static FnCall *DefaultServiceBundleCall(const Promise *pp, ServicePolicy service_policy)
{
Rlist *args = NULL;
switch (service_policy)
{
case SERVICE_POLICY_START:
RlistAppend(&args, pp->promiser, RVAL_TYPE_SCALAR);
RlistAppend(&args, "start", RVAL_TYPE_SCALAR);
break;
case SERVICE_POLICY_RESTART:
RlistAppend(&args, pp->promiser, RVAL_TYPE_SCALAR);
RlistAppend(&args, "restart", RVAL_TYPE_SCALAR);
break;
case SERVICE_POLICY_RELOAD:
RlistAppend(&args, pp->promiser, RVAL_TYPE_SCALAR);
RlistAppend(&args, "restart", RVAL_TYPE_SCALAR);
break;
case SERVICE_POLICY_STOP:
case SERVICE_POLICY_DISABLE:
default:
RlistAppend(&args, pp->promiser, RVAL_TYPE_SCALAR);
RlistAppend(&args, "stop", RVAL_TYPE_SCALAR);
break;
}
FnCall *call = FnCallNew("standard_services", args);
return call;
}
static void test_filter(void)
{
Rlist *list = NULL;
for (int i = 0; i < 10; i++)
{
char *item = StringFromLong(i);
RlistAppend(&list, item, RVAL_TYPE_SCALAR);
}
assert_int_equal(10, RlistLen(list));
int mod_by = 0;
RlistFilter(&list, is_even, &mod_by, free);
assert_int_equal(5, RlistLen(list));
int i = 0;
for (Rlist *rp = list; rp; rp = rp->next)
{
int k = StringToLong(rp->val.item);
assert_int_equal(i, k);
i += 2;
}
RlistDestroy(list);
}
Rlist *RlistAppend(Rlist **start, const void *item, RvalType type)
{
Rlist *rp, *lp = *start;
switch (type)
{
case RVAL_TYPE_SCALAR:
return RlistAppendScalar(start, item);
case RVAL_TYPE_FNCALL:
break;
case RVAL_TYPE_LIST:
for (rp = (Rlist *) item; rp != NULL; rp = rp->next)
{
lp = RlistAppend(start, rp->item, rp->type);
}
return lp;
default:
Log(LOG_LEVEL_DEBUG, "Cannot append %c to rval-list '%s'", type, (char *) item);
return NULL;
}
rp = xmalloc(sizeof(Rlist));
if (*start == NULL)
{
*start = rp;
}
else
{
for (lp = *start; lp->next != NULL; lp = lp->next)
{
}
lp->next = rp;
}
rp->item = RvalCopy((Rval) {(void *) item, type}).item;
rp->type = type; /* scalar, builtin function */
ThreadLock(cft_lock);
if (type == RVAL_TYPE_LIST)
{
rp->state_ptr = rp->item;
}
else
{
rp->state_ptr = NULL;
}
rp->next = NULL;
ThreadUnlock(cft_lock);
return rp;
}
static void test_hostinnetgroup_not_found(void **state)
{
FnCallResult res;
Rlist *args = NULL;
RlistAppend(&args, "invalid_netgroup", 's');
res = FnCallHostInNetgroup(NULL, args);
assert_string_equal("!any", (char *) res.rval.item);
}
void RlistFlatten(EvalContext *ctx, Rlist **list)
{
for (Rlist *rp = *list; rp != NULL;)
{
if (rp->type != RVAL_TYPE_SCALAR)
{
rp = rp->next;
continue;
}
char naked[CF_BUFSIZE] = "";
if (IsNakedVar(rp->item, '@'))
{
GetNaked(naked, rp->item);
Rval rv;
if (EvalContextVariableGet(ctx, (VarRef) { NULL, ScopeGetCurrent()->scope, naked }, &rv, NULL))
{
switch (rv.type)
{
case RVAL_TYPE_LIST:
for (const Rlist *srp = rv.item; srp != NULL; srp = srp->next)
{
RlistAppend(list, srp->item, srp->type);
}
Rlist *next = rp->next;
