return !matchwhitespace(c);
default: return (p.ch == c);
}
}
static int matchstar (regex_t p, regex_t* pattern, const char* text, int* matchlength) {
int prelen = *matchlength;
const char* prepoint = text;
int prelen = *matchlength;
const char* prepoint = text;
while((text[0] != '\0') && matchone(p, *text)) {
text++;
(*matchlength)++;
}
while((text[0] != '\0') && matchone(p, *text)) {
text++;
(*matchlength)++;
}
while(text >= prepoint) {
if(matchpattern(pattern, text--, matchlength)) {
return 1;
while(text >= prepoint) {
if(matchpattern(pattern, text--, matchlength)) {
return 1;
}
(*matchlength)--;
}
(*matchlength)--;
}
*matchlength = prelen;
*matchlength = prelen;
return 0;
return 0;
}
static int matchplus (regex_t p, regex_t* pattern, const char* text, int* matchlength) {
const char* prepoint = text;
const char* prepoint = text;
while((text[0] != '\0') && matchone(p, *text)) {
text++;
(*matchlength)++;
}
while((text[0] != '\0') && matchone(p, *text)) {
text++;
(*matchlength)++;
}
while(text > prepoint) {
if(matchpattern(pattern, text--, matchlength)) {
return 1;
while(text > prepoint) {
if(matchpattern(pattern, text--, matchlength)) {
return 1;
}
(*matchlength)--;
}
(*matchlength)--;
}
return 0;
return 0;
}
static int matchquestion (regex_t p, regex_t* pattern, const char* text, int* matchlength) {
if(p.type == UNUSED) {
return 1;
}
if(matchpattern(pattern, text, matchlength)) {
return 1;
}
if(p.type == UNUSED) {
return 1;
}
if(*text && matchone(p, *text++)) {
if(matchpattern(pattern, text, matchlength)) {
(*matchlength)++;
return 1;
return 1;
}
if(*text && matchone(p, *text++)) {
if(matchpattern(pattern, text, matchlength)) {
(*matchlength)++;
return 1;
}
}
}
return 0;
return 0;
}
@ -433,23 +433,23 @@ static int matchquestion (regex_t p, regex_t* pattern, const char* text, int* ma
/* Recursive matching */
static int matchpattern (regex_t* pattern, const char* text, int *matchlength) {
int pre = *matchlength;
if((pattern[0].type == UNUSED) || (pattern[1].type == QUESTIONMARK)) {
return matchquestion(pattern[1], &pattern[2], text, matchlength);
} else if(pattern[1].type == STAR) {
return matchstar(pattern[0], &pattern[2], text, matchlength);
} else if(pattern[1].type == PLUS) {
return matchplus(pattern[0], &pattern[2], text, matchlength);
} else if((pattern[0].type == END) && pattern[1].type == UNUSED) {
return text[0] == '\0';
} else if((text[0] != '\0') && matchone(pattern[0], text[0])) {
(*matchlength)++;
return matchpattern(&pattern[1], text+1);
} else {
*matchlength = pre;
return 0;
}
int pre = *matchlength;
if((pattern[0].type == UNUSED) || (pattern[1].type == QUESTIONMARK)) {
return matchquestion(pattern[1], &pattern[2], text, matchlength);
} else if(pattern[1].type == STAR) {
return matchstar(pattern[0], &pattern[2], text, matchlength);
} else if(pattern[1].type == PLUS) {
return matchplus(pattern[0], &pattern[2], text, matchlength);
} else if((pattern[0].type == END) && pattern[1].type == UNUSED) {
return text[0] == '\0';
} else if((text[0] != '\0') && matchone(pattern[0], text[0])) {
(*matchlength)++;
return matchpattern(&pattern[1], text+1);
} else {
*matchlength = pre;
return 0;
}
}
#else
@ -457,30 +457,30 @@ static int matchpattern (regex_t* pattern, const char* text, int *matchlength) {
/* Iterative matching */
static int matchpattern (regex_t* pattern, const char* text, int* matchlength) {
int pre = *matchlength;
do {
if((pattern[0].type == UNUSED) || (pattern[1].type == QUESTIONMARK)) {
return matchquestion(pattern[0], &pattern[2], text, matchlength);
} else if(pattern[1].type == STAR) {
return matchstar(pattern[0], &pattern[2], text, matchlength);
} else if(pattern[1].type == PLUS) {
return matchplus(pattern[0], &pattern[2], text, matchlength);
} else if((pattern[0].type == END) && pattern[1].type == UNUSED) {
return (text[0] == '\0');
}
/* Branching is not working properly
else if (pattern[1].type == BRANCH)
{
return (matchpattern(pattern, text) || matchpattern(&pattern[2], text));
}
int pre = *matchlength;
do {
if((pattern[0].type == UNUSED) || (pattern[1].type == QUESTIONMARK)) {
return matchquestion(pattern[0], &pattern[2], text, matchlength);
} else if(pattern[1].type == STAR) {
return matchstar(pattern[0], &pattern[2], text, matchlength);
} else if(pattern[1].type == PLUS) {
return matchplus(pattern[0], &pattern[2], text, matchlength);
} else if((pattern[0].type == END) && pattern[1].type == UNUSED) {
return (text[0] == '\0');
}
/* Branching is not working properly
else if (pattern[1].type == BRANCH)
{
return (matchpattern(pattern, text) || matchpattern(&pattern[2], text));
}
*/
(*matchlength)++;
} while((text[0] != '\0') && matchone(*pattern++, *text++));
(*matchlength)++;
} while((text[0] != '\0') && matchone(*pattern++, *text++));
*matchlength = pre;
*matchlength = pre;
return 0;
return 0;
}
#endif

1167
src/network_traffic_filter.c

File diff suppressed because it is too large

988
src/sn.c

File diff suppressed because it is too large

94
src/sn_selection.c

@ -8,7 +8,7 @@
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
@ -27,19 +27,19 @@ static int sn_selection_criterion_sort (peer_info_t *a, peer_info_t *b);
/* Initialize selection_criterion field in peer_info structure*/
int sn_selection_criterion_init (peer_info_t *peer) {
if(peer != NULL) {
sn_selection_criterion_default(&(peer->selection_criterion));
}
if(peer != NULL) {
sn_selection_criterion_default(&(peer->selection_criterion));
}
return 0; /* OK */
return 0; /* OK */
}
/* Set selection_criterion field to default value according to selected strategy. */
int sn_selection_criterion_default (SN_SELECTION_CRITERION_DATA_TYPE *selection_criterion) {
*selection_criterion = (SN_SELECTION_CRITERION_DATA_TYPE) UINT32_MAX >> 1;
*selection_criterion = (SN_SELECTION_CRITERION_DATA_TYPE) UINT32_MAX >> 1;
return 0; /* OK */
return 0; /* OK */
}
/* Take data from PEER_INFO payload and transform them into a selection_criterion.
