xref: /dpdk/app/test-eventdev/test_perf_common.c (revision bca734c27e345af500d0d951421584e2567cd107)

/* SPDX-License-Identifier: BSD-3-Clause
 * Copyright(c) 2017 Cavium, Inc
 */

#include <math.h>

#include "test_perf_common.h"

#define NB_CRYPTODEV_DESCRIPTORS 4096
#define DATA_SIZE		512
#define IV_OFFSET (sizeof(struct rte_crypto_op) + \
		   sizeof(struct rte_crypto_sym_op) + \
		   sizeof(union rte_event_crypto_metadata))

struct modex_test_data {
	enum rte_crypto_asym_xform_type xform_type;
	struct {
		uint8_t data[DATA_SIZE];
		uint16_t len;
	} base;
	struct {
		uint8_t data[DATA_SIZE];
		uint16_t len;
	} exponent;
	struct {
		uint8_t data[DATA_SIZE];
		uint16_t len;
	} modulus;
	struct {
		uint8_t data[DATA_SIZE];
		uint16_t len;
	} reminder;
	uint16_t result_len;
};

static struct
modex_test_data modex_test_case = {
	.xform_type = RTE_CRYPTO_ASYM_XFORM_MODEX,
	.base = {
		.data = {
			0xF8, 0xBA, 0x1A, 0x55, 0xD0, 0x2F, 0x85,
			0xAE, 0x96, 0x7B, 0xB6, 0x2F, 0xB6, 0xCD,
			0xA8, 0xEB, 0x7E, 0x78, 0xA0, 0x50
		},
		.len = 20,
	},
	.exponent = {
		.data = {
			0x01, 0x00, 0x01
		},
		.len = 3,
	},
	.reminder = {
		.data = {
			0x2C, 0x60, 0x75, 0x45, 0x98, 0x9D, 0xE0, 0x72,
			0xA0, 0x9D, 0x3A, 0x9E, 0x03, 0x38, 0x73, 0x3C,
			0x31, 0x83, 0x04, 0xFE, 0x75, 0x43, 0xE6, 0x17,
			0x5C, 0x01, 0x29, 0x51, 0x69, 0x33, 0x62, 0x2D,
			0x78, 0xBE, 0xAE, 0xC4, 0xBC, 0xDE, 0x7E, 0x2C,
			0x77, 0x84, 0xF2, 0xC5, 0x14, 0xB5, 0x2F, 0xF7,
			0xC5, 0x94, 0xEF, 0x86, 0x75, 0x75, 0xB5, 0x11,
			0xE5, 0x0E, 0x0A, 0x29, 0x76, 0xE2, 0xEA, 0x32,
			0x0E, 0x43, 0x77, 0x7E, 0x2C, 0x27, 0xAC, 0x3B,
			0x86, 0xA5, 0xDB, 0xC9, 0x48, 0x40, 0xE8, 0x99,
			0x9A, 0x0A, 0x3D, 0xD6, 0x74, 0xFA, 0x2E, 0x2E,
			0x5B, 0xAF, 0x8C, 0x99, 0x44, 0x2A, 0x67, 0x38,
			0x27, 0x41, 0x59, 0x9D, 0xB8, 0x51, 0xC9, 0xF7,
			0x43, 0x61, 0x31, 0x6E, 0xF1, 0x25, 0x38, 0x7F,
			0xAE, 0xC6, 0xD0, 0xBB, 0x29, 0x76, 0x3F, 0x46,
			0x2E, 0x1B, 0xE4, 0x67, 0x71, 0xE3, 0x87, 0x5A
		},
		.len = 128,
	},
	.modulus = {
		.data = {
			0xb3, 0xa1, 0xaf, 0xb7, 0x13, 0x08, 0x00, 0x0a,
			0x35, 0xdc, 0x2b, 0x20, 0x8d, 0xa1, 0xb5, 0xce,
			0x47, 0x8a, 0xc3, 0x80, 0xf4, 0x7d, 0x4a, 0xa2,
			0x62, 0xfd, 0x61, 0x7f, 0xb5, 0xa8, 0xde, 0x0a,
			0x17, 0x97, 0xa0, 0xbf, 0xdf, 0x56, 0x5a, 0x3d,
			0x51, 0x56, 0x4f, 0x70, 0x70, 0x3f, 0x63, 0x6a,
			0x44, 0x5b, 0xad, 0x84, 0x0d, 0x3f, 0x27, 0x6e,
			0x3b, 0x34, 0x91, 0x60, 0x14, 0xb9, 0xaa, 0x72,
			0xfd, 0xa3, 0x64, 0xd2, 0x03, 0xa7, 0x53, 0x87,
			0x9e, 0x88, 0x0b, 0xc1, 0x14, 0x93, 0x1a, 0x62,
			0xff, 0xb1, 0x5d, 0x74, 0xcd, 0x59, 0x63, 0x18,
			0x11, 0x3d, 0x4f, 0xba, 0x75, 0xd4, 0x33, 0x4e,
			0x23, 0x6b, 0x7b, 0x57, 0x44, 0xe1, 0xd3, 0x03,
			0x13, 0xa6, 0xf0, 0x8b, 0x60, 0xb0, 0x9e, 0xee,
			0x75, 0x08, 0x9d, 0x71, 0x63, 0x13, 0xcb, 0xa6,
			0x81, 0x92, 0x14, 0x03, 0x22, 0x2d, 0xde, 0x55
		},
		.len = 128,
	},
	.result_len = 128,
};

int
perf_test_result(struct evt_test *test, struct evt_options *opt)
{
	RTE_SET_USED(opt);
	int i;
	uint64_t total = 0;
	struct test_perf *t = evt_test_priv(test);

	printf("Packet distribution across worker cores :\n");
	for (i = 0; i < t->nb_workers; i++)
		total += t->worker[i].processed_pkts;
	for (i = 0; i < t->nb_workers; i++)
		printf("Worker %d packets: "CLGRN"%"PRIx64" "CLNRM"percentage:"
				CLGRN" %3.2f"CLNRM"\n", i,
				t->worker[i].processed_pkts,
				(((double)t->worker[i].processed_pkts)/total)
				* 100);

	return t->result;
}

static inline int
perf_producer(void *arg)
{
	int i;
	struct prod_data *p  = arg;
	struct test_perf *t = p->t;
	struct evt_options *opt = t->opt;
	const uint8_t dev_id = p->dev_id;
	const uint8_t port = p->port_id;
	struct rte_mempool *pool = t->pool;
	const uint64_t nb_pkts = t->nb_pkts;
	const uint32_t nb_flows = t->nb_flows;
	uint32_t flow_counter = 0;
	uint64_t count = 0;
	struct perf_elt *m[BURST_SIZE + 1] = {NULL};
	uint8_t enable_fwd_latency;
	struct rte_event ev;

	enable_fwd_latency = opt->fwd_latency;
	if (opt->verbose_level > 1)
		printf("%s(): lcore %d dev_id %d port=%d queue %d\n", __func__,
				rte_lcore_id(), dev_id, port, p->queue_id);

	ev.event = 0;
	ev.op = RTE_EVENT_OP_NEW;
	ev.queue_id = p->queue_id;
	ev.sched_type = t->opt->sched_type_list[0];
	ev.priority = RTE_EVENT_DEV_PRIORITY_NORMAL;
	ev.event_type =  RTE_EVENT_TYPE_CPU;
	ev.sub_event_type = 0; /* stage 0 */

	while (count < nb_pkts && t->done == false) {
		if (rte_mempool_get_bulk(pool, (void **)m, BURST_SIZE) < 0)
			continue;
		for (i = 0; i < BURST_SIZE; i++) {
			ev.flow_id = flow_counter++ % nb_flows;
			ev.event_ptr = m[i];
			if (enable_fwd_latency)
				m[i]->timestamp = rte_get_timer_cycles();
			while (rte_event_enqueue_new_burst(dev_id, port, &ev,
							   1) != 1) {
				if (t->done)
					break;
				rte_pause();
				if (enable_fwd_latency)
					m[i]->timestamp =
						rte_get_timer_cycles();
			}
		}
		count += BURST_SIZE;
	}

	return 0;
}

static inline int
perf_producer_burst(void *arg)
{
	uint32_t i;
	uint64_t timestamp;
	struct prod_data *p  = arg;
	struct test_perf *t = p->t;
	struct evt_options *opt = t->opt;
	const uint8_t dev_id = p->dev_id;
	const uint8_t port = p->port_id;
	struct rte_mempool *pool = t->pool;
	const uint64_t nb_pkts = t->nb_pkts;
	const uint32_t nb_flows = t->nb_flows;
	uint32_t flow_counter = 0;
	uint16_t enq = 0;
	uint64_t count = 0;
	struct perf_elt *m[opt->prod_enq_burst_sz + 1];
	struct rte_event ev[opt->prod_enq_burst_sz + 1];
	uint32_t burst_size = opt->prod_enq_burst_sz;
	uint8_t enable_fwd_latency;

	enable_fwd_latency = opt->fwd_latency;
	memset(m, 0, sizeof(*m) * (opt->prod_enq_burst_sz + 1));
	if (opt->verbose_level > 1)
		printf("%s(): lcore %d dev_id %d port=%d queue %d\n", __func__,
				rte_lcore_id(), dev_id, port, p->queue_id);

	for (i = 0; i < burst_size; i++) {
		ev[i].op = RTE_EVENT_OP_NEW;
		ev[i].queue_id = p->queue_id;
		ev[i].sched_type = t->opt->sched_type_list[0];
		ev[i].priority = RTE_EVENT_DEV_PRIORITY_NORMAL;
		ev[i].event_type =  RTE_EVENT_TYPE_CPU;
		ev[i].sub_event_type = 0; /* stage 0 */
	}

	while (count < nb_pkts && t->done == false) {
		if (rte_mempool_get_bulk(pool, (void **)m, burst_size) < 0)
			continue;
		timestamp = rte_get_timer_cycles();
		for (i = 0; i < burst_size; i++) {
			ev[i].flow_id = flow_counter++ % nb_flows;
			ev[i].event_ptr = m[i];
			if (enable_fwd_latency)
				m[i]->timestamp = timestamp;
		}
		enq = rte_event_enqueue_new_burst(dev_id, port, ev, burst_size);
		while (enq < burst_size) {
			enq += rte_event_enqueue_new_burst(
				dev_id, port, ev + enq, burst_size - enq);
			if (t->done)
				break;
			rte_pause();
			if (enable_fwd_latency) {
				timestamp = rte_get_timer_cycles();
				for (i = enq; i < burst_size; i++)
					m[i]->timestamp = timestamp;
			}
		}
		count += burst_size;
	}
	return 0;
}

