/* idx == -1 indicates main key
* otherwise the subkey.
*/
static void
print_key_fingerprint(gnutls_buffer_st * str, gnutls_openpgp_crt_t cert)
{
uint8_t fpr[128];
size_t fpr_size = sizeof(fpr);
int err;
const char *name;
char *p;
unsigned int bits;
err = gnutls_openpgp_crt_get_fingerprint(cert, fpr, &fpr_size);
if (err < 0)
addf(str, "error: get_fingerprint: %s\n",
gnutls_strerror(err));
else {
adds(str, _("\tFingerprint (hex): "));
_gnutls_buffer_hexprint(str, fpr, fpr_size);
addf(str, "\n");
}
err = gnutls_openpgp_crt_get_pk_algorithm(cert, &bits);
if (err < 0)
return;
name = gnutls_pk_get_name(err);
if (name == NULL)
return;
p = _gnutls_key_fingerprint_randomart(fpr, fpr_size, name, bits,
"\t\t");
if (p == NULL)
return;
adds(str, _("\tFingerprint's random art:\n"));
adds(str, p);
adds(str, "\n");
gnutls_free(p);
}
static void main_texinfo (void)
{
{
size_t i;
const char *name;
char id[2];
gnutls_kx_algorithm_t kx;
gnutls_cipher_algorithm_t cipher;
gnutls_mac_algorithm_t mac;
gnutls_protocol_t version;
printf ("@heading Ciphersuites\n");
printf ("@multitable @columnfractions .60 .20 .20\n");
printf("@headitem Ciphersuite name @tab TLS ID @tab Since\n");
for (i = 0; (name = gnutls_cipher_suite_info
(i, id, &kx, &cipher, &mac, &version)); i++)
{
printf ("@item %s\n@tab 0x%02X 0x%02X\n@tab %s\n",
escape_texi_string(name, buffer, sizeof(buffer)),
(unsigned char) id[0], (unsigned char) id[1],
gnutls_protocol_get_name (version));
}
printf ("@end multitable\n");
}
{
const gnutls_certificate_type_t *p = gnutls_certificate_type_list ();
printf ("\n\n@heading Certificate types\n");
printf ("@table @code\n");
for (; *p; p++)
{
printf ("@item %s\n", gnutls_certificate_type_get_name (*p));
}
printf ("@end table\n");
}
{
const gnutls_protocol_t *p = gnutls_protocol_list ();
printf ("\n@heading Protocols\n@table @code\n");
for (; *p; p++)
{
printf ("@item %s\n", gnutls_protocol_get_name (*p));
}
printf ("@end table\n");
}
{
const gnutls_cipher_algorithm_t *p = gnutls_cipher_list ();
printf ("\n@heading Ciphers\n@table @code\n");
for (; *p; p++)
{
printf ("@item %s\n", gnutls_cipher_get_name (*p));
}
printf ("@end table\n");
}
{
const gnutls_mac_algorithm_t *p = gnutls_mac_list ();
printf ("\n@heading MAC algorithms\n@table @code\n");
for (; *p; p++)
{
printf ("@item %s\n", gnutls_mac_get_name (*p));
}
printf ("@end table\n");
}
{
const gnutls_kx_algorithm_t *p = gnutls_kx_list ();
printf ("\n@heading Key exchange methods\n@table @code\n");
for (; *p; p++)
{
printf ("@item %s\n", gnutls_kx_get_name (*p));
}
printf ("@end table\n");
}
{
const gnutls_pk_algorithm_t *p = gnutls_pk_list ();
printf ("\n@heading Public key algorithms\n@table @code\n");
for (; *p; p++)
{
printf ("@item %s\n", gnutls_pk_get_name (*p));
}
printf ("@end table\n");
}
{
const gnutls_sign_algorithm_t *p = gnutls_sign_list ();
printf ("\n@heading Public key signature algorithms\n@table @code\n");
for (; *p; p++)
{
printf ("@item %s\n", gnutls_sign_get_name (*p));
}
printf ("@end table\n");
}
{
const gnutls_ecc_curve_t *p = gnutls_ecc_curve_list ();
printf ("\n@heading Elliptic curves\n@table @code\n");
for (; *p; p++)
{
printf ("@item %s\n", gnutls_ecc_curve_get_name (*p));
}
printf ("@end table\n");
}
{
const gnutls_compression_method_t *p = gnutls_compression_list ();
printf ("\n@heading Compression methods\n@table @code\n");
for (; *p; p++)
{
printf ("@item %s\n", gnutls_compression_get_name (*p));
}
printf ("@end table\n");
}
}
int
main (void)
{
{
size_t i;
const char *name;
char id[2];
gnutls_kx_algorithm_t kx;
gnutls_cipher_algorithm_t cipher;
gnutls_mac_algorithm_t mac;
gnutls_protocol_t version;
printf ("Available cipher suites:\n");
printf ("@multitable @columnfractions .60 .20 .20\n");
for (i = 0; (name = gnutls_cipher_suite_info
(i, id, &kx, &cipher, &mac, &version)); i++)
{
printf ("@item %s\n@tab 0x%02x 0x%02x\n@tab %s\n",
name,
(unsigned char) id[0], (unsigned char) id[1],
gnutls_protocol_get_name (version));
}
printf ("@end multitable\n");
}
{
const gnutls_certificate_type_t *p = gnutls_certificate_type_list ();
printf ("\n\nAvailable certificate types:\n@itemize\n");
for (; *p; p++)
{
printf ("@item %s\n", gnutls_certificate_type_get_name (*p));
}
printf ("@end itemize\n");
}
{
const gnutls_protocol_t *p = gnutls_protocol_list ();
printf ("\nAvailable protocols:\n@itemize\n");
for (; *p; p++)
{
printf ("@item %s\n", gnutls_protocol_get_name (*p));
}
printf ("@end itemize\n");
}
{
const gnutls_cipher_algorithm_t *p = gnutls_cipher_list ();
printf ("\nAvailable ciphers:\n@itemize\n");
for (; *p; p++)
{
printf ("@item %s\n", gnutls_cipher_get_name (*p));
}
printf ("@end itemize\n");
}
{
const gnutls_mac_algorithm_t *p = gnutls_mac_list ();
printf ("\nAvailable MAC algorithms:\n@itemize\n");
for (; *p; p++)
{
printf ("@item %s\n", gnutls_mac_get_name (*p));
}
printf ("@end itemize\n");
}
{
const gnutls_kx_algorithm_t *p = gnutls_kx_list ();
printf ("\nAvailable key exchange methods:\n@itemize\n");
for (; *p; p++)
{
printf ("@item %s\n", gnutls_kx_get_name (*p));
}
printf ("@end itemize\n");
}
{
const gnutls_pk_algorithm_t *p = gnutls_pk_list ();
printf ("\nAvailable public key algorithms:\n@itemize\n");
for (; *p; p++)
{
printf ("@item %s\n", gnutls_pk_get_name (*p));
}
printf ("@end itemize\n");
}
{
const gnutls_sign_algorithm_t *p = gnutls_sign_list ();
printf ("\nAvailable public key signature algorithms:\n@itemize\n");
for (; *p; p++)
{
printf ("@item %s\n", gnutls_sign_get_name (*p));
}
printf ("@end itemize\n");
}
{
const gnutls_compression_method_t *p = gnutls_compression_list ();
printf ("\nAvailable compression methods:\n@itemize\n");
for (; *p; p++)
{
printf ("@item %s\n", gnutls_compression_get_name (*p));
}
printf ("@end itemize\n");
}
}
