mirror_corosync/exec/amf.c
John Cherry 95f17845c6 (Logical change 1.3)
git-svn-id: http://svn.fedorahosted.org/svn/corosync/trunk@5 fd59a12c-fef9-0310-b244-a6a79926bd2f
2004-06-15 22:18:04 +00:00

2177 lines
71 KiB
C

/*
* Copyright (c) 2002-2004 MontaVista Software, Inc.
*
* All rights reserved.
*
* Author: Steven Dake (sdake@mvista.com)
*
* This software licensed under BSD license, the text of which follows:
*
* Redistribution and use in source and binary forms, with or without
* modification, are permitted provided that the following conditions are met:
*
* - Redistributions of source code must retain the above copyright notice,
* this list of conditions and the following disclaimer.
* - Redistributions in binary form must reproduce the above copyright notice,
* this list of conditions and the following disclaimer in the documentation
* and/or other materials provided with the distribution.
* - Neither the name of the MontaVista Software, Inc. nor the names of its
* contributors may be used to endorse or promote products derived from this
* software without specific prior written permission.
*
* THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS "AS IS"
* AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE
* IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE
* ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR CONTRIBUTORS BE
* LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR
* CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF
* SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS
* INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN
* CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE)
* ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF
* THE POSSIBILITY OF SUCH DAMAGE.
*/
#include <sys/poll.h>
#include <sys/types.h>
#include <sys/socket.h>
#include <sys/un.h>
#include <sys/sysinfo.h>
#include <netinet/in.h>
#include <linux/if.h>
#include <linux/sockios.h>
#include <unistd.h>
#include <fcntl.h>
#include <stdlib.h>
#include <stdio.h>
#include <errno.h>
#include <signal.h>
#include "../include/ais_types.h"
#include "../include/ais_msg.h"
#include "../include/list.h"
#include "../include/queue.h"
#include "gmi.h"
#include "poll.h"
#include "mempool.h"
#include "parse.h"
#include "main.h"
#include "print.h"
#include "handlers.h"
#ifdef INPARSEDOTH
enum amfOperationalState {
AMF_OPER_DISABLED,
AMF_OPER_ENABLED
};
enum amfAdministrativeState {
AMF_ADMIN_UNLOCKED,
AMF_ADMIN_LOCKED,
AMF_ADMIN_STOPPING
};
enum amfOperationalAdministrativeState {
AMF_ENABLED_UNLOCKED,
AMF_DISABLED_UNLOCKED,
AMF_DISABLED_LOCKED,
AMF_ENABLED_STOPPING
};
/*
* State machines for states in AMF
*/
enum amfEnabledUnlockedState {
AMF_ENABLED_UNLOCKED_INITIAL,
AMF_ENABLED_UNLOCKED_IN_SERVICE_REQUESTED,
AMF_ENABLED_UNLOCKED_IN_SERVICE_COMPLETED,
AMF_ENABLED_UNLOCKED_ACTIVE_REQUESTED,
AMF_ENABLED_UNLOCKED_ACTIVE_COMPLETED,
AMF_ENABLED_UNLOCKED_STANDBY_REQUESTED,
AMF_ENABLED_UNLOCKED_STANDBY_COMPLETED,
};
enum amfDisabledUnlockedState {
AMF_DISABLED_UNLOCKED_INITIAL,
AMF_DISABLED_UNLOCKED_QUIESCED_REQUESTED,
AMF_DISABLED_UNLOCKED_QUIESCED_COMPLETED,
AMF_DISABLED_UNLOCKED_OUT_OF_SERVICE_REQUESTED,
AMF_DISABLED_UNLOCKED_OUT_OF_SERVICE_COMPLETED
};
enum amfDisabledLockedState {
AMF_DISABLED_LOCKED_INITIAL,
AMF_DISABLED_LOCKED_QUIESCED_REQUESTED,
AMF_DISABLED_LOCKED_QUIESCED_COMPLETED,
AMF_DISABLED_LOCKED_OUT_OF_SERVICE_REQUESTED
AMF_DISABLED_LOCKED_OUT_OF_SERVICE_COMPLETED,
};
enum amfEnabledStoppingState {
AMF_ENABLED_STOPPING_INITIAL,
AMF_ENABLED_STOPPING_STOPPING_REQUESTED,
AMF_ENABLED_STOPPING_STOPPING_COMPLETED,
};
/*
* Internal Functions
*/
static void componentOutOfServiceSetNoApi (
struct saAmfComponent *component);
#endif
static void grow_amf_track_table (
int fd,
int growby);
static void sendProtectionGroupNotification (
int fd,
SaAmfProtectionGroupNotificationT *notificationBufferAddress,
struct saAmfProtectionGroup *amfProtectionGroup,
struct saAmfComponent *changedComponent,
SaAmfProtectionGroupChangesT changeToComponent,
SaUint8T trackFlags);
static int activeServiceUnitsCount (
struct saAmfGroup *saAmfGroup);
#ifdef COMPILE_OUT
static void enumerateComponents (
void (*function)(struct saAmfComponent *, void *data),
void *data);
static void CSIRemove (
int fd);
static void haStateSetClusterInit (
int fd,
struct saAmfComponent *saAmfComponent);
#endif
static void haStateSetCluster (
struct saAmfComponent *saAmfComponent,
SaAmfHAStateT haState);
static void readinessStateSetApi (
struct saAmfComponent *component,
SaAmfReadinessStateT readinessState);
#ifdef COMPILE_OUT
static void readinessStateSetClusterInit (
int fd,
struct saAmfComponent *saAmfComponent);
#endif
static void readinessStateSetCluster (
struct saAmfComponent *saAmfComponent,
SaAmfReadinessStateT readinessState);
#ifdef COMPILE_OUT
static void enumerateComponentsClusterInit (
struct saAmfComponent *component,
void *data);
#endif
static void dsm (
struct saAmfComponent *saAmfComponent);
#if 0 /* NOT IMPLEMENTED */
static void componentTerminate (
int fd);
#endif
static void timer_function_libamf_healthcheck (
void *data);
static struct saAmfProtectionGroup *findProtectionGroup (
SaNameT *csiName);
static struct saAmfComponent *findComponentInProtectionGroup (
SaNameT *csiName,
SaNameT *compName);
static void sendProtectionGroupNotifications (
struct saAmfComponent *changedComponent,
SaAmfProtectionGroupChangesT changeToComponent);
static void sendProtectionGroupNotification (
int fd,
SaAmfProtectionGroupNotificationT *notificationBufferAddress,
struct saAmfProtectionGroup *amfProtectionGroup,
struct saAmfComponent *changedComponent,
SaAmfProtectionGroupChangesT changeToComponent,
SaUint8T trackFlags);
static void response_handler_readinessstatesetcallback (
int connection,
struct req_amf_response *req_amf_response);
static void response_handler_csisetcallback (
int connection,
struct req_amf_response *req_amf_response);
static int amfApiFinalize (int fd);
static int amfExecutiveInitialize (void);
static int message_handler_req_exec_amf_componentregister (int fd, void *message);
static int message_handler_req_exec_amf_componentunregister (int fd, void *message);
static int message_handler_req_exec_amf_errorreport (int fd, void *message);
static int message_handler_req_exec_amf_errorcancelall (int fd, void *message);
static int message_handler_req_exec_amf_readinessstateset (int fd, void *message);
static int message_handler_req_exec_amf_hastateset (int fd, void *message);
static int message_handler_req_amf_init (int fd, void *message);
static int message_handler_req_amf_activatepoll (int fd, void *message);
static int message_handler_req_amf_componentregister (int fd, void *message);
static int message_handler_req_amf_componentunregister (int fd, void *message);
static int message_handler_req_amf_readinessstateget (int fd, void *message);
static int message_handler_req_amf_hastateget (int fd, void *message);
static int message_handler_req_amf_protectiongrouptrackstart (int fd, void *message);
static int message_handler_req_amf_protectiongrouptrackstop (int fd, void *message);
static int message_handler_req_amf_errorreport (int fd, void *message);
static int message_handler_req_amf_errorcancelall (int fd, void *message);
static int message_handler_req_amf_stoppingcomplete (int fd, void *message);
static int message_handler_req_amf_response (int fd, void *message);
static int message_handler_req_amf_componentcapabilitymodelget (int fd, void *message);
int (*amf_libais_handler_fns[]) (int fd, void *) = {
message_handler_req_amf_activatepoll,
message_handler_req_amf_componentregister,
message_handler_req_amf_componentunregister,
message_handler_req_amf_readinessstateget,
message_handler_req_amf_hastateget,
message_handler_req_amf_protectiongrouptrackstart,
message_handler_req_amf_protectiongrouptrackstop,
message_handler_req_amf_errorreport,
message_handler_req_amf_errorcancelall,
message_handler_req_amf_stoppingcomplete,
message_handler_req_amf_response,
message_handler_req_amf_componentcapabilitymodelget
};
int (*amf_aisexec_handler_fns[]) (int fd, void *) = {
message_handler_req_exec_amf_componentregister,
message_handler_req_exec_amf_componentunregister,
message_handler_req_exec_amf_errorreport,
message_handler_req_exec_amf_errorcancelall,
message_handler_req_exec_amf_readinessstateset,
message_handler_req_exec_amf_hastateset,
};
/*
* Exports the interface for the service
*/
struct service_handler amf_service_handler = {
libais_handler_fns: amf_libais_handler_fns,
