Broadcom WAN Agnostic Residential Gateway
Embedded System Source
Release 4.131.19.0

Broadcom Corporation Confidential. For evaluation use only.

System Requirements

Operating Systems:

• Linux 2.4.20 kernel
• VxWorks Tornado 2.1(END)

Hardware:

• BCM94704AGR, BCM94704MPCB, BCM94712AGR, BCM94712AP, BCM94712LGR, BCM95350GR, BCM95351AGR, BCM95352GR, BCM95352ELGR, or BCM95354GR Base Reference Design -or-
• Base Reference Design with a BCM94318E or BCM94318  MiniPCI card -or-
• Base Reference Design with a BCM94306 MiniPCI card -or-
• Base Reference Design with a BCM94309 MiniPCI card -or-
• Base Reference Design with a BCM94318MPG/BCM94318MPAGH MiniPCI card -or-
• Vendor Equivalent

Current Known Limitations, Problems and Notices 

• Customer shall (i) obtain all government approvals and registrations for Customer's use of the software and (ii) comply with all applicable laws, rules, and regulations in connection therewith (including, without limitation, regulatory requirements under Title 47 CFR Part 15, Industry Canada RSS-210, European Directive 1999/5/EC, and regulations related to RF exposure). Customer understands and acknowledges that the software is subject to all pertinent import and export laws of the United States.
• Linux: In the new multi-SSID  functionality, the linux router only supports port-forwarding for the main SSID.
• Linux: Application triggered port forwarding should only be disabled while traffic is not currently running.
• Linux: Afterburner mode does not support fragmentation. Customer  web pages will need to ensure that this combination is not set. The Broadcom sample web pages does not currently do this.
• Linux and VxWorks: CFE is the only supported boot loader 
• This package includes code used in SES from an SSL implementation written by Eric Young. Please note Eric Young's software includes the following restrictions:

  • Copyright (C) 1995-1998 Eric Young (eay@cryptsoft.com)
    All rights reserved.
    This package is an SSL implementation written by Eric Young (eay@cryptsoft.com).
    Copyright remains Eric Young's, and as such any Copyright notices in the code are not to be removed. If this package is used in a product, Eric Young should be given attribution as the author of the parts of the library used. This can be in the form of a textual message at program startup or in documentation (online or textual) provided with the package. Redistribution and use in source and binary forms, with or without modification, are permitted provided that the following conditions are met:

    1. Redistributions of source code must retain the copyright notice, this list of conditions and the following disclaimer.

    2. Redistributions in binary form must reproduce the above copyright notice, this list of conditions and the following disclaimer in the documentation and/or other materials provided with the distribution.

    3. All advertising materials mentioning features or use of this software must display the following acknowledgement:
    "This product includes software written by Eric Young (eay@cryptsoft.com)"

    4. If you include any Windows specific code (or a derivative thereof) from the apps directory (application code) you must include an acknowledgement:

    • "This product includes software written by Tim Hudson (tjh@cryptsoft.com)"
      THIS SOFTWARE IS PROVIDED BY ERIC YOUNG ``AS IS'' AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE AUTHOR OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
  • The license and distribution terms for any publicly available version or derivative of this code cannot be changed. i.e. this code cannot simply be copied and put under another distribution license [including the GNU Public License.]

What's New in Release 4.131.19.0?

• Linux and VxWorks: Added support for BCM95354 
• Linux: Added support for a single port USB 2.0 host controller 

