void sort_str(const char *str)
{
char ar[100][100];
int index = 0;
int word = 0;
int start = 0;
int end = 0;
while (str[end] != '\0') {
if (my_isspace(str[end])) {
if (word == 1) {
word = 0;
str_ncpy(ar[index], str, start, end - 1);
index++;
}
} else if (word == 0){
word = 1;
start = end;
}
end++;
}
if (!my_isspace(--end)) {
str_ncpy(ar[index++], str, start, end);
}
sort_word(ar, index);
print_word(ar, index);
}
void flow_mediaflow_estab(struct flow *flow,
const char *crypto, const char *codec,
const char *ltype, const char *rtype,
const struct sa *sa)
{
uint64_t now = tmr_jiffies();
struct call *call = flow->call;
info("flowmgr(%p): call(%p): flow(%p -- %s): mediaflow established "
"est_st=%d crypto=%s codec=%s ice=%s-%s.%J\n",
call ? call->fm : NULL, call, flow, flow->flowid,
flow->est_st, crypto, codec, ltype, rtype, sa);
flow->estab = true;
flow->stats.sa = *sa;
flow->stats.estab_time = (int)(now - flow->startts);
str_ncpy(flow->stats.ltype, ltype, sizeof(flow->stats.ltype));
str_ncpy(flow->stats.rtype, rtype, sizeof(flow->stats.rtype));
str_ncpy(flow->stats.crypto, crypto, sizeof(flow->stats.crypto));
str_ncpy(flow->stats.codec, codec, sizeof(flow->stats.codec));
flow->estabts = tmr_jiffies();
flow->est_st |= FLOWMGR_ESTAB_ICE;
flow_estabh(flow);
}
static int cand_add(struct flow *flow, struct json_object *jcand)
{
const char *mid = jzon_str(jcand, "sdp_mid");
const char *rcand = jzon_str(jcand, "sdp");
int idx;
int err;
err = jzon_int(&idx, jcand, "sdp_mline_index");
if (err)
return err;
debug("cand_add: mid=%s idx=%d sdp=%s\n", mid, idx, rcand);
if (flow->got_sdp) {
struct mediaflow *mf = userflow_mediaflow(flow->userflow);
return mediaflow_add_rcand(mf, rcand, mid, idx);
}
else {
struct cand *cand = mem_zalloc(sizeof(*cand), cand_destructor);
if (!cand)
return ENOMEM;
str_ncpy(cand->sdp, rcand, sizeof(cand->sdp));
str_ncpy(cand->mid, mid, sizeof(cand->mid));
cand->idx = idx;
list_append(&flow->pendingl, &cand->le, cand);
return 0;
}
}
void audio_set_devicename(struct audio *a, const char *src, const char *play)
{
if (!a)
return;
str_ncpy(a->tx.device, src, sizeof(a->tx.device));
str_ncpy(a->rx.device, play, sizeof(a->rx.device));
}
void audio_set_tx_device(struct audio *a, const char *mod, const char *dev)
{
if (!a)
return;
str_ncpy(a->tx.mod, mod, sizeof(a->tx.mod));
str_ncpy(a->tx.device, dev, sizeof(a->tx.device));
}
static bool ini_parseKey(Ini* ini, char* line) {
int i = 0;
char key[256];
char value[1024];
int strLen = str_len(line);
bool keyFound = false;
Section* section;
key[0] = '\0';
value[0] = '\0';
for (i = 0; i < strLen; i++) {
if (keyFound) {
str_ncpy(value, (line + i), strLen - i);
value[strLen - i] = '\0';
break;
}
if ((line[i] == '=') && keyFound == false) {
keyFound = true;
str_ncpy(key, line, i);
key[i] = '\0';
continue;
}
}
str_trim(key);
str_trim(value);
if (str_len(key) == 0) {
logWarn("No key in line '%s'", line);
return false;
}
if (str_len(value) == 0) {
logWarn("No value in line '%s'", line);
return false;
}
if (ini->sections->size == 0) {
logWarn("There is no section to add the key");
return false;
}
// Get the last section added
section = (Section*)list_get(ini->sections, (ini->sections->size - 1));
return ini_addKey(ini, section, key, value);
}
/**
* Set the name of the ICE Media object, used for debugging
*
* @param icem ICE Media object
* @param name Media name
*/
void icem_set_name(struct icem *icem, const char *name)
{