@ -47,84 +47,84 @@ int sn_selection_criterion_default (SN_SELECTION_CRITERION_DATA_TYPE *selection_
*/
int sn_selection_criterion_calculate (n2n_edge_t *eee, peer_info_t *peer, SN_SELECTION_CRITERION_DATA_TYPE *data) {
SN_SELECTION_CRITERION_DATA_TYPE common_data;
int sum = 0;
SN_SELECTION_CRITERION_DATA_TYPE common_data;
int sum = 0;
common_data = sn_selection_criterion_common_read(eee);
peer->selection_criterion = (SN_SELECTION_CRITERION_DATA_TYPE)(be32toh(*data) + common_data);
common_data = sn_selection_criterion_common_read(eee);
peer->selection_criterion = (SN_SELECTION_CRITERION_DATA_TYPE)(be32toh(*data) + common_data);
/* Mitigation of the real supernode load in order to see less oscillations.
* Edges jump from a supernode to another back and forth due to purging.
* Because this behavior has a cost of switching, the real load is mitigated with a stickyness factor.
* This factor is dynamically calculated basing on network size and prevent that unnecessary switching */
if(peer == eee->curr_sn) {
sum = HASH_COUNT(eee->known_peers) + HASH_COUNT(eee->pending_peers);
peer->selection_criterion = peer->selection_criterion * sum / (sum + 1);
}
/* Mitigation of the real supernode load in order to see less oscillations.
* Edges jump from a supernode to another back and forth due to purging.
* Because this behavior has a cost of switching, the real load is mitigated with a stickyness factor.
* This factor is dynamically calculated basing on network size and prevent that unnecessary switching */
if(peer == eee->curr_sn) {
sum = HASH_COUNT(eee->known_peers) + HASH_COUNT(eee->pending_peers);
peer->selection_criterion = peer->selection_criterion * sum / (sum + 1);
}
return 0; /* OK */
return 0; /* OK */
}
/* Set sn_selection_criterion_common_data field to default value. */
int sn_selection_criterion_common_data_default (n2n_edge_t *eee) {
SN_SELECTION_CRITERION_DATA_TYPE tmp = 0;
SN_SELECTION_CRITERION_DATA_TYPE tmp = 0;
tmp = HASH_COUNT(eee->pending_peers);
if(eee->conf.header_encryption == HEADER_ENCRYPTION_ENABLED) {
tmp *= 2;
}
eee->sn_selection_criterion_common_data = tmp / HASH_COUNT(eee->conf.supernodes);
tmp = HASH_COUNT(eee->pending_peers);
if(eee->conf.header_encryption == HEADER_ENCRYPTION_ENABLED) {
tmp *= 2;
}
eee->sn_selection_criterion_common_data = tmp / HASH_COUNT(eee->conf.supernodes);
return 0; /* OK */
return 0; /* OK */
}
/* Return the value of sn_selection_criterion_common_data field. */
static SN_SELECTION_CRITERION_DATA_TYPE sn_selection_criterion_common_read (n2n_edge_t *eee) {
return eee->sn_selection_criterion_common_data;
return eee->sn_selection_criterion_common_data;
}
/* Function that compare two selection_criterion fields and sorts them in ascending order. */
static int sn_selection_criterion_sort (peer_info_t *a, peer_info_t *b) {
// comparison function for sorting supernodes in ascending order of their selection_criterion.
return (a->selection_criterion - b->selection_criterion);
// comparison function for sorting supernodes in ascending order of their selection_criterion.
