// -*- c-basic-offset: 4; tab-width: 8; indent-tabs-mode: t -*- // Copyright (c) 2001-2009 XORP, Inc. // // This program is free software; you can redistribute it and/or modify // it under the terms of the GNU General Public License, Version 2, June // 1991 as published by the Free Software Foundation. Redistribution // and/or modification of this program under the terms of any other // version of the GNU General Public License is not permitted. // // This program is distributed in the hope that it will be useful, but // WITHOUT ANY WARRANTY; without even the implied warranty of // MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. For more details, // see the GNU General Public License, Version 2, a copy of which can be // found in the XORP LICENSE.gpl file. // // XORP Inc, 2953 Bunker Hill Lane, Suite 204, Santa Clara, CA 95054, USA; // http://xorp.net // $XORP: xorp/pim/pim_vif.hh,v 1.49 2009/01/05 18:31:03 jtc Exp $ #ifndef __PIM_PIM_VIF_HH__ #define __PIM_PIM_VIF_HH__ // // PIM virtual interface definition. // #include <list> #include "libxorp/config_param.hh" #include "libxorp/vif.hh" #include "libxorp/timer.hh" #include "libproto/proto_unit.hh" #include "mrt/buffer.h" #include "mrt/mifset.hh" #include "mrt/multicast_defs.h" #include "pim_nbr.hh" #include "pim_proto_join_prune_message.hh" // // Constants definitions // // // Structures/classes, typedefs and macros // class AssertMetric; class BsrZone; class PimJpGroup; class PimJpHeader; class PimNbr; class PimNode; /** * @short A class for PIM-specific virtual interface. */ class PimVif : public ProtoUnit, public Vif { public: /** * Constructor for a given PIM node and a generic virtual interface. * * @param pim_node the @ref PimNode this interface belongs to. * @param vif the generic Vif interface that contains various information. */ PimVif(PimNode& pim_node, const Vif& vif); /** * Destructor */ virtual ~PimVif(); /** * Set configuration to default values. */ void set_default_config(); /** * Set the current protocol version. * * The protocol version must be in the interval * [PIM_VERSION_MIN, PIM_VERSION_MAX]. * * @param proto_version the protocol version to set. * @return XORP_OK on success, otherwise XORP_ERROR. */ int set_proto_version(int proto_version); /** * Start PIM on a single virtual interface. * * @param error_msg the error message (if error). * @return XORP_OK on success, otherwise XORP_ERROR. */ int start(string& error_msg); /** * Gracefully stop PIM on a single virtual interface. * *The graceful stop will attempt to send Join/Prune, Assert, etc. * messages for all multicast routing entries to gracefully clean-up * state with neighbors. * After the multicast routing entries cleanup is completed, * PimVif::final_stop() is called to complete the job. * * @param error_msg the error message (if error). * @return XORP_OK on success, otherwise XORP_ERROR. */ int stop(string& error_msg); /** * Completely stop PIM on a single virtual interface. * * This method should be called after @ref PimVif::stop() to complete * the job. * * @param error_msg the error message (if error). * @return XORP_OK on success, otherwise XORP_ERROR. */ int final_stop(string& error_msg); /** * Enable PIM on a single virtual interface. * * If an unit is not enabled, it cannot be start, or pending-start. */ void enable(); /** * Disable PIM on a single virtual interface. * * If an unit is disabled, it cannot be start or pending-start. * If the unit was runnning, it will be stop first. */ void disable(); /** * Receive a protocol message. * * @param src the source address of the message. * @param dst the destination address of the message. * @param buffer the data buffer with the received message. * @return XORP_OK on success, otherwise XORP_ERROR. */ int pim_recv(const IPvX& src, const IPvX& dst, buffer_t *buffer); /** * Get the string with the flags about the vif status. * * TODO: temporary here. Should go to the Vif class after the Vif * class starts using the Proto class. * * @return the C++ style string with the flags about the vif status * (e.g., UP/DOWN/DISABLED, etc). */ string flags_string() const; /** * Get the PIM node (@ref PimNode). * * @return a reference to the PIM node (@ref PimNode). */ PimNode& pim_node() const { return (_pim_node); } /** * Get the PIM Multicast Routing Table (@ref PimMrt). * * @return a reference to the PIM Multicast Routing Table (@ref PimMrt). */ PimMrt& pim_mrt() const; /** * Get the PIM neighbor information (@ref PimNbr) about myself. * * @return a reference to the PIM neighbor information (@ref PimNbr) * about myself. */ PimNbr& pim_nbr_me() { return (_pim_nbr_me); } /** * Start the PIM Hello operation. */ void pim_hello_start(); /** * Stop the PIM Hello operation. */ void pim_hello_stop(); /** * Elect a Designated Router on this interface. */ void pim_dr_elect(); /** * Compute if I may become the Designated Router on this interface * if one of the PIM neighbor addresses is not considered. * * Compute if I may become the DR on this interface if @ref exclude_addr * is excluded. * * @param exclude_addr the address to exclude in the computation. * @return true if I may become the DR on this interface, otherwise * false. */ bool i_may_become_dr(const IPvX& exclude_addr); /** * Get my primary address on this interface. * * @return my primary address on this interface. */ const IPvX& primary_addr() const { return (_pim_nbr_me.primary_addr()); } /** * Get my domain-wide reachable address on this interface. * * @return my domain-wide reachable address on this interface. */ const IPvX& domain_wide_addr() const { return (_domain_wide_addr); } /** * Set my domain-wide reachable address on this interface. * * @param v the value of the domain-wide reachable address. */ void set_domain_wide_addr(const IPvX& v) { _domain_wide_addr = v; } /** * Update the primary and the domain-wide reachable addresses. * * The primary address should be a link-local unicast address, and * is used for transmitting the multicast control packets on the LAN. * The domain-wide reachable address is the address that should be * reachable by all PIM-SM routers in the domain * (e.g., the Cand-BSR, or the Cand-RP address). * * @param error_msg the error message (if error). * @return XORP_OK on success, otherwise XORP_ERROR. */ int update_primary_and_domain_wide_address(string& error_msg); /** * Get the address of the Designated Router on this interface. * * @return the address of the Designated Router on this interface. */ const IPvX& dr_addr() const { return (_dr_addr); } // // Hello-related configuration parameters // ConfigParam<uint16_t>& hello_triggered_delay() { return (_hello_triggered_delay); } ConfigParam<uint16_t>& hello_period() { return (_hello_period); } ConfigParam<uint16_t>& hello_holdtime() { return (_hello_holdtime); } ConfigParam<uint32_t>& dr_priority() { return (_dr_priority); } ConfigParam<uint16_t>& propagation_delay() { return (_propagation_delay); } ConfigParam<uint16_t>& override_interval() { return (_override_interval); } ConfigParam<bool>& is_tracking_support_disabled() { return (_is_tracking_support_disabled); } ConfigParam<bool>& accept_nohello_neighbors() { return (_accept_nohello_neighbors); } // // Hello-related non-configurable parameters // ConfigParam<uint32_t>& genid() { return (_genid); } // // Join/Prune-related configuration parameters // ConfigParam<uint16_t>& join_prune_period() { return (_join_prune_period); } ConfigParam<uint16_t>& join_prune_holdtime() { return (_join_prune_holdtime); } // // Assert-related