Functions common to SIM protocols (EAP-SIM/EAP-AKA/EAP-AKA') More...

#include <assert.h>
#include <freeradius-devel/tls/openssl_user_macros.h>
#include <openssl/evp.h>
#include <freeradius-devel/eap/compose.h>
#include <freeradius-devel/eap/types.h>
#include "id.h"

Include dependency graph for base.h:

This graph shows which files directly or indirectly include this file:

Go to the source code of this file.

Data Structures
struct	fr_aka_sim_attr_flags_t

struct	fr_aka_sim_checkcode_t
	Stores our checkcode state. More...

struct	fr_aka_sim_ctx_t
	Encoder/decoder ctx. More...

struct	fr_aka_sim_keys_t
	Master key state struct for all SIMlike EAP protocols. More...

struct	fr_aka_sim_keys_t.__unnamed33__

union	fr_aka_sim_keys_t.__unnamed33__.__unnamed35__

struct	fr_aka_sim_keys_t.__unnamed33__.__unnamed35__.gsm
	Input to kdf_0_gsm. More...

struct	fr_aka_sim_keys_t.__unnamed33__.__unnamed35__.reauth
	Input/output from kdf__reauth_. More...

struct	fr_aka_sim_keys_t.__unnamed33__.__unnamed35__.umts
	Input to kdf_*_umts. More...

struct	fr_aka_sim_keys_t.__unnamed33__.auc

struct	fr_aka_sim_vector_gsm_t

union	fr_aka_sim_vector_gsm_t.__unnamed29__

union	fr_aka_sim_vector_gsm_t.__unnamed31__

struct	fr_aka_sim_vector_umts_t

Macros
#define	AKA_PRIME_MK_REAUTH_SIZE 80U
	The portion of the MK used for re-auth.

#define	AKA_PRIME_MK_SIZE 208U

#define	AKA_SIM_AUTH_SIZE 16U

#define	AKA_SIM_IV_SIZE 16U
	Length of the IV used when processing AT_ENCR.

#define	AKA_SIM_K_RE_SIZE 32U
	Reauthentication key size.

#define	AKA_SIM_KI_SIZE 16U
	Length of secret data shared between SIM and AuC.

#define	AKA_SIM_MAC_DIGEST_SIZE 16U
	Length of MAC used to prevent packet modification.

#define	AKA_SIM_MAC_SIZE 20U
	Length of MAC used to prevent packet modification.

#define	AKA_SIM_MAX_STRING_LENGTH 1016U
	Maximum size of a SIM/AKA['] string ((4 * 255) - 4).

#define	AKA_SIM_MK_MAX_SIZE 208U
	Master key size, 20 for EAP-SIM/EAP-AKA 208 for EAP-AKA'.

#define	AKA_SIM_MK_SIZE 20U

#define	AKA_SIM_NONCE_S_SIZE 16U
	Length of re-authentication nonce.

#define	AKA_SIM_OP_SIZE 16U
	Length of Operator Algorithm Configuration.

#define	AKA_SIM_OPC_SIZE 16U
	Length of modified Operator Algorithm Configuration.

#define	AKA_SIM_SKIPPABLE_MAX 127U
	The last non-skippable attribute.

#define	AKA_SIM_SQN_AK_SIZE 6U

#define	AKA_SIM_VECTOR_GSM_KC_SIZE 8U
	Length of Kc in GSM triplet.

#define	AKA_SIM_VECTOR_GSM_RAND_SIZE 16U
	Length of RAND in GSM triplet.

#define	AKA_SIM_VECTOR_GSM_SRES_SIZE 4U
	Length of SRES in GSM triplet.

#define	AKA_SIM_VECTOR_UMTS_AK_SIZE 6U

#define	AKA_SIM_VECTOR_UMTS_AUTN_SIZE 16U

#define	AKA_SIM_VECTOR_UMTS_CK_SIZE 16U

#define	AKA_SIM_VECTOR_UMTS_IK_SIZE 16U

#define	AKA_SIM_VECTOR_UMTS_RAND_SIZE 16U

#define	AKA_SIM_VECTOR_UMTS_XRES_MAX_SIZE 16U

#define	EAP_AKA_AUTH_SIZE 16U

#define	EAP_AKA_AUTS_SIZE 14U
	Server sequence number.

#define	EAP_AKA_PRIME_AUTH_SIZE 32U

#define	EAP_AKA_SIM_AUTH_SIZE 16U

#define	EAP_SIM_NONCE_MT_SIZE 16U
	Length of challenge from SIM client.

#define	EAP_SIM_VERSION 1U

Enumerations
enum	fr_aka_sim_attr_flags_encrypt_t : int8_t { AKA_SIM_FLAG_ENCRYPT_INVALID = -1 , AKA_SIM_FLAG_ENCRYPT_NONE = 0 , AKA_SIM_FLAG_ENCRYPT_AES_CBC = 1 }

enum	fr_aka_sim_vector_src_t : uint8_t { AKA_SIM_VECTOR_SRC_AUTO , AKA_SIM_VECTOR_SRC_TRIPLETS , AKA_SIM_VECTOR_SRC_QUINTUPLETS , AKA_SIM_VECTOR_SRC_KI , AKA_SIM_VECTOR_SRC_REAUTH }
	Where to get EAP-SIM vectors from. More...

enum	fr_aka_sim_vector_type_t : uint8_t { AKA_SIM_VECTOR_NONE = 0 , AKA_SIM_VECTOR_GSM , AKA_SIM_VECTOR_UMTS , AKA_SIM_VECTOR_UMTS_REAUTH_KDF_0_REAUTH , AKA_SIM_VECTOR_UMTS_REAUTH_KDF_1_REAUTH }
	The type of auth vector held by a fr_aka_sim_keys_t. More...

