void CaptureStatsSetup(ThreadVars *tv, CaptureStats *s)
{
s->counter_ips_accepted = StatsRegisterCounter("ips.accepted", tv);
s->counter_ips_blocked = StatsRegisterCounter("ips.blocked", tv);
s->counter_ips_rejected = StatsRegisterCounter("ips.rejected", tv);
s->counter_ips_replaced = StatsRegisterCounter("ips.replaced", tv);
}
static TmEcode LogFilestoreLogThreadInit(ThreadVars *t, const void *initdata, void **data)
{
LogFilestoreLogThread *aft = SCMalloc(sizeof(LogFilestoreLogThread));
if (unlikely(aft == NULL))
return TM_ECODE_FAILED;
memset(aft, 0, sizeof(LogFilestoreLogThread));
if (initdata == NULL)
{
SCLogDebug("Error getting context for LogFileStore. \"initdata\" argument NULL");
SCFree(aft);
return TM_ECODE_FAILED;
}
/* Use the Ouptut Context (file pointer and mutex) */
aft->file_ctx = ((OutputCtx *)initdata)->data;
struct stat stat_buf;
if (stat(g_logfile_base_dir, &stat_buf) != 0) {
int ret;
// coverity[toctou : FALSE]
ret = SCMkDir(g_logfile_base_dir, S_IRWXU|S_IXGRP|S_IRGRP);
if (ret != 0) {
int err = errno;
if (err != EEXIST) {
SCLogError(SC_ERR_LOGDIR_CONFIG,
"Cannot create file drop directory %s: %s",
g_logfile_base_dir, strerror(err));
exit(EXIT_FAILURE);
}
} else {
SCLogInfo("Created file drop directory %s",
g_logfile_base_dir);
}
}
aft->counter_max_hits = StatsRegisterCounter("file_store.open_files_max_hit", t);
*data = (void *)aft;
return TM_ECODE_OK;
}
/**
* \brief Init function for ReceivePcap.
*
* This is a setup function for recieving packets
* via libpcap. There are two versions of this function
* depending on the major version of libpcap used.
* For versions prior to 1.x we use open_pcap_live,
* for versions 1.x and greater we use pcap_create + pcap_activate.
*
* \param tv pointer to ThreadVars
* \param initdata pointer to the interface passed from the user
* \param data pointer gets populated with PcapThreadVars
*
* \todo Create a general pcap setup function.
*/
TmEcode ReceivePcapThreadInit(ThreadVars *tv, const void *initdata, void **data)
{
SCEnter();
PcapIfaceConfig *pcapconfig = (PcapIfaceConfig *)initdata;
if (initdata == NULL) {
SCLogError(SC_ERR_INVALID_ARGUMENT, "initdata == NULL");
SCReturnInt(TM_ECODE_FAILED);
}
PcapThreadVars *ptv = SCMalloc(sizeof(PcapThreadVars));
if (unlikely(ptv == NULL)) {
pcapconfig->DerefFunc(pcapconfig);
SCReturnInt(TM_ECODE_FAILED);
}
memset(ptv, 0, sizeof(PcapThreadVars));
ptv->tv = tv;
ptv->livedev = LiveGetDevice(pcapconfig->iface);
if (ptv->livedev == NULL) {
SCLogError(SC_ERR_INVALID_VALUE, "Unable to find Live device");
SCFree(ptv);
SCReturnInt(TM_ECODE_FAILED);
}
SCLogInfo("using interface %s", (char *)pcapconfig->iface);
if (LiveGetOffload() == 0) {
(void)GetIfaceOffloading((char *)pcapconfig->iface, 1, 1);
} else {
DisableIfaceOffloading(ptv->livedev, 1, 1);
}
ptv->checksum_mode = pcapconfig->checksum_mode;
if (ptv->checksum_mode == CHECKSUM_VALIDATION_AUTO) {
SCLogInfo("Running in 'auto' checksum mode. Detection of interface state will require "