RlistDestroyEntry(list, rp);
rp = next;
continue;
default:
ProgrammingError("List variable does not resolve to a list");
RlistAppend(list, rp->item, rp->type);
break;
}
}
}
rp = rp->next;
}
}
static FnCall *DefaultServiceBundleCall(const Promise *pp, const char *service_policy)
{
Rlist *args = NULL;
FnCall *call = NULL;
RlistAppend(&args, pp->promiser, RVAL_TYPE_SCALAR);
RlistAppend(&args, service_policy, RVAL_TYPE_SCALAR);
Rval name = DefaultBundleConstraint(pp, "service");
if (PolicyGetBundle(PolicyFromPromise(pp), PromiseGetBundle(pp)->ns, "agent", (char *)name.item))
{
Log(LOG_LEVEL_VERBOSE, "Found service special bundle %s in ns %s\n", (char *)name.item, PromiseGetBundle(pp)->ns);
call = FnCallNew(name.item, args);
}
else
{
call = FnCallNew("standard_services", args);
}
return call;
}
static void GetMacAddress(AgentType ag, int fd, struct ifreq *ifr, struct ifreq *ifp, Rlist **interfaces,
Rlist **hardware)
{
char name[CF_MAXVARSIZE];
if ((ag != AGENT_TYPE_KNOW) && (ag != AGENT_TYPE_GENDOC))
{
snprintf(name, CF_MAXVARSIZE, "hardware_mac[%s]", ifp->ifr_name);
}
else
{
snprintf(name, CF_MAXVARSIZE, "hardware_mac[interface_name]");
}
# if defined(SIOCGIFHWADDR) && defined(HAVE_STRUCT_IFREQ_IFR_HWADDR)
char hw_mac[CF_MAXVARSIZE];
ioctl(fd, SIOCGIFHWADDR, ifr);
snprintf(hw_mac, CF_MAXVARSIZE - 1, "%.2x:%.2x:%.2x:%.2x:%.2x:%.2x",
(unsigned char) ifr->ifr_hwaddr.sa_data[0],
(unsigned char) ifr->ifr_hwaddr.sa_data[1],
(unsigned char) ifr->ifr_hwaddr.sa_data[2],
(unsigned char) ifr->ifr_hwaddr.sa_data[3],
(unsigned char) ifr->ifr_hwaddr.sa_data[4], (unsigned char) ifr->ifr_hwaddr.sa_data[5]);
NewScalar("sys", name, hw_mac, DATA_TYPE_STRING);
RlistAppend(hardware, hw_mac, RVAL_TYPE_SCALAR);
RlistAppend(interfaces, ifp->ifr_name, RVAL_TYPE_SCALAR);
snprintf(name, CF_MAXVARSIZE, "mac_%s", CanonifyName(hw_mac));
HardClass(name);
# else
NewScalar("sys", name, "mac_unknown", DATA_TYPE_STRING);
HardClass("mac_unknown");
# endif
}
Rlist *ExpandList(EvalContext *ctx, const char *ns, const char *scope, const Rlist *list, int expandnaked)
{
Rlist *start = NULL;
Rval returnval;
for (const Rlist *rp = list; rp != NULL; rp = rp->next)
{
if (!expandnaked && (rp->val.type == RVAL_TYPE_SCALAR) && IsNakedVar(RlistScalarValue(rp), '@'))
{
returnval = RvalNew(RlistScalarValue(rp), RVAL_TYPE_SCALAR);
}
else if ((rp->val.type == RVAL_TYPE_SCALAR) && IsNakedVar(RlistScalarValue(rp), '@'))
{
char naked[CF_MAXVARSIZE];
GetNaked(naked, RlistScalarValue(rp));
if (!IsExpandable(naked))
{
VarRef *ref = VarRefParseFromScope(naked, scope);
DataType value_type = DATA_TYPE_NONE;
const void *value = EvalContextVariableGet(ctx, ref, &value_type);
if (value)
{
returnval = ExpandPrivateRval(ctx, ns, scope, value, DataTypeToRvalType(value_type));
}
else
{
returnval = ExpandPrivateRval(ctx, ns, scope, rp->val.item, rp->val.type);