Functions
static fr_aka_sim_attr_flags_t const *	fr_aka_sim_attr_flags (fr_dict_attr_t const *da)
	Return AKA/SIM-specific flags for a given attribute.

size_t	fr_aka_sim_attr_len (fr_pair_t const *vp)
	Return the on-the-wire length of an attribute value.

ssize_t	fr_aka_sim_crypto_finalise_checkcode (TALLOC_CTX ctx, uint8_t out, fr_aka_sim_checkcode_t checkcode)
	Write out the final checkcode value.

int	fr_aka_sim_crypto_gsm_kdf_0 (fr_aka_sim_keys_t *keys)
	Key Derivation Function as described in RFC4186 (EAP-SIM) section 7.

int	fr_aka_sim_crypto_init_checkcode (TALLOC_CTX ctx, fr_aka_sim_checkcode_t checkcode, EVP_MD const md)
	Initialise checkcode message digest.

int	fr_aka_sim_crypto_kdf_0_reauth (fr_aka_sim_keys_t *keys)
	Key Derivation Function (Fast-Reauthentication) as described in RFC4186/7 (EAP-SIM/AKA) section 7.

void	fr_aka_sim_crypto_keys_init_kdf_0_reauth (fr_aka_sim_keys_t *keys, uint8_t const mk[static AKA_SIM_MK_SIZE], uint16_t counter)
	Initialise fr_aka_sim_keys_t with EAP-SIM reauthentication data.

void	fr_aka_sim_crypto_keys_init_umts_kdf_1_reauth (fr_aka_sim_keys_t *keys, uint8_t const mk[static AKA_PRIME_MK_REAUTH_SIZE], uint16_t counter)
	Initialise fr_aka_sim_keys_t with EAP-AKA['] reauthentication data.

void	fr_aka_sim_crypto_keys_log (request_t request, fr_aka_sim_keys_t keys)
	Dump the current state of all keys associated with the EAP SIM session.

ssize_t	fr_aka_sim_crypto_sign_packet (uint8_t out[static AKA_SIM_MAC_DIGEST_SIZE], eap_packet_t eap_packet, bool zero_mac, EVP_MD const md, uint8_t const key, size_t const key_len, uint8_t const hmac_extra, size_t const hmac_extra_len)
	Calculate the digest value for a packet.

int	fr_aka_sim_crypto_umts_kdf_0 (fr_aka_sim_keys_t *keys)
	Key Derivation Function as described in RFC4187 (EAP-AKA) section 7.

int	fr_aka_sim_crypto_umts_kdf_1 (fr_aka_sim_keys_t *keys)
	Key Derivation Function as described in RFC 5448 (EAP-AKA') section 3.3.

int	fr_aka_sim_crypto_umts_kdf_1_reauth (fr_aka_sim_keys_t *keys)
	Key Derivation Function (Fast-Reauthentication) as described in RFC 5448 (EAP-AKA') section 3.3.

int	fr_aka_sim_crypto_update_checkcode (fr_aka_sim_checkcode_t checkcode, eap_packet_t eap_packet)
	Digest a packet, updating the checkcode.

int	fr_aka_sim_decode (TALLOC_CTX ctx, fr_pair_list_t out, fr_dict_t const dict, uint8_t const data, size_t data_len, fr_aka_sim_ctx_t *decode_ctx)
	Decode SIM/AKA/AKA' specific packet data.

ssize_t	fr_aka_sim_decode_pair (TALLOC_CTX ctx, fr_pair_list_t out, fr_dict_attr_t const parent, uint8_t const data, size_t data_len, void *decode_ctx)
	Decode SIM/AKA/AKA' attributes.

ssize_t	fr_aka_sim_encode (request_t request, fr_pair_list_t to_encode, void *encode_ctx)

ssize_t	fr_aka_sim_encode_pair (fr_dbuff_t dbuff, fr_dcursor_t cursor, void *encode_ctx)

void	fr_aka_sim_fips186_2prf (uint8_t out[static 160], uint8_t mk[static 20])
	Implement the FIPS-186-2 PRF to derive keying material from the MK.

static fr_aka_sim_attr_flags_encrypt_t	fr_aka_sim_flag_encrypted (fr_dict_attr_t const *da)

void	fr_aka_sim_free (void)

int	fr_aka_sim_init (void)

size_t	fr_aka_sim_octets_prefix_len (fr_dict_attr_t const *da)
	Return the number of bytes before the octets value.

int	fr_aka_sim_umts_resync_from_attrs (uint64_t new_sqn, request_t request, fr_pair_t auts_vp, fr_aka_sim_keys_t keys)
	Perform milenage AUTS validation and resynchronisation.

int	fr_aka_sim_vector_gsm_from_attrs (request_t request, fr_pair_list_t vps, int idx, fr_aka_sim_keys_t keys, fr_aka_sim_vector_src_t src)
	Retrieve GSM triplets from sets of attributes.

int	fr_aka_sim_vector_gsm_umts_kdf_0_reauth_from_attrs (request_t request, fr_pair_list_t vps, fr_aka_sim_keys_t *keys)
	Populate a fr_aka_sim_keys_t structure from attributes in the session-state list.

int	fr_aka_sim_vector_umts_ck_ik_prime_from_attrs (request_t request, fr_pair_t ck_prime_vp, fr_pair_t ik_prime_vp, fr_aka_sim_keys_t keys)
	Validate and copy pre-derived CK'/IK' for EAP-AKA' from caller-supplied pairs.

int	fr_aka_sim_vector_umts_from_attrs (request_t request, fr_pair_list_t vps, fr_aka_sim_keys_t keys, fr_aka_sim_vector_src_t src)
	Retrieve UMTS quintuplets from sets of attributes.

int	fr_aka_sim_vector_umts_kdf_1_reauth_from_attrs (request_t request, fr_pair_list_t vps, fr_aka_sim_keys_t *keys)
	Populate a fr_aka_sim_keys_t structure from attributes in the session-state list.

void	fr_aka_sim_vector_umts_reauth_clear (fr_aka_sim_keys_t *keys)
	Clear reauth data if reauthentication failed.

int	fr_aka_sim_xlat_func_register (void)

void	fr_aka_sim_xlat_func_unregister (void)

Variables
size_t const	fr_aka_sim_attr_sizes [FR_TYPE_MAX+1][2]
	SIM AT on-the-wire format attribute sizes.

fr_dict_protocol_t	libfreeradius_eap_aka_sim_dict_protocol

Detailed Description

Functions common to SIM protocols (EAP-SIM/EAP-AKA/EAP-AKA')

Id: 2fc9aa3b4d5efb7b968d24918aec27a51fd4a5b7

The development of the EAP/SIM support was funded by Internet Foundation Austria (http://www.nic.at/ipa).

Copyright: 2003 Michael Richardson mcr@s.nosp@m.ande.nosp@m.lman..nosp@m.otta.nosp@m.wa.on.nosp@m..ca; 2003-2016 The FreeRADIUS server project

Definition in file base.h.

Data Structure Documentation

◆ fr_aka_sim_attr_flags_t

struct fr_aka_sim_attr_flags_t

Definition at line 265 of file base.h.

Data Fields
fr_aka_sim_attr_flags_encrypt_t	encrypt	Attribute has a tag and is encrypted.

◆ fr_aka_sim_checkcode_t

struct fr_aka_sim_checkcode_t

Stores our checkcode state.

The checkcode is a hash of all identity packets exchanged up until the challenge is sent.

It allows both parties to verify that they've seen the same sequence of packets.

Definition at line 140 of file base.h.

Data Fields
EVP_MD_CTX *	md_ctx	Context to hold state of digest as we consume packets.