configuration parameters // ConfigParam<uint32_t>& assert_time() { return (_assert_time); } ConfigParam<uint32_t>& assert_override_interval() { return (_assert_override_interval); } // // Functions for sending protocol messages. // int pim_send(const IPvX& src, const IPvX& dst, uint8_t message_type, buffer_t *buffer, string& error_msg); int pim_hello_send(string& error_msg); int pim_hello_first_send(); int pim_join_prune_send(PimNbr *pim_nbr, PimJpHeader *jp_header, string& error_msg); int pim_assert_mre_send(PimMre *pim_mre, const IPvX& assert_source_addr, string& error_msg); int pim_assert_cancel_send(PimMre *pim_mre, string& error_msg); int pim_assert_send(const IPvX& assert_source_addr, const IPvX& assert_group_addr, bool rpt_bit, uint32_t metric_preference, uint32_t metric, string& error_msg); int pim_register_send(const IPvX& rp_addr, const IPvX& source_addr, const IPvX& group_addr, const uint8_t *rcvbuf, size_t rcvlen, string& error_msg); int pim_register_null_send(const IPvX& rp_addr, const IPvX& source_addr, const IPvX& group_addr, string& error_msg); int pim_register_stop_send(const IPvX& dr_addr, const IPvX& source_addr, const IPvX& group_addr, string& error_msg); int pim_bootstrap_send(const IPvX& dst_addr, const BsrZone& bsr_zone, string& error_msg); buffer_t *pim_bootstrap_send_prepare(const IPvX& src_addr, const IPvX& dst_addr, const BsrZone& bsr_zone, bool is_first_fragment); int pim_cand_rp_adv_send(const IPvX& bsr_addr, const BsrZone& bsr_zone); void hello_timer_start(uint32_t sec, uint32_t usec); void hello_timer_start_random(uint32_t sec, uint32_t usec); bool is_lan_delay_enabled() const; // Link-related time intervals const TimeVal& effective_propagation_delay() const; const TimeVal& effective_override_interval() const; bool is_lan_suppression_state_enabled() const; const TimeVal& upstream_join_timer_t_suppressed() const; const TimeVal& upstream_join_timer_t_override() const; // Misc. functions const TimeVal& jp_override_interval() const; list<PimNbr *>& pim_nbrs() { return (_pim_nbrs); } size_t pim_nbrs_number() const { return (_pim_nbrs.size()); } bool i_am_dr() const; void set_i_am_dr(bool v); PimNbr *pim_nbr_find(const IPvX& nbr_addr); void add_pim_nbr(PimNbr *pim_nbr); int delete_pim_nbr(PimNbr *pim_nbr); void delete_pim_nbr_from_nbr_list(PimNbr *pim_nbr); const list<IPvXNet>& alternative_subnet_list() const { return _alternative_subnet_list; } void add_alternative_subnet(const IPvXNet& subnet); void delete_alternative_subnet(const IPvXNet& subnet); void remove_all_alternative_subnets(); // Usage-related functions size_t usage_by_pim_mre_task() const { return (_usage_by_pim_mre_task); } void incr_usage_by_pim_mre_task(); void decr_usage_by_pim_mre_task(); /** * Calculate the checksum of an IPv6 "pseudo-header" as described * in RFC 2460. * * @param src the source address of the pseudo-header. * @param dst the destination address of the pseudo-header. * @param len the upper-layer packet length of the pseudo-header * (in host-order). * @param protocol the upper-layer protocol number. * @return the checksum of the IPv6 "pseudo-header". */ uint16_t calculate_ipv6_pseudo_header_checksum(const IPvX& src, const IPvX& dst, size_t len, uint8_t protocol); buffer_t *buffer_send_prepare(); buffer_t *buffer_send_prepare(buffer_t *buffer); // // Statistics-related counters and values // void clear_pim_statistics(); // uint32_t pimstat_hello_messages_received() const { return _pimstat_hello_messages_received.get(); } uint32_t pimstat_hello_messages_sent() const { return _pimstat_hello_messages_sent.get(); } uint32_t pimstat_hello_messages_rx_errors() const { return _pimstat_hello_messages_rx_errors.get(); } uint32_t pimstat_register_messages_received() const { return _pimstat_register_messages_received.get(); } uint32_t pimstat_register_messages_sent() const { return _pimstat_register_messages_sent.get(); } uint32_t pimstat_register_messages_rx_errors() const { return _pimstat_register_messages_rx_errors.get(); } uint32_t pimstat_register_stop_messages_received() const { return _pimstat_register_stop_messages_received.get(); } uint32_t pimstat_register_stop_messages_sent() const { return _pimstat_register_stop_messages_sent.get(); } uint32_t pimstat_register_stop_messages_rx_errors() const { return _pimstat_register_stop_messages_rx_errors.get(); } uint32_t pimstat_join_prune_messages_received() const { return _pimstat_join_prune_messages_received.get(); } uint32_t pimstat_join_prune_messages_sent() const { return _pimstat_join_prune_messages_sent.get(); } uint32_t pimstat_join_prune_messages_rx_errors() const { return _pimstat_join_prune_messages_rx_errors.get(); } uint32_t pimstat_bootstrap_messages_received() const { return _pimstat_bootstrap_messages_received.get(); } uint32_t pimstat_bootstrap_messages_sent() const { return _pimstat_bootstrap_messages_sent.get(); } uint32_t pimstat_bootstrap_messages_rx_errors() const { return _pimstat_bootstrap_messages_rx_errors.get(); } uint32_t pimstat_assert_messages_received() const { return _pimstat_assert_messages_received.get(); } uint32_t pimstat_assert_messages_sent() const { return _pimstat_assert_messages_sent.get(); } uint32_t pimstat_assert_messages_rx_errors() const { return _pimstat_assert_messages_rx_errors.get(); } uint32_t pimstat_graft_messages_received() const { return _pimstat_graft_messages_received.get(); } uint32_t pimstat_graft_messages_sent() const { return _pimstat_graft_messages_sent.get(); } uint32_t pimstat_graft_messages_rx_errors() const { return _pimstat_graft_messages_rx_errors.get(); } uint32_t pimstat_graft_ack_messages_received() const { return _pimstat_graft_ack_messages_received.get(); } uint32_t pimstat_graft_ack_messages_sent() const { return _pimstat_graft_ack_messages_sent.get(); } uint32_t pimstat_graft_ack_messages_rx_errors() const { return _pimstat_graft_ack_messages_rx_errors.get(); } uint32_t pimstat_candidate_rp_messages_received() const { return _pimstat_candidate_rp_messages_received.get(); } uint32_t pimstat_candidate_rp_messages_sent() const { return _pimstat_candidate_rp_messages_sent.get(); } uint32_t pimstat_candidate_rp_messages_rx_errors() const { return _pimstat_candidate_rp_messages_rx_errors.get(); } // uint32_t pimstat_unknown_type_messages() const { return _pimstat_unknown_type_messages.get(); } uint32_t pimstat_unknown_version_messages() const { return _pimstat_unknown_version_messages.get(); } uint32_t pimstat_neighbor_unknown_messages() const { return _pimstat_neighbor_unknown_messages.get(); } uint32_t pimstat_bad_length_messages() const { return _pimstat_bad_length_messages.get(); } uint32_t pimstat_bad_checksum_messages() const { return _pimstat_bad_checksum_messages.get(); } uint32_t pimstat_bad_receive_interface_messages() const { return _pimstat_bad_receive_interface_messages.get(); } uint32_t pimstat_rx_interface_disabled_messages() const { return _pimstat_rx_interface_disabled_messages.get(); } uint32_t pimstat_rx_register_not_rp() const { return _pimstat_rx_register_not_rp.get(); } uint32_t pimstat_rp_filtered_source() const { return _pimstat_rp_filtered_source.get(); } uint32_t pimstat_unknown_register_stop() const { return _pimstat_unknown_register_stop.get(); } uint32_t pimstat_rx_join_prune_no_state() const { return _pimstat_rx_join_prune_no_state.get(); } uint32_t pimstat_rx_graft_graft_ack_no_state() const { return _pimstat_rx_graft_graft_ack_no_state.get(); } uint32_t pimstat_rx_graft_on_upstream_interface() const { return _pimstat_rx_graft_on_upstream_interface.get(); } uint32_t pimstat_rx_candidate_rp_not_bsr() const { return _pimstat_rx_candidate_rp_not_bsr.get(); } uint32_t pimstat_rx_bsr_when_bsr() const { return _pimstat_rx_bsr_when_bsr.get(); } uint32_t pimstat_rx_bsr_not_rpf_interface() const { return _pimstat_rx_bsr_not_rpf_interface.get(); } uint32_t pimstat_rx_unknown_hello_option() const { return _pimstat_rx_unknown_hello_option.get(); } uint32_t pimstat_rx_data_no_state() const { return _pimstat_rx_data_no_state.get(); } uint32_t pimstat_rx_rp_no_state() const { return _pimstat_rx_rp_no_state.get(); } uint32_t pimstat_rx_aggregate() const { return _pimstat_rx_aggregate.get(); } uint32_t pimstat_rx_malformed_packet() const { return _pimstat_rx_malformed_packet.get(); } uint32_t pimstat_no_rp() const { return _pimstat_no_rp.get(); } uint32_t pimstat_no_route_upstream() const { return _pimstat_no_route_upstream.get(); } uint32_t pimstat_rp_mismatch() const { return _pimstat_rp_mismatch.get(); } uint32_t pimstat_rpf_neighbor_unknown() const { return _pimstat_rpf_neighbor_unknown.get(); } // uint32_t pimstat_rx_join_rp() const { return _pimstat_rx_join_rp.get(); } uint32_t pimstat_rx_prune_rp() const { return _pimstat_rx_prune_rp.get(); } uint32_t pimstat_rx_join_wc() const { return _pimstat_rx_join_wc.get(); } uint32_t pimstat_rx_prune_wc() const { return _pimstat_rx_prune_wc.get(); } uint32_t pimstat_rx_join_sg() const { return _pimstat_rx_join_sg.get(); } uint32_t pimstat_rx_prune_sg() const { return _pimstat_rx_prune_sg.get(); } uint32_t pimstat_rx_join_sg_rpt() const { return _pimstat_rx_join_sg_rpt.get(); } uint32_t pimstat_rx_prune_sg_rpt() const { return _pimstat_rx_prune_sg_rpt.get(); } private: // Private functions void hello_timer_timeout(); void hello_once_timer_timeout(); // // Callbacks for configuration and non-configurable parameters // void set_hello_period_callback(uint16_t v) { uint16_t old_hello_holdtime_divided = (uint16_t) (_hello_holdtime.get() / PIM_HELLO_HELLO_HOLDTIME_PERIOD_RATIO); if (v != old_hello_holdtime_divided) _hello_holdtime.set( (uint16_t)(v * PIM_HELLO_HELLO_HOLDTIME_PERIOD_RATIO)); _pim_nbr_me.set_hello_holdtime(_hello_holdtime.get()); } void set_hello_holdtime_callback(uint16_t v) { uint16_t new_hello_period = (uint16_t)(v / PIM_HELLO_HELLO_HOLDTIME_PERIOD_RATIO); if (_hello_period.get() != new_hello_period) _hello_period.set(new_hello_period); _pim_nbr_me.set_hello_holdtime(_hello_holdtime.get()); } void set_dr_priority_callback(uint32_t v) { _pim_nbr_me.set_dr_priority(v); _pim_nbr_me.set_is_dr_priority_present(true); } void set_propagation_delay_callback(uint16_t v) { _pim_nbr_me.set_propagation_delay(v); _pim_nbr_me.set_is_lan_prune_delay_present(true); } void set_override_interval_callback(uint16_t v) { _pim_nbr_me.set_override_interval(v); _pim_nbr_me.set_is_lan_prune_delay_present(true); } void set_is_tracking_support_disabled_callback(bool v) { _pim_nbr_me.set_is_tracking_support_disabled(v); } void set_genid_callback(uint32_t v) { _pim_nbr_me.set_genid(v); _pim_nbr_me.set_is_genid_present(true); } void set_join_prune_period_callback(uint16_t v) { _join_prune_holdtime.set( (uint16_t)(v * PIM_JOIN_PRUNE_HOLDTIME_PERIOD_RATIO)); } int jp_entry_add(const IPvX& source_addr, const IPvX& group_addr, mrt_entry_type_t mrt_entry_type, action_jp_t action_jp, uint16_t holdtime); int jp_entry_flush(); bool is_send_unicast_bootstrap() const { return (! _send_unicast_bootstrap_nbr_list.empty()); } void add_send_unicast_bootstrap_nbr(const IPvX& nbr_addr) { _send_unicast_bootstrap_nbr_list.push_back(nbr_addr); } const list<IPvX>& send_unicast_bootstrap_nbr_list() const { return (_send_unicast_bootstrap_nbr_list); } void delete_send_unicast_bootstrap_nbr_list() { _send_unicast_bootstrap_nbr_list.clear(); } bool