xstr(CHECKSUM_SAMPLE_COUNT) " packets.");
}
/* XXX create a general pcap setup function */
char errbuf[PCAP_ERRBUF_SIZE];
ptv->pcap_handle = pcap_create((char *)pcapconfig->iface, errbuf);
if (ptv->pcap_handle == NULL) {
if (strlen(errbuf)) {
SCLogError(SC_ERR_PCAP_CREATE, "Couldn't create a new pcap handler for %s, error %s",
(char *)pcapconfig->iface, errbuf);
} else {
SCLogError(SC_ERR_PCAP_CREATE, "Couldn't create a new pcap handler for %s",
(char *)pcapconfig->iface);
}
SCFree(ptv);
pcapconfig->DerefFunc(pcapconfig);
SCReturnInt(TM_ECODE_FAILED);
}
if (pcapconfig->snaplen == 0) {
/* We set snaplen if we can get the MTU */
ptv->pcap_snaplen = GetIfaceMaxPacketSize(pcapconfig->iface);
} else {
ptv->pcap_snaplen = pcapconfig->snaplen;
}
if (ptv->pcap_snaplen > 0) {
/* set Snaplen. Must be called before pcap_activate */
int pcap_set_snaplen_r = pcap_set_snaplen(ptv->pcap_handle, ptv->pcap_snaplen);
if (pcap_set_snaplen_r != 0) {
SCLogError(SC_ERR_PCAP_SET_SNAPLEN, "Couldn't set snaplen, error: %s", pcap_geterr(ptv->pcap_handle));
SCFree(ptv);
pcapconfig->DerefFunc(pcapconfig);
SCReturnInt(TM_ECODE_FAILED);
}
SCLogInfo("Set snaplen to %d for '%s'", ptv->pcap_snaplen,
pcapconfig->iface);
}
/* set Promisc, and Timeout. Must be called before pcap_activate */
int pcap_set_promisc_r = pcap_set_promisc(ptv->pcap_handle, pcapconfig->promisc);
//printf("ReceivePcapThreadInit: pcap_set_promisc(%p) returned %" PRId32 "\n", ptv->pcap_handle, pcap_set_promisc_r);
if (pcap_set_promisc_r != 0) {
SCLogError(SC_ERR_PCAP_SET_PROMISC, "Couldn't set promisc mode, error %s", pcap_geterr(ptv->pcap_handle));
SCFree(ptv);
pcapconfig->DerefFunc(pcapconfig);
SCReturnInt(TM_ECODE_FAILED);
}
int pcap_set_timeout_r = pcap_set_timeout(ptv->pcap_handle,LIBPCAP_COPYWAIT);
//printf("ReceivePcapThreadInit: pcap_set_timeout(%p) returned %" PRId32 "\n", ptv->pcap_handle, pcap_set_timeout_r);
if (pcap_set_timeout_r != 0) {
SCLogError(SC_ERR_PCAP_SET_TIMEOUT, "Problems setting timeout, error %s", pcap_geterr(ptv->pcap_handle));
SCFree(ptv);
pcapconfig->DerefFunc(pcapconfig);
SCReturnInt(TM_ECODE_FAILED);
}
#ifdef HAVE_PCAP_SET_BUFF
ptv->pcap_buffer_size = pcapconfig->buffer_size;
if (ptv->pcap_buffer_size >= 0 && ptv->pcap_buffer_size <= INT_MAX) {
if (ptv->pcap_buffer_size > 0)
SCLogInfo("Going to use pcap buffer size of %" PRId32 "", ptv->pcap_buffer_size);
int pcap_set_buffer_size_r = pcap_set_buffer_size(ptv->pcap_handle,ptv->pcap_buffer_size);
//printf("ReceivePcapThreadInit: pcap_set_timeout(%p) returned %" PRId32 "\n", ptv->pcap_handle, pcap_set_buffer_size_r);
if (pcap_set_buffer_size_r != 0) {
SCLogError(SC_ERR_PCAP_SET_BUFF_SIZE, "Problems setting pcap buffer size, error %s", pcap_geterr(ptv->pcap_handle));
SCFree(ptv);
pcapconfig->DerefFunc(pcapconfig);
SCReturnInt(TM_ECODE_FAILED);
}
}
#endif /* HAVE_PCAP_SET_BUFF */
/* activate the handle */
int pcap_activate_r = pcap_activate(ptv->pcap_handle);
//printf("ReceivePcapThreadInit: pcap_activate(%p) returned %" PRId32 "\n", ptv->pcap_handle, pcap_activate_r);