static inline int
perf_event_timer_producer(void *arg)
{
	int i;
	struct prod_data *p  = arg;
	struct test_perf *t = p->t;
	struct evt_options *opt = t->opt;
	uint32_t flow_counter = 0;
	uint64_t count = 0;
	uint64_t arm_latency = 0;
	const uint8_t nb_timer_adptrs = opt->nb_timer_adptrs;
	const uint32_t nb_flows = t->nb_flows;
	const uint64_t nb_timers = opt->nb_timers;
	struct rte_mempool *pool = t->pool;
	struct perf_elt *m[BURST_SIZE + 1] = {NULL};
	struct rte_event_timer_adapter **adptr = t->timer_adptr;
	struct rte_event_timer tim;
	uint64_t timeout_ticks = opt->expiry_nsec / opt->timer_tick_nsec;

	memset(&tim, 0, sizeof(struct rte_event_timer));
	timeout_ticks =
		opt->optm_timer_tick_nsec
			? ceil((double)(timeout_ticks * opt->timer_tick_nsec) /
			       opt->optm_timer_tick_nsec)
			: timeout_ticks;
	timeout_ticks += timeout_ticks ? 0 : 1;
	tim.ev.event_type = RTE_EVENT_TYPE_TIMER;
	tim.ev.op = RTE_EVENT_OP_NEW;
	tim.ev.sched_type = t->opt->sched_type_list[0];
	tim.ev.queue_id = p->queue_id;
	tim.ev.priority = RTE_EVENT_DEV_PRIORITY_NORMAL;
	tim.state = RTE_EVENT_TIMER_NOT_ARMED;
	tim.timeout_ticks = timeout_ticks;

	if (opt->verbose_level > 1)
		printf("%s(): lcore %d\n", __func__, rte_lcore_id());

	while (count < nb_timers && t->done == false) {
		if (rte_mempool_get_bulk(pool, (void **)m, BURST_SIZE) < 0)
			continue;
		for (i = 0; i < BURST_SIZE; i++) {
			rte_prefetch0(m[i + 1]);
			m[i]->tim = tim;
			m[i]->tim.ev.flow_id = flow_counter++ % nb_flows;
			m[i]->tim.ev.event_ptr = m[i];
			m[i]->timestamp = rte_get_timer_cycles();
			while (rte_event_timer_arm_burst(
			       adptr[flow_counter % nb_timer_adptrs],
			       (struct rte_event_timer **)&m[i], 1) != 1) {
				if (t->done)
					break;
				m[i]->timestamp = rte_get_timer_cycles();
			}
			arm_latency += rte_get_timer_cycles() - m[i]->timestamp;
		}
		count += BURST_SIZE;
	}
	fflush(stdout);
	rte_delay_ms(1000);
	printf("%s(): lcore %d Average event timer arm latency = %.3f us\n",
			__func__, rte_lcore_id(),
			count ? (float)(arm_latency / count) /
			(rte_get_timer_hz() / 1000000) : 0);
	return 0;
}

static inline int
perf_event_timer_producer_burst(void *arg)
{
	int i;
	struct prod_data *p  = arg;
	struct test_perf *t = p->t;
	struct evt_options *opt = t->opt;
	uint32_t flow_counter = 0;
	uint64_t count = 0;
	uint64_t arm_latency = 0;
	const uint8_t nb_timer_adptrs = opt->nb_timer_adptrs;
	const uint32_t nb_flows = t->nb_flows;
	const uint64_t nb_timers = opt->nb_timers;
	struct rte_mempool *pool = t->pool;
	struct perf_elt *m[BURST_SIZE + 1] = {NULL};
	struct rte_event_timer_adapter **adptr = t->timer_adptr;
	struct rte_event_timer tim;
	uint64_t timeout_ticks = opt->expiry_nsec / opt->timer_tick_nsec;

	memset(&tim, 0, sizeof(struct rte_event_timer));
	timeout_ticks =
		opt->optm_timer_tick_nsec
			? ceil((double)(timeout_ticks * opt->timer_tick_nsec) /
			       opt->optm_timer_tick_nsec)
			: timeout_ticks;
	timeout_ticks += timeout_ticks ? 0 : 1;
	tim.ev.event_type = RTE_EVENT_TYPE_TIMER;
	tim.ev.op = RTE_EVENT_OP_NEW;
	tim.ev.sched_type = t->opt->sched_type_list[0];
	tim.ev.queue_id = p->queue_id;
	tim.ev.priority = RTE_EVENT_DEV_PRIORITY_NORMAL;
	tim.state = RTE_EVENT_TIMER_NOT_ARMED;
	tim.timeout_ticks = timeout_ticks;

	if (opt->verbose_level > 1)
		printf("%s(): lcore %d\n", __func__, rte_lcore_id());

	while (count < nb_timers && t->done == false) {
		if (rte_mempool_get_bulk(pool, (void **)m, BURST_SIZE) < 0)
			continue;
		for (i = 0; i < BURST_SIZE; i++) {
			rte_prefetch0(m[i + 1]);
			m[i]->tim = tim;
			m[i]->tim.ev.flow_id = flow_counter++ % nb_flows;
			m[i]->tim.ev.event_ptr = m[i];
			m[i]->timestamp = rte_get_timer_cycles();
		}
		rte_event_timer_arm_tmo_tick_burst(
				adptr[flow_counter % nb_timer_adptrs],
				(struct rte_event_timer **)m,
				tim.timeout_ticks,
				BURST_SIZE);
		arm_latency += rte_get_timer_cycles() - m[i - 1]->timestamp;
		count += BURST_SIZE;
	}
	fflush(stdout);
	rte_delay_ms(1000);
	printf("%s(): lcore %d Average event timer arm latency = %.3f us\n",
			__func__, rte_lcore_id(),
			count ? (float)(arm_latency / count) /
			(rte_get_timer_hz() / 1000000) : 0);
	return 0;
}

static inline void
crypto_adapter_enq_op_new(struct prod_data *p)
{
	struct test_perf *t = p->t;
	const uint32_t nb_flows = t->nb_flows;
	const uint64_t nb_pkts = t->nb_pkts;
	struct rte_mempool *pool = t->pool;
	uint16_t data_length, data_offset;
	struct evt_options *opt = t->opt;
	uint16_t qp_id = p->ca.cdev_qp_id;
	uint8_t cdev_id = p->ca.cdev_id;
	uint64_t alloc_failures = 0;
	uint32_t flow_counter = 0;
	struct rte_crypto_op *op;
	uint16_t len, offset;
	struct rte_mbuf *m;
	uint64_t count = 0;

	if (opt->verbose_level > 1)
		printf("%s(): lcore %d queue %d cdev_id %u cdev_qp_id %u\n",
		       __func__, rte_lcore_id(), p->queue_id, p->ca.cdev_id,
		       p->ca.cdev_qp_id);

	offset = sizeof(struct perf_elt);
	len = RTE_MAX(RTE_ETHER_MIN_LEN + offset, opt->mbuf_sz);

	if (opt->crypto_cipher_bit_mode) {
		data_offset = offset << 3;
		data_length = (len - offset) << 3;
	} else {
		data_offset = offset;
		data_length = len - offset;
	}

	while (count < nb_pkts && t->done == false) {
		if (opt->crypto_op_type == RTE_CRYPTO_OP_TYPE_SYMMETRIC) {
			struct rte_crypto_sym_op *sym_op;

			op = rte_crypto_op_alloc(t->ca_op_pool,
					 RTE_CRYPTO_OP_TYPE_SYMMETRIC);
			if (unlikely(op == NULL)) {
				alloc_failures++;
				continue;
			}

			m = rte_pktmbuf_alloc(pool);
			if (unlikely(m == NULL)) {
				alloc_failures++;
				rte_crypto_op_free(op);
				continue;
			}

			rte_pktmbuf_append(m, len);
			sym_op = op->sym;
			sym_op->m_src = m;

			sym_op->cipher.data.offset = data_offset;
			sym_op->cipher.data.length = data_length;

			rte_crypto_op_attach_sym_session(
				op, p->ca.crypto_sess[flow_counter++ % nb_flows]);
		} else {
			struct rte_crypto_asym_op *asym_op;
			uint8_t *result;

			if (rte_mempool_get(pool, (void **)&result)) {
				alloc_failures++;
				continue;
			}

			op = rte_crypto_op_alloc(t->ca_op_pool,
					 RTE_CRYPTO_OP_TYPE_ASYMMETRIC);
			if (unlikely(op == NULL)) {
				alloc_failures++;
				rte_mempool_put(pool, result);
				continue;
			}

			asym_op = op->asym;
			asym_op->modex.base.data = modex_test_case.base.data;
			asym_op->modex.base.length = modex_test_case.base.len;
			asym_op->modex.result.data = result;
			asym_op->modex.result.length = modex_test_case.result_len;
			rte_crypto_op_attach_asym_session(
				op, p->ca.crypto_sess[flow_counter++ % nb_flows]);
		}
		while (rte_cryptodev_enqueue_burst(cdev_id, qp_id, &op, 1) != 1 &&
				t->done == false)
			rte_pause();

		count++;
	}

	if (opt->verbose_level > 1 && alloc_failures)
		printf("%s(): lcore %d allocation failures: %"PRIu64"\n",
		       __func__, rte_lcore_id(), alloc_failures);
}

static inline void
crypto_adapter_enq_op_fwd(struct prod_data *p)
{
	const uint8_t dev_id = p->dev_id;
	const uint8_t port = p->port_id;
	struct test_perf *t = p->t;
	const uint32_t nb_flows = t->nb_flows;
	const uint64_t nb_pkts = t->nb_pkts;
	struct rte_mempool *pool = t->pool;
	struct evt_options *opt = t->opt;
	uint64_t alloc_failures = 0;
	uint32_t flow_counter = 0;
	struct rte_crypto_op *op;
	uint16_t len, offset;
	struct rte_event ev;
	struct rte_mbuf *m;
	uint64_t count = 0;

	if (opt->verbose_level > 1)
		printf("%s(): lcore %d port %d queue %d cdev_id %u cdev_qp_id %u\n",
		       __func__, rte_lcore_id(), port, p->queue_id,
		       p->ca.cdev_id, p->ca.cdev_qp_id);

	ev.event = 0;
	ev.op = RTE_EVENT_OP_NEW;
	ev.queue_id = p->queue_id;
	ev.sched_type = RTE_SCHED_TYPE_ATOMIC;
	ev.event_type = RTE_EVENT_TYPE_CPU;

