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IKED.CONF(5) File Formats Manual IKED.CONF(5) NAME iked.conf -- IKEv2 configuration file DESCRIPTION iked.conf is the configuration file for iked(8), the Internet Key Ex- change version 2 (IKEv2) daemon for IPsec. IPsec itself is a pair of protocols: Encapsulating Security Payload (ESP), which provides in- tegrity and confidentiality; and Authentication Header (AH), which pro- vides integrity. The IPsec protocol itself is described in ipsec(4). In its most basic form, a flow is established between hosts and/or net- works, and then Security Associations (SA) are established, which de- tail how the desired protection will be achieved. IPsec uses flows to determine whether to apply security services to an IP packet or not. iked(8) is used to set up flows and establish SAs automatically, by specifying `ikev2' policies in iked.conf (see "AUTOMATIC KEYING POLICIES", below). Alternative methods of setting up flows and SAs are also possible using manual keying or automatic keying using the older ISAKMP/Oakley a.k.a. IKEv1 protocol. Manual keying is not recommended, but can be conve- nient for quick setups and testing. See ipsec.conf(5) and isakmpd(8) for more information about manual keying and ISAKMP support. IKED.CONF FILE FORMAT iked.conf is divided into three main sections: Macros User-defined macros may be defined and used later, simplifying the configuration file. Global Configuration Global settings for iked(8). Automatic Keying Policies Policies to set up IPsec flows and SAs automatically. Lines beginning with `#' and empty lines are regarded as comments, and ignored. Lines may be split using the `\' character. Argument names not beginning with a letter, digit, or underscore must be quoted. Addresses can be specified in CIDR notation (matching netblocks), as symbolic host names, interface names, or interface group names. Additional configuration files can be included with the include key- word, for example: include "/etc/macros.conf" Certain parameters can be expressed as lists, in which case iked(8) generates all the necessary flow combinations. For example: ikev2 esp proto { tcp, udp } \ from 192.168.1.1 to 10.0.0.18 \ peer 192.168.10.1 MACROS Macros can be defined that will later be expanded in context. Macro names must start with a letter, digit, or underscore, and may contain any of those characters. Macro names may not be reserved words (for example flow, from, esp). Macros are not expanded inside quotes. For example: remote_gw = "192.168.3.12" ikev2 esp from 192.168.7.0/24 to 192.168.8.0/24 peer $remote_gw GLOBAL CONFIGURATION Here are the settings that can be set globally: set active Set iked(8) to global active mode. In active mode the per-policy mode setting is respected. iked(8) will initiate policies set to active and wait for incoming requests for policies set to passive. This is the default. set passive Set iked(8) to global passive mode. In passive mode no packets are sent to peers and no connections are initiated by iked(8), even for active policies. This option is used for setups using sasyncd(8) and carp(4) to provide redundancy. iked(8) will run in passive mode until sasyncd has determined that the host is the master and can switch to active mode. set couple Load the negotiated security associations (SAs) and flows into the kernel. This is the default. set decouple Don't load the negotiated SAs and flows from the kernel. This mode is only useful for testing and debugging. set dpd_check_interval time Specify the liveness check interval, in seconds. Setting time to 0 disables DPD. The default value is 60 seconds. set enforcesingleikesa Allow only a single active IKE SA for each dstid. When a new SA with the same dstid is established, it replaces the old SA. set noenforcesingleikesa Don't limit the number of IKE SAs per dstid. This is the de- fault. set fragmentation Enable IKEv2 Message Fragmentation (RFC 7383) support. This al- lows IKEv2 to operate in environments that might block IP frag- ments. set nofragmentation Disables IKEv2 Message Fragmentation support. This is the de- fault. set mobike Enable MOBIKE (RFC 4555) support. This is the default. MOBIKE allows the peer IP address to be changed for IKE and IPsec SAs. Currently iked(8) only supports MOBIKE when acting as a respon- der. set nomobike Disables MOBIKE support. set cert_partial_chain Allow partial certificate chain if at least one certificate is a trusted CA from /etc/iked/ca/. set ocsp URL [tolerate time [maxage time]] Enable OCSP and set the fallback URL of the OCSP responder. This