int main(void)
{
int ret;
struct cmdline *cl;
int param_num = 8;
char *param[] = {"anscli",
"-c",
"1",
"-n",
"1",
"--no-pci",
"--socket-mem=1",
"--proc-type=secondary",
NULL};
rte_set_log_level(RTE_LOG_ERR);
ret = rte_eal_init(param_num, param);
if (ret < 0)
rte_panic("Cannot init EAL\n");
ret = anscli_ring_init();
if(ret != 0)
rte_panic("Cannot init ring\n");
cl = cmdline_stdin_new(ip_main_ctx, "ans> ");
if (cl == NULL)
rte_panic("Cannot create ans cmdline instance\n");
cmdline_interact(cl);
cmdline_stdin_exit(cl);
return 0;
}
static void udpi_init_rings(void)
{
uint32_t n_swq, i;
n_swq = udpi.n_workers ;
RTE_LOG(INFO, USER1, "Initializing %u SW rings for ctrlmsg\n", n_swq);
udpi.msg_rings = (struct rte_ring**)rte_malloc_socket(NULL, n_swq * sizeof(struct rte_ring *),
RTE_CACHE_LINE_SIZE, rte_socket_id());
if (udpi.msg_rings == NULL)
rte_panic("Cannot allocate memory to store ring pointers\n");
for (i = 0; i < n_swq; i++) {
struct rte_ring *ring;
char name[32];
snprintf(name, sizeof(name), "udpi_ctrlmsg_%u", i);
ring = rte_ring_create(
name,
16,
rte_socket_id(),
RING_F_SC_DEQ|RING_F_SP_ENQ);
if (ring == NULL)
rte_panic("Cannot create ctrlmsg ring %u\n", i);
udpi.msg_rings[i] = ring;
}
}
/*
* Send a message to a slave lcore identified by slave_id to call a
* function f with argument arg. Once the execution is done, the
* remote lcore switch in FINISHED state.
*/
int
rte_eal_remote_launch(int (*f)(void *), void *arg, unsigned slave_id)
{
int n;
char c = 0;
int m2s = lcore_config[slave_id].pipe_master2slave[1];
int s2m = lcore_config[slave_id].pipe_slave2master[0];
if (lcore_config[slave_id].state != WAIT)
return -EBUSY;
lcore_config[slave_id].f = f;
lcore_config[slave_id].arg = arg;
/* send message */
n = 0;
while (n == 0 || (n < 0 && errno == EINTR))
n = write(m2s, &c, 1);
if (n < 0)
rte_panic("cannot write on configuration pipe\n");
/* wait ack */
do {
n = read(s2m, &c, 1);
} while (n < 0 && errno == EINTR);
if (n <= 0)
rte_panic("cannot read on configuration pipe\n");
return 0;
}
static void
app_init_lpm_tables(void)
{
unsigned socket, lcore;
/* Init the LPM tables */
for (socket = 0; socket < APP_MAX_SOCKETS; socket ++) {
char name[32];
uint32_t rule;
if (app_is_socket_used(socket) == 0) {
continue;
}
struct rte_lpm_config lpm_config;
lpm_config.max_rules = APP_MAX_LPM_RULES;
lpm_config.number_tbl8s = 256;
lpm_config.flags = 0;
snprintf(name, sizeof(name), "lpm_table_%u", socket);
printf("Creating the LPM table for socket %u ...\n", socket);
app.lpm_tables[socket] = rte_lpm_create(
name,
socket,
&lpm_config);
if (app.lpm_tables[socket] == NULL) {
rte_panic("Unable to create LPM table on socket %u\n", socket);
}
for (rule = 0; rule < app.n_lpm_rules; rule ++) {
int ret;
ret = rte_lpm_add(app.lpm_tables[socket],
app.lpm_rules[rule].ip,
app.lpm_rules[rule].depth,
app.lpm_rules[rule].if_out);
if (ret < 0) {
rte_panic("Unable to add entry %u (%x/%u => %u) to the LPM table on socket %u (%d)\n",
(unsigned) rule,
(unsigned) app.lpm_rules[rule].ip,
(unsigned) app.lpm_rules[rule].depth,
(unsigned) app.lpm_rules[rule].if_out,
socket,
ret);
}
}
}
for (lcore = 0; lcore < APP_MAX_LCORES; lcore ++) {
if (app.lcore_params[lcore].type != e_APP_LCORE_WORKER) {
continue;
}
socket = rte_lcore_to_socket_id(lcore);
app.lcore_params[lcore].worker.lpm_table = app.lpm_tables[socket];
}
}
static void
app_init_ports(void)
{
uint32_t i;
/* Init NIC ports, then start the ports */
for (i = 0; i < app.n_ports; i++) {
uint16_t port;
int ret;
port = app.ports[i];