if (!icem)
return;
str_ncpy(icem->name, name, sizeof(icem->name));
}
bool ini_addSection(Ini* ini, const char* sectionName) {
if (ini == NULL) {
logWarn("Invalid ini object");
return false;
}
if (sectionName == NULL) {
logWarn("Section name is NULL");
return false;
}
if (ini_get(ini, sectionName) != NULL) {
logWarn("Section '%s' already exist", sectionName);
return false;
}
Section* section = memory_new(Section, true);
str_ncpy(section->name, sectionName, sizeof(section->name));
section->keys = list_new(true);
section->values = list_new(true);
list_add(ini->sections, (Any)section);
return true;
}
void flow_delete(struct call *call, const char *flowid,
struct rr_resp *rr, int err)
{
char path[256];
char reason[64] = "released";
if (!call || !flowid)
return;
info("flowmgr(%p): call(%p): flow(%s): delete: err=%d\n",
call->fm, call, flowid, err);
switch(err) {
case ETIMEDOUT:
str_ncpy(reason, "timeout", sizeof(reason));
break;
default:
break;
}
snprintf(path, sizeof(path), CREQ_FLOWS"/%s?reason=%s",
call->convid, flowid, reason);
flowmgr_send_request(call->fm, call, rr, path,
HTTP_DELETE, NULL, NULL);
}
/**
* Get the path to configuration files
*
* @param path Buffer to write path
* @param sz Size of path buffer
*
* @return 0 if success, otherwise errorcode
*/
int conf_path_get(char *path, size_t sz)
{
char buf[FS_PATH_MAX];
int err;
/* Use explicit conf path */
if (conf_path) {
if (re_snprintf(path, sz, "%s", conf_path) < 0)
return ENOMEM;
return 0;
}
#ifdef CONFIG_PATH
str_ncpy(buf, CONFIG_PATH, sizeof(buf));
(void)err;
#else
err = fs_gethome(buf, sizeof(buf));
if (err)
return err;
#endif
if (re_snprintf(path, sz, "%s" DIR_SEP ".baresip", buf) < 0)
return ENOMEM;
return 0;
}
void expression(ecc_context *ctx, const char *token)
{
char previous_token[TOKEN_MAX];
if (token[0] == '-') {
/* okay, we have a "-(foo)" situation */
/* let's just slip-stream a zero. */
ctx->output_term(ctx, 0);
} else {
term(ctx, token);
}
while (1) {
token = ctx->lex_look_ahead(ctx);
if (!is_add_precedence_op(token)) {
break;
}
str_ncpy(previous_token, token, TOKEN_MAX);
ctx->lex_advance(ctx, 1);
token = ctx->lex_look_ahead(ctx);
term(ctx, token);
switch (previous_token[0]) {
case '+':
ctx->output_add(ctx);
break;
case '-':
ctx->output_subtract(ctx);
}
}
}
void term(ecc_context *ctx, const char *token)
{
char previous_token[TOKEN_MAX];
factor(ctx, token);
while (1) {
token = ctx->lex_look_ahead(ctx);
if (!is_multiply_precedence_op(token)) {
break;
}
str_ncpy(previous_token, token, TOKEN_MAX);
ctx->lex_advance(ctx, 1);
token = ctx->lex_look_ahead(ctx);
factor(ctx, token);
switch (previous_token[0]) {
case '*':
ctx->output_multiply(ctx);
break;
case '/':
ctx->output_divide(ctx);
}
}
}
int pf_create(struct pf **pfp, struct udp_sock *us, const char *name)
{
struct pf *pf;
int err;
if (!pfp || !us)
return EINVAL;
pf = mem_zalloc(sizeof(*pf), pf_destructor);
if (!pf)
return ENOMEM;
pf->us = mem_ref(us);
str_ncpy(pf->name, name, sizeof(pf->name));
err = udp_register_helper(&pf->uh, us,
-1000, /* very low layer */
pf_send_handler, pf_recv_handler, pf);
if (err)
mem_deref(pf);
else
*pfp = pf;
return err;
}
void
installer_init(struct installer *inst, char *appname)
{
assert(inst != NULL && appname != NULL);
DEBUG(LOG_VERBOSE, "Try to install %s\n", appname);
str_ncpy(inst->pname, appname, sizeof(inst->pname));
}
int dns_dname_decode(struct mbuf *mb, char **name, size_t start)
{
uint32_t i = 0, loopc = 0;