WiFi Results

WiFi 802.11a/g+WPA_WPA2 AP TEST CONFIGURATIONS
	Linux	VxWorks
	WPA_WPA2 Testplan ver 1.2	WPA_WPA2 Testplan ver 1.2
4.1  AP Out Of Box and Configurability and Initial Ping Tests
4.1.1 OOB Verification for an Access Point
APUT: (essid : wifi, beacon int 100,ch 11,RTS/FRAG/Security : off,Preamble long)
STA1: Atheros(essid : wifi,ch 11,RTS/FRAG/Security : off)
STA2: Broadcom(essid : wifi,ch 11,RTS/FRAG,WEP, key = 0x9876543210)
STA3: Conexant (essid : wifi,ch 11,RTS/FRAG,WPA-PSK = 12345678)
STA4: Intel (essid : wifi,ch 11,RTS/FRAG,WPA2-PSK = 12345678)
- APUT will allow association and pings only with STA1	Pass	Pass
4.1.2 Configurability Tests
4.1.2.1  General  Configurability Tests
-  ESSID	Pass	Pass
-  Channel	Pass	Pass
-  Setting of a fixed IP address and sub-net mask.	Pass	Pass
4.1.2.2 Security Specific Configurability Tests
-  Turn WPA2 on or off	Pass	Pass
-  When WPA2 is turned on, further verify that a WPA2-only mode or, a mixed mode that allows either WPA2/WPA STAs only to associate mixed modes can be selected.	Pass	Pass
-  When WPA(2) is turned on, WEP cannot be turned on,	Pass	Pass
-  When WPA(2) is turned on, verify that WPA(2)-PSK or WPA(2)-Enterprise running an EAP method modes can be selected for those APs supporting Enterprise,	Pass	Pass
-   Specify the default pass phrase (“12345678”) for WPA(2)-PSK can be entered	Pass	Pass
-   The shared secret between the AP and the RADIUS server must be capable of using 64 characters (octets)	Pass	Pass
4.1.3: WPA2 Initial Ping Test
APUT: (essid :wifi,Security: WPA2-TLS, Ch 11, Basic Rate default) - Supplicant/Server :Funk
- Verify Atheros STA can ping and associate within 90 seconds	Pass	Pass
- Verify Conexant STA can ping and associate within 90 seconds	Pass	Pass
- Verify Broadcom  STA can ping and associate within 90 seconds	Pass	Pass
- Verify Intel  STA can ping and associate within 90 seconds	Pass	Pass
4.1.4:  WPA2 mixed mode validation while associating with an WPA STA
APUT: (essid :wifi,Security: WPA & WPA2-TLS, Ch 11/36, Basic Rate default) - Supplicant/Server :Funk,STA BRCM
- Verify APUT has only a WPA IE (Tag #221) and no other IE's in the third message of the 4-way handshake.	Pass	Pass
4.2 AP/Station Association and Throughput Tests
4.2.2.1: Configuration #A1,g-band
APUT: (Security off, Channel 11, Basic Rate Set #1)
G STA:  Atheros-G STA (OS WinXP, RTS off, FRAG off, PS no)
- Association	Pass	Pass
- Verify Basic Rate (EID=1 and EID=50) to be BRS#1	Pass	Pass
- A1GDT1: FileSendlong tx  [15.553]	Pass	Pass
- A1GDT2: FileSendlong rx [14.847]	Pass	Pass
- A1GDT3: InquiryLong tx  [1.117]	Pass	Pass
- Data Transfer 2 (NAV):  FileSendlong tx  < 80% of measured DT#1	Pass	Pass
- Data Transfer 2 (PLCP):  FileSendlong tx  < 80% of measured DT#1	Pass	Pass
4.2.2.2 Configuration #A2,b-band
APUT: (WPA2-TLS, Channel 11, Basic Rate default)
STA:  Conexant, RTS off, FRAG 512, PS no,Supplicant:Microsoft,Server:Meetinghouse)
- Association	Pass	Pass
- A2DT1: FileSendlong tx  [3.761]	Pass	Pass
- A2DT2: FileSendlong rx [2.319]	Pass	Pass
- A2DT3: InquiryLong tx  [0.573]	Pass	Pass
4.2.2.3: Configuration #A3,a-band
APUT: (WPA2-PSK 12345678, Channel 36, Basic Rate defaul)(test in g-band for 'g' only APs)
STA:  Broadcom, RTS off, FRAG off, PS PSPoll ,Supplicant Microsoft)
- Association	Pass	Pass
- A3DT1: FileSendlong tx	Pass	Pass
- A3DT2: FileSendlong rx	Pass	Pass
- A3DT3: InquiryLong tx	Pass	Pass
4.2.2.4 Configuration #A4 – Replay Counter Processing,a-band(test in g-band for 'g' only APs)
APUT: (WPA2-PSK 12345678, Channel 11, Basic Rate default)
STA:  Intel, RTS off, FRAG off, PS On,PSnonPoll,Supplicant Microsoft)
- Association	Pass	Pass
- A4DT4: InquiryL-Replay runs to completition and the number of bytes received by E1 > 6.6 MegaBytes	Pass	Pass
4.2.2.5: Configuration  #A5 – Mixed WPA2/WPA mode,a-band(test in g-band for 'g' only APs)
APUT: (Security WPA mixed mode TLS, Channel 36, Basic Rate default)
STA1 :  Atheros WPA2-TLS,RTS off, FRAG off, PS no,Supplicant/Server Microsoft)
STA3 :  Broadcom, WPA-TLS,RTS off, FRAG off, PS no,Supplicant/Server Microsoft)
- Associations	Pass	Pass
- A5DT1WPA2: FileSendlong tx [7.674][g-mode,6.311]	Pass	Pass
- A5DT1WPA: FileSendlong tx  [7.699][g-mode,6.442]	Pass	Pass
- A5DT2WPA2: FileSendlong rx  [6.934][g-mode,7.116]	Pass	Pass
- A5DT2WPA: FileSendlong rx  [9.080][g-mode,7.162]	Pass	Pass
- A5DT3WPA2: InquiryLong tx  [0.947][g-mode,0.354]	Pass	Pass
- A5DT3WPA: InquiryLong tx  [0.918][g-mode,0.346]	Pass	Pass
4.2.2.6: Configuration  #A6 – Mixed WPA2/WPA mode,a-band(test in g-band for 'g' only APs)
APUT: (Security WPA mixed PSK 12345678, Channel 1, Basic Rate default)
STA1 :  Atheros WPA2-PSK,RTS off, FRAG off, PS no,Supplicant Microsoft)
STA3 :  Broadcom, WPA-PSK,RTS off, FRAG off, PS On,Supplicant Microsoft)
- Associations	Pass	Pass
- A6DT1WPA2: FileSendlong tx	Pass	Pass
- A6DT1WPA: FileSendlong tx	Pass	Pass
- A6DT2WPA2: FileSendlong rx	Pass	Pass
- A6DT2WPA: FileSendlong rx	Pass	Pass
- A6DT3WPA2: InquiryLong tx	Pass	Pass
- A6DT3WPA: InquiryLong tx	Pass	Pass
4.2.3: Testing Mixed G and B  Interoperability
4.2.3.1 Configuration #MA7
APUT: (WEP off, Channel 2, Basic Rate Set #1)
G STA:  Intel-G (OS WinXP, RTS off, FRAG off, PS no)
B STA:  Conexant-B STA (OS WinXP, RTS off, FRAG off, PS no)
- Association	Pass	Pass
- MA7DT1-G: FileSendlong tx  [2.927]	Pass	Pass
- MA7DT1-B:  FileSendlong tx  [2.823]	Pass	Pass
- MA7DT2-G: FileSendlong tx  [2.903]	Pass	Pass
- MA7DT2-B:  FileSendlong tx  [2.510]	Pass	Pass
- MA7DT3-G:  InquiryLong tx  [0.231]	Pass	Pass
- MA7DT3-B:   InquiryLong tx  [0.534]	Pass	Pass
4.2.3.2: Configuration #MA8
APUT: (WEP: 9876543210, Channel 4, Basic Rate Set #1)
G STA: Broadcom (RTS Off, FRAG off, PS no)
B STA: Intel (OS WinXP, RTS 256, FRAG off, PS no)
- Association	Pass	Pass
- MA8DT1-G: FileSendlong tx  [4.140]	Pass	Pass
- MA8DT1-B:  FileSendlong tx  [2.253]	Pass	Pass
- MA8DT2-G: FileSendlong tx  [4.890]	Pass	Pass
- MA8DT2-B:  FileSendlong tx  [1.49]	Pass	Pass
- MA8DT3-G:  InquiryLong tx  [0.510]	Pass	Pass
- MA8DT3-B:   InquiryLong tx  [0.421]	Pass	Pass
4.2.3.3: Configuration #MA9
APUT: (WPA-PSK: 12345678, Channel 6, Basic Rate Set #1)
B STA: Globespan-B STA (OS WinXP, RTS off, FRAG 512, PS no)
G STA: Broadcom (OS WinXP, RTS off, FRAG off, PS PSPoll)
- Association	Pass	Pass
- MA9DT1-G: FileSendlong tx  [0.100]	Pass	Pass
- MA9DT1-B:  FileSendlong tx  [3.36]	Pass	Pass
- MA9DT2-G: FileSendlong tx  [0.100]	Pass	Pass
- MA9DT2-B:  FileSendlong tx  [2.22]	Pass	Pass
- MA9DT3-G:  InquiryLong tx  [0.002]	Pass	Pass
- MA9DT3-B:   InquiryLong tx [0.62]	Pass	Pass
4.2.3.4: Configuration #MA10
APUT: (WPA2-TLS, Channel 8, Basic Rate Set #1) - MS Radius Server
B STA:  Globespan-B STA (OS WinXP, RTS 256, FRAG 512, PS no)
G STA:  Atheros-G STA (OS WinXP, RTS off, FRAG off, PS no)
- Association	Pass	Pass
- MA10DT1-G: FileSendlong tx  [2.523]	Pass	Pass
- MA10DT1-B:  FileSendlong tx  [0.885]	Pass	Pass
- MA10DT2-G: FileSendlong tx  [1.109]	Pass	Pass
- MA10DT2-B:  FileSendlong tx  [1.223]	Pass	Pass
- MA10DT3-G:  InquiryLong tx  [0.177]	Pass	Pass
- MA10DT3-B:   InquiryLong tx  [0.003]	Pass	Pass
4.2.3.5: Configuration #MA11
APUT: ( WPA2/WPA Mixed TLS mode, CH 10, Supplicant/Server Microsoft,Basic Rate #1 )
B STA1:  Globespan-B STA (WPA-TLS, RTS off, FRAG off, PS no)
B STA2:  Intel-B STA (WPA2-TLS, RTS off, FRAG off, PS no)
G STA1:  Atheros (WPA-TLS , RTS off, FRAG off, PS no)
G STA2: Broadcom(WPA2-TLS, RTS off, FRAG off, PS no)
- Association	Pass	Pass
- MA11DT2:  Atheros -  [.700]	Pass	Pass
- MA11DT2:  Conexant -  [0.887]	Pass	Pass
- MA11DT2:  Broadcom -  [0.650]	Pass	Pass
- MA11DT2:  Intel -  [1.228]	Pass	Pass
4.2.3.6: Configuration #MA12
APUT: (ESSID Gonly, WEP off, Channel 11, Basic Rate Set #2)
O-B-AP: Broadcom (ESSID overlapper, WEP off, Channel 11)
- Verify beacons from APUT have set the Use_Protection bit (b1) and	Pass	Pass
- Verify beacons from the APUT have not set NonERP_Present bit (b0)	Pass	Pass
4.2.3.7: Configuration #MA13
4.2.3.7.1: Barker Bit Test
APUT: (ESSID BGMixed, Security  off, Channel 11, Basic Rate default)
O-B-STA:  Intel-B ,ESSID Overlapper,Preamble Long
- Verify beacons from APUT have the Barker Bit (bit 2 of octet #3 of the ERP IE) set	Pass	Pass
4.2.3.7.2: OLBC Test
APUT: (ESSID Gonly, WEP off, Channel 11, Basic Rate Set #2)
O-B-STA:  Intel-B associate to O-G-AP
O-G-AP:  Broadcom (ESSID overlapper, Security off, Channel 11, Basic Rate Set#1
- Verify beacons from APUT have set the Use_Protection bit (b1) and	Pass	Pass
- Verify beacons from the APUT have not set NonERP_Present bit (b0)	Pass	Pass
Section 4.3:  Re Association/Bridging Tests
WPA2-PSK  Re Association/Bridging Tests,dual band APs:a-band,G-only APs:g-band
Broadcom AP &  APUT: ( WPA2 PSK,12345678, CH 6/36, Basic Rate default)
STA:  Atheros STA, RTS off, FRAG off, PS no,Supplicant Microsoft
- Associate STA to APUT and start pinging session	Pass	Pass