◆ fr_aka_sim_ctx_t

struct fr_aka_sim_ctx_t

Encoder/decoder ctx.

Definition at line 238 of file base.h.

Collaboration diagram for fr_aka_sim_ctx_t:

Data Fields
EVP_MD const *	checkcode_md	HMAC we use for calculating the checkcode.
eap_packet_t *	eap_packet	Needed for validating AT_MAC.
bool	have_iv	Whether we found the IV already.
uint8_t const *	hmac_extra	Extra data for the HMAC function.
size_t	hmac_extra_len
EVP_MD const *	hmac_md	HMAC digest algorithm, usually EVP_sha1().
uint8_t	iv[AKA_SIM_IV_SIZE]	From the current packet.
uint8_t const *	k_aut	The authentication key used for signing.
size_t	k_aut_len
uint8_t const *	k_encr	The encryption key used for encrypting. always 16 bytes.

◆ fr_aka_sim_keys_t

struct fr_aka_sim_keys_t

Master key state struct for all SIMlike EAP protocols.

Definition at line 148 of file base.h.

Data Fields
struct fr_aka_sim_keys_t.__unnamed33__	__unnamed__
bool	ck_ik_prime_provided	CK'/IK' were supplied directly (e.g. by a 3GPP HSS over SWx which already performed the RFC 5448 transform), so the AKA' KDF must not derive them again from CK/IK.
uint8_t	ck_prime[AKA_SIM_VECTOR_UMTS_CK_SIZE]	Derived from CK, for AKA'.
uint8_t	emsk[64]	Derived extended master session key.
uint8_t *	identity	Identity from AT_IDENTITY.
size_t	identity_len	Length of the identity.
uint8_t	ik_prime[AKA_SIM_VECTOR_UMTS_IK_SIZE]	Derived from IK, for AKA'.
uint8_t	k_aut[32]	Derived authentication key.
size_t	k_aut_len	Length of k_aut. 16 for AKA/SIM, 32 for AKA'.
uint8_t	k_encr[16]	Derived encryption key.
uint8_t	k_re[AKA_SIM_K_RE_SIZE]	Derived reauthentication key for AKA'(kdf 1).
uint8_t	mk[AKA_SIM_MK_MAX_SIZE]	Master key from session attributes.
size_t	mk_len
uint8_t	msk[64]	Derived master session key.
uint8_t *	network	Network name (EAP-AKA-Prime only).
size_t	network_len	Length of the network name (EAP-AKA-Prime only).
uint64_t	sqn	Sequence number.

◆ fr_aka_sim_keys_t.unnamed33

struct fr_aka_sim_keys_t.__unnamed33__

Definition at line 160 of file base.h.

Data Fields
union fr_aka_sim_keys_t.__unnamed33__.__unnamed35__	__unnamed__
struct fr_aka_sim_keys_t.__unnamed33__.auc	auc
fr_aka_sim_vector_src_t	vector_src	Where the vector came from.
fr_aka_sim_vector_type_t	vector_type	What type of authentication vector we're using to authenticate the SIM.

◆ fr_aka_sim_keys_t.unnamed33.unnamed35

union fr_aka_sim_keys_t.__unnamed33__.__unnamed35__

Definition at line 164 of file base.h.

Data Fields
struct fr_aka_sim_keys_t.__unnamed33__.__unnamed35__.gsm	gsm	Input to kdf_0_gsm.
struct fr_aka_sim_keys_t.__unnamed33__.__unnamed35__.reauth	reauth	Input/output from kdf__reauth_.
struct fr_aka_sim_keys_t.__unnamed33__.__unnamed35__.umts	umts	Input to kdf_*_umts.

◆ fr_aka_sim_keys_t.unnamed33.unnamed35.gsm

struct fr_aka_sim_keys_t.__unnamed33__.__unnamed35__.gsm

Input to kdf_0_gsm.

Definition at line 167 of file base.h.

Data Fields
uint8_t	nonce_mt[EAP_SIM_NONCE_MT_SIZE]	Nonce provided by the client.
uint32_t	num_vectors	Number of input vectors we're using (2 or 3).
fr_aka_sim_vector_gsm_t	vector[3]	GSM vectors.
uint8_t	version_list[FR_MAX_STRING_LEN]	Version list from negotiation.
uint8_t	version_list_len	Length of version list.
uint8_t	version_select[2]	Version we agreed.

◆ fr_aka_sim_keys_t.unnamed33.unnamed35.reauth

struct fr_aka_sim_keys_t.__unnamed33__.__unnamed35__.reauth

Input/output from kdf_*_reauth_*.

Definition at line 187 of file base.h.

Data Fields
uint16_t	counter	Re-authentication counter.
uint8_t	nonce_s[AKA_SIM_NONCE_S_SIZE]	Re-authentication challenge.
uint8_t	xkey_prime[20]	Derived reauthentication key for AKA (kdf 0).

◆ fr_aka_sim_keys_t.unnamed33.unnamed35.umts

struct fr_aka_sim_keys_t.__unnamed33__.__unnamed35__.umts

Input to kdf_*_umts.

Definition at line 180 of file base.h.

Data Fields
uint16_t	kdf_selected
fr_aka_sim_vector_umts_t	vector	UMTS vector.

◆ fr_aka_sim_keys_t.unnamed33.auc

struct fr_aka_sim_keys_t.__unnamed33__.auc

Definition at line 198 of file base.h.

Data Fields
uint8_t	ki[AKA_SIM_KI_SIZE]	Secret shared between AuC and SIM.
uint8_t	opc[AKA_SIM_OPC_SIZE]	Operator algorithm input.

◆ fr_aka_sim_vector_gsm_t

struct fr_aka_sim_vector_gsm_t

Definition at line 109 of file base.h.

Data Fields
union fr_aka_sim_vector_gsm_t.__unnamed29__	__unnamed__
union fr_aka_sim_vector_gsm_t.__unnamed31__	__unnamed__
uint8_t	rand[AKA_SIM_VECTOR_GSM_RAND_SIZE]	RAND challenge to the SIM.

◆ fr_aka_sim_vector_gsm_t.unnamed29

union fr_aka_sim_vector_gsm_t.__unnamed29__

Definition at line 111 of file base.h.

Data Fields
uint8_t	sres[AKA_SIM_VECTOR_GSM_SRES_SIZE]	Signing response.
uint32_t	sres_uint32

◆ fr_aka_sim_vector_gsm_t.unnamed31

union fr_aka_sim_vector_gsm_t.__unnamed31__

Definition at line 116 of file base.h.

Data Fields
uint8_t	kc[AKA_SIM_VECTOR_GSM_KC_SIZE]	Keying response.
uint64_t	kc_uint64

◆ fr_aka_sim_vector_umts_t

struct fr_aka_sim_vector_umts_t

Definition at line 122 of file base.h.

