/netbsd-src/usr.sbin/fwctl/ |
H A D | eui64.c | 193 e->octet[0]=o0; in eui64_aton() 194 e->octet[1]=o1; in eui64_aton() 195 e->octet[2]=o2; in eui64_aton() 196 e->octet[3]=o3; in eui64_aton() 197 e->octet[4]=o4; in eui64_aton() 198 e->octet[5]=o5; in eui64_aton() 199 e->octet[6]=o6; in eui64_aton() 200 e->octet[7]=o7; in eui64_aton() 214 id->octet[0], id->octet[1], id->octet[2], id->octet[3], in eui64_ntoa() 215 id->octet[4], id->octet[5], id->octet[6], id->octet[7]); in eui64_ntoa() [all …]
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/netbsd-src/external/mpl/dhcp/dist/contrib/ms2isc/ |
H A D | Registry.pm | 201 my ($byte, $size, $ind1, $ind2, @octet) = unpack("VVVV", $MSDHCPOption6Value); 206 ($byte, $size, $ind1, $ind2, @octet) = unpack("VVVVC$number", $MSDHCPOption6Value); 208 for (my $i=0; $i<$#octet; $i=$i+4) { 209 $ip[$i/4] = "$octet[$i+3]\.$octet[$i+2]\.$octet[$i+1]\.$octet[$i]"; 327 my ($octet) = @_; 334 my (@data) = unpack ("C4", $octet);
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/netbsd-src/crypto/external/bsd/openssl/dist/doc/man7/ |
H A D | EVP_KDF-X942-ASN1.pod | 33 =item "secret" (B<OSSL_KDF_PARAM_SECRET>) <octet string> 37 =item "acvp-info" (B<OSSL_KDF_PARAM_X942_ACVPINFO>) <octet string> 40 testing. It is an optional octet string containing a combined DER encoded blob 45 =item "partyu-info" (B<OSSL_KDF_PARAM_X942_PARTYUINFO>) <octet string> 47 An optional octet string containing public info contributed by the initiator. 49 =item "ukm" (B<OSSL_KDF_PARAM_UKM>) <octet string> 54 =item "partyv-info" (B<OSSL_KDF_PARAM_X942_PARTYVINFO>) <octet string> 56 An optional octet string containing public info contributed by the responder. 58 =item "supp-pubinfo" (B<OSSL_KDF_PARAM_X942_SUPP_PUBINFO>) <octet string> 60 An optional octet string containing some additional, mutually-known public [all …]
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H A D | provider-kdf.pod | 160 =item "key" (B<OSSL_KDF_PARAM_KEY>) <octet string> 164 =item "secret" (B<OSSL_KDF_PARAM_SECRET>) <octet string> 168 =item "pass" (B<OSSL_KDF_PARAM_PASSWORD>) <octet string> 181 =item "maclen" (B<OSSL_KDF_PARAM_MAC_SIZE>) <octet string> 216 =item "ukm" (B<OSSL_KDF_PARAM_UKM>) <octet string> 242 =item "prefix" (B<OSSL_KDF_PARAM_PREFIX>) <octet string> 247 =item "label" (B<OSSL_KDF_PARAM_LABEL>) <octet string> 252 =item "data" (B<OSSL_KDF_PARAM_DATA>) <octet string> 257 =item "info" (B<OSSL_KDF_PARAM_INFO>) <octet string> 261 =item "seed" (B<OSSL_KDF_PARAM_SEED>) <octet string> [all …]
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H A D | EVP_KDF-TLS13_KDF.pod | 30 =item "key" (B<OSSL_KDF_PARAM_KEY>) <octet string> 32 =item "salt" (B<OSSL_KDF_PARAM_SALT>) <octet string> 36 =item "prefix" (B<OSSL_KDF_PARAM_PREFIX>) <octet string> 42 =item "label" (B<OSSL_KDF_PARAM_LABEL>) <octet string> 47 =item "data" (B<OSSL_KDF_PARAM_DATA>) <octet string>
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/netbsd-src/crypto/external/bsd/netpgp/dist/src/lib/ |
H A D | packet-show.c | 379 find_bitfield(pgp_bit_map_t *map, uint8_t octet) in find_bitfield() argument 383 for (row = map; row->string != NULL && row->mask != octet ; row++) { in find_bitfield() 422 add_str_from_octet_map(pgp_text_t *map, char *str, uint8_t octet) in add_str_from_octet_map() argument 443 (void) snprintf(str, len, "0x%x", octet); in add_str_from_octet_map() 495 const char *(*text_fn)(uint8_t octet)) in text_from_bytemapped_octets() argument 655 pgp_show_ss_zpref(uint8_t octet) in pgp_show_ss_zpref() argument 657 return pgp_str_from_map(octet, compression_alg_map); in pgp_show_ss_zpref() 717 pgp_show_ss_skapref(uint8_t octet) in pgp_show_ss_skapref() argument 719 return pgp_str_from_map(octet, symm_alg_map); in pgp_show_ss_skapref() 744 show_ss_feature(uint8_t octet, unsigned offset) in show_ss_feature() argument [all …]
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/netbsd-src/crypto/dist/ipsec-tools/src/racoon/ |