- Start Broadcom WiFi AP  fully and stop APUT.  Verify STA associates to Broadcom WiFi AP.	Pass	Pass
- Start APUT fully and stop Broadcom WiFi AP.  Verify STA associates to APUT	Pass	Pass
WPA-PSK  Re Association/Bridging Tests,dual band APs,g-band,G-only APs: b-band
Broadcom AP &  APUT: ( WPA PSK,12345678, CH 6, Basic Rate default)
STA:  Atheros STA, RTS off, FRAG off, PS no,Supplicant Microsoft
- Associate STA to APUT and start pinging session	Pass	Pass
- Start Broadcom WiFi AP  fully and stop APUT.  Verify STA associates to Broadcom WiFi AP.	Pass	Pass
- Start APUT fully and stop Broadcom WiFi AP.  Verify STA associates to APUT	Pass	Pass
Section 4.4: Multicast Test
MCA#1,a-band(test in g-band for 'g' only APs)
APUT: (ESSID Multicast, WPA2 PSK,12345678, Channel 11, Basic Rate default)
STA1 :  Atheros WPA2 PSK,RTS off, FRAG off, PS no,Supplicant Funk)
STA4 :  Intel WPA2 PSK,RTS off, FRAG off, PS no,Supplicant Funk)
- Realaud script completes without errors	Pass	Pass
MCA#2,b-band
APUT: (ESSID Multicast, WPA and WPA2 PSK,12345678, Channel 11, Basic Rate default)
STA3 :  Broadcom WPA PSK,RTS off, FRAG off, PS On,Supplicant Funk)
STA2 :  Conexant  WPA2 PSK,RTS off, FRAG off, PS no,Supplicant Funk)
- Realaud script completes without errors	Pass	Pass
4.5 STA Pre-authentication
4.5.1,4.5.2 Pre-authentication Test
-  Broadcom AP:ESSID,Pcache,Security: WPA2-TLS , Ch: 1,Supplicant/Server :Funk
-  APUT :ESSID,Pcache,Security: WPA2-TLS , Ch: 1,Supplicant/Server :Funk
-  STA 3 : Broadcom ,Security: WPA2-TLS , Ch: 1,Supplicant:Funk
- Associate STAUT with either AP and iInitiate a continuous ping from STAUT to the wired network.	Pass	Pass
- Power off the AP to which the STAUT is currently associated and verify that the ping resumes within 90 seconds.	Pass	Pass
- Wired sniffer capture - Verify  that an EAP-Success frame with the ethertype of “pre-authentication” (0x88c7) was sent to the STAUT’s MAC address.	Pass	Pass
- Wireless sniffer capture - Verify that a PMKID is included in the association or re-association request from  STAUT to AP1	Pass	Pass
- Wireless sniffer capture - Verify that the same PMKID is included in message 1 of the 4-way handshake sent by AP1	Pass	Pass
- Wireless sniffer capture - Verify that no EAP frames (full 802.1X exchange) are sent from STAUT to AP1 or from AP1 to STAUT.	Pass	Pass
4.6 PMK Caching Test
- (APUT:ESSID,Pcache,Security: WPA2-TLS with Preauth disabled, Ch: 11/36,Supplicant/Server :Funk
-  STA 3 : Broadcom ,Security: WPA2-TLS , Ch: 1,Supplicant:Funk
- Associate STAUT with either AP and iInitiate a continuous ping from STAUT to the wired network.	Pass	Pass
- Force a roaming event for STAUT from the initial AP to second AP in the test bed without clearing the PMK cache on the initial AP.	Pass	Pass
- Verify STAUT ping resumes within 90 seconds.	Pass	Pass
- Force a re-association event for STAUT from the second AP back to the initial AP .	Pass	Pass
- Verify in the sniff that a PMKID is included in the association or re-association request from STAUT to initial AP	Pass	Pass
-  Verify that the same PMKID is included in message 1 of the 4-way handshake sent by the initial AP to the STAUT	Pass	Pass
-  Verify that no EAP frames (full 802.1X exchange) are sent from STAUT to the initial AP.	Pass	Pass
Section 4.7 WPA Specific Countermeasures,g-band
APUT: (ESSID APUT, WPA2 and WPA PSK,12345678, Channel 11, Basic Rate Set #1)
- 2 STAs associate,Atheros with  WPA2 PSK and Broadcom with WPA PSK and ping to the AP.
- Attacker  to generate a single MIC-attack bad data frame.	Pass	Pass
- Verify the next 70 seconds that ping sessions are still alive.	Pass	Pass
- Attacker  to generate a second MIC-attack bad frame.	Pass	Pass
- Verify the next 50 seconds that ping sessions are still alive.	Pass	Pass
- Attacker to generate a third MIC-attack bad data frame.	Pass	Pass
- Verify that the ping sessions are dead on both WPA2 and WPA STAs.	Pass	Pass
- Verify that the ping sessions are re-established after 60 seconds.	Pass	Pass
- Attacker to generate a MIC failure report.	Pass	Pass
- Verify the next 70 seconds that ping sessions are still alive.	Pass	Pass
- Attacker  to generate a second MIC failure report.	Pass	Pass
- Verify the next 50 seconds that ping sessions are still alive.	Pass	Pass
- Attacker  to generate a third MIC MIC failure report.	Pass	Pass
- Verify that the ping sessions on both WPA2 and WPA STAs.	Pass	Pass
- Verify that the ping sessions are re-established after 60 seconds.	Pass	Pass
4.8 AP WPA2s Negative Tests.
Section 4.8.1: Non-association with a WEP STA
APUT: (Security WPA mixed mode TLS, Channel 1, Basic Rate default)
STA: Atheros WEP-9876543210, RTS off, FRAG off, PS no
- Verify STA will not associate and ping  within 90 seconds	Pass	Pass
Section 4.8.2: Non-Association with a STA not using Encryption
APUT: (Security WPA mixed mode TLS, Channel 1, Basic Rate default)
STA: Any, No security, RTS off, FRAG off, PS no
- Verify STA will not associate and ping  within 90 seconds	Pass	Pass
Section 4.8.3 :Non-Association with a STA using not using WPA2
APUT: ( WPA2 PSK,12345678, CH 1, Basic Rate default
STA: Any WPA PSK,12345678, RTS off, FRAG off, PS no
- Verify STA  will not associate and ping  within 90 seconds	Pass	Pass
Section 4.8.4 WPA-PSK – WPA-TLS Rejection
4.8.4.1  Non-Association with a WPA2-PSK configured Access Point
APUT: ( WPA2 PSK,12345678, CH 1, Basic Rate default)
STA1:  Any ref STA1,WPA2 PSK,12345678, RTS off, FRAG off, PS no
STA2: Any ref STA1, WPA2 TLS, RTS off, FRAG off, PS no
- Verify STA2 cant ping	Pass	Pass
4.8.4.2 Non-Association with a WPA2-TLS configured Access Point
APUT: ( WPA2 TLS, CH 1, Basic Rate default)
STA1:  Any ref STA1,WPA2 TLS, RTS off, FRAG off, PS no
STA2: Any ref STA1, WPA2 PSK,12345678, RTS off, FRAG off, PS no
- Verify STA2 cant ping	Pass	Pass
4.9  802.11d Testing(OPTIONAL)
4.9.1 Country Information Element,a,g bands
APUT: Default settings simulating using device for 1st time,countries 1-5,randomly selected countries.
STA:  Any STA
Country 1, Probe resp. contains same Country Information element as found in the beacon,STA can associate.
Country 2, Probe resp. contains same Country Information element as found in the beacon,STA can associate.
Country 3, Probe resp. contains same Country Information element as found in the beacon,STA can associate.
Country 4, Probe resp. contains same Country Information element as found in the beacon,STA can associate.
Country 5, Probe resp. contains same Country Information element as found in the beacon,STA can associate.
4.9.2 Power Constraint Element,a-band only
APUT:  Default settings simulating using device for 1st time
STA:  Any STA
- Beacons and probe response messages contain Power Constraint Element(IE=32).
4.10  802.11h Testing(OPTIONAL)
4.10.1 Channel Switch Announcement Element,a-band only
APUT:  Default settings simulating using device for 1st time
STA:  Any STA
- Initiate channel switch on the AP,Channel Switch Announcement Element (IE=37) in beacons after channel switch, repeated in subsequent beacons (TBTT) 0-255 times.
4.11 Extended EAP tests (Enterprise APs only)
4.11.2 Category 3 & Category 2 APs
4.11.2.1: Configuration #ExA14
APUT: ( WPA2-TTLS, CH 11, Basic Rate #2 ) - Funk Server
STA:  Conexant(OS WinXP, RTS off, FRAG off, PS no,Supplicant Meetinghouse)
- Association Positive Test	Pass	Pass
- Association Negative Test,Expired Station Certificate	Pass	Pass
4.11.2.2: Configuration #ExA15
APUT: ( WPA2-PEAP0, CH 11, Basic Rate #2 ) - Microsoft Radius Server
STA: Atheros (OS WinXP, RTS off, FRAG off, PS no,Supplicant Microsoft)
- Association Positive Test	Pass	Pass
- Association Negative Test,Expired Station Certificate	Pass	Pass
4.11.2.3: Configuration #ExA16
APUT: ( WPA2-PEAP1, CH 11, Basic Rate #2 ) - Meetinghouse Radius Server
STA:  Conexant (OS WinXP, RTS off, FRAG off, PS no,Supplicant Funk)
- Association Positive Test	Pass	Pass
- Association Negative Test,Expired Station Certificate	Pass	Pass
4.11.2.4: Configuration #ExA17
APUT: ( WPA2-TLS, CH 11, Basic Rate #2 ) - Devicescape Radius Server
STA:  Conexant(OS WinXP, RTS off, FRAG off, PS no,Supplicant Devicescape)
- Association Positive Test	Pass	Pass
- Association Negative Test,Expired Station Certificate	Pass	Pass
Section 4.12: Dual band APs
4.12.1 Dual Band 802.11a and 802.11g APs (#DBA1)
APUT: (WPA2-TLS,Microsoft Server)
G-STA:  Broadcom (essid:eras, RTS off, FRAG off, PS no)
A-STA:  Atheros (essid:a,OS WinXP, RTS off, FRAG off, PS no)
- Association	n/a	n/a
- DBA1DT1:A STA --> G STA[9.950]	n/a	n/a
- DBA1DT2:G STA --> A STA[10.911]	n/a	n/a
4.12.2 Dual Band 802.11a and 802.11b-only APs (#DBA2)
APUT: (WPA2-TLS,Meetinghouse Server)
B-STA:  Conexant (essid:crossband,OS WinXP, RTS off, FRAG off, PS no)
A-STA:  Broadcom (essid:crossband,OS WinXP, RTS off, FRAG off, PS no)
- Association	n/a	n/a
- DBA2DT1:A STA --> B STA[1.537]	n/a	n/a
- DBA2DT2:B STA --> A STA[1.567]	n/a	n/a

