/*++ Copyright (c) 1995 -1997 Microsoft Corporation Module Name: iprtrmib.h Abstract: This file contains: o Definitions of the MIB_XX structures passed to and from the IP Router Manager to query and set MIB variables handled by the IP Router Manager o The #defines for the MIB variables IDs handled by the IP Router Manager and made accessible by the MprAdminMIBXXX APIs o The Routing PID of the IP Router Manager (as mentioned in ipinfoid.h) --*/ #ifndef __ROUTING_IPRTRMIB_H__ #define __ROUTING_IPRTRMIB_H__ ////////////////////////////////////////////////////////////////////////////// // // // Included to get the value of MAX_INTERFACE_NAME_LEN // // // ////////////////////////////////////////////////////////////////////////////// #include ////////////////////////////////////////////////////////////////////////////// // // // Included to get the necessary constants // // // ////////////////////////////////////////////////////////////////////////////// #include ////////////////////////////////////////////////////////////////////////////// // // // This is the Id for IP Router Manager. The Router Manager handles // // MIB-II, Forwarding MIB and some enterprise specific information. // // Calls made with any other ID are passed on to the corresponding protocol // // For example, and MprAdminMIBXXX call with a protocol ID of PID_IP and // // a routing Id of 0xD will be sent to the IP Router Manager and then // // forwarded to OSPF // // This lives in the same number space as the protocol Ids of RIP, OSPF // // etc, so any change made to it should be done keeping this in mind // // // ////////////////////////////////////////////////////////////////////////////// #define IPRTRMGR_PID 10000 #define ANY_SIZE 1 ////////////////////////////////////////////////////////////////////////////// // // // The following #defines are the Ids of the MIB variables made accessible // // to the user via MprAdminMIBXXX Apis. It will be noticed that these are // // not the same as RFC 1213, since the MprAdminMIBXXX APIs work on rows and // // groups instead of scalar variables // // // ////////////////////////////////////////////////////////////////////////////// #define IF_NUMBER 0 #define IF_TABLE IF_NUMBER + 1 #define IF_ROW IF_TABLE + 1 #define IP_STATS IF_ROW + 1 #define IP_ADDRTABLE IP_STATS + 1 #define IP_ADDRROW IP_ADDRTABLE + 1 #define IP_FORWARDNUMBER IP_ADDRROW + 1 #define IP_FORWARDTABLE IP_FORWARDNUMBER + 1 #define IP_FORWARDROW IP_FORWARDTABLE + 1 #define IP_NETTABLE IP_FORWARDROW + 1 #define IP_NETROW IP_NETTABLE + 1 #define ICMP_STATS IP_NETROW + 1 #define TCP_STATS ICMP_STATS + 1 #define TCP_TABLE TCP_STATS + 1 #define TCP_ROW TCP_TABLE + 1 #define UDP_STATS TCP_ROW + 1 #define UDP_TABLE UDP_STATS + 1 #define UDP_ROW UDP_TABLE + 1 #define IF_FILTERTABLE UDP_ROW + 1 #define IF_FILTERTIMES IF_FILTERTABLE + 1 #define NUMBER_OF_EXPORTED_VARIABLES IF_FILTERTIMES + 1 ////////////////////////////////////////////////////////////////////////////// // // // MIB_OPAQUE_QUERY is the structure filled in by the user to identify a // // MIB variable // // // // dwVarId ID of MIB Variable (One of the Ids #defined above) // // dwVarIndex Variable sized array containing the indices needed to // // identify a variable. NOTE: Unlike SNMP we dont require that // // a scalar variable be indexed by 0 // // // ////////////////////////////////////////////////////////////////////////////// typedef struct _MIB_OPAQUE_QUERY { DWORD dwVarId; DWORD rgdwVarIndex[ANY_SIZE]; }MIB_OPAQUE_QUERY, *PMIB_OPAQUE_QUERY; ////////////////////////////////////////////////////////////////////////////// // // // The following are the structures which are filled in and returned to the // // user when a query is made, OR are filled in BY THE USER when a set is // // done // // // ////////////////////////////////////////////////////////////////////////////// typedef struct _MIB_IFNUMBER { DWORD dwValue; } MIB_IFNUMBER, *PMIB_IFNUMBER; #define MAXLEN_IFDESCR 256 #define MAXLEN_PHYSADDR 8 typedef struct _MIB_IFROW { WCHAR wszName[MAX_INTERFACE_NAME_LEN]; DWORD dwIndex; DWORD dwType; DWORD dwMtu; DWORD dwSpeed; DWORD dwPhysAddrLen; BYTE bPhysAddr[MAXLEN_PHYSADDR]; DWORD dwAdminStatus; DWORD dwOperStatus; DWORD dwLastChange; DWORD dwInOctets; DWORD dwInUcastPkts; DWORD dwInNUcastPkts; DWORD dwInDiscards; DWORD dwInErrors; DWORD dwInUnknownProtos; DWORD dwOutOctets; DWORD dwOutUcastPkts; DWORD dwOutNUcastPkts; DWORD dwOutDiscards; DWORD dwOutErrors; DWORD dwOutQLen; DWORD dwDescrLen; BYTE bDescr[MAXLEN_IFDESCR]; } MIB_IFROW,*PMIB_IFROW; typedef struct _MIB_IFTABLE { DWORD dwNumEntries; MIB_IFROW table[ANY_SIZE]; } MIB_IFTABLE, *PMIB_IFTABLE; #define SIZEOF_IFTABLE(X) (FIELD_OFFSET(MIB_IFTABLE,table[0]) + ((X) * sizeof(MIB_IFROW)) + ALIGN_SIZE) typedef struct _MIBICMPSTATS { DWORD dwMsgs; DWORD dwErrors; DWORD dwDestUnreachs; DWORD dwTimeExcds; DWORD dwParmProbs; DWORD dwSrcQuenchs; DWORD dwRedirects; DWORD dwEchos; DWORD dwEchoReps; DWORD dwTimestamps; DWORD dwTimestampReps; DWORD dwAddrMasks; DWORD dwAddrMaskReps; } MIBICMPSTATS; typedef struct _MIBICMPINFO { MIBICMPSTATS icmpInStats; MIBICMPSTATS icmpOutStats; } MIBICMPINFO; typedef struct _MIB_ICMP { MIBICMPINFO stats; } MIB_ICMP,*PMIB_ICMP; typedef struct _MIB_UDPSTATS { DWORD dwInDatagrams; DWORD dwNoPorts; DWORD dwInErrors; DWORD dwOutDatagrams; DWORD dwNumAddrs; } MIB_UDPSTATS,*PMIB_UDPSTATS; typedef struct _MIB_UDPROW { DWORD dwLocalAddr; DWORD dwLocalPort; } MIB_UDPROW, *PMIB_UDPROW; typedef struct _MIB_UDPTABLE { DWORD dwNumEntries; MIB_UDPROW table[ANY_SIZE]; } MIB_UDPTABLE, *PMIB_UDPTABLE; #define