#!/usr/bin/perl # # Copyright (C) 1999, 2000, 2001, 2002, 2003, 2004, 2005 Yokogawa Electric Corporation. # All rights reserved. # # Redistribution and use of this software in source and binary # forms, with or without modification, are permitted provided that # the following conditions and disclaimer are agreed and accepted # by the user: # # 1. Redistributions of source code must retain the above copyright # notice, this list of conditions and the following disclaimer. # # 2. 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. # # 3. Neither the names of the copyrighters, the name of the project # which is related to this software (hereinafter referred to as # "project") nor the names of the contributors may be used to # endorse or promote products derived from this software without # specific prior written permission. # # 4. No merchantable use may be permitted without prior written # notification to the copyrighters. # # 5. The copyrighters, the project and the contributors may prohibit # the use of this software at any time. # # THIS SOFTWARE IS PROVIDED BY THE COPYRIGHTERS, THE PROJECT AND # CONTRIBUTORS "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING # BUT NOT LIMITED THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS # FOR A PARTICULAR PURPOSE, ARE DISCLAIMED. IN NO EVENT SHALL THE # COPYRIGHTERS, THE PROJECT 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. # # $TAHI: ct/ike/SGW/SG_R_RFC2408_3_6_1_P2_NP_0.seq,v 1.24.2.2 2005/11/22 10:06:07 ozoe Exp $ # $Id: SG_R_RFC2408_3_6_1_P2_NP_0.seq,v 1.24.2.2 2005/11/22 10:06:07 ozoe Exp $ # ###################################################################### BEGIN { } END{ } use V6evalTool; use IKE; use IKE_check; my $IF0 = Link0; my $IF1 = Link1; #====== get sequence arguments ====== foreach (@ARGV) { /^test_type=(\S+)/ && do {$TEST_TYPE=$1; next; }; /^support=(\S+)/ && do {$SUPPORT=$1; next; }; /^app_type=(\S+)/ && do {$IKE::APP_TYPE=$1; next; }; /^test_phase=(\S+)/ && do {$IKE::TEST_PHASE=$1; next; }; ikeExitError("Unknown sequence option '$_'"); } #====== check NUT type ====== ikeCheckNUT(sgw, $TEST_TYPE, $SUPPORT); #====== Test Configuration ====== %ikeConfig = ( 'app_type' => 'ICMP', 'isakmp_src' => "$IKE::IKEAddr{IKE_NUT_NET2_SGW1_ADDR}", 'isakmp_dst' => "$IKE::IKEAddr{IKE_TN_NET3_SGW2_ADDR}", 'isakmp_dport' => '500', 'isakmp_ex_mode' => 'main', 'isakmp_doi' => 'ipsec_doi', 'isakmp_situation' => 'identity_only', 'isakmp_key_id' => "$IKE::IKEAddr{IKE_TN_NET3_SGW2_ADDR}", 'isakmp_key_value' => 'IKE-TEST', 'isakmp_enc_alg' => '3des', 'isakmp_hash_alg' => 'sha1', 'isakmp_auth_method' => 'pre_shared_key', 'isakmp_dh_group' => '2', 'isakmp_lt' => '28800', 'isakmp_lt_unit' => 'seconds', 'isakmp_src_id_type' => 'address', 'isakmp_src_id' => "$IKE::IKEAddr{IKE_NUT_NET2_SGW1_ADDR}", 'isakmp_dst_id_type' => 'address', 'isakmp_dst_id' => "$IKE::IKEAddr{IKE_TN_NET3_SGW2_ADDR}", 'isakmp_num_pro' => '1', 'isakmp_num_trans' => '1', 'ipsec_id_type' => 'address', 'ipsec_dst' => "$IKE::IKEAddr{IKE_NET4_ADDR}", 'ipsec_src' => "$IKE::IKEAddr{IKE_NET0_ADDR}", 'ipsec_dst_id' => "$IKE::IKEAddr{IKE_NET4_ADDR}", 'ipsec_src_id' => "$IKE::IKEAddr{IKE_NET0_ADDR}", 'ipsec_tdst' => "$IKE::IKEAddr{IKE_TN_NET3_SGW2_ADDR}", 'ipsec_tsrc' => "$IKE::IKEAddr{IKE_NUT_NET2_SGW1_ADDR}", 'ipsec_end_dst' => "$IKE::IKEAddr{IKE_TN_NET4_HOST2_ADDR}", 'ipsec_end_src' => "$IKE::IKEAddr{IKE_TN_NET0_HOST1_ADDR}", 'ipsec_send_id' => 'on', 'ipsec_supper' => 'any', 'ipsec_dupper' => 'any', 'ipsec_direction' => 