}
VarRefDestroy(ref);
}
else
{
returnval = ExpandPrivateRval(ctx, ns, scope, rp->val.item, rp->val.type);
}
}
else
{
returnval = ExpandPrivateRval(ctx, ns, scope, rp->val.item, rp->val.type);
}
RlistAppend(&start, returnval.item, returnval.type);
RvalDestroy(returnval);
}
return start;
}
Rlist *ExpandList(EvalContext *ctx,
const char *ns, const char *scope,
const Rlist *list, int expandnaked)
{
Rlist *start = NULL;
for (const Rlist *rp = list; rp != NULL; rp = rp->next)
{
Rval returnval = ExpandListEntry(ctx, ns, scope, expandnaked, rp->val);
RlistAppend(&start, returnval.item, returnval.type);
RvalDestroy(returnval);
}
return start;
}
Rlist *RlistCopy(const Rlist *list)
{
Rlist *start = NULL;
if (list == NULL)
{
return NULL;
}
for (const Rlist *rp = list; rp != NULL; rp = rp->next)
{
RlistAppend(&start, rp->item, rp->type); // allocates memory for objects
}
return start;
}
static void test_filter_everything(void)
{
Rlist *list = NULL;
for (int i = 1; i < 10; i += 2)
{
char *item = StringFromLong(i);
RlistAppend(&list, item, RVAL_TYPE_SCALAR);
}
assert_int_equal(5, RlistLen(list));
int mod_by = 0;
RlistFilter(&list, is_even, &mod_by, free);
assert_int_equal(0, RlistLen(list));
assert_true(list == NULL);
}
static Rval RvalCopyList(Rval rval)
{
assert(rval.type == RVAL_TYPE_LIST);
if (!rval.item)
{
return ((Rval) {NULL, RVAL_TYPE_LIST});
}
Rlist *start = NULL;
for (const Rlist *rp = rval.item; rp != NULL; rp = rp->next)
{
RlistAppend(&start, rp->item, rp->type);
}
return (Rval) {start, RVAL_TYPE_LIST};
}
static Rlist *NewExpArgs(EvalContext *ctx, const Policy *policy, const FnCall *fp)
{
{
const FnCallType *fn = FnCallTypeGet(fp->name);
int len = RlistLen(fp->args);
if (!(fn->options & FNCALL_OPTION_VARARG))
{
if (len != FnNumArgs(fn))
{
Log(LOG_LEVEL_ERR, "Arguments to function '%s' do not tally. Expected %d not %d",
fp->name, FnNumArgs(fn), len);
PromiseRef(LOG_LEVEL_ERR, fp->caller);
exit(EXIT_FAILURE);
}
}
}
Rlist *expanded_args = NULL;
for (const Rlist *rp = fp->args; rp != NULL; rp = rp->next)
{
Rval rval;
switch (rp->val.type)
{
case RVAL_TYPE_FNCALL:
{
FnCall *subfp = RlistFnCallValue(rp);
rval = FnCallEvaluate(ctx, policy, subfp, fp->caller).rval;
assert(rval.item);
}
break;
default:
rval = ExpandPrivateRval(ctx, NULL, NULL, rp->val.item, rp->val.type);
assert(rval.item);
break;
}
RlistAppend(&expanded_args, rval.item, rval.type);
RvalDestroy(rval);
}
return expanded_args;
}
Rlist *NewExpArgs(EvalContext *ctx, const FnCall *fp, const Promise *pp)
{
int len;
Rval rval;
Rlist *newargs = NULL;
FnCall *subfp;
const FnCallType *fn = FnCallTypeGet(fp->name);
len = RlistLen(fp->args);
if (!fn->varargs)
{
if (len != FnNumArgs(fn))
{
CfOut(OUTPUT_LEVEL_ERROR, "", "Arguments to function %s(.) do not tally. Expect %d not %d",
fp->name, FnNumArgs(fn), len);