libais_handler_fns_count: sizeof (amf_libais_handler_fns) / sizeof (int (*)),
aisexec_handler_fns: amf_aisexec_handler_fns,
aisexec_handler_fns_count: sizeof (amf_aisexec_handler_fns) / sizeof (int (*)),
confchg_fn: 0,
libais_init_fn: message_handler_req_amf_init,
libais_exit_fn: amfApiFinalize,
aisexec_init_fn: amfExecutiveInitialize
};
static void grow_amf_track_table (int fd, int growby)
{
struct libamf_ci_trackentry *tracks;
int newsize;
int currsize = connections[fd].ais_ci.u.libamf_ci.trackEntries;
newsize = growby + currsize;
if (newsize > currsize) {
tracks = (struct libamf_ci_trackentry *)mempool_realloc (connections[fd].ais_ci.u.libamf_ci.tracks,
(newsize) * sizeof (struct libamf_ci_trackentry));
if (tracks == 0) {
#ifdef DEBUG
printf ("grow_amf_track_table: out of memory, woops\n");
#endif
// TODO
exit (1);
}
memset (&tracks[currsize], 0, growby * sizeof (struct libamf_ci_trackentry));
connections[fd].ais_ci.u.libamf_ci.trackEntries = newsize;
connections[fd].ais_ci.u.libamf_ci.tracks = tracks;
}
}
void componentUnregister (
struct saAmfComponent *component)
{
struct req_exec_amf_componentunregister req_exec_amf_componentunregister;
struct iovec iovecs[2];
/*
* This only works on local components
*/
if (component == 0 || component->local != 1) {
return;
}
log_printf (LOG_LEVEL_DEBUG, "componentUnregister: unregistering component %s\n",
getSaNameT (&component->name));
component->probableCause = SA_AMF_NOT_RESPONDING;
req_exec_amf_componentunregister.header.magic = MESSAGE_MAGIC;
req_exec_amf_componentunregister.header.size = sizeof (struct req_exec_amf_componentunregister);
req_exec_amf_componentunregister.header.id = MESSAGE_REQ_EXEC_AMF_COMPONENTUNREGISTER;
req_exec_amf_componentunregister.source.fd = 0;
req_exec_amf_componentunregister.source.in_addr.s_addr = 0;
memset (&req_exec_amf_componentunregister.req_lib_amf_componentunregister,
0, sizeof (struct req_lib_amf_componentunregister));
memcpy (&req_exec_amf_componentunregister.req_lib_amf_componentunregister.compName,
&component->name,
sizeof (SaNameT));
iovecs[0].iov_base = &req_exec_amf_componentunregister;
iovecs[0].iov_len = sizeof (req_exec_amf_componentunregister);
gmi_mcast (&aisexec_groupname, iovecs, 1, GMI_PRIO_MED);
}
#ifdef COMPILE_OUT
This should be used for a partition I think
// This should be used for partition changes
void enumerateComponents (
void (*function)(struct saAmfComponent *, void *data),
void *data)
{
struct list_head *AmfGroupList;
struct list_head *AmfUnitList;
struct list_head *AmfComponentList;
struct saAmfGroup *saAmfGroup;
struct saAmfUnit *AmfUnit;
struct saAmfComponent *AmfComponent;
/*
* Search all groups
*/
for (AmfGroupList = saAmfGroupHead.next;
AmfGroupList != &saAmfGroupHead;
AmfGroupList = AmfGroupList->next) {
saAmfGroup = list_entry (AmfGroupList,
struct saAmfGroup, saAmfGroupList);
/*
* Search all units
*/
for (AmfUnitList = saAmfGroup->saAmfUnitHead.next;
AmfUnitList != &saAmfGroup->saAmfUnitHead;
AmfUnitList = AmfUnitList->next) {
AmfUnit = list_entry (AmfUnitList,
struct saAmfUnit, saAmfUnitList);
/*
* Search all components
*/
for (AmfComponentList = AmfUnit->saAmfComponentHead.next;
AmfComponentList != &AmfUnit->saAmfComponentHead;
AmfComponentList = AmfComponentList->next) {
AmfComponent = list_entry (AmfComponentList,
struct saAmfComponent, saAmfComponentList);
function (AmfComponent, data);
}
}
}
}
#endif
int activeServiceUnitsCount (struct saAmfGroup *saAmfGroup) {
struct saAmfUnit *saAmfUnit;
struct saAmfComponent *saAmfComponent;
struct list_head *saAmfComponentList;
struct list_head *saAmfUnitList;
int activeServiceUnits = 0;
int thisServiceUnitActive;
/*
* Search all units
*/
for (activeServiceUnits = 0, saAmfUnitList = saAmfGroup->saAmfUnitHead.next;
saAmfUnitList != &saAmfGroup->saAmfUnitHead;
saAmfUnitList = saAmfUnitList->next) {
saAmfUnit = list_entry (saAmfUnitList,
struct saAmfUnit, saAmfUnitList);
/*
* Search all components
*/
for (thisServiceUnitActive = 1, saAmfComponentList = saAmfUnit->saAmfComponentHead.next;
saAmfComponentList != &saAmfUnit->saAmfComponentHead;
saAmfComponentList = saAmfComponentList->next) {
saAmfComponent = list_entry (saAmfComponentList,
struct saAmfComponent, saAmfComponentList);
if (saAmfComponent->currentHAState != SA_AMF_ACTIVE) {
thisServiceUnitActive = 0;
}
}
/*
* If all components are active in service unit, count service unit as active
*/
if (thisServiceUnitActive) {
activeServiceUnits += 1;
}
}
return (activeServiceUnits);
}
#ifdef CONFIG_TODO
This should be sent after a service unit is made out of service
void CSIRemove (int fd)
{
struct res_amf_csiremovecallback res_amf_csiremovecallback;
if (connections[fd].active == 0 ||
connections[fd].service != SOCKET_SERVICE_AMF) {
return;
}
log_printf (LOG_NOTICE_DEBUG, "executing CSI remove callback into API\n");
res_amf_csiremovecallback.header.magic = MESSAGE_MAGIC;
res_amf_csiremovecallback.header.id = MESSAGE_RES_AMF_CSIREMOVECALLBACK;
res_amf_csiremovecallback.header.size = sizeof (struct res_amf_csiremovecallback);
res_amf_csiremovecallback.invocation =
req_amf_response_set (
MESSAGE_REQ_AMF_RESPONSE_SAAMFCSIREMOVECALLBACK,
fd);
memcpy (&res_amf_csiremovecallback.compName,
&connections[fd].component->name, sizeof (SaNameT));
memcpy (&res_amf_csiremovecallback.csiName,
&connections[fd].component->saAmfProtectionGroup->name, sizeof (SaNameT));
res_amf_csiremovecallback.csiFlags = SA_AMF_CSI_ALL_INSTANCES;
libais_send_response (fd, &res_amf_csiremovecallback,
sizeof (struct res_amf_csiremovecallback));
}
#endif
void haStateSetApi (struct saAmfComponent *component, SaAmfHAStateT haState)
{
struct res_amf_csisetcallback res_amf_csisetcallback;
log_printf (LOG_LEVEL_DEBUG, "sending ha state to API\n");
if (component->local != 1) {
return;
}
if (component->probableCause == SA_AMF_NOT_RESPONDING) {
return;
}
/*
* this should be an assertion
*/
if (connections[component->fd].active == 0 ||
connections[component->fd].service != SOCKET_SERVICE_AMF) {
return;
}
res_amf_csisetcallback.header.magic = MESSAGE_MAGIC;
res_amf_csisetcallback.header.id = MESSAGE_RES_AMF_CSISETCALLBACK;
res_amf_csisetcallback.header.size = sizeof (struct res_amf_csisetcallback);
res_amf_csisetcallback.invocation =
req_amf_response_set (
MESSAGE_REQ_AMF_RESPONSE_SAAMFCSISETCALLBACK,
component->fd);
memcpy (&res_amf_csisetcallback.compName,
&component->name, sizeof (SaNameT));
memcpy (&res_amf_csisetcallback.csiName,
&component->saAmfProtectionGroup->name, sizeof (SaNameT));
res_amf_csisetcallback.csiFlags = SA_AMF_CSI_ALL_INSTANCES;
res_amf_csisetcallback.haState = haState;
// TODO set activeCompName to correct component name
memcpy (&res_amf_csisetcallback.activeCompName,
&component->name, sizeof (SaNameT));
res_amf_csisetcallback.transitionDescriptor = SA_AMF_CSI_NEW_ASSIGN;
component->newHAState = haState;
libais_send_response (component->fd, &res_amf_csisetcallback,
sizeof (struct res_amf_csisetcallback));
}
#ifdef COMPILE_OUT
void haStateSetClusterInit (
int fd,
struct saAmfComponent *saAmfComponent)
{
struct req_exec_amf_hastatesetcluster req_exec_amf_hastatesetcluster;
return;
req_exec_amf_hastatesetcluster.header.magic = MESSAGE_MAGIC;
req_exec_amf_hastatesetcluster.header.id = MESSAGE_REQ_EXEC_AMF_HASTATESET;
req_exec_amf_hastatesetcluster.header.size = sizeof (struct req_exec_amf_hastatesetcluster);
memcpy (&req_exec_amf_hastatesetcluster.compName,
&saAmfComponent->name, sizeof (SaNameT));
req_exec_amf_hastatesetcluster.haState = saAmfComponent->currentHAState;
log_printf (LOG_LEVEL_DEBUG, "Sending init ha state message to cluster node to set ha state of component %s\n", getSaNameT (&saAmfComponent->name));
log_printf (LOG_LEVEL_DEBUG, "ha state is %d\n", saAmfComponent->currentHAState);
libais_send_response (fd, &req_exec_amf_hastatesetcluster,
sizeof (struct req_exec_amf_hastatesetcluster));
}
#endif
void haStateSetCluster (
struct saAmfComponent *component,
SaAmfHAStateT haState)
{
struct req_exec_amf_hastateset req_exec_amf_hastateset;
struct iovec iovecs[2];
req_exec_amf_hastateset.header.magic = MESSAGE_MAGIC;
req_exec_amf_hastateset.header.id = MESSAGE_REQ_EXEC_AMF_HASTATESET;
req_exec_amf_hastateset.header.size = sizeof (struct req_exec_amf_hastateset);
memcpy (&req_exec_amf_hastateset.compName, &component->name, sizeof (SaNameT));
req_exec_amf_hastateset.haState = haState;
log_printf (LOG_LEVEL_DEBUG, "Sending ha state to cluster for component %s\n", getSaNameT (&component->name));
log_printf (LOG_LEVEL_DEBUG, "ha state is %d\n", haState);
iovecs[0].iov_base = &req_exec_amf_hastateset;
