static void
put_record (struct GNUNET_NAMESTORE_PluginFunctions *nsp, int id)
{
struct GNUNET_CRYPTO_RsaPublicKeyBinaryEncoded zone_key;
struct GNUNET_TIME_Absolute expire;
char name[64];
unsigned int rd_count = 1 + (id % 1024);
struct GNUNET_NAMESTORE_RecordData rd[rd_count];
struct GNUNET_CRYPTO_RsaSignature signature;
unsigned int i;
GNUNET_snprintf (name, sizeof (name),
"a%u", (unsigned int ) id);
expire = GNUNET_TIME_relative_to_absolute (GNUNET_TIME_UNIT_MINUTES);
for (i=0;i<rd_count;i++)
{
rd[i].data = "Hello World";
rd[i].data_size = id % 10;
rd[i].expiration_time = GNUNET_TIME_relative_to_absolute (GNUNET_TIME_UNIT_MINUTES).abs_value;
rd[i].record_type = 1 + (id % 13);
rd[i].flags = (id % 7);
}
memset (&zone_key, (id % 241), sizeof (zone_key));
memset (&signature, (id % 243), sizeof (signature));
GNUNET_assert (GNUNET_OK == nsp->put_records (nsp->cls,
&zone_key,
expire,
name,
rd_count,
rd,
&signature));
}
/**
* Returns the expiration time of the given block of records. The block
* expiration time is the expiration time of the record with smallest
* expiration time.
*
* @param rd_count number of records given in @a rd
* @param rd array of records
* @return absolute expiration time
*/
struct GNUNET_TIME_Absolute
GNUNET_GNSRECORD_record_get_expiration_time (unsigned int rd_count,
const struct GNUNET_GNSRECORD_Data *rd)
{
unsigned int c;
unsigned int c2;
struct GNUNET_TIME_Absolute expire;
struct GNUNET_TIME_Absolute at;
struct GNUNET_TIME_Relative rt;
struct GNUNET_TIME_Absolute at_shadow;
struct GNUNET_TIME_Relative rt_shadow;
if (NULL == rd)
return GNUNET_TIME_UNIT_ZERO_ABS;
expire = GNUNET_TIME_UNIT_FOREVER_ABS;
for (c = 0; c < rd_count; c++)
{
if (0 != (rd[c].flags & GNUNET_GNSRECORD_RF_RELATIVE_EXPIRATION))
{
rt.rel_value_us = rd[c].expiration_time;
at = GNUNET_TIME_relative_to_absolute (rt);
}
else
{
at.abs_value_us = rd[c].expiration_time;
}
for (c2 = 0; c2 < rd_count; c2++)
{
/* Check for shadow record */
if ((c == c2) ||
(rd[c].record_type != rd[c2].record_type) ||
(0 == (rd[c2].flags & GNUNET_GNSRECORD_RF_SHADOW_RECORD)))
continue;
/* We have a shadow record */
if (0 != (rd[c2].flags & GNUNET_GNSRECORD_RF_RELATIVE_EXPIRATION))
{
rt_shadow.rel_value_us = rd[2].expiration_time;
at_shadow = GNUNET_TIME_relative_to_absolute (rt_shadow);
}
else
{
at_shadow.abs_value_us = rd[c2].expiration_time;
}
at = GNUNET_TIME_absolute_max (at, at_shadow);
}
expire = GNUNET_TIME_absolute_min (at, expire);
}
LOG (GNUNET_ERROR_TYPE_DEBUG,
"Determined expiration time for block with %u records to be %s\n",
rd_count,
GNUNET_STRINGS_absolute_time_to_string (expire));
return expire;
}
/**
* Do address validation again to keep address valid.
*
* @param cls the 'struct ValidationEntry'
* @param tc scheduler context (unused)
*/
static void
revalidate_address (void *cls, const struct GNUNET_SCHEDULER_TaskContext *tc)
{
struct ValidationEntry *ve = cls;
struct GNUNET_TIME_Relative canonical_delay;
struct GNUNET_TIME_Relative delay;
struct GST_BlacklistCheck *bc;
uint32_t rdelay;
ve->revalidation_task = GNUNET_SCHEDULER_NO_TASK;
delay = GNUNET_TIME_absolute_get_remaining (ve->revalidation_block);
/* How long until we can possibly permit the next PING? */
canonical_delay =
(ve->in_use ==
GNUNET_YES) ? CONNECTED_PING_FREQUENCY
: ((GNUNET_TIME_absolute_get_remaining (ve->valid_until).rel_value >
0) ? VALIDATED_PING_FREQUENCY : UNVALIDATED_PING_KEEPALIVE);
if (delay.rel_value > canonical_delay.rel_value * 2)
{
/* situation changed, recalculate delay */
delay = canonical_delay;
ve->revalidation_block = GNUNET_TIME_relative_to_absolute (delay);
}
if (delay.rel_value > 0)
{
/* should wait a bit longer */
ve->revalidation_task =
GNUNET_SCHEDULER_add_delayed (delay, &revalidate_address, ve);
return;
}
ve->revalidation_block = GNUNET_TIME_relative_to_absolute (canonical_delay);
/* schedule next PINGing with some extra random delay to avoid synchronous re-validations */
rdelay =
GNUNET_CRYPTO_random_u32 (GNUNET_CRYPTO_QUALITY_WEAK,
canonical_delay.rel_value);
delay =
GNUNET_TIME_relative_add (canonical_delay,
GNUNET_TIME_relative_multiply
(GNUNET_TIME_UNIT_MILLISECONDS, rdelay));
ve->revalidation_task =
GNUNET_SCHEDULER_add_delayed (delay, &revalidate_address, ve);
/* start PINGing by checking blacklist */
GNUNET_STATISTICS_update (GST_stats,
gettext_noop ("# address revalidations started"), 1,
GNUNET_NO);
bc = GST_blacklist_test_allowed (&ve->pid, ve->address->transport_name,
&transmit_ping_if_allowed, ve);
if (NULL != bc)
ve->bc = bc; /* only set 'bc' if 'transmit_ping_if_allowed' was not already
* called... */
}
/**
* Modify the given DNS record by asking VPN to create a tunnel
* to the given address. When done, continue with submitting
* other records from the request context ('submit_request' is
* our continuation).