if (pcap_activate_r != 0) {
SCLogError(SC_ERR_PCAP_ACTIVATE_HANDLE, "Couldn't activate the pcap handler, error %s", pcap_geterr(ptv->pcap_handle));
SCFree(ptv);
pcapconfig->DerefFunc(pcapconfig);
SCReturnInt(TM_ECODE_FAILED);
} else {
ptv->pcap_state = PCAP_STATE_UP;
}
/* set bpf filter if we have one */
if (pcapconfig->bpf_filter) {
SCMutexLock(&pcap_bpf_compile_lock);
ptv->bpf_filter = pcapconfig->bpf_filter;
if (pcap_compile(ptv->pcap_handle,&ptv->filter,(char *)ptv->bpf_filter,1,0) < 0) {
SCLogError(SC_ERR_BPF, "bpf compilation error %s", pcap_geterr(ptv->pcap_handle));
SCMutexUnlock(&pcap_bpf_compile_lock);
SCFree(ptv);
pcapconfig->DerefFunc(pcapconfig);
return TM_ECODE_FAILED;
}
if (pcap_setfilter(ptv->pcap_handle,&ptv->filter) < 0) {
SCLogError(SC_ERR_BPF, "could not set bpf filter %s", pcap_geterr(ptv->pcap_handle));
SCMutexUnlock(&pcap_bpf_compile_lock);
SCFree(ptv);
pcapconfig->DerefFunc(pcapconfig);
return TM_ECODE_FAILED;
}
SCMutexUnlock(&pcap_bpf_compile_lock);
}
/* no offloading supported at all */
(void)GetIfaceOffloading(pcapconfig->iface, 1, 1);
ptv->datalink = pcap_datalink(ptv->pcap_handle);
pcapconfig->DerefFunc(pcapconfig);
ptv->capture_kernel_packets = StatsRegisterCounter("capture.kernel_packets",
ptv->tv);
ptv->capture_kernel_drops = StatsRegisterCounter("capture.kernel_drops",
ptv->tv);
ptv->capture_kernel_ifdrops = StatsRegisterCounter("capture.kernel_ifdrops",
ptv->tv);
*data = (void *)ptv;
SCReturnInt(TM_ECODE_OK);
}
/* no offloading supported at all */
(void)GetIfaceOffloading(pcapconfig->iface, 1, 1);
ptv->datalink = pcap_datalink(ptv->pcap_handle);
pcapconfig->DerefFunc(pcapconfig);
ptv->capture_kernel_packets = StatsRegisterCounter("capture.kernel_packets",
ptv->tv);
ptv->capture_kernel_drops = StatsRegisterCounter("capture.kernel_drops",
ptv->tv);
ptv->capture_kernel_ifdrops = StatsRegisterCounter("capture.kernel_ifdrops",
ptv->tv);
*data = (void *)ptv;
SCReturnInt(TM_ECODE_OK);
}
#else /* implied LIBPCAP_VERSION_MAJOR == 0 */
TmEcode ReceivePcapThreadInit(ThreadVars *tv, void *initdata, void **data)
{
SCEnter();
PcapIfaceConfig *pcapconfig = initdata;
if (initdata == NULL) {
SCLogError(SC_ERR_INVALID_ARGUMENT, "initdata == NULL");
SCReturnInt(TM_ECODE_FAILED);
}
PcapThreadVars *ptv = SCMalloc(sizeof(PcapThreadVars));
if (unlikely(ptv == NULL)) {
pcapconfig->DerefFunc(pcapconfig);
SCReturnInt(TM_ECODE_FAILED);
}
memset(ptv, 0, sizeof(PcapThreadVars));
ptv->tv = tv;
ptv->livedev = LiveGetDevice(pcapconfig->iface);
if (ptv->livedev == NULL) {
SCLogError(SC_ERR_INVALID_VALUE, "Unable to find Live device");
SCFree(ptv);
SCReturnInt(TM_ECODE_FAILED);
}
SCLogInfo("using interface %s", pcapconfig->iface);
if (strlen(pcapconfig->iface) > PCAP_IFACE_NAME_LENGTH) {
SCFree(ptv);
/* Dereference config */
pcapconfig->DerefFunc(pcapconfig);
SCReturnInt(TM_ECODE_FAILED);
}
strlcpy(ptv->iface, pcapconfig->iface, PCAP_IFACE_NAME_LENGTH);
if (pcapconfig->snaplen == 0) {
