static
void pmt_callback(int status,
struct tssp_section_listener *listener,
struct tssp_section *section,
void *userdata)
{
struct tssp_pmt *pmt;
struct tssp_pmt_es *es;
#if 0
printf("#### %s() called\n", __FUNCTION__);
#endif
pmt = tssp_pmt_parse(section);
tssp_section_destroy(section);
if (pmt == NULL)
return;
printf("PMT: program_number(0x%04x), version(%d), current_next(%d)\n",
pmt->program_number, pmt->version, pmt->current_next);
STAILQ_FOREACH(es, &pmt->es_list, entry)
printf(" type(0x%02x), pid(0x%04x)\n", es->type, es->pid);
tssp_pmt_destroy(pmt);
}
static int
fix_deps(struct pkgdb *db, struct deps_head *dh, int nbpkgs, bool yes)
{
struct pkg_jobs *jobs = NULL;
struct deps_entry *e = NULL;
char **pkgs = NULL;
int i = 0;
pkg_flags f = PKG_FLAG_AUTOMATIC;
assert(db != NULL);
assert(nbpkgs > 0);
if ((pkgs = calloc(nbpkgs, MAXPATHLEN + 1)) == NULL)
err(1, "calloc()");
STAILQ_FOREACH(e, dh, next)
pkgs[i++] = e->origin;
if (pkgdb_open(&db, PKGDB_REMOTE) != EPKG_OK) {
free(pkgs);
return (EPKG_ENODB);
}
if (pkg_jobs_new(&jobs, PKG_JOBS_INSTALL, db) != EPKG_OK) {
free(pkgs);
return (EPKG_FATAL);
}
pkg_jobs_set_flags(jobs, f);
if (pkg_jobs_add(jobs, MATCH_EXACT, pkgs, nbpkgs) == EPKG_FATAL) {
pkg_jobs_free(jobs);
return (EPKG_FATAL);
}
if (pkg_jobs_solve(jobs) != EPKG_OK) {
pkg_jobs_free(jobs);
return (EPKG_FATAL);
}
if (pkg_jobs_count(jobs) == 0) {
printf("\nUnable to find packages for installation.\n\n");
pkg_jobs_free(jobs);
return (EPKG_FATAL);
}
/* print a summary before applying the jobs */
print_jobs_summary(jobs, "The following packages will be installed:\n\n");
if (yes == false)
yes = query_yesno("\n>>> Try to fix the missing dependencies [y/N]: ");
if (yes == true)
pkg_jobs_apply(jobs);
free(pkgs);
pkg_jobs_free(jobs);
return (EPKG_OK);
}
static
void dump_descriptors(struct tssp_descriptors *descriptors, int depth)
{
struct tssp_descriptor *desc;
STAILQ_FOREACH(desc, descriptors, entry)
dump_descriptor(desc, depth);
}
static int
fix_deps(struct pkgdb *db, struct deps_head *dh, int nbpkgs, bool yes)
{
struct pkg *pkg = NULL;
struct pkgdb_it *it = NULL;
struct pkg_jobs *jobs = NULL;
struct deps_entry *e = NULL;
char **pkgs = NULL;
int i = 0;
assert(db != NULL);
assert(nbpkgs > 0);
if ((pkgs = calloc(nbpkgs, MAXPATHLEN + 1)) == NULL)
err(1, "calloc()");
STAILQ_FOREACH(e, dh, next)
pkgs[i++] = e->origin;
if (pkgdb_open(&db, PKGDB_REMOTE) != EPKG_OK)
return (EPKG_ENODB);
if (pkg_jobs_new(&jobs, PKG_JOBS_INSTALL, db) != EPKG_OK)
free(pkgs);
if ((it = pkgdb_query_installs(db, MATCH_EXACT, nbpkgs, pkgs, NULL, false)) == NULL) {
free(pkgs);
pkg_jobs_free(jobs);
}
while (pkgdb_it_next(it, &pkg, PKG_LOAD_BASIC|PKG_LOAD_DEPS) == EPKG_OK) {
pkg_jobs_add(jobs, pkg);
pkg = NULL;
}
if (pkg_jobs_is_empty(jobs)) {
printf("\n>>> Unable to find packages for installation.\n\n");