RTE_LOG(INFO, USER1, "Initializing NIC port %u ...\n", port);
/* Init port */
ret = rte_eth_dev_configure(
port,
1,
1,
&port_conf);
if (ret < 0)
rte_panic("Cannot init NIC port %u (%d)\n", port, ret);
rte_eth_promiscuous_enable(port);
/* Init RX queues */
ret = rte_eth_rx_queue_setup(
port,
0,
app.port_rx_ring_size,
rte_eth_dev_socket_id(port),
&rx_conf,
app.pool);
if (ret < 0)
rte_panic("Cannot init RX for port %u (%d)\n",
(uint32_t) port, ret);
/* Init TX queues */
ret = rte_eth_tx_queue_setup(
port,
0,
app.port_tx_ring_size,
rte_eth_dev_socket_id(port),
&tx_conf);
if (ret < 0)
rte_panic("Cannot init TX for port %u (%d)\n",
(uint32_t) port, ret);
/* Start port */
ret = rte_eth_dev_start(port);
if (ret < 0)
rte_panic("Cannot start port %u (%d)\n", port, ret);
}
app_ports_check_link();
}
void
app_ping(void)
{
unsigned i;
uint64_t timestamp, diff_tsc;
const uint64_t timeout = rte_get_tsc_hz() * APP_PING_TIMEOUT_SEC;
for (i = 0; i < RTE_MAX_LCORE; i++) {
struct app_core_params *p = &app.cores[i];
struct rte_ring *ring_req, *ring_resp;
void *msg;
struct app_msg_req *req;
int status;
if ((p->core_type != APP_CORE_FC) &&
(p->core_type != APP_CORE_FW) &&
(p->core_type != APP_CORE_RT) &&
(p->core_type != APP_CORE_RX))
continue;
ring_req = app_get_ring_req(p->core_id);
ring_resp = app_get_ring_resp(p->core_id);
/* Fill request message */
msg = (void *)rte_ctrlmbuf_alloc(app.msg_pool);
if (msg == NULL)
rte_panic("Unable to allocate new message\n");
req = (struct app_msg_req *)
rte_ctrlmbuf_data((struct rte_mbuf *)msg);
req->type = APP_MSG_REQ_PING;
/* Send request */
do {
status = rte_ring_sp_enqueue(ring_req, msg);
} while (status == -ENOBUFS);
/* Wait for response */
timestamp = rte_rdtsc();
do {
status = rte_ring_sc_dequeue(ring_resp, &msg);
diff_tsc = rte_rdtsc() - timestamp;
if (unlikely(diff_tsc > timeout))
rte_panic("Core %u of type %d does not respond "
"to requests\n", p->core_id,
p->core_type);
} while (status != 0);
/* Free message buffer */
rte_ctrlmbuf_free(msg);
}
}
/* create memory configuration in shared/mmap memory. Take out
* a write lock on the memsegs, so we can auto-detect primary/secondary.
* This means we never close the file while running (auto-close on exit).
* We also don't lock the whole file, so that in future we can use read-locks
* on other parts, e.g. memzones, to detect if there are running secondary
* processes. */
static void
rte_eal_config_create(void)
{
void *rte_mem_cfg_addr;
int retval;
const char *pathname = eal_runtime_config_path();
if (internal_config.no_shconf)
return;
/* map the config before hugepage address so that we don't waste a page */
if (internal_config.base_virtaddr != 0)
rte_mem_cfg_addr = (void *)
RTE_ALIGN_FLOOR(internal_config.base_virtaddr -
sizeof(struct rte_mem_config), sysconf(_SC_PAGE_SIZE));
else
rte_mem_cfg_addr = NULL;
if (mem_cfg_fd < 0){
mem_cfg_fd = open(pathname, O_RDWR | O_CREAT, 0660);
if (mem_cfg_fd < 0)
rte_panic("Cannot open '%s' for rte_mem_config\n", pathname);
}
retval = ftruncate(mem_cfg_fd, sizeof(*rte_config.mem_config));
if (retval < 0){
close(mem_cfg_fd);
rte_panic("Cannot resize '%s' for rte_mem_config\n", pathname);
}
retval = fcntl(mem_cfg_fd, F_SETLK, &wr_lock);
if (retval < 0){
close(mem_cfg_fd);
rte_exit(EXIT_FAILURE, "Cannot create lock on '%s'. Is another primary "
"process running?\n", pathname);
}
rte_mem_cfg_addr = mmap(rte_mem_cfg_addr, sizeof(*rte_config.mem_config),
PROT_READ | PROT_WRITE, MAP_SHARED, mem_cfg_fd, 0);
if (rte_mem_cfg_addr == MAP_FAILED){