*
* @param rc context to process
* @param rec record to modify
*/
static void
modify_address (struct ReplyContext *rc,
struct GNUNET_DNSPARSER_Record *rec)
{
int af;
switch (rec->type)
{
case GNUNET_DNSPARSER_TYPE_A:
af = AF_INET;
GNUNET_assert (rec->data.raw.data_len == sizeof (struct in_addr));
break;
case GNUNET_DNSPARSER_TYPE_AAAA:
af = AF_INET6;
GNUNET_assert (rec->data.raw.data_len == sizeof (struct in6_addr));
break;
default:
GNUNET_assert (0);
return;
}
rc->rec = rec;
rc->rr = GNUNET_VPN_redirect_to_ip (vpn_handle,
af, af,
rec->data.raw.data,
GNUNET_NO /* nac */,
GNUNET_TIME_relative_to_absolute (TIMEOUT),
&vpn_allocation_callback,
rc);
}
/**
* Return information about a specific peer or all peers currently known to
* transport service once or in monitoring mode. To obtain information about
* a specific peer, a peer identity can be passed. To obtain information about
* all peers currently known to transport service, NULL can be passed as peer
* identity.
*
* For each peer, the callback is called with information about the address used
* to communicate with this peer, the state this peer is currently in and the
* the current timeout for this state.
*
* Upon completion, the 'GNUNET_TRANSPORT_PeerIterateCallback' is called one
* more time with 'NULL'. After this, the operation must no longer be
* explicitly canceled.
*
* The #GNUNET_TRANSPORT_monitor_peers_cancel call MUST not be called in the
* the peer_callback!
*
* @param cfg configuration to use
* @param peer a specific peer identity to obtain information for,
* NULL for all peers
* @param one_shot GNUNET_YES to return the current state and then end (with NULL+NULL),
* GNUNET_NO to monitor peers continuously
* @param timeout how long is the lookup allowed to take at most
* @param peer_callback function to call with the results
* @param peer_callback_cls closure for peer_address_callback
*/
struct GNUNET_TRANSPORT_PeerMonitoringContext *
GNUNET_TRANSPORT_monitor_peers (const struct GNUNET_CONFIGURATION_Handle *cfg,
const struct GNUNET_PeerIdentity *peer,
int one_shot,
struct GNUNET_TIME_Relative timeout,
GNUNET_TRANSPORT_PeerIterateCallback peer_callback,
void *peer_callback_cls)
{
struct GNUNET_TRANSPORT_PeerMonitoringContext *pal_ctx;
struct GNUNET_CLIENT_Connection *client;
client = GNUNET_CLIENT_connect ("transport", cfg);
if (client == NULL)
return NULL;
if (GNUNET_YES != one_shot)
timeout = GNUNET_TIME_UNIT_FOREVER_REL;
pal_ctx = GNUNET_new (struct GNUNET_TRANSPORT_PeerMonitoringContext);
pal_ctx->cb = peer_callback;
pal_ctx->cb_cls = peer_callback_cls;
pal_ctx->cfg = cfg;
pal_ctx->timeout = GNUNET_TIME_relative_to_absolute (timeout);
if (NULL != peer)
pal_ctx->peer = *peer;
pal_ctx->one_shot = one_shot;
pal_ctx->client = client;
send_peer_mon_request (pal_ctx);
return pal_ctx;
}
/**
* Return information about pending address validation operations for a specific
* or all peers
*
* @param cfg configuration to use
* @param peer a specific peer identity to obtain validation entries for,
* NULL for all peers
* @param one_shot #GNUNET_YES to return all entries and then end (with NULL+NULL),
* #GNUNET_NO to monitor validation entries continuously
* @param timeout how long is the lookup allowed to take at most
* @param validation_callback function to call with the results
* @param validation_callback_cls closure for peer_address_callback
*/
struct GNUNET_TRANSPORT_ValidationMonitoringContext *
GNUNET_TRANSPORT_monitor_validation_entries (const struct GNUNET_CONFIGURATION_Handle *cfg,
const struct GNUNET_PeerIdentity *peer,
int one_shot,
struct GNUNET_TIME_Relative timeout,
GNUNET_TRANSPORT_ValidationIterateCallback validation_callback,
void *validation_callback_cls)
{
struct GNUNET_TRANSPORT_ValidationMonitoringContext *val_ctx;
struct GNUNET_CLIENT_Connection *client;
client = GNUNET_CLIENT_connect ("transport", cfg);
if (NULL == client)
return NULL;
if (GNUNET_YES != one_shot)
timeout = GNUNET_TIME_UNIT_FOREVER_REL;
val_ctx = GNUNET_new (struct GNUNET_TRANSPORT_ValidationMonitoringContext);
val_ctx->cb = validation_callback;
val_ctx->cb_cls = validation_callback_cls;
val_ctx->cfg = cfg;
val_ctx->timeout = GNUNET_TIME_relative_to_absolute (timeout);
if (NULL != peer)
val_ctx->peer = *peer;
val_ctx->one_shot = one_shot;
val_ctx->client = client;
send_val_mon_request (val_ctx);
return val_ctx;
}
static void
run (void *cls,
const struct GNUNET_CONFIGURATION_Handle *cfg,
struct GNUNET_TESTING_Peer *peer)
{
struct GNUNET_HashCode hash;
char *data;
size_t data_size = 42;
GNUNET_assert (ok == 1);
OKPP;
die_task =
GNUNET_SCHEDULER_add_delayed (GNUNET_TIME_relative_multiply
(GNUNET_TIME_UNIT_MINUTES, 1), &end_badly,
NULL);
memset (&hash, 42, sizeof (struct GNUNET_HashCode));
data = GNUNET_malloc (data_size);
memset (data, 43, data_size);
GNUNET_log (GNUNET_ERROR_TYPE_DEBUG, "Called test_put!\n");
dht_handle = GNUNET_DHT_connect (cfg, 100);
GNUNET_assert (dht_handle != NULL);
GNUNET_DHT_put (dht_handle, &hash, 1, GNUNET_DHT_RO_NONE,
GNUNET_BLOCK_TYPE_TEST, data_size, data,
GNUNET_TIME_relative_to_absolute (TOTAL_TIMEOUT),
&test_get, NULL);
GNUNET_free (data);
}
/**
* Transmit the given message to the given target.
*
* @param target peer that should receive the message (must be connected)
* @param msg message to transmit
* @param timeout by when should the transmission be done?