'both', 'ipsec_pfs_group' => 'off', 'ipsec_p_num' => '1', 'ipsec_p1_proto' => 'PROTO_IPSEC_ESP', 'ipsec_p1_t_num' => '1', 'ipsec_p1_t1_enc_alg' => 'ESP_3DES', 'ipsec_p1_t1_auth_mtd' => 'HMAC_SHA', 'ipsec_p1_t1_mode' => 'Tunnel', 'ipsec_p1_t1_lt' => '8', 'ipsec_p1_t1_lt_unit' => 'hour', 'ipsec_p_send_proto' => 'PROTO_IPSEC_ESP', 'ipsec_p_send_trans' => '1', 'ipsec_p_select_alg' => 'ESP_3DES', 'ipsec_p_select_auth_mtd' => 'HMAC_SHA', 'ipsec_p_select_mode' => 'Tunnel', 'ipsec_p_select_lt' => '8', 'ipsec_p_select_lt_unit' => 'hour', ); #====== set TN's cookie ======== my $cookie = GetMD5("$IKE::IKEAddr{IKE_TN_NET3_SGW2_ADDR}"."$ikeConfig{'isakmp_dport'}".time()); $cookie = substr($cookie, 0, 16); my $nonce = '00000000000000000000000000000000'; $ikeConfig{'isakmp_cookie_i'} = $cookie; $ikeConfig{'isakmp_nonce_i'} = $nonce; $ikeConfig{'ipsec_nonce_i'} = '00000000000000000000000000000001'; $ikeConfig{'ipsec_spi_i'} = '0x00001000'; $ikeConfig{'ipsec_message_id'} = '0000ffff'; vLogHTML("CKY-I: $ikeConfig{'isakmp_cookie_i'}
") if $IKE::remote_debug; vLogHTML("Ni-b: $ikeConfig{'isakmp_nonce_i'}
") if $IKE::remote_debug; vLogHTML("pre_shared key: $ikeConfig{'isakmp_key_value'}
") if $IKE::remote_debug; #====== set other date about this test ======== #====== set ISAKMP SA, IPSEC SPD #====== vLogHTML("*** Target IKE initialization phase ***
"); ikeInit(%ikeConfig); #====== set Address of NUT ====== vLogHTML("*** Target initialization phase ***
"); vCapture($IF0); vCapture($IF1); ikeSetAddr($IF0,$IF1,$IKE::address_debug); #====== set ISAKMP SA packet frame, parameter #====== my $cpp = undef; my @ike = (); my %ret = ikePh2PreSeqR($IF0,$cpp,\@ike, \%ikeConfig); #====================================================================== vLogHTML("*** Target testing phase start ***
"); #====================================================================== #------------------------------------------------------------------- vLogHTML("*** Phase-2 1st message send ***
"); #------------------------------------------------------------------- vClear($IF0); vClear($IF1); %ret2 = ikePh2Send1st($IF0, 5, 0, 0, $cpp, \@ike, \%ret, \%ikeConfig); if($ret2{'status'} == $IKE::FAIL) { ikeReset(); exit($V6evalTool::exitFail); } #------------------------------------------------------------------- vLogHTML("*** Phase-2 2nd message recv ***
"); #------------------------------------------------------------------- my @CHECK_FLAG = undef; $CHECK_FLAG[0] = shiftFlag(3); #Transform my $OPTION_FLAG = $IKE_check::optionHash{'none'}; %ret = ikePh2Recv2nd($IF0, 5, 0, 0, $cpp, \@ike, \%ret2, \%ikeConfig,\@CHECK_FLAG,$OPTION_FLAG); if($ret{'status'} == $IKE::FAIL) { ikeReset(); exit($V6evalTool::exitFail); } #------------------------------------------------------------------- vLogHTML("Transform payload Format(Phase II) is correct
"); #------------------------------------------------------------------- #====================================================================== vLogHTML("*** Target test finish ***
"); #====================================================================== vStop($IF0); vStop($IF1); ikeReset(); ikeExitPass(); #NOTREACHED ###################################################################### __END__ =head1 NAME SG_R_RFC2408_3_6_1_P2_NP_0 - [Responder Test] Transform Payload format check(Phase II) =head1 TARGET SGW =head1 SYNOPSIS =begin html 
  SG_R_RFC2408_3_6_1_P2_NP_0.seq [-tooloption ...] -pkt SG_R_RFC2408_3_6_1_P2_NP_0.def -tooloption : v6eval tool option