rte_panic("Cannot mmap memory for rte_config\n");
}
memcpy(rte_mem_cfg_addr, &early_mem_config, sizeof(early_mem_config));
rte_config.mem_config = (struct rte_mem_config *) rte_mem_cfg_addr;
/* store address of the config in the config itself so that secondary
* processes could later map the config into this exact location */
rte_config.mem_config->mem_cfg_addr = (uintptr_t) rte_mem_cfg_addr;
}
void
app_init_nics(void) {
#ifndef RTE_VERSION_NUM
/* Init driver */
printf("Initializing the PMD driver ...\n");
if (rte_pmd_init_all() < 0) {
rte_panic("Cannot init PMD\n");
}
#elif RTE_VERSION < RTE_VERSION_NUM(1, 8, 0, 0)
if (rte_eal_pci_probe() < 0) {
rte_panic("Cannot probe PCI\n");
}
#endif /* RTE_VERSION_NUM */
}
int32_t interfaceSetup(void)
{
uint8_t portIndex = 0, portCount = rte_eth_dev_count();
int32_t ret = 0, socket_id = -1;
struct rte_eth_link link;
for (portIndex = 0; portIndex < portCount; portIndex++)
{
/* fetch the socket Id to which the port the mapped */
for (ret = 0; ret < GTP_MAX_NUMANODE; ret++)
{
if (numaNodeInfo[ret].intfTotal) {
if (numaNodeInfo[ret].intfAvail & (1 << portIndex)) {
socket_id = ret;
break;
}
}
}
memset(&link, 0x00, sizeof(struct rte_eth_link));
ret = rte_eth_dev_configure(portIndex, 1, 1, &portConf);
if (unlikely(ret < 0))
{
rte_panic("ERROR: Dev Configure\n");
return -1;
}
ret = rte_eth_rx_queue_setup(portIndex, 0, RTE_TEST_RX_DESC_DEFAULT,
0, NULL, numaNodeInfo[socket_id].rx[0]);
if (unlikely(ret < 0))
{
rte_panic("ERROR: Rx Queue Setup\n");
return -2;
}
ret = rte_eth_tx_queue_setup(portIndex, 0, RTE_TEST_TX_DESC_DEFAULT,
0, NULL);
if (unlikely(ret < 0))
{
rte_panic("ERROR: Tx Queue Setup\n");
return -3;
}
rte_eth_promiscuous_enable(portIndex);
rte_eth_dev_start(portIndex);
}
return 0;
}
static void
app_init_mbuf_pools(void)
{
/* Init the buffer pool */
RTE_LOG(INFO, USER1, "Creating the mbuf pool ...\n");
app.pool = rte_mempool_create(
"mempool",
app.pool_size,
app.pool_buffer_size,
app.pool_cache_size,
sizeof(struct rte_pktmbuf_pool_private),
rte_pktmbuf_pool_init, NULL,
rte_pktmbuf_init, NULL,
rte_socket_id(),
0);
if (app.pool == NULL)
rte_panic("Cannot create mbuf pool\n");
/* Init the indirect buffer pool */
RTE_LOG(INFO, USER1, "Creating the indirect mbuf pool ...\n");
app.indirect_pool = rte_mempool_create(
"indirect mempool",
app.pool_size,
sizeof(struct rte_mbuf) + sizeof(struct app_pkt_metadata),
app.pool_cache_size,
0,
NULL, NULL,
rte_pktmbuf_init, NULL,
rte_socket_id(),
0);
if (app.indirect_pool == NULL)
rte_panic("Cannot create mbuf pool\n");
/* Init the message buffer pool */
RTE_LOG(INFO, USER1, "Creating the message pool ...\n");
app.msg_pool = rte_mempool_create(
"mempool msg",
app.msg_pool_size,
app.msg_pool_buffer_size,
app.msg_pool_cache_size,
0,
NULL, NULL,
rte_ctrlmbuf_init, NULL,
rte_socket_id(),
0);
if (app.msg_pool == NULL)
rte_panic("Cannot create message pool\n");
}
static void
app_init_kni(struct app_params *app) {
if (app->n_pktq_kni == 0)
return;
rte_panic("Can not init KNI without librte_kni support.\n");
}
static inline void
vmxnet3_tq_tx_complete(vmxnet3_tx_queue_t *txq)
{
int completed = 0;
struct rte_mbuf *mbuf;
vmxnet3_comp_ring_t *comp_ring = &txq->comp_ring;
struct Vmxnet3_TxCompDesc *tcd = (struct Vmxnet3_TxCompDesc *)
(comp_ring->base + comp_ring->next2proc);
while (tcd->gen == comp_ring->gen) {
/* Release cmd_ring descriptor and free mbuf */
#ifdef RTE_LIBRTE_VMXNET3_DEBUG_DRIVER
VMXNET3_ASSERT(txq->cmd_ring.base[tcd->txdIdx].txd.eop == 1);
#endif
mbuf = txq->cmd_ring.buf_info[tcd->txdIdx].m;