H A D | prsa_tok.l | 50 octet (([01]?{digit}?{digit})|((2([0-4]{digit}))|(25[0-5]))) 51 addr4 {octet}\.{octet}\.{octet}\.{octet}
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/netbsd-src/external/mpl/bind/dist/bin/tests/system/zero/ans5/ |
H A D | ans.pl | 38 my $octet = 0; 69 " 0 A 192.0.2." . $octet)); 70 $octet = $octet + 1;
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/netbsd-src/external/mpl/dhcp/bind/dist/lib/dns/ |
H A D | nsec.c | 72 int octet; in dns_nsec_compressbitmap() local 82 for (octet = 31; octet >= 0; octet--) { in dns_nsec_compressbitmap() 83 if (*(raw + octet) != 0) { in dns_nsec_compressbitmap() 87 if (octet < 0) { in dns_nsec_compressbitmap() 92 *map++ = octet + 1; in dns_nsec_compressbitmap() 96 memmove(map, raw, octet + 1); in dns_nsec_compressbitmap() 97 map += octet + 1; in dns_nsec_compressbitmap()
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/netbsd-src/external/mpl/bind/dist/lib/dns/ |
H A D | nsec.c | 72 int octet; in dns_nsec_compressbitmap() local 82 for (octet = 31; octet >= 0; octet--) { in dns_nsec_compressbitmap() 83 if (*(raw + octet) != 0) { in dns_nsec_compressbitmap() 87 if (octet < 0) { in dns_nsec_compressbitmap() 92 *map++ = octet + 1; in dns_nsec_compressbitmap() 96 memmove(map, raw, octet + 1); in dns_nsec_compressbitmap() 97 map += octet + 1; in dns_nsec_compressbitmap()
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/netbsd-src/external/ibm-public/postfix/dist/src/util/ |
H A D | valid_hostname.ref | 3 ./valid_hostname: warning: valid_ipv4_hostaddr: invalid octet value: 123456789012345678901234567890… 6 ./valid_hostname: warning: valid_ipv4_hostaddr: invalid octet value: 123456789012345678901234567890… 16 ./valid_hostname: warning: valid_ipv4_hostaddr: invalid octet value: 321.255.255.255 23 ./valid_hostname: warning: valid_ipv4_hostaddr: bad initial octet value: 0.255.255.255 26 ./valid_hostname: warning: valid_ipv4_hostaddr: invalid octet value: 1.2.3.321 29 ./valid_hostname: warning: valid_ipv4_hostaddr: invalid octet count: 1.2.3 32 ./valid_hostname: warning: valid_ipv4_hostaddr: invalid octet count: 1.2.3.4.5 44 ./valid_hostname: warning: valid_ipv4_hostaddr: invalid octet count: 1 53 ./valid_hostname: warning: valid_ipv4_hostaddr: invalid octet value: 321 127 ./valid_hostname: warning: valid_ipv4_hostaddr: invalid octet count: 1.2.3
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/netbsd-src/crypto/external/bsd/netpgp/dist/ref/ |
H A D | draft-ietf-openpgp-rfc2440bis-12.txt | 436 service of converting the raw 8-bit binary octet stream to a stream 462 format. Using n[k] to refer to the kth octet being interpreted, the 463 value of a two-octet scalar is ((n[0] << 8) + n[1]). The value of a 464 four-octet scalar is ((n[0] << 24) + (n[1] << 16) + (n[2] << 8) + 473 An MPI consists of two pieces: a two-octet scalar that is the length 500 A Key ID is an eight-octet scalar that identifies a key. 516 A time field is an unsigned four-octet number containing the number 574 second gets preloaded with 1 octet of zero, the third is preloaded 592 Octets 2-9: 8-octet salt value 600 This includes both a salt and an octet count. The salt is combined [all …]
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H A D | draft-ietf-openpgp-rfc2440bis-15.txt | 436 service of converting the raw 8-bit binary octet stream to a stream 462 format. Using n[k] to refer to the kth octet being interpreted, the 463 value of a two-octet scalar is ((n[0] << 8) + n[1]). The value of a 464 four-octet scalar is ((n[0] << 24) + (n[1] << 16) + (n[2] << 8) + 473 An MPI consists of two pieces: a two-octet scalar that is the length 502 A Key ID is an eight-octet scalar that identifies a key. 518 A time field is an unsigned four-octet number containing the number 574 second gets preloaded with 1 octet of zero, the third is preloaded 592 Octets 2-9: 8-octet salt value 600 This includes both a salt and an octet count. The salt is combined [all …]