fallback will be used if the trusted CA from /etc/iked/ca/ does not have an OCSP-URL extension. The matching responder certifi- cates have to be placed in /etc/iked/ocsp/responder.crt. The optional tolerate parameter specifies how much the OCSP re- sponse attribute `thisUpdate' may be in the future and how much `nextUpdate' may be in the past, with respect to the local time. The optional maxage parameter specifies how much `thisUpdate' may be in the past. If tolerate is set to 0 then the times are not verified at all. This is the default setting. set vendorid Send OpenIKED Vendor ID payload. This is the default. set novendorid Don't send a Vendor ID payload. user name password iked(8) supports user-based authentication by tunneling the Ex- tensible Authentication Protocol (EAP) over IKEv2. In its most basic form, the users will be authenticated against a local, in- tegrated password database that is configured with the user lines in iked.conf and the name and password arguments. The password has to be specified in plain text which is required to support different challenge-based EAP methods like EAP-MD5 or EAP- MSCHAPv2. AUTOMATIC KEYING POLICIES This section is used to configure policies that will be used by iked(8) to set up flows and SAs automatically. Some examples of setting up au- tomatic keying: # Set up a VPN: # First between the gateway machines 192.168.3.1 and 192.168.3.2 # Second between the networks 10.1.1.0/24 and 10.1.2.0/24 ikev2 esp from 192.168.3.1 to 192.168.3.2 ikev2 esp from 10.1.1.0/24 to 10.1.2.0/24 peer 192.168.3.2 For incoming connections from remote peers, the policies are evaluated in sequential order, from first to last. The last matching policy de- cides what action is taken; if no policy matches the connection, the default action is to ignore the connection attempt or to use the default policy, if set. See the "EXAMPLES" section for a detailed ex- ample of the policy evaluation. The first time an IKEv2 connection matches a policy, an IKE SA is cre- ated; for subsequent packets the connection is identified by the IKEv2 parameters that are stored in the SA without evaluating any policies. After the connection is closed or times out, the IKE SA is automati- cally removed. The commands are as follows: ikev2 [name] The mandatory ikev2 keyword will identify an IKEv2 automatic key- ing policy. name is an optional arbitrary string identifying the policy. The name should only occur once in iked.conf or any in- cluded files. If omitted, a name will be generated automatically for the policy. [eval] The eval option modifies the policy evaluation for this policy. It can be one of quick, skip or default. If a new incoming con- nection matches a policy with the quick option set, that policy is considered the last matching policy, and evaluation of subse- quent policies is skipped. The skip option will disable evalua- tion of this policy for incoming connections. The default option sets the default policy and should only be specified once. [mode] mode specifies the IKEv2 mode to use: one of passive or active. When passive is specified, iked(8) will not immediately start ne- gotiation of this tunnel, but wait for an incoming request from the remote peer. When active is specified, negotiation will be started at once. If omitted, passive mode will be used. [ipcomp] The keyword ipcomp specifies that ipcomp(4), the IP Payload Com- pression protocol, is negotiated in addition to encapsulation. The optional compression is applied before packets are encapsu- lated. IPcomp must be enabled in the kernel: # sysctl net.inet.ipcomp.enable=1 [tmode] tmode describes the encapsulation mode to be used. Possible modes are tunnel and transport; the default is tunnel. [natt] natt forces negotiation of NAT-Traversal after the initial hand- shake. [encap] encap specifies the encapsulation protocol to be used. Possible protocols are esp and ah; the default is esp. [af] This policy only applies to endpoints of the specified address family which can be either inet or inet6. This only matters for IKEv2 endpoints and does not restrict the traffic selectors to negotiate flows with different address families, e.g. IPv6 flows negotiated by IPv4 endpoints. proto protocol proto { protocol ... } The optional proto parameter restricts the flow to a specific IP protocol. Common protocols are icmp(4), tcp(4), and udp(4). For a list of all the protocol name to number mappings used by iked(8), see the file /etc/protocols. Multiple protocol entries can be specified, separated by commas or whitespace, if enclosed in curly brackets: proto { tcp, udp } rdomain number Specify a different routing domain for unencrypted traffic. The resulting IPsec SAs will match outgoing packets in the specified rdomain number and move the encrypted packets to the rdomain the iked(8) instance is running in. Vice versa, incoming ipsec(4) traffic is moved to rdomain number after decryption. from src [port sport] [(srcnat)] to dst [port dport] Specify one or more traffic selectors for this policy which will be used to negotiate the IPsec flows between the IKEv2 peers. During the negotiation, the peers may decide to narrow a flow to a subset of the configured traffic selector networks to match the policies on each side. Each traffic selector will apply for packets with source address src and destination address dst. If the src argument specifies a fictional source ID, the srcnat parameter can be used to specify the actual source address. This can be used in outgoing NAT/BI- NAT scenarios as described below. The keyword any will match any address (i.e. 0.0.0.0/0 and ::/0). If the config address option is specified, the dynamic keyword can be used to create flows from or to the dynamically assigned address. The optional port modifiers restrict the traffic selectors to the specified ports. They are only valid in conjunction with the tcp(4) and udp(4) protocols. Ports can be specified by number or by name. For a list of all port name to number mappings used by ipsecctl(8), see the file /etc/services. local localip peer remote The local parameter specifies the address or FQDN of the local endpoint. Unless the gateway is multi-homed or uses address aliases, this option is generally not needed. The peer parameter specifies the address or FQDN of the remote endpoint. For host-to-host connections where dst is identical to remote, this option is generally not needed as it will be set to dst automatically. If it is not specified or if the keyword any is given, the default peer is used. ikesa auth algorithm enc algorithm prf algorithm group group These parameters define the mode and cryptographic transforms to be used for the IKE SA negotiation, also known as phase 1. The IKE SA will be used to authenticate the machines and to set up an encrypted channel for the IKEv2 protocol. Possible values for auth, enc, prf, group, and the default pro- posals are described below in "CRYPTO TRANSFORMS". If omitted, iked(8) will use the default proposals for the IKEv2 protocol. The keyword ikesa can be used multiple times as a delimiter be- tween IKE SA proposals. The order of the proposals depend on the order in the configuration. The keywords auth, enc, prf and group can be used multiple times within a single proposal to con- figure multiple crypto transforms. childsa auth algorithm enc algorithm group group esn These parameters define the cryptographic transforms to be used for the Child SA negotiation, also known as phase 2. Each Child SA will be used to negotiate the actual IPsec SAs. The initial Child SA is always negotiated with the initial IKEv2 key ex- change; additional Child SAs may be negotiated with additional Child SA key exchanges for an established IKE SA. Possible values for auth, enc, group, esn, and the default pro- posals are described below in "CRYPTO TRANSFORMS". If omitted, iked(8) will use the default proposals for the ESP or AH proto- col. The group option will only be used to enable Perfect Forward Se- crecy (PFS) for additional Child SAs exchanges that are not part of the initial key exchange. The keyword childsa can be used multiple times as a delimiter be- tween Child SA proposals. The order of the proposals depend on the order in the configuration. The keywords auth, enc and group can be used multiple times within a single proposal to configure multiple crypto transforms. srcid string dstid string srcid defines an ID of type "FQDN", "ASN1_DN", "IPV4", "IPV6", or "UFQDN" that will be used by iked(8) as the identity of the local peer. If the argument is an email address (reyk@example.com), iked(8) will use UFQDN as the ID type. The ASN1_DN type will be used if the string starts with a slash `/' (/C=DE/../CN=10.0.0.1/emailAddress=reyk@example.com). If the ar- gument is an IPv4 address or a compressed IPv6 address, the ID types IPV4 or IPV6 will be used. Anything else is considered to be an FQDN. If srcid is omitted, the default is to use the hostname of the local machine, see hostname(1) to set or print the hostname. dstid is similar to srcid, but instead specifies the ID to be used by the remote peer. ikelifetime time The optional ikelifetime parameter defines the