if (unlikely(mbuf == NULL))
rte_panic("EOP desc does not point to a valid mbuf");
else
rte_pktmbuf_free(mbuf);
txq->cmd_ring.buf_info[tcd->txdIdx].m = NULL;
/* Mark the txd for which tcd was generated as completed */
vmxnet3_cmd_ring_adv_next2comp(&txq->cmd_ring);
vmxnet3_comp_ring_adv_next2proc(comp_ring);
tcd = (struct Vmxnet3_TxCompDesc *)(comp_ring->base +
comp_ring->next2proc);
completed++;
}
PMD_TX_LOG(DEBUG, "Processed %d tx comps & command descs.", completed);
}
static int
app_install_coremask(uint64_t core_mask)
{
uint32_t n_cores, i;
for (n_cores = 0, i = 0; i < RTE_MAX_LCORE; i++)
if (app.cores[i].core_type != APP_CORE_NONE)
n_cores++;
if (n_cores != app.n_cores) {
rte_panic("Number of cores in COREMASK should be %u instead "
"of %u\n", n_cores, app.n_cores);
return -1;
}
for (i = 0; i < RTE_MAX_LCORE; i++) {
uint32_t core_id;
if (app.cores[i].core_type == APP_CORE_NONE)
continue;
core_id = __builtin_ctzll(core_mask);
core_mask &= ~(1LLU << core_id);
app.cores[i].core_id = core_id;
}
return 0;
}
/*
* Resize allocated memory.
*/
void *
rte_realloc(void *ptr, size_t size, unsigned align)
{
if (ptr == NULL)
return rte_malloc(NULL, size, align);
struct malloc_elem *elem = malloc_elem_from_data(ptr);
if (elem == NULL)
rte_panic("Fatal error: memory corruption detected\n");
size = CACHE_LINE_ROUNDUP(size), align = CACHE_LINE_ROUNDUP(align);
/* check alignment matches first, and if ok, see if we can resize block */
if (RTE_PTR_ALIGN(ptr,align) == ptr &&
malloc_elem_resize(elem, size) == 0)
return ptr;
/* either alignment is off, or we have no room to expand,
* so move data. */
void *new_ptr = rte_malloc(NULL, size, align);
if (new_ptr == NULL)
return NULL;
const unsigned old_size = elem->size - MALLOC_ELEM_OVERHEAD;
rte_memcpy(new_ptr, ptr, old_size < size ? old_size : size);
rte_free(ptr);
return new_ptr;
}
void
app_main_loop_worker(void) {
struct app_mbuf_array *worker_mbuf;
uint32_t i;
RTE_LOG(INFO, USER1, "Core %u is doing work (no pipeline)\n",
rte_lcore_id());
worker_mbuf = rte_malloc_socket(NULL, sizeof(struct app_mbuf_array),
RTE_CACHE_LINE_SIZE, rte_socket_id());
if (worker_mbuf == NULL)
rte_panic("Worker thread: cannot allocate buffer space\n");
for (i = 0; ; i = ((i + 1) & (app.n_ports - 1))) {
int ret;
ret = rte_ring_sc_dequeue_bulk(
app.rings_rx[i],
(void **) worker_mbuf->array,
app.burst_size_worker_read);
if (ret == -ENOENT)
continue;
do {
ret = rte_ring_sp_enqueue_bulk(
app.rings_tx[i ^ 1],
(void **) worker_mbuf->array,
app.burst_size_worker_write);
} while (ret < 0);
}
}
int
control_callback_setup(const char* cb, uint8_t nb_ports)
{
char cmd[CTRL_CBK_MAX_SIZE];
int len;
char ether1[ETHER_ADDR_FMT_SIZE];
uint8_t port;
const char* argv[4];
len = snprintf(cmd, CTRL_CBK_MAX_SIZE, "%s", cb);
for (port = 0; port < nb_ports; port++) {
ether_format_addr(ether1, ETHER_ADDR_FMT_SIZE,
&ports_eth_addr[port]);
len += snprintf(&cmd[len], CTRL_CBK_MAX_SIZE - len,
" dpdk%d %s", port, ether1);
if (len >= CTRL_CBK_MAX_SIZE) {
rte_panic("control callback too long");
}
}
argv[0] = "/bin/sh";
argv[1] = "-c";
argv[2] = cmd;
argv[3] = NULL;
RTE_LOG(INFO, PKTJ_CTRL1, "executing command `%s`\n", cmd);
return posix_spawn(NULL, "/bin/sh", NULL, NULL, __DECONST(char**, argv),
environ);
}
/* reattach the shared config at exact memory location primary process has it */
static void
rte_eal_config_reattach(void)
{
struct rte_mem_config *mem_config;
void *rte_mem_cfg_addr;
if (internal_config.no_shconf)
return;