Data Fields
uint8_t	ak[AKA_SIM_VECTOR_UMTS_AK_SIZE]	Anonymity key.
uint8_t	autn[AKA_SIM_VECTOR_UMTS_AUTN_SIZE]	Authentication vector from the AuC.
uint8_t	ck[AKA_SIM_VECTOR_UMTS_CK_SIZE]	Ciphering key.
uint8_t	ik[AKA_SIM_VECTOR_UMTS_IK_SIZE]	Integrity key.
uint8_t	rand[AKA_SIM_VECTOR_UMTS_RAND_SIZE]	RAND challenge to the SIM.
uint8_t	xres[AKA_SIM_VECTOR_UMTS_XRES_MAX_SIZE]	Signing response.
size_t	xres_len	Length of res (it's variable).

Macro Definition Documentation

◆ AKA_PRIME_MK_REAUTH_SIZE

#define AKA_PRIME_MK_REAUTH_SIZE 80U

The portion of the MK used for re-auth.

The MSK and EMSK are omitted as they're recalculated each round.

Definition at line 59 of file base.h.

◆ AKA_PRIME_MK_SIZE

#define AKA_PRIME_MK_SIZE 208U

Definition at line 55 of file base.h.

◆ AKA_SIM_AUTH_SIZE

#define AKA_SIM_AUTH_SIZE 16U

Definition at line 44 of file base.h.

◆ AKA_SIM_IV_SIZE

#define AKA_SIM_IV_SIZE 16U

Length of the IV used when processing AT_ENCR.

Definition at line 41 of file base.h.

◆ AKA_SIM_K_RE_SIZE

#define AKA_SIM_K_RE_SIZE 32U

Reauthentication key size.

Definition at line 61 of file base.h.

◆ AKA_SIM_KI_SIZE

#define AKA_SIM_KI_SIZE 16U

Length of secret data shared between SIM and AuC.

Definition at line 48 of file base.h.

◆ AKA_SIM_MAC_DIGEST_SIZE

#define AKA_SIM_MAC_DIGEST_SIZE 16U

Length of MAC used to prevent packet modification.

Definition at line 42 of file base.h.

◆ AKA_SIM_MAC_SIZE

#define AKA_SIM_MAC_SIZE 20U

Length of MAC used to prevent packet modification.

Definition at line 43 of file base.h.

◆ AKA_SIM_MAX_STRING_LENGTH

#define AKA_SIM_MAX_STRING_LENGTH 1016U

Maximum size of a SIM/AKA['] string ((4 * 255) - 4).

Definition at line 40 of file base.h.

◆ AKA_SIM_MK_MAX_SIZE

#define AKA_SIM_MK_MAX_SIZE 208U

Master key size, 20 for EAP-SIM/EAP-AKA 208 for EAP-AKA'.

Definition at line 53 of file base.h.

◆ AKA_SIM_MK_SIZE

#define AKA_SIM_MK_SIZE 20U

Definition at line 54 of file base.h.

◆ AKA_SIM_NONCE_S_SIZE

#define AKA_SIM_NONCE_S_SIZE 16U

Length of re-authentication nonce.

Definition at line 46 of file base.h.

◆ AKA_SIM_OP_SIZE

#define AKA_SIM_OP_SIZE 16U

Length of Operator Algorithm Configuration.

Definition at line 49 of file base.h.

◆ AKA_SIM_OPC_SIZE

#define AKA_SIM_OPC_SIZE 16U

Length of modified Operator Algorithm Configuration.

Definition at line 50 of file base.h.

◆ AKA_SIM_SKIPPABLE_MAX

#define AKA_SIM_SKIPPABLE_MAX 127U

The last non-skippable attribute.

Definition at line 63 of file base.h.

◆ AKA_SIM_SQN_AK_SIZE

#define AKA_SIM_SQN_AK_SIZE 6U

Definition at line 45 of file base.h.

◆ AKA_SIM_VECTOR_GSM_KC_SIZE

#define AKA_SIM_VECTOR_GSM_KC_SIZE 8U

Length of Kc in GSM triplet.

Definition at line 67 of file base.h.

◆ AKA_SIM_VECTOR_GSM_RAND_SIZE

#define AKA_SIM_VECTOR_GSM_RAND_SIZE 16U

Length of RAND in GSM triplet.

Definition at line 65 of file base.h.

◆ AKA_SIM_VECTOR_GSM_SRES_SIZE

#define AKA_SIM_VECTOR_GSM_SRES_SIZE 4U

Length of SRES in GSM triplet.

Definition at line 66 of file base.h.

◆ AKA_SIM_VECTOR_UMTS_AK_SIZE

#define AKA_SIM_VECTOR_UMTS_AK_SIZE 6U

Definition at line 72 of file base.h.

◆ AKA_SIM_VECTOR_UMTS_AUTN_SIZE

#define AKA_SIM_VECTOR_UMTS_AUTN_SIZE 16U

Definition at line 69 of file base.h.

◆ AKA_SIM_VECTOR_UMTS_CK_SIZE

#define AKA_SIM_VECTOR_UMTS_CK_SIZE 16U

Definition at line 70 of file base.h.

◆ AKA_SIM_VECTOR_UMTS_IK_SIZE

#define AKA_SIM_VECTOR_UMTS_IK_SIZE 16U

Definition at line 71 of file base.h.

◆ AKA_SIM_VECTOR_UMTS_RAND_SIZE

#define AKA_SIM_VECTOR_UMTS_RAND_SIZE 16U

Definition at line 73 of file base.h.

◆ AKA_SIM_VECTOR_UMTS_XRES_MAX_SIZE

#define AKA_SIM_VECTOR_UMTS_XRES_MAX_SIZE 16U

Definition at line 74 of file base.h.

◆ EAP_AKA_AUTH_SIZE

#define EAP_AKA_AUTH_SIZE 16U

Definition at line 84 of file base.h.

◆ EAP_AKA_AUTS_SIZE

#define EAP_AKA_AUTS_SIZE 14U

Server sequence number.

SIM checks this is within the correct range.

Definition at line 83 of file base.h.

◆ EAP_AKA_PRIME_AUTH_SIZE

#define EAP_AKA_PRIME_AUTH_SIZE 32U

Definition at line 85 of file base.h.

◆ EAP_AKA_SIM_AUTH_SIZE

#define EAP_AKA_SIM_AUTH_SIZE 16U

Definition at line 79 of file base.h.

◆ EAP_SIM_NONCE_MT_SIZE

#define EAP_SIM_NONCE_MT_SIZE 16U

Length of challenge from SIM client.

Definition at line 77 of file base.h.