SIZEOF_UDPTABLE(X) (FIELD_OFFSET(MIB_UDPTABLE, table[0]) + ((X) * sizeof(MIB_UDPROW)) + ALIGN_SIZE) typedef struct _MIB_TCPSTATS { DWORD dwRtoAlgorithm; DWORD dwRtoMin; DWORD dwRtoMax; DWORD dwMaxConn; DWORD dwActiveOpens; DWORD dwPassiveOpens; DWORD dwAttemptFails; DWORD dwEstabResets; DWORD dwCurrEstab; DWORD dwInSegs; DWORD dwOutSegs; DWORD dwRetransSegs; DWORD dwInErrs; DWORD dwOutRsts; DWORD dwNumConns; } MIB_TCPSTATS, *PMIB_TCPSTATS; #define MIB_TCP_RTO_OTHER 1 #define MIB_TCP_RTO_CONSTANT 2 #define MIB_TCP_RTO_RSRE 3 #define MIB_TCP_RTO_VANJ 4 #define MIB_TCP_MAXCONN_DYNAMIC (DWORD)-1 typedef struct _MIB_TCPROW { DWORD dwState; DWORD dwLocalAddr; DWORD dwLocalPort; DWORD dwRemoteAddr; DWORD dwRemotePort; } MIB_TCPROW, *PMIB_TCPROW; #define MIB_TCP_STATE_CLOSED 1 #define MIB_TCP_STATE_LISTEN 2 #define MIB_TCP_STATE_SYN_SENT 3 #define MIB_TCP_STATE_SYN_RCVD 4 #define MIB_TCP_STATE_ESTAB 5 #define MIB_TCP_STATE_FIN_WAIT1 6 #define MIB_TCP_STATE_FIN_WAIT2 7 #define MIB_TCP_STATE_CLOSE_WAIT 8 #define MIB_TCP_STATE_CLOSING 9 #define MIB_TCP_STATE_LAST_ACK 10 #define MIB_TCP_STATE_TIME_WAIT 11 #define MIB_TCP_STATE_DELETE_TCB 12 typedef struct _MIB_TCPTABLE { DWORD dwNumEntries; MIB_TCPROW table[ANY_SIZE]; } MIB_TCPTABLE, *PMIB_TCPTABLE; #define SIZEOF_TCPTABLE(X) (FIELD_OFFSET(MIB_TCPTABLE,table[0]) + ((X) * sizeof(MIB_TCPROW)) + ALIGN_SIZE) #define MIB_USE_CURRENT_TTL ((DWORD)-1) #define MIB_USE_CURRENT_FORWARDING ((DWORD)-1) typedef struct _MIB_IPSTATS { DWORD dwForwarding; DWORD dwDefaultTTL; DWORD dwInReceives; DWORD dwInHdrErrors; DWORD dwInAddrErrors; DWORD dwForwDatagrams; DWORD dwInUnknownProtos; DWORD dwInDiscards; DWORD dwInDelivers; DWORD dwOutRequests; DWORD dwRoutingDiscards; DWORD dwOutDiscards; DWORD dwOutNoRoutes; DWORD dwReasmTimeout; DWORD dwReasmReqds; DWORD dwReasmOks; DWORD dwReasmFails; DWORD dwFragOks; DWORD dwFragFails; DWORD dwFragCreates; DWORD dwNumIf; DWORD dwNumAddr; DWORD dwNumRoutes; } MIB_IPSTATS, *PMIB_IPSTATS; #define MIB_IP_FORWARDING 1 #define MIB_IP_NOT_FORWARDING 2 typedef struct _MIB_IPADDRROW { DWORD dwAddr; DWORD dwIndex; DWORD dwMask; DWORD dwBCastAddr; DWORD dwReasmSize; unsigned short unused1; unsigned short unused2; } MIB_IPADDRROW, *PMIB_IPADDRROW; typedef struct _MIB_IPADDRTABLE { DWORD dwNumEntries; MIB_IPADDRROW table[ANY_SIZE]; } MIB_IPADDRTABLE, *PMIB_IPADDRTABLE; #define SIZEOF_IPADDRTABLE(X) (FIELD_OFFSET(MIB_IPADDRTABLE,table[0]) + ((X) * sizeof(MIB_IPADDRROW)) + ALIGN_SIZE) typedef struct _MIB_IPFORWARDNUMBER { DWORD dwValue; }MIB_IPFORWARDNUMBER,*PMIB_IPFORWARDNUMBER; typedef struct _MIB_IPFORWARDROW { DWORD dwForwardDest; DWORD dwForwardMask; DWORD dwForwardPolicy; DWORD dwForwardNextHop; DWORD dwForwardIfIndex; DWORD dwForwardType; DWORD dwForwardProto; DWORD dwForwardAge; DWORD