PromiseRef(OUTPUT_LEVEL_ERROR, pp);
exit(1);
}
}
for (const Rlist *rp = fp->args; rp != NULL; rp = rp->next)
{
switch (rp->type)
{
case RVAL_TYPE_FNCALL:
subfp = (FnCall *) rp->item;
rval = FnCallEvaluate(ctx, subfp, pp).rval;
break;
default:
rval = ExpandPrivateRval(ScopeGetCurrent()->scope, (Rval) {rp->item, rp->type});
break;
}
CfDebug("EXPARG: %s.%s\n", ScopeGetCurrent()->scope, (char *) rval.item);
RlistAppend(&newargs, rval.item, rval.type);
RvalDestroy(rval);
}
return newargs;
}
Rlist *RlistAppendIdemp(Rlist **start, void *item, RvalType type)
{
Rlist *rp, *ins = NULL;
if (type == RVAL_TYPE_LIST)
{
for (rp = (Rlist *) item; rp != NULL; rp = rp->next)
{
ins = RlistAppendIdemp(start, rp->item, rp->type);
}
return ins;
}
if (!RlistKeyIn(*start, (char *) item))
{
return RlistAppend(start, (char *) item, type);
}
else
{
return NULL;
}
}
static void DoVerifyServices(Attributes a, Promise *pp, const ReportContext *report_context)
{
FnCall *default_bundle = NULL;
Rlist *args = NULL;
// Need to set up the default service pack to eliminate syntax
if (ConstraintGetRvalValue("service_bundle", pp, RVAL_TYPE_SCALAR) == NULL)
{
switch (a.service.service_policy)
{
case cfsrv_start:
RlistAppend(&args, pp->promiser, RVAL_TYPE_SCALAR);
RlistAppend(&args, "start", RVAL_TYPE_SCALAR);
break;
case cfsrv_restart:
RlistAppend(&args, pp->promiser, RVAL_TYPE_SCALAR);
RlistAppend(&args, "restart", RVAL_TYPE_SCALAR);
break;
case cfsrv_reload:
RlistAppend(&args, pp->promiser, RVAL_TYPE_SCALAR);
RlistAppend(&args, "restart", RVAL_TYPE_SCALAR);
break;
case cfsrv_stop:
case cfsrv_disable:
default:
RlistAppend(&args, pp->promiser, RVAL_TYPE_SCALAR);
RlistAppend(&args, "stop", RVAL_TYPE_SCALAR);
break;
}
default_bundle = FnCallNew("default:standard_services", args);
PromiseAppendConstraint(pp, "service_bundle", (Rval) {default_bundle, RVAL_TYPE_FNCALL }, "any", false);
a.havebundle = true;
}
// Set $(this.service_policy) for flexible bundle adaptation
switch (a.service.service_policy)
{
case cfsrv_start:
NewScalar("this", "service_policy", "start", DATA_TYPE_STRING);
break;
case cfsrv_restart:
NewScalar("this", "service_policy", "restart", DATA_TYPE_STRING);
break;
case cfsrv_reload:
NewScalar("this", "service_policy", "reload", DATA_TYPE_STRING);
break;
case cfsrv_stop:
case cfsrv_disable:
default:
NewScalar("this", "service_policy", "stop", DATA_TYPE_STRING);
break;
}
const Bundle *bp = PolicyGetBundle(PolicyFromPromise(pp), NULL, "agent", default_bundle->name);
if (!bp)
{
bp = PolicyGetBundle(PolicyFromPromise(pp), NULL, "common", default_bundle->name);
}
if (default_bundle && bp == NULL)
{
cfPS(OUTPUT_LEVEL_INFORM, CF_FAIL, "", pp, a, " !! Service %s could not be invoked successfully\n", pp->promiser);
}
if (!DONTDO)
{
VerifyMethod("service_bundle", a, pp, report_context); // Send list of classes to set privately?