	offset = sizeof(struct perf_elt);
	len = RTE_MAX(RTE_ETHER_MIN_LEN + offset, opt->mbuf_sz);

	while (count < nb_pkts && t->done == false) {
		if (opt->crypto_op_type == RTE_CRYPTO_OP_TYPE_SYMMETRIC) {
			struct rte_crypto_sym_op *sym_op;

			op = rte_crypto_op_alloc(t->ca_op_pool,
					 RTE_CRYPTO_OP_TYPE_SYMMETRIC);
			if (unlikely(op == NULL)) {
				alloc_failures++;
				continue;
			}

			m = rte_pktmbuf_alloc(pool);
			if (unlikely(m == NULL)) {
				alloc_failures++;
				rte_crypto_op_free(op);
				continue;
			}

			rte_pktmbuf_append(m, len);
			sym_op = op->sym;
			sym_op->m_src = m;
			sym_op->cipher.data.offset = offset;
			sym_op->cipher.data.length = len - offset;
			rte_crypto_op_attach_sym_session(
				op, p->ca.crypto_sess[flow_counter++ % nb_flows]);
		} else {
			struct rte_crypto_asym_op *asym_op;
			uint8_t *result;

			if (rte_mempool_get(pool, (void **)&result)) {
				alloc_failures++;
				continue;
			}

			op = rte_crypto_op_alloc(t->ca_op_pool,
					 RTE_CRYPTO_OP_TYPE_ASYMMETRIC);
			if (unlikely(op == NULL)) {
				alloc_failures++;
				rte_mempool_put(pool, result);
				continue;
			}

			asym_op = op->asym;
			asym_op->modex.base.data = modex_test_case.base.data;
			asym_op->modex.base.length = modex_test_case.base.len;
			asym_op->modex.result.data = result;
			asym_op->modex.result.length = modex_test_case.result_len;
			rte_crypto_op_attach_asym_session(
				op, p->ca.crypto_sess[flow_counter++ % nb_flows]);
		}
		ev.event_ptr = op;

		while (rte_event_crypto_adapter_enqueue(dev_id, port, &ev, 1) != 1 &&
		       t->done == false)
			rte_pause();

		count++;
	}

	if (opt->verbose_level > 1 && alloc_failures)
		printf("%s(): lcore %d allocation failures: %"PRIu64"\n",
		       __func__, rte_lcore_id(), alloc_failures);
}

static inline void
dma_adapter_enq_op_fwd(struct prod_data *p)
{
	struct rte_event_dma_adapter_op *ops[BURST_SIZE] = {NULL};
	struct test_perf *t = p->t;
	const uint32_t nb_flows = t->nb_flows;
	const uint64_t nb_pkts = t->nb_pkts;
	struct rte_event_dma_adapter_op op;
	struct rte_event evts[BURST_SIZE];
	const uint8_t dev_id = p->dev_id;
	struct evt_options *opt = t->opt;
	const uint8_t port = p->port_id;
	uint32_t flow_counter = 0;
	struct rte_mempool *pool;
	struct rte_event ev;
	uint8_t *src, *dst;
	uint64_t count = 0;
	uint32_t flow;
	int i;

	pool = t->pool;
	if (opt->verbose_level > 1)
		printf("%s(): lcore %d port %d queue %d dma_dev_id %u dma_dev_vchan_id %u\n",
		       __func__, rte_lcore_id(), port, p->queue_id,
		       p->da.dma_dev_id, p->da.vchan_id);

	src = rte_zmalloc(NULL, nb_flows * RTE_CACHE_LINE_SIZE, RTE_CACHE_LINE_SIZE);
	dst = rte_zmalloc(NULL, nb_flows * RTE_CACHE_LINE_SIZE, RTE_CACHE_LINE_SIZE);
	if (!src || !dst) {
		rte_free(src);
		rte_free(dst);
		evt_err("Failed to alloc memory for src/dst");
		return;
	}

	ev.event = 0;
	ev.op = RTE_EVENT_OP_NEW;
	ev.queue_id = p->queue_id;
	ev.sched_type = RTE_SCHED_TYPE_ATOMIC;
	ev.event_type = RTE_EVENT_TYPE_CPU;

	op.dma_dev_id = p->da.dma_dev_id;
	op.vchan = p->da.vchan_id;
	op.op_mp = pool;
	op.flags = RTE_DMA_OP_FLAG_SUBMIT;
	op.nb_src = 1;
	op.nb_dst = 1;

	while (count < nb_pkts && t->done == false) {
		if (rte_mempool_get_bulk(pool, (void **)ops, BURST_SIZE) < 0)
			continue;
		for (i = 0; i < BURST_SIZE; i++) {
			flow = flow_counter++ % nb_flows;
			*ops[i] = op;
			ops[i]->src_dst_seg[0].addr = (rte_iova_t)&src[flow * RTE_CACHE_LINE_SIZE];
			ops[i]->src_dst_seg[1].addr = (rte_iova_t)&dst[flow * RTE_CACHE_LINE_SIZE];
			ops[i]->src_dst_seg[0].length = RTE_CACHE_LINE_SIZE;
			ops[i]->src_dst_seg[1].length = RTE_CACHE_LINE_SIZE;

			evts[i].event = ev.event;
			evts[i].flow_id = flow;
			evts[i].event_ptr = ops[i];
		}

		i = rte_event_dma_adapter_enqueue(dev_id, port, evts, BURST_SIZE);
		while (i < BURST_SIZE) {
			i += rte_event_dma_adapter_enqueue(dev_id, port, evts + i, BURST_SIZE - i);
			if (t->done)
				break;
			rte_pause();
		}

		count += BURST_SIZE;
	}
}

static inline int
perf_event_dma_producer(void *arg)
{
	struct prod_data *p = arg;

	/* Only fwd mode is supported. */
	dma_adapter_enq_op_fwd(p);

	return 0;
}

static inline int
perf_event_crypto_producer(void *arg)
{
	struct prod_data *p = arg;
	struct evt_options *opt = p->t->opt;

	if (opt->crypto_adptr_mode == RTE_EVENT_CRYPTO_ADAPTER_OP_NEW)
		crypto_adapter_enq_op_new(p);
	else
		crypto_adapter_enq_op_fwd(p);

	return 0;
}

static void
crypto_adapter_enq_op_new_burst(struct prod_data *p)
{
	const struct test_perf *t = p->t;
	const struct evt_options *opt = t->opt;

	struct rte_mbuf *m, *pkts_burst[MAX_PROD_ENQ_BURST_SIZE];
	struct rte_crypto_op *ops_burst[MAX_PROD_ENQ_BURST_SIZE];
	const uint32_t burst_size = opt->prod_enq_burst_sz;
	uint8_t *result[MAX_PROD_ENQ_BURST_SIZE];
	const uint32_t nb_flows = t->nb_flows;
	const uint64_t nb_pkts = t->nb_pkts;
	uint16_t len, enq, nb_alloc, offset;
	struct rte_mempool *pool = t->pool;
	uint16_t qp_id = p->ca.cdev_qp_id;
	uint8_t cdev_id = p->ca.cdev_id;
	uint64_t alloc_failures = 0;
	uint32_t flow_counter = 0;
	uint64_t count = 0;
	uint32_t  i;

	if (opt->verbose_level > 1)
		printf("%s(): lcore %d queue %d cdev_id %u cdev_qp_id %u\n",
		       __func__, rte_lcore_id(), p->queue_id, p->ca.cdev_id,
		       p->ca.cdev_qp_id);

	offset = sizeof(struct perf_elt);
	len = RTE_MAX(RTE_ETHER_MIN_LEN + offset, opt->mbuf_sz);

	while (count < nb_pkts && t->done == false) {
		if (opt->crypto_op_type == RTE_CRYPTO_OP_TYPE_SYMMETRIC) {
			struct rte_crypto_sym_op *sym_op;
			int ret;

			nb_alloc = rte_crypto_op_bulk_alloc(t->ca_op_pool,
					RTE_CRYPTO_OP_TYPE_SYMMETRIC, ops_burst, burst_size);
			if (unlikely(nb_alloc != burst_size)) {
				alloc_failures++;
				continue;
			}

			ret = rte_pktmbuf_alloc_bulk(pool, pkts_burst, burst_size);
			if (unlikely(ret != 0)) {
				alloc_failures++;
				rte_mempool_put_bulk(t->ca_op_pool, (void **)ops_burst, burst_size);
				continue;
			}

			for (i = 0; i < burst_size; i++) {
				m = pkts_burst[i];
				rte_pktmbuf_append(m, len);
				sym_op = ops_burst[i]->sym;
				sym_op->m_src = m;
				sym_op->cipher.data.offset = offset;
				sym_op->cipher.data.length = len - offset;
				rte_crypto_op_attach_sym_session(ops_burst[i],
						p->ca.crypto_sess[flow_counter++ % nb_flows]);
			}
		} else {
			struct rte_crypto_asym_op *asym_op;

			nb_alloc = rte_crypto_op_bulk_alloc(t->ca_op_pool,
					RTE_CRYPTO_OP_TYPE_ASYMMETRIC, ops_burst, burst_size);
			if (unlikely(nb_alloc != burst_size)) {
				alloc_failures++;
				continue;
			}

			if (rte_mempool_get_bulk(pool, (void **)result, burst_size)) {
				alloc_failures++;
				rte_mempool_put_bulk(t->ca_op_pool, (void **)ops_burst, burst_size);
				continue;
			}

			for (i = 0; i < burst_size; i++) {
				asym_op = ops_burst[i]->asym;
				asym_op->modex.base.data = modex_test_case.base.data;
				asym_op->modex.base.length = modex_test_case.base.len;
				asym_op->modex.result.data = result[i];
				asym_op->modex.result.length = modex_test_case.result_len;
				rte_crypto_op_attach_asym_session(ops_burst[i],
						p->ca.crypto_sess[flow_counter++ % nb_flows]);
			}
		}

		enq = 0;
		while (!t->done) {
			enq += rte_cryptodev_enqueue_burst(cdev_id, qp_id, ops_burst + enq,
					burst_size - enq);
			if (enq == burst_size)
				break;
		}

		count += burst_size;
	}

	if (opt->verbose_level > 1 && alloc_failures)
		printf("%s(): lcore %d allocation failures: %"PRIu64"\n",
		       __func__, rte_lcore_id(), alloc_failures);
}

static void
crypto_adapter_enq_op_fwd_burst(struct prod_data *p)
{
	const struct test_perf *t = p->t;
	const struct evt_options *opt = t->opt;

