22785952221

Committed 06 Mar 2026 11:16PM UTC coverage: 67.722% (-11.5%) from 79.244%

Build # 22785952221

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push

github

Committed by

jasonish

Commit Message

github-ci: add schema ordering check for yaml schema

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58.7

/src/tmqh-flow.c

/* Copyright (C) 2007-2020 Open Information Security Foundation
 *
 * You can copy, redistribute or modify this Program under the terms of
 * the GNU General Public License version 2 as published by the Free
 * Software Foundation.
 *
 * This program is distributed in the hope that it will be useful,
 * but WITHOUT ANY WARRANTY; without even the implied warranty of
 * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.  See the
 * GNU General Public License for more details.
 *
 * You should have received a copy of the GNU General Public License
 * version 2 along with this program; if not, write to the Free Software
 * Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA
 * 02110-1301, USA.
 */

/**
 * \file
 *
 * \author Victor Julien <victor@inliniac.net>
 * \author Anoop Saldanha <anoopsaldanha@gmail.com>
 *
 * Simple output queue handler that makes sure all packets of the same flow
 * are sent to the same queue. We support different kind of q handlers.  Have
 * a look at "autofp-scheduler" conf to further understand the various q
 * handlers we provide.
 */

#include "suricata.h"
#include "packet-queue.h"
#include "decode.h"
#include "threads.h"
#include "threadvars.h"
#include "tmqh-flow.h"
#include "flow-hash.h"

#include "tm-queuehandlers.h"

#include "conf.h"
#include "util-unittest.h"

Packet *TmqhInputFlow(ThreadVars *t);
void TmqhOutputFlowHash(ThreadVars *t, Packet *p);
void TmqhOutputFlowIPPair(ThreadVars *t, Packet *p);
static void TmqhOutputFlowFTPHash(ThreadVars *t, Packet *p);
void *TmqhOutputFlowSetupCtx(const char *queue_str);
void TmqhOutputFlowFreeCtx(void *ctx);
void TmqhFlowRegisterTests(void);

void TmqhFlowRegister(void)
{
    tmqh_table[TMQH_FLOW].name = "flow";
    tmqh_table[TMQH_FLOW].InHandler = TmqhInputFlow;
    tmqh_table[TMQH_FLOW].OutHandlerCtxSetup = TmqhOutputFlowSetupCtx;
    tmqh_table[TMQH_FLOW].OutHandlerCtxFree = TmqhOutputFlowFreeCtx;
    tmqh_table[TMQH_FLOW].RegisterTests = TmqhFlowRegisterTests;

    const char *scheduler = NULL;
    if (SCConfGet("autofp-scheduler", &scheduler) == 1) {
        if (strcasecmp(scheduler, "round-robin") == 0) {
            SCLogNotice("using flow hash instead of round robin");
            tmqh_table[TMQH_FLOW].OutHandler = TmqhOutputFlowHash;
        } else if (strcasecmp(scheduler, "active-packets") == 0) {
            SCLogNotice("using flow hash instead of active packets");
            tmqh_table[TMQH_FLOW].OutHandler = TmqhOutputFlowHash;
        } else if (strcasecmp(scheduler, "hash") == 0) {
            tmqh_table[TMQH_FLOW].OutHandler = TmqhOutputFlowHash;
        } else if (strcasecmp(scheduler, "ippair") == 0) {
            tmqh_table[TMQH_FLOW].OutHandler = TmqhOutputFlowIPPair;
        } else if (strcasecmp(scheduler, "ftp-hash") == 0) {
            tmqh_table[TMQH_FLOW].OutHandler = TmqhOutputFlowFTPHash;
        } else {
            SCLogError("Invalid entry \"%s\" "
                       "for autofp-scheduler in conf.  Killing engine.",
                    scheduler);
            exit(EXIT_FAILURE);
        }
    } else {
        tmqh_table[TMQH_FLOW].OutHandler = TmqhOutputFlowHash;
    }
}

void TmqhFlowPrintAutofpHandler(void)
{
#define PRINT_IF_FUNC(f, msg)                       \
    if (tmqh_table[TMQH_FLOW].OutHandler == (f))    \
        SCLogConfig("AutoFP mode using \"%s\" flow load balancer", (msg))