return (a->selection_criterion - b->selection_criterion);
}
/* Function that sorts peer_list using sn_selection_criterion_sort. */
int sn_selection_sort (peer_info_t **peer_list) {
HASH_SORT(*peer_list, sn_selection_criterion_sort);
HASH_SORT(*peer_list, sn_selection_criterion_sort);
return 0; /* OK */
return 0; /* OK */
}
/* Function that gathers requested data on a supernode. */
SN_SELECTION_CRITERION_DATA_TYPE sn_selection_criterion_gather_data (n2n_sn_t *sss) {
SN_SELECTION_CRITERION_DATA_TYPE data = 0, tmp = 0;
struct sn_community *comm, *tmp_comm;
SN_SELECTION_CRITERION_DATA_TYPE data = 0, tmp = 0;
struct sn_community *comm, *tmp_comm;
HASH_ITER(hh, sss->communities, comm, tmp_comm) {
tmp = HASH_COUNT(comm->edges) + 1; /* number of nodes in the community + the community itself. */
if(comm->header_encryption == HEADER_ENCRYPTION_ENABLED) { /*double-count encrypted communities (and their nodes): they exert more load on supernode. */
tmp *= 2;
HASH_ITER(hh, sss->communities, comm, tmp_comm) {
tmp = HASH_COUNT(comm->edges) + 1; /* number of nodes in the community + the community itself. */
if(comm->header_encryption == HEADER_ENCRYPTION_ENABLED) { /*double-count encrypted communities (and their nodes): they exert more load on supernode. */
tmp *= 2;
}
data += tmp;
}
data += tmp;
}
return htobe32(data);
return htobe32(data);
}
/* Convert selection_criterion field in a string for management port output. */
extern char * sn_selection_criterion_str (selection_criterion_str_t out, peer_info_t *peer) {
if(NULL == out) {
return NULL;
}
memset(out, 0, SN_SELECTION_CRITERION_BUF_SIZE);
snprintf(out, SN_SELECTION_CRITERION_BUF_SIZE - 1, "ld = %d", (short int)(peer->selection_criterion));
if(NULL == out) {
return NULL;
}
memset(out, 0, SN_SELECTION_CRITERION_BUF_SIZE);
snprintf(out, SN_SELECTION_CRITERION_BUF_SIZE - 1, "ld = %d", (short int)(peer->selection_criterion));
return out;
return out;
}

2666
src/sn_utils.c

File diff suppressed because it is too large

600
src/wire.c

@ -8,7 +8,7 @@
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
@ -33,10 +33,10 @@ int encode_uint8 (uint8_t * base,
size_t * idx,
const uint8_t v) {
*(base + (*idx)) = (v & 0xff);
++(*idx);
*(base + (*idx)) = (v & 0xff);
++(*idx);
return 1;
return 1;
}
int decode_uint8 (uint8_t * out,
@ -44,26 +44,26 @@ int decode_uint8 (uint8_t * out,
size_t * rem,
size_t * idx) {
if(*rem < 1) {
return 0;
}
if(*rem < 1) {
return 0;
}
*out = ( base[*idx] & 0xff );
++(*idx);
--(*rem);
*out = ( base[*idx] & 0xff );
++(*idx);
--(*rem);
return 1;
return 1;
}
int encode_uint16 (uint8_t * base,
size_t * idx,
const uint16_t v) {
*(base + (*idx)) = ( v >> 8) & 0xff;
*(base + (1 + *idx)) = ( v & 0xff );
*idx += 2;
*(base + (*idx)) = ( v >> 8) & 0xff;
*(base + (1 + *idx)) = ( v & 0xff );
*idx += 2;
return 2;
return 2;
}
int decode_uint16 (uint16_t * out,
@ -71,29 +71,29 @@ int decode_uint16 (uint16_t * out,
size_t * rem,
size_t * idx) {
if (*rem < 2) {
return 0;
}
if (*rem < 2) {
return 0;
}
*out = ( base[*idx] & 0xff ) << 8;
*out |= ( base[1 + *idx] & 0xff );
*idx += 2;
*rem -= 2;
*out = ( base[*idx] & 0xff ) << 8;
*out |= ( base[1 + *idx] & 0xff );
*idx += 2;
*rem -= 2;
return 2;
return 2;
}
int encode_uint32 (uint8_t * base,
size_t * idx,
const uint32_t v) {
*(base + (0 + *idx)) = ( v >> 24) & 0xff;
*(base + (1 + *idx)) = ( v >> 16) & 0xff;
*(base + (2 + *idx)) = ( v >> 8) & 0xff;
*(base + (3 + *idx)) = ( v & 0xff );
*idx += 4;
*(base + (0 + *idx)) = ( v >> 24) & 0xff;
*(base + (1 + *idx)) = ( v >> 16) & 0xff;
*(base + (2 + *idx)) = ( v >> 8) & 0xff;
*(base + (3 + *idx)) = ( v & 0xff );
*idx += 4;
return 4;
return 4;
}
int decode_uint32 (uint32_t * out,
@ -101,28 +101,28 @@ int decode_uint32 (uint32_t * out,
size_t * rem,
size_t * idx) {
if (*rem < 4) {
return 0;
}
if (*rem < 4) {
return 0;
}
*out = ( base[0 + *idx] & 0xff ) << 24;
*out |= ( base[1 + *idx] & 0xff ) << 16;
*out |= ( base[2 + *idx] & 0xff ) << 8;
*out |= ( base[3 + *idx] & 0xff );
*idx += 4;
*rem -= 4;
*out = ( base[0 + *idx] & 0xff ) << 24;
*out |= ( base[1 + *idx] & 0xff ) << 16;
*out |= ( base[2 + *idx] & 0xff ) << 8;
*out |= ( base[3 + *idx] & 0xff );
*idx += 4;
*rem -= 4;
return 4;
return 4;
}
int encode_uint64 (uint8_t * base,
size_t * idx,
const uint64_t v) {
*(uint64_t*)(base + *idx) = htobe64(v);
*idx += 8;
*(uint64_t*)(base + *idx) = htobe64(v);
*idx += 8;
return 8;
return 8;
}
int decode_uint64 (uint64_t * out,
@ -130,15 +130,15 @@ int decode_uint64 (uint64_t * out,
size_t * rem,
size_t * idx) {
if (*rem < 8) {