IKE SA expiration timeout by the time SA was created. A zero value disables active IKE SA rekeying. This is the default. The accepted format of the time specification is described below. lifetime time [bytes bytes] The optional lifetime parameter defines the Child SA expiration timeout by the time SA was in use and by the number of bytes that were processed using the SA. Default values are 3 hours and 4 gigabytes which means that SA will be rekeyed before reaching the time limit or 4 gigabytes of data will pass through. Zero values disable rekeying. Several unit specifiers are recognized (ignoring case): `m' and `h' for minutes and hours, and `K', `M' and `G' for kilo-, mega- and gigabytes accordingly. Rekeying must happen at least several times a day as IPsec secu- rity heavily depends on frequent key renewals. [ikeauth] Specify a method to be used to authenticate the remote peer. iked(8) will automatically determine a method based on public keys or certificates configured for the peer. ikeauth can be used to override this behaviour. Non-psk modes will require set- ting up certificates and RSA or ECDSA public keys; see iked(8) for more information. eap type Use EAP to authenticate the initiator. The only supported EAP type is currently MSCHAP-V2. The responder will use RSA public key authentication. ecdsa256 Use ECDSA with a 256-bit elliptic curve key and SHA2-256 for authentication. ecdsa384 Use ECDSA with a 384-bit elliptic curve key and SHA2-384 for authentication. ecdsa521 Use ECDSA with a 521-bit elliptic curve key and SHA2-512 for authentication. psk string Use a pre-shared key string or hex value (starting with 0x) for authentication. psk file path Use a pre-shared hex key (without leading 0x) read from path for authentication. rfc7427 Only use RFC 7427 signatures for authentication. RFC 7427 signatures currently only support SHA2-256 as the hash. rsa Use RSA public key authentication with SHA1 as the hash. The default is to allow any signature authentication. config option address request option address Request or serve one or more optional configuration payloads (CP). The configuration option can be one of the following with the expected address format: address address Assign a static address on the internal network. address address/prefix Assign a dynamic address on the internal network. The address will be assigned from an address pool with the size specified by prefix. netmask netmask The IPv4 netmask of the internal network. name-server address The DNS server address within the internal network. netbios-server address The NetBIOS name server (WINS) within the internal network. This option is provided for compatibility with legacy clients. dhcp-server address The address of an internal DHCP server for further configuration. protected-subnet address/prefix The address of an additional IPv4 or IPv6 subnet reachable over the gateway. This option is used to notify the peer of a subnet behind the gateway (that might require a second SA). Networks speci- fied in this SA's "from" or "to" options do not need to be included. access-server address The address of an internal remote access server. iface interface Enable automatic network configuration as initiator. Received addresses, routes and nameservers will be installed on the speci- fied interface. tag string Add a pf(4) tag to all packets of IPsec SAs created for this con- nection. This will allow matching packets for this connection by defining rules in pf.conf(5) using the tagged keyword. The following variables can be used in tags to include informa- tion from the remote peer on runtime: $id The dstid that was proposed by the remote peer to identify itself. It will be expanded to id-value, e.g. FQDN/foo.example.com. To limit the size of the derived tag, iked(8) will extract the common name `CN=' from ASN1_DN IDs, for example ASN1_ID//C=DE/../CN=10.1.1.1/.. will be expanded to 10.1.1.1. $eapid For a connection using EAP, the identity (user- name) used by the remote peer. $domain Extract the domain from IDs of type FQDN, UFQDN or ASN1_DN. $name The name of the IKEv2 policy that was configured in iked.conf or automatically generated by iked(8). For example, if the ID is FQDN/foo.example.com or UFQDN/user@example.com, "ipsec-$domain" expands to "ipsec-example.com". The variable expansion for the tag direc- tive occurs only at runtime (not when the file is parsed) and must be quoted, or it will be interpreted as a macro. tap interface Send the decapsulated IPsec traffic to the specified enc(4) interface instead of enc0 for filtering and monitoring. The