bool comp = false;
size_t pos = 0;
char buf[256];
if (!mb || !name)
return EINVAL;
while (mb->pos < mb->end) {
uint8_t len = mb->buf[mb->pos++];
if (!len) {
if (comp)
mb->pos = pos;
buf[i++] = '\0';
*name = mem_alloc(i, NULL);
if (!*name)
return ENOMEM;
str_ncpy(*name, buf, i);
return 0;
}
else if ((len & COMP_MASK) == COMP_MASK) {
uint16_t offset;
if (loopc++ > COMP_LOOP)
break;
--mb->pos;
offset = ntohs(mbuf_read_u16(mb)) & OFFSET_MASK;
if (!comp) {
pos = mb->pos;
comp = true;
}
mb->pos = offset + start;
continue;
}
else if (len > mbuf_get_left(mb))
break;
else if (len > sizeof(buf) - i - 2)
break;
if (i > 0)
buf[i++] = '.';
while (len--)
buf[i++] = mb->buf[mb->pos++];
}
return EINVAL;
}
void opus_mirror_params(const char *x)
{
if (!opus_mirror)
return;
info("opus: mirror parameters: \"%s\"\n", x);
str_ncpy(fmtp_mirror, x, sizeof(fmtp_mirror));
}
int callc get_initialization_info(unsigned long inforreq, void* outinfo, unsigned long* outsize)
{
if(inforreq == fennec_information_basic)
{
str_ncpy(outinfo, info_base, min(*outsize + 1, str_size(info_base) + sizeof(letter)));
*outsize = (unsigned long)str_size(info_base);
return 1;
}
return 0;
}
static int device_alloc(struct device **devicep, struct list *lst,
const char *name)
{
struct device *device;
CBoxResult rc;
char tmp[256], *dir;
int err = 0;
device = (struct device *)mem_zalloc(sizeof(*device),
device_destructor);
if (!device)
return ENOMEM;
str_ncpy(device->name, name, sizeof(device->name));
re_snprintf(tmp, sizeof(tmp), "/tmp/ztest_cbox_%s_XXXXXX", name);
dir = mkdtemp(tmp);
assert(dir != NULL);
str_ncpy(device->path, dir, sizeof(device->path));
rc = cbox_file_open(dir, &device->box);
assert(rc == CBOX_SUCCESS);
assert(device->box != NULL);
rc = cbox_new_prekey(device->box, 1, &device->prekey);
assert(rc == CBOX_SUCCESS);
list_append(lst, &device->le, device);
#if 0
re_printf("[ %s ] new device with prekey %zu bytes (%s)\n",
name, cbox_vec_len(device->prekey), device->path);
#endif
out:
if (err)
mem_deref(device);
else if (devicep)
*devicep = device;
return err;
}
/*
* Append module extension, if not exist
*
* input: foobar
* output: foobar.so
*
*/
static void append_extension(char *buf, size_t sz, const char *name)
{
if (0 == re_regex(name, str_len(name), "[^.]+"MOD_EXT, NULL)) {
str_ncpy(buf, name, sz);
}
else {
re_snprintf(buf, sz, "%s"MOD_EXT, name);
}
}
int callc encoder_get_initialization_info(unsigned long inforreq, void* outinfo, unsigned long* outsize)
{
if(inforreq == fennec_information_basic)
{
str_ncpy(outinfo, encoder_info_base, min(*outsize + 1, str_len(encoder_info_base) + 1));
*outsize = (unsigned long)str_len(encoder_info_base);
return 1;
}
return 0;
}
int trice_add_lcandidate(struct ice_lcand **candp,
struct trice *icem, struct list *lst,
unsigned compid, char *foundation, int proto,
uint32_t prio, const struct sa *addr,
const struct sa *base_addr,
enum ice_cand_type type,
const struct sa *rel_addr,
enum ice_tcptype tcptype)
{
struct ice_lcand *cand;
int err = 0;
if (!lst || !compid || !proto || !addr)
return EINVAL;
cand = mem_zalloc(sizeof(*cand), lcand_destructor);
if (!cand)
return ENOMEM;
cand->attr.compid = compid;
if (foundation)
str_ncpy(cand->attr.foundation, foundation,
sizeof(cand->attr.foundation));
else
err = compute_foundation(cand, addr, type);
cand->attr.proto = proto;
cand->attr.prio = prio;
cand->attr.addr = *addr;
cand->attr.type = type;
cand->attr.tcptype = tcptype;
