int
tcpTable_load(netsnmp_cache *cache, void *vmagic)
{
struct inpcb tcp_inpcb;
struct tcpcb tcpcb;
netsnmp_inpcb *nnew;
struct inpcb *entry;
#ifdef hpux
int StateMap[] = { 1, 2, 3, -1, 4, 5, 8, 6, 10, 9, 7, 11 };
#else
int StateMap[] = { 1, 2, 3, 4, 5, 8, 6, 10, 9, 7, 11 };
#endif
tcpTable_free(NULL, NULL);
if (!auto_nlist(TCP_SYMBOL, (char *) &tcp_inpcb, sizeof(tcp_inpcb))) {
DEBUGMSGTL(("mibII/tcpTable", "Failed to read tcp_symbol\n"));
return -1;
}
/*
* Set up a linked list
*/
entry = tcp_inpcb.INP_NEXT_SYMBOL;
while (entry) {
nnew = SNMP_MALLOC_TYPEDEF(netsnmp_inpcb);
if (!nnew)
break;
if (!NETSNMP_KLOOKUP(entry, (char *)&(nnew->pcb), sizeof(struct inpcb))) {
DEBUGMSGTL(("mibII/tcpTable:tcpTable_load", "klookup failed\n"));
break;
}
if (!NETSNMP_KLOOKUP(nnew->pcb.inp_ppcb, (char *)&tcpcb, sizeof(struct tcpcb))) {
DEBUGMSGTL(("mibII/tcpTable:tcpTable_load", "klookup failed\n"));
break;
}
nnew->state = StateMap[tcpcb.t_state];
if (nnew->state == 5 /* established */ ||
nnew->state == 8 /* closeWait */ )
tcp_estab++;
entry = nnew->pcb.INP_NEXT_SYMBOL; /* Next kernel entry */
nnew->inp_next = tcp_head;
tcp_head = nnew;
if (entry == tcp_inpcb.INP_NEXT_SYMBOL)
break;
}
if (tcp_head) {
DEBUGMSGTL(("mibII/tcpTable", "Loaded TCP Table (tcp_symbol)\n"));
return 0;
}
DEBUGMSGTL(("mibII/tcpTable", "Failed to load TCP Table (tcp_symbol)\n"));
return -1;
}
int
udpTable_load(netsnmp_cache *cache, void *vmagic)
{
struct inpcb udp_inpcb;
struct inpcb *nnew, *entry;
udpTable_free(NULL, NULL);
if (!auto_nlist(UDB_SYMBOL, (char *) &udp_inpcb, sizeof(udp_inpcb))) {
DEBUGMSGTL(("mibII/udpTable", "Failed to read udb_symbol\n"));
return -1;
}
/*
* Set up a linked list
*/
entry = udp_inpcb.INP_NEXT_SYMBOL;
while (entry) {
nnew = SNMP_MALLOC_TYPEDEF(struct inpcb);
if (!nnew)
break;
if (!NETSNMP_KLOOKUP(entry, (char *) nnew, sizeof(struct inpcb))) {
DEBUGMSGTL(("mibII/udpTable:udpTable_load", "klookup failed\n"));
break;
}
entry = nnew->INP_NEXT_SYMBOL; /* Next kernel entry */
nnew->INP_NEXT_SYMBOL = udp_head;
udp_head = nnew;
if (entry == udp_inpcb.INP_NEXT_SYMBOL)
break;
}
if (udp_head) {
DEBUGMSGTL(("mibII/udpTable", "Loaded UDP Table\n"));
return 0;
}
DEBUGMSGTL(("mibII/udpTable", "Failed to load UDP Table (udb_symbol)\n"));
return -1;
}
int
udpTable_load(netsnmp_cache *cache, void *vmagic)
{
struct inpcbtable table;
struct inpcb *nnew, *entry;
udpTable_free(NULL, NULL);
if (!auto_nlist(UDB_SYMBOL, (char *) &table, sizeof(table))) {
DEBUGMSGTL(("mibII/udpTable", "Failed to read inpcbtable\n"));
return -1;
}
/*
* Set up a linked list
*/
entry = table.inpt_queue.cqh_first;
while (entry) {
nnew = SNMP_MALLOC_TYPEDEF(struct inpcb);
if (!nnew)
break;
if (!NETSNMP_KLOOKUP(entry, (char *) nnew, sizeof(struct inpcb))) {
DEBUGMSGTL(("mibII/udpTable:udpTable_load", "klookup failed\n"));
break;
}
entry = nnew->inp_queue.cqe_next; /* Next kernel entry */
nnew->inp_queue.cqe_next = udp_head;
udp_head = nnew;
if (entry == table.inpt_queue.cqh_first)
break;
}
if (udp_head) {
DEBUGMSGTL(("mibII/udpTable", "Loaded UDP Table\n"));
return 0;
}
DEBUGMSGTL(("mibII/udpTable", "Failed to load UDP Table (pcb_table)\n"));
return -1;
}
static int
ARP_Scan_Next(in_addr_t * IPAddr, char *PhysAddr, int *PhysAddrLen,
u_long * ifType)
#endif
{
#ifndef NETSNMP_CAN_USE_SYSCTL
#ifdef linux
if (arptab_current < arptab_size) {
/*
* copy values
*/
*IPAddr = at[arptab_current].at_iaddr.s_addr;
*ifType =
(at[arptab_current].