return (EPKG_FATAL);
}
/* print a summary before applying the jobs */
pkg = NULL;
print_jobs_summary(jobs, PKG_JOBS_INSTALL, "The following packages will be installed:\n\n");
if (yes == false)
yes = query_yesno("\n>>> Try to fix the missing dependencies [y/N]: ");
if (yes == true)
pkg_jobs_apply(jobs, 0);
free(pkgs);
pkg_free(pkg);
pkg_jobs_free(jobs);
pkgdb_it_free(it);
return (EPKG_OK);
}
void notify(RECOVERY_STATUS status, int error, const char *msg)
{
struct notify_elem *elem;
STAILQ_FOREACH(elem, &clients, next)
(elem->client)(status, error, msg);
}
static void
snmp_dump_enumpairs(struct enum_pairs *headp)
{
struct enum_pair *entry;
if (headp == NULL)
return;
fprintf(stderr,"enums: ");
STAILQ_FOREACH(entry, headp, link)
fprintf(stderr,"%d - %s, ", entry->enum_val,
(entry->enum_str == NULL)?"NULL":entry->enum_str);
fprintf(stderr,"; ");
}
static void
status()
{
spa_t *spa;
spa = STAILQ_FIRST(&zfs_pools);
if (spa == NULL) {
printf("%s found no pools\n", zfs_module.name);
return;
}
printf("%s found the following pools:", zfs_module.name);
STAILQ_FOREACH(spa, &zfs_pools, spa_link)
printf(" %s", spa->spa_name);
printf("\n");
}
void wifi_scan_done(void *arg, STATUS status) {
if (status == OK) {
STAILQ_HEAD(, bss_info) *info = arg;
struct bss_info *p;
const char **ssids;
int n = 0;
STAILQ_FOREACH(p, info, next) n++;
ssids = calloc(n + 1, sizeof(*ssids));
if (ssids == NULL) {
LOG(LL_ERROR, ("Out of memory"));
return;
}
n = 0;
STAILQ_FOREACH(p, info, next) {
int i;
/* Remove duplicates */
for (i = 0; i < n; i++) {
if (strcmp(ssids[i], (const char *) p->ssid) == 0) break;
}
if (i == n) ssids[n++] = (const char *) p->ssid;
}
void init_table(struct Table *table) {
struct Backend *iter;
STAILQ_FOREACH(iter, &table->backends, entries)
init_backend(iter);
}
void
efi_getsmap(void)
{
UINTN size, desc_size, key;
EFI_MEMORY_DESCRIPTOR *efi_mmap, *p;
EFI_PHYSICAL_ADDRESS addr;
EFI_STATUS status;
STAILQ_HEAD(smap_head, smap_buf) head =
STAILQ_HEAD_INITIALIZER(head);
struct smap_buf *cur, *next;
int i, n, ndesc;
int type = -1;
size = 0;
efi_mmap = NULL;
status = BS->GetMemoryMap(&size, efi_mmap, &key, &desc_size, NULL);
efi_mmap = malloc(size);
status = BS->GetMemoryMap(&size, efi_mmap, &key, &desc_size, NULL);
if (EFI_ERROR(status)) {
printf("GetMemoryMap: error %lu\n", EFI_ERROR_CODE(status));
free(efi_mmap);
return;
}
STAILQ_INIT(&head);
n = 0;
i = 0;
p = efi_mmap;
next = NULL;
ndesc = size / desc_size;
while (i < ndesc) {
if (next == NULL) {
next = malloc(sizeof(*next));
if (next == NULL)
break;
next->sb_smap.base = p->PhysicalStart;
next->sb_smap.length =
p->NumberOfPages << EFI_PAGE_SHIFT;
/*
* ACPI 6.1 tells the lower memory should be
* reported as normal memory, so we enforce
* page 0 type even as vmware maps it as
* acpi reclaimable.