    PRINT_IF_FUNC(TmqhOutputFlowHash, "Hash");
    PRINT_IF_FUNC(TmqhOutputFlowIPPair, "IPPair");
    PRINT_IF_FUNC(TmqhOutputFlowFTPHash, "FTPHash");

#undef PRINT_IF_FUNC
}

/* same as 'simple' */
Packet *TmqhInputFlow(ThreadVars *tv)
{
    PacketQueue *q = tv->inq->pq;

    StatsSyncCountersIfSignalled(&tv->stats);

    SCMutexLock(&q->mutex_q);
    if (q->len == 0) {
        /* if we have no packets in queue, wait... */
        SCCondWait(&q->cond_q, &q->mutex_q);
    }

    if (q->len > 0) {
        Packet *p = PacketDequeue(q);
        SCMutexUnlock(&q->mutex_q);
        return p;
    } else {
        /* return NULL if we have no pkt. Should only happen on signals. */
        SCMutexUnlock(&q->mutex_q);
        return NULL;
    }
}

static int StoreQueueId(TmqhFlowCtx *ctx, char *name)
{
    void *ptmp;
    Tmq *tmq = TmqGetQueueByName(name);
    if (tmq == NULL) {
        tmq = TmqCreateQueue(name);
        if (tmq == NULL)
            return -1;
    }
    tmq->writer_cnt++;

    if (ctx->queues == NULL) {
        ctx->size = 1;
        ctx->queues = SCCalloc(1, ctx->size * sizeof(TmqhFlowMode));
        if (ctx->queues == NULL) {
            return -1;
        }
    } else {
        ctx->size++;
        ptmp = SCRealloc(ctx->queues, ctx->size * sizeof(TmqhFlowMode));
        if (ptmp == NULL) {
            SCFree(ctx->queues);
            ctx->queues = NULL;
            return -1;
        }
        ctx->queues = ptmp;

        memset(ctx->queues + (ctx->size - 1), 0, sizeof(TmqhFlowMode));
    }
    ctx->queues[ctx->size - 1].q = tmq->pq;

    return 0;
}

/**
 * \brief setup the queue handlers ctx
 *
 * Parses a comma separated string "queuename1,queuename2,etc"
 * and sets the ctx up to devide flows over these queue's.
 *
 * \param queue_str comma separated string with output queue names
 *
 * \retval ctx queues handlers ctx or NULL in error
 */
void *TmqhOutputFlowSetupCtx(const char *queue_str)
{
    if (queue_str == NULL || strlen(queue_str) == 0)
        return NULL;

    SCLogDebug("queue_str %s", queue_str);

    TmqhFlowCtx *ctx = SCCalloc(1, sizeof(TmqhFlowCtx));
    if (unlikely(ctx == NULL))
        return NULL;

    char *str = SCStrdup(queue_str);
    if (unlikely(str == NULL)) {
        goto error;
    }
    char *tstr = str;

    /* parse the comma separated string */
    do {
        char *comma = strchr(tstr,',');
        if (comma != NULL) {
            *comma = '\0';
            char *qname = tstr;
            int r = StoreQueueId(ctx,qname);
            if (r < 0)
                goto error;
        } else {
            char *qname = tstr;
            int r = StoreQueueId(ctx,qname);
            if (r < 0)
                goto error;
        }
        tstr = comma ? (comma + 1) : comma;
    } while (tstr != NULL);

    SCFree(str);
    return (void *)ctx;

error:
    SCFree(ctx);
    if (str != NULL)
        SCFree(str);
    return NULL;
}

void TmqhOutputFlowFreeCtx(void *ctx)
{
    TmqhFlowCtx *fctx = (TmqhFlowCtx *)ctx;