 

WiFi 802.11 a/g + WMM  AP Interoperability Test Matrix	Linux	VxWorks
	WMM Testplan ver 1.3.2,06/01/06	WMM Testplan ver 1.3.2,06/01/06
4.1 Test WMM-A1: Basic WMM Association and Transmission:1 WMM APUT with 1 WMM STA
- AP: APUT,Security:Off, Ch: 36(Channel 1 for a 'g' only AP)
- STA : Atheros, Security Off, PS Off
1.   - Verify Beacon frame	Pass	Pass
2.   - Verify If Probe Respone contains correct WMM parameter elements.	Pass	Pass
3.   - Verify If Association Response has WMM parameter elements matching the ones in the beacon.	Pass	Pass
4.    AP Transmit  RTP1_BE,RTP2_VI,RTP3_BE
- Record tx throughput of RTP1_BE	Pass	Pass
- Record tx throughput of RTP2_VI (RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record tx throughput of RTP3_BE	Pass	Pass
5.    AP Transmit  RTP1_BE,RTP2_VI, Receive RTP3_BE
- Record tx throughput of RTP1_BE	Pass	Pass
- Record tx throughput of RTP2_VI( RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record rx throughput of RTP3_BE	Pass	Pass
6.    AP Transmit  RTP3_BE, Receive  RTP1_BE,RTP2_VI
- Record rx throughput of RTP1_BE	Pass	Pass
- Record rx throughput of RTP2_VI (RTP2-P2/RTP2-P1>=79%)	Pass	Pass
- Record tx throughput of RTP3_BE	Pass	Pass
7.    AP Transmit  RTP3_VI, Receive RTP1_VI,RTP2_VO
- Record rx throughput of RTP1_VI	Pass	Pass
- Record rx throughput of RTP2_VO(RTP2-P2/RTP2-P1>=76%)	Pass	Pass
- Record tx throughput of RTP3_VI	Pass	Pass
8.    AP Transmit  RTP3_BK, Receive RTP1_BK,RTP2_BE
- Record rx throughput of RTP1_BK	Pass	Pass
- Record rx throughput of RTP2_BE(RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record tx throughput of RTP3_BK	Pass	Pass
4.2 Test WMM-A2: Traffic differentiation in single BSS: 1 WMM APUT and 2 WMM STAs)
4.2.3.1 WMM-A2- No Security
- AP: APUT,Security:Off, Ch: 1,b-band
- STA1,Broadcom: Security Off, PS Off
- STA2, Atheros: Security Off, PS Off
1.   Verify Beacon frame	Pass	Pass
2.   If a Probe Request occurs and STAUT Probe Response contains  WMM element,Pass	Pass	Pass
3.  If  Association Response contains WMM parameter element AND STA Associated, PASS	Pass	Pass
4. APUT Transmit RTP1_BE,RTP2_VI,RTP3_BE,STA1 Receive RTP1_BE,RTP2_VI,STA2 Receive RTP3_BE
- Record tx throughput of RTP1_BE	Pass	Pass
- Record tx throughput of RTP2_VI (RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record rx throughput of RTP3_BE	Pass	Pass
5. APUT tx RTP1_BE,RTP2_VI,rx RTP3_BE,STA1 rx RTP1_BE,RTP2_VI,STA2 tx  RTP3_BE
- Record tx throughput of RTP1_BE	Pass	Pass
- Record rx throughput of RTP2_VI(RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record rx throughput of RTP3_BE	Pass	Pass
6. APUT tx RTP3_BE,rx RTP2_VI, RTP1_BE,STA1 tx RTP1_BE,RTP2_VI,STA2 rx  RTP3_BE
- Record rx throughput of RTP1_BE	Pass	Pass
- Record rx throughput of RTP2_VI(RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record tx throughput of RTP3_BE	Pass	Pass
7. APUT tx RTP1_VI,RTP2_VO,RTP3_VI,STA1 rx RTP1_VI,RTP2_VO,STA2 rx RTP3_VI
- Record tx throughput of RTP1_VI	Pass	Pass
- Record tx throughput of RTP2_VO(RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record tx throughput of RTP3_VI	Pass	Pass
8. APUT tx RTP1_VI,RTP2_VO,rx RTP3_VI,STA1 rx RTP1_VI,RTP2_VO,STA2 tx RTP3_VI
- Record rx throughput of RTP1_VI	Pass	Pass
- Record rx throughput of RTP2_VO(RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record rx throughput of RTP3_VI	Pass	Pass
9. APUT tx RTP1_BK,RTP2_BE,RTP3_BK,STA1 rx RTP1_BK,RTP2_BE,STA2 rx  RTP3_BK
- Record tx throughput of RTP1_BK	Pass	Pass
- Record tx throughput of RTP2_BE(RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record tx throughput of RTP3_BK	Pass	Pass
10. APUT tx RTP1_BK,RTP2_BE,rx RTP3_BK,STA1 rx RTP1_BK,RTP2_BE,STA2 tx  RTP3_BK
- Record tx throughput of RTP1_BK	Pass	Pass
- Record tx throughput of RTP2_BE(RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record rx throughput of RTP3_BK	Pass	Pass
4.2.3.2 WMM-A2-WEP
- AP: APUT,Security:Off, Ch: 1,,b-band
- STA1,Conexant: Security WEP : 9876543210, PS Off
- STA2, Intel: Security WEP:9876543210, PS Off
1.   Verify Beacon frame	Pass	Pass
2.   If a Probe Request occurs and STAUT Probe Response contains  WMM element,Pass	Pass	Pass
3.  If  Association Response contains WMM parameter element AND STA Associated, PASS	Pass	Pass
4. APUT Transmit RTP1_BE,RTP2_VI,RTP3_BE,STA1 Receive RTP1_BE,RTP2_VI,STA2 Receive RTP3_BE
- Record tx throughput of RTP1_BE	Pass	Pass
- Record tx throughput of RTP2_VI (RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record rx throughput of RTP3_BE	Pass	Pass
5. APUT tx RTP1_BE,RTP2_VI,rx RTP3_BE,STA1 rx RTP1_BE,RTP2_VI,STA2 tx  RTP3_BE
- Record tx throughput of RTP1_BE	Pass	Pass
- Record rx throughput of RTP2_VI(RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record rx throughput of RTP3_BE	Pass	Pass
6. APUT tx RTP3_BE,rx RTP2_VI, RTP1_BE,STA1 tx RTP1_BE,RTP2_VI,STA2 rx  RTP3_BE
- Record rx throughput of RTP1_BE	Pass	Pass
- Record rx throughput of RTP2_VI(RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record tx throughput of RTP3_BE	Pass	Pass
7. APUT tx RTP1_VI,RTP2_VO,RTP3_VI,STA1 rx RTP1_VI,RTP2_VO,STA2 rx RTP3_VI
- Record tx throughput of RTP1_VI	Pass	Pass
- Record tx throughput of RTP2_VO(RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record tx throughput of RTP3_VI	Pass	Pass
8. APUT tx RTP1_VI,RTP2_VO,rx RTP3_VI,STA1 rx RTP1_VI,RTP2_VO,STA2 tx RTP3_VI
- Record rx throughput of RTP1_VI	Pass	Pass
- Record rx throughput of RTP2_VO(RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record rx throughput of RTP3_VI	Pass	Pass
9. APUT tx RTP1_BK,RTP2_BE,RTP3_BK,STA1 rx RTP1_BK,RTP2_BE,STA2 rx  RTP3_BK
- Record tx throughput of RTP1_BK	Pass	Pass
- Record tx throughput of RTP2_BE(RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record tx throughput of RTP3_BK	Pass	Pass
10. APUT tx RTP1_BK,RTP2_BE,rx RTP3_BK,STA1 rx RTP1_BK,RTP2_BE,STA2 tx  RTP3_BK
- Record tx throughput of RTP1_BK	Pass	Pass
- Record tx throughput of RTP2_BE(RTP2-P2/RTP2-P1>=89%)	Pass	Pass
- Record rx throughput of RTP3_BK	Pass	Pass
4.2.3.3 WMM-A2-WPA
- AP: APUT,Security WPA-PSK, Ch: 1,,b-band
- STA1,Conexant: Security WPA-PSK : 12345678, PS Off
- STA2, Atheros: Security WPA-PSK:12345678, PS Off
1.   Verify Beacon frame	Pass	Pass