dwForwardNextHopAS; DWORD dwForwardMetric1; DWORD dwForwardMetric2; DWORD dwForwardMetric3; DWORD dwForwardMetric4; DWORD dwForwardMetric5; }MIB_IPFORWARDROW, *PMIB_IPFORWARDROW; #define MIB_IPROUTE_TYPE_OTHER 1 #define MIB_IPROUTE_TYPE_INVALID 2 #define MIB_IPROUTE_TYPE_DIRECT 3 #define MIB_IPROUTE_TYPE_INDIRECT 4 #define MIB_IPROUTE_METRIC_UNUSED (DWORD)-1 #define MIB_IPPROTO_OTHER 1 #define MIB_IPPROTO_LOCAL 2 #define MIB_IPPROTO_NETMGMT 3 #define MIB_IPPROTO_ICMP 4 #define MIB_IPPROTO_EGP 5 #define MIB_IPPROTO_GGP 6 #define MIB_IPPROTO_HELLO 7 #define MIB_IPPROTO_RIP 8 #define MIB_IPPROTO_IS_IS 9 #define MIB_IPPROTO_ES_IS 10 #define MIB_IPPROTO_CISCO 11 #define MIB_IPPROTO_BBN 12 #define MIB_IPPROTO_OSPF 13 #define MIB_IPPROTO_BGP 14 typedef struct _MIB_IPFORWARDTABLE { DWORD dwNumEntries; MIB_IPFORWARDROW table[ANY_SIZE]; }MIB_IPFORWARDTABLE, *PMIB_IPFORWARDTABLE; #define SIZEOF_IPFORWARDTABLE(X) (FIELD_OFFSET(MIB_IPFORWARDTABLE,table[0]) + ((X) * sizeof(MIB_IPFORWARDROW)) + ALIGN_SIZE) typedef struct _MIB_IPNETROW { DWORD dwIndex; DWORD dwPhysAddrLen; BYTE bPhysAddr[MAXLEN_PHYSADDR]; DWORD dwAddr; DWORD dwType; } MIB_IPNETROW, *PMIB_IPNETROW; #define MIB_IPNET_TYPE_OTHER 1 #define MIB_IPNET_TYPE_INVALID 2 #define MIB_IPNET_TYPE_DYNAMIC 3 #define MIB_IPNET_TYPE_STATIC 4 typedef struct _MIB_IPNETTABLE { DWORD dwNumEntries; MIB_IPNETROW table[ANY_SIZE]; } MIB_IPNETTABLE, *PMIB_IPNETTABLE; #define SIZEOF_IPNETTABLE(X) (FIELD_OFFSET(MIB_IPNETTABLE, table[0]) + ((X) * sizeof(MIB_IPNETROW)) + ALIGN_SIZE) ////////////////////////////////////////////////////////////////////////////// // // // All the info passed to (SET/CREATE) and from (GET/GETNEXT/GETFIRST) // // IP Router Manager is encapsulated in the following "discriminated" // // union. To pass, say MIB_IFROW, use the following code // // // // PMIB_OPAQUE_INFO pInfo; // // PMIB_IFROW pIfRow; // // DWORD rgdwBuff[(MAX_MIB_OFFSET + sizeof(MIB_IFROW))/sizeof(DWORD) + 1]; // // // // pInfo = (PMIB_OPAQUE_INFO)rgdwBuffer; // // pIfRow = (MIB_IFROW *)(pInfo->rgbyData); // // // // This can also be accomplished by using the following macro // // // // DEFINE_MIB_BUFFER(pInfo,MIB_IFROW, pIfRow); // // // ////////////////////////////////////////////////////////////////////////////// typedef struct _MIB_OPAQUE_INFO { DWORD dwId; union { ULONGLONG ullAlign; BYTE rgbyData[1]; }; }MIB_OPAQUE_INFO, *PMIB_OPAQUE_INFO; #define MAX_MIB_OFFSET 8 #define MIB_INFO_SIZE(S) \ (MAX_MIB_OFFSET + sizeof(S)) #define MIB_INFO_SIZE_IN_DWORDS(S) \ ((MIB_INFO_SIZE(S))/sizeof(DWORD) + 1) #define DEFINE_MIB_BUFFER(X,Y,Z) \ DWORD __rgdwBuff[MIB_INFO_SIZE_IN_DWORDS(Y)]; \ PMIB_OPAQUE_INFO X = (PMIB_OPAQUE_INFO)__rgdwBuff; \ Y * Z = (Y *)(X->rgbyData) #define CAST_MIB_INFO(X,Y,Z) Z = (Y)(X->rgbyData) #endif //__ROUTING_IPRTRMIB_H__