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H A D | draft-ietf-openpgp-rfc2440bis-12-ben.txt | 436 service of converting the raw 8-bit binary octet stream to a stream 462 format. Using n[k] to refer to the kth octet being interpreted, the 463 value of a two-octet scalar is ((n[0] << 8) + n[1]). The value of a 464 four-octet scalar is ((n[0] << 24) + (n[1] << 16) + (n[2] << 8) + 473 An MPI consists of two pieces: a two-octet scalar that is the length 500 A Key ID is an eight-octet scalar that identifies a key. 516 A time field is an unsigned four-octet number containing the number 574 second gets preloaded with 1 octet of zero, the third is preloaded 592 Octets 2-9: 8-octet salt value 600 This includes both a salt and an octet count. The salt is combined [all …]
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H A D | draft-ietf-openpgp-rfc2440bis-13.txt | 436 service of converting the raw 8-bit binary octet stream to a stream 462 format. Using n[k] to refer to the kth octet being interpreted, the 463 value of a two-octet scalar is ((n[0] << 8) + n[1]). The value of a 464 four-octet scalar is ((n[0] << 24) + (n[1] << 16) + (n[2] << 8) + 473 An MPI consists of two pieces: a two-octet scalar that is the length 502 A Key ID is an eight-octet scalar that identifies a key. 518 A time field is an unsigned four-octet number containing the number 574 second gets preloaded with 1 octet of zero, the third is preloaded 592 Octets 2-9: 8-octet salt value 600 This includes both a salt and an octet count. The salt is combined [all …]
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H A D | draft-ietf-openpgp-rfc2440bis-14.txt | 436 service of converting the raw 8-bit binary octet stream to a stream 462 format. Using n[k] to refer to the kth octet being interpreted, the 463 value of a two-octet scalar is ((n[0] << 8) + n[1]). The value of a 464 four-octet scalar is ((n[0] << 24) + (n[1] << 16) + (n[2] << 8) + 473 An MPI consists of two pieces: a two-octet scalar that is the length 502 A Key ID is an eight-octet scalar that identifies a key. 518 A time field is an unsigned four-octet number containing the number 574 second gets preloaded with 1 octet of zero, the third is preloaded 592 Octets 2-9: 8-octet salt value 600 This includes both a salt and an octet count. The salt is combined [all …]
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H A D | rfc2440.txt | 363 service of converting the raw 8-bit binary octet stream to a stream 402 format. Using n[k] to refer to the kth octet being interpreted, the 403 value of a two-octet scalar is ((n[0] << 8) + n[1]). The value of a 404 four-octet scalar is ((n[0] << 24) + (n[1] << 16) + (n[2] << 8) + 413 An MPI consists of two pieces: a two-octet scalar that is the length 437 A Key ID is an eight-octet scalar that identifies a key. 457 A time field is an unsigned four-octet number containing the number 492 preloaded with 1 octet of zero, the third is preloaded with two 519 Octets 2-9: 8-octet salt value 527 This includes both a salt and an octet count. The salt is combined [all …]
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H A D | rfc2437.txt | 156 C ciphertext, an octet string 175 EM encoded message, an octet string 189 l intended length of octet string 197 M message, an octet string 203 P encoding parameters, an octet string 213 S signature, an octet string 217 X an octet string corresponding to x 219 \xor bitwise exclusive-or of two octet strings 233 ||.|| octet length operator 321 octet string is an ordered sequence of octets (eight-bit bytes). The [all …]
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H A D | rfc4880.txt | 419 service of converting the raw 8-bit binary octet stream to a stream 441 format. Using n[k] to refer to the kth octet being interpreted, the 442 value of a two-octet scalar is ((n[0] << 8) + n[1]). The value of a 443 four-octet scalar is ((n[0] << 24) + (n[1] << 16) + (n[2] << 8) + 461 An MPI consists of two pieces: a two-octet scalar that is the length 490 A Key ID is an eight-octet scalar that identifies a key. 513 A time field is an unsigned four-octet number containing the number 575 preloaded with 1 octet of zero, the third is preloaded with two 593 Octets 2-9: 8-octet salt value 601 This includes both a salt and an octet count. The salt is combined [all …]