traffic will be blocked if the specified interface does not ex- ist. PACKET FILTERING IPsec traffic appears unencrypted on the enc(4) interface and can be filtered accordingly using the OpenBSD packet filter, pf(4). The gram- mar for the packet filter is described in pf.conf(5). The following components are relevant to filtering IPsec traffic: external interface Interface for IKE traffic and encapsulated IPsec traffic. proto udp port 500 IKE traffic on the external interface. proto udp port 4500 IKE NAT-Traversal traffic on the external interface. proto ah | esp Encapsulated IPsec traffic on the external interface. enc0 Default interface for outgoing traffic before it's been encapsu- lated, and incoming traffic after it's been decapsulated. State on this interface should be interface bound; see enc(4) for fur- ther information. proto ipencap [tunnel mode only] IP-in-IP traffic flowing between gateways on the enc0 interface. tagged ipsec-example.org Match traffic of IPsec SAs using the tag keyword. If the filtering rules specify to block everything by default, the fol- lowing rule would ensure that IPsec traffic never hits the packet fil- tering engine, and is therefore passed: set skip on enc0 In the following example, all traffic is blocked by default. IPsec-re- lated traffic from gateways {192.168.3.1, 192.168.3.2} and networks {10.0.1.0/24, 10.0.2.0/24} is permitted. block on ix0 block on enc0 pass in on ix0 proto udp from 192.168.3.2 to 192.168.3.1 \ port {500, 4500} pass out on ix0 proto udp from 192.168.3.1 to 192.168.3.2 \ port {500, 4500} pass in on ix0 proto esp from 192.168.3.2 to 192.168.3.1 pass out on ix0 proto esp from 192.168.3.1 to 192.168.3.2 pass in on enc0 proto ipencap from 192.168.3.2 to 192.168.3.1 \ keep state (if-bound) pass out on enc0 proto ipencap from 192.168.3.1 to 192.168.3.2 \ keep state (if-bound) pass in on enc0 from 10.0.2.0/24 to 10.0.1.0/24 \ keep state (if-bound) pass out on enc0 from 10.0.1.0/24 to 10.0.2.0/24 \ keep state (if-bound) pf(4) has the ability to filter IPsec-related packets based on an arbi- trary tag specified within a ruleset. The tag is used as an internal marker which can be used to identify the packets later on. This could be helpful, for example, in scenarios where users are connecting in from differing IP addresses, or to support queue-based bandwidth con- trol, since the enc0 interface does not support it. The following pf.conf(5) fragment uses queues for all IPsec traffic with special handling for developers and employees: queue std on ix0 bandwidth 100M queue deflt parent std bandwidth 10M default queue developers parent std bandwidth 75M queue employees parent std bandwidth 5M queue ipsec parent std bandwidth 10M pass out on ix0 proto esp set queue ipsec pass out on ix0 tagged ipsec-developers.example.com \ set queue developers pass out on ix0 tagged ipsec-employees.example.com \ set queue employees The following example assigns the tags in the iked.conf configuration and also sets an alternative enc(4) device: ikev2 esp from 10.1.1.0/24 to 10.1.2.0/24 peer 192.168.3.2 \ tag "ipsec-$domain" tap "enc1" OUTGOING NETWORK ADDRESS TRANSLATION In some network topologies it is desirable to perform NAT on traffic leaving through the VPN tunnel. In order to achieve that, the src ar- gument is used to negotiate the desired network ID with the peer and the srcnat parameter defines the true local subnet, so that a correct SA can be installed on the local side. For example, if the local subnet is 192.168.1.0/24 and all the traffic for a specific VPN peer should appear as coming from 10.10.10.1, the following configuration is used: ikev2 esp from 10.10.10.1 (192.168.1.0/24) to 192.168.2.0/24 \ peer 10.10.20.1 Naturally, a relevant NAT rule is required in pf.conf(5). For the ex- ample above, this would be: match out on enc0 from 192.168.1.0/24 to 192.168.2.0/24 \ nat-to 10.10.10.1 From the peer's point of view, the local end of the VPN tunnel is de- clared to be 10.10.10.1 and all the traffic arrives with that source address. CRYPTO TRANSFORMS The following authentication types are permitted with the auth keyword: Authentication Key Length Truncated Length Default hmac-md5 128 bits 96 bits hmac-sha1 160 bits 96 bits x hmac-sha2-256 256 bits 128 bits x hmac-sha2-384 384 bits 192 bits x hmac-sha2-512 512 bits 256 bits x The following pseudo-random function types are permitted with the prf keyword: PRF Key Length Default hmac-md5 128 bits [IKE only] hmac-sha1 160 bits x [IKE only] hmac-sha2-256 256 bits x [IKE only] hmac-sha2-384 384 bits x [IKE only] hmac-sha2-512 512 