| /third_party/mbedtls/tests/suites/ |
| D | test_suite_aes.xts.data | 32 # IEEE P1619/D16 Annex B Test Vectors
37 AES-128-XTS Encrypt IEEE P1619/D16 Vector 1
40 AES-128-XTS Encrypt IEEE P1619/D16 Vector 2
43 AES-128-XTS Encrypt IEEE P1619/D16 Vector 3
49 AES-128-XTS Encrypt IEEE P1619/D16 Vector 4
52 AES-128-XTS Encrypt IEEE P1619/D16 Vector 5
55 AES-128-XTS Encrypt IEEE P1619/D16 Vector 6
58 AES-128-XTS Encrypt IEEE P1619/D16 Vector 7
61 AES-128-XTS Encrypt IEEE P1619/D16 Vector 8
64 AES-128-XTS Encrypt IEEE P1619/D16 Vector 9
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| /third_party/wpa_supplicant/wpa_supplicant-2.9_standard/hostapd/ |
| D | README | 1 hostapd - user space IEEE 802.11 AP and IEEE 802.1X/WPA/WPA2/EAP
55 driver. It adds more features to the basic IEEE 802.11 management
57 server for MAC address based access control, IEEE 802.1X Authenticator
58 and dynamic WEP keying, RADIUS accounting, WPA/WPA2 (IEEE 802.11i/RSN)
81 Any wired Ethernet driver for wired IEEE 802.1X authentication
98 IEEE 802.1X
101 IEEE Std 802.1X-2001 is a standard for port-based network access
102 control. In case of IEEE 802.11 networks, a "virtual port" is used
103 between each associated station and the AP. IEEE 802.11 specifies
104 minimal authentication mechanism for stations, whereas IEEE 802.1X
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| D | .config | 47 # IEEE 802.11F/IAPP
50 # WPA2/IEEE 802.11i RSN pre-authentication
53 # IEEE 802.11w (management frame protection)
150 # IEEE Std 802.11r-2008 (Fast BSS Transition)
153 # Use the hostapd's IEEE 802.11 authentication (ACL), but without
154 # the IEEE 802.11 Management capability (e.g., FreeBSD/net80211)
157 # IEEE 802.11n (High Throughput) support
160 # Wireless Network Management (IEEE Std 802.11v-2011)
164 # IEEE 802.11ac (Very High Throughput) support
167 # IEEE 802.11ax HE support
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| D | README.OpenSource | 9 … access point and authentication servers. It implements IEEE 802.11 access point management, IEEE …
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| D | defconfig | 47 # WPA2/IEEE 802.11i RSN pre-authentication
144 # IEEE Std 802.11r-2008 (Fast BSS Transition)
147 # Use the hostapd's IEEE 802.11 authentication (ACL), but without
148 # the IEEE 802.11 Management capability (e.g., FreeBSD/net80211)
151 # Wireless Network Management (IEEE Std 802.11v-2011)
155 # IEEE 802.11ac (Very High Throughput) support
158 # IEEE 802.11ax HE support
161 # final IEEE 802.11ax version.
304 # Interworking (IEEE 802.11u)
364 # Fast Initial Link Setup (FILS) (IEEE 802.11ai)
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| /third_party/wpa_supplicant/wpa_supplicant-2.9/hostapd/ |
| D | README | 1 hostapd - user space IEEE 802.11 AP and IEEE 802.1X/WPA/WPA2/EAP
55 driver. It adds more features to the basic IEEE 802.11 management
57 server for MAC address based access control, IEEE 802.1X Authenticator
58 and dynamic WEP keying, RADIUS accounting, WPA/WPA2 (IEEE 802.11i/RSN)
81 Any wired Ethernet driver for wired IEEE 802.1X authentication
98 IEEE 802.1X
101 IEEE Std 802.1X-2001 is a standard for port-based network access
102 control. In case of IEEE 802.11 networks, a "virtual port" is used
103 between each associated station and the AP. IEEE 802.11 specifies
104 minimal authentication mechanism for stations, whereas IEEE 802.1X
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| D | android.config | 41 # IEEE 802.11F/IAPP
44 # WPA2/IEEE 802.11i RSN pre-authentication
47 # IEEE 802.11w (management frame protection)
48 # This version is an experimental implementation based on IEEE 802.11w/D1.0
50 # Driver support is also needed for IEEE 802.11w.