/* save the address primary process has mapped shared config to */
rte_mem_cfg_addr = (void *) (uintptr_t) rte_config.mem_config->mem_cfg_addr;
/* unmap original config */
munmap(rte_config.mem_config, sizeof(struct rte_mem_config));
/* remap the config at proper address */
mem_config = (struct rte_mem_config *) mmap(rte_mem_cfg_addr,
sizeof(*mem_config), PROT_READ | PROT_WRITE, MAP_SHARED,
mem_cfg_fd, 0);
close(mem_cfg_fd);
if (mem_config == MAP_FAILED || mem_config != rte_mem_cfg_addr)
rte_panic("Cannot mmap memory for rte_config\n");
rte_config.mem_config = mem_config;
}
int
rte_memzone_free(const struct rte_memzone *mz)
{
struct rte_mem_config *mcfg;
int ret = 0;
void *addr;
unsigned idx;
if (mz == NULL)
return -EINVAL;
mcfg = rte_eal_get_configuration()->mem_config;
rte_rwlock_write_lock(&mcfg->mlock);
idx = ((uintptr_t)mz - (uintptr_t)mcfg->memzone);
idx = idx / sizeof(struct rte_memzone);
addr = mcfg->memzone[idx].addr;
if (addr == NULL)
ret = -EINVAL;
else if (mcfg->memzone_cnt == 0) {
rte_panic("%s(): memzone address not NULL but memzone_cnt is 0!\n",
__func__);
} else {
memset(&mcfg->memzone[idx], 0, sizeof(mcfg->memzone[idx]));
mcfg->memzone_cnt--;
}
rte_rwlock_write_unlock(&mcfg->mlock);
rte_free(addr);
return ret;
}
static void
app_init_mbuf_pools(void)
{
unsigned socket, lcore;
/* Init the buffer pools */
for (socket = 0; socket < APP_MAX_SOCKETS; socket ++) {
char name[32];
if (app_is_socket_used(socket) == 0) {
continue;
}
snprintf(name, sizeof(name), "mbuf_pool_%u", socket);
printf("Creating the mbuf pool for socket %u ...\n", socket);
app.pools[socket] = rte_pktmbuf_pool_create(
name, APP_DEFAULT_MEMPOOL_BUFFERS,
APP_DEFAULT_MEMPOOL_CACHE_SIZE,
0, APP_DEFAULT_MBUF_DATA_SIZE, socket);
if (app.pools[socket] == NULL) {
rte_panic("Cannot create mbuf pool on socket %u\n", socket);
}
}
for (lcore = 0; lcore < APP_MAX_LCORES; lcore ++) {
if (app.lcore_params[lcore].type == e_APP_LCORE_DISABLED) {
continue;
}
socket = rte_lcore_to_socket_id(lcore);
app.lcore_params[lcore].pool = app.pools[socket];
}
}
static void
app_ports_check_link(void)
{
uint32_t all_ports_up, i;
all_ports_up = 1;
for (i = 0; i < app.n_ports; i++) {
struct rte_eth_link link;
uint8_t port;
port = (uint8_t) app.ports[i];
memset(&link, 0, sizeof(link));
rte_eth_link_get_nowait(port, &link);
RTE_LOG(INFO, USER1, "Port %u (%u Gbps) %s\n",
port,
link.link_speed / 1000,
link.link_status ? "UP" : "DOWN");
if (link.link_status == 0)
all_ports_up = 0;
}
if (all_ports_up == 0)
rte_panic("Some NIC ports are DOWN\n");
}
int
rte_kni_release(struct rte_kni *kni)
{
struct rte_kni_device_info dev_info;
uint32_t slot_id;
if (!kni || !kni->in_use)
return -1;
snprintf(dev_info.name, sizeof(dev_info.name), "%s", kni->name);
if (ioctl(kni_fd, RTE_KNI_IOCTL_RELEASE, &dev_info) < 0) {
RTE_LOG(ERR, KNI, "Fail to release kni device\n");
return -1;
}
/* mbufs in all fifo should be released, except request/response */
kni_free_fifo(kni->tx_q);
kni_free_fifo(kni->rx_q);
kni_free_fifo(kni->alloc_q);
kni_free_fifo(kni->free_q);
slot_id = kni->slot_id;
/* Memset the KNI struct */
memset(kni, 0, sizeof(struct rte_kni));
/* Release memzone */
if (slot_id > kni_memzone_pool.max_ifaces) {
rte_panic("KNI pool: corrupted slot ID: %d, max: %d\n",
slot_id, kni_memzone_pool.max_ifaces);
}
kni_memzone_pool_release(&kni_memzone_pool.slots[slot_id]);
return 0;
}
static void set_mempool(struct rte_mempool *mempool) {
#if (!PER_CORE)
int initialized[RTE_MAX_NUMA_NODES];
for (int i = 0; i < RTE_MAX_NUMA_NODES; i++) {