iovecs[0].iov_len = sizeof (req_exec_amf_hastateset);
gmi_mcast (&aisexec_groupname, iovecs, 1, GMI_PRIO_MED);
}
void readinessStateSetApi (struct saAmfComponent *component,
SaAmfReadinessStateT readinessState)
{
struct res_amf_readinessstatesetcallback res_amf_readinessstatesetcallback;
/*
* If component is local, don't request service from API
*/
if (component->local != 1) {
return;
}
if (component->probableCause == SA_AMF_NOT_RESPONDING) {
return;
}
/*
* this should be an assertion
*/
if (connections[component->fd].active == 0 ||
connections[component->fd].service != SOCKET_SERVICE_AMF) {
return;
}
res_amf_readinessstatesetcallback.header.magic = MESSAGE_MAGIC;
res_amf_readinessstatesetcallback.header.id = MESSAGE_RES_AMF_READINESSSTATESETCALLBACK;
res_amf_readinessstatesetcallback.header.size = sizeof (struct res_amf_readinessstatesetcallback);
res_amf_readinessstatesetcallback.invocation =
req_amf_response_set (
MESSAGE_REQ_AMF_RESPONSE_SAAMFREADINESSSTATESETCALLBACK,
component->fd);
memcpy (&res_amf_readinessstatesetcallback.compName,
&connections[component->fd].component->name, sizeof (SaNameT));
res_amf_readinessstatesetcallback.readinessState = readinessState;
connections[component->fd].component->newReadinessState = readinessState;
log_printf (LOG_LEVEL_DEBUG, "Setting component->fd %d to readiness state %d\n", component->fd, readinessState);
libais_send_response (component->fd, &res_amf_readinessstatesetcallback,
sizeof (struct res_amf_readinessstatesetcallback));
}
#ifdef COMPILE_OUT
void readinessStateSetClusterInit (
int fd,
struct saAmfComponent *saAmfComponent)
{
struct req_exec_amf_readinessstatesetcluster req_exec_amf_readinessstatesetcluster;
return;
req_exec_amf_readinessstatesetcluster.header.magic = MESSAGE_MAGIC;
req_exec_amf_readinessstatesetcluster.header.id = MESSAGE_REQ_EXEC_AMF_READINESSSTATESET;
req_exec_amf_readinessstatesetcluster.header.size = sizeof (struct req_exec_amf_readinessstateset);
memcpy (&req_exec_amf_readinessstatesetcluster.compName,
&saAmfComponent->name, sizeof (SaNameT));
req_exec_amf_readinessstatesetcluster.readinessState = saAmfComponent->currentReadinessState;
log_printf (LOG_LEVEL_DEBUG, "Sending init message to one cluster node to set readiness state of component %s\n", getSaNameT (&saAmfComponent->name));
log_printf (LOG_LEVEL_DEBUG, "readiness state is %d\n", saAmfComponent->currentReadinessState);
libais_send_response (fd, &req_exec_amf_readinessstatesetcluster,
sizeof (struct req_exec_amf_readinessstatesetcluster));
}
#endif
void readinessStateSetCluster (
struct saAmfComponent *component,
SaAmfReadinessStateT readinessState)
{
struct req_exec_amf_readinessstateset req_exec_amf_readinessstateset;
struct iovec iovecs[2];
req_exec_amf_readinessstateset.header.magic = MESSAGE_MAGIC;
req_exec_amf_readinessstateset.header.id = MESSAGE_REQ_EXEC_AMF_READINESSSTATESET;
req_exec_amf_readinessstateset.header.size = sizeof (struct req_exec_amf_readinessstateset);
memcpy (&req_exec_amf_readinessstateset.compName, &component->name, sizeof (SaNameT));
req_exec_amf_readinessstateset.readinessState = readinessState;
log_printf (LOG_LEVEL_DEBUG, "Sending message to all cluster nodes to set readiness state of component %s\n",
getSaNameT (&component->name));
log_printf (LOG_LEVEL_DEBUG, "readiness state is %d\n", readinessState);
iovecs[0].iov_base = &req_exec_amf_readinessstateset;
iovecs[0].iov_len = sizeof (req_exec_amf_readinessstateset);
gmi_mcast (&aisexec_groupname, iovecs, 1, GMI_PRIO_MED);
}
#ifdef CMOPILE_OUT
void enumerateComponentsClusterInit (
struct saAmfComponent *component,
void *data)
{
int fd = (int)data;
return;
readinessStateSetClusterInit (fd, component);
haStateSetClusterInit (fd, component);
}
#endif
static void dsmDisabledUnlockedRegisteredOrErrorCancel (
struct saAmfComponent *component)
{
struct saAmfUnit *unit;
struct list_head *list;
int serviceUnitEnabled;
log_printf (LOG_LEVEL_DEBUG, "dsmDisabledUnlockedRegisteredOrErrorCancel for %s\n",
getSaNameT (&component->name));
unit = component->saAmfUnit;
for (serviceUnitEnabled = 1, list = unit->saAmfComponentHead.next;
list != &unit->saAmfComponentHead;
list = list->next) {
component = list_entry (list,
struct saAmfComponent, saAmfComponentList);
if (component->registered == 0 ||
component->probableCause) {
log_printf (LOG_LEVEL_DEBUG, "dsm: Can't transition states, found component not registered or failed.\n", getSaNameT (&component->name));
serviceUnitEnabled = 0;
break;
}
}
if (serviceUnitEnabled == 1) {
log_printf (LOG_LEVEL_DEBUG, "dsm entering AMF_ENABLED_UNLOCKED state.\n");
component->saAmfUnit->operationalAdministrativeState = AMF_ENABLED_UNLOCKED;
component->disabledUnlockedState = -1; // SHOULD BE INVALID
component->enabledUnlockedState = AMF_ENABLED_UNLOCKED_INITIAL;
dsm (component);
}
}
static void dsmDisabledUnlockedFailed (
struct saAmfComponent *component)
{
struct saAmfUnit *unit;
struct list_head *list;
unit = component->saAmfUnit;
for (list = unit->saAmfComponentHead.next;
list != &unit->saAmfComponentHead;
list = list->next) {
component = list_entry (list, struct saAmfComponent, saAmfComponentList);
log_printf (LOG_LEVEL_DEBUG, "dsmDisabledUnlockedFailed: for %s.\n",
getSaNameT (&component->name));
switch (component->enabledUnlockedState) {
case AMF_ENABLED_UNLOCKED_IN_SERVICE_REQUESTED:
case AMF_ENABLED_UNLOCKED_IN_SERVICE_COMPLETED:
component->disabledUnlockedState = AMF_DISABLED_UNLOCKED_OUT_OF_SERVICE_REQUESTED;
if (component->probableCause == SA_AMF_NOT_RESPONDING) {
readinessStateSetCluster (component, SA_AMF_OUT_OF_SERVICE);
} else {
readinessStateSetApi (component, SA_AMF_OUT_OF_SERVICE);
}
break;
case AMF_ENABLED_UNLOCKED_ACTIVE_REQUESTED:
case AMF_ENABLED_UNLOCKED_ACTIVE_COMPLETED:
case AMF_ENABLED_UNLOCKED_STANDBY_REQUESTED:
case AMF_ENABLED_UNLOCKED_STANDBY_COMPLETED:
component->disabledUnlockedState = AMF_DISABLED_UNLOCKED_QUIESCED_REQUESTED;
if (component->probableCause == SA_AMF_NOT_RESPONDING) {
haStateSetCluster (component, SA_AMF_QUIESCED);
} else {
haStateSetApi (component, SA_AMF_QUIESCED);
}
poll_timer_delete (aisexec_poll_handle,
component->timer_healthcheck);
component->timer_healthcheck = 0;
break;
default:
log_printf (LOG_LEVEL_DEBUG, "invalid case 5 %d\n", component->enabledUnlockedState);
break;
}
}
}
static void dsmDisabledUnlockedQuiescedRequested (
struct saAmfComponent *component)
{
component->disabledUnlockedState = AMF_DISABLED_UNLOCKED_QUIESCED_COMPLETED;
dsm (component);
}
static void dsmDisabledUnlockedQuiescedCompleted (
struct saAmfComponent *component)
{
struct saAmfUnit *unit;
struct list_head *list;
int serviceUnitQuiesced;
unit = component->saAmfUnit;
for (serviceUnitQuiesced = 1, list = unit->saAmfComponentHead.next;
list != &unit->saAmfComponentHead;
list = list->next) {
component = list_entry (list, struct saAmfComponent, saAmfComponentList);
if (component->probableCause != SA_AMF_NOT_RESPONDING && component->registered) {
if (component->currentHAState != SA_AMF_QUIESCED) {
log_printf (LOG_LEVEL_DEBUG, "dsm: Can't transition states, found component not quiesced.\n", getSaNameT (&component->name));
serviceUnitQuiesced = 0;
break;
}
}
}
if (serviceUnitQuiesced == 1) {
log_printf (LOG_LEVEL_DEBUG, "All components have quiesced, Quiescing completed\n");
for (list = unit->saAmfComponentHead.next;
list != &unit->saAmfComponentHead;
list = list->next) {
component = list_entry (list, struct saAmfComponent, saAmfComponentList);
log_printf (LOG_LEVEL_DEBUG, "dsm: Sending readiness state set to OUTOFSERVICE for comp %s.\n",
getSaNameT (&component->name));
readinessStateSetApi (component, SA_AMF_OUT_OF_SERVICE);
component->disabledUnlockedState = AMF_DISABLED_UNLOCKED_OUT_OF_SERVICE_REQUESTED;
}
}
}
static void dsmDisabledUnlockedOutOfServiceRequested (
struct saAmfComponent *component)
{
component->disabledUnlockedState = AMF_DISABLED_UNLOCKED_OUT_OF_SERVICE_COMPLETED;
dsm (component);
}
static void dsmDisabledUnlockedOutOfServiceCompleted (
struct saAmfComponent *component)
{
struct saAmfUnit *unit;
struct list_head *list;
int serviceUnitOutOfService;
struct saAmfGroup *group = 0;
struct list_head *comp_list = 0;
struct list_head *unit_list = 0;
int serviceUnitInStandby = 0;
/*
* Once all components of a service unit are out of service,
* activate another service unit in standby
*/
log_printf (LOG_LEVEL_DEBUG, "dsmDisabledUnlockedOutOfServiceCompleted: component out of service %s\n", getSaNameT (&component->name));
/*
* Determine if all components have responded to going out of service
*/
