/*
* we may need to check for version mismatch
*/
int
build_st(struct iptables_target *target, struct ipt_entry_target *t)
{
unsigned int nfcache = 0;
if (target) {
size_t size;
size =
IPT_ALIGN(sizeof (struct ipt_entry_target)) + target->size;
if (NULL == t) {
target->t = fw_calloc(1, size);
target->t->u.target_size = size;
if (target->init != NULL)
target->init(target->t, &nfcache);
set_revision(target->t->u.user.name, target->revision);
} else {
target->t = t;
}
strcpy(target->t->u.user.name, target->name);
return 0;
}
return -1;
}
/*
* we may need to check for version mismatch
*/
int
build_st(struct xtables_target *target, struct xt_entry_target *t)
{
size_t size =
XT_ALIGN(sizeof(struct xt_entry_target)) + target->size;
if (t == NULL) {
target->t = fw_calloc(1, size);
target->t->u.target_size = size;
strcpy(target->t->u.user.name, target->name);
set_revision(target->t->u.user.name, target->revision);
if (target->init != NULL)
target->init(target->t);
} else {
target->t = t;
}
return 0;
}
static EContact *
do_create (EBookBackendVCF *bvcf,
const gchar *vcard_req,
gboolean dirty_the_file)
{
gchar *id;
EContact *contact;
gchar *vcard;
const gchar *rev;
/* at the very least we need the unique_id generation to be
protected by the lock, even if the actual vcard parsing
isn't. */
g_mutex_lock (bvcf->priv->mutex);
id = e_book_backend_vcf_create_unique_id ();
contact = e_contact_new_from_vcard (vcard_req);
e_contact_set (contact, E_CONTACT_UID, id);
g_free (id);
rev = e_contact_get_const (contact, E_CONTACT_REV);
if (!(rev && *rev))
set_revision (contact);
vcard = e_vcard_to_string (E_VCARD (contact), EVC_FORMAT_VCARD_30);
insert_contact (bvcf, vcard);
if (dirty_the_file) {
bvcf->priv->dirty = TRUE;
if (!bvcf->priv->flush_timeout_tag)
bvcf->priv->flush_timeout_tag = g_timeout_add (FILE_FLUSH_TIMEOUT,
vcf_flush_file, bvcf);
}
g_mutex_unlock (bvcf->priv->mutex);
return contact;
}
bool Blockchain::AssignAddress(
const Identifier& nymID,
const Identifier& accountID,
const std::uint32_t index,
const Identifier& contactID,
const BIP44Chain chain) const
{
LOCK_ACCOUNT()
const std::string sNymID = nymID.str();
const std::string sAccountID = accountID.str();
const std::string sContactID = contactID.str();
auto account = load_account(accountLock, sNymID, sAccountID);
if (false == bool(account)) {
otErr << OT_METHOD << __FUNCTION__ << ": Account does not exist."
<< std::endl;
return false;
}
const auto& type = account->type();
const auto allocatedIndex =
chain ? account->internalindex() : account->externalindex();
if (index > allocatedIndex) {
otErr << OT_METHOD << __FUNCTION__
<< ": Address has not been allocated." << std::endl;
return false;
}
auto& address = find_address(index, chain, *account);
const auto& existing = address.contact();
if (false == existing.empty()) {
move_transactions(nymID, address, existing, sContactID);
}
address.set_contact(sContactID);
account->set_revision(account->revision() + 1);
// check: does the activity thread exist between nym and contact?
bool threadExists = false;
const auto threadList = api_.Storage().ThreadList(sNymID, false);
for (const auto it : threadList) {
const auto& id = it.first;
if (id == sContactID) { threadExists = true; }
}
if (threadExists) {
// check: does every incoming transaction exist as an activity
std::shared_ptr<proto::StorageThread> thread =
activity_.Thread(nymID, contactID);
OT_ASSERT(thread);
for (const std::string& txID : address.incoming()) {
bool exists = false;
for (const auto activity : thread->item())
if (txID.compare(activity.id()) == 0) exists = true;
// add: transaction to the thread
if (!exists) {
activity_.AddBlockchainTransaction(
nymID,
contactID,
StorageBox::INCOMINGBLOCKCHAIN,
*Transaction(txID));
}
}
} else {
// create the thread and add the transactions
for (const auto txID : address.incoming()) {
activity_.AddBlockchainTransaction(
nymID,
contactID,
StorageBox::INCOMINGBLOCKCHAIN,
*Transaction(txID));
}
}
return api_.Storage().Store(sNymID, type, *account);
}