◆ EAP_SIM_VERSION

#define EAP_SIM_VERSION 1U

Definition at line 76 of file base.h.

Enumeration Type Documentation

◆ fr_aka_sim_attr_flags_encrypt_t

enum fr_aka_sim_attr_flags_encrypt_t : int8_t

Enumerator
AKA_SIM_FLAG_ENCRYPT_INVALID	Invalid encryption flag.
AKA_SIM_FLAG_ENCRYPT_NONE	No encryption.
AKA_SIM_FLAG_ENCRYPT_AES_CBC	Encrypt attribute RFC 2865 style.

Definition at line 259 of file base.h.

◆ fr_aka_sim_vector_src_t

enum fr_aka_sim_vector_src_t : uint8_t

Where to get EAP-SIM vectors from.

Enumerator
AKA_SIM_VECTOR_SRC_AUTO	Discover where to get Triplets from automatically.
AKA_SIM_VECTOR_SRC_TRIPLETS	Source of triplets is EAP-SIM-* attributes.
AKA_SIM_VECTOR_SRC_QUINTUPLETS	Source of triplets is derived from EAP-AKA-* quintuplets.
AKA_SIM_VECTOR_SRC_KI	Should generate triplets locally using a Ki.
AKA_SIM_VECTOR_SRC_REAUTH	Not a vector. Result of running KDF 0 reauth function.

Definition at line 99 of file base.h.

◆ fr_aka_sim_vector_type_t

enum fr_aka_sim_vector_type_t : uint8_t

The type of auth vector held by a fr_aka_sim_keys_t.

Enumerator
AKA_SIM_VECTOR_NONE
AKA_SIM_VECTOR_GSM	Vector is GSM triplets.
AKA_SIM_VECTOR_UMTS	Vector is UMTS quintuplets.
AKA_SIM_VECTOR_UMTS_REAUTH_KDF_0_REAUTH
AKA_SIM_VECTOR_UMTS_REAUTH_KDF_1_REAUTH

Definition at line 89 of file base.h.

Function Documentation

◆ fr_aka_sim_attr_flags()

static fr_aka_sim_attr_flags_t const * fr_aka_sim_attr_flags ( fr_dict_attr_t const * da )

inlinestatic

Return AKA/SIM-specific flags for a given attribute.

Assert in debug builds when the attribute belongs to another dictionary, as the flags of one protocol say nothing about an attribute of another.

If the attribute does not carry the protocol-specific extension, then assert. Other builds log the error and return zeroed flags instead of NULL.

Definition at line 279 of file base.h.

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◆ fr_aka_sim_attr_len()

size_t fr_aka_sim_attr_len ( fr_pair_t const * vp )

Return the on-the-wire length of an attribute value.

Parameters

[in] vp to return the length of.

Returns: the length of the attribute.

Definition at line 261 of file base.c.

◆ fr_aka_sim_crypto_finalise_checkcode()

ssize_t fr_aka_sim_crypto_finalise_checkcode	(	TALLOC_CTX *	ctx,
		uint8_t **	out,
		fr_aka_sim_checkcode_t *	checkcode
	)

Write out the final checkcode value.

Parameters

[in]	ctx	ctx to allocate buffer containing the checkcode.
[out]	out	talloced buffer containing the checkcode. bytes if MD was SHA1, or 32 bytes if MD was SHA256.
[in,out]	checkcode	structure to get final digest from and to tree.

Returns

<= 0 on failure.
> 0 the number of bytes written to out.

Definition at line 195 of file crypto.c.

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◆ fr_aka_sim_crypto_gsm_kdf_0()

int fr_aka_sim_crypto_gsm_kdf_0 ( fr_aka_sim_keys_t * keys )

Key Derivation Function as described in RFC4186 (EAP-SIM) section 7.

       MK     = SHA1(Identity|n*Kc| NONCE_MT| Version List| Selected Version)
       FK     = PRF(MK)
       K_encr = FK[0..127]
       K_aut  = FK[128..255]
       MSK    = FK[256..767]
       EMSK   = FK[768..1279]

Note: expects keys to contain a AKA_SIM_VECTOR_GSM.

Parameters

[in,out] keys Contains the authentication vectors and the buffers to store the result of the derivation.

Returns

0 on success.
-1 on failure.

Definition at line 467 of file crypto.c.

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◆ fr_aka_sim_crypto_init_checkcode()

int fr_aka_sim_crypto_init_checkcode	(	TALLOC_CTX *	ctx,
		fr_aka_sim_checkcode_t **	checkcode,
		EVP_MD const *	md
	)

Initialise checkcode message digest.

Parameters

[in]	ctx	to allocate checkcode structure in.
[out]	checkcode	a new checkcode structure.
[in]	md	to use when calculating the checkcode, either EVP_sha1(), or EVP_sha256().

Returns

0 on success.
-1 on failure.

Definition at line 113 of file crypto.c.

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◆ fr_aka_sim_crypto_kdf_0_reauth()

int fr_aka_sim_crypto_kdf_0_reauth ( fr_aka_sim_keys_t * keys )

Key Derivation Function (Fast-Reauthentication) as described in RFC4186/7 (EAP-SIM/AKA) section 7.

       XKEY' = SHA1(Identity|counter|NONCE_S|MK)
       FK    = PRF(XKEY')
       MSK   = FK[0..511]
       EMSK  = FK[512..1023]

Derives new MSK, EMSK, k_aut, k_encr

Use fr_aka_sim_crypto_keys_init_kdf_0_reauth to populate the fr_aka_sim_keys_t structure.

Note: expects keys to contain a populated mk, none_s and counter values.

Parameters

[in,out] keys Contains the authentication vectors and the buffers to store the result of the derivation.

Returns

0 on success.
-1 on failure.

Definition at line 1001 of file crypto.c.

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◆ fr_aka_sim_crypto_keys_init_kdf_0_reauth()

void fr_aka_sim_crypto_keys_init_kdf_0_reauth	(	fr_aka_sim_keys_t *	keys,
		uint8_t const	mk[static AKA_SIM_MK_SIZE],
		uint16_t	counter
	)

Initialise fr_aka_sim_keys_t with EAP-SIM reauthentication data.

Generates a new nonce_s and copies the mk and counter values into the fr_aka_sim_keys_t.

Parameters

[out]	keys	structure to populate.
[in]	mk	from original authentication.
[in]	counter	re-authentication counter.

Definition at line 928 of file crypto.c.

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◆ fr_aka_sim_crypto_keys_init_umts_kdf_1_reauth()

void fr_aka_sim_crypto_keys_init_umts_kdf_1_reauth	(	fr_aka_sim_keys_t *	keys,
		uint8_t const	mk[static AKA_PRIME_MK_REAUTH_SIZE],
		uint16_t	counter
	)

Initialise fr_aka_sim_keys_t with EAP-AKA['] reauthentication data.