	struct rte_mbuf *m, *pkts_burst[MAX_PROD_ENQ_BURST_SIZE];
	struct rte_crypto_op *ops_burst[MAX_PROD_ENQ_BURST_SIZE];
	const uint32_t burst_size = opt->prod_enq_burst_sz;
	struct rte_event ev[MAX_PROD_ENQ_BURST_SIZE];
	uint8_t *result[MAX_PROD_ENQ_BURST_SIZE];
	const uint32_t nb_flows = t->nb_flows;
	const uint64_t nb_pkts = t->nb_pkts;
	uint16_t len, enq, nb_alloc, offset;
	struct rte_mempool *pool = t->pool;
	const uint8_t dev_id = p->dev_id;
	const uint8_t port = p->port_id;
	uint64_t alloc_failures = 0;
	uint32_t flow_counter = 0;
	uint64_t count = 0;
	uint32_t  i;

	if (opt->verbose_level > 1)
		printf("%s(): lcore %d port %d queue %d cdev_id %u cdev_qp_id %u\n",
		       __func__, rte_lcore_id(), port, p->queue_id,
		       p->ca.cdev_id, p->ca.cdev_qp_id);

	offset = sizeof(struct perf_elt);
	len = RTE_MAX(RTE_ETHER_MIN_LEN + offset, opt->mbuf_sz);

	for (i = 0; i < burst_size; i++) {
		ev[i].event = 0;
		ev[i].op = RTE_EVENT_OP_NEW;
		ev[i].queue_id = p->queue_id;
		ev[i].sched_type = RTE_SCHED_TYPE_ATOMIC;
		ev[i].event_type = RTE_EVENT_TYPE_CPU;
	}

	while (count < nb_pkts && t->done == false) {
		if (opt->crypto_op_type == RTE_CRYPTO_OP_TYPE_SYMMETRIC) {
			struct rte_crypto_sym_op *sym_op;
			int ret;

			nb_alloc = rte_crypto_op_bulk_alloc(t->ca_op_pool,
					RTE_CRYPTO_OP_TYPE_SYMMETRIC, ops_burst, burst_size);
			if (unlikely(nb_alloc != burst_size)) {
				alloc_failures++;
				continue;
			}

			ret = rte_pktmbuf_alloc_bulk(pool, pkts_burst, burst_size);
			if (unlikely(ret != 0)) {
				alloc_failures++;
				rte_mempool_put_bulk(t->ca_op_pool, (void **)ops_burst, burst_size);
				continue;
			}

			for (i = 0; i < burst_size; i++) {
				m = pkts_burst[i];
				rte_pktmbuf_append(m, len);
				sym_op = ops_burst[i]->sym;
				sym_op->m_src = m;
				sym_op->cipher.data.offset = offset;
				sym_op->cipher.data.length = len - offset;
				rte_crypto_op_attach_sym_session(ops_burst[i],
						p->ca.crypto_sess[flow_counter++ % nb_flows]);
				ev[i].event_ptr = ops_burst[i];
			}
		} else {
			struct rte_crypto_asym_op *asym_op;

			nb_alloc = rte_crypto_op_bulk_alloc(t->ca_op_pool,
					RTE_CRYPTO_OP_TYPE_ASYMMETRIC, ops_burst, burst_size);
			if (unlikely(nb_alloc != burst_size)) {
				alloc_failures++;
				continue;
			}

			if (rte_mempool_get_bulk(pool, (void **)result, burst_size)) {
				alloc_failures++;
				rte_mempool_put_bulk(t->ca_op_pool, (void **)ops_burst, burst_size);
				continue;
			}

			for (i = 0; i < burst_size; i++) {
				asym_op = ops_burst[i]->asym;
				asym_op->modex.base.data = modex_test_case.base.data;
				asym_op->modex.base.length = modex_test_case.base.len;
				asym_op->modex.result.data = result[i];
				asym_op->modex.result.length = modex_test_case.result_len;
				rte_crypto_op_attach_asym_session(ops_burst[i],
						p->ca.crypto_sess[flow_counter++ % nb_flows]);
				ev[i].event_ptr = ops_burst[i];
			}
		}

		enq = 0;
		while (!t->done) {
			enq += rte_event_crypto_adapter_enqueue(dev_id, port, ev + enq,
					burst_size - enq);
			if (enq == burst_size)
				break;
		}

		count += burst_size;
	}

	if (opt->verbose_level > 1 && alloc_failures)
		printf("%s(): lcore %d allocation failures: %"PRIu64"\n",
		       __func__, rte_lcore_id(), alloc_failures);
}

static inline int
perf_event_crypto_producer_burst(void *arg)
{
	struct prod_data *p = arg;
	struct evt_options *opt = p->t->opt;

	if (opt->crypto_adptr_mode == RTE_EVENT_CRYPTO_ADAPTER_OP_NEW)
		crypto_adapter_enq_op_new_burst(p);
	else
		crypto_adapter_enq_op_fwd_burst(p);

	return 0;
}

static int
perf_producer_wrapper(void *arg)
{
	struct rte_event_dev_info dev_info;
	struct prod_data *p  = arg;
	struct test_perf *t = p->t;

	rte_event_dev_info_get(p->dev_id, &dev_info);
	if (!t->opt->prod_enq_burst_sz) {
		t->opt->prod_enq_burst_sz = MAX_PROD_ENQ_BURST_SIZE;
		if (dev_info.max_event_port_enqueue_depth > 0 &&
		    (uint32_t)dev_info.max_event_port_enqueue_depth <
			    t->opt->prod_enq_burst_sz)
			t->opt->prod_enq_burst_sz =
				dev_info.max_event_port_enqueue_depth;
	}

	/* In case of synthetic producer, launch perf_producer or
	 * perf_producer_burst depending on producer enqueue burst size
	 */
	if (t->opt->prod_type == EVT_PROD_TYPE_SYNT &&
			t->opt->prod_enq_burst_sz == 1)
		return perf_producer(arg);
	else if (t->opt->prod_type == EVT_PROD_TYPE_SYNT &&
			t->opt->prod_enq_burst_sz > 1) {
		if (dev_info.max_event_port_enqueue_depth == 1)
			evt_err("This event device does not support burst mode");
		else
			return perf_producer_burst(arg);
	}
	else if (t->opt->prod_type == EVT_PROD_TYPE_EVENT_TIMER_ADPTR &&
			!t->opt->timdev_use_burst)
		return perf_event_timer_producer(arg);
	else if (t->opt->prod_type == EVT_PROD_TYPE_EVENT_TIMER_ADPTR &&
			t->opt->timdev_use_burst)
		return perf_event_timer_producer_burst(arg);
	else if (t->opt->prod_type == EVT_PROD_TYPE_EVENT_CRYPTO_ADPTR) {
		if (t->opt->prod_enq_burst_sz > 1)
			return perf_event_crypto_producer_burst(arg);
		else
			return perf_event_crypto_producer(arg);
	} else if (t->opt->prod_type == EVT_PROD_TYPE_EVENT_DMA_ADPTR)
		return perf_event_dma_producer(arg);

	return 0;
}

static inline uint64_t
processed_pkts(struct test_perf *t)
{
	uint8_t i;
	uint64_t total = 0;

	for (i = 0; i < t->nb_workers; i++)
		total += t->worker[i].processed_pkts;

	return total;
}

static inline uint64_t
total_latency(struct test_perf *t)
{
	uint8_t i;
	uint64_t total = 0;

	for (i = 0; i < t->nb_workers; i++)
		total += t->worker[i].latency;

	return total;
}


int
perf_launch_lcores(struct evt_test *test, struct evt_options *opt,
		int (*worker)(void *))
{
	int ret, lcore_id;
	struct test_perf *t = evt_test_priv(test);

	int port_idx = 0;
	/* launch workers */
	RTE_LCORE_FOREACH_WORKER(lcore_id) {
		if (!(opt->wlcores[lcore_id]))
			continue;

		ret = rte_eal_remote_launch(worker,
				 &t->worker[port_idx], lcore_id);
		if (ret) {
			evt_err("failed to launch worker %d", lcore_id);
			return ret;
		}
		port_idx++;
	}

	/* launch producers */
	RTE_LCORE_FOREACH_WORKER(lcore_id) {
		if (!(opt->plcores[lcore_id]))
			continue;

		ret = rte_eal_remote_launch(perf_producer_wrapper,
				&t->prod[port_idx], lcore_id);
		if (ret) {
			evt_err("failed to launch perf_producer %d", lcore_id);
			return ret;
		}
		port_idx++;
	}

	const uint64_t total_pkts = t->outstand_pkts;

	uint64_t dead_lock_cycles = rte_get_timer_cycles();
	int64_t dead_lock_remaining  =  total_pkts;
	const uint64_t dead_lock_sample = rte_get_timer_hz() * 5;

	uint64_t perf_cycles = rte_get_timer_cycles();
	int64_t perf_remaining  = total_pkts;
	const uint64_t perf_sample = rte_get_timer_hz();

	static float total_mpps;
	static uint64_t samples;

	const uint64_t freq_mhz = rte_get_timer_hz() / 1000000;
	int64_t remaining = t->outstand_pkts - processed_pkts(t);

	while (t->done == false) {
		const uint64_t new_cycles = rte_get_timer_cycles();

		if ((new_cycles - perf_cycles) > perf_sample) {
			const uint64_t latency = total_latency(t);
			const uint64_t pkts = processed_pkts(t);

			remaining = t->outstand_pkts - pkts;
			float mpps = (float)(perf_remaining-remaining)/1000000;

			perf_remaining = remaining;
			perf_cycles = new_cycles;
			total_mpps += mpps;
			++samples;
			if (opt->fwd_latency && pkts > 0) {
				printf(CLGRN"\r%.3f mpps avg %.3f mpps [avg fwd latency %.3f us] "CLNRM,
					mpps, total_mpps/samples,
					(float)(latency/pkts)/freq_mhz);
			} else {
				printf(CLGRN"\r%.3f mpps avg %.3f mpps"CLNRM,
					mpps, total_mpps/samples);
			}
			fflush(stdout);

			if (remaining <= 0) {
				t->result = EVT_TEST_SUCCESS;
				if (opt->prod_type == EVT_PROD_TYPE_SYNT ||
				    opt->prod_type ==
					    EVT_PROD_TYPE_EVENT_TIMER_ADPTR ||
				    opt->prod_type ==
					    EVT_PROD_TYPE_EVENT_CRYPTO_ADPTR ||
				    opt->prod_type ==
					    EVT_PROD_TYPE_EVENT_DMA_ADPTR) {
					t->done = true;
					break;
				}
			}
		}