unit = component->saAmfUnit;
for (serviceUnitOutOfService = 1, list = unit->saAmfComponentHead.next;
list != &unit->saAmfComponentHead;
list = list->next) {
component = list_entry (list, struct saAmfComponent, saAmfComponentList);
if (component->probableCause != SA_AMF_NOT_RESPONDING && component->registered) {
if (component->currentReadinessState != SA_AMF_OUT_OF_SERVICE) {
log_printf (LOG_LEVEL_DEBUG, "dsm: Can't transition states, found component not quiesced.\n", getSaNameT (&component->name));
serviceUnitOutOfService = 0;
break;
}
}
}
group = unit->saAmfGroup;
if (serviceUnitOutOfService == 1) {
log_printf (LOG_LEVEL_DEBUG, "SU has gone out of service.\n");
/*
* Search all units
*/
for (unit_list = group->saAmfUnitHead.next;
unit_list != &group->saAmfUnitHead;
unit_list = unit_list->next) {
unit = list_entry (unit_list,
struct saAmfUnit, saAmfUnitList);
log_printf (LOG_LEVEL_DEBUG, "Checking if service unit is in standby %s\n", getSaNameT (&unit->name));
/*
* Search all components
*/
for (serviceUnitInStandby = 1,
comp_list = unit->saAmfComponentHead.next;
comp_list != &unit->saAmfComponentHead;
comp_list = comp_list->next) {
component = list_entry (comp_list,
struct saAmfComponent, saAmfComponentList);
if (component->currentHAState != SA_AMF_STANDBY) {
serviceUnitInStandby = 0;
break; /* for iteration of service unit components */
}
}
if (serviceUnitInStandby) {
break; /* for iteration of service group's service units */
}
}
/*
* All components in service unit are standby, activate standby service unit
*/
if (serviceUnitInStandby) {
log_printf (LOG_LEVEL_DEBUG, "unit in standby\n");
for (list = unit->saAmfComponentHead.next;
list != &unit->saAmfComponentHead;
list = list->next) {
component = list_entry (list,
struct saAmfComponent, saAmfComponentList);
haStateSetApi (component, SA_AMF_ACTIVE);
}
} else {
log_printf (LOG_LEVEL_DEBUG, "Can't activate standby service unit because no standby is available.\n");
}
}
}
static void dsmEnabledUnlockedInitial (
struct saAmfComponent *component)
{
struct saAmfUnit *unit;
struct list_head *list;
unit = component->saAmfUnit;
for (list = unit->saAmfComponentHead.next;
list != &unit->saAmfComponentHead;
list = list->next) {
component = list_entry (list, struct saAmfComponent, saAmfComponentList);
readinessStateSetApi (component, SA_AMF_IN_SERVICE);
log_printf (LOG_LEVEL_DEBUG, "dsm: telling component %s to enter SA_AMF_IN_SERVICE.\n",
getSaNameT (&component->name));
component->enabledUnlockedState = AMF_ENABLED_UNLOCKED_IN_SERVICE_REQUESTED;
}
}
static void dsmEnabledUnlockedInServiceRequested (
struct saAmfComponent *component)
{
struct saAmfUnit *unit;
struct list_head *list;
int in_service;
log_printf (LOG_LEVEL_DEBUG, "dsmEnabledUnlockedInServiceRequested %s.\n", getSaNameT (&component->name));
unit = component->saAmfUnit;
for (in_service = 1, list = unit->saAmfComponentHead.next;
list != &unit->saAmfComponentHead;
list = list->next) {
component = list_entry (list, struct saAmfComponent, saAmfComponentList);
if (component->currentReadinessState != SA_AMF_IN_SERVICE) {
log_printf (LOG_LEVEL_DEBUG, "dsm: Found atleast one component not in service\n");
in_service = 0;
break;
}
}
if (in_service) {
log_printf (LOG_LEVEL_DEBUG, "DSM determined component is in service\n");
component->enabledUnlockedState = AMF_ENABLED_UNLOCKED_IN_SERVICE_COMPLETED;
dsm (component);
}
}
static void dsmEnabledUnlockedInServiceCompleted (
struct saAmfComponent *component)
{
struct saAmfUnit *unit;
struct list_head *list;
SaAmfHAStateT newHaState;
int activeServiceUnits;
log_printf (LOG_LEVEL_DEBUG, "dsmEnabledUnlockedInServiceCompleted %s.\n", getSaNameT (&component->name));
unit = component->saAmfUnit;
for (list = unit->saAmfComponentHead.next;
list != &unit->saAmfComponentHead;
list = list->next) {
component = list_entry (list,
struct saAmfComponent, saAmfComponentList);
log_printf (LOG_LEVEL_DEBUG, "Requesting component go active.\n", getSaNameT (&component->name));
/*
* Count number of active service units
*/
activeServiceUnits = activeServiceUnitsCount (component->saAmfUnit->saAmfGroup);
if (activeServiceUnits < component->saAmfUnit->saAmfGroup->saAmfActiveUnitsDesired) {
newHaState = SA_AMF_ACTIVE;
log_printf (LOG_LEVEL_DEBUG, "Setting ha state of component %s to SA_AMF_ACTIVE\n", getSaNameT (&component->name));
component->enabledUnlockedState = AMF_ENABLED_UNLOCKED_ACTIVE_REQUESTED;
} else {
newHaState = SA_AMF_STANDBY;
log_printf (LOG_LEVEL_DEBUG, "Setting ha state of component %s to SA_AMF_STANDBY\n", getSaNameT (&component->name));
component->enabledUnlockedState = AMF_ENABLED_UNLOCKED_STANDBY_REQUESTED;
}
haStateSetApi (component, newHaState);
}
}
void dsmEnabledUnlockedActiveRequested (
struct saAmfComponent *component)
{
if (component->local == 1) {
log_printf (LOG_LEVEL_DEBUG, "Adding healthcheck timer\n");
poll_timer_add (aisexec_poll_handle,
component->healthcheckInterval,
(void *)component->fd,
timer_function_libamf_healthcheck,
&component->timer_healthcheck);
}
component->enabledUnlockedState = AMF_ENABLED_UNLOCKED_ACTIVE_COMPLETED;
}
void dsmEnabledUnlockedStandbyRequested (
struct saAmfComponent *component)
{
if (component->local == 1) {
log_printf (LOG_LEVEL_DEBUG, "Adding healthcheck timer\n");
poll_timer_add (aisexec_poll_handle,
component->healthcheckInterval,
(void *)component->fd,
timer_function_libamf_healthcheck,
&component->timer_healthcheck);
}
component->enabledUnlockedState = AMF_ENABLED_UNLOCKED_STANDBY_COMPLETED;
}
void dsmEnabledUnlockedTransitionDisabledUnlocked (
struct saAmfComponent *component)
{
struct saAmfUnit *unit;
struct list_head *list;
unit = component->saAmfUnit;
for (list = unit->saAmfComponentHead.next;
list != &unit->saAmfComponentHead;
list = list->next) {
component = list_entry (list, struct saAmfComponent, saAmfComponentList);
log_printf (LOG_LEVEL_DEBUG, "Requesting component %s transition to disabled.\n",
getSaNameT (&component->name));
component->saAmfUnit->operationalAdministrativeState = AMF_DISABLED_UNLOCKED;
component->disabledUnlockedState = AMF_DISABLED_UNLOCKED_FAILED;
}
dsm (component);
}
static void dsmEnabledUnlocked (
struct saAmfComponent *component)
{
switch (component->enabledUnlockedState) {
case AMF_ENABLED_UNLOCKED_INITIAL:
dsmEnabledUnlockedInitial (component);
break;
case AMF_ENABLED_UNLOCKED_IN_SERVICE_REQUESTED:
dsmEnabledUnlockedInServiceRequested (component);
break;
case AMF_ENABLED_UNLOCKED_IN_SERVICE_COMPLETED:
dsmEnabledUnlockedInServiceCompleted (component);
break;
case AMF_ENABLED_UNLOCKED_ACTIVE_REQUESTED:
dsmEnabledUnlockedActiveRequested (component);
break;
case AMF_ENABLED_UNLOCKED_ACTIVE_COMPLETED:
/* noop - operational state */
break;
case AMF_ENABLED_UNLOCKED_STANDBY_REQUESTED:
dsmEnabledUnlockedActiveRequested (component);
break;
case AMF_ENABLED_UNLOCKED_STANDBY_COMPLETED:
/* noop - operational state */
break;
default:
log_printf (LOG_LEVEL_DEBUG, "dsmEnabledUnlocked: unkown state machine value.\n");
}
}
static void dsmDisabledUnlocked (
struct saAmfComponent *component)
{
log_printf (LOG_LEVEL_DEBUG, "dsmDisabledUnlocked for %s state %d\n",
getSaNameT (&component->name),
component->disabledUnlockedState);
switch (component->disabledUnlockedState) {
case AMF_DISABLED_UNLOCKED_REGISTEREDORERRORCANCEL:
dsmDisabledUnlockedRegisteredOrErrorCancel (component);
break;
case AMF_DISABLED_UNLOCKED_FAILED:
dsmDisabledUnlockedFailed (component);
break;
case AMF_DISABLED_UNLOCKED_QUIESCED_REQUESTED:
dsmDisabledUnlockedQuiescedRequested (component);
break;
case AMF_DISABLED_UNLOCKED_QUIESCED_COMPLETED:
dsmDisabledUnlockedQuiescedCompleted (component);
break;
case AMF_DISABLED_UNLOCKED_OUT_OF_SERVICE_REQUESTED:
dsmDisabledUnlockedOutOfServiceRequested (component);
break;
case AMF_DISABLED_UNLOCKED_OUT_OF_SERVICE_COMPLETED:
dsmDisabledUnlockedOutOfServiceCompleted (component);
break;
default:
log_printf (LOG_LEVEL_DEBUG, "dsmDisabledUnlocked: unkown state machine value %d.\n", component->disabledUnlockedState);
}
}
static void dsm (
struct saAmfComponent *component)
{
log_printf (LOG_LEVEL_DEBUG, "dsm for component %s\n", getSaNameT (&component->name));
switch (component->saAmfUnit->operationalAdministrativeState) {
case AMF_DISABLED_UNLOCKED:
dsmDisabledUnlocked (component);
break;
case AMF_ENABLED_UNLOCKED:
dsmEnabledUnlocked (component);
break;
/*
AMF_DISABLED_LOCKED,
AMF_ENABLED_STOPPING
*/
default:
log_printf (LOG_LEVEL_DEBUG, "dsm: unknown state machine value.\n");
}
}
#if 0
/*
* This is currently unused, but executes the componentterminatecallback
* callback in the AMF api.