2.   If a Probe Request occurs and STAUT Probe Response contains  WMM element,Pass	Pass	Pass
3.  If  Association Response contains WMM parameter element AND STA Associated, PASS	Pass	Pass
4. APUT Transmit RTP1_BE,RTP2_VI,RTP3_BE,STA1 Receive RTP1_BE,RTP2_VI,STA2 Receive RTP3_BE
- Record tx throughput of RTP1_BE	Pass	Pass
- Record tx throughput of RTP2_VI (RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record rx throughput of RTP3_BE	Pass	Pass
5. APUT tx RTP1_BE,RTP2_VI,rx RTP3_BE,STA1 rx RTP1_BE,RTP2_VI,STA2 tx  RTP3_BE
- Record tx throughput of RTP1_BE	Pass	Pass
- Record rx throughput of RTP2_VI(RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record rx throughput of RTP3_BE	Pass	Pass
6. APUT tx RTP3_BE,rx RTP2_VI, RTP1_BE,STA1 tx RTP1_BE,RTP2_VI,STA2 rx  RTP3_BE
- Record rx throughput of RTP1_BE	Pass	Pass
- Record rx throughput of RTP2_VI(RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record tx throughput of RTP3_BE	Pass	Pass
7. APUT tx RTP1_VI,RTP2_VO,RTP3_VI,STA1 rx RTP1_VI,RTP2_VO,STA2 rx RTP3_VI
- Record tx throughput of RTP1_VI	Pass	Pass
- Record tx throughput of RTP2_VO(RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record tx throughput of RTP3_VI	Pass	Pass
8. APUT tx RTP1_VI,RTP2_VO,rx RTP3_VI,STA1 rx RTP1_VI,RTP2_VO,STA2 tx RTP3_VI
- Record rx throughput of RTP1_VI	Pass	Pass
- Record rx throughput of RTP2_VO(RTP2-P2/RTP2-P1>=88%)	Pass	Pass
- Record rx throughput of RTP3_VI	Pass	Pass
9. APUT tx RTP1_BK,RTP2_BE,RTP3_BK,STA1 rx RTP1_BK,RTP2_BE,STA2 rx  RTP3_BK
- Record tx throughput of RTP1_BK	Pass	Pass
- Record tx throughput of RTP2_BE(RTP2-P2/RTP2-P1>=89%)	Pass	Pass
- Record tx throughput of RTP3_BK	Pass	Pass
10. APUT tx RTP1_BK,RTP2_BE,rx RTP3_BK,STA1 rx RTP1_BK,RTP2_BE,STA2 tx  RTP3_BK
- Record tx throughput of RTP1_BK	Pass	Pass
- Record tx throughput of RTP2_BE(RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record rx throughput of RTP3_BK	Pass	Pass
4.2.3.4 WMM-A2-WPA2-PSK
- AP: APUT,Security:Off, Ch: 1,,b-band
- STA1,Broadcom: Security WPA2-PSK : 12345678, PS Off
- STA2, Intel: Security WPA2-PSK:12345678, PS Off
1.   Verify Beacon frame	Pass	Pass
2.   If a Probe Request occurs and STAUT Probe Response contains  WMM element,Pass	Pass	Pass
3.  If  Association Response contains WMM parameter element AND STA Associated, PASS	Pass	Pass
4. APUT Transmit RTP1_BE,RTP2_VI,RTP3_BE,STA1 Receive RTP1_BE,RTP2_VI,STA2 Receive RTP3_BE
- Record tx throughput of RTP1_BE	Pass	Pass
- Record tx throughput of RTP2_VI (RTP2-P2/RTP2-P1>=78%)	Pass	Pass
- Record rx throughput of RTP3_BE	Pass	Pass
5. APUT tx RTP1_BE,RTP2_VI,rx RTP3_BE,STA1 rx RTP1_BE,RTP2_VI,STA2 tx  RTP3_BE
- Record tx throughput of RTP1_BE	Pass	Pass
- Record rx throughput of RTP2_VI(RTP2-P2/RTP2-P1>=79%)	Pass	Pass
- Record rx throughput of RTP3_BE	Pass	Pass
6. APUT tx RTP3_BE,rx RTP2_VI, RTP1_BE,STA1 tx RTP1_BE,RTP2_VI,STA2 rx  RTP3_BE
- Record rx throughput of RTP1_BE	Pass	Pass
- Record rx throughput of RTP2_VI(RTP2-P2/RTP2-P1>=84%)	Pass	Pass
- Record tx throughput of RTP3_BE	Pass	Pass
7. APUT tx RTP1_VI,RTP2_VO,RTP3_VI,STA1 rx RTP1_VI,RTP2_VO,STA2 rx RTP3_VI
- Record tx throughput of RTP1_VI	Pass	Pass
- Record tx throughput of RTP2_VO(RTP2-P2/RTP2-P1>=81%)	Pass	Pass
- Record tx throughput of RTP3_VI	Pass	Pass
8. APUT tx RTP1_VI,RTP2_VO,rx RTP3_VI,STA1 rx RTP1_VI,RTP2_VO,STA2 tx RTP3_VI
- Record rx throughput of RTP1_VI	Pass	Pass
- Record rx throughput of RTP2_VO(RTP2-P2/RTP2-P1>=78%)	Pass	Pass
- Record rx throughput of RTP3_VI	Pass	Pass
9. APUT tx RTP1_BK,RTP2_BE,RTP3_BK,STA1 rx RTP1_BK,RTP2_BE,STA2 rx  RTP3_BK
- Record tx throughput of RTP1_BK	Pass	Pass
- Record tx throughput of RTP2_BE(RTP2-P2/RTP2-P1>=82%)	Pass	Pass
- Record tx throughput of RTP3_BK	Pass	Pass
10. APUT tx RTP1_BK,RTP2_BE,rx RTP3_BK,STA1 rx RTP1_BK,RTP2_BE,STA2 tx  RTP3_BK
- Record tx throughput of RTP1_BK	Pass	Pass
- Record tx throughput of RTP2_BE(RTP2-P2/RTP2-P1>=83%)	Pass	Pass
- Record rx throughput of RTP3_BK	Pass	Pass
4.3 Test WMM-A3: Traffic differentiation in single BSS: 1 APUT and 1 WMM STA and 1 legacy STA)
4.3.3.1 WMM-A3- No Security
- AP: APUT,Security:Off, Ch: 1,g-band
- STA1,Intel: Security Off, PS Off
- STA2,Atheros: Security Off, PS Off
1.   Verify Beacon frame	Pass	Pass
2.   If a Probe Request occurs and STAUT Probe Response contains  WMM element,Pass	Pass	Pass
3.  If  Association Response contains WMM parameter element AND STA Associated, PASS	Pass	Pass
4. APUT Transmit RTP1_BE,RTP2_VI,RTP3_BE,STA1 Receive RTP1_BE,RTP2_VI,STA2 Receive RTP3_BE
- Record tx throughput of RTP1_BE	Pass	Pass
- Record tx throughput of RTP2_VI (RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record rx throughput of RTP3_BE	Pass	Pass
5. APUT tx RTP1_BE,RTP2_VI,rx RTP3_BE,STA1 rx RTP1_BE,RTP2_VI,STA2 tx  RTP3_BE
- Record tx throughput of RTP1_BE	Pass	Pass
- Record tx throughput of RTP2_VI(RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record rx throughput of RTP3_BE	Pass	Pass
6. APUT tx RTP3_BE,rx RTP2_VI, RTP1_BE,STA1 tx RTP1_BE,RTP2_VI,STA2 rx  RTP3_BE
- Record rx throughput of RTP1_BE	Pass	Pass
- Record rx throughput of RTP2_VI(RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record tx throughput of RTP3_BE	Pass	Pass
7. APUT tx RTP1_BE,rx RTP2_VI,RTP3_BE,STA1 rx RTP1_BE,tx RTP2_VI,STA2 tx RTP3_BE
- Record tx throughput of RTP1_BE	Pass	Pass
- Record rx throughput of RTP2_VI	Pass	Pass
- Record rx throughput of RTP3_BE(RPT1-P2/RPT3-P2<=130%)	Pass	Pass
4.3.3.2 WMM-A3- WEP
- AP: APUT,WEP:9876543210, Ch: 1,g-band
- STA1,Intel:WEP:9876543210, PS Off
- STA2,Legacy STA, Atheros: WEP:9876543210, PS Off
1.   Verify Beacon frame	Pass	Pass
2.   If a Probe Request occurs and STAUT Probe Response contains  WMM element,Pass	Pass	Pass
3.  If  Association Response contains WMM parameter element AND STA Associated, PASS	Pass	Pass
4. APUT Transmit RTP1_BE,RTP2_VI,RTP3_BE,STA1 Receive RTP1_BE,RTP2_VI,STA2 Receive RTP3_BE
- Record tx throughput of RTP1_BE	Pass	Pass
- Record tx throughput of RTP2_VI (RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record rx throughput of RTP3_BE	Pass	Pass
5. APUT tx RTP1_BE,RTP2_VI,rx RTP3_BE,STA1 rx RTP1_BE,RTP2_VI,STA2 tx  RTP3_BE
- Record tx throughput of RTP1_BE	Pass	Pass
- Record tx throughput of RTP2_VI(RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record rx throughput of RTP3_BE	Pass	Pass