return 0;
}
if (*rem < 8) {
return 0;
}
*out = be64toh(*(uint64_t*)base + *idx);
*idx += 8;
*rem -= 8;
*out = be64toh(*(uint64_t*)base + *idx);
*idx += 8;
*rem -= 8;
return 8;
return 8;
}
int encode_buf (uint8_t * base,
@ -146,10 +146,10 @@ int encode_buf (uint8_t * base,
const void * p,
size_t s) {
memcpy((base + (*idx)), p, s);
*idx += s;
memcpy((base + (*idx)), p, s);
*idx += s;
return s;
return s;
}
/* Copy from base to out of size bufsize */
@ -159,15 +159,15 @@ int decode_buf (uint8_t * out,
size_t * rem,
size_t * idx) {
if (*rem < bufsize) {
return 0;
}
if (*rem < bufsize) {
return 0;
}
memcpy(out, (base + *idx), bufsize);
*idx += bufsize;
*rem -= bufsize;
memcpy(out, (base + *idx), bufsize);
*idx += bufsize;
*rem -= bufsize;
return bufsize;
return bufsize;
}
@ -176,7 +176,7 @@ int encode_mac (uint8_t * base,
size_t * idx,
const n2n_mac_t m) {
return encode_buf(base, idx, m, N2N_MAC_SIZE);
return encode_buf(base, idx, m, N2N_MAC_SIZE);
}
int decode_mac (uint8_t * out, /* of size N2N_MAC_SIZE. This clearer than passing a n2n_mac_t */
@ -184,7 +184,7 @@ int decode_mac (uint8_t * out, /* of size N2N_MAC_SIZE. This clearer than passin
size_t * rem,
size_t * idx) {
return decode_buf(out, N2N_MAC_SIZE, base, rem, idx);
return decode_buf(out, N2N_MAC_SIZE, base, rem, idx);
}
@ -193,18 +193,18 @@ int encode_common (uint8_t * base,
size_t * idx,
const n2n_common_t * common) {
uint16_t flags = 0;
uint16_t flags = 0;
encode_uint8(base, idx, N2N_PKT_VERSION);
encode_uint8(base, idx, common->ttl);
encode_uint8(base, idx, N2N_PKT_VERSION);
encode_uint8(base, idx, common->ttl);
flags = common->pc & N2N_FLAGS_TYPE_MASK;
flags |= common->flags & N2N_FLAGS_BITS_MASK;
flags = common->pc & N2N_FLAGS_TYPE_MASK;
flags |= common->flags & N2N_FLAGS_BITS_MASK;
encode_uint16(base, idx, flags);
encode_buf(base, idx, common->community, N2N_COMMUNITY_SIZE);
encode_uint16(base, idx, flags);
encode_buf(base, idx, common->community, N2N_COMMUNITY_SIZE);
return -1;
return -1;
}
int decode_common (n2n_common_t * out,
@ -212,23 +212,23 @@ int decode_common (n2n_common_t * out,
size_t * rem,
size_t * idx) {
size_t idx0 = *idx;
uint8_t dummy = 0;
size_t idx0 = *idx;
uint8_t dummy = 0;
decode_uint8(&dummy, base, rem, idx);
decode_uint8(&dummy, base, rem, idx);
if (N2N_PKT_VERSION != dummy) {
return -1;
}
if(N2N_PKT_VERSION != dummy) {
return -1;
}
decode_uint8(&(out->ttl), base, rem, idx);
decode_uint16(&(out->flags), base, rem, idx);
out->pc = ( out->flags & N2N_FLAGS_TYPE_MASK );
out->flags &= N2N_FLAGS_BITS_MASK;
decode_uint8(&(out->ttl), base, rem, idx);
decode_uint16(&(out->flags), base, rem, idx);
out->pc = (out->flags & N2N_FLAGS_TYPE_MASK);
out->flags &= N2N_FLAGS_BITS_MASK;
decode_buf(out->community, N2N_COMMUNITY_SIZE, base, rem, idx);
decode_buf(out->community, N2N_COMMUNITY_SIZE, base, rem, idx);
return (*idx - idx0);
return (*idx - idx0);
}
@ -236,31 +236,31 @@ int encode_sock (uint8_t * base,
size_t * idx,
const n2n_sock_t * sock) {
int retval = 0;
uint16_t f;
switch(sock->family) {
case AF_INET: {
f = 0;
retval += encode_uint16(base, idx, f);
retval += encode_uint16(base, idx, sock->port);
retval += encode_buf(base, idx, sock->addr.v4, IPV4_SIZE);
break;
}
case AF_INET6: {
f = 0x8000;
retval += encode_uint16(base, idx, f);
retval += encode_uint16(base, idx, sock->port);
retval += encode_buf(base, idx, sock->addr.v6, IPV6_SIZE);
break;
int retval = 0;
uint16_t f;
switch(sock->family) {
case AF_INET: {
f = 0;
retval += encode_uint16(base, idx, f);
retval += encode_uint16(base, idx, sock->port);
retval += encode_buf(base, idx, sock->addr.v4, IPV4_SIZE);
break;
}
case AF_INET6: {
f = 0x8000;
retval += encode_uint16(base, idx, f);
retval += encode_uint16(base, idx, sock->port);
retval += encode_buf(base, idx, sock->addr.v6, IPV6_SIZE);
break;
}
default:
retval = -1;
}
default:
retval = -1;
}
return retval;
return retval;
}
@ -269,26 +269,26 @@ int decode_sock (n2n_sock_t * sock,
size_t * rem,
size_t * idx) {
size_t * idx0 = idx;
uint16_t f = 0;
size_t * idx0 = idx;
uint16_t f = 0;
decode_uint16(&f, base, rem, idx);
decode_uint16(&f, base, rem, idx);
if(f & 0x8000) {
if(f & 0x8000) {
/* IPv6 */
sock->family = AF_INET6;
decode_uint16(&(sock->port), base, rem, idx);
decode_buf(sock->addr.v6, IPV6_SIZE, base, rem, idx);
} else {
/* IPv4 */
sock->family = AF_INET;
decode_uint16(&(sock->port), base, rem, idx);
memset(sock->addr.v6, 0, IPV6_SIZE); /* so memcmp() works for equality. */
decode_buf(sock->addr.v4, IPV4_SIZE, base, rem, idx);
}
/* IPv6 */
sock->family = AF_INET6;