*/
if (next->sb_smap.base == 0)
type = SMAP_TYPE_MEMORY;
else
type = smap_type(p->Type);
next->sb_smap.type = type;
STAILQ_INSERT_TAIL(&head, next, sb_bufs);
n++;
p = NextMemoryDescriptor(p, desc_size);
i++;
continue;
}
addr = next->sb_smap.base + next->sb_smap.length;
if ((smap_type(p->Type) == type) &&
(p->PhysicalStart == addr)) {
next->sb_smap.length +=
(p->NumberOfPages << EFI_PAGE_SHIFT);
p = NextMemoryDescriptor(p, desc_size);
i++;
} else
next = NULL;
}
smaplen = n;
if (smaplen > 0) {
smapbase = malloc(smaplen * sizeof(*smapbase));
if (smapbase != NULL) {
n = 0;
STAILQ_FOREACH(cur, &head, sb_bufs)
smapbase[n++] = cur->sb_smap;
}
cur = STAILQ_FIRST(&head);
while (cur != NULL) {
next = STAILQ_NEXT(cur, sb_bufs);
free(cur);
cur = next;
}
}
free(efi_mmap);
}
void
bios_getsmap(void)
{
struct smap_buf buf;
STAILQ_HEAD(smap_head, smap_buf) head =
STAILQ_HEAD_INITIALIZER(head);
struct smap_buf *cur, *next;
u_int n, x;
STAILQ_INIT(&head);
n = 0;
x = 0;
v86.ebx = 0;
do {
v86.ctl = V86_FLAGS;
v86.addr = 0x15;
v86.eax = 0xe820; /* int 0x15 function 0xe820 */
v86.ecx = SMAP_BUFSIZE;
v86.edx = SMAP_SIG;
v86.es = VTOPSEG(&buf);
v86.edi = VTOPOFF(&buf);
v86int();
if (V86_CY(v86.efl) || v86.eax != SMAP_SIG ||
v86.ecx < sizeof(buf.smap) || v86.ecx > SMAP_BUFSIZE)
break;
next = malloc(sizeof(*next));
if (next == NULL)
break;
next->smap = buf.smap;
if (v86.ecx == SMAP_BUFSIZE) {
next->xattr = buf.xattr;
x++;
}
STAILQ_INSERT_TAIL(&head, next, bufs);
n++;
} while (v86.ebx != 0);
smaplen = n;
if (smaplen > 0) {
smapbase = malloc(smaplen * sizeof(*smapbase));
if (smapbase != NULL) {
n = 0;
STAILQ_FOREACH(cur, &head, bufs)
smapbase[n++] = cur->smap;
}
if (smaplen == x) {
smapattr = malloc(smaplen * sizeof(*smapattr));
if (smapattr != NULL) {
n = 0;
STAILQ_FOREACH(cur, &head, bufs)
smapattr[n++] = cur->xattr &
SMAP_XATTR_MASK;
}
} else
smapattr = NULL;
cur = STAILQ_FIRST(&head);
while (cur != NULL) {
next = STAILQ_NEXT(cur, bufs);
free(cur);
cur = next;
}
}
}
static int
fix_deps(struct pkgdb *db, struct deps_head *dh, int nbpkgs, bool yes)
{
struct pkg_jobs *jobs = NULL;
struct deps_entry *e = NULL;
char **pkgs = NULL;
int i = 0;
bool rc;
pkg_flags f = PKG_FLAG_AUTOMATIC;
assert(db != NULL);
assert(nbpkgs > 0);
if ((pkgs = calloc(nbpkgs, sizeof (char *))) == NULL)
err(1, "calloc()");
STAILQ_FOREACH(e, dh, next)
pkgs[i++] = e->origin;
if (pkgdb_open(&db, PKGDB_REMOTE) != EPKG_OK) {
free(pkgs);
return (EPKG_ENODB);
}
if (pkg_jobs_new(&jobs, PKG_JOBS_INSTALL, db) != EPKG_OK) {
goto cleanup;
}
pkg_jobs_set_flags(jobs, f);
if (pkg_jobs_add(jobs, MATCH_EXACT, pkgs, nbpkgs) == EPKG_FATAL) {
goto cleanup;
}
if (pkg_jobs_solve(jobs) != EPKG_OK) {