}
}
static void test_map_iterators_from_rval_naked_list_var_namespace(void **state)
{
EvalContext *ctx = *state;
Policy *p = PolicyNew();
Bundle *bp = PolicyAppendBundle(p, "ns", "scope", "agent", NULL, NULL);
{
Rlist *list = NULL;
RlistAppend(&list, "jersey", RVAL_TYPE_SCALAR);
VarRef *lval = VarRefParse("ns:scope.jwow");
EvalContextVariablePut(ctx, lval, list, CF_DATA_TYPE_STRING_LIST, NULL);
VarRefDestroy(lval);
RlistDestroy(list);
}
EvalContextStackPushBundleFrame(ctx, bp, NULL, false);
{
Rlist *lists = NULL;
Rlist *scalars = NULL;
Rlist *containers = NULL;
MapIteratorsFromRval(ctx, bp, (Rval) { "${jwow}", RVAL_TYPE_SCALAR }, &scalars, &lists, &containers);
assert_int_equal(1, RlistLen(lists));
assert_string_equal("jwow", RlistScalarValue(lists));
assert_int_equal(0, RlistLen(scalars));
assert_int_equal(0, RlistLen(containers));
RlistDestroy(lists);
}
{
Rlist *lists = NULL;
Rlist *scalars = NULL;
Rlist *containers = NULL;
char *str = xstrdup("${scope.jwow}");
MapIteratorsFromRval(ctx, bp, (Rval) { str, RVAL_TYPE_SCALAR }, &scalars, &lists, &containers);
assert_string_equal("${scope#jwow}", str);
free(str);
assert_int_equal(1, RlistLen(lists));
assert_string_equal("scope#jwow", RlistScalarValue(lists));
assert_int_equal(0, RlistLen(scalars));
assert_int_equal(0, RlistLen(containers));
RlistDestroy(lists);
}
{
Rlist *lists = NULL;
Rlist *scalars = NULL;
Rlist *containers = NULL;
char *str = xstrdup("${ns:scope.jwow}");
MapIteratorsFromRval(ctx, bp, (Rval) { str, RVAL_TYPE_SCALAR }, &scalars, &lists, &containers);
assert_string_equal("${ns*scope#jwow}", str);
free(str);
assert_int_equal(1, RlistLen(lists));
assert_string_equal("ns*scope#jwow", RlistScalarValue(lists));
assert_int_equal(0, RlistLen(scalars));
assert_int_equal(0, RlistLen(containers));
RlistDestroy(lists);
}
EvalContextStackPopFrame(ctx);
PolicyDestroy(p);
}
Rlist *RlistAppend(Rlist **start, const void *item, RvalType type)
/* Allocates new memory for objects - careful, could leak! */
{
Rlist *rp, *lp = *start;
FnCall *fp;
switch (type)
{
case RVAL_TYPE_SCALAR:
return RlistAppendScalar(start, item);
case RVAL_TYPE_FNCALL:
CfDebug("Appending function to rval-list function call: ");
fp = (FnCall *) item;
if (DEBUG)
{
FnCallShow(stdout, fp);
}
CfDebug("\n");
break;
case RVAL_TYPE_LIST:
CfDebug("Expanding and appending list object\n");
for (rp = (Rlist *) item; rp != NULL; rp = rp->next)
{
lp = RlistAppend(start, rp->item, rp->type);
}
return lp;
default:
CfDebug("Cannot append %c to rval-list [%s]\n", type, (char *) item);
return NULL;
}
rp = xmalloc(sizeof(Rlist));
if (*start == NULL)
{
*start = rp;
}
else
{
for (lp = *start; lp->next != NULL; lp = lp->next)
{
}
lp->next = rp;
}
rp->item = RvalCopy((Rval) {(void *) item, type}).item;
rp->type = type; /* scalar, builtin function */
ThreadLock(cft_lock);
if (type == RVAL_TYPE_LIST)
{
rp->state_ptr = rp->item;
}
else
{
rp->state_ptr = NULL;
}
rp->next = NULL;
ThreadUnlock(cft_lock);
return rp;
}
void GetInterfacesInfo(AgentType ag)
{
int fd, len, i, j, first_address = false, ipdefault = false;
struct ifreq ifbuf[CF_IFREQ], ifr, *ifp;
struct ifconf list;
struct sockaddr_in *sin;