  See also ike_common.def and ike_ipsec.def and ike_addr.def and ike_pkt_ph1_recv.def and ike_pkt_ph2_recv.def
=end html =head1 INITIALIZATION =begin html
  • Network Topology
    •                                  HOST-2(TN)
                                   |3ffe:501:ffff:104::11
                                   |
Net-v   --+------------------------+-------- 3ffe:501:ffff:104::/64
          |
          |
         SGW-2(TN):initiator
          |3ffe:501:ffff:103::11
          |                     
Net-w   --+--------+------------------------ 3ffe:501:ffff:103::/64
                   |
                   |
                  ROUTER-2(TN)
                   | 3ffe:501:ffff:102::11
                   |
Net-x   --+--------+------------------------ 3ffe:501:ffff:102::/64
          |
          |3ffe:501:ffff:102::1
         SGW-1(NUT):responder
          |3ffe:501:ffff:101::1
          |
Net-y   --+--------+------------------------ 3ffe:501:ffff:101::/64
                   |
                   | 3ffe:501:ffff:101::11
                  ROUTER-1(TN)
                   |
                   |
Net-z   -----------+---------------+-------- 3ffe:501:ffff:100::/64
                                   |
                                   |3ffe:501:ffff:100::13
                                 HOST-1(TN)

  • Verification Points

      • Transform Payload Format
      
       
    • Next Payload field
      • 
       This field MUST only contain the value "3" or "0"
       (In this test, value is 0).
       Place the value of the Next Payload in the Next Payload field.
       
    • RESERVED Fields
      • 
       All RESERVED fields in the ISAKMP protocol MUST be set to zero (0).
       Place the value zero (0) in the RESERVED field.
       
    • Payload Length field
      • 
       Place the length (in octets) of the payload in the Payload Length field.
       
    • Transform Number field
      • 
       Identifies the Transform number for the current payload.
       (In this test, this field is set as "1".) 
	   
    • Transform-ID field
      •  
       All implementations within the IPSEC DOI MUST support KEY_IKE.
       (In this test, this field contain "3"(ESP_3DES))

  • Configuration

      •        
    • Initiator and Responder IKE parameter
      • 
At least, following parameter must be included in proposal.
          
      
          
          
      
            Machine              
            Src              
            Dest              
            Phase I             
            Phase II
          
                   
          
                   
            Ex mode
            Key Value 
            Enc Alg
            Hash Alg           
            Auth Method           
            DH Group           
            PH1 Lt
            IDx
      		
            Proto ID
            Trans ID
            Mode
            Auth Alg
            PH2 Lt
            IDci
            IDcr
            Upper
          
      
          
      
            SGW-1           
            SGW-1 addr           
            SGW-2 addr           
            Main  
            IKE-TEST                               
            3DES           
            SHA           
            pre-shared key           
            2           
            8 Hour           
            SGW-1 addr              
            PROTO_IPSEC_ESP   
            ESP_3DES             
            Tunnel           
            HMAC-SHA  
            8 Hour          
            Net-v addr          
            Net-z addr   
            any           
          
         
          
         
            SGW-2
            SGW-2 addr
            SGW-1 addr
            Main
            IKE-TEST      
            3DES
            SHA
            pre-shared key           
            2           
            8 Hour
            SGW-2 addr    
            PROTO_IPSEC_ESP
            ESP_3DES     
            Tunnel
            HMAC-SHA 
            8 Hour 
            Net-v addr          
            Net-z addr   
            any
          
      
                
        
      
          *Ex Mode = Exchange mode(Aggresive mode can also be chosen as Ex Mode)
          *IDx = identity payload(FQDN or user FQDN  can also be chosen as IDx)
          *IDci = identity payload
          *IDcr = identity payload
          *Enc Alg = IKE Encryption Algorithm
          *Hash Alg = IKE Authentication Algorithm
          *Key Value = pre-shared key value
          *PH1 Lt = Phase-1 Lifetime
          *PH2 Lt = Phase-2 Lifetime
          *Proto ID = Protocol Identifier
          *Trans ID = Transform Identifier
          *Mode = Encapsulation Mode
          *Auth Alg = Authentication Algorithm
          *Auth Method = Authentication Method
          *DH Group = Diffie-Hellman Group
          *Upper = Upper Layer Protocol
          *SGW-1 addr = SGW-1 address
          *SGW-2 addr = SGW-2 address
          *Net-z = Net-z network address
          *Net-v = Net-v network address
=end html =head1 TEST PROCEDURE =begin html 
  This test check is following.