Generates a new nonce_s and copies the mk and counter values into the fr_aka_sim_keys_t.

Parameters

[out]	keys	structure to populate.
[in]	mk	from original authentication.
[in]	counter	re-authentication counter.

Definition at line 958 of file crypto.c.

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◆ fr_aka_sim_crypto_keys_log()

void fr_aka_sim_crypto_keys_log	(	request_t *	request,
		fr_aka_sim_keys_t *	keys
	)

Dump the current state of all keys associated with the EAP SIM session.

Parameters

[in]	request	The current request.
[in]	keys	SIM keys associated with the session.

Definition at line 1237 of file crypto.c.

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◆ fr_aka_sim_crypto_sign_packet()

ssize_t fr_aka_sim_crypto_sign_packet	(	uint8_t	out[static AKA_SIM_MAC_DIGEST_SIZE],
		eap_packet_t *	eap_packet,
		bool	zero_mac,
		EVP_MD const *	md,
		uint8_t const *	key,
		size_t const	key_len,
		uint8_t const *	hmac_extra,
		size_t const	hmac_extra_len
	)

Calculate the digest value for a packet.

Run a digest over a fake EAP header, the entire SIM packet and any extra HMAC data, writing a truncated (16 byte) digest value to out.

Note: The 16 byte digest field in the packet must have either been zeroed out before this function is called (as it is when encoding data), or zero_mac must be set to true.; This function uses the EVP_* signing functions. Do not be tempted to swap them for the HMAC functions, as the EVP interface may be hardware accelerated but the HMAC interface is purely a software implementation.

Parameters

[out]	out	Where to write the digest.
[in]	eap_packet	to extract header values from.
[in]	zero_mac	Assume the mac field is not zeroed (i.e. received packet) and skip it during mac calculation feeding in 16 zeroed bytes in its place.
[in]	md	to use to create the HMAC.
[in]	key	to use to sign the packet.
[in]	key_len	Length of the key.
[in]	hmac_extra	data to concatenate with the packet when calculating the HMAC (may be NULL).
[in]	hmac_extra_len	Length of hmac_extra (may be zero).

Returns

< 0 on failure.
0 if there's no MAC attribute to verify.
> 0 the number of bytes written to out.

Definition at line 289 of file crypto.c.

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◆ fr_aka_sim_crypto_umts_kdf_0()

int fr_aka_sim_crypto_umts_kdf_0 ( fr_aka_sim_keys_t * keys )

Key Derivation Function as described in RFC4187 (EAP-AKA) section 7.

Note: expects keys to contain a AKA_SIM_VECTOR_UMTS.

       MK     = SHA1(Identity|IK|CK)
       FK     = PRF(MK)
       K_encr = FK[0..127]
       K_aut  = FK[128..255]
       MSK    = FK[256..767]
       EMSK   = FK[768..1279]

Parameters

[in,out] keys Contains the authentication vectors and the buffers to store the result of the derivation.

Returns

0 on success.
-1 on failure.

Definition at line 569 of file crypto.c.

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◆ fr_aka_sim_crypto_umts_kdf_1()

int fr_aka_sim_crypto_umts_kdf_1 ( fr_aka_sim_keys_t * keys )

Key Derivation Function as described in RFC 5448 (EAP-AKA') section 3.3.

       MK     = PRF'(IK'|CK',"EAP-AKA'"|Identity)
       K_encr = MK[0..127]
       K_aut  = MK[128..383]
       K_re   = MK[384..639]
       MSK    = MK[640..1151]
       EMSK   = MK[1152..1663]

Note: expects keys to contain a AKA_SIM_VECTOR_UMTS.

Parameters

[in,out] keys Contains the authentication vectors and the buffers to store the result of the derivation.

Returns

0 on success.
-1 on failure.

Definition at line 851 of file crypto.c.

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◆ fr_aka_sim_crypto_umts_kdf_1_reauth()

int fr_aka_sim_crypto_umts_kdf_1_reauth ( fr_aka_sim_keys_t * keys )

Key Derivation Function (Fast-Reauthentication) as described in RFC 5448 (EAP-AKA') section 3.3.

       MK   = PRF'(K_re,"EAP-AKA' re-auth"|Identity|counter|NONCE_S)
       MSK  = MK[0..511]
       EMSK = MK[512..1023]

Parameters

[in,out] keys Contains the authentication vectors and the buffers to store the result of the derivation.

Returns

0 on success.
-1 on failure.

Definition at line 1150 of file crypto.c.

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◆ fr_aka_sim_crypto_update_checkcode()

int fr_aka_sim_crypto_update_checkcode	(	fr_aka_sim_checkcode_t *	checkcode,
		eap_packet_t *	eap_packet
	)

Digest a packet, updating the checkcode.

Call fr_aka_sim_crypto_finalise_checkcode to obtain the final checkcode value.

Parameters

[in,out]	checkcode	if *checkcode is NULL, a new checkcode structure will be allocated and the message digest context will be initialised before the provided eap_packet is fed into the digest.
[in]	eap_packet	to digest.

Returns

0 on success.
-1 on failure.

Definition at line 151 of file crypto.c.

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◆ fr_aka_sim_decode()

int fr_aka_sim_decode	(	TALLOC_CTX *	ctx,
		fr_pair_list_t *	out,
		fr_dict_t const *	dict,
		uint8_t const *	data,
		size_t	data_len,
		fr_aka_sim_ctx_t *	decode_ctx
	)

Decode SIM/AKA/AKA' specific packet data.

Note: data should point to the subtype field in the EAP packet.

Extracts the SUBTYPE and adds it an attribute, then decodes any TLVs in the SIM/AKA/AKA' packet.

The first byte of the data pointer should be the subtype.

Parameters

[in]	ctx	where to allocate the pairs.
[in]	out	where to write out attributes.
[in]	dict	for looking up attributes.
[in]	data	to convert to pairs.
[in]	data_len	length of data to convert.
[in]	decode_ctx	holds the state of the decoder.

Returns

0 on success.
-1 on failure.

Definition at line 942 of file decode.c.

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◆ fr_aka_sim_decode_pair()

ssize_t fr_aka_sim_decode_pair	(	TALLOC_CTX *	ctx,
		fr_pair_list_t *	out,
		fr_dict_attr_t const *	parent,
		uint8_t const *	data,
		size_t	data_len,
		void *	decode_ctx
	)

Decode SIM/AKA/AKA' attributes.