*/
void
GSC_NEIGHBOURS_transmit (const struct GNUNET_PeerIdentity *target,
const struct GNUNET_MessageHeader *msg,
struct GNUNET_TIME_Relative timeout)
{
struct NeighbourMessageEntry *me;
struct Neighbour *n;
size_t msize;
n = find_neighbour (target);
if (NULL == n)
{
GNUNET_break (0);
GNUNET_log (GNUNET_ERROR_TYPE_ERROR,
"Peer %s not found\n",
GNUNET_i2s (target));
return;
}
msize = ntohs (msg->size);
me = GNUNET_malloc (sizeof (struct NeighbourMessageEntry) + msize);
me->deadline = GNUNET_TIME_relative_to_absolute (timeout);
me->size = msize;
memcpy (&me[1],
msg,
msize);
GNUNET_CONTAINER_DLL_insert_tail (n->message_head,
n->message_tail,
me);
n->queue_size++;
process_queue (n);
}
static void
sks_cont (void *cls, const struct GNUNET_FS_Uri *uri, const char *emsg)
{
struct GNUNET_CONTAINER_MetaData *meta;
struct GNUNET_FS_Uri *ksk_uri;
char *msg;
struct GNUNET_FS_BlockOptions bo;
if (NULL == uri)
{
fprintf (stderr, "Error publishing: %s\n", emsg);
err = 1;
GNUNET_FS_stop (fs);
return;
}
meta = GNUNET_CONTAINER_meta_data_create ();
msg = NULL;
ksk_uri = GNUNET_FS_uri_parse ("gnunet://fs/ksk/ns-search", &msg);
GNUNET_assert (NULL == msg);
ksk_expect_uri = GNUNET_FS_uri_dup (uri);
bo.content_priority = 1;
bo.anonymity_level = 1;
bo.replication_level = 0;
bo.expiration_time =
GNUNET_TIME_relative_to_absolute (GNUNET_TIME_UNIT_MINUTES);
GNUNET_FS_publish_ksk (fs, ksk_uri, meta, uri, &bo,
GNUNET_FS_PUBLISH_OPTION_NONE, &publish_cont, NULL);
GNUNET_FS_uri_destroy (ksk_uri);
GNUNET_CONTAINER_meta_data_destroy (meta);
}
/**
* Convenience API that combines sending a request
* to the service and waiting for a response.
* If either operation times out, the callback
* will be called with a "NULL" response (in which
* case the connection should probably be destroyed).
*
* @param client connection to use
* @param hdr message to transmit
* @param timeout when to give up (for both transmission
* and for waiting for a response)
* @param auto_retry if the connection to the service dies, should we
* automatically re-connect and retry (within the timeout period)
* or should we immediately fail in this case? Pass GNUNET_YES
* if the caller does not care about temporary connection errors,
* for example because the protocol is stateless
* @param rn function to call with the response
* @param rn_cls closure for rn
* @return GNUNET_OK on success, GNUNET_SYSERR if a request
* is already pending
*/
int
GNUNET_CLIENT_transmit_and_get_response (struct GNUNET_CLIENT_Connection *client,
const struct GNUNET_MessageHeader *hdr,
struct GNUNET_TIME_Relative timeout,
int auto_retry,
GNUNET_CLIENT_MessageHandler rn,
void *rn_cls)
{
struct TransmitGetResponseContext *tc;
uint16_t msize;
if (NULL != client->th)
return GNUNET_SYSERR;
GNUNET_assert (NULL == client->tag);
msize = ntohs (hdr->size);
tc = GNUNET_malloc (sizeof (struct TransmitGetResponseContext) + msize);
tc->client = client;
tc->hdr = (const struct GNUNET_MessageHeader *) &tc[1];
memcpy (&tc[1], hdr, msize);
tc->timeout = GNUNET_TIME_relative_to_absolute (timeout);
tc->rn = rn;
tc->rn_cls = rn_cls;
if (NULL ==
GNUNET_CLIENT_notify_transmit_ready (client, msize, timeout, auto_retry,
&transmit_for_response, tc))
{
GNUNET_break (0);
GNUNET_free (tc);
return GNUNET_SYSERR;
}
client->tag = tc;
return GNUNET_OK;
}
static void
put_record (struct GNUNET_NAMESTORE_PluginFunctions *nsp, int id)
{
struct GNUNET_CRYPTO_EcdsaPrivateKey zone_private_key;
char label[64];
unsigned int rd_count = 1 + (id % 1024);
struct GNUNET_GNSRECORD_Data rd[rd_count];
struct GNUNET_CRYPTO_EcdsaSignature signature;
unsigned int i;
GNUNET_snprintf (label, sizeof (label),
"a%u", (unsigned int ) id);
for (i=0;i<rd_count;i++)
{
rd[i].data = "Hello World";
rd[i].data_size = id % 10;
rd[i].expiration_time = GNUNET_TIME_relative_to_absolute (GNUNET_TIME_UNIT_MINUTES).abs_value_us;
rd[i].record_type = 1 + (id % 13);
rd[i].flags = 0;
}
memset (&zone_private_key, (id % 241), sizeof (zone_private_key));
memset (&signature, (id % 243), sizeof (signature));
GNUNET_assert (GNUNET_OK == nsp->store_records (nsp->cls,
&zone_private_key,
label,
rd_count,
rd));
}
/**
* Route the given request via the DHT. This includes updating
* the bloom filter and retransmission times, building the P2P
* message and initiating the routing operation.
*/
static void
transmit_request (struct ClientQueryRecord *cqr)
{
int32_t reply_bf_mutator;
struct GNUNET_CONTAINER_BloomFilter *reply_bf;
struct GNUNET_CONTAINER_BloomFilter *peer_bf;
GNUNET_STATISTICS_update (GDS_stats,
gettext_noop
("# GET requests from clients injected"), 1,
GNUNET_NO);
reply_bf_mutator =
(int32_t) GNUNET_CRYPTO_random_u32 (GNUNET_CRYPTO_QUALITY_WEAK,
UINT32_MAX);
reply_bf =
GNUNET_BLOCK_construct_bloomfilter (reply_bf_mutator, cqr->seen_replies,
cqr->seen_replies_count);
peer_bf =
GNUNET_CONTAINER_bloomfilter_init (NULL, DHT_BLOOM_SIZE,
GNUNET_CONSTANTS_BLOOMFILTER_K);
LOG (GNUNET_ERROR_TYPE_DEBUG,
"Initiating GET for %s, replication %u, already have %u replies\n",
GNUNET_h2s(&cqr->key), cqr->replication, cqr->seen_replies_count);
GDS_NEIGHBOURS_handle_get (cqr->type, cqr->msg_options, cqr->replication,
0 /* hop count */ ,
&cqr->key, cqr->xquery, cqr->xquery_size, reply_bf,
reply_bf_mutator, peer_bf);
GNUNET_CONTAINER_bloomfilter_free (reply_bf);
GNUNET_CONTAINER_bloomfilter_free (peer_bf);
/* exponential back-off for retries.
* max GNUNET_TIME_STD_EXPONENTIAL_BACKOFF_THRESHOLD (15 min) */
cqr->retry_frequency = GNUNET_TIME_STD_BACKOFF (cqr->retry_frequency);
cqr->retry_time = GNUNET_TIME_relative_to_absolute (cqr->retry_frequency);
}
/**
* Receive data from the given connection. Note that this function will
* call "receiver" asynchronously using the scheduler. It will
* "immediately" return. Note that there MUST only be one active
* receive call per connection at any given point in time (so do not
* call receive again until the receiver callback has been invoked).