    SCLogPerf("AutoFP - Total flow handler queues - %" PRIu16,
              fctx->size);
    SCFree(fctx->queues);
    SCFree(fctx);
}

void TmqhOutputFlowHash(ThreadVars *tv, Packet *p)
{
    uint32_t qid;
    TmqhFlowCtx *ctx = (TmqhFlowCtx *)tv->outctx;

    if (p->flags & PKT_WANTS_FLOW) {
        uint32_t hash = p->flow_hash;
        qid = hash % ctx->size;
    } else {
        qid = ctx->last++;

        if (ctx->last == ctx->size)
            ctx->last = 0;
    }

    PacketQueue *q = ctx->queues[qid].q;
    SCMutexLock(&q->mutex_q);
    PacketEnqueue(q, p);
    SCCondSignal(&q->cond_q);
    SCMutexUnlock(&q->mutex_q);
}

/**
 * \brief select the queue to output based on IP address pair.
 *
 * \param tv thread vars.
 * \param p packet.
 */
void TmqhOutputFlowIPPair(ThreadVars *tv, Packet *p)
{
    uint32_t addr_hash = 0;

    TmqhFlowCtx *ctx = (TmqhFlowCtx *)tv->outctx;

    if (p->src.family == AF_INET6) {
        for (int i = 0; i < 4; i++) {
            addr_hash += p->src.addr_data32[i] + p->dst.addr_data32[i];
        }
    } else {
        addr_hash = p->src.addr_data32[0] + p->dst.addr_data32[0];
    }

    uint32_t qid = addr_hash % ctx->size;
    PacketQueue *q = ctx->queues[qid].q;
    SCMutexLock(&q->mutex_q);
    PacketEnqueue(q, p);
    SCCondSignal(&q->cond_q);
    SCMutexUnlock(&q->mutex_q);
}

static void TmqhOutputFlowFTPHash(ThreadVars *tv, Packet *p)
{
    uint32_t qid;
    TmqhFlowCtx *ctx = (TmqhFlowCtx *)tv->outctx;

    if (p->flags & PKT_WANTS_FLOW) {
        uint32_t hash = p->flow_hash;
        if (PacketIsTCP(p) && ((p->sp >= 1024 && p->dp >= 1024) || p->dp == 21 || p->sp == 21 ||
                                      p->dp == 20 || p->sp == 20)) {
            hash = FlowGetIpPairProtoHash(p);
        }
        qid = hash % ctx->size;
    } else {
        qid = ctx->last++;

        if (ctx->last == ctx->size)
            ctx->last = 0;
    }

    PacketQueue *q = ctx->queues[qid].q;
    SCMutexLock(&q->mutex_q);
    PacketEnqueue(q, p);
    SCCondSignal(&q->cond_q);
    SCMutexUnlock(&q->mutex_q);
}

#ifdef UNITTESTS

static int TmqhOutputFlowSetupCtxTest01(void)
{
    TmqResetQueues();

    Tmq *tmq1 = TmqCreateQueue("queue1");
    FAIL_IF_NULL(tmq1);
    Tmq *tmq2 = TmqCreateQueue("queue2");
    FAIL_IF_NULL(tmq2);
    Tmq *tmq3 = TmqCreateQueue("another");
    FAIL_IF_NULL(tmq3);
    Tmq *tmq4 = TmqCreateQueue("yetanother");
    FAIL_IF_NULL(tmq4);

    const char *str = "queue1,queue2,another,yetanother";
    void *ctx = TmqhOutputFlowSetupCtx(str);
    FAIL_IF_NULL(ctx);

    TmqhFlowCtx *fctx = (TmqhFlowCtx *)ctx;

    FAIL_IF_NOT(fctx->size == 4);

    FAIL_IF_NULL(fctx->queues);

    FAIL_IF_NOT(fctx->queues[0].q == tmq1->pq);
    FAIL_IF_NOT(fctx->queues[1].q == tmq2->pq);
    FAIL_IF_NOT(fctx->queues[2].q == tmq3->pq);
    FAIL_IF_NOT(fctx->queues[3].q == tmq4->pq);

    TmqhOutputFlowFreeCtx(fctx);
    TmqResetQueues();
    PASS;
}

static int TmqhOutputFlowSetupCtxTest02(void)
{
    TmqResetQueues();

    Tmq *tmq1 = TmqCreateQueue("queue1");
    FAIL_IF_NULL(tmq1);
    Tmq *tmq2 = TmqCreateQueue("queue2");
    FAIL_IF_NULL(tmq2);
    Tmq *tmq3 = TmqCreateQueue("another");
    FAIL_IF_NULL(tmq3);
    Tmq *tmq4 = TmqCreateQueue("yetanother");
    FAIL_IF_NULL(tmq4);

    const char *str = "queue1";
    void *ctx = TmqhOutputFlowSetupCtx(str);
    FAIL_IF_NULL(ctx);