should_send_pim_hello() const { return (_should_send_pim_hello); } void set_should_send_pim_hello(bool v) { _should_send_pim_hello = v; } // Private state PimNode& _pim_node; // The PIM node I belong to buffer_t *_buffer_send; // Buffer for sending messages buffer_t *_buffer_send_hello; // Buffer for sending Hello messages buffer_t *_buffer_send_bootstrap;// Buffer for sending Bootstrap msgs enum { PIM_VIF_DR = 1 << 0 // I am the Designated Router }; uint32_t _proto_flags; // Various flags (PIM_VIF_*) IPvX _dr_addr; // IP address of the current DR XorpTimer _hello_timer; // Timer to send a HELLO message XorpTimer _hello_once_timer; // Timer to send once a HELLO message list<PimNbr *> _pim_nbrs; // List of all PIM neighbors PimNbr _pim_nbr_me; // Myself (for misc. purpose) IPvX _domain_wide_addr; // The domain-wide reachable address on // this vif list<IPvX> _send_unicast_bootstrap_nbr_list; // List of new nbrs to // unicast to them the // Bootstrap message. // The alternative subnets on a vif. Used to make incoming traffic with a // non-local source address to appear as it is coming from a local subnet. list<IPvXNet> _alternative_subnet_list; // // Misc configuration parameters // // // Hello-related configuration parameters // ConfigParam<uint16_t> _hello_triggered_delay; // The Triggered_Hello_Delay ConfigParam<uint16_t> _hello_period; // The Hello_Period ConfigParam<uint16_t> _hello_holdtime; // The Hello_Holdtime ConfigParam<uint32_t> _dr_priority; // The DR Priority ConfigParam<uint16_t> _propagation_delay; // The Propagation_Delay ConfigParam<uint16_t> _override_interval; // The Override_Interval ConfigParam<bool> _is_tracking_support_disabled; // The T-bit ConfigParam<bool> _accept_nohello_neighbors; // If true, accept // neighbors that didn't send // a Hello message first // // Hello-related non-configurable parameters // ConfigParam<uint32_t> _genid; // The Generation ID // // Join/Prune-related configuration parameters // ConfigParam<uint16_t> _join_prune_period; // The period between J/P msgs ConfigParam<uint16_t> _join_prune_holdtime; // The holdtime in J/P msgs // // Assert-related configuration parameters // ConfigParam<uint32_t> _assert_time; // The Assert_Time ConfigParam<uint32_t> _assert_override_interval; // The Assert_Override_Interval bool _should_send_pim_hello; // True if PIM_HELLO should be sent // before any other control messages // // Statistics-related counters and values // ConfigParam<uint32_t> _pimstat_hello_messages_received; ConfigParam<uint32_t> _pimstat_hello_messages_sent; ConfigParam<uint32_t> _pimstat_hello_messages_rx_errors; ConfigParam<uint32_t> _pimstat_register_messages_received; ConfigParam<uint32_t> _pimstat_register_messages_sent; ConfigParam<uint32_t> _pimstat_register_messages_rx_errors; ConfigParam<uint32_t> _pimstat_register_stop_messages_received; ConfigParam<uint32_t> _pimstat_register_stop_messages_sent; ConfigParam<uint32_t> _pimstat_register_stop_messages_rx_errors; ConfigParam<uint32_t> _pimstat_join_prune_messages_received; ConfigParam<uint32_t> _pimstat_join_prune_messages_sent; ConfigParam<uint32_t> _pimstat_join_prune_messages_rx_errors; ConfigParam<uint32_t> _pimstat_bootstrap_messages_received; ConfigParam<uint32_t> _pimstat_bootstrap_messages_sent; ConfigParam<uint32_t> _pimstat_bootstrap_messages_rx_errors; ConfigParam<uint32_t> _pimstat_assert_messages_received; ConfigParam<uint32_t> _pimstat_assert_messages_sent; ConfigParam<uint32_t> _pimstat_assert_messages_rx_errors; ConfigParam<uint32_t> _pimstat_graft_messages_received; ConfigParam<uint32_t> _pimstat_graft_messages_sent; ConfigParam<uint32_t> _pimstat_graft_messages_rx_errors; ConfigParam<uint32_t> _pimstat_graft_ack_messages_received; ConfigParam<uint32_t> _pimstat_graft_ack_messages_sent; ConfigParam<uint32_t> _pimstat_graft_ack_messages_rx_errors; ConfigParam<uint32_t> _pimstat_candidate_rp_messages_received; ConfigParam<uint32_t> _pimstat_candidate_rp_messages_sent; ConfigParam<uint32_t> _pimstat_candidate_rp_messages_rx_errors; // ConfigParam<uint32_t> _pimstat_unknown_type_messages; ConfigParam<uint32_t> _pimstat_unknown_version_messages; ConfigParam<uint32_t> _pimstat_neighbor_unknown_messages; ConfigParam<uint32_t> _pimstat_bad_length_messages; ConfigParam<uint32_t> _pimstat_bad_checksum_messages; ConfigParam<uint32_t> _pimstat_bad_receive_interface_messages; // XXX: unused ConfigParam<uint32_t> _pimstat_rx_interface_disabled_messages; ConfigParam<uint32_t> _pimstat_rx_register_not_rp; ConfigParam<uint32_t> _pimstat_rp_filtered_source; // XXX: unused ConfigParam<uint32_t> _pimstat_unknown_register_stop; ConfigParam<uint32_t> _pimstat_rx_join_prune_no_state; // XXX: unused ConfigParam<uint32_t> _pimstat_rx_graft_graft_ack_no_state; // XXX: unused ConfigParam<uint32_t> _pimstat_rx_graft_on_upstream_interface; // XXX: unused ConfigParam<uint32_t> _pimstat_rx_candidate_rp_not_bsr; ConfigParam<uint32_t> _pimstat_rx_bsr_when_bsr; // XXX: unused ConfigParam<uint32_t> _pimstat_rx_bsr_not_rpf_interface; ConfigParam<uint32_t> _pimstat_rx_unknown_hello_option; ConfigParam<uint32_t> _pimstat_rx_data_no_state; // XXX: unused ConfigParam<uint32_t> _pimstat_rx_rp_no_state; // XXX: unused ConfigParam<uint32_t> _pimstat_rx_aggregate; // XXX: unused ConfigParam<uint32_t> _pimstat_rx_malformed_packet; ConfigParam<uint32_t> _pimstat_no_rp; // XXX: unused ConfigParam<uint32_t> _pimstat_no_route_upstream; // XXX: unused ConfigParam<uint32_t> _pimstat_rp_mismatch; // XXX: unused ConfigParam<uint32_t> _pimstat_rpf_neighbor_unknown; // XXX: unused // ConfigParam<uint32_t> _pimstat_rx_join_rp; ConfigParam<uint32_t> _pimstat_rx_prune_rp; ConfigParam<uint32_t> _pimstat_rx_join_wc; ConfigParam<uint32_t> _pimstat_rx_prune_wc; ConfigParam<uint32_t> _pimstat_rx_join_sg; ConfigParam<uint32_t> _pimstat_rx_prune_sg; ConfigParam<uint32_t> _pimstat_rx_join_sg_rpt; ConfigParam<uint32_t> _pimstat_rx_prune_sg_rpt; size_t _usage_by_pim_mre_task; // Counter for usage by PimMreTask // Not-so handy private functions that should go somewhere else // PIM control messages recv functions int pim_hello_recv(PimNbr *pim_nbr, const IPvX& src, const IPvX& dst, buffer_t *buffer, int nbr_proto_version); int pim_register_recv(PimNbr *pim_nbr, const IPvX& src, const IPvX& dst, buffer_t *buffer); int pim_register_stop_recv(PimNbr *pim_nbr, const IPvX& src, const IPvX& dst, buffer_t *buffer); int pim_join_prune_recv(PimNbr *pim_nbr, const IPvX& src, const IPvX& dst, buffer_t *buffer, uint8_t message_type); int pim_bootstrap_recv(PimNbr *pim_nbr, const IPvX& src, const IPvX& dst, buffer_t *buffer); int pim_assert_recv(PimNbr *pim_nbr, const IPvX& src, const IPvX& dst, buffer_t *buffer); int pim_graft_recv(PimNbr *pim_nbr, const IPvX& src, const IPvX& dst, buffer_t *buffer); int pim_graft_ack_recv(PimNbr *pim_nbr, const IPvX& src, const IPvX& dst, buffer_t *buffer); int pim_cand_rp_adv_recv(PimNbr *pim_nbr, const IPvX& src, const IPvX& dst, buffer_t *buffer); // PIM control messages process functions int pim_process(const IPvX& src, const IPvX& dst, buffer_t *buffer); int pim_assert_process(PimNbr *pim_nbr, const IPvX& src, const IPvX& dst, const IPvX& assert_source_addr, const IPvX& assert_group_addr, uint8_t assert_group_mask_len, AssertMetric *assert_metric); int pim_register_stop_process(const IPvX& rp_addr, const IPvX& source_addr, const IPvX& group_addr, uint8_t group_mask_len); }; // // Global variables // // // Global functions prototypes // #endif // __PIM_PIM_VIF_HH__