decode_uint16(&(sock->port), base, rem, idx);
decode_buf(sock->addr.v6, IPV6_SIZE, base, rem, idx);
} else {
/* IPv4 */
sock->family = AF_INET;
decode_uint16(&(sock->port), base, rem, idx);
memset(sock->addr.v6, 0, IPV6_SIZE); /* so memcmp() works for equality. */
decode_buf(sock->addr.v4, IPV4_SIZE, base, rem, idx);
}
return (idx-idx0);
return (idx - idx0);
}
@ -297,20 +297,20 @@ int encode_REGISTER (uint8_t *base,
const n2n_common_t *common,
const n2n_REGISTER_t *reg) {
int retval = 0;
int retval = 0;
retval += encode_common(base, idx, common);
retval += encode_buf(base, idx, reg->cookie, N2N_COOKIE_SIZE);
retval += encode_mac(base, idx, reg->srcMac);
retval += encode_mac(base, idx, reg->dstMac);
if(0 != reg->sock.family) {
retval += encode_sock(base, idx, &(reg->sock));
}
retval += encode_uint32(base, idx, reg->dev_addr.net_addr);
retval += encode_uint8(base, idx, reg->dev_addr.net_bitlen);
retval += encode_buf(base, idx, reg->dev_desc, N2N_DESC_SIZE);
retval += encode_common(base, idx, common);
retval += encode_buf(base, idx, reg->cookie, N2N_COOKIE_SIZE);
retval += encode_mac(base, idx, reg->srcMac);
retval += encode_mac(base, idx, reg->dstMac);
if(0 != reg->sock.family) {
retval += encode_sock(base, idx, &(reg->sock));
}
retval += encode_uint32(base, idx, reg->dev_addr.net_addr);
retval += encode_uint8(base, idx, reg->dev_addr.net_bitlen);
retval += encode_buf(base, idx, reg->dev_desc, N2N_DESC_SIZE);
return retval;
return retval;
}
@ -320,20 +320,20 @@ int decode_REGISTER (n2n_REGISTER_t *reg,
size_t *rem,
size_t *idx) {
size_t retval = 0;
memset(reg, 0, sizeof(n2n_REGISTER_t));
size_t retval = 0;
memset(reg, 0, sizeof(n2n_REGISTER_t));
retval += decode_buf(reg->cookie, N2N_COOKIE_SIZE, base, rem, idx);
retval += decode_mac(reg->srcMac, base, rem, idx);
retval += decode_mac(reg->dstMac, base, rem, idx);
if(cmn->flags & N2N_FLAGS_SOCKET) {
retval += decode_sock(&(reg->sock), base, rem, idx);
}
retval += decode_uint32(&(reg->dev_addr.net_addr), base, rem, idx);
retval += decode_uint8(&(reg->dev_addr.net_bitlen), base, rem, idx);
retval += decode_buf(reg->dev_desc, N2N_DESC_SIZE, base, rem, idx);
retval += decode_buf(reg->cookie, N2N_COOKIE_SIZE, base, rem, idx);
retval += decode_mac(reg->srcMac, base, rem, idx);
retval += decode_mac(reg->dstMac, base, rem, idx);
if(cmn->flags & N2N_FLAGS_SOCKET) {
retval += decode_sock(&(reg->sock), base, rem, idx);
}
retval += decode_uint32(&(reg->dev_addr.net_addr), base, rem, idx);
retval += decode_uint8(&(reg->dev_addr.net_bitlen), base, rem, idx);
retval += decode_buf(reg->dev_desc, N2N_DESC_SIZE, base, rem, idx);
return retval;
return retval;
}
@ -342,22 +342,22 @@ int encode_REGISTER_SUPER (uint8_t *base,
const n2n_common_t *common,
const n2n_REGISTER_SUPER_t *reg) {
int retval = 0;
int retval = 0;
retval += encode_common(base, idx, common);
retval += encode_buf(base, idx, reg->cookie, N2N_COOKIE_SIZE);
retval += encode_mac(base, idx, reg->edgeMac);
if(0 != reg->sock.family) {
retval += encode_sock(base, idx, &(reg->sock));
}
retval += encode_uint32(base, idx, reg->dev_addr.net_addr);
retval += encode_uint8(base, idx, reg->dev_addr.net_bitlen);
retval += encode_buf(base, idx, reg->dev_desc, N2N_DESC_SIZE);
retval += encode_uint16(base, idx, reg->auth.scheme);
retval += encode_uint16(base, idx, reg->auth.toksize);
retval += encode_buf(base, idx, reg->auth.token, reg->auth.toksize);
retval += encode_common(base, idx, common);
retval += encode_buf(base, idx, reg->cookie, N2N_COOKIE_SIZE);
retval += encode_mac(base, idx, reg->edgeMac);
if(0 != reg->sock.family) {
retval += encode_sock(base, idx, &(reg->sock));
}
retval += encode_uint32(base, idx, reg->dev_addr.net_addr);
retval += encode_uint8(base, idx, reg->dev_addr.net_bitlen);
retval += encode_buf(base, idx, reg->dev_desc, N2N_DESC_SIZE);
retval += encode_uint16(base, idx, reg->auth.scheme);
retval += encode_uint16(base, idx, reg->auth.toksize);
retval += encode_buf(base, idx, reg->auth.token, reg->auth.toksize);
return retval;
return retval;
}
@ -367,22 +367,22 @@ int decode_REGISTER_SUPER (n2n_REGISTER_SUPER_t *reg,
size_t *rem,
size_t *idx) {
size_t retval = 0;
memset(reg, 0, sizeof(n2n_REGISTER_SUPER_t));
size_t retval = 0;
memset(reg, 0, sizeof(n2n_REGISTER_SUPER_t));
retval += decode_buf(reg->cookie, N2N_COOKIE_SIZE, base, rem, idx);
retval += decode_mac(reg->edgeMac, base, rem, idx);
if(cmn->flags & N2N_FLAGS_SOCKET) {
retval += decode_sock(&(reg->sock), base, rem, idx);
}
retval += decode_uint32(&(reg->dev_addr.net_addr), base, rem, idx);