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H A D | draft-ietf-openpgp-rfc2440bis-22.txt | 499 service of converting the raw 8-bit binary octet stream to a stream 525 format. Using n[k] to refer to the kth octet being interpreted, the 526 value of a two-octet scalar is ((n[0] << 8) + n[1]). The value of a 527 four-octet scalar is ((n[0] << 24) + (n[1] << 16) + (n[2] << 8) + 536 An MPI consists of two pieces: a two-octet scalar that is the length 570 A Key ID is an eight-octet scalar that identifies a key. 582 A time field is an unsigned four-octet number containing the number 640 second gets preloaded with 1 octet of zero, the third is preloaded 658 Octets 2-9: 8-octet salt value 666 This includes both a salt and an octet count. The salt is combined [all …]
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/netbsd-src/external/bsd/file/dist/magic/magdir/ |
H A D | pascal | 22 #!:mime application/octet-stream 28 #!:mime application/octet-stream 33 #!:mime application/octet-stream 38 #!:mime application/octet-stream
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H A D | microfocus | 13 !:mime application/octet-stream 17 !:mime application/octet-stream 21 !:mime application/octet-stream
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H A D | wordprocessors | 40 #!:mime application/octet-stream 46 #!:mime application/octet-stream 53 #!:mime application/octet-stream 59 #!:mime application/octet-stream 76 #!:mime application/octet-stream 85 #!:mime application/octet-stream 90 #!:mime application/octet-stream 97 #!:mime application/octet-stream 109 #!:mime application/octet-stream 121 #!:mime application/octet-stream [all …]
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/netbsd-src/crypto/external/bsd/openssl.old/dist/doc/man3/ |
H A D | EC_POINT_new.pod | 162 representations. The octet form is the binary encoding of the B<ECPoint> 165 not included. B<BIGNUM> form is the octet form interpreted as a big endian 166 integer converted to a B<BIGNUM> structure. Hexadecimal form is the octet 172 and to EC_POINTs for the formats: octet, BIGNUM and hexadecimal respectively. 175 octet string into the buffer B<buf> of size B<len>, using the specified 180 the octet string contained in the given buffer B<buf> of size B<len>, conforming 190 Notice that, according to the standard, the octet string encoding of the point 191 at infinity for a given curve is fixed to a single octet of value zero and that, 192 vice versa, a single octet of size zero is decoded as the point at infinity. 195 store the octet form. The return value provides the number of octets stored. [all …]
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/netbsd-src/crypto/external/bsd/openssl/dist/doc/man3/ |
H A D | EC_POINT_new.pod | 172 representations. The octet form is the binary encoding of the B<ECPoint> 175 not included. B<BIGNUM> form is the octet form interpreted as a big endian 176 integer converted to a B<BIGNUM> structure. Hexadecimal form is the octet 182 and to EC_POINTs for the formats: octet, BIGNUM and hexadecimal respectively. 185 octet string into the buffer B<buf> of size B<len>, using the specified 190 the octet string contained in the given buffer B<buf> of size B<len>, conforming 200 Notice that, according to the standard, the octet string encoding of the point 201 at infinity for a given curve is fixed to a single octet of value zero and that, 202 vice versa, a single octet of size zero is decoded as the point at infinity. 205 store the octet form. The return value provides the number of octets stored. [all …]
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