		if (new_cycles - dead_lock_cycles > dead_lock_sample &&
		    (opt->prod_type == EVT_PROD_TYPE_SYNT ||
		     opt->prod_type == EVT_PROD_TYPE_EVENT_TIMER_ADPTR ||
		     opt->prod_type == EVT_PROD_TYPE_EVENT_CRYPTO_ADPTR ||
		     opt->prod_type == EVT_PROD_TYPE_EVENT_DMA_ADPTR)) {
			remaining = t->outstand_pkts - processed_pkts(t);
			if (dead_lock_remaining == remaining) {
				rte_event_dev_dump(opt->dev_id, stdout);
				evt_err("No schedules for seconds, deadlock");
				t->done = true;
				break;
			}
			dead_lock_remaining = remaining;
			dead_lock_cycles = new_cycles;
		}
	}
	printf("\n");
	return 0;
}

static int
perf_event_rx_adapter_setup(struct evt_options *opt, uint8_t stride,
		struct rte_event_port_conf prod_conf)
{
	int ret = 0;
	uint16_t prod;
	struct rte_event_eth_rx_adapter_queue_conf queue_conf;

	memset(&queue_conf, 0,
			sizeof(struct rte_event_eth_rx_adapter_queue_conf));
	queue_conf.ev.sched_type = opt->sched_type_list[0];
	RTE_ETH_FOREACH_DEV(prod) {
		uint32_t cap;

		ret = rte_event_eth_rx_adapter_caps_get(opt->dev_id,
				prod, &cap);
		if (ret) {
			evt_err("failed to get event rx adapter[%d]"
					" capabilities",
					opt->dev_id);
			return ret;
		}
		queue_conf.ev.queue_id = prod * stride;
		ret = rte_event_eth_rx_adapter_create(prod, opt->dev_id,
				&prod_conf);
		if (ret) {
			evt_err("failed to create rx adapter[%d]", prod);
			return ret;
		}
		ret = rte_event_eth_rx_adapter_queue_add(prod, prod, -1,
				&queue_conf);
		if (ret) {
			evt_err("failed to add rx queues to adapter[%d]", prod);
			return ret;
		}

		if (!(cap & RTE_EVENT_ETH_RX_ADAPTER_CAP_INTERNAL_PORT)) {
			uint32_t service_id;

			rte_event_eth_rx_adapter_service_id_get(prod,
					&service_id);
			ret = evt_service_setup(service_id);
			if (ret) {
				evt_err("Failed to setup service core"
						" for Rx adapter\n");
				return ret;
			}
		}
	}

	return ret;
}

static int
perf_event_timer_adapter_setup(struct test_perf *t)
{
	int i;
	int ret;
	struct rte_event_timer_adapter_info adapter_info;
	struct rte_event_timer_adapter *wl;
	uint8_t nb_producers = evt_nr_active_lcores(t->opt->plcores);
	uint8_t flags = RTE_EVENT_TIMER_ADAPTER_F_ADJUST_RES;

	if (nb_producers == 1)
		flags |= RTE_EVENT_TIMER_ADAPTER_F_SP_PUT;

	for (i = 0; i < t->opt->nb_timer_adptrs; i++) {
		struct rte_event_timer_adapter_conf config = {
			.event_dev_id = t->opt->dev_id,
			.timer_adapter_id = i,
			.timer_tick_ns = t->opt->timer_tick_nsec,
			.max_tmo_ns = t->opt->max_tmo_nsec,
			.nb_timers = t->opt->pool_sz,
			.flags = flags,
		};

		wl = rte_event_timer_adapter_create(&config);
		if (wl == NULL) {
			evt_err("failed to create event timer ring %d", i);
			return rte_errno;
		}

		memset(&adapter_info, 0,
				sizeof(struct rte_event_timer_adapter_info));
		rte_event_timer_adapter_get_info(wl, &adapter_info);
		t->opt->optm_timer_tick_nsec = adapter_info.min_resolution_ns;

		if (!(adapter_info.caps &
				RTE_EVENT_TIMER_ADAPTER_CAP_INTERNAL_PORT)) {
			uint32_t service_id = -1U;

			rte_event_timer_adapter_service_id_get(wl,
					&service_id);
			ret = evt_service_setup(service_id);
			if (ret) {
				evt_err("Failed to setup service core"
						" for timer adapter\n");
				return ret;
			}
			rte_service_runstate_set(service_id, 1);
		}
		t->timer_adptr[i] = wl;
	}
	return 0;
}

static int
perf_event_crypto_adapter_setup(struct test_perf *t, struct prod_data *p)
{
	struct rte_event_crypto_adapter_queue_conf conf;
	struct evt_options *opt = t->opt;
	uint32_t cap;
	int ret;

	memset(&conf, 0, sizeof(conf));

	ret = rte_event_crypto_adapter_caps_get(p->dev_id, p->ca.cdev_id, &cap);
	if (ret) {
		evt_err("Failed to get crypto adapter capabilities");
		return ret;
	}

	if (((opt->crypto_adptr_mode == RTE_EVENT_CRYPTO_ADAPTER_OP_NEW) &&
	     !(cap & RTE_EVENT_CRYPTO_ADAPTER_CAP_INTERNAL_PORT_OP_NEW)) ||
	    ((opt->crypto_adptr_mode == RTE_EVENT_CRYPTO_ADAPTER_OP_FORWARD) &&
	     !(cap & RTE_EVENT_CRYPTO_ADAPTER_CAP_INTERNAL_PORT_OP_FWD))) {
		evt_err("crypto adapter %s mode unsupported\n",
			opt->crypto_adptr_mode ? "OP_FORWARD" : "OP_NEW");
		return -ENOTSUP;
	} else if (!(cap & RTE_EVENT_CRYPTO_ADAPTER_CAP_SESSION_PRIVATE_DATA)) {
		evt_err("Storing crypto session not supported");
		return -ENOTSUP;
	}

	if (opt->ena_vector) {
		struct rte_event_crypto_adapter_vector_limits limits;

		if (!(cap & RTE_EVENT_CRYPTO_ADAPTER_CAP_EVENT_VECTOR)) {
			evt_err("Crypto adapter doesn't support event vector");
			return -EINVAL;
		}

		ret = rte_event_crypto_adapter_vector_limits_get(p->dev_id, p->ca.cdev_id, &limits);
		if (ret) {
			evt_err("Failed to get crypto adapter's vector limits");
			return ret;
		}

		if (opt->vector_size < limits.min_sz || opt->vector_size > limits.max_sz) {
			evt_err("Vector size [%d] not within limits max[%d] min[%d]",
				opt->vector_size, limits.max_sz, limits.min_sz);
			return -EINVAL;
		}

		if (limits.log2_sz && !rte_is_power_of_2(opt->vector_size)) {
			evt_err("Vector size [%d] not power of 2", opt->vector_size);
			return -EINVAL;
		}

		if (opt->vector_tmo_nsec > limits.max_timeout_ns ||
			opt->vector_tmo_nsec < limits.min_timeout_ns) {
			evt_err("Vector timeout [%" PRIu64 "] not within limits "
				"max[%" PRIu64 "] min[%" PRIu64 "]",
				opt->vector_tmo_nsec, limits.max_timeout_ns, limits.min_timeout_ns);
			return -EINVAL;
		}

		conf.vector_mp = t->ca_vector_pool;
		conf.vector_sz = opt->vector_size;
		conf.vector_timeout_ns = opt->vector_tmo_nsec;
		conf.flags |= RTE_EVENT_CRYPTO_ADAPTER_EVENT_VECTOR;
	}

	if (cap & RTE_EVENT_CRYPTO_ADAPTER_CAP_INTERNAL_PORT_QP_EV_BIND) {
		conf.ev.sched_type = RTE_SCHED_TYPE_ATOMIC;
		conf.ev.queue_id = p->queue_id;
	}

	ret = rte_event_crypto_adapter_queue_pair_add(
		TEST_PERF_CA_ID, p->ca.cdev_id, p->ca.cdev_qp_id, &conf);

	return ret;
}

static int
perf_event_dma_adapter_setup(struct test_perf *t, struct prod_data *p)
{
	struct evt_options *opt = t->opt;
	struct rte_event event;
	uint32_t cap;
	int ret;

	ret = rte_event_dma_adapter_caps_get(p->dev_id, p->da.dma_dev_id, &cap);
	if (ret) {
		evt_err("Failed to get dma adapter capabilities");
		return ret;
	}

	if (((opt->dma_adptr_mode == RTE_EVENT_DMA_ADAPTER_OP_NEW) &&
	     !(cap & RTE_EVENT_DMA_ADAPTER_CAP_INTERNAL_PORT_OP_NEW)) ||
	    ((opt->dma_adptr_mode == RTE_EVENT_DMA_ADAPTER_OP_FORWARD) &&
	     !(cap & RTE_EVENT_DMA_ADAPTER_CAP_INTERNAL_PORT_OP_FWD))) {
		evt_err("dma adapter %s mode unsupported\n",
			opt->dma_adptr_mode ? "OP_FORWARD" : "OP_NEW");
		return -ENOTSUP;
	}

	if (cap & RTE_EVENT_DMA_ADAPTER_CAP_INTERNAL_PORT_VCHAN_EV_BIND)
		ret = rte_event_dma_adapter_vchan_add(TEST_PERF_DA_ID, p->da.dma_dev_id,
						      p->da.vchan_id, &event);
	else
		ret = rte_event_dma_adapter_vchan_add(TEST_PERF_DA_ID, p->da.dma_dev_id,
						      p->da.vchan_id, NULL);

	return ret;
}

static void *
cryptodev_sym_sess_create(struct prod_data *p, struct test_perf *t)
{
	const struct rte_cryptodev_symmetric_capability *cap;
	struct rte_cryptodev_sym_capability_idx cap_idx;
	enum rte_crypto_cipher_algorithm cipher_algo;
	struct rte_crypto_sym_xform cipher_xform;
	struct evt_options *opt = t->opt;
	uint16_t key_size;
	uint16_t iv_size;
	void *sess;

	cipher_algo = opt->crypto_cipher_alg;
	key_size = opt->crypto_cipher_key_sz;
	iv_size = opt->crypto_cipher_iv_sz;