*
* @param connection connection handle
* @param max maximum number of bytes to read
* @param timeout maximum amount of time to wait
* @param receiver function to call with received data
* @param receiver_cls closure for receiver
*/
void
GNUNET_CONNECTION_receive (struct GNUNET_CONNECTION_Handle *connection, size_t max,
struct GNUNET_TIME_Relative timeout,
GNUNET_CONNECTION_Receiver receiver,
void *receiver_cls)
{
GNUNET_assert ((GNUNET_SCHEDULER_NO_TASK == connection->read_task) &&
(NULL == connection->receiver));
GNUNET_assert (NULL != receiver);
connection->receiver = receiver;
connection->receiver_cls = receiver_cls;
connection->receive_timeout = GNUNET_TIME_relative_to_absolute (timeout);
connection->max = max;
if (NULL != connection->sock)
{
connection->read_task =
GNUNET_SCHEDULER_add_read_net (GNUNET_TIME_absolute_get_remaining
(connection->receive_timeout), connection->sock,
&receive_ready, connection);
return;
}
if ((NULL == connection->dns_active) && (NULL == connection->ap_head))
{
connection->receiver = NULL;
receiver (receiver_cls, NULL, 0, NULL, 0, ETIMEDOUT);
return;
}
}
/**
* Request a list of running services.
*
* @param h handle to ARM
* @param timeout how long to wait before failing for good
* @param cont callback to invoke after request is sent or is not sent
* @param cont_cls closure for callback
*/
void
GNUNET_ARM_request_service_list (struct GNUNET_ARM_Handle *h,
struct GNUNET_TIME_Relative timeout,
GNUNET_ARM_ServiceListCallback cont,
void *cont_cls)
{
struct ARMControlMessage *cm;
struct GNUNET_ARM_Message *msg;
LOG (GNUNET_ERROR_TYPE_DEBUG,
"Requesting LIST from ARM service with timeout: %s\n",
GNUNET_STRINGS_relative_time_to_string (timeout, GNUNET_YES));
cm = GNUNET_new (struct ARMControlMessage);
cm->h = h;
cm->list_cont = cont;
cm->cont_cls = cont_cls;
cm->timeout = GNUNET_TIME_relative_to_absolute (timeout);
msg = GNUNET_malloc (sizeof (struct GNUNET_ARM_Message));
msg->header.size = htons (sizeof (struct GNUNET_ARM_Message));
msg->header.type = htons (GNUNET_MESSAGE_TYPE_ARM_LIST);
msg->reserved = htonl (0);
cm->msg = msg;
GNUNET_CONTAINER_DLL_insert_tail (h->control_pending_head,
h->control_pending_tail, cm);
cm->timeout_task_id =
GNUNET_SCHEDULER_add_delayed (GNUNET_TIME_absolute_get_remaining
(cm->timeout), &control_message_timeout, cm);
trigger_next_request (h, GNUNET_NO);
}
static void
run (void *cls,
const struct GNUNET_CONFIGURATION_Handle *cfg,
struct GNUNET_TESTING_Peer *peer)
{
struct CpsRunContext *crc;
static struct GNUNET_HashCode zkey;
datastore = GNUNET_DATASTORE_connect (cfg);
start_time = GNUNET_TIME_absolute_get ();
crc = GNUNET_malloc (sizeof (struct CpsRunContext));
crc->cfg = cfg;
crc->phase = RP_PUT;
if (NULL ==
GNUNET_DATASTORE_put (datastore, 0, &zkey, 4, "TEST",
GNUNET_BLOCK_TYPE_TEST, 0, 0, 0,
GNUNET_TIME_relative_to_absolute
(GNUNET_TIME_UNIT_SECONDS), 0, 1,
GNUNET_TIME_UNIT_MINUTES, &run_tests, crc))
{
FPRINTF (stderr, "%s", "Test 'put' operation failed.\n");
ok = 1;
GNUNET_free (crc);
}
}
/**
* Signature of the main function of a task.
*
* @param cls closure
* @param success result of PUT
*/
static void
test_get (void *cls, int success)
{
struct GNUNET_HashCode hash;
memset (&hash,
42,
sizeof (struct GNUNET_HashCode));
GNUNET_log (GNUNET_ERROR_TYPE_DEBUG,
"Called test_get!\n");
GNUNET_assert (dht_handle != NULL);
retry_context.real_timeout = GNUNET_TIME_relative_to_absolute (TOTAL_TIMEOUT);
retry_context.next_timeout = BASE_TIMEOUT;
get_handle =
GNUNET_DHT_get_start (dht_handle,
GNUNET_BLOCK_TYPE_TEST, &hash, 1,
GNUNET_DHT_RO_NONE, NULL, 0, &test_get_iterator,
NULL);
if (get_handle == NULL)
{
GNUNET_break (0);
GNUNET_SCHEDULER_cancel (die_task);
die_task = GNUNET_SCHEDULER_add_now (&end_badly, NULL);
return;
}
}
/**
* Signature of the main function of a task.