130 # IEEE Std 802.11r-2008 (Fast BSS Transition)
133 # Use the hostapd's IEEE 802.11 authentication (ACL), but without
134 # the IEEE 802.11 Management capability (e.g., FreeBSD/net80211)
137 # IEEE 802.11n (High Throughput) support
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| D | defconfig | 47 # IEEE 802.11F/IAPP
50 # WPA2/IEEE 802.11i RSN pre-authentication
53 # IEEE 802.11w (management frame protection)
150 # IEEE Std 802.11r-2008 (Fast BSS Transition)
153 # Use the hostapd's IEEE 802.11 authentication (ACL), but without
154 # the IEEE 802.11 Management capability (e.g., FreeBSD/net80211)
157 # IEEE 802.11n (High Throughput) support
160 # Wireless Network Management (IEEE Std 802.11v-2011)
164 # IEEE 802.11ac (Very High Throughput) support
167 # IEEE 802.11ax HE support
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| D | .config | 47 # IEEE 802.11F/IAPP
50 # WPA2/IEEE 802.11i RSN pre-authentication
53 # IEEE 802.11w (management frame protection)
150 # IEEE Std 802.11r-2008 (Fast BSS Transition)
153 # Use the hostapd's IEEE 802.11 authentication (ACL), but without
154 # the IEEE 802.11 Management capability (e.g., FreeBSD/net80211)
157 # IEEE 802.11n (High Throughput) support
160 # Wireless Network Management (IEEE Std 802.11v-2011)
164 # IEEE 802.11ac (Very High Throughput) support
167 # IEEE 802.11ax HE support
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| D | README.OpenSource | 9 … access point and authentication servers. It implements IEEE 802.11 access point management, IEEE …
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| D | ChangeLog | 17 * added support for MACsec Key Agreement using IEEE 802.1X/PSK
86 * added support for FILS (IEEE 802.11ai) shared key authentication
103 - added IEEE VLAN support (including tagged VLANs)
190 - fix IEEE 802.1X/WEP EAP reauthentication and rekeying to use
510 * added support for configuring GCMP cipher for IEEE 802.11ad
529 * Add support for IEEE 802.11v Time Advertisement mechanism with UTC
538 * atheros: Add support for IEEE 802.11w configuration.
629 * Reorder some IEs to get closer to IEEE 802.11 standard. Move
645 * fix number of issues with IEEE 802.11r/FT; this version is not
647 * add SA Query Request processing in AP mode (IEEE 802.11w)
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| /third_party/skia/third_party/externals/swiftshader/third_party/llvm-10.0/llvm/include/llvm/ADT/ |
| D | APFloat.h | 27 return U.IEEE.METHOD_CALL; \
699 IEEEFloat IEEE; member
711 new (&IEEE) IEEEFloat(Semantics, std::forward<ArgTypes>(Args)...); in Storage()
723 IEEE.~IEEEFloat(); in ~Storage()
735 new (this) IEEEFloat(RHS.IEEE); in Storage()
747 new (this) IEEEFloat(std::move(RHS.IEEE)); in Storage()
760 IEEE = RHS.IEEE;
774 IEEE = std::move(RHS.IEEE);
797 return U.IEEE; in getIEEE()
799 return U.Double.getFirst().U.IEEE; in getIEEE()
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| D | FloatingPointMode.h | 26 IEEE, enumerator
39 .Cases("", "ieee", DenormalMode::IEEE) in parseDenormalFPAttribute()
49 case DenormalMode::IEEE: in denormalModeName()
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| /third_party/wpa_supplicant/wpa_supplicant-2.9_standard/wpa_supplicant/doc/docbook/ |
| D | wpa_background.sgml | 14 <refpurpose>Background information on Wi-Fi Protected Access and IEEE 802.11i</refpurpose>
19 <para>The original security mechanism of IEEE 802.11 standard was
22 (Security) of IEEE 802.11 working group
25 2004. The IEEE 802.11i amendment to the IEEE 802.11 standard was
29 of the IEEE 802.11i work (draft 3.0) to define a subset of the
37 <para>IEEE 802.11 standard defined wired equivalent privacy (WEP)
57 EAP just like IEEE 802.1X is using or pre-shared keys without need
73 <title>IEEE 802.11i / WPA2</title>
75 <para>The design for parts of IEEE 802.11i that were not included
76 in WPA has finished (May 2004) and this amendment to IEEE 802.11
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| D | wpa_supplicant.sgml | 14 <refpurpose>Wi-Fi Protected Access client and IEEE 802.1X supplicant</refpurpose>
42 wireless networks. The original wireless LAN standard, IEEE 802.11,
45 secure. IEEE 802.1X authentication and frequently changed dynamic WEP keys
48 Access and IEEE 802.11i amendment to the wireless LAN standard introduce
49 a much improved mechanism for securing wireless networks. IEEE 802.11i
60 Server. In addition, it controls the roaming and IEEE 802.11
103 <para>If WPA-EAP: integrated IEEE 802.1X Supplicant
110 <para>If WPA-EAP: master key is received from the IEEE 802.1X
138 <para>Supported WPA/IEEE 802.11i features:</para>
147 supported with an integrate IEEE 802.1X Supplicant:</para>
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| /third_party/wpa_supplicant/wpa_supplicant-2.9/wpa_supplicant/doc/docbook/ |
| D | wpa_background.sgml | 10 <refpurpose>Background information on Wi-Fi Protected Access and IEEE 802.11i</refpurpose>
15 <para>The original security mechanism of IEEE 802.11 standard was
18 (Security) of IEEE 802.11 working group