struct hostent *hp;
char *sp, workbuf[CF_BUFSIZE];
char ip[CF_MAXVARSIZE];
char name[CF_MAXVARSIZE];
char last_name[CF_BUFSIZE];
Rlist *interfaces = NULL, *hardware = NULL, *ips = NULL;
CfDebug("GetInterfacesInfo()\n");
// Long-running processes may call this many times
DeleteItemList(IPADDRESSES);
IPADDRESSES = NULL;
memset(ifbuf, 0, sizeof(ifbuf));
InitIgnoreInterfaces();
last_name[0] = '\0';
if ((fd = socket(AF_INET, SOCK_DGRAM, 0)) == -1)
{
CfOut(OUTPUT_LEVEL_ERROR, "socket", "Couldn't open socket");
exit(1);
}
list.ifc_len = sizeof(ifbuf);
list.ifc_req = ifbuf;
# ifdef SIOCGIFCONF
if (ioctl(fd, SIOCGIFCONF, &list) == -1 || (list.ifc_len < (sizeof(struct ifreq))))
# else
if ((ioctl(fd, OSIOCGIFCONF, &list) == -1) || (list.ifc_len < (sizeof(struct ifreq))))
# endif
{
CfOut(OUTPUT_LEVEL_ERROR, "ioctl", "Couldn't get interfaces - old kernel? Try setting CF_IFREQ to 1024");
exit(1);
}
last_name[0] = '\0';
for (j = 0, len = 0, ifp = list.ifc_req; len < list.ifc_len;
len += SIZEOF_IFREQ(*ifp), j++, ifp = (struct ifreq *) ((char *) ifp + SIZEOF_IFREQ(*ifp)))
{
if (ifp->ifr_addr.sa_family == 0)
{
continue;
}
if ((ifp->ifr_name == NULL) || (strlen(ifp->ifr_name) == 0))
{
continue;
}
/* Skip virtual network interfaces for Linux, which seems to be a problem */
if (IgnoreInterface(ifp->ifr_name))
{
continue;
}
if (strstr(ifp->ifr_name, ":"))
{
#ifdef __linux__
CfOut(OUTPUT_LEVEL_VERBOSE, "", "Skipping apparent virtual interface %d: %s\n", j + 1, ifp->ifr_name);
continue;
#endif
}
else
{
CfOut(OUTPUT_LEVEL_VERBOSE, "", "Interface %d: %s\n", j + 1, ifp->ifr_name);
}
// Ignore the loopback
if (strcmp(ifp->ifr_name, "lo") == 0)
{
continue;
}
if (strncmp(last_name, ifp->ifr_name, sizeof(ifp->ifr_name)) == 0)
{
first_address = false;
}
else
{
strncpy(last_name, ifp->ifr_name, sizeof(ifp->ifr_name));
if (!first_address)
{
NewScalar("sys", "interface", last_name, DATA_TYPE_STRING);
first_address = true;
}
}
snprintf(workbuf, CF_BUFSIZE, "net_iface_%s", CanonifyName(ifp->ifr_name));
HardClass(workbuf);
if (ifp->ifr_addr.sa_family == AF_INET)
{
strncpy(ifr.ifr_name, ifp->ifr_name, sizeof(ifp->ifr_name));
if (ioctl(fd, SIOCGIFFLAGS, &ifr) == -1)
{
CfOut(OUTPUT_LEVEL_ERROR, "ioctl", "No such network device");
continue;
}
if ((ifr.ifr_flags & IFF_UP) && (!(ifr.ifr_flags & IFF_LOOPBACK)))
{
sin = (struct sockaddr_in *) &ifp->ifr_addr;
if (IgnoreJailInterface(j + 1, sin))
{
CfOut(OUTPUT_LEVEL_VERBOSE, "", "Ignoring interface %d", j + 1);
continue;
}
CfDebug("Adding hostip %s..\n", inet_ntoa(sin->sin_addr));
HardClass(inet_ntoa(sin->sin_addr));
if ((hp =
gethostbyaddr((char *) &(sin->sin_addr.s_addr), sizeof(sin->sin_addr.s_addr), AF_INET)) == NULL)
{
CfDebug("No hostinformation for %s found\n", inet_ntoa(sin->sin_addr));
}
else
{
if (hp->h_name != NULL)
{
CfDebug("Adding hostname %s..\n", hp->h_name);
HardClass(hp->h_name);
if (hp->h_aliases != NULL)
{
for (i = 0; hp->h_aliases[i] != NULL; i++)
{
CfOut(OUTPUT_LEVEL_VERBOSE, "", "Adding alias %s..\n", hp->h_aliases[i]);
HardClass(hp->h_aliases[i]);
}
}
}
}
if (strcmp(inet_ntoa(sin->sin_addr), "0.0.0.0") == 0)
{
// Maybe we need to do something windows specific here?