initialized[i] = 0;
}
#endif
if (mempool == NULL) {
rte_panic("Got a NULL mempool");
}
/* Loop through all cores, to see if any of them belong to this
* socket. */
for (int i = 0; i < RTE_MAX_LCORE; i++) {
int sid = rte_lcore_to_socket_id(i);
#if (!PER_CORE)
if (!initialized[sid]) {
#endif
struct rte_mbuf *mbuf = NULL;
#if (PER_CORE)
pframe_pool[i] = mempool;
#else
pframe_pool[sid] = mempool;
#endif
/* Initialize mbuf template */
#if PER_CORE
mbuf = rte_pktmbuf_alloc(pframe_pool[i]);
if (mbuf == NULL) {
rte_panic("Bad mbuf");
}
mbuf_template[i] = *mbuf;
rte_pktmbuf_free(mbuf);
#else
mbuf = rte_pktmbuf_alloc(pframe_pool[sid]);
if (mbuf == NULL ||
mbuf->next != NULL ||
mbuf->pool == NULL) {
rte_panic("Bad mbuf");
}
mbuf_template[sid] = *mbuf;
rte_pktmbuf_free(mbuf);
#endif
#if (!PER_CORE)
initialized[sid] = 1;
}
#endif
}
}
static void udpi_init_mbuf_pools(void)
{
/* Init the buffer pool */
RTE_LOG(INFO, MEMPOOL, "Creating the mbuf pool ...\n");
udpi.pool = rte_mempool_create("mempool",
udpi.pool_size,
udpi.pool_buffer_size,
udpi.pool_cache_size,
sizeof(struct rte_pktmbuf_pool_private),
rte_pktmbuf_pool_init,
NULL,
rte_pktmbuf_init,
NULL,
rte_socket_id(),
0);
if(NULL == udpi.pool)
{
rte_panic("Cannot create mbuf pool\n");
}
/* Init the indirect buffer pool */
/*RTE_LOG(INFO, MEMPOOL, "Creating the indirect mbuf pool ...\n");
udpi.indirect_pool = rte_mempool_create("indirect mempool",
udpi.pool_size,
sizeof(struct rte_mbuf), udpi.pool_cache_size, 0, NULL, NULL,
rte_pktmbuf_init, NULL, rte_socket_id(), 0);
if(NULL == udpi.indirect_pool)
{
rte_panic("Cannot create indirect mbuf pool\n");
}*/
/* Init the message buffer pool */
RTE_LOG(INFO, MEMPOOL, "Creating the message mbuf pool ...\n");
udpi.msg_pool = rte_mempool_create("msg mempool ",
udpi.msg_pool_size,
udpi.msg_pool_buffer_size,
udpi.msg_pool_cache_size,
0, NULL, NULL,
rte_ctrlmbuf_init, NULL,
rte_socket_id(), 0);
if(NULL == udpi.msg_pool)
{
rte_panic("Cannot create message mbuf pool\n");
}
return;
}
static void
app_init_pipelines(struct app_params *app)
{
uint32_t p_id;
for (p_id = 0; p_id < app->n_pipelines; p_id++) {
struct app_pipeline_params *params =
&app->pipeline_params[p_id];
struct app_pipeline_data *data = &app->pipeline_data[p_id];
struct pipeline_type *ptype;
struct pipeline_params pp;
APP_LOG(app, HIGH, "Initializing %s ...", params->name);
ptype = app_pipeline_type_find(app, params->type);
if (ptype == NULL)
rte_panic("Init error: Unknown pipeline type \"%s\"\n",
params->type);
app_pipeline_params_get(app, params, &pp);
/* Back-end */
data->be = NULL;
if (ptype->be_ops->f_init) {
data->be = ptype->be_ops->f_init(&pp, (void *) app);
if (data->be == NULL)
rte_panic("Pipeline instance \"%s\" back-end "
"init error\n", params->name);
}
/* Front-end */
data->fe = NULL;
if (ptype->fe_ops->f_init) {
data->fe = ptype->fe_ops->f_init(&pp, (void *) app);
if (data->fe == NULL)
rte_panic("Pipeline instance \"%s\" front-end "
"init error\n", params->name);
}
data->ptype = ptype;
data->timer_period = (rte_get_tsc_hz() *
params->timer_period) / 100;
}
}
int main(int argc, char **argv)
{
int ret;
struct cmdline *cl;
ret = rte_eal_init(argc, argv);
if (ret < 0)
rte_panic("Cannot init EAL\n");
cl = cmdline_stdin_new(main_ctx, "example> ");
if (cl == NULL)
rte_panic("Cannot create cmdline instance\n");
cmdline_interact(cl);
cmdline_stdin_exit(cl);
return 0;
}
void*
control_init(int32_t socket_id, unsigned events)
{
struct netl_handle* netl_h;
struct handle_res* res;
netl_h = netl_create(events);