/* We try to set snaplen from MTU value */
ptv->pcap_snaplen = GetIfaceMaxPacketSize(pcapconfig->iface);
/* be conservative with old pcap lib to mimic old tcpdump behavior
when MTU was not available. */
if (ptv->pcap_snaplen <= 0)
ptv->pcap_snaplen = LIBPCAP_SNAPLEN;
} else {
ptv->pcap_snaplen = pcapconfig->snaplen;
}
char errbuf[PCAP_ERRBUF_SIZE] = "";
ptv->pcap_handle = pcap_open_live(ptv->iface, ptv->pcap_snaplen,
LIBPCAP_PROMISC, LIBPCAP_COPYWAIT, errbuf);
if (ptv->pcap_handle == NULL) {
SCLogError(SC_ERR_PCAP_OPEN_LIVE, "Problem creating pcap handler for live mode, error %s", errbuf);
SCFree(ptv);
/* Dereference config */
pcapconfig->DerefFunc(pcapconfig);
SCReturnInt(TM_ECODE_FAILED);
}
/* set bpf filter if we have one */
if (pcapconfig->bpf_filter) {
SCMutexLock(&pcap_bpf_compile_lock);
ptv->bpf_filter = pcapconfig->bpf_filter;
SCLogInfo("using bpf-filter \"%s\"", ptv->bpf_filter);
if(pcap_compile(ptv->pcap_handle,&ptv->filter, ptv->bpf_filter,1,0) < 0) {
SCLogError(SC_ERR_BPF,"bpf compilation error %s",pcap_geterr(ptv->pcap_handle));
SCMutexUnlock(&pcap_bpf_compile_lock);
SCFree(ptv);
/* Dereference config */
pcapconfig->DerefFunc(pcapconfig);
return TM_ECODE_FAILED;
}
if(pcap_setfilter(ptv->pcap_handle,&ptv->filter) < 0) {
SCLogError(SC_ERR_BPF,"could not set bpf filter %s",pcap_geterr(ptv->pcap_handle));
SCMutexUnlock(&pcap_bpf_compile_lock);
SCFree(ptv);
/* Dereference config */
pcapconfig->DerefFunc(pcapconfig);
return TM_ECODE_FAILED;
}
SCMutexUnlock(&pcap_bpf_compile_lock);
}
ptv->datalink = pcap_datalink(ptv->pcap_handle);
ptv->capture_kernel_packets = StatsRegisterCounter("capture.kernel_packets",
ptv->tv);
ptv->capture_kernel_drops = StatsRegisterCounter("capture.kernel_drops",
ptv->tv);
ptv->capture_kernel_ifdrops = StatsRegisterCounter("capture.kernel_ifdrops",
ptv->tv);
*data = (void *)ptv;
/* Dereference config */
pcapconfig->DerefFunc(pcapconfig);
SCReturnInt(TM_ECODE_OK);
}
/**
* \brief Initialize the ERF receiver thread, generate a single
* ErfDagThreadVar structure for each thread, this will
* contain a DAG file descriptor which is read when the
* thread executes.
*
* \param tv Thread variable to ThreadVars
* \param initdata Initial data to the interface passed from the user,
* this is processed by the user.
*
* We assume that we have only a single name for the DAG
* interface.
*
* \param data data pointer gets populated with
*
*/
TmEcode
ReceiveErfDagThreadInit(ThreadVars *tv, void *initdata, void **data)
{
SCEnter();
int stream_count = 0;
if (initdata == NULL) {
SCLogError(SC_ERR_INVALID_ARGUMENT,
"Error: No DAG interface provided.");
SCReturnInt(TM_ECODE_FAILED);
}
ErfDagThreadVars *ewtn = SCMalloc(sizeof(ErfDagThreadVars));
if (unlikely(ewtn == NULL)) {
SCLogError(SC_ERR_MEM_ALLOC,
"Failed to allocate memory for ERF DAG thread vars.");
exit(EXIT_FAILURE);
}
memset(ewtn, 0, sizeof(*ewtn));
/* dag_parse_name will return a DAG device name and stream number
* to open for this thread.