*
* @param cls closure
*/
static void
test_task (void *cls)
{
struct GNUNET_TIME_Absolute now;
now = GNUNET_TIME_absolute_get ();
if (now.abs_value_us > target.abs_value_us)
cumDelta += (now.abs_value_us - target.abs_value_us);
else
cumDelta += (target.abs_value_us - now.abs_value_us);
target =
GNUNET_TIME_relative_to_absolute (GNUNET_TIME_relative_multiply
(GNUNET_TIME_UNIT_MICROSECONDS, i));
FPRINTF (stderr, "%s", ".");
if (i > MAXV)
{
FPRINTF (stderr, "%s", "\n");
return;
}
GNUNET_SCHEDULER_add_delayed (GNUNET_TIME_relative_multiply
(GNUNET_TIME_UNIT_MICROSECONDS, i),
&test_task,
NULL);
i += INCR;
}
static void
testNamespace ()
{
struct GNUNET_CRYPTO_EcdsaPrivateKey *ns;
struct GNUNET_FS_BlockOptions bo;
struct GNUNET_CONTAINER_MetaData *meta;
struct GNUNET_FS_Uri *ksk_uri;
struct GNUNET_FS_Uri *sks_uri;
ns = GNUNET_CRYPTO_ecdsa_key_create ();
meta = GNUNET_CONTAINER_meta_data_create ();
ksk_uri = GNUNET_FS_uri_parse ("gnunet://fs/ksk/testnsa", NULL);
bo.content_priority = 1;
bo.anonymity_level = 1;
bo.replication_level = 0;
bo.expiration_time =
GNUNET_TIME_relative_to_absolute (GNUNET_TIME_UNIT_MINUTES);
sks_uri = GNUNET_FS_uri_sks_create (&nsid, "root");
GNUNET_FS_publish_ksk (fs,
ksk_uri, meta, sks_uri,
&bo, GNUNET_FS_PUBLISH_OPTION_NONE,
&adv_cont, NULL);
GNUNET_FS_uri_destroy (sks_uri);
kill_task =
GNUNET_SCHEDULER_add_delayed (GNUNET_TIME_UNIT_MINUTES, &do_timeout,
NULL);
GNUNET_FS_uri_destroy (ksk_uri);
GNUNET_CONTAINER_meta_data_destroy (meta);
GNUNET_free (ns);
}
static void
adv_cont (void *cls, const struct GNUNET_FS_Uri *uri, const char *emsg)
{
struct GNUNET_CONTAINER_MetaData *meta;
struct GNUNET_CRYPTO_EcdsaPrivateKey *ns;
struct GNUNET_FS_BlockOptions bo;
if (NULL != emsg)
{
FPRINTF (stderr, "Error publishing: %s\n", emsg);
err = 1;
GNUNET_FS_stop (fs);
return;
}
ns = GNUNET_CRYPTO_ecdsa_key_create ();
meta = GNUNET_CONTAINER_meta_data_create ();
sks_expect_uri = GNUNET_FS_uri_dup (uri);
bo.content_priority = 1;
bo.anonymity_level = 1;
bo.replication_level = 0;
bo.expiration_time =
GNUNET_TIME_relative_to_absolute (GNUNET_TIME_UNIT_MINUTES);
GNUNET_CRYPTO_ecdsa_key_get_public (ns, &nsid);
GNUNET_FS_publish_sks (fs, ns, "this", "next", meta, uri,
&bo, GNUNET_FS_PUBLISH_OPTION_NONE, &sks_cont, NULL);
GNUNET_CONTAINER_meta_data_destroy (meta);
GNUNET_free (ns);
}
/**
* Read from the service.
*
* @param client the service
* @param handler function to call with the message
* @param handler_cls closure for handler
* @param timeout how long to wait until timing out
*/
void
GNUNET_CLIENT_receive (struct GNUNET_CLIENT_Connection *client,
GNUNET_CLIENT_MessageHandler handler, void *handler_cls,
struct GNUNET_TIME_Relative timeout)
{
if (NULL == client->connection)
{
/* already disconnected, fail instantly! */
GNUNET_break (0); /* this should not happen in well-written code! */
if (NULL != handler)
handler (handler_cls, NULL);
return;
}
client->receiver_handler = handler;
client->receiver_handler_cls = handler_cls;
client->receive_timeout = GNUNET_TIME_relative_to_absolute (timeout);
if (GNUNET_YES == client->msg_complete)
{
GNUNET_assert (GNUNET_SCHEDULER_NO_TASK == client->receive_task);
client->receive_task = GNUNET_SCHEDULER_add_now (&receive_task, client);
}
else
{
LOG (GNUNET_ERROR_TYPE_DEBUG, "calling GNUNET_CONNECTION_receive\n");
GNUNET_assert (GNUNET_NO == client->in_receive);
client->in_receive = GNUNET_YES;
GNUNET_CONNECTION_receive (client->connection, GNUNET_SERVER_MAX_MESSAGE_SIZE - 1,
timeout, &receive_helper, client);
}
}
/**
* Construct our HELLO message from all of the addresses of
* all of the transports.
*
* @param cls unused
* @param tc scheduler context
*/
static void
refresh_hello_task (void *cls, const struct GNUNET_SCHEDULER_TaskContext *tc)
{
struct GeneratorContext gc;
int friend_only;
hello_task = GNUNET_SCHEDULER_NO_TASK;
gc.addr_pos = oal_head;
gc.expiration = GNUNET_TIME_relative_to_absolute (hello_expiration);
friend_only = GNUNET_HELLO_is_friend_only (our_hello);
GNUNET_free (our_hello);
our_hello = GNUNET_HELLO_create (&GST_my_public_key, &address_generator, &gc, friend_only);
GNUNET_assert (NULL != our_hello);
GNUNET_log (GNUNET_ERROR_TYPE_DEBUG,
"Refreshed my %s `%s', new size is %d\n",
(GNUNET_YES == GNUNET_HELLO_is_friend_only (our_hello)) ? "friend-only" : "public",
"HELLO", GNUNET_HELLO_size (our_hello));
GNUNET_STATISTICS_update (GST_stats, gettext_noop ("# refreshed my HELLO"), 1,
GNUNET_NO);
if (NULL != hello_cb)
hello_cb (hello_cb_cls, GST_hello_get ());
GNUNET_PEERINFO_add_peer (GST_peerinfo, our_hello, NULL, NULL);
hello_task =
GNUNET_SCHEDULER_add_delayed (HELLO_REFRESH_PERIOD, &refresh_hello_task,
NULL);
}
/**
* Calculate when we would like to send the next HELLO to this
* peer and ask for it.
*
* @param cls for which peer to schedule the HELLO
*/
static void
schedule_next_hello (void *cls)
{
struct Peer *pl = cls;
struct FindAdvHelloContext fah;
struct GNUNET_MQ_Envelope *env;
size_t want;
struct GNUNET_TIME_Relative delay;
struct GNUNET_HashCode hc;
pl->hello_delay_task = NULL;
GNUNET_assert (NULL != pl->mq);
/* find applicable HELLOs */
fah.peer = pl;
fah.result = NULL;
fah.max_size = GNUNET_SERVER_MAX_MESSAGE_SIZE - 1;
fah.next_adv = GNUNET_TIME_UNIT_FOREVER_REL;
GNUNET_CONTAINER_multipeermap_iterate (peers,
&find_advertisable_hello,
&fah);
pl->hello_delay_task =
GNUNET_SCHEDULER_add_delayed (fah.next_adv,
&schedule_next_hello,
pl);
if (NULL == fah.result)
return;
delay = GNUNET_TIME_absolute_get_remaining (pl->next_hello_allowed);
if (0 != delay.rel_value_us)
return;
want = GNUNET_HELLO_size (fah.result->hello);
GNUNET_log (GNUNET_ERROR_TYPE_DEBUG,
"Sending HELLO with %u bytes",
(unsigned int) want);
env = GNUNET_MQ_msg_copy (&fah.result->hello->header);
GNUNET_MQ_send (pl->mq,
env);
/* avoid sending this one again soon */
GNUNET_CRYPTO_hash (&pl->pid,
sizeof (struct GNUNET_PeerIdentity),
&hc);
GNUNET_CONTAINER_bloomfilter_add (fah.result->filter,
&hc);
GNUNET_STATISTICS_update (stats,
gettext_noop ("# HELLO messages gossipped"),
1,
GNUNET_NO);
/* prepare to send the next one */
if (NULL != pl->hello_delay_task)
GNUNET_SCHEDULER_cancel (pl->hello_delay_task);
pl->next_hello_allowed
= GNUNET_TIME_relative_to_absolute (HELLO_ADVERTISEMENT_MIN_FREQUENCY);
pl->hello_delay_task
= GNUNET_SCHEDULER_add_now (&schedule_next_hello,
pl);
}
/**
* Call a method for each known matching host and change its trust
* value. The callback method will be invoked once for each matching
* host and then finally once with a NULL pointer. After that final
* invocation, the iterator context must no longer be used.