Parameters

[in]	ctx	to allocate attributes in.
[in]	out	where to insert the attributes.
[in]	parent	for looking up attributes.
[in]	data	data to parse.
[in]	data_len	length of data. For top level attributes packet_ctx must be the length of the packet (so we can hunt for AT_IV), for Sub-TLVs it should be the length of the container value.
[in]	decode_ctx	extra context to pass to the decoder.

Returns

The number of bytes parsed.
-1 on error.

Definition at line 909 of file decode.c.

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◆ fr_aka_sim_encode()

ssize_t fr_aka_sim_encode	(	request_t *	request,
		fr_pair_list_t *	to_encode,
		void *	encode_ctx
	)

Definition at line 874 of file encode.c.

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◆ fr_aka_sim_encode_pair()

ssize_t fr_aka_sim_encode_pair	(	fr_dbuff_t *	dbuff,
		fr_dcursor_t *	cursor,
		void *	encode_ctx
	)

Definition at line 815 of file encode.c.

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◆ fr_aka_sim_fips186_2prf()

void fr_aka_sim_fips186_2prf	(	uint8_t	out[static 160],
		uint8_t	mk[static 20]
	)

Implement the FIPS-186-2 PRF to derive keying material from the MK.

run the FIPS-186-2 PRF on the given Master Key (160 bits) in order to derive 1280 bits (160 bytes) of keying data from it.

Given that in EAP-SIM, this is coming from a 64-bit Kc it seems like an awful lot of "randomness" to pull out..

Parameters

[out]	out	Buffer to contain the data derived from the mk.
[in]	mk	The master key we use to derive all other keying data.

Definition at line 91 of file fips186prf.c.

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◆ fr_aka_sim_flag_encrypted()

static fr_aka_sim_attr_flags_encrypt_t fr_aka_sim_flag_encrypted ( fr_dict_attr_t const * da )

inlinestatic

Definition at line 295 of file base.h.

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◆ fr_aka_sim_free()

void fr_aka_sim_free ( void )

Definition at line 319 of file base.c.

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◆ fr_aka_sim_init()

int fr_aka_sim_init ( void )

Definition at line 288 of file base.c.

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◆ fr_aka_sim_octets_prefix_len()

size_t fr_aka_sim_octets_prefix_len ( fr_dict_attr_t const * da )

Return the number of bytes before the octets value.

Definition at line 280 of file base.c.

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◆ fr_aka_sim_umts_resync_from_attrs()

int fr_aka_sim_umts_resync_from_attrs	(	uint64_t *	new_sqn,
		request_t *	request,
		fr_pair_t *	auts_vp,
		fr_aka_sim_keys_t *	keys
	)

Perform milenage AUTS validation and resynchronisation.

Parameters

[out]	new_sqn	The new sequence number provided by the AUTS.
[in]	request	The current request.
[in]	auts_vp	The AUTS response.
[in]	keys	UMTS keys.

Returns

1 if we do not have sufficient data (lacking ki).
0 on success.
-1 on validation failure.

Definition at line 1000 of file vector.c.

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◆ fr_aka_sim_vector_gsm_from_attrs()

int fr_aka_sim_vector_gsm_from_attrs	(	request_t *	request,
		fr_pair_list_t *	vps,
		int	idx,
		fr_aka_sim_keys_t *	keys,
		fr_aka_sim_vector_src_t *	src
	)

Retrieve GSM triplets from sets of attributes.

Hunt for a source of SIM triplets

Parameters

[in]	request	The current subrequest.
[in]	vps	List to hunt for triplets in.
[in]	idx	To write EAP-SIM triplets to.
[in]	keys	EAP session keys.
[in]	src	Forces triplets to be retrieved from a particular src and ensures if multiple triplets are being retrieved that they all come from the same src.

Returns

1 Vector could not be retrieved from the specified src.
0 Vector was retrieved OK and written to the specified index.
-1 Error retrieving vector from the specified src.

Definition at line 328 of file vector.c.

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◆ fr_aka_sim_vector_gsm_umts_kdf_0_reauth_from_attrs()

int fr_aka_sim_vector_gsm_umts_kdf_0_reauth_from_attrs	(	request_t *	request,
		fr_pair_list_t *	vps,
		fr_aka_sim_keys_t *	keys
	)

Populate a fr_aka_sim_keys_t structure from attributes in the session-state list.

Parameters

[in]	request	The current request.
[in]	vps	Session-state list
[in]	keys	key structure to populate.

Returns

1 if we do not have sufficient data.
0 on success.
-1 on validation failure.

Definition at line 889 of file vector.c.

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◆ fr_aka_sim_vector_umts_ck_ik_prime_from_attrs()

int fr_aka_sim_vector_umts_ck_ik_prime_from_attrs	(	request_t *	request,
		fr_pair_t *	ck_prime_vp,
		fr_pair_t *	ik_prime_vp,
		fr_aka_sim_keys_t *	keys
	)

Validate and copy pre-derived CK'/IK' for EAP-AKA' from caller-supplied pairs.

When the UMTS quintuplet is fetched from a 3GPP HSS over the SWx interface (3GPP TS 29.273), the HSS has already performed the RFC 5448 / TS 33.402 Annex A transform of CK/IK into CK'/IK' (it must, because the transform binds the keys to the Access Network Identity the HSS was given). In that case the server must not derive CK'/IK' a second time; it consumes the values supplied in control.CK-Prime / control.IK-Prime directly. Both attributes must be present together.

The caller is expected to look up control.CK-Prime / control.IK-Prime once and pass the resulting pairs in here, so this function does not repeat the list walk.

Parameters

[in]	request	The current request.
[in]	ck_prime_vp	control.CK-Prime pair, or NULL if not present.
[in]	ik_prime_vp	control.IK-Prime pair, or NULL if not present.
[in]	keys	key structure to populate.

Returns

0 CK'/IK' were valid and written to keys.
1 Neither pair was supplied; caller should fall back to local derivation.
-1 Only one of the two pairs is supplied, or either has the wrong length.

Definition at line 842 of file vector.c.

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◆ fr_aka_sim_vector_umts_from_attrs()

int fr_aka_sim_vector_umts_from_attrs	(	request_t *	request,
		fr_pair_list_t *	vps,
		fr_aka_sim_keys_t *	keys,
		fr_aka_sim_vector_src_t *	src
	)

Retrieve UMTS quintuplets from sets of attributes.

Hunt for a source of UMTS quintuplets

Parameters

request	The current request.
vps	List to hunt for triplets in.
keys	UMTS keys.
src	Forces quintuplets to be retrieved from a particular src.

Returns

1 Vector could not be retrieved from the specified src.
0 Vector was retrieved OK and written to the specified index.
-1 Error retrieving vector from the specified src.

Definition at line 760 of file vector.c.