    TmqhFlowCtx *fctx = (TmqhFlowCtx *)ctx;

    FAIL_IF_NOT(fctx->size == 1);

    FAIL_IF_NULL(fctx->queues);

    FAIL_IF_NOT(fctx->queues[0].q == tmq1->pq);
    TmqhOutputFlowFreeCtx(fctx);
    TmqResetQueues();

    PASS;
}

static int TmqhOutputFlowSetupCtxTest03(void)
{
    TmqResetQueues();

    const char *str = "queue1,queue2,another,yetanother";
    void *ctx = TmqhOutputFlowSetupCtx(str);
    FAIL_IF_NULL(ctx);

    TmqhFlowCtx *fctx = (TmqhFlowCtx *)ctx;

    FAIL_IF_NOT(fctx->size == 4);

    FAIL_IF_NULL(fctx->queues);

    Tmq *tmq1 = TmqGetQueueByName("queue1");
    FAIL_IF_NULL(tmq1);
    Tmq *tmq2 = TmqGetQueueByName("queue2");
    FAIL_IF_NULL(tmq2);
    Tmq *tmq3 = TmqGetQueueByName("another");
    FAIL_IF_NULL(tmq3);
    Tmq *tmq4 = TmqGetQueueByName("yetanother");
    FAIL_IF_NULL(tmq4);

    FAIL_IF_NOT(fctx->queues[0].q == tmq1->pq);
    FAIL_IF_NOT(fctx->queues[1].q == tmq2->pq);
    FAIL_IF_NOT(fctx->queues[2].q == tmq3->pq);
    FAIL_IF_NOT(fctx->queues[3].q == tmq4->pq);

    TmqhOutputFlowFreeCtx(fctx);
    TmqResetQueues();
    PASS;
}

#endif /* UNITTESTS */

void TmqhFlowRegisterTests(void)
{
#ifdef UNITTESTS
    UtRegisterTest("TmqhOutputFlowSetupCtxTest01",
                   TmqhOutputFlowSetupCtxTest01);
    UtRegisterTest("TmqhOutputFlowSetupCtxTest02",
                   TmqhOutputFlowSetupCtxTest02);
    UtRegisterTest("TmqhOutputFlowSetupCtxTest03",
                   TmqhOutputFlowSetupCtxTest03);
#endif
}