if (rel_addr)
cand->attr.rel_addr = *rel_addr;
if (err)
goto out;
cand->icem = icem;
cand->recvh = trice_lcand_recv_handler;
cand->arg = icem;
if (base_addr)
cand->base_addr = *base_addr;
list_append(lst, &cand->le, cand);
out:
if (err)
mem_deref(cand);
else if (candp)
*candp = cand;
return err;
}
void
_cpu_info(void)
{
unsigned int *istr;
int oldbrand;
struct cpuid_result cpuid_r;
mem_zero(&cpu_i, sizeof(struct cpu_info));
_cpuid(CPUID_BASIC ,&cpuid_r);
istr = (unsigned int *) cpu_i.vendor_string;
istr[0] = cpuid_r.r_ebx;
istr[1] = cpuid_r.r_edx;
istr[2] = cpuid_r.r_ecx;
_cpuid(CPUID_FEATURE ,&cpuid_r);
cpu_i.version_information = cpuid_r.r_eax;
oldbrand = cpuid_r.r_ebx & 0x8;
cpu_i.feature_ecx = cpuid_r.r_ecx;
cpu_i.feature_edx = cpuid_r.r_edx;
_cpuid(CPUID_EXT_MAX, &cpuid_r);
if (cpuid_r.r_eax >= CPUID_EXT_BRAND3) {
int i = 0;
istr = (unsigned int *) cpu_i.brand_string;
_cpuid(CPUID_EXT_BRAND1, &cpuid_r);
istr[i++] = cpuid_r.r_eax;
istr[i++] = cpuid_r.r_ebx;
istr[i++] = cpuid_r.r_ecx;
istr[i++] = cpuid_r.r_edx;
_cpuid(CPUID_EXT_BRAND2, &cpuid_r);
istr[i++] = cpuid_r.r_eax;
istr[i++] = cpuid_r.r_ebx;
istr[i++] = cpuid_r.r_ecx;
istr[i++] = cpuid_r.r_edx;
_cpuid(CPUID_EXT_BRAND3, &cpuid_r);
istr[i++] = cpuid_r.r_eax;
istr[i++] = cpuid_r.r_ebx;
istr[i++] = cpuid_r.r_ecx;
istr[i++] = cpuid_r.r_edx;
} else {
if (oldbrand == 0 || oldbrand > 0x18) {
snprintf(cpu_i.brand_string, 54, "brand id %u", oldbrand);
} else {
str_ncpy(cpu_i.brand_string, cpu_old_brands[oldbrand], 54);
}
}
}
static int winwave_get_dev_name(unsigned int i, char name[32])
{
WAVEINCAPS wic;
int err = 0;
if (waveInGetDevCaps(i, &wic,
sizeof(WAVEINCAPS)) == MMSYSERR_NOERROR) {
str_ncpy(name, wic.szPname, 32);
}
else {
err = ENODEV;
}
return err;
}
static int add_candidate(struct agent *ag, const struct sa *addr,
int proto, enum ice_tcptype tcptype,
const char *ifname)
{
struct ice_lcand *lcand;
uint32_t prio;
int err;
prio = calc_prio(ICE_CAND_TYPE_HOST, proto, tcptype, sa_af(addr),
proto);
err = trice_lcand_add(&lcand, ag->icem, COMPID, proto,
prio, addr, NULL, ICE_CAND_TYPE_HOST, NULL,
tcptype, NULL, LAYER_ICE);
if (err) {
re_fprintf(stderr, "failed to add local candidate (%m)\n",
err);
return err;
}
str_ncpy(lcand->ifname, ifname, sizeof(lcand->ifname));
err = control_send_message(ag->cli, "a=candidate:%H\r\n",
ice_cand_attr_encode, &lcand->attr);
if (err)
return err;
/* gather SRFLX candidates */
if (ag->cli->param.stun_server) {
if (proto == IPPROTO_UDP ||
(proto == IPPROTO_TCP && tcptype != ICE_TCP_ACTIVE)) {
gather_srflx(ag, lcand, proto);
}
}
/* gather RELAY candidates, NOTE IPv4 only */
if (ag->cli->param.turn_server) {
if (proto == IPPROTO_UDP && sa_af(addr)==AF_INET) {
gather_relay(ag, lcand, IPPROTO_UDP);
gather_relay(ag, lcand, IPPROTO_TCP);
}
}
return err;
}
static bool if_getname_handler(const char *ifname, const struct sa *sa,
void *arg)
{
struct ifentry *ife = arg;
if (ife->af != sa_af(sa))
return false;
if (0 == sa_cmp(sa, ife->ip, SA_ADDR)) {
str_ncpy(ife->ifname, ifname, ife->sz);
ife->found = true;
return true;
}
return false;
}
int device_connect(struct device **devp, const char *device,
struct auplay_st *auplay, struct ausrc_st *ausrc)
{
struct device *dev;
int err = 0;
if (!devp)
return EINVAL;
if (!str_isset(device))
return ENODEV;
dev = find_device(device);
if (dev) {
*devp = mem_ref(dev);
}
else {
dev = mem_zalloc(sizeof(*dev), destructor);
if (!dev)
return ENOMEM;