CfOut(OUTPUT_LEVEL_VERBOSE, "", " !! Cannot discover hardware IP, using DNS value");
strcpy(ip, "ipv4_");
strcat(ip, VIPADDRESS);
AppendItem(&IPADDRESSES, VIPADDRESS, "");
RlistAppend(&ips, VIPADDRESS, RVAL_TYPE_SCALAR);
for (sp = ip + strlen(ip) - 1; (sp > ip); sp--)
{
if (*sp == '.')
{
*sp = '\0';
HardClass(ip);
}
}
strcpy(ip, VIPADDRESS);
i = 3;
for (sp = ip + strlen(ip) - 1; (sp > ip); sp--)
{
if (*sp == '.')
{
*sp = '\0';
snprintf(name, CF_MAXVARSIZE - 1, "ipv4_%d[%s]", i--, CanonifyName(VIPADDRESS));
NewScalar("sys", name, ip, DATA_TYPE_STRING);
}
}
continue;
}
strncpy(ip, "ipv4_", CF_MAXVARSIZE);
strncat(ip, inet_ntoa(sin->sin_addr), CF_MAXVARSIZE - 6);
HardClass(ip);
if (!ipdefault)
{
ipdefault = true;
NewScalar("sys", "ipv4", inet_ntoa(sin->sin_addr), DATA_TYPE_STRING);
strcpy(VIPADDRESS, inet_ntoa(sin->sin_addr));
}
AppendItem(&IPADDRESSES, inet_ntoa(sin->sin_addr), "");
RlistAppend(&ips, inet_ntoa(sin->sin_addr), RVAL_TYPE_SCALAR);
for (sp = ip + strlen(ip) - 1; (sp > ip); sp--)
{
if (*sp == '.')
{
*sp = '\0';
HardClass(ip);
}
}
// Set the IPv4 on interface array
strcpy(ip, inet_ntoa(sin->sin_addr));
if ((ag != AGENT_TYPE_KNOW) && (ag != AGENT_TYPE_GENDOC))
{
snprintf(name, CF_MAXVARSIZE - 1, "ipv4[%s]", CanonifyName(ifp->ifr_name));
}
else
{
snprintf(name, CF_MAXVARSIZE - 1, "ipv4[interface_name]");
}
NewScalar("sys", name, ip, DATA_TYPE_STRING);
i = 3;
for (sp = ip + strlen(ip) - 1; (sp > ip); sp--)
{
if (*sp == '.')
{
*sp = '\0';
if ((ag != AGENT_TYPE_KNOW) && (ag != AGENT_TYPE_GENDOC))
{
snprintf(name, CF_MAXVARSIZE - 1, "ipv4_%d[%s]", i--, CanonifyName(ifp->ifr_name));
}
else
{
snprintf(name, CF_MAXVARSIZE - 1, "ipv4_%d[interface_name]", i--);
}
NewScalar("sys", name, ip, DATA_TYPE_STRING);
}
}
}
// Set the hardware/mac address array
GetMacAddress(ag, fd, &ifr, ifp, &interfaces, &hardware);
}
}
close(fd);
NewList("sys", "interfaces", interfaces, DATA_TYPE_STRING_LIST);
NewList("sys", "hardware_addresses", hardware, DATA_TYPE_STRING_LIST);
NewList("sys", "ip_addresses", ips, DATA_TYPE_STRING_LIST);
RlistDestroy(interfaces);
RlistDestroy(hardware);
RlistDestroy(ips);
FindV6InterfacesInfo();
}