retval += decode_uint8(&(reg->dev_addr.net_bitlen), base, rem, idx);
retval += decode_buf(reg->dev_desc, N2N_DESC_SIZE, base, rem, idx);
retval += decode_uint16(&(reg->auth.scheme), base, rem, idx);
retval += decode_uint16(&(reg->auth.toksize), base, rem, idx);
retval += decode_buf(reg->auth.token, reg->auth.toksize, base, rem, idx);
retval += decode_buf(reg->cookie, N2N_COOKIE_SIZE, base, rem, idx);
retval += decode_mac(reg->edgeMac, base, rem, idx);
if(cmn->flags & N2N_FLAGS_SOCKET) {
retval += decode_sock(&(reg->sock), base, rem, idx);
}
retval += decode_uint32(&(reg->dev_addr.net_addr), base, rem, idx);
retval += decode_uint8(&(reg->dev_addr.net_bitlen), base, rem, idx);
retval += decode_buf(reg->dev_desc, N2N_DESC_SIZE, base, rem, idx);
retval += decode_uint16(&(reg->auth.scheme), base, rem, idx);
retval += decode_uint16(&(reg->auth.toksize), base, rem, idx);
retval += decode_buf(reg->auth.token, reg->auth.toksize, base, rem, idx);
return retval;
return retval;
}
@ -391,15 +391,15 @@ int encode_UNREGISTER_SUPER (uint8_t *base,
const n2n_common_t *common,
const n2n_UNREGISTER_SUPER_t *unreg) {
int retval = 0;
int retval = 0;
retval += encode_common(base, idx, common);
retval += encode_uint16(base, idx, unreg->auth.scheme);
retval += encode_uint16(base, idx, unreg->auth.toksize);
retval += encode_buf(base, idx, unreg->auth.token, unreg->auth.toksize);
retval += encode_mac(base, idx, unreg->srcMac);
retval += encode_common(base, idx, common);
retval += encode_uint16(base, idx, unreg->auth.scheme);
retval += encode_uint16(base, idx, unreg->auth.toksize);
retval += encode_buf(base, idx, unreg->auth.token, unreg->auth.toksize);
retval += encode_mac(base, idx, unreg->srcMac);
return retval;
return retval;
}
@ -409,15 +409,15 @@ int decode_UNREGISTER_SUPER (n2n_UNREGISTER_SUPER_t *unreg,
size_t *rem,
size_t *idx) {
size_t retval = 0;
memset(unreg, 0, sizeof(n2n_UNREGISTER_SUPER_t));
size_t retval = 0;
memset(unreg, 0, sizeof(n2n_UNREGISTER_SUPER_t));
retval += decode_uint16(&(unreg->auth.scheme), base, rem, idx);
retval += decode_uint16(&(unreg->auth.toksize), base, rem, idx);
retval += decode_buf(unreg->auth.token, unreg->auth.toksize, base, rem, idx);
retval += decode_mac(unreg->srcMac, base, rem, idx);
retval += decode_uint16(&(unreg->auth.scheme), base, rem, idx);
retval += decode_uint16(&(unreg->auth.toksize), base, rem, idx);
retval += decode_buf(unreg->auth.token, unreg->auth.toksize, base, rem, idx);
retval += decode_mac(unreg->srcMac, base, rem, idx);
return retval;
return retval;
}
@ -426,21 +426,21 @@ int encode_REGISTER_ACK (uint8_t *base,
const n2n_common_t *common,
const n2n_REGISTER_ACK_t *reg) {
int retval = 0;
int retval = 0;
retval += encode_common(base, idx, common);
retval += encode_buf(base, idx, reg->cookie, N2N_COOKIE_SIZE);
retval += encode_mac(base, idx, reg->dstMac);
retval += encode_mac(base, idx, reg->srcMac);
retval += encode_common(base, idx, common);
retval += encode_buf(base, idx, reg->cookie, N2N_COOKIE_SIZE);
retval += encode_mac(base, idx, reg->dstMac);
retval += encode_mac(base, idx, reg->srcMac);
/* The socket in REGISTER_ACK is the socket from which the REGISTER
* arrived. This is sent back to the sender so it knows what its public
* socket is. */
if(0 != reg->sock.family) {
retval += encode_sock(base, idx, &(reg->sock));
}
/* The socket in REGISTER_ACK is the socket from which the REGISTER
* arrived. This is sent back to the sender so it knows what its public
* socket is. */
if(0 != reg->sock.family) {
retval += encode_sock(base, idx, &(reg->sock));
}
return retval;
return retval;
}
@ -450,21 +450,21 @@ int decode_REGISTER_ACK (n2n_REGISTER_ACK_t *reg,
size_t *rem,
size_t *idx) {
size_t retval = 0;
memset(reg, 0, sizeof(n2n_REGISTER_ACK_t));
size_t retval = 0;
memset(reg, 0, sizeof(n2n_REGISTER_ACK_t));
retval += decode_buf(reg->cookie, N2N_COOKIE_SIZE, base, rem, idx);
retval += decode_mac(reg->dstMac, base, rem, idx);
retval += decode_mac(reg->srcMac, base, rem, idx);
retval += decode_buf(reg->cookie, N2N_COOKIE_SIZE, base, rem, idx);
retval += decode_mac(reg->dstMac, base, rem, idx);
retval += decode_mac(reg->srcMac, base, rem, idx);
/* The socket in REGISTER_ACK is the socket from which the REGISTER
* arrived. This is sent back to the sender so it knows what its public
* socket is. */
if(cmn->flags & N2N_FLAGS_SOCKET) {
retval += decode_sock(&(reg->sock), base, rem, idx);
}
/* The socket in REGISTER_ACK is the socket from which the REGISTER
* arrived. This is sent back to the sender so it knows what its public