1	/* Copyright (C) 2007-2020 Open Information Security Foundation
2	*
3	* You can copy, redistribute or modify this Program under the terms of
4	* the GNU General Public License version 2 as published by the Free
5	* Software Foundation.
6	*
7	* This program is distributed in the hope that it will be useful,
8	* but WITHOUT ANY WARRANTY; without even the implied warranty of
9	* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
10	* GNU General Public License for more details.
11	*
12	* You should have received a copy of the GNU General Public License
13	* version 2 along with this program; if not, write to the Free Software
14	* Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA
15	* 02110-1301, USA.
16	*/
17
18	/**
19	* \file
20	*
21	* \author Victor Julien <victor@inliniac.net>
22	* \author Anoop Saldanha <anoopsaldanha@gmail.com>
23	*
24	* Simple output queue handler that makes sure all packets of the same flow
25	* are sent to the same queue. We support different kind of q handlers. Have
26	* a look at "autofp-scheduler" conf to further understand the various q
27	* handlers we provide.
28	*/
29
30	#include "suricata.h"
31	#include "packet-queue.h"
32	#include "decode.h"
33	#include "threads.h"
34	#include "threadvars.h"
35	#include "tmqh-flow.h"
36	#include "flow-hash.h"
37
38	#include "tm-queuehandlers.h"
39
40	#include "conf.h"
41	#include "util-unittest.h"
42
43	Packet TmqhInputFlow(ThreadVars t);
44	void TmqhOutputFlowHash(ThreadVars t, Packet p);
45	void TmqhOutputFlowIPPair(ThreadVars t, Packet p);
46	static void TmqhOutputFlowFTPHash(ThreadVars t, Packet p);
47	void TmqhOutputFlowSetupCtx(const char queue_str);
48	void TmqhOutputFlowFreeCtx(void *ctx);
49	void TmqhFlowRegisterTests(void);
50
51	void TmqhFlowRegister(void)
52	{	2,219✔
53	tmqh_table[TMQH_FLOW].name = "flow";	2,219✔
54	tmqh_table[TMQH_FLOW].InHandler = TmqhInputFlow;	2,219✔
55	tmqh_table[TMQH_FLOW].OutHandlerCtxSetup = TmqhOutputFlowSetupCtx;	2,219✔
56	tmqh_table[TMQH_FLOW].OutHandlerCtxFree = TmqhOutputFlowFreeCtx;	2,219✔
57	tmqh_table[TMQH_FLOW].RegisterTests = TmqhFlowRegisterTests;	2,219✔
58
59	const char *scheduler = NULL;	2,219✔
60	if (SCConfGet("autofp-scheduler", &scheduler) == 1) {	2,219✔
61	if (strcasecmp(scheduler, "round-robin") == 0) {	×
62	SCLogNotice("using flow hash instead of round robin");	×
63	tmqh_table[TMQH_FLOW].OutHandler = TmqhOutputFlowHash;	×
64	} else if (strcasecmp(scheduler, "active-packets") == 0) {	×
65	SCLogNotice("using flow hash instead of active packets");	×
66	tmqh_table[TMQH_FLOW].OutHandler = TmqhOutputFlowHash;	×
67	} else if (strcasecmp(scheduler, "hash") == 0) {	×
68	tmqh_table[TMQH_FLOW].OutHandler = TmqhOutputFlowHash;	×
69	} else if (strcasecmp(scheduler, "ippair") == 0) {	×
70	tmqh_table[TMQH_FLOW].OutHandler = TmqhOutputFlowIPPair;	×
71	} else if (strcasecmp(scheduler, "ftp-hash") == 0) {	×
72	tmqh_table[TMQH_FLOW].OutHandler = TmqhOutputFlowFTPHash;	×
73	} else {	×
74	SCLogError("Invalid entry \"%s\" "	×
75	"for autofp-scheduler in conf. Killing engine.",	×
76	scheduler);	×