*
* Instead of calling this function with 'peer == NULL' it is often
* better to use 'GNUNET_PEERINFO_notify'.
*
* @param h handle to the peerinfo service
* @param peer restrict iteration to this peer only (can be NULL)
* @param timeout how long to wait until timing out
* @param callback the method to call for each peer
* @param callback_cls closure for callback
* @return iterator context
*/
struct GNUNET_PEERINFO_IteratorContext *
GNUNET_PEERINFO_iterate (struct GNUNET_PEERINFO_Handle *h,
const struct GNUNET_PeerIdentity *peer,
struct GNUNET_TIME_Relative timeout,
GNUNET_PEERINFO_Processor callback, void *callback_cls)
{
struct GNUNET_MessageHeader *lapm;
struct ListPeerMessage *lpm;
struct GNUNET_PEERINFO_IteratorContext *ic;
struct GNUNET_PEERINFO_AddContext *ac;
ic = GNUNET_malloc (sizeof (struct GNUNET_PEERINFO_IteratorContext));
if (NULL == peer)
{
LOG (GNUNET_ERROR_TYPE_DEBUG,
"Requesting list of peers from PEERINFO service\n");
ac =
GNUNET_malloc (sizeof (struct GNUNET_PEERINFO_AddContext) +
sizeof (struct GNUNET_MessageHeader));
ac->size = sizeof (struct GNUNET_MessageHeader);
lapm = (struct GNUNET_MessageHeader *) &ac[1];
lapm->size = htons (sizeof (struct GNUNET_MessageHeader));
lapm->type = htons (GNUNET_MESSAGE_TYPE_PEERINFO_GET_ALL);
}
else
{
LOG (GNUNET_ERROR_TYPE_DEBUG,
"Requesting information on peer `%4s' from PEERINFO service\n",
GNUNET_i2s (peer));
ac =
GNUNET_malloc (sizeof (struct GNUNET_PEERINFO_AddContext) +
sizeof (struct ListPeerMessage));
ac->size = sizeof (struct ListPeerMessage);
lpm = (struct ListPeerMessage *) &ac[1];
lpm->header.size = htons (sizeof (struct ListPeerMessage));
lpm->header.type = htons (GNUNET_MESSAGE_TYPE_PEERINFO_GET);
memcpy (&lpm->peer, peer, sizeof (struct GNUNET_PeerIdentity));
ic->have_peer = GNUNET_YES;
ic->peer = *peer;
}
ic->h = h;
ic->ac = ac;
ic->callback = callback;
ic->callback_cls = callback_cls;
ic->timeout = GNUNET_TIME_relative_to_absolute (timeout);
ic->timeout_task =
GNUNET_SCHEDULER_add_delayed (timeout, &signal_timeout, ic);
ac->cont = &iterator_start_receive;
ac->cont_cls = ic;
GNUNET_CONTAINER_DLL_insert_tail (h->ac_head, h->ac_tail, ac);
GNUNET_CONTAINER_DLL_insert_tail (h->ic_head,
h->ic_tail,
ic);
trigger_transmit (h);
return ic;
}
/**
* Get an IP address as a string.
*
* @param sa host address
* @param salen length of host address in @a sa
* @param do_resolve use #GNUNET_NO to return numeric hostname
* @param timeout how long to try resolving
* @param callback function to call with hostnames
* last callback is NULL when finished
* @param cls closure for @a callback
* @return handle that can be used to cancel the request
*/
struct GNUNET_RESOLVER_RequestHandle *
GNUNET_RESOLVER_hostname_get (const struct sockaddr *sa,
socklen_t salen,
int do_resolve,
struct GNUNET_TIME_Relative timeout,
GNUNET_RESOLVER_HostnameCallback callback,
void *cls)
{
struct GNUNET_RESOLVER_RequestHandle *rh;
size_t ip_len;
const void *ip;
check_config ();
switch (sa->sa_family)
{
case AF_INET:
GNUNET_assert (salen == sizeof (struct sockaddr_in));
ip_len = sizeof (struct in_addr);
ip = &((const struct sockaddr_in*)sa)->sin_addr;
break;
case AF_INET6:
GNUNET_assert (salen == sizeof (struct sockaddr_in6));
ip_len = sizeof (struct in6_addr);
ip = &((const struct sockaddr_in6*)sa)->sin6_addr;
break;
default:
GNUNET_break (0);
return NULL;
}
rh = GNUNET_malloc (sizeof (struct GNUNET_RESOLVER_RequestHandle) + salen);
rh->name_callback = callback;
rh->cls = cls;
rh->af = sa->sa_family;
rh->timeout = GNUNET_TIME_relative_to_absolute (timeout);
memcpy (&rh[1], ip, ip_len);
rh->data_len = ip_len;
rh->direction = GNUNET_YES;
rh->received_response = GNUNET_NO;
if (GNUNET_NO == do_resolve)
{
rh->task = GNUNET_SCHEDULER_add_now (&numeric_reverse, rh);
return rh;
}
GNUNET_CONTAINER_DLL_insert_tail (req_head,
req_tail,
rh);
rh->was_queued = GNUNET_YES;
if (NULL != s_task)
{
GNUNET_SCHEDULER_cancel (s_task);
s_task = NULL;
}
process_requests ();
return rh;
}
/**
* Ask the core to call @a notify once it is ready to transmit the
* given number of bytes to the specified @a target. Must only be
* called after a connection to the respective peer has been
* established (and the client has been informed about this). You may
* have one request of this type pending for each connected peer at
* any time. If a peer disconnects, the application MUST call
* #GNUNET_CORE_notify_transmit_ready_cancel on the respective
* transmission request, if one such request is pending.
*
* @param handle connection to core service
* @param cork is corking allowed for this transmission?