*/
void componentTerminate (int fd)
{
struct res_amf_componentterminatecallback res_amf_componentterminatecallback;
res_amf_componentterminatecallback.header.magic = MESSAGE_MAGIC;
res_amf_componentterminatecallback.header.id = MESSAGE_RES_AMF_COMPONENTTERMINATECALLBACK;
res_amf_componentterminatecallback.header.size = sizeof (struct res_amf_componentterminatecallback);
res_amf_componentterminatecallback.invocation =
req_amf_response_set (
MESSAGE_REQ_AMF_RESPONSE_SAAMFCOMPONENTTERMINATECALLBACK,
fd);
memcpy (&res_amf_componentterminatecallback.compName,
&connections[fd].component->name, sizeof (SaNameT));
connections[fd].component->newReadinessState = SA_AMF_OUT_OF_SERVICE;
log_printf (LOG_LEVEL_DEBUG, "terminating component on fd %d\n", fd);
libais_send_response (fd, &res_amf_componentterminatecallback,
sizeof (struct res_amf_componentterminatecallback));
}
#endif /* Not currently implemented */
void errorReport (
struct saAmfComponent *component,
SaAmfProbableCauseT probableCause)
{
struct req_exec_amf_errorreport req_exec_amf_errorreport;
struct iovec iovecs[2];
req_exec_amf_errorreport.header.magic = MESSAGE_MAGIC;
req_exec_amf_errorreport.header.size = sizeof (struct req_exec_amf_errorreport);
req_exec_amf_errorreport.header.id = MESSAGE_REQ_EXEC_AMF_ERRORREPORT;
req_exec_amf_errorreport.source.fd = 0;
req_exec_amf_errorreport.source.in_addr.s_addr = 0;
memcpy (&req_exec_amf_errorreport.req_lib_amf_errorreport.erroneousComponent,
&component->name,
sizeof (SaNameT));
req_exec_amf_errorreport.req_lib_amf_errorreport.errorDescriptor.probableCause = probableCause;
iovecs[0].iov_base = &req_exec_amf_errorreport;
iovecs[0].iov_len = sizeof (req_exec_amf_errorreport);
gmi_mcast (&aisexec_groupname, iovecs, 1, GMI_PRIO_MED);
}
int healthcheck_instance = 0;
void timer_function_libamf_healthcheck (void *data) {
struct res_amf_healthcheckcallback res_amf_healthcheckcallback;
int connection = (int)data;
res_amf_healthcheckcallback.header.magic = MESSAGE_MAGIC;
res_amf_healthcheckcallback.header.id = MESSAGE_RES_AMF_HEALTHCHECKCALLBACK;
res_amf_healthcheckcallback.header.size = sizeof (struct res_amf_healthcheckcallback);
log_printf (LOG_LEVEL_DEBUG, "checking healthcheck on component %s\n",
getSaNameT (&connections[connection].component->name));
if (connections[connection].component->healthcheck_outstanding == 1) {
log_printf (LOG_LEVEL_DEBUG, "Healthcheck timed out on component %s\n",
getSaNameT (&connections[connection].component->name));
/*
* Report the error to the rest of the cluster using the normal state machine
*/
errorReport (connections[connection].component, SA_AMF_NOT_RESPONDING);
connections[connection].component->healthcheck_outstanding = 2;
} else
if (connections[connection].component->healthcheck_outstanding == 0) {
connections[connection].component->healthcheck_outstanding = 1;
/*
* Send healthcheck message
*/
res_amf_healthcheckcallback.invocation =
req_amf_response_set (
MESSAGE_REQ_AMF_RESPONSE_SAAMFHEALTHCHECKCALLBACK,
connection);
memcpy (&res_amf_healthcheckcallback.compName,
&connections[connection].component->name,
sizeof (SaNameT));
res_amf_healthcheckcallback.checkType = SA_AMF_HEARTBEAT;
log_printf (LOG_LEVEL_DEBUG, "Sending instance %d\n", healthcheck_instance);
res_amf_healthcheckcallback.instance = healthcheck_instance++;
libais_send_response (connection,
&res_amf_healthcheckcallback,
sizeof (struct res_amf_healthcheckcallback));
poll_timer_add (aisexec_poll_handle,
connections[connection].component->healthcheckInterval,
(void *)connection,
timer_function_libamf_healthcheck,
&connections[connection].component->timer_healthcheck);
}
}
struct saAmfProtectionGroup *findProtectionGroup (
SaNameT *csiName)
{
struct list_head *AmfGroupList;
struct list_head *AmfProtectionGroupList;
struct saAmfGroup *saAmfGroup;
struct saAmfProtectionGroup *AmfProtectionGroup;
/*
* Search all groups
*/
for (AmfGroupList = saAmfGroupHead.next;
AmfGroupList != &saAmfGroupHead;
AmfGroupList = AmfGroupList->next) {
saAmfGroup = list_entry (AmfGroupList,
struct saAmfGroup, saAmfGroupList);
/*
* Search all protection groups
*/
for (AmfProtectionGroupList = saAmfGroup->saAmfProtectionGroupHead.next;
AmfProtectionGroupList != &saAmfGroup->saAmfProtectionGroupHead;
AmfProtectionGroupList = AmfProtectionGroupList->next) {
AmfProtectionGroup = list_entry (AmfProtectionGroupList,
struct saAmfProtectionGroup, saAmfProtectionGroupList);
if (SaNameTisNameT (csiName, &AmfProtectionGroup->name)) {
return (AmfProtectionGroup);
}
}
}
return (0);
}
struct saAmfComponent *findComponentInProtectionGroup (
SaNameT *csiName,
SaNameT *compName)
{
struct list_head *AmfGroupList = 0;
struct list_head *AmfProtectionGroupList = 0;
struct list_head *AmfComponentList = 0;
struct saAmfGroup *saAmfGroup = 0;
struct saAmfProtectionGroup *AmfProtectionGroup = 0;
struct saAmfComponent *AmfComponent = 0;
int found = 0;
/*
* Search all groups
*/
for (AmfGroupList = saAmfGroupHead.next;
AmfGroupList != &saAmfGroupHead;
AmfGroupList = AmfGroupList->next) {
saAmfGroup = list_entry (AmfGroupList,
struct saAmfGroup, saAmfGroupList);
/*
* Search all protection groups
*/
for (AmfProtectionGroupList = saAmfGroup->saAmfProtectionGroupHead.next;
AmfProtectionGroupList != &saAmfGroup->saAmfProtectionGroupHead;
AmfProtectionGroupList = AmfProtectionGroupList->next) {
AmfProtectionGroup = list_entry (AmfProtectionGroupList,
struct saAmfProtectionGroup, saAmfProtectionGroupList);
if (SaNameTisNameT (csiName, &AmfProtectionGroup->name)) {
/*
* Search all components
*/
for (AmfComponentList = AmfProtectionGroup->saAmfMembersHead.next;
AmfComponentList != &AmfProtectionGroup->saAmfMembersHead;
AmfComponentList = AmfComponentList->next) {
AmfComponent = list_entry (AmfComponentList,
struct saAmfComponent, saAmfProtectionGroupList);
if (SaNameTisNameT (compName, &AmfComponent->name)) {
found = 1;
}
}
}
}
}
if (found) {
return (AmfComponent);
} else {
return (0);
}
}
void sendProtectionGroupNotifications (
struct saAmfComponent *changedComponent,
SaAmfProtectionGroupChangesT changeToComponent)
{
int fd;
int i;
log_printf (LOG_LEVEL_DEBUG, "sendProtectionGroupNotifications: sending PGs to API.\n");
for (fd = 0; fd < connection_entries; fd++) {
if (connections[fd].active &&
connections[fd].service == SOCKET_SERVICE_AMF) {
for (i = 0; i < connections[fd].ais_ci.u.libamf_ci.trackEntries; i++) {
if (connections[fd].ais_ci.u.libamf_ci.tracks[i].active) {
sendProtectionGroupNotification (fd,
connections[fd].ais_ci.u.libamf_ci.tracks[i].notificationBufferAddress,
changedComponent->saAmfProtectionGroup,
changedComponent,
changeToComponent,
connections[fd].ais_ci.u.libamf_ci.tracks[i].trackFlags);
} /* if active */
} /* for all track entries */
} /* if connection active and service is AMF */
} /* for all connection entries */
}
void sendProtectionGroupNotification (int fd,
SaAmfProtectionGroupNotificationT *notificationBufferAddress,
struct saAmfProtectionGroup *amfProtectionGroup,
struct saAmfComponent *changedComponent,
SaAmfProtectionGroupChangesT changeToComponent,
SaUint8T trackFlags)
{
struct res_amf_protectiongrouptrackcallback res_amf_protectiongrouptrackcallback;
SaAmfProtectionGroupNotificationT *protectionGroupNotification = 0;
int notifyEntries = 0;
struct saAmfComponent *component;
struct list_head *componentList;
/*
* Step through all components and generate protection group list for csi
*/
for (componentList = amfProtectionGroup->saAmfMembersHead.next;
componentList != &amfProtectionGroup->saAmfMembersHead;
componentList = componentList->next) {
component = list_entry (componentList,
struct saAmfComponent, saAmfProtectionGroupList);
/*
* Generate new track entry for following cases:
* 1. If this component is the changed component and
* SA_TRACK_CHANGES_ONLY is set
* 2. If track flags indicate SA_TRACK_CURRENT or SA_TRACK_CHANGES
*/
if (component == changedComponent ||
(trackFlags & (SA_TRACK_CURRENT | SA_TRACK_CHANGES))) {
protectionGroupNotification = (SaAmfProtectionGroupNotificationT *)mempool_realloc (protectionGroupNotification,
sizeof (SaAmfProtectionGroupNotificationT) * (notifyEntries + 1));
memcpy (&protectionGroupNotification[notifyEntries].member.compName,
&component->name, sizeof (SaNameT));
memcpy (&protectionGroupNotification[notifyEntries].member.readinessState,
&component->currentReadinessState, sizeof (SaAmfReadinessStateT));
memcpy (&protectionGroupNotification[notifyEntries].member.haState,
&component->currentHAState, sizeof (SaAmfHAStateT));
if (component == changedComponent) {
protectionGroupNotification[notifyEntries].change = changeToComponent;
} else {
protectionGroupNotification[notifyEntries].change = SA_AMF_PROTECTION_GROUP_NO_CHANGE;
}
notifyEntries += 1;
}
} /* for */
/*
* Send track callback
*/
if (notifyEntries) {
res_amf_protectiongrouptrackcallback.header.magic = MESSAGE_MAGIC;
res_amf_protectiongrouptrackcallback.header.size =
sizeof (struct res_amf_protectiongrouptrackcallback) +
(notifyEntries * sizeof (SaAmfProtectionGroupNotificationT));
res_amf_protectiongrouptrackcallback.header.id = MESSAGE_RES_AMF_PROTECTIONGROUPTRACKCALLBACK;
res_amf_protectiongrouptrackcallback.numberOfItems = notifyEntries;
res_amf_protectiongrouptrackcallback.numberOfMembers = notifyEntries;
memcpy (&res_amf_protectiongrouptrackcallback.csiName,
&amfProtectionGroup->name, sizeof (SaNameT));
res_amf_protectiongrouptrackcallback.notificationBufferAddress = notificationBufferAddress;
libais_send_response (fd, &res_amf_protectiongrouptrackcallback,
sizeof (struct res_amf_protectiongrouptrackcallback));
libais_send_response (fd, protectionGroupNotification,
sizeof (SaAmfProtectionGroupNotificationT) * notifyEntries);
mempool_free (protectionGroupNotification);
}
}
/*
* The response handler for readiness state set callback
*/
static void response_handler_readinessstatesetcallback (int connection,
struct req_amf_response *req_amf_response)
{
if (req_amf_response->error == SA_OK && connections[connection].component) {