bits x [IKE only] The following cipher types are permitted with the enc keyword: Cipher Key Length Default 3des 168 bits x aes-128 128 bits x aes-192 192 bits x aes-256 256 bits x aes-128-ctr 160 bits [ESP only] aes-192-ctr 224 bits [ESP only] aes-256-ctr 288 bits [ESP only] aes-128-gcm 160 bits x aes-192-gcm 224 bits [ESP only] aes-256-gcm 288 bits x aes-128-gcm-12 160 bits [IKE only] aes-256-gcm-12 288 bits [IKE only] blowfish 160 bits [ESP only] cast 128 bits [ESP only] chacha20-poly1305 288 bits [ESP only] The following cipher types provide only authentication, not encryption: aes-128-gmac 160 bits [ESP only] aes-192-gmac 224 bits [ESP only] aes-256-gmac 288 bits [ESP only] null [ESP only] The Extended Sequence Numbers option can be enabled or disabled with the esn or noesn keywords: ESN Default esn x [ESP only] noesn x [ESP only] Transforms followed by [IKE only] can only be used with the ikesa key- word, transforms with [ESP only] can only be used with the childsa key- word. Using AES-GMAC or NULL with ESP will only provide authentication. This is useful in setups where AH cannot be used, e.g. when NAT is involved. The following group types are permitted with the group keyword: Name Group Size Type Default modp768 grp1 768 MODP [insecure] modp1024 grp2 1024 MODP x [weak] modp1536 grp5 1536 MODP x [weak] modp2048 grp14 2048 MODP x modp3072 grp15 3072 MODP x modp4096 grp16 4096 MODP x modp6144 grp17 6144 MODP modp8192 grp18 8192 MODP ecp256 grp19 256 ECP x ecp384 grp20 384 ECP x ecp521 grp21 521 ECP x ecp192 grp25 192 ECP ecp224 grp26 224 ECP brainpool224 grp27 224 ECP brainpool256 grp28 256 ECP brainpool384 grp29 384 ECP brainpool512 grp30 512 ECP curve25519 grp31 256 Curve25519 x sntrup761x25519 1190 B Hybrid PQKE The currently supported group types are either MODP (exponentiation groups modulo a prime), ECP (elliptic curve groups modulo a prime), or Curve25519. MODP groups of less than 2048 bits are considered as weak or insecure (see RFC 8247 section 2.4) and only provided for backwards compatibility. FILES /etc/iked.conf /etc/examples/iked.conf EXAMPLES The first example is intended for a server with clients connecting to iked(8) as an IPsec gateway, or IKEv2 responder, using mutual public key authentication and additional challenge-based EAP-MSCHAPv2 password authentication: user "test" "password123" ikev2 "win7" esp \ from dynamic to 172.16.2.0/24 \ peer 10.0.0.0/8 local 192.168.56.0/24 \ eap "mschap-v2" \ config address 172.16.2.1 \ tag "$name-$id" The next example allows peers to authenticate using a pre-shared key `foobar': ikev2 "big test" \ esp proto tcp \ from 10.0.0.0/8 port 23 to 20.0.0.0/8 port 40 \ from 192.168.1.1 to 192.168.2.2 \ peer any local any \ ikesa \ enc aes-128-gcm \ group ecp256 group curve25519 \ ikesa \ enc aes-128 auth hmac-sha2-256 \ group ecp256 group curve25519 \ childsa enc aes-128-gcm \ childsa enc aes-128 auth hmac-sha2-256 \ srcid host.example.com \ dstid 192.168.0.254 \ psk "foobar" The following example illustrates the last matching policy evaluation for incoming connections on an IKEv2 gateway. The peer 192.168.1.34 will always match the first policy because of the quick keyword; con- nections from the peers 192.168.1.3 and 192.168.1.2 will be matched by one of the last two policies; any other connections from 192.168.1.0/24 will be matched by the `subnet' policy; and any other connection will be matched by the `catch all' policy. ikev2 quick esp from 10.10.10.0/24 to 10.20.20.0/24 \ peer 192.168.1.34 ikev2 "catch all" esp from 10.0.1.0/24 to 10.0.2.0/24 \ peer any ikev2 "subnet" esp from 10.0.3.0/24 to 10.0.4.0/24 \ peer 192.168.1.0/24 ikev2 esp from 10.0.5.0/30 to 10.0.5.4/30 peer 192.168.1.2 ikev2 esp from 10.0.5.8/30 to 10.0.5.12/30 peer 192.168.1.3 This example encrypts a gre(4) tunnel from local machine A (2001:db8::aa:1) to peer D (2001:db8::dd:4) based on FQDN-based public key authentication; transport mode avoids double encapsulation: ikev2 transport \ proto gre \ from 2001:db8::aa:1 to 2001:db8::dd:4 \ peer D.example.com SEE ALSO enc(4), ipsec(4), ipsec.conf(5), pf.conf(5), ikectl(8), iked(8) HISTORY The iked.conf file format first appeared in OpenBSD 4.8. AUTHORS The iked(8) program was written by Reyk Floeter <reyk@openbsd.org>. FreeBSD ports 15.0 November 4, 2024 IKED.CONF(5)
NAME | DESCRIPTION | IKED.CONF FILE FORMAT | MACROS | GLOBAL CONFIGURATION | AUTOMATIC KEYING POLICIES | PACKET FILTERING | OUTGOING NETWORK ADDRESS TRANSLATION | CRYPTO TRANSFORMS | FILES | EXAMPLES | SEE ALSO | HISTORY | AUTHORS
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