* socket is. */
if(cmn->flags & N2N_FLAGS_SOCKET) {
retval += decode_sock(&(reg->sock), base, rem, idx);
}
return retval;
return retval;
}
@ -474,19 +474,19 @@ int encode_REGISTER_SUPER_ACK (uint8_t *base,
const n2n_REGISTER_SUPER_ACK_t *reg,
uint8_t *tmpbuf) {
int retval = 0;
int retval = 0;
retval += encode_common(base, idx, common);
retval += encode_buf(base, idx, reg->cookie, N2N_COOKIE_SIZE);
retval += encode_mac(base, idx, reg->edgeMac);
retval += encode_uint32(base, idx, reg->dev_addr.net_addr);
retval += encode_uint8(base, idx, reg->dev_addr.net_bitlen);
retval += encode_uint16(base, idx, reg->lifetime);
retval += encode_sock(base, idx, &(reg->sock));
retval += encode_uint8(base, idx, reg->num_sn);
retval += encode_buf(base, idx, tmpbuf, (reg->num_sn*REG_SUPER_ACK_PAYLOAD_ENTRY_SIZE));
retval += encode_common(base, idx, common);
retval += encode_buf(base, idx, reg->cookie, N2N_COOKIE_SIZE);
retval += encode_mac(base, idx, reg->edgeMac);
retval += encode_uint32(base, idx, reg->dev_addr.net_addr);
retval += encode_uint8(base, idx, reg->dev_addr.net_bitlen);
retval += encode_uint16(base, idx, reg->lifetime);
retval += encode_sock(base, idx, &(reg->sock));
retval += encode_uint8(base, idx, reg->num_sn);
retval += encode_buf(base, idx, tmpbuf, (reg->num_sn*REG_SUPER_ACK_PAYLOAD_ENTRY_SIZE));
return retval;
return retval;
}
@ -497,23 +497,23 @@ int decode_REGISTER_SUPER_ACK (n2n_REGISTER_SUPER_ACK_t *reg,
size_t *idx,
uint8_t *tmpbuf) {
size_t retval = 0;
memset(reg, 0, sizeof(n2n_REGISTER_SUPER_ACK_t));
size_t retval = 0;
memset(reg, 0, sizeof(n2n_REGISTER_SUPER_ACK_t));
retval += decode_buf(reg->cookie, N2N_COOKIE_SIZE, base, rem, idx);
retval += decode_mac(reg->edgeMac, base, rem, idx);
retval += decode_uint32(&(reg->dev_addr.net_addr), base, rem, idx);
retval += decode_uint8(&(reg->dev_addr.net_bitlen), base, rem, idx);
retval += decode_uint16(&(reg->lifetime), base, rem, idx);
retval += decode_buf(reg->cookie, N2N_COOKIE_SIZE, base, rem, idx);
retval += decode_mac(reg->edgeMac, base, rem, idx);
retval += decode_uint32(&(reg->dev_addr.net_addr), base, rem, idx);
retval += decode_uint8(&(reg->dev_addr.net_bitlen), base, rem, idx);
retval += decode_uint16(&(reg->lifetime), base, rem, idx);
/* Socket is mandatory in this message type */
retval += decode_sock(&(reg->sock), base, rem, idx);
/* Socket is mandatory in this message type */
retval += decode_sock(&(reg->sock), base, rem, idx);
/* Following the edge socket are an array of backup supernodes. */
retval += decode_uint8(&(reg->num_sn), base, rem, idx);
retval += decode_buf(tmpbuf, (reg->num_sn*REG_SUPER_ACK_PAYLOAD_ENTRY_SIZE), base, rem, idx);
/* Following the edge socket are an array of backup supernodes. */
retval += decode_uint8(&(reg->num_sn), base, rem, idx);
retval += decode_buf(tmpbuf, (reg->num_sn * REG_SUPER_ACK_PAYLOAD_ENTRY_SIZE), base, rem, idx);
return retval;
return retval;
}
@ -522,13 +522,13 @@ int encode_REGISTER_SUPER_NAK (uint8_t *base,
const n2n_common_t *common,
const n2n_REGISTER_SUPER_NAK_t *nak) {
int retval = 0;
int retval = 0;
retval += encode_common(base, idx, common);
retval += encode_buf(base, idx, nak->cookie, N2N_COOKIE_SIZE);
retval += encode_mac(base, idx, nak->srcMac);
retval += encode_common(base, idx, common);
retval += encode_buf(base, idx, nak->cookie, N2N_COOKIE_SIZE);
retval += encode_mac(base, idx, nak->srcMac);
return retval;
return retval;
}
@ -538,13 +538,13 @@ int decode_REGISTER_SUPER_NAK (n2n_REGISTER_SUPER_NAK_t *nak,
size_t *rem,
size_t *idx) {
size_t retval = 0;
memset(nak, 0, sizeof(n2n_REGISTER_SUPER_NAK_t));
size_t retval = 0;
memset(nak, 0, sizeof(n2n_REGISTER_SUPER_NAK_t));
retval += decode_buf(nak->cookie, N2N_COOKIE_SIZE, base, rem, idx);
retval += decode_mac(nak->srcMac, base, rem, idx);
retval += decode_buf(nak->cookie, N2N_COOKIE_SIZE, base, rem, idx);
retval += decode_mac(nak->srcMac, base, rem, idx);
return retval;
return retval;
}
@ -552,19 +552,19 @@ int fill_sockaddr (struct sockaddr * addr,
size_t addrlen,
const n2n_sock_t * sock) {
int retval = -1;
int retval = -1;
if(AF_INET == sock->family) {
if(addrlen >= sizeof(struct sockaddr_in)) {
struct sockaddr_in * si = (struct sockaddr_in *)addr;
si->sin_family = sock->family;
si->sin_port = htons(sock->port);
memcpy(&(si->sin_addr.s_addr), sock->addr.v4, IPV4_SIZE);
retval = 0;
if(AF_INET == sock->family) {
if(addrlen >= sizeof(struct sockaddr_in)) {
struct sockaddr_in * si = (struct sockaddr_in *)addr;
si->sin_family = sock->family;