goto cleanup;
}
if (pkg_jobs_count(jobs) == 0) {
printf("\nUnable to find packages for installation.\n\n");
goto cleanup;
}
/* print a summary before applying the jobs */
print_jobs_summary(jobs, "The following packages will be installed:\n\n");
rc = query_yesno(false, "\n>>> Try to fix the missing dependencies? [y/N]: ");
if (rc) {
if (pkgdb_access(PKGDB_MODE_WRITE, PKGDB_DB_LOCAL) ==
EPKG_ENOACCESS) {
warnx("Insufficient privileges to modify the package "
"database");
goto cleanup;
}
pkg_jobs_apply(jobs);
}
cleanup:
free(pkgs);
if (jobs != NULL)
pkg_jobs_free(jobs);
return (EPKG_OK);
}
void wifi_changed_cb(System_Event_t *evt) {
enum sj_wifi_status sj_ev = -1;
/* TODO(rojer): Share this logic between platforms. */
if (wifi_setting_up &&
#ifndef RTOS_SDK
evt->event == EVENT_STAMODE_GOT_IP
#else
evt->event_id == EVENT_STAMODE_GOT_IP
#endif
) {
struct station_config config;
v7_val_t res;
v7_val_t conf = v7_get(v7, v7_get_global_object(v7), "conf", ~0);
v7_val_t known, wifi;
if (v7_is_undefined(conf)) {
fprintf(stderr, "cannot save conf, no conf object\n");
return;
}
wifi = v7_get(v7, conf, "wifi", ~0);
if (v7_is_undefined(wifi)) {
wifi = v7_create_object(v7);
v7_set(v7, conf, "wifi", ~0, 0, wifi);
}
known = v7_get(v7, conf, "known", ~0);
if (v7_is_undefined(known)) {
known = v7_create_object(v7);
v7_set(v7, wifi, "known", ~0, 0, known);
}
wifi_station_get_config(&config);
v7_set(v7, known, (const char *) config.ssid, ~0, 0,
v7_create_string(v7, (const char *) config.password,
strlen((const char *) config.password), 1));
v7_exec(v7, "conf.save()", &res);
wifi_setting_up = 0;
}
#ifndef RTOS_SDK
switch (evt->event) {
#else
switch (evt->event_id) {
#endif
case EVENT_STAMODE_DISCONNECTED:
sj_ev = SJ_WIFI_DISCONNECTED;
break;
case EVENT_STAMODE_CONNECTED:
sj_ev = SJ_WIFI_CONNECTED;
break;
case EVENT_STAMODE_GOT_IP:
sj_ev = SJ_WIFI_IP_ACQUIRED;
break;
}
if (sj_ev >= 0) sj_wifi_on_change_callback(sj_ev);
}
char *sj_wifi_get_connected_ssid() {
struct station_config conf;
if (!wifi_station_get_config(&conf)) return NULL;
return strdup((const char *) conf.ssid);
}
char *sj_wifi_get_sta_ip() {
struct ip_info info;
char *ip;
if (!wifi_get_ip_info(0, &info) || info.ip.addr == 0) return NULL;
if (asprintf(&ip, IPSTR, IP2STR(&info.ip)) < 0) {
return NULL;
}
return ip;
}
void wifi_scan_done(void *arg, STATUS status) {
if (status == OK) {
STAILQ_HEAD(, bss_info) *info = arg;
struct bss_info *p;
const char **ssids;
int n = 0;
STAILQ_FOREACH(p, info, next) n++;
ssids = calloc(n + 1, sizeof(*ssids));
n = 0;
STAILQ_FOREACH(p, info, next) {
ssids[n++] = (const char *) p->ssid;
}
wifi_scan_cb(ssids);
free(ssids);
} else {