at_flags & ATF_PERM) ? 4 /*static */ : 3 /*dynamic */ ;
*ifIndex = at[arptab_current].if_index;
memcpy(PhysAddr, &at[arptab_current].at_enaddr,
sizeof(at[arptab_current].at_enaddr));
*PhysAddrLen = at[arptab_current].at_enaddr_len;
/*
* increment to point next entry
*/
arptab_current++;
/*
* return success
*/
return (1);
}
#elif defined(hpux11)
if (arptab_current < arptab_size) {
/*
* copy values
*/
*IPAddr = at[arptab_current].NetAddr;
memcpy(PhysAddr, at[arptab_current].PhysAddr.o_bytes,
at[arptab_current].PhysAddr.o_length);
*ifType = at[arptab_current].Type;
*ifIndex = at[arptab_current].IfIndex;
*PhysAddrLen = at[arptab_current].PhysAddr.o_length;
/*
* increment to point next entry
*/
arptab_current++;
/*
* return success
*/
return (1);
}
#elif !defined(ARP_SCAN_FOUR_ARGUMENTS) || defined(hpux)
register struct arptab *atab;
while (arptab_current < arptab_size) {
#ifdef STRUCT_ARPHD_HAS_AT_NEXT
/*
* The arp table is an array of linked lists of arptab entries.
* Unused slots have pointers back to the array entry itself
*/
if (at_ptr == (auto_nlist_value(ARPTAB_SYMBOL) +
arptab_current * sizeof(struct arphd))) {
/*
* Usused
*/
arptab_current++;
at_ptr = at[arptab_current].at_next;
continue;
}
if (!NETSNMP_KLOOKUP(at_ptr, (char *) &at_entry, sizeof(struct arptab))) {
DEBUGMSGTL(("mibII/at:ARP_Scan_Next", "klookup failed\n"));
break;
}
if (!NETSNMP_KLOOKUP(at_entry.at_ac, (char *) &at_com, sizeof(struct arpcom))) {
DEBUGMSGTL(("mibII/at:ARP_Scan_Next", "klookup failed\n"));
break;
}
at_ptr = at_entry.at_next;
atab = &at_entry;
*ifIndex = at_com.ac_if.if_index; /* not strictly ARPHD */
#else /* STRUCT_ARPHD_HAS_AT_NEXT */
atab = &at[arptab_current++];
#endif /* STRUCT_ARPHD_HAS_AT_NEXT */
if (!(atab->at_flags & ATF_COM))
continue;
*ifType = (atab->at_flags & ATF_PERM) ? 4 : 3;
*IPAddr = atab->at_iaddr.s_addr;
#if defined (sunV3) || defined(sparc) || defined(hpux)
memcpy(PhysAddr, (char *) &atab->at_enaddr,
sizeof(atab->at_enaddr));
*PhysAddrLen = sizeof(atab->at_enaddr);
#endif
#if defined(mips) || defined(ibm032)
memcpy(PhysAddr, (char *) atab->at_enaddr,
sizeof(atab->at_enaddr));
*PhysAddrLen = sizeof(atab->at_enaddr);
#endif
return (1);
}
#endif /* linux || hpux11 || !ARP_SCAN_FOUR_ARGUMENTS || hpux */
return 0; /* we need someone with an irix box to fix this section */
#else /* !NETSNMP_CAN_USE_SYSCTL */
struct rt_msghdr *rtm;
struct sockaddr_inarp *sin;
struct sockaddr_dl *sdl;
while (rtnext < lim) {
rtm = (struct rt_msghdr *) rtnext;
sin = (struct sockaddr_inarp *) (rtm + 1);
sdl = (struct sockaddr_dl *) (sin + 1);
rtnext += rtm->rtm_msglen;
if (sdl->sdl_alen) {
#ifdef irix6
*IPAddr = sin->sarp_addr.s_addr;
#else
*IPAddr = sin->sin_addr.s_addr;
#endif
memcpy(PhysAddr, (char *) LLADDR(sdl), sdl->sdl_alen);
*PhysAddrLen = sdl->sdl_alen;
*ifIndex = sdl->sdl_index;
*ifType = 1; /* XXX */
return (1);
}
}
return (0); /* "EOF" */
#endif /* !NETSNMP_CAN_USE_SYSCTL */
}
/* ---------------------------------------------------------------------
*/
int
netsnmp_arch_swrun_container_load( netsnmp_container *container, u_int flags)
{
struct proc *proc_table;
int proc_type_base;
int nproc, i, rc;
netsnmp_swrun_entry *entry;
auto_nlist( NPROC_SYMBOL, (char *)&nproc, sizeof(int));
proc_table = (struct proc *) malloc(nproc*(sizeof(struct proc)));
auto_nlist( PROC_SYMBOL, (char *)&proc_table_base, sizeof(int));
NETSNMP_KLOOKUP(proc_table_base, (char *)proc_table,
nproc*(sizeof(struct proc)));
for ( i=0 ; i<nproc; i++ ) {
if (0 == proc_table[i].p_stat)
continue; /* Skip unused entries */
entry = netsnmp_swrun_entry_create(proc_table[i].p_pid);
if (NULL == entry)
continue; /* error already logged by function */
rc = CONTAINER_INSERT(container, entry);
/*
* XXX - What information does 'struct proc' contain?