* @param priority how important is the message?
* @param maxdelay how long can the message wait? Only effective if @a cork is #GNUNET_YES
* @param target who should receive the message, never NULL (can be this peer's identity for loopback)
* @param notify_size how many bytes of buffer space does @a notify want?
* @param notify function to call when buffer space is available;
* will be called with NULL on timeout; clients MUST cancel
* all pending transmission requests DURING the disconnect
* handler
* @param notify_cls closure for notify
* @return non-NULL if the notify callback was queued,
* NULL if we can not even queue the request (request already pending);
* if NULL is returned, @a notify will NOT be called.
*/
struct GNUNET_CORE_TransmitHandle *
GNUNET_CORE_notify_transmit_ready (struct GNUNET_CORE_Handle *handle,
int cork,
enum GNUNET_CORE_Priority priority,
struct GNUNET_TIME_Relative maxdelay,
const struct GNUNET_PeerIdentity *target,
size_t notify_size,
GNUNET_CONNECTION_TransmitReadyNotify notify,
void *notify_cls)
{
struct PeerRecord *pr;
struct GNUNET_CORE_TransmitHandle *th;
if (notify_size > GNUNET_CONSTANTS_MAX_ENCRYPTED_MESSAGE_SIZE)
{
GNUNET_break (0);
return NULL;
}
GNUNET_assert (NULL != notify);
LOG (GNUNET_ERROR_TYPE_DEBUG,
"Asking core for transmission of %u bytes to `%s'\n",
(unsigned int) notify_size,
GNUNET_i2s (target));
pr = GNUNET_CONTAINER_multipeermap_get (handle->peers, target);
if (NULL == pr)
{
/* attempt to send to peer that is not connected */
GNUNET_break (0);
return NULL;
}
if (NULL != pr->th.peer)
{
/* attempting to queue a second request for the same destination */
GNUNET_break (0);
return NULL;
}
GNUNET_assert (notify_size + sizeof (struct SendMessage) <
GNUNET_SERVER_MAX_MESSAGE_SIZE);
th = &pr->th;
memset (th, 0, sizeof (struct GNUNET_CORE_TransmitHandle));
th->peer = pr;
th->get_message = notify;
th->get_message_cls = notify_cls;
th->timeout = GNUNET_TIME_relative_to_absolute (maxdelay);
th->priority = priority;
th->msize = notify_size;
th->cork = cork;
GNUNET_assert (GNUNET_SCHEDULER_NO_TASK == pr->ntr_task);
pr->ntr_task =
GNUNET_SCHEDULER_add_now (&run_request_next_transmission, pr);
LOG (GNUNET_ERROR_TYPE_DEBUG,
"Transmission request added to queue\n");
return th;
}
/**
* Ask the client to call us once the specified number of bytes
* are free in the transmission buffer. Will never call the @a notify
* callback in this task, but always first go into the scheduler.
*
* @param client connection to the service
* @param size number of bytes to send
* @param timeout after how long should we give up (and call
* notify with buf NULL and size 0)?
* @param auto_retry if the connection to the service dies, should we
* automatically re-connect and retry (within the timeout period)
* or should we immediately fail in this case? Pass GNUNET_YES
* if the caller does not care about temporary connection errors,
* for example because the protocol is stateless
* @param notify function to call
* @param notify_cls closure for @a notify
* @return NULL if our buffer will never hold size bytes,
* a handle if the notify callback was queued (can be used to cancel)
*/
struct GNUNET_CLIENT_TransmitHandle *
GNUNET_CLIENT_notify_transmit_ready (struct GNUNET_CLIENT_Connection *client,
size_t size,
struct GNUNET_TIME_Relative timeout,
int auto_retry,
GNUNET_CONNECTION_TransmitReadyNotify notify,
void *notify_cls)
{
struct GNUNET_CLIENT_TransmitHandle *th;
if (NULL != client->th)
{
/* If this breaks, you most likley called this function twice without waiting
* for completion or canceling the request */
GNUNET_assert (0);
return NULL;
}
th = GNUNET_new (struct GNUNET_CLIENT_TransmitHandle);
th->client = client;
th->size = size;
th->timeout = GNUNET_TIME_relative_to_absolute (timeout);
/* always auto-retry on first message to service */
th->auto_retry = (GNUNET_YES == client->first_message) ? GNUNET_YES : auto_retry;
client->first_message = GNUNET_NO;
th->notify = notify;
th->notify_cls = notify_cls;
th->attempts_left = MAX_ATTEMPTS;
client->th = th;
if (NULL == client->connection)
{
GNUNET_assert (NULL == th->th);
GNUNET_assert (NULL == th->reconnect_task);
th->reconnect_task =
GNUNET_SCHEDULER_add_delayed (client->back_off,
&client_delayed_retry,
th);
}
else
{
th->th = GNUNET_CONNECTION_notify_transmit_ready (client->connection,
size,
timeout,
&client_notify,
th);
if (NULL == th->th)
{
GNUNET_break (0);
GNUNET_free (th);
client->th = NULL;
return NULL;
}
}
return th;
}
/**
* Convert a string to one or more IP addresses.
*
* @param hostname the hostname to resolve
* @param af AF_INET or AF_INET6; use AF_UNSPEC for "any"
* @param callback function to call with addresses
* @param callback_cls closure for callback
* @param timeout how long to try resolving
* @return handle that can be used to cancel the request, NULL on error
*/
struct GNUNET_RESOLVER_RequestHandle *
GNUNET_RESOLVER_ip_get (const char *hostname, int af,
struct GNUNET_TIME_Relative timeout,
GNUNET_RESOLVER_AddressCallback callback,
void *callback_cls)
{
struct GNUNET_RESOLVER_RequestHandle *rh;
size_t slen;
unsigned int i;
struct in_addr v4;
struct in6_addr v6;
slen = strlen (hostname) + 1;
if (slen + sizeof (struct GNUNET_RESOLVER_GetMessage) >=
GNUNET_SERVER_MAX_MESSAGE_SIZE)
{
GNUNET_break (0);
return NULL;
}
rh = GNUNET_malloc (sizeof (struct GNUNET_RESOLVER_RequestHandle) + slen);
rh->af = af;
rh->addr_callback = callback;
rh->cls = callback_cls;
memcpy (&rh[1], hostname, slen);
rh->data_len = slen;
rh->timeout = GNUNET_TIME_relative_to_absolute (timeout);
rh->direction = GNUNET_NO;
/* first, check if this is a numeric address */
if (((1 == inet_pton (AF_INET, hostname, &v4)) &&
((af == AF_INET) || (af == AF_UNSPEC))) ||
((1 == inet_pton (AF_INET6, hostname, &v6)) &&
((af == AF_INET6) || (af == AF_UNSPEC))))
{
rh->task = GNUNET_SCHEDULER_add_now (&numeric_resolution, rh);
return rh;
}
/* then, check if this is a loopback address */
i = 0;
while (loopback[i] != NULL)
if (0 == strcasecmp (loopback[i++], hostname))
{
rh->task = GNUNET_SCHEDULER_add_now (&loopback_resolution, rh);
return rh;
}
GNUNET_CONTAINER_DLL_insert_tail (req_head, req_tail, rh);
rh->was_queued = GNUNET_YES;
if (s_task != GNUNET_SCHEDULER_NO_TASK)
{
GNUNET_SCHEDULER_cancel (s_task);
s_task = GNUNET_SCHEDULER_NO_TASK;
}
process_requests ();
return rh;
}
/**
* Ask the connection to call us once the specified number of bytes
* are free in the transmission buffer. May call the notify
* method immediately if enough space is available.