si->sin_port = htons(sock->port);
memcpy(&(si->sin_addr.s_addr), sock->addr.v4, IPV4_SIZE);
retval = 0;
}
}
}
return retval;
return retval;
}
@ -573,18 +573,18 @@ int encode_PACKET (uint8_t * base,
const n2n_common_t * common,
const n2n_PACKET_t * pkt) {
int retval = 0;
int retval = 0;
retval += encode_common(base, idx, common);
retval += encode_mac(base, idx, pkt->srcMac);
retval += encode_mac(base, idx, pkt->dstMac);
if(0 != pkt->sock.family) {
retval += encode_sock(base, idx, &(pkt->sock));
}
retval += encode_uint8(base, idx, pkt->compression);
retval += encode_uint8(base, idx, pkt->transform);
retval += encode_common(base, idx, common);
retval += encode_mac(base, idx, pkt->srcMac);
retval += encode_mac(base, idx, pkt->dstMac);
if(0 != pkt->sock.family) {
retval += encode_sock(base, idx, &(pkt->sock));
}
retval += encode_uint8(base, idx, pkt->compression);
retval += encode_uint8(base, idx, pkt->transform);
return retval;
return retval;
}
@ -594,20 +594,20 @@ int decode_PACKET (n2n_PACKET_t * pkt,
size_t * rem,
size_t * idx) {
size_t retval = 0;
memset(pkt, 0, sizeof(n2n_PACKET_t));
size_t retval = 0;
memset(pkt, 0, sizeof(n2n_PACKET_t));
retval += decode_mac(pkt->srcMac, base, rem, idx);
retval += decode_mac(pkt->dstMac, base, rem, idx);
retval += decode_mac(pkt->srcMac, base, rem, idx);
retval += decode_mac(pkt->dstMac, base, rem, idx);
if(cmn->flags & N2N_FLAGS_SOCKET) {
retval += decode_sock(&(pkt->sock), base, rem, idx);
}
if(cmn->flags & N2N_FLAGS_SOCKET) {
retval += decode_sock(&(pkt->sock), base, rem, idx);
}
retval += decode_uint8(&(pkt->compression), base, rem, idx);
retval += decode_uint8(&(pkt->transform), base, rem, idx);
retval += decode_uint8(&(pkt->compression), base, rem, idx);
retval += decode_uint8(&(pkt->transform), base, rem, idx);
return retval;
return retval;
}
@ -616,16 +616,16 @@ int encode_PEER_INFO (uint8_t *base,
const n2n_common_t *common,
const n2n_PEER_INFO_t *pkt) {
int retval = 0;
int retval = 0;
retval += encode_common(base, idx, common);
retval += encode_uint16(base, idx, pkt->aflags);
retval += encode_mac(base, idx, pkt->srcMac);
retval += encode_mac(base, idx, pkt->mac);
retval += encode_sock(base, idx, &pkt->sock);
retval += encode_buf(base, idx, &pkt->data, sizeof(SN_SELECTION_CRITERION_DATA_TYPE));
retval += encode_common(base, idx, common);
retval += encode_uint16(base, idx, pkt->aflags);
retval += encode_mac(base, idx, pkt->srcMac);
retval += encode_mac(base, idx, pkt->mac);
retval += encode_sock(base, idx, &pkt->sock);
retval += encode_buf(base, idx, &pkt->data, sizeof(SN_SELECTION_CRITERION_DATA_TYPE));
return retval;
return retval;
}
@ -635,16 +635,16 @@ int decode_PEER_INFO (n2n_PEER_INFO_t *pkt,
size_t *rem,
size_t *idx) {
size_t retval = 0;
memset(pkt, 0, sizeof(n2n_PEER_INFO_t));
size_t retval = 0;
memset(pkt, 0, sizeof(n2n_PEER_INFO_t));
retval += decode_uint16(&(pkt->aflags), base, rem, idx);
retval += decode_mac(pkt->srcMac, base, rem, idx);
retval += decode_mac(pkt->mac, base, rem, idx);
retval += decode_sock(&pkt->sock, base, rem, idx);
retval += decode_buf((uint8_t*)&pkt->data, sizeof(SN_SELECTION_CRITERION_DATA_TYPE), base, rem, idx);
retval += decode_uint16(&(pkt->aflags), base, rem, idx);
retval += decode_mac(pkt->srcMac, base, rem, idx);
retval += decode_mac(pkt->mac, base, rem, idx);
retval += decode_sock(&pkt->sock, base, rem, idx);
retval += decode_buf((uint8_t*)&pkt->data, sizeof(SN_SELECTION_CRITERION_DATA_TYPE), base, rem, idx);
return retval;
return retval;
}
@ -653,13 +653,13 @@ int encode_QUERY_PEER (uint8_t * base,
const n2n_common_t * common,
const n2n_QUERY_PEER_t * pkt) {
int retval = 0;
int retval = 0;
retval += encode_common(base, idx, common);
retval += encode_mac(base, idx, pkt->srcMac);
retval += encode_mac(base, idx, pkt->targetMac);
retval += encode_common(base, idx, common);
retval += encode_mac(base, idx, pkt->srcMac);
retval += encode_mac(base, idx, pkt->targetMac);
return retval;
return retval;
}
int decode_QUERY_PEER (n2n_QUERY_PEER_t * pkt,
@ -668,11 +668,11 @@ int decode_QUERY_PEER (n2n_QUERY_PEER_t * pkt,
size_t * rem,
size_t * idx) {
size_t retval = 0;
memset(pkt, 0, sizeof(n2n_QUERY_PEER_t));
size_t retval = 0;
memset(pkt, 0, sizeof(n2n_QUERY_PEER_t));
retval += decode_mac(pkt->srcMac, base, rem, idx);
retval += decode_mac(pkt->targetMac, base, rem, idx);
retval += decode_mac(pkt->srcMac, base, rem, idx);
retval += decode_mac(pkt->targetMac, base, rem, idx);
return retval;
return retval;
}

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