log_printf (LOG_LEVEL_DEBUG, "CALLBACK sending readiness state to %s\n",
getSaNameT (&connections[connection].component->name));
readinessStateSetCluster (connections[connection].component,
connections[connection].component->newReadinessState);
}
}
/*
* iterate service unit components
* telling all components not already QUIESCING to enter SA_AMF_QUIESCED state
*/
static void response_handler_csisetcallback (int connection,
struct req_amf_response *req_amf_response)
{
if (req_amf_response->error == SA_OK && connections[connection].component) {
haStateSetCluster (connections[connection].component,
connections[connection].component->newHAState);
}
}
int amfExecutiveInitialize (void)
{
return (0);
}
int amfApiFinalize (int fd)
{
/*
* Unregister all components registered to this file descriptor
*/
if (connections[fd].service == SOCKET_SERVICE_AMF) {
componentUnregister (connections[fd].component);
if (connections[fd].component && connections[fd].component->timer_healthcheck) {
poll_timer_delete (aisexec_poll_handle,
connections[fd].component->timer_healthcheck);
connections[fd].component->timer_healthcheck = 0;
}
if (connections[fd].ais_ci.u.libamf_ci.tracks) {
mempool_free (connections[fd].ais_ci.u.libamf_ci.tracks);
connections[fd].ais_ci.u.libamf_ci.tracks = 0;
}
}
return (0);
}
static int message_handler_req_exec_amf_componentregister (int fd, void *message)
{
struct req_exec_amf_componentregister *req_exec_amf_componentregister = (struct req_exec_amf_componentregister *)message;
struct res_lib_amf_componentregister res_lib_amf_componentregister;
struct saAmfComponent *component;
struct saAmfComponent *amfProxyComponent;
SaErrorT error;
log_printf (LOG_LEVEL_DEBUG, "Executive: ComponentRegister for component %s\n",
getSaNameT (&req_exec_amf_componentregister->req_lib_amf_componentregister.compName));
/*
* Determine if proxy isn't registered
*/
error = SA_OK;
component = findComponent (&req_exec_amf_componentregister->req_lib_amf_componentregister.compName);
amfProxyComponent = findComponent (&req_exec_amf_componentregister->req_lib_amf_componentregister.proxyCompName);
/*
* If component not in configuration files, return error
*/
if (component == 0) {
error = SA_ERR_NOT_EXIST;
}
/*
* If proxy doesn't exist and isn't registered, return error
*/
if ((amfProxyComponent == 0 &&
req_exec_amf_componentregister->req_lib_amf_componentregister.proxyCompName.length > 0) ||
(amfProxyComponent && amfProxyComponent->registered == 0)) {
error = SA_ERR_NOT_EXIST;
}
/*
* If component already registered, return error
*/
if (error == SA_OK) {
if (component->registered) {
error = SA_ERR_EXIST;
}
}
/*
* Finally register component and setup links for proxy if
* proxy present
*/
if (error == SA_OK) {
component->local = 0;
component->registered = 1;
component->fd = req_exec_amf_componentregister->source.fd;
component->currentReadinessState = SA_AMF_OUT_OF_SERVICE;
component->newReadinessState = SA_AMF_OUT_OF_SERVICE;
component->currentHAState = SA_AMF_QUIESCED;
component->newHAState = SA_AMF_QUIESCED;
component->probableCause = 0;
component->enabledUnlockedState = 0;
component->disabledUnlockedState = 0;
if (req_exec_amf_componentregister->req_lib_amf_componentregister.proxyCompName.length > 0) {
component->saAmfProxyComponent = amfProxyComponent;
}
}
/*
* If this node originated the request to the cluster, respond back
* to the AMF library
*/
if (req_exec_amf_componentregister->source.in_addr.s_addr == this_ip.sin_addr.s_addr) {
if (error == SA_OK) {
component->local = 1;
connections[req_exec_amf_componentregister->source.fd].component = component;
}
log_printf (LOG_LEVEL_DEBUG, "sending component register response to fd %d\n", req_exec_amf_componentregister->source.fd);
res_lib_amf_componentregister.header.magic = MESSAGE_MAGIC;
res_lib_amf_componentregister.header.size = sizeof (struct res_lib_amf_componentregister);
res_lib_amf_componentregister.header.id = MESSAGE_RES_AMF_COMPONENTREGISTER;
res_lib_amf_componentregister.error = error;
libais_send_response (req_exec_amf_componentregister->source.fd, &res_lib_amf_componentregister,
sizeof (struct res_lib_amf_componentregister));
}
/*
* If no error on registration, determine if we should enter new state
*/
if (error == SA_OK) {
dsm (component);
}
return (0);
}
static int message_handler_req_exec_amf_componentunregister (int fd, void *message)
{
struct req_exec_amf_componentunregister *req_exec_amf_componentunregister = (struct req_exec_amf_componentunregister *)message;
struct res_lib_amf_componentunregister res_lib_amf_componentunregister;
struct saAmfComponent *component;
struct saAmfComponent *amfProxyComponent;
SaErrorT error;
log_printf (LOG_LEVEL_DEBUG, "Executive: ComponentUnregister for %s\n",
getSaNameT (&req_exec_amf_componentunregister->req_lib_amf_componentunregister.compName));
component = findComponent (&req_exec_amf_componentunregister->req_lib_amf_componentunregister.compName);
amfProxyComponent = findComponent (&req_exec_amf_componentunregister->req_lib_amf_componentunregister.proxyCompName);
/*
* Check for proxy and component not existing in system
*/
error = SA_OK;
if (component == 0) {
error = SA_ERR_NOT_EXIST;
}
if (req_exec_amf_componentunregister->req_lib_amf_componentunregister.proxyCompName.length > 0) {
if (amfProxyComponent) {
if (amfProxyComponent->registered == 0) {
error = SA_ERR_NOT_EXIST;
}
} else {
error = SA_ERR_NOT_EXIST;
}
}
/*
* If there is a proxycompname, make sure it is the proxy
* of compName
*/
if (error == SA_OK && amfProxyComponent) {
if (component->saAmfProxyComponent != amfProxyComponent) {
error = SA_ERR_BAD_OPERATION;
}
}
/*
* Finally unregister the component
*/
if (error == SA_OK) {
component->registered = 0;
dsmEnabledUnlockedTransitionDisabledUnlocked (component);
}
/*
* If this node originated the request to the cluster, respond back
* to the AMF library
*/
if (req_exec_amf_componentunregister->source.in_addr.s_addr == this_ip.sin_addr.s_addr) {
log_printf (LOG_LEVEL_DEBUG, "sending component unregister response to fd %d\n",
req_exec_amf_componentunregister->source.fd);
res_lib_amf_componentunregister.header.magic = MESSAGE_MAGIC;
res_lib_amf_componentunregister.header.size = sizeof (struct res_lib_amf_componentunregister);
res_lib_amf_componentunregister.header.id = MESSAGE_RES_AMF_COMPONENTUNREGISTER;
res_lib_amf_componentunregister.error = error;
libais_send_response (req_exec_amf_componentunregister->source.fd,
&res_lib_amf_componentunregister, sizeof (struct res_lib_amf_componentunregister));
}
return (0);
}
static int message_handler_req_exec_amf_errorreport (int fd, void *message)
{
struct req_exec_amf_errorreport *req_exec_amf_errorreport = (struct req_exec_amf_errorreport *)message;
struct res_lib_amf_errorreport res_lib_amf_errorreport;
struct saAmfComponent *component;
SaErrorT error = SA_ERR_BAD_OPERATION;
log_printf (LOG_LEVEL_DEBUG, "Executive: ErrorReport for %s\n",
getSaNameT (&req_exec_amf_errorreport->req_lib_amf_errorreport.erroneousComponent));
component = findComponent (&req_exec_amf_errorreport->req_lib_amf_errorreport.erroneousComponent);
if (component && component->registered) {
component->probableCause = req_exec_amf_errorreport->req_lib_amf_errorreport.errorDescriptor.probableCause;
/*
* One registered component left, so transition
* SU to failed operational state
*/
dsmEnabledUnlockedTransitionDisabledUnlocked (component);
error = SA_OK;
}
/*
* If this node originated the request to the cluster, respond back
* to the AMF library
*/
if (req_exec_amf_errorreport->source.in_addr.s_addr == this_ip.sin_addr.s_addr) {
log_printf (LOG_LEVEL_DEBUG, "sending error report response to fd %d\n",
req_exec_amf_errorreport->source.fd);
res_lib_amf_errorreport.header.magic = MESSAGE_MAGIC;
res_lib_amf_errorreport.header.size = sizeof (struct res_lib_amf_errorreport);
res_lib_amf_errorreport.header.id = MESSAGE_RES_AMF_ERRORREPORT;
res_lib_amf_errorreport.error = error;
libais_send_response (req_exec_amf_errorreport->source.fd,
&res_lib_amf_errorreport, sizeof (struct res_lib_amf_errorreport));
}
return (0);
}
static int message_handler_req_exec_amf_errorcancelall (int fd, void *message)
{
struct req_exec_amf_errorcancelall *req_exec_amf_errorcancelall = (struct req_exec_amf_errorcancelall *)message;
struct res_lib_amf_errorcancelall res_lib_amf_errorcancelall;
struct saAmfComponent *component;
SaErrorT error = SA_ERR_BAD_OPERATION;
log_printf (LOG_LEVEL_DEBUG, "Executive: ErrorCancelAll for %s\n",
getSaNameT (&req_exec_amf_errorcancelall->req_lib_amf_errorcancelall.compName));
component = findComponent (&req_exec_amf_errorcancelall->req_lib_amf_errorcancelall.compName);
if (component && component->registered) {
/*
* Mark component in service if its a AMF service
* connected to this aisexec
*/
if (component->probableCause) {
component->probableCause = 0;
component->disabledUnlockedState = AMF_DISABLED_UNLOCKED_REGISTEREDORERRORCANCEL;
dsm (component);
}
error = SA_OK;
}
/*
* If this node originated the request to the cluster, respond back
* to the AMF library
*/
if (req_exec_amf_errorcancelall->source.in_addr.s_addr == this_ip.sin_addr.s_addr) {
log_printf (LOG_LEVEL_DEBUG, "sending error report response to fd %d\n",
req_exec_amf_errorcancelall->source.fd);
res_lib_amf_errorcancelall.header.magic = MESSAGE_MAGIC;
res_lib_amf_errorcancelall.header.size = sizeof (struct res_lib_amf_errorcancelall);
res_lib_amf_errorcancelall.header.id = MESSAGE_RES_AMF_ERRORCANCELALL;
res_lib_amf_errorcancelall.error = error;
libais_send_response (req_exec_amf_errorcancelall->source.fd,
&res_lib_amf_errorcancelall, sizeof (struct res_lib_amf_errorcancelall));
}
return (0);
}
/*
* If receiving this message from another cluster node, another cluster node
* has selected a readiness state for a component connected to _that_ cluster
* node. That cluster node API has verified the readiness state, so its time to let
* the rest of the cluster nodes know about the readiness state change.