*
* @param connection connection
* @param size number of bytes to send
* @param timeout after how long should we give up (and call
* notify with buf NULL and size 0)?
* @param notify function to call
* @param notify_cls closure for notify
* @return non-NULL if the notify callback was queued,
* NULL if we are already going to notify someone else (busy)
*/
struct GNUNET_CONNECTION_TransmitHandle *
GNUNET_CONNECTION_notify_transmit_ready (struct GNUNET_CONNECTION_Handle *connection,
size_t size,
struct GNUNET_TIME_Relative timeout,
GNUNET_CONNECTION_TransmitReadyNotify
notify, void *notify_cls)
{
if (NULL != connection->nth.notify_ready)
{
GNUNET_assert (0);
return NULL;
}
GNUNET_assert (NULL != notify);
GNUNET_assert (size < GNUNET_SERVER_MAX_MESSAGE_SIZE);
GNUNET_assert (connection->write_buffer_off <= connection->write_buffer_size);
GNUNET_assert (connection->write_buffer_pos <= connection->write_buffer_size);
GNUNET_assert (connection->write_buffer_pos <= connection->write_buffer_off);
connection->nth.notify_ready = notify;
connection->nth.notify_ready_cls = notify_cls;
connection->nth.connection = connection;
connection->nth.notify_size = size;
connection->nth.transmit_timeout = GNUNET_TIME_relative_to_absolute (timeout);
GNUNET_assert (GNUNET_SCHEDULER_NO_TASK == connection->nth.timeout_task);
if ((NULL == connection->sock) &&
(NULL == connection->ap_head) &&
(NULL == connection->dns_active))
{
if (GNUNET_SCHEDULER_NO_TASK != connection->write_task)
GNUNET_SCHEDULER_cancel (connection->write_task);
connection->write_task = GNUNET_SCHEDULER_add_now (&connect_error, connection);
return &connection->nth;
}
if (GNUNET_SCHEDULER_NO_TASK != connection->write_task)
return &connection->nth; /* previous transmission still in progress */
if (NULL != connection->sock)
{
/* connected, try to transmit now */
LOG (GNUNET_ERROR_TYPE_DEBUG, "Scheduling transmission (%p).\n", connection);
connection->write_task =
GNUNET_SCHEDULER_add_write_net (GNUNET_TIME_absolute_get_remaining
(connection->nth.transmit_timeout),
connection->sock, &transmit_ready, connection);
return &connection->nth;
}
/* not yet connected, wait for connection */
LOG (GNUNET_ERROR_TYPE_DEBUG,
"Need to wait to schedule transmission for connection, adding timeout task (%p).\n", connection);
connection->nth.timeout_task =
GNUNET_SCHEDULER_add_delayed (timeout, &transmit_timeout, connection);
return &connection->nth;
}
static void
run (void *cls,
const struct GNUNET_CONFIGURATION_Handle *cfg,
struct GNUNET_TESTING_Peer *peer)
{
const char *keywords[] = {
"down_foo",
"down_bar"
};
char *buf;
struct GNUNET_CONTAINER_MetaData *meta;
struct GNUNET_FS_Uri *kuri;
struct GNUNET_FS_BlockOptions bo;
struct GNUNET_FS_FileInformation *fi;
size_t i;
size_t j;
fs = GNUNET_FS_start (cfg, "test-fs-search", &progress_cb, NULL,
GNUNET_FS_FLAGS_NONE, GNUNET_FS_OPTIONS_END);
GNUNET_assert (NULL != fs);
processed_files = 0;
for(j = 0; j < NUM_FILES; j++){
buf = GNUNET_malloc (FILESIZE);
for (i = 0; i < FILESIZE; i++)
buf[i] = GNUNET_CRYPTO_random_u32 (GNUNET_CRYPTO_QUALITY_WEAK, 256);
meta = GNUNET_CONTAINER_meta_data_create ();
kuri = GNUNET_FS_uri_ksk_create_from_args (2, keywords);
bo.content_priority = 42;
bo.anonymity_level = 1;
bo.replication_level = 0;
bo.expiration_time = GNUNET_TIME_relative_to_absolute (LIFETIME);
fi = GNUNET_FS_file_information_create_from_data (fs, "publish-context",
FILESIZE, buf, kuri, meta,
GNUNET_NO, &bo);
GNUNET_FS_uri_destroy (kuri);
GNUNET_CONTAINER_meta_data_destroy (meta);
GNUNET_assert (NULL != fi);
start = GNUNET_TIME_absolute_get ();
publish =
GNUNET_FS_publish_start (fs, fi, NULL, NULL, NULL,
GNUNET_FS_PUBLISH_OPTION_NONE);
GNUNET_assert (publish != NULL);
}
timeout_task = GNUNET_SCHEDULER_add_delayed (LIFETIME,
&abort_error, NULL);
}
/**
* Execute a transmission context. If there is
* an error in the transmission, the #GNUNET_SERVER_receive_done()
* method will be called with an error code (#GNUNET_SYSERR),
* otherwise with #GNUNET_OK.
*
* @param tc transmission context to use
* @param timeout when to time out and abort the transmission
*/
void
GNUNET_SERVER_transmit_context_run (struct GNUNET_SERVER_TransmitContext *tc,
struct GNUNET_TIME_Relative timeout)
{
tc->timeout = GNUNET_TIME_relative_to_absolute (timeout);
if (NULL ==
GNUNET_SERVER_notify_transmit_ready (tc->client,
GNUNET_MIN (MIN_BLOCK_SIZE,
tc->total), timeout,
&transmit_response, tc))
{
GNUNET_break (0);
GNUNET_SERVER_transmit_context_destroy (tc, GNUNET_SYSERR);
}
}