 * PHASE I


Either IDENTITY PROTECTION EXCHANGE or AGGRESSIVE EXCHANGE is performed as a pre sequence.



           IDENTITY PROTECTION EXCHANGE


 #   Initiator(TN)     Direction      Responder(NUT)
(1)  HDR; SA            ========>


(2)                     <========       HDR; SA


(3)  HDR; KE; NONCE     ========>


(4)                     <========     HDR; KE; NONCE


(5)  HDR*; IDii; HASH_I ========>


(6)                     <========     HDR*; IDir; HASH_R


   1. Send the first message from TN
      In the first message (1), the initiator generates a proposal it
      considers adequate to protect traffic for the given situation.  The
      Security Association, Proposal, and Transform payloads are included
      in the Security Association payload (for notation purposes).


   2. Receive the second message from NUT
      In the second message (2), the responder indicates the protection
      suite it has accepted with the Security Association, Proposal, and
      Transform payloads. 


   3. Send the third message from TN
      In the third (3) message, the initiator send keying material 
      used to arrive at a common shared secret and random information 
      which is used to guarantee liveness and protect against replay attacks.


   4. Receive the fourth message from NUT
      In the fourth (4) message, the responder send keying material 
      used to arrive at a common shared secret and random information 
      which is used to guarantee liveness and protect against replay attacks.


   5. Send the fifth message from TN
      In the fifth (5) message, the initiator send identification 
      information and the results of the agreed upon authentication 
      function(hash function). 


   6. Receive the sixth message from NUT
      In the sixth (6) message, the responder send identification 
      information and the results of the agreed upon authentication 
      function(hash function).



                        AGGRESSIVE EXCHANGE


 #     Initiator(TN)   Direction      Responder(NUT)      NOTE
(1)  HDR; SA; KE;      =>                        Begin ISAKMP-SA or
                                                 Proxy negotiation
     NONCE; IDii                                 and Key Exchange


(2)                    <=     HDR; SA; KE;
                              NONCE; IDir; AUTH
                                                 Initiator Identity
                                                 Verified by Responder
                                                 Key Generated
                                                 Basic SA agreed upon


(3)  HDR*; AUTH        =>
                                                 Responder Identity
                                                 Verified by Initiator
                                                 SA established


   1. Send the first message from TN
      In the first message (1), the initiator generates a proposal it
      considers adequate to protect traffic for the given situation.  The
      Security Association, Proposal, and Transform payloads are included
      in the Security Association payload (for notation purposes).  There
      can be only one Proposal and one Transform offered (i.e.  no choices)
      in order for the aggressive exchange to work.  Keying material used
      to arrive at a common shared secret and random information which is
      used to guarantee liveness and protect against replay attacks are
      also transmitted.  Random information provided by both parties SHOULD
      be used by the authentication mechanism to provide shared proof of
      participation in the exchange.  Additionally, the initiator transmits
      identification information.


   2. Recieve the second message from NUT
      In the second message (2), the responder indicates the protection
      suite it has accepted with the Security Association, Proposal, and
      Transform payloads.  Keying material used to arrive at a common
      shared secret and random information which is used to guarantee
      liveness and protect against replay attacks is also transmitted.
      Random information provided by both parties SHOULD be used by the
      authentication mechanism to provide shared proof of participation in
      the exchange.  Additionally, the responder transmits identification
      information.  All of this information is transmitted under the
      protection of the agreed upon authentication function.  Local
      security policy dictates the action of the responder if no proposed
      protection suite is accepted.  One possible action is the
      transmission of a Notify payload as part of an Informational
      Exchange.


   3. Send the third message from TN
      In the third (3) message, the initiator transmits the results of the
      agreed upon authentication function.  This information is transmitted
      under the protection of the common shared secret.  Local security
      policy dictates the action if an error occurs during these messages.
      One possible action is the transmission of a Notify payload as part
      of an Informational Exchange.



  The test sequence is following.


 * PHASE II


                      QUICK MODE


 #   Initiator(TN)     Direction      Responder(NUT)
(1)  HDR*, HASH(1), 
     SA, Ni,IDci, IDcr; ========> 


(2)                     <========     HDR*, HASH(2), SA, Nr, IDci, IDcr;
                Judgement (Check *1)


   1. Send the first message from TN
      In the first message (1), the initiator generates a proposal it
      considers adequate to protect traffic for the given situation.  The
      Security Association, Proposal, and Transform payloads are included
      in the Security Association payload (for notation purposes).
      And initiator send HASH(1) and Nonce. HASH(1) is the prf over the 
      message id (M-ID) from the ISAKMP header concatenated with the entire 
      message that follows the hash including all payload headers, 
      but excluding any padding added for encryption. Nonce is random 
      information which is used to guarantee liveness. IDci and IDcr is
      identification information. 