*/
static int message_handler_req_exec_amf_readinessstateset (int fd, void *message)
{
struct req_exec_amf_readinessstateset *req_exec_amf_readinessstateset = (struct req_exec_amf_readinessstateset *)message;
struct saAmfComponent *component;
component = findComponent (&req_exec_amf_readinessstateset->compName);
if (component) {
log_printf (LOG_LEVEL_DEBUG, "found component %s, setting current readiness state to %d\n",
getSaNameT (&component->name),
req_exec_amf_readinessstateset->readinessState);
component->currentReadinessState = req_exec_amf_readinessstateset->readinessState;
dsm (component);
}
return (0);
}
/*
* If receiving this message from another cluster node, another cluster node
* has selected a ha state for a component connected to _that_ cluster
* node. That cluster node API has verified the ha state, so its time to let
* the rest of the cluster nodes know about the HA state change.
*/
static int message_handler_req_exec_amf_hastateset (int fd, void *message)
{
struct req_exec_amf_hastateset *req_exec_amf_hastateset = (struct req_exec_amf_hastateset *)message;
struct saAmfComponent *component;
component = findComponent (&req_exec_amf_hastateset->compName);
if (component) {
log_printf (LOG_LEVEL_DEBUG, "found component %s, setting current HA state to %d\n",
getSaNameT (&component->name),
req_exec_amf_hastateset->haState);
component->currentHAState = req_exec_amf_hastateset->haState;
dsm (component);
}
return (0);
}
static int message_handler_req_amf_init (int fd, void *message)
{
struct res_lib_init res_lib_init;
SaErrorT error = SA_ERR_SECURITY;
log_printf (LOG_LEVEL_DEBUG, "Got AMF request to initalize availability management framework service.\n");
if (connections[fd].authenticated) {
connections[fd].service = SOCKET_SERVICE_AMF;
error = SA_OK;
}
res_lib_init.header.magic = MESSAGE_MAGIC;
res_lib_init.header.size = sizeof (struct res_lib_init);
res_lib_init.header.id = MESSAGE_RES_INIT;
res_lib_init.error = error;
libais_send_response (fd, &res_lib_init, sizeof (res_lib_init));
if (connections[fd].authenticated) {
return (0);
}
return (-1);
}
static int message_handler_req_amf_activatepoll (int fd, void *message)
{
struct res_amf_activatepoll res_amf_activatepoll;
res_amf_activatepoll.header.magic = MESSAGE_MAGIC;
res_amf_activatepoll.header.size = sizeof (struct res_amf_activatepoll);
res_amf_activatepoll.header.id = MESSAGE_RES_AMF_ACTIVATEPOLL;
libais_send_response (fd, &res_amf_activatepoll, sizeof (struct res_amf_activatepoll));
return (0);
}
static int message_handler_req_amf_componentregister (int fd, void *message)
{
struct req_amf_componentregister *req_lib_amf_componentregister = (struct req_amf_componentregister *)message;
struct req_exec_amf_componentregister req_exec_amf_componentregister;
struct iovec iovecs[2];
int result;
req_exec_amf_componentregister.header.magic = MESSAGE_MAGIC;
req_exec_amf_componentregister.header.size = sizeof (struct req_exec_amf_componentregister);
req_exec_amf_componentregister.header.id = MESSAGE_REQ_EXEC_AMF_COMPONENTREGISTER;
req_exec_amf_componentregister.source.fd = fd;
req_exec_amf_componentregister.source.in_addr.s_addr = this_ip.sin_addr.s_addr;
memcpy (&req_exec_amf_componentregister.req_lib_amf_componentregister,
req_lib_amf_componentregister,
sizeof (struct req_lib_amf_componentregister));
iovecs[0].iov_base = &req_exec_amf_componentregister;
iovecs[0].iov_len = sizeof (req_exec_amf_componentregister);
result = gmi_mcast (&aisexec_groupname, iovecs, 1, GMI_PRIO_MED);
return (0);
}
static int message_handler_req_amf_componentunregister (int fd, void *message)
{
struct req_lib_amf_componentunregister *req_lib_amf_componentunregister = (struct req_lib_amf_componentunregister *)message;
struct req_exec_amf_componentunregister req_exec_amf_componentunregister;
struct iovec iovecs[2];
int result;
struct saAmfComponent *component;
req_exec_amf_componentunregister.header.magic = MESSAGE_MAGIC;
req_exec_amf_componentunregister.header.size = sizeof (struct req_exec_amf_componentunregister);
req_exec_amf_componentunregister.header.id = MESSAGE_REQ_EXEC_AMF_COMPONENTUNREGISTER;
req_exec_amf_componentunregister.source.fd = fd;
req_exec_amf_componentunregister.source.in_addr.s_addr = this_ip.sin_addr.s_addr;
memcpy (&req_exec_amf_componentunregister.req_lib_amf_componentunregister,
req_lib_amf_componentunregister,
sizeof (struct req_lib_amf_componentunregister));
component = findComponent (&req_lib_amf_componentunregister->compName);
if (component && component->registered && component->local) {
component->probableCause = SA_AMF_NOT_RESPONDING;
}
iovecs[0].iov_base = &req_exec_amf_componentunregister;
iovecs[0].iov_len = sizeof (req_exec_amf_componentunregister);
result = gmi_mcast (&aisexec_groupname, iovecs, 1, GMI_PRIO_MED);
return (0);
}
static int message_handler_req_amf_readinessstateget (int fd, void *message)
{
struct req_amf_readinessstateget *req_amf_readinessstateget = (struct req_amf_readinessstateget *)message;
struct res_amf_readinessstateget res_amf_readinessstateget;
struct saAmfComponent *component;
log_printf (LOG_LEVEL_DEBUG, "got request to return readiness state\n");
res_amf_readinessstateget.header.magic = MESSAGE_MAGIC;
res_amf_readinessstateget.header.id = MESSAGE_RES_AMF_READINESSSTATEGET;
res_amf_readinessstateget.header.size = sizeof (struct res_amf_readinessstateget);
res_amf_readinessstateget.error = SA_ERR_NOT_EXIST;
component = findComponent (&req_amf_readinessstateget->compName);
log_printf (LOG_LEVEL_DEBUG, "readinessstateget: found component %p\n", component);
if (component) {
memcpy (&res_amf_readinessstateget.readinessState,
&component->currentReadinessState, sizeof (SaAmfReadinessStateT));
res_amf_readinessstateget.error = SA_OK;
}
libais_send_response (fd, &res_amf_readinessstateget, sizeof (struct res_amf_readinessstateget));
return (0);
}
static int message_handler_req_amf_hastateget (int fd, void *message)
{
struct req_amf_hastateget *req_amf_hastateget = (struct req_amf_hastateget *)message;
struct res_amf_hastateget res_amf_hastateget;
struct saAmfComponent *component;
res_amf_hastateget.header.magic = MESSAGE_MAGIC;
res_amf_hastateget.header.id = MESSAGE_RES_AMF_HASTATEGET;
res_amf_hastateget.header.size = sizeof (struct res_amf_hastateget);
res_amf_hastateget.error = SA_ERR_NOT_EXIST;
component = findComponentInProtectionGroup (&req_amf_hastateget->csiName, &req_amf_hastateget->compName);
if (component) {
memcpy (&res_amf_hastateget.haState,
&component->currentHAState, sizeof (SaAmfHAStateT));
res_amf_hastateget.error = SA_OK;
}
libais_send_response (fd, &res_amf_hastateget, sizeof (struct res_amf_hastateget));
return (0);
}
static int message_handler_req_amf_protectiongrouptrackstart (int fd, void *message)
{
struct req_amf_protectiongrouptrackstart *req_amf_protectiongrouptrackstart = (struct req_amf_protectiongrouptrackstart *)message;
struct res_amf_protectiongrouptrackstart res_amf_protectiongrouptrackstart;
struct libamf_ci_trackentry *track = 0;
int i;
struct saAmfProtectionGroup *amfProtectionGroup;
amfProtectionGroup = findProtectionGroup (&req_amf_protectiongrouptrackstart->csiName);
if (amfProtectionGroup) {
log_printf (LOG_LEVEL_DEBUG, "protectiongrouptrackstart: Got valid track start on CSI: %s.\n", getSaNameT (&req_amf_protectiongrouptrackstart->csiName));
for (i = 0; i < connections[fd].ais_ci.u.libamf_ci.trackEntries; i++) {
if (connections[fd].ais_ci.u.libamf_ci.tracks[i].active == 0) {
track = &connections[fd].ais_ci.u.libamf_ci.tracks[i];
break;
}
}
if (track == 0) {
grow_amf_track_table (fd, 1);
track = &connections[fd].ais_ci.u.libamf_ci.tracks[i];
}
track->active = 1;
track->trackFlags = req_amf_protectiongrouptrackstart->trackFlags;
track->notificationBufferAddress = req_amf_protectiongrouptrackstart->notificationBufferAddress;
memcpy (&track->csiName,
&req_amf_protectiongrouptrackstart->csiName, sizeof (SaNameT));