77	exit(EXIT_FAILURE);	×
78	}	×
79	} else {	2,219✔
80	tmqh_table[TMQH_FLOW].OutHandler = TmqhOutputFlowHash;	2,219✔
81	}	2,219✔
82	}	2,219✔
83
84	void TmqhFlowPrintAutofpHandler(void)
85	{	3,368✔
86	#define PRINT_IF_FUNC(f, msg) \	3,368✔
87	if (tmqh_table[TMQH_FLOW].OutHandler == (f)) \	10,104✔
88	SCLogConfig("AutoFP mode using \"%s\" flow load balancer", (msg))	10,104✔
89
90	PRINT_IF_FUNC(TmqhOutputFlowHash, "Hash");	3,368✔
91	PRINT_IF_FUNC(TmqhOutputFlowIPPair, "IPPair");	3,368✔
92	PRINT_IF_FUNC(TmqhOutputFlowFTPHash, "FTPHash");	3,368✔
93
94	#undef PRINT_IF_FUNC	3,368✔
95	}	3,368✔
96
97	/* same as 'simple' */
98	Packet TmqhInputFlow(ThreadVars tv)
99	{	2,724,417✔
100	PacketQueue *q = tv->inq->pq;	2,724,417✔
101
102	StatsSyncCountersIfSignalled(&tv->stats);	2,724,417✔
103
104	SCMutexLock(&q->mutex_q);	2,724,417✔
105	if (q->len == 0) {	2,724,417✔
106	/* if we have no packets in queue, wait... */
107	SCCondWait(&q->cond_q, &q->mutex_q);	49,876✔
108	}	49,876✔
109
110	if (q->len > 0) {	2,724,417✔
111	Packet *p = PacketDequeue(q);	2,710,829✔
112	SCMutexUnlock(&q->mutex_q);	2,710,829✔
113	return p;	2,710,829✔
114	} else {	2,710,858✔
115	/* return NULL if we have no pkt. Should only happen on signals. */
116	SCMutexUnlock(&q->mutex_q);	13,588✔
117	return NULL;	13,588✔
118	}	13,588✔
119	}	2,724,417✔
120
121	static int StoreQueueId(TmqhFlowCtx ctx, char name)
122	{	13,524✔
123	void *ptmp;	13,524✔
124	Tmq *tmq = TmqGetQueueByName(name);	13,524✔
125	if (tmq == NULL) {	13,524✔
126	tmq = TmqCreateQueue(name);	13,488✔
127	if (tmq == NULL)	13,488✔
128	return -1;	×
129	}	13,488✔
130	tmq->writer_cnt++;	13,524✔
131
132	if (ctx->queues == NULL) {	13,524✔
133	ctx->size = 1;	3,375✔
134	ctx->queues = SCCalloc(1, ctx->size * sizeof(TmqhFlowMode));	3,375✔
135	if (ctx->queues == NULL) {	3,375✔
136	return -1;	×
137	}	×
138	} else {	10,149✔
139	ctx->size++;	10,149✔
140	ptmp = SCRealloc(ctx->queues, ctx->size * sizeof(TmqhFlowMode));	10,149✔
141	if (ptmp == NULL) {	10,149✔
142	SCFree(ctx->queues);	×
143	ctx->queues = NULL;	×
144	return -1;	×
145	}	×
146	ctx->queues = ptmp;	10,149✔
147
148	memset(ctx->queues + (ctx->size - 1), 0, sizeof(TmqhFlowMode));	10,149✔
149	}	10,149✔
150	ctx->queues[ctx->size - 1].q = tmq->pq;	13,524✔
151
152	return 0;	13,524✔
153	}	13,524✔
154
155	/**
156	* \brief setup the queue handlers ctx
157	*
158	* Parses a comma separated string "queuename1,queuename2,etc"
159	* and sets the ctx up to devide flows over these queue's.
160	*
161	* \param queue_str comma separated string with output queue names
162	*
163	* \retval ctx queues handlers ctx or NULL in error
164	*/
165	void TmqhOutputFlowSetupCtx(const char queue_str)
166	{	3,375✔
167	if (queue_str == NULL \|\| strlen(queue_str) == 0)	3,375✔
168	return NULL;	×
169
170	SCLogDebug("queue_str %s", queue_str);	3,375✔
171
172	TmqhFlowCtx *ctx = SCCalloc(1, sizeof(TmqhFlowCtx));	3,375✔
173	if (unlikely(ctx == NULL))	3,375✔
174	return NULL;	×
175
176	char *str = SCStrdup(queue_str);	3,375✔
177	if (unlikely(str == NULL)) {	3,375✔
178	goto error;	×
179	}	×