6. APUT tx RTP3_BE,rx RTP2_VI, RTP1_BE,STA1 tx RTP1_BE,RTP2_VI,STA2 rx  RTP3_BE
- Record rx throughput of RTP1_BE	Pass	Pass
- Record rx throughput of RTP2_VI(RTP2-P2/RTP2-P1>=83%)	Pass	Pass
- Record tx throughput of RTP3_BE	Pass	Pass
7. APUT tx RTP1_BE,rx RTP2_VI,RTP3_BE,STA1 rx RTP1_BE,tx RTP2_VI,STA2 tx RTP3_BE
- Record tx throughput of RTP1_BE	Pass	Pass
- Record rx throughput of RTP2_VI	Pass	Pass
- Record rx throughput of RTP3_BE(RPT1-P2/RPT3-P2<=130%)	Pass	Pass
4.3.3.3 WMM-A3- WPA-PSK
- AP: APUT,Security:WPA-PSK :12345678, Ch: 1,,g-band
- STA1,Broadcom 802.1d: Security:WPA-PSK :12345678, PS Off
- STA2,Legacy STA, Intel: Security:WPA-PSK :12345678, PS Off
1.   Verify Beacon frame	Pass	Pass
2.   If a Probe Request occurs and STAUT Probe Response contains  WMM element,Pass	Pass	Pass
3.  If  Association Response contains WMM parameter element AND STA Associated, PASS	Pass	Pass
4. APUT Transmit RTP1_BE,RTP2_VI,RTP3_BE,STA1 Receive RTP1_BE,RTP2_VI,STA2 Receive RTP3_BE
- Record tx throughput of RTP1_BE	Pass	Pass
- Record tx throughput of RTP2_VI (RTP2-P2/RTP2-P1>=83%)	Pass	Pass
- Record rx throughput of RTP3_BE	Pass	Pass
5. APUT tx RTP1_BE,RTP2_VI,rx RTP3_BE,STA1 rx RTP1_BE,RTP2_VI,STA2 tx  RTP3_BE
- Record tx throughput of RTP1_BE	Pass	Pass
- Record tx throughput of RTP2_VI(RTP2-P2/RTP2-P1>=80%)	Pass	Pass
- Record rx throughput of RTP3_BE	Pass	Pass
6. APUT tx RTP3_BE,rx RTP2_VI, RTP1_BE,STA1 tx RTP1_BE,RTP2_VI,STA2 rx  RTP3_BE
- Record rx throughput of RTP1_BE	Pass	Pass
- Record rx throughput of RTP2_VI(RTP2-P2/RTP2-P1>=76%)	Pass	Pass
- Record tx throughput of RTP3_BE	Pass	Pass
7. APUT tx RTP1_BE,rx RTP2_VI,RTP3_BE,STA1 rx RTP1_BE,tx RTP2_VI,STA2 tx RTP3_BE
- Record tx throughput of RTP1_BE	Pass	Pass
- Record rx throughput of RTP2_VI	Pass	Pass
- Record rx throughput of RTP3_BE(RPT1-P2/RPT3-P2<=130%)	Pass	Pass
4.3.3.4 WMM-A3- WPA2-PSK
- AP: APUT,Security:WPA2-PSK :12345678, Ch: 1,,g-band
- STA1,Intel: Security:WPA2-PSK :12345678, PS Off
- STA2, Legacy STA,Atheros: Security:WPA2-PSK :12345678, PS Off
1.   Verify Beacon frame	Pass	Pass
2.   If a Probe Request occurs and STAUT Probe Response contains  WMM element,Pass	Pass	Pass
3.  If  Association Response contains WMM parameter element AND STA Associated, PASS	Pass	Pass
4. APUT Transmit RTP1_BE,RTP2_VI,RTP3_BE,STA1 Receive RTP1_BE,RTP2_VI,STA2 Receive RTP3_BE
- Record tx throughput of RTP1_BE	Pass	Pass
- Record tx throughput of RTP2_VI (RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record rx throughput of RTP3_BE	Pass	Pass
5. APUT tx RTP1_BE,RTP2_VI,rx RTP3_BE,STA1 rx RTP1_BE,RTP2_VI,STA2 tx  RTP3_BE
- Record tx throughput of RTP1_BE	Pass	Pass
- Record tx throughput of RTP2_VI(RTP2-P2/RTP2-P1>=90%)	Pass	Pass
- Record rx throughput of RTP3_BE	Pass	Pass
6. APUT tx RTP3_BE,rx RTP2_VI, RTP1_BE,STA1 tx RTP1_BE,RTP2_VI,STA2 rx  RTP3_BE
- Record rx throughput of RTP1_BE	Pass	Pass
- Record rx throughput of RTP2_VI(RTP2-P2/RTP2-P1>=88%)	Pass	Pass
- Record tx throughput of RTP3_BE	Pass	Pass
7. APUT tx RTP1_BE,rx RTP2_VI,RTP3_BE,STA1 rx RTP1_BE,tx RTP2_VI,STA2 tx RTP3_BE
- Record tx throughput of RTP1_BE	Pass	Pass
- Record rx throughput of RTP2_VI	Pass	Pass
- Record rx throughput of RTP3_BE(RPT1-P2/RPT3-P2<=130%)	Pass	Pass
4.4 Test of APUT “No Acknowledgement” (WMM-A4)
- AP: APUT,Security:Off, Ch: 36(Channel 1 for a 'g' only AP)
- STA,Conexant: Security:Off, PS Off
1.   Verify Beacon frame	Pass	Pass
2.  Probe Response	Pass	Pass
3.  Association Response	Pass	Pass
4. APUT rx RTP1_BE,RTP2_VI
- Record rx throughput of RTP1_BE	Pass	Pass
- Record rx throughput of RTP2_VI	Pass	Pass
5 Configure the testbed AP to set the “ack policy” field to “012” (no acknowledgement) in QoS         Control frames for all AC, APUT rx RTP1_BE,RTP2_VI
- Record rx throughput of RTP1_BE{should be > from step 4]	Pass	Pass
- Record rx throughput of RTP2_VI {should be > from step 4]	Pass	Pass
4.5 Traffic  forwarding in single BSS: 1 WMM APUT and 1 WMM STA and  1 legacy STA
4.5.3.1 WMM-A5- No Security
- AP: APUT,Security:Off, Ch: 1,b-band
- STA1,Atheros: Security: Off
- STA2(Legacy), Broadcom: Security:Off
1.   STA1 ping to STA2	Pass	Pass
3.   STA2 ping to STA1	Pass	Pass
4.  STA1 rx RTP2_BE,STA2 tx
- Verify receipt of data	Pass	Pass
5.  STA1 tx RTP2_BK,STA2 rx
- Verify receipt of data	Pass	Pass
6.  STA1 tx RTP2_BE,STA2 rx
- Verify receipt of data	Pass	Pass
7.  STA1 tx RTP1_BE,RTP2_VI,STA2 rx
- Record  throughput of RTP1_BE	Pass	Pass
- Record  throughput of RTP2_VI (RTP2-P2/RTP1-P2≥75%)	Pass	Pass
4.5.3.2 WMM-A5- WEP
- AP: APUT,WEP:9876543210, Ch: 1,b-band
- STA1,Conexant:WEP:9876543210, PS Off
- STA2(Legacy),Intel: WEP:9876543210, PS Off
1.   STA1 ping to STA2	Pass	Pass
3.   STA2 ping to STA1	Pass	Pass
4.  STA1 rx RTP2_BE,STA2 tx
- Verify receipt of data	Pass	Pass
5.  STA1 tx RTP2_BK,STA2 rx
- Verify receipt of data	Pass	Pass
6.  STA1 tx RTP2_BE,STA2 rx
- Verify receipt of data	Pass	Pass
7.  STA1 tx RTP1_BE,RTP2_VI,STA2 rx
- Record  throughput of RTP1_BE	Pass	Pass
- Record  throughput of RTP2_VI (RTP2-P2/RTP1-P2≥75%)	Pass	Pass
4.5.3.3 WMM-A5 WPA-PSK
- AP: APUT,Security:WPA-PSK :12345678, Ch: 1,b-band
- STA1,Intel: Security:WPA-PSK :12345678, PS Off
- STA2,Broadcom(Legacy): Security:WPA-PSK :12345678, PS Off
1.   STA1 ping to STA2	Pass	Pass
3.   STA2 ping to STA1	Pass	Pass
4.  STA1 rx RTP2_BE,STA2 tx
- Verify receipt of data	Pass	Pass
5.  STA1 tx RTP2_BK,STA2 rx
- Verify receipt of data	Pass	Pass
6.  STA1 tx RTP2_BE,STA2 rx
- Verify receipt of data	Pass	Pass
7.  STA1 tx RTP1_BE,RTP2_VI,STA2 rx
- Record  throughput of RTP1_BE	Pass	Pass
- Record  throughput of RTP2_VI (RTP2-P2/RTP1-P2≥75%)	Pass	Pass
4.5.3.4 WMM-A5- WPA2-PSK
- AP: APUT,Security:WPA2-PSK :12345678, Ch: 1,b-band
- STA1,Intel: Security:WPA2-PSK :12345678, PS Off
- STA2, Atheros(Legacy): Security:WPA2-PSK :12345678, PS Off
1.   STA1 ping to STA2	Pass	Pass
3.   STA2 ping to STA1	Pass	Pass
4.  STA1 rx RTP2_BE,STA2 tx
- Verify receipt of data	Pass	Pass
5.  STA1 tx RTP2_BK,STA2 rx
- Verify receipt of data	Pass	Pass
6.  STA1 tx RTP2_BE,STA2 rx
- Verify receipt of data	Pass	Pass
7.  STA1 tx RTP1_BE,RTP2_VI,STA2 rx
- Record  throughput of RTP1_BE	Pass	Pass
- Record  throughput of RTP2_VI (RTP2-P2/RTP1-P2≥75%)	Pass	Pass