	/* Check if device supports the algorithm */
	cap_idx.type = RTE_CRYPTO_SYM_XFORM_CIPHER;
	cap_idx.algo.cipher = cipher_algo;

	cap = rte_cryptodev_sym_capability_get(p->ca.cdev_id, &cap_idx);
	if (cap == NULL) {
		evt_err("Device doesn't support cipher algorithm [%s]. Test Skipped\n",
			rte_cryptodev_get_cipher_algo_string(cipher_algo));
		return NULL;
	}

	/* Check if device supports key size and IV size */
	if (rte_cryptodev_sym_capability_check_cipher(cap, key_size,
			iv_size) < 0) {
		evt_err("Device doesn't support cipher configuration:\n"
			"cipher algo [%s], key sz [%d], iv sz [%d]. Test Skipped\n",
			rte_cryptodev_get_cipher_algo_string(cipher_algo), key_size, iv_size);
		return NULL;
	}

	cipher_xform.type = RTE_CRYPTO_SYM_XFORM_CIPHER;
	cipher_xform.cipher.algo = cipher_algo;
	cipher_xform.cipher.key.data = opt->crypto_cipher_key;
	cipher_xform.cipher.key.length = key_size;
	cipher_xform.cipher.iv.length = iv_size;
	cipher_xform.cipher.iv.offset = IV_OFFSET;
	cipher_xform.cipher.op = RTE_CRYPTO_CIPHER_OP_ENCRYPT;
	cipher_xform.next = NULL;

	sess = rte_cryptodev_sym_session_create(p->ca.cdev_id, &cipher_xform,
			t->ca_sess_pool);
	if (sess == NULL) {
		evt_err("Failed to create sym session");
		return NULL;
	}

	return sess;
}

static void *
cryptodev_asym_sess_create(struct prod_data *p, struct test_perf *t)
{
	const struct rte_cryptodev_asymmetric_xform_capability *capability;
	struct rte_cryptodev_asym_capability_idx cap_idx;
	struct rte_crypto_asym_xform xform;
	void *sess;

	xform.next = NULL;
	xform.xform_type = RTE_CRYPTO_ASYM_XFORM_MODEX;
	cap_idx.type = xform.xform_type;
	capability = rte_cryptodev_asym_capability_get(p->ca.cdev_id, &cap_idx);
	if (capability == NULL) {
		evt_err("Device doesn't support MODEX. Test Skipped\n");
		return NULL;
	}

	xform.modex.modulus.data = modex_test_case.modulus.data;
	xform.modex.modulus.length = modex_test_case.modulus.len;
	xform.modex.exponent.data = modex_test_case.exponent.data;
	xform.modex.exponent.length = modex_test_case.exponent.len;

	if (rte_cryptodev_asym_session_create(p->ca.cdev_id, &xform,
			t->ca_asym_sess_pool, &sess)) {
		evt_err("Failed to create asym session");
		return NULL;
	}

	return sess;
}

int
perf_event_dev_port_setup(struct evt_test *test, struct evt_options *opt,
				uint8_t stride, uint8_t nb_queues,
				const struct rte_event_port_conf *port_conf)
{
	struct test_perf *t = evt_test_priv(test);
	uint16_t port, prod;
	int ret = -1;

	/* setup one port per worker, linking to all queues */
	for (port = 0; port < evt_nr_active_lcores(opt->wlcores);
				port++) {
		struct worker_data *w = &t->worker[port];

		w->dev_id = opt->dev_id;
		w->port_id = port;
		w->t = t;
		w->processed_pkts = 0;
		w->latency = 0;

		struct rte_event_port_conf conf = *port_conf;
		conf.event_port_cfg |= RTE_EVENT_PORT_CFG_HINT_WORKER;

		ret = rte_event_port_setup(opt->dev_id, port, &conf);
		if (ret) {
			evt_err("failed to setup port %d", port);
			return ret;
		}

		ret = rte_event_port_link(opt->dev_id, port, NULL, NULL, 0);
		if (ret != nb_queues) {
			evt_err("failed to link all queues to port %d", port);
			return -EINVAL;
		}
	}

	/* port for producers, no links */
	if (opt->prod_type == EVT_PROD_TYPE_ETH_RX_ADPTR) {
		for ( ; port < perf_nb_event_ports(opt); port++) {
			struct prod_data *p = &t->prod[port];
			p->t = t;
		}

		struct rte_event_port_conf conf = *port_conf;
		conf.event_port_cfg |= RTE_EVENT_PORT_CFG_HINT_PRODUCER;

		ret = perf_event_rx_adapter_setup(opt, stride, conf);
		if (ret)
			return ret;
	} else if (opt->prod_type == EVT_PROD_TYPE_EVENT_TIMER_ADPTR) {
		prod = 0;
		for ( ; port < perf_nb_event_ports(opt); port++) {
			struct prod_data *p = &t->prod[port];
			p->queue_id = prod * stride;
			p->t = t;
			prod++;
		}

		ret = perf_event_timer_adapter_setup(t);
		if (ret)
			return ret;
	} else if (opt->prod_type == EVT_PROD_TYPE_EVENT_CRYPTO_ADPTR) {
		struct rte_event_port_conf conf = *port_conf;
		uint8_t cdev_id = 0;
		uint16_t qp_id = 0;

		ret = rte_event_crypto_adapter_create(TEST_PERF_CA_ID,
						      opt->dev_id, &conf, 0);
		if (ret) {
			evt_err("Failed to create crypto adapter");
			return ret;
		}

		prod = 0;
		for (; port < perf_nb_event_ports(opt); port++) {
			union rte_event_crypto_metadata m_data;
			struct prod_data *p = &t->prod[port];
			uint32_t flow_id;

			if (qp_id == rte_cryptodev_queue_pair_count(cdev_id)) {
				cdev_id++;
				qp_id = 0;
			}

			p->dev_id = opt->dev_id;
			p->port_id = port;
			p->queue_id = prod * stride;
			p->ca.cdev_id = cdev_id;
			p->ca.cdev_qp_id = qp_id;
			p->ca.crypto_sess = rte_zmalloc_socket(
				NULL, sizeof(void *) * t->nb_flows,
				RTE_CACHE_LINE_SIZE, opt->socket_id);
			p->t = t;

			ret = perf_event_crypto_adapter_setup(t, p);
			if (ret)
				return ret;

			m_data.request_info.cdev_id = p->ca.cdev_id;
			m_data.request_info.queue_pair_id = p->ca.cdev_qp_id;
			m_data.response_info.sched_type = RTE_SCHED_TYPE_ATOMIC;
			m_data.response_info.queue_id = p->queue_id;

			for (flow_id = 0; flow_id < t->nb_flows; flow_id++) {
				m_data.response_info.flow_id = flow_id;
				if (opt->crypto_op_type ==
						RTE_CRYPTO_OP_TYPE_SYMMETRIC) {
					void *sess;

					sess = cryptodev_sym_sess_create(p, t);
					if (sess == NULL)
						return -ENOMEM;

					ret = rte_cryptodev_session_event_mdata_set(
						cdev_id,
						sess,
						RTE_CRYPTO_OP_TYPE_SYMMETRIC,
						RTE_CRYPTO_OP_WITH_SESSION,
						&m_data, sizeof(m_data));
					if (ret)
						return ret;
					p->ca.crypto_sess[flow_id] = sess;
				} else {
					void *sess;

					sess = cryptodev_asym_sess_create(p, t);
					if (sess == NULL)
						return -ENOMEM;
					ret = rte_cryptodev_session_event_mdata_set(
						cdev_id,
						sess,
						RTE_CRYPTO_OP_TYPE_ASYMMETRIC,
						RTE_CRYPTO_OP_WITH_SESSION,
						&m_data, sizeof(m_data));
					if (ret)
						return ret;
					p->ca.crypto_sess[flow_id] = sess;
				}
			}

			conf.event_port_cfg |=
				RTE_EVENT_PORT_CFG_HINT_PRODUCER |
				RTE_EVENT_PORT_CFG_HINT_CONSUMER;

			ret = rte_event_port_setup(opt->dev_id, port, &conf);
			if (ret) {
				evt_err("failed to setup port %d", port);
				return ret;
			}

			qp_id++;
			prod++;
		}
	}  else if (opt->prod_type == EVT_PROD_TYPE_EVENT_DMA_ADPTR) {
		struct rte_event_port_conf conf = *port_conf;
		uint8_t dma_dev_id = 0;
		uint16_t vchan_id = 0;

		ret = rte_event_dma_adapter_create(TEST_PERF_DA_ID, opt->dev_id, &conf, 0);
		if (ret) {
			evt_err("Failed to create dma adapter");
			return ret;
		}

		prod = 0;
		for (; port < perf_nb_event_ports(opt); port++) {
			struct prod_data *p = &t->prod[port];

			p->dev_id = opt->dev_id;
			p->port_id = port;
			p->queue_id = prod * stride;
			p->da.dma_dev_id = dma_dev_id;
			p->da.vchan_id = vchan_id;
			p->t = t;

			ret = perf_event_dma_adapter_setup(t, p);
			if (ret)
				return ret;

			conf.event_port_cfg |=
				RTE_EVENT_PORT_CFG_HINT_PRODUCER |
				RTE_EVENT_PORT_CFG_HINT_CONSUMER;

			ret = rte_event_port_setup(opt->dev_id, port, &conf);
			if (ret) {
				evt_err("failed to setup port %d", port);
				return ret;
			}

			prod++;
		}
	} else {
		prod = 0;
		for ( ; port < perf_nb_event_ports(opt); port++) {
			struct prod_data *p = &t->prod[port];

			p->dev_id = opt->dev_id;
			p->port_id = port;
			p->queue_id = prod * stride;
			p->t = t;

			struct rte_event_port_conf conf = *port_conf;
			conf.event_port_cfg |=
				RTE_EVENT_PORT_CFG_HINT_PRODUCER |
				RTE_EVENT_PORT_CFG_HINT_CONSUMER;

			ret = rte_event_port_setup(opt->dev_id, port, &conf);
			if (ret) {
				evt_err("failed to setup port %d", port);
				return ret;
			}
			prod++;
		}
	}

	return ret;
}

int
perf_opt_check(struct evt_options *opt, uint64_t nb_queues)
{
	unsigned int lcores;

	/* N producer + N worker + main when producer cores are used
	 * Else N worker + main when Rx adapter is used
	 */
	lcores = opt->prod_type == EVT_PROD_TYPE_SYNT ? 3 : 2;

	if (rte_lcore_count() < lcores) {
		evt_err("test need minimum %d lcores", lcores);
		return -1;
	}