180	char *tstr = str;	3,375✔
181
182	/* parse the comma separated string */
183	do {	13,524✔
184	char *comma = strchr(tstr,',');	13,524✔
185	if (comma != NULL) {	13,524✔
186	*comma = '\0';	10,149✔
187	char *qname = tstr;	10,149✔
188	int r = StoreQueueId(ctx,qname);	10,149✔
189	if (r < 0)	10,149✔
190	goto error;	×
191	} else {	10,149✔
192	char *qname = tstr;	3,375✔
193	int r = StoreQueueId(ctx,qname);	3,375✔
194	if (r < 0)	3,375✔
195	goto error;	×
196	}	3,375✔
197	tstr = comma ? (comma + 1) : comma;	13,524✔
198	} while (tstr != NULL);	13,524✔
199
200	SCFree(str);	3,375✔
201	return (void *)ctx;	3,375✔
202
203	error:	×
204	SCFree(ctx);	×
205	if (str != NULL)	×
206	SCFree(str);	×
207	return NULL;	×
208	}	3,375✔
209
210	void TmqhOutputFlowFreeCtx(void *ctx)
211	{	3,375✔
212	TmqhFlowCtx fctx = (TmqhFlowCtx )ctx;	3,375✔
213
214	SCLogPerf("AutoFP - Total flow handler queues - %" PRIu16,	3,375✔
215	fctx->size);	3,375✔
216	SCFree(fctx->queues);	3,375✔
217	SCFree(fctx);	3,375✔
218	}	3,375✔
219
220	void TmqhOutputFlowHash(ThreadVars tv, Packet p)
221	{	2,710,900✔
222	uint32_t qid;	2,710,900✔
223	TmqhFlowCtx ctx = (TmqhFlowCtx )tv->outctx;	2,710,900✔
224
225	if (p->flags & PKT_WANTS_FLOW) {	2,710,900✔
226	uint32_t hash = p->flow_hash;	2,587,644✔
227	qid = hash % ctx->size;	2,587,644✔
228	} else {	2,587,644✔
229	qid = ctx->last++;	123,256✔
230
231	if (ctx->last == ctx->size)	123,256✔
232	ctx->last = 0;	30,720✔
233	}	123,256✔
234
235	PacketQueue *q = ctx->queues[qid].q;	2,710,900✔
236	SCMutexLock(&q->mutex_q);	2,710,900✔
237	PacketEnqueue(q, p);	2,710,900✔
238	SCCondSignal(&q->cond_q);	2,710,900✔
239	SCMutexUnlock(&q->mutex_q);	2,710,900✔
240	}	2,710,900✔
241
242	/**
243	* \brief select the queue to output based on IP address pair.
244	*
245	* \param tv thread vars.
246	* \param p packet.
247	*/
248	void TmqhOutputFlowIPPair(ThreadVars tv, Packet p)
249	{	×
250	uint32_t addr_hash = 0;	×
251
252	TmqhFlowCtx ctx = (TmqhFlowCtx )tv->outctx;	×
253
254	if (p->src.family == AF_INET6) {	×
255	for (int i = 0; i < 4; i++) {	×
256	addr_hash += p->src.addr_data32[i] + p->dst.addr_data32[i];	×
257	}	×
258	} else {	×
259	addr_hash = p->src.addr_data32[0] + p->dst.addr_data32[0];	×
260	}	×
261
262	uint32_t qid = addr_hash % ctx->size;	×
263	PacketQueue *q = ctx->queues[qid].q;	×
264	SCMutexLock(&q->mutex_q);	×
265	PacketEnqueue(q, p);	×
266	SCCondSignal(&q->cond_q);	×
267	SCMutexUnlock(&q->mutex_q);	×
268	}	×
269
270	static void TmqhOutputFlowFTPHash(ThreadVars tv, Packet p)
271	{	×
272	uint32_t qid;	×
273	TmqhFlowCtx ctx = (TmqhFlowCtx )tv->outctx;	×
274
275	if (p->flags & PKT_WANTS_FLOW) {	×
276	uint32_t hash = p->flow_hash;	×
277	if (PacketIsTCP(p) && ((p->sp >= 1024 && p->dp >= 1024) \|\| p->dp == 21 \|\| p->sp == 21 \|\|	×
278	p->dp == 20 \|\| p->sp == 20)) {	×
279	hash = FlowGetIpPairProtoHash(p);	×
280	}	×
281	qid = hash % ctx->size;	×
282	} else {	×
283	qid = ctx->last++;	×
284
285	if (ctx->last == ctx->size)	×
286	ctx->last = 0;	×
287	}	×
288
289	PacketQueue *q = ctx->queues[qid].q;	×
290	SCMutexLock(&q->mutex_q);	×