 

WiFi WMM Power Save AP Interoperability Test Matrix
	Linux	VxWorks
	WMM Power Save testplav ver 1-1-1	WMM Power Save testplav ver 1-1-1
4.1  WMM Power Save Advertisement,g-band,Manual
AP:APUT,Security:Off, Basic rate,Set 1,channel 11	Pass	Pass
STA : Broadcom,WMM&APSD : ON
4.2  PVB Operation - ALL ACs using WMM Power Save,a-band,B.Z
AP:APUT,Security:Off, Ch: 1/36, Basic rate,Set 1	Pass	Pass
STA : Conexant,Trigger & Delivery enabled for all Acs
4.3  More data bit operation in the WMM Power Save AP,b-band,,B.H
AP:APUT,Security:Off, Ch: 1, Basic rate,Set 1	Pass	Pass
STA : Ralink,Trigger & Delivery enabled for all Acs
4.4 Service Period operation,g-band,B.D
AP:APUT,Security:Off, Ch: 6, Basic rate,Set 1	Pass	Pass
STA : Broadcom,Trigger & Delivery enabled for all Acs
4.5 Awake State Stations Test,a-band,A.J
AP:APUT,Security:Off,36(test in g-band for g-onlyAPs)	Pass	Pass
STA : Conexant,Trigger & Delivery enabled for all Acs
4.6 Quiet channel Operation,a-band,B.M
AP:APUT,Security:Off, Ch: 1, Basic rate,Set 1	Pass	Pass
STA : Ralink,Trigger & Delivery enabled for all Acs
4.7 Service Period operation under Load,b-band,L.1	Pass	Pass
4.7.2.1 AP:APUT,Security:Off,Basic rate,Set 1,channel 1
STAs : Winbond&Conexant,Trigger & Delivery enabled for all Acs
4.7.2.2 AP:APUT,Security:WEP,9876543210, Ch: 1, Basic rate,Set 1	Pass	Pass
STAs : Winbond&Conexant,Trigger & Delivery enabled for all Acs
4.7.2.3 AP:APUT,Security:WPA-PSK, Ch: 1, Basic rate,Set 1	Pass	Pass
STAs : Winbond&Conexant,Trigger & Delivery enabled for all Acs
4.7.2.4 AP:APUT,Security:WPA2-PSK, Ch: 1, Basic rate,Set 1	Pass	Pass
STAs : Winbond&Conexant,Trigger & Delivery enabled for all Acs
4.8 PVB Operation (STA wakes up),a-band,A.Y
AP:APUT,Security:Off, Ch: 36, Basic rate,Set 1	Pass	Pass
STA : Winbond,Trigger & Delivery enabled for VO,VI
4.9 PVB Operation (STA remains in Power Save),b-band,M.Y
AP:APUT,Security:Off, Ch: 1, Basic rate,Set 1,b-band	Pass	Pass
STA : Broadcom,Trigger & Delivery enabled for only VO,VI
4.10 Service Period operation (STA remains in Power Save),a-band,M.V
AP:APUT,Security:Off, Basic rate,Set 1,a-band channel 36(test in g-band for g-only APs)	Pass	Pass
STA : Conexant,Trigger & Delivery enabled for only VO,VI
4.11 Operation: STA supports only WMM, Uses PS-Poll,a-band,M.U
AP:APUT,Security:Off, Basic rate,Set 1,a-band channel 36(test in g-band for g-only APs)	Pass	Pass
STA : Ralink,APSD Off
4.12 Operation: STA supports only WMM, PSnonPoll,a-band,A.U
AP:APUT,Security:Off, Basic rate,Set 1,a-band channel 36(test in g-band for g-only APs)
STA : Winbond,APSD Off	Pass	Pass