/*
* If SA_TRACK_CURRENT is specified, write out all current connections
*/
} else {
log_printf (LOG_LEVEL_DEBUG, "invalid track start, csi not registered with system.\n");
}
res_amf_protectiongrouptrackstart.header.magic = MESSAGE_MAGIC;
res_amf_protectiongrouptrackstart.header.id = MESSAGE_RES_AMF_PROTECTIONGROUPTRACKSTART;
res_amf_protectiongrouptrackstart.header.size = sizeof (struct res_amf_protectiongrouptrackstart);
res_amf_protectiongrouptrackstart.error = SA_ERR_NOT_EXIST;
if (amfProtectionGroup) {
res_amf_protectiongrouptrackstart.error = SA_OK;
}
libais_send_response (fd, &res_amf_protectiongrouptrackstart,
sizeof (struct res_amf_protectiongrouptrackstart));
if (amfProtectionGroup &&
req_amf_protectiongrouptrackstart->trackFlags & SA_TRACK_CURRENT) {
sendProtectionGroupNotification (fd,
track->notificationBufferAddress,
amfProtectionGroup,
0,
0,
track->trackFlags);
track->trackFlags &= ~SA_TRACK_CURRENT;
}
return (0);
}
static int message_handler_req_amf_protectiongrouptrackstop (int fd, void *message)
{
struct req_amf_protectiongrouptrackstop *req_amf_protectiongrouptrackstop = (struct req_amf_protectiongrouptrackstop *)message;
struct res_amf_protectiongrouptrackstop res_amf_protectiongrouptrackstop;
struct libamf_ci_trackentry *track = 0;
int i;
for (i = 0; i < connections[fd].ais_ci.u.libamf_ci.trackEntries; i++) {
if (SaNameTisNameT (&req_amf_protectiongrouptrackstop->csiName,
&connections[fd].ais_ci.u.libamf_ci.tracks[i].csiName)) {
track = &connections[fd].ais_ci.u.libamf_ci.tracks[i];
}
}
if (track) {
log_printf (LOG_LEVEL_DEBUG, "protectiongrouptrackstop: Trackstop on CSI: %s\n", getSaNameT (&req_amf_protectiongrouptrackstop->csiName));
memset (track, 0, sizeof (struct libamf_ci_trackentry));
}
res_amf_protectiongrouptrackstop.header.magic = MESSAGE_MAGIC;
res_amf_protectiongrouptrackstop.header.id = MESSAGE_RES_AMF_PROTECTIONGROUPTRACKSTOP;
res_amf_protectiongrouptrackstop.header.size = sizeof (struct res_amf_protectiongrouptrackstop);
res_amf_protectiongrouptrackstop.error = SA_ERR_NOT_EXIST;
if (track) {
res_amf_protectiongrouptrackstop.error = SA_OK;
}
libais_send_response (fd, &res_amf_protectiongrouptrackstop,
sizeof (struct res_amf_protectiongrouptrackstop));
return (0);
}
static int message_handler_req_amf_errorreport (int fd, void *message)
{
struct req_lib_amf_errorreport *req_lib_amf_errorreport = (struct req_lib_amf_errorreport *)message;
struct req_exec_amf_errorreport req_exec_amf_errorreport;
struct iovec iovecs[2];
int result;
req_exec_amf_errorreport.header.magic = MESSAGE_MAGIC;
req_exec_amf_errorreport.header.size = sizeof (struct req_exec_amf_errorreport);
req_exec_amf_errorreport.header.id = MESSAGE_REQ_EXEC_AMF_ERRORREPORT;
req_exec_amf_errorreport.source.fd = fd;
req_exec_amf_errorreport.source.in_addr.s_addr = this_ip.sin_addr.s_addr;
memcpy (&req_exec_amf_errorreport.req_lib_amf_errorreport,
req_lib_amf_errorreport,
sizeof (struct req_lib_amf_errorreport));
iovecs[0].iov_base = &req_exec_amf_errorreport;
iovecs[0].iov_len = sizeof (req_exec_amf_errorreport);
// iovecs[0].iov_len = sizeof (req_exec_amf_errorreport) - sizeof (req_lib_amf_errorreport);
// iovecs[1].iov_base = &req_lib_amf_errorreport;
// iovecs[1].iov_len = sizeof (req_lib_amf_errorreport);
result = gmi_mcast (&aisexec_groupname, iovecs, 1, GMI_PRIO_MED);
return (0);
}
static int message_handler_req_amf_errorcancelall (int fd, void *message)
{
struct req_lib_amf_errorcancelall *req_lib_amf_errorcancelall = (struct req_lib_amf_errorcancelall *)message;
struct req_exec_amf_errorcancelall req_exec_amf_errorcancelall;
struct iovec iovecs[2];
int result;
req_exec_amf_errorcancelall.header.magic = MESSAGE_MAGIC;
req_exec_amf_errorcancelall.header.size = sizeof (struct req_exec_amf_errorcancelall);
req_exec_amf_errorcancelall.header.id = MESSAGE_REQ_EXEC_AMF_ERRORCANCELALL;
req_exec_amf_errorcancelall.source.fd = fd;
req_exec_amf_errorcancelall.source.in_addr.s_addr = this_ip.sin_addr.s_addr;
memcpy (&req_exec_amf_errorcancelall.req_lib_amf_errorcancelall,
req_lib_amf_errorcancelall,
sizeof (struct req_lib_amf_errorcancelall));
iovecs[0].iov_base = &req_exec_amf_errorcancelall;
iovecs[0].iov_len = sizeof (req_exec_amf_errorcancelall);
// iovecs[0].iov_len = sizeof (req_exec_amf_errorcancelall) - sizeof (req_lib_amf_errorcancelall);
// iovecs[1].iov_base = &req_lib_amf_errorcancelall;
// iovecs[1].iov_len = sizeof (req_lib_amf_errorcancelall);
result = gmi_mcast (&aisexec_groupname, iovecs, 1, GMI_PRIO_MED);
return (0);
}
static int message_handler_req_amf_stoppingcomplete (int fd, void *message)
{
struct req_amf_stoppingcomplete *req_amf_stoppingcomplete = (struct req_amf_stoppingcomplete *)message;
int connection;
log_printf (LOG_LEVEL_DEBUG, "handling stopping complete\n");
connection = req_amf_response_get_connection (req_amf_stoppingcomplete->invocation);
connections[connection].component->currentReadinessState = connections[connection].component->newReadinessState;
readinessStateSetCluster (connections[connection].component, SA_AMF_STOPPING);
sendProtectionGroupNotifications (connections[connection].component,
SA_AMF_PROTECTION_GROUP_STATE_CHANGE);
// This is part of dsm now
// readinessStateSetApi (connections[connection].component, SA_AMF_OUT_OF_SERVICE);
return (0);
}
void response_handler_healthcheckcallback (int connection,
struct req_amf_response *req_amf_response) {
if (req_amf_response->error == SA_OK) {
log_printf (LOG_LEVEL_DEBUG, "setting healthcheck ok\n");
connections[connection].component->healthcheck_outstanding = 0;
}
}
static int message_handler_req_amf_response (int fd, void *message)
{
struct req_amf_response *req_amf_response = (struct req_amf_response *)message;
int connection;
int interface;
connection = req_amf_response_get_connection (req_amf_response->invocation);
interface = req_amf_response_get_interface (req_amf_response->invocation);
log_printf (LOG_LEVEL_DEBUG, "handling response connection %d interface %x\n", connection, interface);
switch (interface) {
case MESSAGE_REQ_AMF_RESPONSE_SAAMFHEALTHCHECKCALLBACK:
response_handler_healthcheckcallback (connection, req_amf_response);
break;
case MESSAGE_REQ_AMF_RESPONSE_SAAMFREADINESSSTATESETCALLBACK:
response_handler_readinessstatesetcallback (connection, req_amf_response);
break;
case MESSAGE_REQ_AMF_RESPONSE_SAAMFCSISETCALLBACK:
response_handler_csisetcallback (connection, req_amf_response);
break;
case MESSAGE_REQ_AMF_RESPONSE_SAAMFCSIREMOVECALLBACK:
break;
default:
// TODO
log_printf (LOG_LEVEL_ERROR, "invalid invocation value %x\n", req_amf_response->invocation);
break;
}
return (0);
}
static int message_handler_req_amf_componentcapabilitymodelget (int fd, void *message)
{
struct req_amf_componentcapabilitymodelget *req_amf_componentcapabilitymodelget = (struct req_amf_componentcapabilitymodelget *)message;
struct res_amf_componentcapabilitymodelget res_amf_componentcapabilitymodelget;
struct saAmfComponent *component;
SaErrorT error = SA_OK;
log_printf (LOG_LEVEL_DEBUG, "componentcapabilitymodelget: Retrieve name %s.\n", getSaNameT (&req_amf_componentcapabilitymodelget->compName));
component = findComponent (&req_amf_componentcapabilitymodelget->compName);
if (component && component->registered) {
memcpy (&res_amf_componentcapabilitymodelget.componentCapabilityModel,
&component->componentCapabilityModel, sizeof (SaAmfComponentCapabilityModelT));
} else {
error = SA_ERR_NOT_EXIST;
}
res_amf_componentcapabilitymodelget.header.magic = MESSAGE_MAGIC;
res_amf_componentcapabilitymodelget.header.size = sizeof (struct res_amf_componentcapabilitymodelget);
res_amf_componentcapabilitymodelget.header.id = MESSAGE_RES_AMF_COMPONENTCAPABILITYMODELGET;
res_amf_componentcapabilitymodelget.error = error;
libais_send_response (fd, &res_amf_componentcapabilitymodelget, sizeof (struct res_amf_componentcapabilitymodelget));
return (0);
}