	/* Validate worker lcores */
	if (evt_lcores_has_overlap(opt->wlcores, rte_get_main_lcore())) {
		evt_err("worker lcores overlaps with main lcore");
		return -1;
	}
	if (evt_lcores_has_overlap_multi(opt->wlcores, opt->plcores)) {
		evt_err("worker lcores overlaps producer lcores");
		return -1;
	}
	if (evt_has_disabled_lcore(opt->wlcores)) {
		evt_err("one or more workers lcores are not enabled");
		return -1;
	}
	if (!evt_has_active_lcore(opt->wlcores)) {
		evt_err("minimum one worker is required");
		return -1;
	}

	if (opt->prod_type == EVT_PROD_TYPE_SYNT ||
	    opt->prod_type == EVT_PROD_TYPE_EVENT_TIMER_ADPTR ||
	    opt->prod_type == EVT_PROD_TYPE_EVENT_CRYPTO_ADPTR ||
	    opt->prod_type == EVT_PROD_TYPE_EVENT_DMA_ADPTR) {
		/* Validate producer lcores */
		if (evt_lcores_has_overlap(opt->plcores,
					rte_get_main_lcore())) {
			evt_err("producer lcores overlaps with main lcore");
			return -1;
		}
		if (evt_has_disabled_lcore(opt->plcores)) {
			evt_err("one or more producer lcores are not enabled");
			return -1;
		}
		if (!evt_has_active_lcore(opt->plcores)) {
			evt_err("minimum one producer is required");
			return -1;
		}
	}

	if (evt_has_invalid_stage(opt))
		return -1;

	if (evt_has_invalid_sched_type(opt))
		return -1;

	if (nb_queues > EVT_MAX_QUEUES) {
		evt_err("number of queues exceeds %d", EVT_MAX_QUEUES);
		return -1;
	}
	if (perf_nb_event_ports(opt) > EVT_MAX_PORTS) {
		evt_err("number of ports exceeds %d", EVT_MAX_PORTS);
		return -1;
	}

	/* Fixups */
	if ((opt->nb_stages == 1 &&
			opt->prod_type != EVT_PROD_TYPE_EVENT_TIMER_ADPTR) &&
			opt->fwd_latency) {
		evt_info("fwd_latency is valid when nb_stages > 1, disabling");
		opt->fwd_latency = 0;
	}

	if (opt->fwd_latency && !opt->q_priority) {
		evt_info("enabled queue priority for latency measurement");
		opt->q_priority = 1;
	}
	if (opt->nb_pkts == 0)
		opt->nb_pkts = INT64_MAX/evt_nr_active_lcores(opt->plcores);

	return 0;
}

void
perf_opt_dump(struct evt_options *opt, uint8_t nb_queues)
{
	evt_dump("nb_prod_lcores", "%d", evt_nr_active_lcores(opt->plcores));
	evt_dump_producer_lcores(opt);
	evt_dump("nb_worker_lcores", "%d", evt_nr_active_lcores(opt->wlcores));
	evt_dump_worker_lcores(opt);
	evt_dump_nb_stages(opt);
	evt_dump("nb_evdev_ports", "%d", perf_nb_event_ports(opt));
	evt_dump("nb_evdev_queues", "%d", nb_queues);
	evt_dump_queue_priority(opt);
	evt_dump_sched_type_list(opt);
	evt_dump_producer_type(opt);
	evt_dump("prod_enq_burst_sz", "%d", opt->prod_enq_burst_sz);
}

static void
perf_event_port_flush(uint8_t dev_id __rte_unused, struct rte_event ev,
		      void *args)
{
	rte_mempool_put(args, ev.event_ptr);
}

void
perf_worker_cleanup(struct rte_mempool *const pool, uint8_t dev_id,
		    uint8_t port_id, struct rte_event events[], uint16_t nb_enq,
		    uint16_t nb_deq)
{
	int i;

	if (nb_deq) {
		for (i = nb_enq; i < nb_deq; i++)
			rte_mempool_put(pool, events[i].event_ptr);

		for (i = 0; i < nb_deq; i++)
			events[i].op = RTE_EVENT_OP_RELEASE;
		rte_event_enqueue_burst(dev_id, port_id, events, nb_deq);
	}
	rte_event_port_quiesce(dev_id, port_id, perf_event_port_flush, pool);
}

void
perf_eventdev_destroy(struct evt_test *test, struct evt_options *opt)
{
	int i;
	struct test_perf *t = evt_test_priv(test);

	if (opt->prod_type == EVT_PROD_TYPE_EVENT_TIMER_ADPTR) {
		for (i = 0; i < opt->nb_timer_adptrs; i++)
			rte_event_timer_adapter_stop(t->timer_adptr[i]);
	}
	rte_event_dev_stop(opt->dev_id);
	rte_event_dev_close(opt->dev_id);
}

static inline void
perf_elt_init(struct rte_mempool *mp, void *arg __rte_unused,
	    void *obj, unsigned i __rte_unused)
{
	memset(obj, 0, mp->elt_size);
}

#define NB_RX_DESC			128
#define NB_TX_DESC			512
int
perf_ethdev_setup(struct evt_test *test, struct evt_options *opt)
{
	uint16_t i;
	int ret;
	struct test_perf *t = evt_test_priv(test);
	struct rte_eth_conf port_conf = {
		.rxmode = {
			.mq_mode = RTE_ETH_MQ_RX_RSS,
		},
		.rx_adv_conf = {
			.rss_conf = {
				.rss_key = NULL,
				.rss_hf = RTE_ETH_RSS_IP,
			},
		},
	};

	if (opt->prod_type != EVT_PROD_TYPE_ETH_RX_ADPTR)
		return 0;

	if (!rte_eth_dev_count_avail()) {
		evt_err("No ethernet ports found.");
		return -ENODEV;
	}

	RTE_ETH_FOREACH_DEV(i) {
		struct rte_eth_dev_info dev_info;
		struct rte_eth_conf local_port_conf = port_conf;

		ret = rte_eth_dev_info_get(i, &dev_info);
		if (ret != 0) {
			evt_err("Error during getting device (port %u) info: %s\n",
					i, strerror(-ret));
			return ret;
		}

		local_port_conf.rx_adv_conf.rss_conf.rss_hf &=
			dev_info.flow_type_rss_offloads;
		if (local_port_conf.rx_adv_conf.rss_conf.rss_hf !=
				port_conf.rx_adv_conf.rss_conf.rss_hf) {
			evt_info("Port %u modified RSS hash function based on hardware support,"
				"requested:%#"PRIx64" configured:%#"PRIx64"\n",
				i,
				port_conf.rx_adv_conf.rss_conf.rss_hf,
				local_port_conf.rx_adv_conf.rss_conf.rss_hf);
		}

		if (rte_eth_dev_configure(i, 1, 1, &local_port_conf) < 0) {
			evt_err("Failed to configure eth port [%d]", i);
			return -EINVAL;
		}

		if (rte_eth_rx_queue_setup(i, 0, NB_RX_DESC,
				rte_socket_id(), NULL, t->pool) < 0) {
			evt_err("Failed to setup eth port [%d] rx_queue: %d.",
					i, 0);
			return -EINVAL;
		}

		if (rte_eth_tx_queue_setup(i, 0, NB_TX_DESC,
					rte_socket_id(), NULL) < 0) {
			evt_err("Failed to setup eth port [%d] tx_queue: %d.",
					i, 0);
			return -EINVAL;
		}

		ret = rte_eth_promiscuous_enable(i);
		if (ret != 0) {
			evt_err("Failed to enable promiscuous mode for eth port [%d]: %s",
				i, rte_strerror(-ret));
			return ret;
		}
	}

	return 0;
}

void
perf_ethdev_rx_stop(struct evt_test *test, struct evt_options *opt)
{
	uint16_t i;
	RTE_SET_USED(test);

	if (opt->prod_type == EVT_PROD_TYPE_ETH_RX_ADPTR) {
		RTE_ETH_FOREACH_DEV(i) {
			rte_event_eth_rx_adapter_stop(i);
			rte_event_eth_rx_adapter_queue_del(i, i, -1);
			rte_eth_dev_rx_queue_stop(i, 0);
		}
	}
}

void
perf_ethdev_destroy(struct evt_test *test, struct evt_options *opt)
{
	uint16_t i;
	RTE_SET_USED(test);

	if (opt->prod_type == EVT_PROD_TYPE_ETH_RX_ADPTR) {
		RTE_ETH_FOREACH_DEV(i) {
			rte_event_eth_tx_adapter_stop(i);
			rte_event_eth_tx_adapter_queue_del(i, i, -1);
			rte_eth_dev_tx_queue_stop(i, 0);
			rte_eth_dev_stop(i);
		}
	}
}

int
perf_cryptodev_setup(struct evt_test *test, struct evt_options *opt)
{
	uint8_t cdev_count, cdev_id, nb_plcores, nb_qps;
	struct test_perf *t = evt_test_priv(test);
	unsigned int max_session_size;
	uint32_t nb_sessions;
	int ret;

	if (opt->prod_type != EVT_PROD_TYPE_EVENT_CRYPTO_ADPTR)
		return 0;

	cdev_count = rte_cryptodev_count();
	if (cdev_count == 0) {
		evt_err("No crypto devices available\n");
		return -ENODEV;
	}

	t->ca_op_pool = rte_crypto_op_pool_create(
		"crypto_op_pool", opt->crypto_op_type, opt->pool_sz,
		128, sizeof(union rte_event_crypto_metadata) + EVT_CRYPTO_MAX_IV_SIZE,
		rte_socket_id());
	if (t->ca_op_pool == NULL) {
		evt_err("Failed to create crypto op pool");
		return -ENOMEM;
	}

	nb_sessions = evt_nr_active_lcores(opt->plcores) * t->nb_flows;
	t->ca_asym_sess_pool = rte_cryptodev_asym_session_pool_create(
		"ca_asym_sess_pool", nb_sessions, 0,
		sizeof(union rte_event_crypto_metadata), SOCKET_ID_ANY);
	if (t->ca_asym_sess_pool == NULL) {
		evt_err("Failed to create sym session pool");
		ret = -ENOMEM;
		goto err;
	}

	max_session_size = 0;
	for (cdev_id = 0; cdev_id < cdev_count; cdev_id++) {
		unsigned int session_size;

		session_size =
			rte_cryptodev_sym_get_private_session_size(cdev_id);
		if (session_size > max_session_size)
			max_session_size = session_size;
	}

	t->ca_sess_pool = rte_cryptodev_sym_session_pool_create(
		"ca_sess_pool", nb_sessions, max_session_size, 0,
		sizeof(union rte_event_crypto_metadata), SOCKET_ID_ANY);
	if (t->ca_sess_pool == NULL) {
		evt_err("Failed to create sym session pool");
		ret = -ENOMEM;
		goto err;
	}

	if (opt->ena_vector) {
		unsigned int nb_elem = (opt->pool_sz / opt->vector_size) * 2;
		nb_elem = RTE_MAX(512U, nb_elem);
		nb_elem += evt_nr_active_lcores(opt->wlcores) * 32;
		t->ca_vector_pool = rte_event_vector_pool_create("vector_pool", nb_elem, 32,
				opt->vector_size, opt->socket_id);
		if (t->ca_vector_pool == NULL) {
			evt_err("Failed to create event vector pool");
			ret = -ENOMEM;
			goto err;
		}
	}