*/
if (dag_parse_name(initdata, ewtn->dagname, DAGNAME_BUFSIZE,
&ewtn->dagstream) < 0) {
SCLogError(SC_ERR_INVALID_ARGUMENT,
"Failed to parse DAG interface: %s",
(char*)initdata);
SCFree(ewtn);
exit(EXIT_FAILURE);
}
ewtn->livedev = LiveGetDevice(initdata);
if (ewtn->livedev == NULL) {
SCLogError(SC_ERR_INVALID_VALUE, "Unable to get %s live device",
(char *)initdata);
SCFree(ewtn);
SCReturnInt(TM_ECODE_FAILED);
}
SCLogInfo("Opening DAG: %s on stream: %d for processing",
ewtn->dagname, ewtn->dagstream);
if ((ewtn->dagfd = dag_open(ewtn->dagname)) < 0) {
SCLogError(SC_ERR_ERF_DAG_OPEN_FAILED, "Failed to open DAG: %s",
ewtn->dagname);
SCFree(ewtn);
SCReturnInt(TM_ECODE_FAILED);
}
/* Check to make sure the card has enough available streams to
* support reading from the one specified.
*/
if ((stream_count = dag_rx_get_stream_count(ewtn->dagfd)) < 0) {
SCLogError(SC_ERR_ERF_DAG_OPEN_FAILED,
"Failed to open stream: %d, DAG: %s, could not query stream count",
ewtn->dagstream, ewtn->dagname);
SCFree(ewtn);
SCReturnInt(TM_ECODE_FAILED);
}
/* Check to make sure we have enough rx streams to open the stream
* the user is asking for.
*/
if (ewtn->dagstream > stream_count * 2) {
SCLogError(SC_ERR_ERF_DAG_OPEN_FAILED,
"Failed to open stream: %d, DAG: %s, insufficient streams: %d",
ewtn->dagstream, ewtn->dagname, stream_count);
SCFree(ewtn);
SCReturnInt(TM_ECODE_FAILED);
}
/* If we are transmitting into a soft DAG card then set the stream
* to act in reverse mode.
*/
if (0 != (ewtn->dagstream & 0x01)) {
/* Setting reverse mode for using with soft dag from daemon side */
if (dag_set_mode(ewtn->dagfd, ewtn->dagstream, DAG_REVERSE_MODE)) {
SCLogError(SC_ERR_ERF_DAG_STREAM_OPEN_FAILED,
"Failed to set mode to DAG_REVERSE_MODE on stream: %d, DAG: %s",
ewtn->dagstream, ewtn->dagname);
SCFree(ewtn);
SCReturnInt(TM_ECODE_FAILED);
}
}
if (dag_attach_stream(ewtn->dagfd, ewtn->dagstream, 0, 0) < 0) {
SCLogError(SC_ERR_ERF_DAG_STREAM_OPEN_FAILED,
"Failed to open DAG stream: %d, DAG: %s",
ewtn->dagstream, ewtn->dagname);
SCFree(ewtn);
SCReturnInt(TM_ECODE_FAILED);
}
if (dag_start_stream(ewtn->dagfd, ewtn->dagstream) < 0) {
SCLogError(SC_ERR_ERF_DAG_STREAM_START_FAILED,
"Failed to start DAG stream: %d, DAG: %s",
ewtn->dagstream, ewtn->dagname);
SCFree(ewtn);
SCReturnInt(TM_ECODE_FAILED);
}
SCLogInfo("Attached and started stream: %d on DAG: %s",
ewtn->dagstream, ewtn->dagname);
/*
* Initialise DAG Polling parameters.
*/
timerclear(&ewtn->maxwait);
ewtn->maxwait.tv_usec = MAXWAIT;
timerclear(&ewtn->poll);
ewtn->poll.tv_usec = POLL_INTERVAL;
/* 32kB minimum data to return -- we still restrict the number of
* pkts that are processed to a maximum of dag_max_read_packets.