*/
/*
Apparently no process name/argument information
entry->hrSWRunName_len = snprintf(entry->hrSWRunName,
sizeof(entry->hrSWRunName)-1,
"%s", proc_table[i].???);
entry->hrSWRunPath_len = snprintf(entry->hrSWRunPath,
sizeof(entry->hrSWRunPath)-1,
"%s", proc_table[i].???);
entry->hrSWRunParameters_len = snprintf(entry->hrSWRunParameters,
sizeof(entry->hrSWRunParameters)-1,
"%s", ???);
*/
switch (proc_table[i].p_stat) {
/* XXX - which names to use ?? */
case SACTIVE:
case SRUN:
case SONPROC: entry->hrSWRunStatus = HRSWRUNSTATUS_RUNNING;
break;
case SSWAP:
case SSLEEP:
case SWAIT: entry->hrSWRunStatus = HRSWRUNSTATUS_RUNNABLE;
break;
case SSTOP: entry->hrSWRunStatus = HRSWRUNSTATUS_NOTRUNNABLE;
break;
case SIDL:
case SZOMB:
default: entry->hrSWRunStatus = HRSWRUNSTATUS_INVALID;
break;
}
entry->hrSWRunPerfCPU = (proc_table[i].p_utime.tv_sec * 100);
entry->hrSWRunPerfCPU += (proc_table[i].p_utime.tv_usec / 10000);
entry->hrSWRunPerfCPU += (proc_table[i].p_stime.tv_sec * 100);
entry->hrSWRunPerfCPU += (proc_table[i].p_stime.tv_usec / 10000);
/*
or entry->hrSWRunPerfCPU = proc_table[i].p_time;
*/
}
free(proc_table);
DEBUGMSGTL(("swrun:load:arch"," loaded %d entries\n",
CONTAINER_SIZE(container)));
return 0;
}
/**
*
* @retval 0 no errors
* @retval !0 errors
*/
static int
_load(netsnmp_container *container, u_int load_flags)
{
struct inpcbtable table;
struct inpcb *head, *next, *prev;
struct inpcb inpcb;
struct tcpcb tcpcb;
int StateMap[] = { 1, 2, 3, 4, 5, 8, 6, 10, 9, 7, 11 };
netsnmp_tcpconn_entry *entry;
int state;
int rc = 0;
/*
* Read in the buffer containing the TCP table data
*/
if (!auto_nlist(TCP_SYMBOL, (char *)&table, sizeof(table))) {
DEBUGMSGTL(("tcp-mib/tcpConn_openbsd", "Failed to read tcp_symbol\n"));
return -1;
}
prev = (struct inpcb *)&CIRCLEQ_FIRST(&table.inpt_queue);
prev = NULL;
head = next = CIRCLEQ_FIRST(&table.inpt_queue);
while (next) {
if (!NETSNMP_KLOOKUP(next, (char *)&inpcb, sizeof(inpcb))) {
DEBUGMSGTL(("tcp-mib/data_access/tcpConn", "klookup inpcb failed\n"));
break;
}
if (prev && CIRCLEQ_PREV(&inpcb, inp_queue) != prev) {
snmp_log(LOG_ERR,"tcbtable link error\n");
break;
}
prev = next;
next = CIRCLEQ_NEXT(&inpcb, inp_queue);
if (!NETSNMP_KLOOKUP(inpcb.inp_ppcb, (char *)&tcpcb, sizeof(tcpcb))) {
DEBUGMSGTL(("tcp-mib/data_access/tcpConn", "klookup tcpcb failed\n"));
break;
}
state = StateMap[tcpcb.t_state];
if (load_flags) {
if (state == TCPCONNECTIONSTATE_LISTEN) {
if (load_flags & NETSNMP_ACCESS_TCPCONN_LOAD_NOLISTEN) {
DEBUGMSGT(("verbose:access:tcpconn:container",
" skipping listen\n"));
goto skip;
}
}
else if (load_flags & NETSNMP_ACCESS_TCPCONN_LOAD_ONLYLISTEN) {
DEBUGMSGT(("verbose:access:tcpconn:container",
" skipping non-listen\n"));
goto skip;
}
}