if (netl_h == NULL) {
RTE_LOG(ERR, PKTJ_CTRL1, "Couldn't initialize netlink socket");
goto err;
}
neighbor4_struct[socket_id] = nei_create(socket_id);
if (neighbor4_struct[socket_id] == NULL) {
RTE_LOG(ERR, PKTJ_CTRL1,
"Couldn't initialize neighbor4 struct");
goto err;
}
neighbor6_struct[socket_id] = nei_create(socket_id);
if (neighbor6_struct[socket_id] == NULL) {
RTE_LOG(ERR, PKTJ_CTRL1,
"Couldn't initialize neighbor6 struct");
goto err;
}
netl_h->cb.addr4 = addr4;
netl_h->cb.addr6 = addr6;
netl_h->cb.neighbor4 = neighbor4;
netl_h->cb.neighbor6 = neighbor6;
netl_h->cb.route4 = route4;
netl_h->cb.route6 = route6;
netl_h->cb.link = eth_link;
struct in_addr invalid_ip = {INADDR_ANY};
struct in6_addr invalid_ip6 = IN6ADDR_ANY_INIT;
if (add_invalid_neighbor4(neighbor4_struct[socket_id], &invalid_ip,
BAD_PORT) < 0) {
RTE_LOG(ERR, PKTJ_CTRL1,
"Couldn't add drop target in neighbor4 table");
goto err;
}
if (add_invalid_neighbor6(neighbor6_struct[socket_id], &invalid_ip6,
BAD_PORT) < 0) {
RTE_LOG(ERR, PKTJ_CTRL1,
"Couldn't add drop target in neighbor6 table");
goto err;
}
res = rte_malloc("handle-res", sizeof(*res), socket_id);
res->socket_id = socket_id;
res->netl_h = netl_h;
return res;
err:
rte_panic("failed to init control_main");
}
/*
* Parse /sys/devices/system/cpu to get the number of physical and logical
* processors on the machine. The function will fill the cpu_info
* structure.
*/
int
rte_eal_cpu_init(void)
{
/* pointer to global configuration */
struct rte_config *config = rte_eal_get_configuration();
unsigned lcore_id;
unsigned count = 0;
/*
* Parse the maximum set of logical cores, detect the subset of running
* ones and enable them by default.
*/
for (lcore_id = 0; lcore_id < RTE_MAX_LCORE; lcore_id++) {
lcore_config[lcore_id].core_index = count;
/* init cpuset for per lcore config */
CPU_ZERO(&lcore_config[lcore_id].cpuset);
/* in 1:1 mapping, record related cpu detected state */
lcore_config[lcore_id].detected = eal_cpu_detected(lcore_id);
if (lcore_config[lcore_id].detected == 0) {
config->lcore_role[lcore_id] = ROLE_OFF;
lcore_config[lcore_id].core_index = -1;
continue;
}
/* By default, lcore 1:1 map to cpu id */
CPU_SET(lcore_id, &lcore_config[lcore_id].cpuset);
/* By default, each detected core is enabled */
config->lcore_role[lcore_id] = ROLE_RTE;
lcore_config[lcore_id].core_id = eal_cpu_core_id(lcore_id);
lcore_config[lcore_id].socket_id = eal_cpu_socket_id(lcore_id);
if (lcore_config[lcore_id].socket_id >= RTE_MAX_NUMA_NODES)
#ifdef RTE_EAL_ALLOW_INV_SOCKET_ID
lcore_config[lcore_id].socket_id = 0;
#else
rte_panic("Socket ID (%u) is greater than "
"RTE_MAX_NUMA_NODES (%d)\n",
lcore_config[lcore_id].socket_id,
RTE_MAX_NUMA_NODES);
#endif
RTE_LOG(DEBUG, EAL, "Detected lcore %u as "
"core %u on socket %u\n",
lcore_id, lcore_config[lcore_id].core_id,
lcore_config[lcore_id].socket_id);
count++;
}
/* Set the count of enabled logical cores of the EAL configuration */
config->lcore_count = count;
RTE_LOG(DEBUG, EAL,
"Support maximum %u logical core(s) by configuration.\n",
RTE_MAX_LCORE);
RTE_LOG(DEBUG, EAL, "Detected %u lcore(s)\n", config->lcore_count);
return 0;
}
int
tcpreplay_netport_init(struct arguments *args)
{
int ret;
uint8_t rss_key [40];
struct rte_eth_link link;
struct rte_eth_dev_info dev_info;
struct rte_eth_rss_conf rss_conf;
struct rte_eth_fdir fdir_conf;
/* Retreiving and printing device infos */
rte_eth_dev_info_get(i, &dev_info);