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◆ fr_aka_sim_vector_umts_kdf_1_reauth_from_attrs()

int fr_aka_sim_vector_umts_kdf_1_reauth_from_attrs	(	request_t *	request,
		fr_pair_list_t *	vps,
		fr_aka_sim_keys_t *	keys
	)

Populate a fr_aka_sim_keys_t structure from attributes in the session-state list.

Parameters

[in]	request	The current request.
[in]	vps	Session-state list
[in]	keys	key structure to populate.

Returns

1 if we do not have sufficient data.
0 on success.
-1 on validation failure.

Definition at line 938 of file vector.c.

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◆ fr_aka_sim_vector_umts_reauth_clear()

void fr_aka_sim_vector_umts_reauth_clear ( fr_aka_sim_keys_t * keys )

Clear reauth data if reauthentication failed.

Parameters

[in] keys key structure to clear.

Definition at line 982 of file vector.c.

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◆ fr_aka_sim_xlat_func_register()

int fr_aka_sim_xlat_func_register ( void )

Definition at line 506 of file xlat.c.

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◆ fr_aka_sim_xlat_func_unregister()

void fr_aka_sim_xlat_func_unregister ( void )

Definition at line 540 of file xlat.c.

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Variable Documentation

◆ fr_aka_sim_attr_sizes

size_t const fr_aka_sim_attr_sizes[FR_TYPE_MAX+1][2]

extern

SIM AT on-the-wire format attribute sizes.

Holds the min/max sizes of all supported SIM AT attribute values as they would be found in a SIM AT packet.

These sizes may be different than the sizes of INTERNAL formats, PRESENTATION formats and generic NETWORK formats.

Definition at line 214 of file base.c.

◆ libfreeradius_eap_aka_sim_dict_protocol

fr_dict_protocol_t libfreeradius_eap_aka_sim_dict_protocol

extern

Definition at line 330 of file base.c.

Data Structures

Macros

Enumerations

Functions

Variables

Detailed Description

Data Structure Documentation

◆ fr_aka_sim_attr_flags_t

◆ fr_aka_sim_checkcode_t

◆ fr_aka_sim_ctx_t

◆ fr_aka_sim_keys_t

◆ fr_aka_sim_keys_t.__unnamed33__

◆ fr_aka_sim_keys_t.__unnamed33__.__unnamed35__

◆ fr_aka_sim_keys_t.__unnamed33__.__unnamed35__.gsm

◆ fr_aka_sim_keys_t.__unnamed33__.__unnamed35__.reauth

◆ fr_aka_sim_keys_t.__unnamed33__.__unnamed35__.umts

◆ fr_aka_sim_keys_t.__unnamed33__.auc

◆ fr_aka_sim_vector_gsm_t

◆ fr_aka_sim_vector_gsm_t.__unnamed29__

◆ fr_aka_sim_vector_gsm_t.__unnamed31__

◆ fr_aka_sim_vector_umts_t

Macro Definition Documentation

◆ AKA_PRIME_MK_REAUTH_SIZE

◆ AKA_PRIME_MK_SIZE

◆ AKA_SIM_AUTH_SIZE

◆ AKA_SIM_IV_SIZE

◆ AKA_SIM_K_RE_SIZE

◆ AKA_SIM_KI_SIZE

◆ AKA_SIM_MAC_DIGEST_SIZE

◆ AKA_SIM_MAC_SIZE

◆ AKA_SIM_MAX_STRING_LENGTH

◆ AKA_SIM_MK_MAX_SIZE

◆ AKA_SIM_MK_SIZE

◆ AKA_SIM_NONCE_S_SIZE

◆ AKA_SIM_OP_SIZE

◆ AKA_SIM_OPC_SIZE

◆ AKA_SIM_SKIPPABLE_MAX

◆ AKA_SIM_SQN_AK_SIZE

◆ AKA_SIM_VECTOR_GSM_KC_SIZE

◆ AKA_SIM_VECTOR_GSM_RAND_SIZE

◆ AKA_SIM_VECTOR_GSM_SRES_SIZE

◆ AKA_SIM_VECTOR_UMTS_AK_SIZE

◆ AKA_SIM_VECTOR_UMTS_AUTN_SIZE

◆ AKA_SIM_VECTOR_UMTS_CK_SIZE

◆ AKA_SIM_VECTOR_UMTS_IK_SIZE

◆ AKA_SIM_VECTOR_UMTS_RAND_SIZE

◆ AKA_SIM_VECTOR_UMTS_XRES_MAX_SIZE

◆ EAP_AKA_AUTH_SIZE

◆ EAP_AKA_AUTS_SIZE

◆ EAP_AKA_PRIME_AUTH_SIZE

◆ EAP_AKA_SIM_AUTH_SIZE

◆ EAP_SIM_NONCE_MT_SIZE

◆ EAP_SIM_VERSION

Enumeration Type Documentation

◆ fr_aka_sim_attr_flags_encrypt_t

◆ fr_aka_sim_vector_src_t

◆ fr_aka_sim_vector_type_t

Function Documentation

◆ fr_aka_sim_attr_flags()

◆ fr_aka_sim_attr_len()

◆ fr_aka_sim_crypto_finalise_checkcode()

◆ fr_aka_sim_crypto_gsm_kdf_0()

◆ fr_aka_sim_crypto_init_checkcode()

◆ fr_aka_sim_crypto_kdf_0_reauth()

◆ fr_aka_sim_crypto_keys_init_kdf_0_reauth()

◆ fr_aka_sim_crypto_keys_init_umts_kdf_1_reauth()

◆ fr_aka_sim_crypto_keys_log()

◆ fr_aka_sim_crypto_sign_packet()

◆ fr_aka_sim_crypto_umts_kdf_0()

◆ fr_aka_sim_crypto_umts_kdf_1()

◆ fr_aka_sim_crypto_umts_kdf_1_reauth()

◆ fr_aka_sim_crypto_update_checkcode()

◆ fr_aka_sim_decode()

◆ fr_aka_sim_decode_pair()

◆ fr_aka_sim_encode()

◆ fr_aka_sim_encode_pair()

◆ fr_aka_sim_fips186_2prf()

◆ fr_aka_sim_flag_encrypted()

◆ fr_aka_sim_free()

◆ fr_aka_sim_init()

◆ fr_aka_sim_keys_t.unnamed33

◆ fr_aka_sim_keys_t.unnamed33.unnamed35

◆ fr_aka_sim_keys_t.unnamed33.unnamed35.gsm

◆ fr_aka_sim_keys_t.unnamed33.unnamed35.reauth

◆ fr_aka_sim_keys_t.unnamed33.unnamed35.umts

◆ fr_aka_sim_keys_t.unnamed33.auc

◆ fr_aka_sim_vector_gsm_t.unnamed29

◆ fr_aka_sim_vector_gsm_t.unnamed31