291	PacketEnqueue(q, p);	×
292	SCCondSignal(&q->cond_q);	×
293	SCMutexUnlock(&q->mutex_q);	×
294	}	×
295
296	#ifdef UNITTESTS
297
298	static int TmqhOutputFlowSetupCtxTest01(void)
299	{
300	TmqResetQueues();
301
302	Tmq *tmq1 = TmqCreateQueue("queue1");
303	FAIL_IF_NULL(tmq1);
304	Tmq *tmq2 = TmqCreateQueue("queue2");
305	FAIL_IF_NULL(tmq2);
306	Tmq *tmq3 = TmqCreateQueue("another");
307	FAIL_IF_NULL(tmq3);
308	Tmq *tmq4 = TmqCreateQueue("yetanother");
309	FAIL_IF_NULL(tmq4);
310
311	const char *str = "queue1,queue2,another,yetanother";
312	void *ctx = TmqhOutputFlowSetupCtx(str);
313	FAIL_IF_NULL(ctx);
314
315	TmqhFlowCtx fctx = (TmqhFlowCtx )ctx;
316
317	FAIL_IF_NOT(fctx->size == 4);
318
319	FAIL_IF_NULL(fctx->queues);
320
321	FAIL_IF_NOT(fctx->queues[0].q == tmq1->pq);
322	FAIL_IF_NOT(fctx->queues[1].q == tmq2->pq);
323	FAIL_IF_NOT(fctx->queues[2].q == tmq3->pq);
324	FAIL_IF_NOT(fctx->queues[3].q == tmq4->pq);
325
326	TmqhOutputFlowFreeCtx(fctx);
327	TmqResetQueues();
328	PASS;
329	}
330
331	static int TmqhOutputFlowSetupCtxTest02(void)
332	{
333	TmqResetQueues();
334
335	Tmq *tmq1 = TmqCreateQueue("queue1");
336	FAIL_IF_NULL(tmq1);
337	Tmq *tmq2 = TmqCreateQueue("queue2");
338	FAIL_IF_NULL(tmq2);
339	Tmq *tmq3 = TmqCreateQueue("another");
340	FAIL_IF_NULL(tmq3);
341	Tmq *tmq4 = TmqCreateQueue("yetanother");
342	FAIL_IF_NULL(tmq4);
343
344	const char *str = "queue1";
345	void *ctx = TmqhOutputFlowSetupCtx(str);
346	FAIL_IF_NULL(ctx);
347
348	TmqhFlowCtx fctx = (TmqhFlowCtx )ctx;
349
350	FAIL_IF_NOT(fctx->size == 1);
351
352	FAIL_IF_NULL(fctx->queues);
353
354	FAIL_IF_NOT(fctx->queues[0].q == tmq1->pq);
355	TmqhOutputFlowFreeCtx(fctx);
356	TmqResetQueues();
357
358	PASS;
359	}
360
361	static int TmqhOutputFlowSetupCtxTest03(void)
362	{
363	TmqResetQueues();
364
365	const char *str = "queue1,queue2,another,yetanother";
366	void *ctx = TmqhOutputFlowSetupCtx(str);
367	FAIL_IF_NULL(ctx);
368
369	TmqhFlowCtx fctx = (TmqhFlowCtx )ctx;
370
371	FAIL_IF_NOT(fctx->size == 4);
372
373	FAIL_IF_NULL(fctx->queues);
374
375	Tmq *tmq1 = TmqGetQueueByName("queue1");
376	FAIL_IF_NULL(tmq1);
377	Tmq *tmq2 = TmqGetQueueByName("queue2");
378	FAIL_IF_NULL(tmq2);
379	Tmq *tmq3 = TmqGetQueueByName("another");
380	FAIL_IF_NULL(tmq3);
381	Tmq *tmq4 = TmqGetQueueByName("yetanother");
382	FAIL_IF_NULL(tmq4);
383
384	FAIL_IF_NOT(fctx->queues[0].q == tmq1->pq);
385	FAIL_IF_NOT(fctx->queues[1].q == tmq2->pq);
386	FAIL_IF_NOT(fctx->queues[2].q == tmq3->pq);
387	FAIL_IF_NOT(fctx->queues[3].q == tmq4->pq);
388
389	TmqhOutputFlowFreeCtx(fctx);
390	TmqResetQueues();
391	PASS;
392	}
393
394	#endif /* UNITTESTS */
395
396	void TmqhFlowRegisterTests(void)
397	{	×
398	#ifdef UNITTESTS
399	UtRegisterTest("TmqhOutputFlowSetupCtxTest01",
400	TmqhOutputFlowSetupCtxTest01);
401	UtRegisterTest("TmqhOutputFlowSetupCtxTest02",
402	TmqhOutputFlowSetupCtxTest02);
403	UtRegisterTest("TmqhOutputFlowSetupCtxTest03",
404	TmqhOutputFlowSetupCtxTest03);
405	#endif
406	}	×

jasonish / suricata / 22785952221

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