*/
if (dag_set_stream_poll(ewtn->dagfd, ewtn->dagstream, MINDATA,
&(ewtn->maxwait), &(ewtn->poll)) < 0) {
SCLogError(SC_ERR_ERF_DAG_STREAM_SET_FAILED,
"Failed to set poll parameters for stream: %d, DAG: %s",
ewtn->dagstream, ewtn->dagname);
SCFree(ewtn);
SCReturnInt(TM_ECODE_FAILED);
}
ewtn->packets = StatsRegisterCounter("capture.dag_packets", tv);
ewtn->drops = StatsRegisterCounter("capture.dag_drops", tv);
ewtn->tv = tv;
*data = (void *)ewtn;
SCLogInfo("Starting processing packets from stream: %d on DAG: %s",
ewtn->dagstream, ewtn->dagname);
SCReturnInt(TM_ECODE_OK);
}
void DecodeRegisterPerfCounters(DecodeThreadVars *dtv, ThreadVars *tv)
{
/* register counters */
dtv->counter_pkts = StatsRegisterCounter("decoder.pkts", tv);
dtv->counter_bytes = StatsRegisterCounter("decoder.bytes", tv);
dtv->counter_invalid = StatsRegisterCounter("decoder.invalid", tv);
dtv->counter_ipv4 = StatsRegisterCounter("decoder.ipv4", tv);
dtv->counter_ipv6 = StatsRegisterCounter("decoder.ipv6", tv);
dtv->counter_eth = StatsRegisterCounter("decoder.ethernet", tv);
dtv->counter_raw = StatsRegisterCounter("decoder.raw", tv);
dtv->counter_null = StatsRegisterCounter("decoder.null", tv);
dtv->counter_sll = StatsRegisterCounter("decoder.sll", tv);
dtv->counter_tcp = StatsRegisterCounter("decoder.tcp", tv);
dtv->counter_udp = StatsRegisterCounter("decoder.udp", tv);
dtv->counter_sctp = StatsRegisterCounter("decoder.sctp", tv);
dtv->counter_icmpv4 = StatsRegisterCounter("decoder.icmpv4", tv);
dtv->counter_icmpv6 = StatsRegisterCounter("decoder.icmpv6", tv);
dtv->counter_ppp = StatsRegisterCounter("decoder.ppp", tv);
dtv->counter_pppoe = StatsRegisterCounter("decoder.pppoe", tv);
dtv->counter_gre = StatsRegisterCounter("decoder.gre", tv);
dtv->counter_vlan = StatsRegisterCounter("decoder.vlan", tv);
dtv->counter_vlan_qinq = StatsRegisterCounter("decoder.vlan_qinq", tv);
dtv->counter_ieee8021ah = StatsRegisterCounter("decoder.ieee8021ah", tv);
dtv->counter_teredo = StatsRegisterCounter("decoder.teredo", tv);
dtv->counter_ipv4inipv6 = StatsRegisterCounter("decoder.ipv4_in_ipv6", tv);
dtv->counter_ipv6inipv6 = StatsRegisterCounter("decoder.ipv6_in_ipv6", tv);
dtv->counter_mpls = StatsRegisterCounter("decoder.mpls", tv);
dtv->counter_avg_pkt_size = StatsRegisterAvgCounter("decoder.avg_pkt_size", tv);
dtv->counter_max_pkt_size = StatsRegisterMaxCounter("decoder.max_pkt_size", tv);
dtv->counter_erspan = StatsRegisterMaxCounter("decoder.erspan", tv);
dtv->counter_flow_memcap = StatsRegisterCounter("flow.memcap", tv);
dtv->counter_flow_tcp = StatsRegisterCounter("flow.tcp", tv);
dtv->counter_flow_udp = StatsRegisterCounter("flow.udp", tv);
dtv->counter_flow_icmp4 = StatsRegisterCounter("flow.icmpv4", tv);
dtv->counter_flow_icmp6 = StatsRegisterCounter("flow.icmpv6", tv);
dtv->counter_defrag_ipv4_fragments =
StatsRegisterCounter("defrag.ipv4.fragments", tv);
dtv->counter_defrag_ipv4_reassembled =
StatsRegisterCounter("defrag.ipv4.reassembled", tv);
dtv->counter_defrag_ipv4_timeouts =
StatsRegisterCounter("defrag.ipv4.timeouts", tv);
dtv->counter_defrag_ipv6_fragments =
StatsRegisterCounter("defrag.ipv6.fragments", tv);
dtv->counter_defrag_ipv6_reassembled =
StatsRegisterCounter("defrag.ipv6.reassembled", tv);
dtv->counter_defrag_ipv6_timeouts =
StatsRegisterCounter("defrag.ipv6.timeouts", tv);
dtv->counter_defrag_max_hit =
StatsRegisterCounter("defrag.max_frag_hits", tv);
int i = 0;
for (i = 0; i < DECODE_EVENT_PACKET_MAX; i++) {
BUG_ON(i != (int)DEvents[i].code);
dtv->counter_invalid_events[i] = StatsRegisterCounter(
DEvents[i].event_name, tv);
}
return;
}