   2. Receive the second message from NUT
      In the second message (2), the responder indicates the protection
      suite it has accepted with the Security Association, Proposal, and
      Transform payloads. And responder send HASH(2) and Nonce.
      HASH(2) is identical to HASH(1) except the initiator's nonce-- Ni,
      minus the payload header-- is added after M-ID but before the
      complete message. Nonce is random 
      information which is used to guarantee liveness. IDci and IDcr is
      identification information.
=end html =head1 JUDGEMENT In Phase I , messages must be exchanged correctly. In Phase II , the first message must be accepted. And the second message's Transform Payload Format must be base on description of RFC(see above Verification Points). =head1 TERMINATION Clean up SAD and SPD =head1 REFERENCE =begin html 
  RFC2408


  2.5.2 RESERVED Fields


   The existence of RESERVED fields within ISAKMP payloads are used
   strictly to preserve byte alignment.  All RESERVED fields in the
   ISAKMP protocol MUST be set to zero (0) when a packet is issued.  The
   receiver SHOULD check the RESERVED fields for a zero (0) value and
   discard the packet if other values are found.


  (omit)


  3.6 Transform Payload


  (omit)


                          1                   2                   3
      0 1 2 3 4 5 6 7 8 9 0 1 2 3 4 5 6 7 8 9 0 1 2 3 4 5 6 7 8 9 0 1
     +-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+
     ! Next Payload  !   RESERVED    !         Payload Length        !
     +-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+
     !  Transform #  !  Transform-Id !           RESERVED2           !
     +-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+
     !                                                               !
     ~                        SA Attributes                          ~
     !                                                               !
     +-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+

 
  (omit)


    o  Next Payload (1 octet) - Identifier for the payload type of the
       next payload in the message.  This field MUST only contain the
       value "3" or "0".  If there are additional Transform payloads in
       the proposal, then this field will be 3.  If the current
       Transform payload is the last within the proposal, then this
       field will be 0.


    o  RESERVED (1 octet) - Unused, set to 0.


    o  Payload Length (2 octets) - Length in octets of the current
       payload, including the generic payload header, Transform values,
       and all SA Attributes.


    o  Transform # (1 octet) - Identifies the Transform number for the
       current payload.  If there is more than one transform proposed
       for a specific protocol within the Proposal payload, then each
       Transform payload has a unique Transform number.  A description
       of the use of this field is found in section 4.2.


    o  Transform-Id (1 octet) - Specifies the Transform identifier for
       the protocol within the current proposal.  These transforms are
       defined by the DOI and are dependent on the protocol being
       negotiated.


    o  RESERVED2 (2 octets) - Unused, set to 0.


    o  SA Attributes (variable length) - This field contains the
       security association attributes as defined for the transform
       given in the Transform-Id field.  The SA Attributes SHOULD be
       represented using the Data Attributes format described in section
       3.3.  If the SA Attributes are not aligned on 4-byte boundaries,
       then subsequent payloads will not be aligned and any padding will
       be added at the end of the message to make the message 4-octet
       aligned.


  (omit)


  5.3 Generic Payload Header Processing


   When creating any of the ISAKMP Payloads described in sections 3.4
   through 3.15 a Generic Payload Header is placed at the beginning of
   these payloads.  When creating the Generic Payload Header, the
   transmitting entity (initiator or responder) MUST do the following:


   1.  Place the value of the Next Payload in the Next Payload field.
       These values are described in section 3.1.


   2.  Place the value zero (0) in the RESERVED field.


   3.  Place the length (in octets) of the payload in the Payload Length
       field.


   4.  Construct the payloads as defined in the remainder of this
       section.


  (omit)


5.6 Transform Payload Processing


   When creating a Transform Payload, the transmitting entity (initiator
   or responder) MUST do the following:


   1.  Determine the Transform # for this transform.


   2.  Determine the number of transforms to be offered for this
       proposal.  Transforms are described in sections 3.6.


   3.  Construct a Transform payload.


  (omit)
=end html =head1 SEE ALSO perldoc V6evalTool =begin html 
  IKE.html IKE Test Common Utility
=end html =cut