21 2004. The IEEE 802.11i amendment to the IEEE 802.11 standard was
25 of the IEEE 802.11i work (draft 3.0) to define a subset of the
33 <para>IEEE 802.11 standard defined wired equivalent privacy (WEP)
53 EAP just like IEEE 802.1X is using or pre-shared keys without need
69 <title>IEEE 802.11i / WPA2</title>
71 <para>The design for parts of IEEE 802.11i that were not included
72 in WPA has finished (May 2004) and this amendment to IEEE 802.11
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| D | wpa_supplicant.sgml | 10 <refpurpose>Wi-Fi Protected Access client and IEEE 802.1X supplicant</refpurpose>
38 wireless networks. The original wireless LAN standard, IEEE 802.11,
41 secure. IEEE 802.1X authentication and frequently changed dynamic WEP keys
44 Access and IEEE 802.11i amendment to the wireless LAN standard introduce
45 a much improvement mechanism for securing wireless networks. IEEE 802.11i
56 Server. In addition, it controls the roaming and IEEE 802.11
99 <para>If WPA-EAP: integrated IEEE 802.1X Supplicant
106 <para>If WPA-EAP: master key is received from the IEEE 802.1X
134 <para>Supported WPA/IEEE 802.11i features:</para>
143 supported with an integrate IEEE 802.1X Supplicant:</para>
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| /third_party/wpa_supplicant/ |
| D | README.OpenSource | 9 …IEEE 802.11i / RSN). It is suitable for both desktop/laptop computers and embedded systems. Suppli…
18 … access point and authentication servers. It implements IEEE 802.11 access point management, IEEE …
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| /third_party/skia/third_party/externals/swiftshader/third_party/llvm-subzero/include/llvm/ADT/ |
| D | APFloat.h | 661 IEEEFloat IEEE; member
673 new (&IEEE) IEEEFloat(Semantics, std::forward<ArgTypes>(Args)...); in Storage()
685 IEEE.~IEEEFloat(); in ~Storage()
697 new (this) IEEEFloat(RHS.IEEE); in Storage()
709 new (this) IEEEFloat(std::move(RHS.IEEE)); in Storage()
722 IEEE = RHS.IEEE;
736 IEEE = std::move(RHS.IEEE);
759 return U.IEEE; in getIEEE()
761 return U.Double.getFirst().U.IEEE; in getIEEE()
767 return U.IEEE; in getIEEE()
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| /third_party/mesa3d/docs/_extra/specs/ |
| D | INTEL_shader_atomic_float_minmax.txt | 81 the contents of mem. If one of these is an IEEE signaling NaN (i.e.,
83 always considered smaller. If one of these is an IEEE quiet NaN
85 always considered larger. If both are IEEE quiet NaNs or both are
86 IEEE signaling NaNs, the result of the comparison is undefined.
93 the contents of mem. If one of these is an IEEE signaling NaN (i.e.,
95 always considered larger. If one of these is an IEEE quiet NaN (i.e.,
97 considered smaller. If both are IEEE quiet NaNs or both are IEEE
159 * atomicMin and atomicMax implement the IEEE specification with respect to
160 NaN. IEEE considers two different kinds of NaN: signaling NaN and quiet
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| /third_party/wpa_supplicant/wpa_supplicant-2.9/wpa_supplicant/ |
| D | README.OpenSource | 9 …IEEE 802.11i / RSN). It is suitable for both desktop/laptop computers and embedded systems. Suppli…
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| /third_party/wpa_supplicant/wpa_supplicant-2.9_standard/wpa_supplicant/ |
| D | README.OpenSource | 9 …IEEE 802.11i / RSN). It is suitable for both desktop/laptop computers and embedded systems. Suppli…
|
| /third_party/skia/third_party/externals/swiftshader/third_party/llvm-10.0/llvm/lib/Target/AMDGPU/Utils/ |
| D | AMDGPUBaseInfo.h | 672 bool IEEE : 1; member
690 IEEE(true), in SIModeRegisterDefaults()
703 Mode.IEEE = IsCompute; in getDefaultForCallingConv()
710 return IEEE == Other.IEEE && DX10Clamp == Other.DX10Clamp &&
726 if (IEEE != CalleeMode.IEEE) in isInlineCompatible()
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| /third_party/skia/third_party/externals/opengl-registry/extensions/ARB/ |
| D | ARB_shader_precision.txt | 96 precision floating-point variable is expected to match the corresponding IEEE
98 variables within a shader are also encoded according to the IEEE 754
104 required that the precision of internal processing match the IEEE 754 floating-
121 defined by the IEEE 754 standard for 32-bit and 64-bit floating-point numbers.
126 Dividing by 0 results in the appropriately signed IEEE Inf. Any denormalized
184 should refer to existing IEEE and language specifications versus be reproduced
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| /third_party/openGLES/extensions/ARB/ |
| D | ARB_shader_precision.txt | 106 precision floating-point variable is expected to match the corresponding IEEE
108 variables within a shader are also encoded according to the IEEE 754
114 required that the precision of internal processing match the IEEE 754 floating-
131 defined by the IEEE 754 standard for 32-bit and 64-bit floating-point numbers.
136 Dividing by 0 results in the appropriately signed IEEE Inf. Any denormalized
194 should refer to existing IEEE and language specifications versus be reproduced
|