printf("Name:%s\n\tDriver name: %s\n\tMax rx queues: %d\n\tMax tx queues: %d\n", dev_info.pci_dev->driver->name,dev_info.driver_name, dev_info.max_rx_queues, dev_info.max_tx_queues);
printf("\tPCI Adress: %04d:%02d:%02x:%01d\n", dev_info.pci_dev->addr.domain, dev_info.pci_dev->addr.bus, dev_info.pci_dev->addr.devid, dev_info.pci_dev->addr.function);
/* Configure device with '1' rx queues and 1 tx queue */
ret = rte_eth_dev_configure(i, 1, 1, &port_conf);
if (ret < 0) rte_panic("Error configuring the port\n");
/* For each RX queue in each NIC */
/* Configure rx queue j of current device on current NUMA socket. It takes elements from the mempool */
ret = rte_eth_rx_queue_setup(i, 0, RX_QUEUE_SZ, rte_socket_id(), &rx_conf, pktmbuf_pool);
if (ret < 0) FATAL_ERROR("Error configuring receiving queue\n");
/* Configure mapping [queue] -> [element in stats array] */
ret = rte_eth_dev_set_rx_queue_stats_mapping (i, 0, 0);
if (ret < 0) FATAL_ERROR("Error configuring receiving queue stats\n");
/* Configure tx queue of current device on current NUMA socket. Mandatory configuration even if you want only rx packet */
ret = rte_eth_tx_queue_setup(i, 0, TX_QUEUE_SZ, rte_socket_id(), &tx_conf);
if (ret < 0) FATAL_ERROR("Error configuring transmitting queue. Errno: %d (%d bad arg, %d no mem)\n", -ret, EINVAL ,ENOMEM);
/* Start device */
ret = rte_eth_dev_start(i);
if (ret < 0) FATAL_ERROR("Cannot start port\n");
/* Enable receipt in promiscuous mode for an Ethernet device */
rte_eth_promiscuous_enable(i);
/* Print link status */
rte_eth_link_get_nowait(i, &link);
if (link.link_status) printf("\tPort %d Link Up - speed %u Mbps - %s\n", (uint8_t)i, (unsigned)link.link_speed,(link.link_duplex == ETH_LINK_FULL_DUPLEX) ?("full-duplex") : ("half-duplex\n"));
else printf("\tPort %d Link Down\n",(uint8_t)i);
/* Print RSS support, not reliable because a NIC could support rss configuration just in rte_eth_dev_configure whithout supporting rte_eth_dev_rss_hash_conf_get*/
rss_conf.rss_key = rss_key;
ret = rte_eth_dev_rss_hash_conf_get (i,&rss_conf);
if (ret == 0) printf("\tDevice supports RSS\n"); else printf("\tDevice DOES NOT support RSS\n");
/* Print Flow director support */
ret = rte_eth_dev_fdir_get_infos (i, &fdir_conf);
if (ret == 0) printf("\tDevice supports Flow Director\n"); else printf("\tDevice DOES NOT support Flow Director\n");
if (args)
return 1;
return 1;
}
int main(int argc, char **argv)
{
int c;
int ret;
int sp_sc;
unsigned socket_io;
/* initialize EAL first */
ret = rte_eal_init(argc, argv);
argc -= ret;
argv += ret;
sp_sc = 1;
bulk_size = 1;
while ((c = getopt(argc, argv, "sm:b:w:")) != -1) {
switch (c) {
case 's':
sp_sc = 1;
break;
case 'm':
sp_sc = 0;
nb_producers = atoi(optarg);
break;
case 'b':
bulk_size = atoi(optarg);
break;
case 'w':
work_cycles = atoi(optarg);
break;
case '?':
break;
}
}
setlocale(LC_NUMERIC, "");
socket_io = rte_lcore_to_socket_id(rte_get_master_lcore());
ring = rte_ring_create(ring_name,
ring_size, socket_io, RING_F_SP_ENQ | RING_F_SC_DEQ);
if (ring == NULL) {
rte_panic("Cannot create ring");
}
if (sp_sc) {
printf("[MASTER] Single Producer/Consumer\n");
printf("[MASTER] Bulk size: %d\n", bulk_size);
driver_sp_sc();
} else {
printf("[MASTER] Number of Producers/Consumers: %d\n", nb_producers);
printf("[MASTER] Bulk size: %d\n", bulk_size);
driver_mp_mc();
}
rte_eal_mp_wait_lcore();
}
void eal_thread_init_master(unsigned lcore_id)
{
/* set the lcore ID in per-lcore memory area */
RTE_PER_LCORE(_lcore_id) = lcore_id;
/* set CPU affinity */
if (eal_thread_set_affinity() < 0)
rte_panic("cannot set affinity\n");
}