str_ncpy(dev->name, device, sizeof(dev->name));
hash_append(ht_device, hash_joaat_str(device), &dev->le, dev);
*devp = dev;
debug("aubridge: created device '%s'\n", device);
}
if (auplay)
dev->auplay = auplay;
if (ausrc)
dev->ausrc = ausrc;
/* wait until we have both SRC+PLAY */
if (dev->ausrc && dev->auplay && !dev->run) {
dev->run = true;
err = pthread_create(&dev->thread, NULL, device_thread, dev);
if (err) {
dev->run = false;
}
}
return err;
}
static int get_srtp_key_info(const struct dtls_flow *tc, char *name, size_t sz,
struct key *client_key, struct key *server_key)
{
SRTP_PROTECTION_PROFILE *sel;
const char *keymatexportlabel = "EXTRACTOR-dtls_srtp";
uint8_t exportedkeymat[1024], *p;
int keymatexportlen;
size_t kl = 128, sl = 112;
sel = SSL_get_selected_srtp_profile(tc->ssl);
if (!sel)
return ENOENT;
str_ncpy(name, sel->name, sz);
kl /= 8;
sl /= 8;
keymatexportlen = (int)(kl + sl)*2;
if (keymatexportlen != 60) {
warning("dtls: expected 60 bits, but keying material is %d\n",
keymatexportlen);
return EINVAL;
}
if (!SSL_export_keying_material(tc->ssl, exportedkeymat,
keymatexportlen,
keymatexportlabel,
strlen(keymatexportlabel),
NULL, 0, 0)) {
return ENOENT;
}
p = exportedkeymat;
memcpy(client_key->key, p, kl); p += kl;
memcpy(server_key->key, p, kl); p += kl;
memcpy(client_key->salt, p, sl); p += sl;
memcpy(server_key->salt, p, sl); p += sl;
client_key->key_len = server_key->key_len = kl;
client_key->salt_len = server_key->salt_len = sl;
return 0;
}
void test_str_ncpy()
{
const char *src = "foo";
char dest[80];
char *result, *expected_result;
dest[60] = 'X';
check_unsigned_int(sizeof(dest), 80);
check_char(dest[60], 'X');
result = str_ncpy(dest, src, sizeof(dest));
check_strs(dest, src, "1");
check_ptrs(result, dest, "2");
check_chars(dest[60], '\0', "should null-out rest of buffer");
expected_result = strncpy(dest, src, sizeof(dest));
check_strs(dest, src, "3");
check_ptrs(result, expected_result, "4");
}
void stack_name_add(names_stack *stack, const char *name)
{
names_list *names_lists;
const char **old_names;
const char **names;
char *new_buffer;
unsigned int size;
unsigned int i;
names_lists = stack->names_lists[stack->names_lists_c - 1];
old_names = names_lists->names;
size = sizeof(const char *) * (names_lists->names_c + 1);
names = (const char **)heap_malloc(size);
if (!names) {
err_msg("malloc char**\n");
die();
}
for (i = 0; i < names_lists->names_c; i++) {
names[i] = old_names[i];
}
if (old_names) {
heap_free(old_names);
}
size = sizeof(char) * str_nlen(name, 100) + 1;
new_buffer = (char *)heap_malloc(size);
if (!new_buffer) {
err_msg("malloc char*\n");
die();
}
names[names_lists->names_c] = new_buffer;
str_ncpy(new_buffer, name, size);
names_lists->names = names;
names_lists->names_c++;
}
static int src_alloc(struct vidsrc_st **stp, const struct vidsrc *vs,
struct media_ctx **ctx, struct vidsrc_prm *prm,
const struct vidsz *size, const char *fmt,
const char *dev, vidsrc_frame_h *frameh,
vidsrc_error_h *errorh, void *arg)
{
struct vidsrc_st *st;
int err = 0;
(void)ctx;
(void)prm;
(void)fmt;
(void)errorh;
(void)arg;
if (!stp || !size || !frameh)
return EINVAL;
st = mem_zalloc(sizeof(*st), src_destructor);
if (!st)
return ENOMEM;
st->vs = vs;
/* NOTE: copy instance data into global space */
if (str_isset(dev))
str_ncpy(v4l2.device, dev, sizeof(v4l2.device));
v4l2.width = size->w;
v4l2.height = size->h;
if (err)
mem_deref(st);
else
*stp = st;
return err;
}