	/*
	 * Calculate number of needed queue pairs, based on the amount of
	 * available number of logical cores and crypto devices. For instance,
	 * if there are 4 cores and 2 crypto devices, 2 queue pairs will be set
	 * up per device.
	 */
	nb_plcores = evt_nr_active_lcores(opt->plcores);
	nb_qps = (nb_plcores % cdev_count) ? (nb_plcores / cdev_count) + 1 :
					     nb_plcores / cdev_count;
	for (cdev_id = 0; cdev_id < cdev_count; cdev_id++) {
		struct rte_cryptodev_qp_conf qp_conf;
		struct rte_cryptodev_config conf;
		struct rte_cryptodev_info info;
		int qp_id;

		rte_cryptodev_info_get(cdev_id, &info);
		if (nb_qps > info.max_nb_queue_pairs) {
			evt_err("Not enough queue pairs per cryptodev (%u)",
				nb_qps);
			ret = -EINVAL;
			goto err;
		}

		conf.nb_queue_pairs = nb_qps;
		conf.socket_id = SOCKET_ID_ANY;
		conf.ff_disable = RTE_CRYPTODEV_FF_SECURITY;

		ret = rte_cryptodev_configure(cdev_id, &conf);
		if (ret) {
			evt_err("Failed to configure cryptodev (%u)", cdev_id);
			goto err;
		}

		qp_conf.nb_descriptors = NB_CRYPTODEV_DESCRIPTORS;
		qp_conf.mp_session = t->ca_sess_pool;

		for (qp_id = 0; qp_id < conf.nb_queue_pairs; qp_id++) {
			ret = rte_cryptodev_queue_pair_setup(
				cdev_id, qp_id, &qp_conf,
				rte_cryptodev_socket_id(cdev_id));
			if (ret) {
				evt_err("Failed to setup queue pairs on cryptodev %u\n",
					cdev_id);
				goto err;
			}
		}
	}

	return 0;
err:
	for (cdev_id = 0; cdev_id < cdev_count; cdev_id++)
		rte_cryptodev_close(cdev_id);

	rte_mempool_free(t->ca_op_pool);
	rte_mempool_free(t->ca_sess_pool);
	rte_mempool_free(t->ca_asym_sess_pool);
	rte_mempool_free(t->ca_vector_pool);

	return ret;
}

void
perf_cryptodev_destroy(struct evt_test *test, struct evt_options *opt)
{
	uint8_t cdev_id, cdev_count = rte_cryptodev_count();
	struct test_perf *t = evt_test_priv(test);
	uint16_t port;

	if (opt->prod_type != EVT_PROD_TYPE_EVENT_CRYPTO_ADPTR)
		return;

	for (port = t->nb_workers; port < perf_nb_event_ports(opt); port++) {
		void *sess;
		struct prod_data *p = &t->prod[port];
		uint32_t flow_id;
		uint8_t cdev_id;

		for (flow_id = 0; flow_id < t->nb_flows; flow_id++) {
			sess = p->ca.crypto_sess[flow_id];
			cdev_id = p->ca.cdev_id;
			rte_cryptodev_sym_session_free(cdev_id, sess);
		}

		rte_event_crypto_adapter_queue_pair_del(
			TEST_PERF_CA_ID, p->ca.cdev_id, p->ca.cdev_qp_id);
	}

	rte_event_crypto_adapter_free(TEST_PERF_CA_ID);

	for (cdev_id = 0; cdev_id < cdev_count; cdev_id++) {
		rte_cryptodev_stop(cdev_id);
		rte_cryptodev_close(cdev_id);
	}

	rte_mempool_free(t->ca_op_pool);
	rte_mempool_free(t->ca_sess_pool);
	rte_mempool_free(t->ca_asym_sess_pool);
	rte_mempool_free(t->ca_vector_pool);
}

int
perf_dmadev_setup(struct evt_test *test, struct evt_options *opt)
{
	const struct rte_dma_conf conf = { .nb_vchans = 1};
	const struct rte_dma_vchan_conf qconf = {
			.direction = RTE_DMA_DIR_MEM_TO_MEM,
			.nb_desc = 1024,
	};
	uint8_t dma_dev_count, dma_dev_id = 0;
	int vchan_id;
	int ret;

	RTE_SET_USED(test);
	if (opt->prod_type != EVT_PROD_TYPE_EVENT_DMA_ADPTR)
		return 0;

	dma_dev_count = rte_dma_count_avail();
	if (dma_dev_count == 0) {
		evt_err("No dma devices available\n");
		return -ENODEV;
	}

	ret = rte_dma_configure(dma_dev_id, &conf);
	if (ret) {
		evt_err("Failed to configure dma dev (%u)", dma_dev_id);
		goto err;
	}

	for (vchan_id = 0; vchan_id < conf.nb_vchans; vchan_id++) {
		ret = rte_dma_vchan_setup(dma_dev_id, vchan_id, &qconf);
		if (ret) {
			evt_err("Failed to setup vchan on dma dev %u\n",
				dma_dev_id);
			goto err;
		}
	}

	return 0;
err:
	rte_dma_close(dma_dev_id);

	return ret;
}

void
perf_dmadev_destroy(struct evt_test *test, struct evt_options *opt)
{
	uint8_t dma_dev_id = 0;
	struct test_perf *t = evt_test_priv(test);
	uint16_t port;

	if (opt->prod_type != EVT_PROD_TYPE_EVENT_DMA_ADPTR)
		return;

	for (port = t->nb_workers; port < perf_nb_event_ports(opt); port++) {
		struct prod_data *p = &t->prod[port];

		rte_event_dma_adapter_vchan_del(TEST_PERF_DA_ID, p->da.dma_dev_id, p->da.vchan_id);
	}

	rte_event_dma_adapter_free(TEST_PERF_DA_ID);

	rte_dma_stop(dma_dev_id);
	rte_dma_close(dma_dev_id);
}

int
perf_mempool_setup(struct evt_test *test, struct evt_options *opt)
{
	struct test_perf *t = evt_test_priv(test);
	unsigned int cache_sz;

	cache_sz = RTE_MIN(RTE_MEMPOOL_CACHE_MAX_SIZE, (opt->pool_sz / 1.5) / t->nb_workers);
	if (opt->prod_type == EVT_PROD_TYPE_SYNT ||
			opt->prod_type == EVT_PROD_TYPE_EVENT_TIMER_ADPTR) {
		t->pool = rte_mempool_create(test->name, /* mempool name */
				opt->pool_sz, /* number of elements*/
				sizeof(struct perf_elt), /* element size*/
				cache_sz, /* cache size*/
				0, NULL, NULL,
				perf_elt_init, /* obj constructor */
				NULL, opt->socket_id, 0); /* flags */
	} else if (opt->prod_type == EVT_PROD_TYPE_EVENT_CRYPTO_ADPTR &&
		   opt->crypto_op_type == RTE_CRYPTO_OP_TYPE_ASYMMETRIC) {
		t->pool = rte_mempool_create(test->name, /* mempool name */
				opt->pool_sz, /* number of elements*/
				sizeof(struct perf_elt) + modex_test_case.result_len,
				/* element size*/
				cache_sz, /* cache size*/
				0, NULL, NULL,
				NULL, /* obj constructor */
				NULL, opt->socket_id, 0); /* flags */
	} else if (opt->prod_type == EVT_PROD_TYPE_EVENT_DMA_ADPTR) {
		t->pool = rte_mempool_create(test->name,   /* mempool name */
					     opt->pool_sz, /* number of elements*/
					     sizeof(struct rte_event_dma_adapter_op) +
						     (sizeof(struct rte_dma_sge) * 2),
					     cache_sz,		       /* cache size*/
					     0, NULL, NULL, NULL,      /* obj constructor */
					     NULL, opt->socket_id, 0); /* flags */
	} else {
		t->pool = rte_pktmbuf_pool_create(test->name, /* mempool name */
				opt->pool_sz, /* number of elements*/
				cache_sz, /* cache size*/
				0,
				RTE_MBUF_DEFAULT_BUF_SIZE,
				opt->socket_id); /* flags */
	}

	if (t->pool == NULL) {
		evt_err("failed to create mempool");
		return -ENOMEM;
	}

	return 0;
}

void
perf_mempool_destroy(struct evt_test *test, struct evt_options *opt)
{
	RTE_SET_USED(opt);
	struct test_perf *t = evt_test_priv(test);

	rte_mempool_free(t->pool);
}

int
perf_test_setup(struct evt_test *test, struct evt_options *opt)
{
	void *test_perf;

	test_perf = rte_zmalloc_socket(test->name, sizeof(struct test_perf),
				RTE_CACHE_LINE_SIZE, opt->socket_id);
	if (test_perf  == NULL) {
		evt_err("failed to allocate test_perf memory");
		goto nomem;
	}
	test->test_priv = test_perf;

	struct test_perf *t = evt_test_priv(test);

	if (opt->prod_type == EVT_PROD_TYPE_EVENT_TIMER_ADPTR) {
		t->outstand_pkts = opt->nb_timers *
			evt_nr_active_lcores(opt->plcores);
		t->nb_pkts = opt->nb_timers;
	} else {
		t->outstand_pkts = opt->nb_pkts *
			evt_nr_active_lcores(opt->plcores);
		t->nb_pkts = opt->nb_pkts;
	}

	t->nb_workers = evt_nr_active_lcores(opt->wlcores);
	t->done = false;
	t->nb_flows = opt->nb_flows;
	t->result = EVT_TEST_FAILED;
	t->opt = opt;
	memcpy(t->sched_type_list, opt->sched_type_list,
			sizeof(opt->sched_type_list));
	return 0;
nomem:
	return -ENOMEM;
}

void
perf_test_destroy(struct evt_test *test, struct evt_options *opt)
{
	RTE_SET_USED(opt);

	rte_free(test->test_priv);
}