#if !defined(NETSNMP_ENABLE_IPV6)
if (inpcb.inp_flags & INP_IPV6)
goto skip;
#endif
entry = netsnmp_access_tcpconn_entry_create();
if(NULL == entry) {
rc = -3;
break;
}
/** oddly enough, these appear to already be in network order */
entry->loc_port = ntohs(inpcb.inp_lport);
entry->rmt_port = ntohs(inpcb.inp_fport);
entry->tcpConnState = state;
entry->pid = 0;
/** the addr string may need work */
if (inpcb.inp_flags & INP_IPV6) {
entry->loc_addr_len = entry->rmt_addr_len = 16;
memcpy(entry->loc_addr, &inpcb.inp_laddr6, 16);
memcpy(entry->rmt_addr, &inpcb.inp_faddr6, 16);
}
else {
entry->loc_addr_len = entry->rmt_addr_len = 4;
memcpy(entry->loc_addr, &inpcb.inp_laddr, 4);
memcpy(entry->rmt_addr, &inpcb.inp_faddr, 4);
}
DEBUGMSGTL(("tcp-mib/data_access", "tcp %d %d %d\n",
entry->loc_addr_len, entry->loc_port, entry->rmt_port));
/*
* add entry to container
*/
entry->arbitrary_index = CONTAINER_SIZE(container) + 1;
CONTAINER_INSERT(container, entry);
skip:
if (head == next)
break;
}
if(rc<0)
return rc;
return 0;
}
/**
*
* @retval 0 no errors
* @retval !0 errors
*/
static int
_load(netsnmp_container *container, u_int load_flags)
{
struct inpcbtable table;
struct inpcb *head, *next, *prev;
struct inpcb inpcb;
netsnmp_udp_endpoint_entry *entry;
int rc = 0;
/*
* Read in the buffer containing the TCP table data
*/
if (!auto_nlist(UDB_SYMBOL, (char *) &table, sizeof(table))) {
DEBUGMSGTL(("udp-mib/udp_endpoint_openbsd", "Failed to read udp_symbol\n"));
return -1;
}
prev = (struct inpcb *)&CIRCLEQ_FIRST(&table.inpt_queue);
prev = NULL;
head = next = CIRCLEQ_FIRST(&table.inpt_queue);
while (next) {
NETSNMP_KLOOKUP(next, (char *)&inpcb, sizeof(inpcb));
if (prev && CIRCLEQ_PREV(&inpcb, inp_queue) != prev) {
snmp_log(LOG_ERR,"udbtable link error\n");
break;
}
prev = next;
next = CIRCLEQ_NEXT(&inpcb, inp_queue);
#if !defined(NETSNMP_ENABLE_IPV6)
if (inpcb.inp_flags & INP_IPV6)
goto skip;
#endif
entry = netsnmp_access_udp_endpoint_entry_create();
if (NULL == entry) {
rc = -3;
break;
}
/** oddly enough, these appear to already be in network order */
entry->loc_port = ntohs(inpcb.inp_lport);
entry->rmt_port = ntohs(inpcb.inp_fport);
entry->pid = 0;
/** the addr string may need work */
if (inpcb.inp_flags & INP_IPV6) {
entry->loc_addr_len = entry->rmt_addr_len = 16;
memcpy(entry->loc_addr, &inpcb.inp_laddr6, 16);
memcpy(entry->rmt_addr, &inpcb.inp_faddr6, 16);
}
else {
entry->loc_addr_len = entry->rmt_addr_len = 4;
memcpy(entry->loc_addr, &inpcb.inp_laddr, 4);
memcpy(entry->rmt_addr, &inpcb.inp_faddr, 4);
}
/*
* add entry to container
*/
entry->index = CONTAINER_SIZE(container) + 1;
CONTAINER_INSERT(container, entry);
#if !defined(NETSNMP_ENABLE_IPV6)
skip:
#endif
if (next == head)
break;
}
if (rc < 0)
return rc;
return 0;
}