 

What's New in Release 3.130.35.0?

• Linux and VxWorks: Added Range Expander under URE mode.
• Linux and VxWorks: Added auto reconnect capability in URE to connect to an upstream AP in both Range Expander and Travel Router modes
• Linux and VxWorks: Initial support for BCM94704MPCB 
• Linux and VxWorks: Initial UAPSD WMM support 
• Linux and VxWorks: Augmented the nvram flash update code, to prevent nvram corruption causing the device to potentially lock up as a result of power cycling in the middle of a flash write.
• Linux and VxWorks: Added support to enable non-Broadcom client STAs to view and connect to the router with multiSSID enabled.
• Linux and VxWorks: Fixed a regression where the auto channel selection stopped working.
• Linux and VxWorks: Fixed a bug where restoring to factory defaults was not cleaning up additional NVRAM variables after using SES for WDS.
• Linux and VxWorks: Fixed a bug where the reported RSSI was incorrect causing unnecessary roam scans.
• Linux and VxWorks: Fixed a crash which sometimes occurred when Afterburner was enabled with WDS
• Linux and VxWorks: Implemented DHCP relay in WET mode. The dhcp_relay NVRAM variable is used to turn this mode on or off (default off).

What's New in Release 3.130.25.0?

• Linux and VxWorks: Added support for BCM95351 
• Linux and VxWorks: Updated PA parameter values for the BCM94712LGR rev 1.3 reference board
• Linux and VxWorks: Added support for manual power control on the BCM4318 for manufacturing tests.

What's New in Release 3.130.20.0?

• Linux and VxWorks: Added support for 802.11h and 802.11d 
• Linux: Added Secure Easy Setup for WDS.
• Linux and VxWorks: Added functionality to support multiple SSIDs (multiple virtual wireles interfaces) from each physical wireless interface.
• Linux and VxWorks: Added functionality to support a Travel Router mode, where one virtual wireless interface acts as a Station to an upstream Access Point and another virtual wireless interface acts as an Access Point serving multiple downstream Stations. Traffic will be routed between the two virtual wireless interfaces. 
• Linux and VxWorks: Fixed a bug with PEAP authentication with a Windows 2000 server.
• Linux: Upgraded to a newer tool chain (version 3.2.3.2). This fixes a problem with the logging daemon dying over time.

What's New in Release 3.130.1.10?

• Linux and VxWorks: Added support for new Japanese locales 
• Linux and VxWorks: Fixed an issue where excessive false RADAR signals were detected when traffic was present on adjacent channels.

What's New in Release 3.130.1.4?

• Linux and VxWorks: Added support for 802.11h and 802.11d 
• Linux: Added Secure Easy Setup for WDS.

What's New in Release 3.110.6.0?

• VxWorks: Supports for WPA2 added in this release
• VxWorks: Support for WMM aded in this release
• Linux and VxWorks: WET devices support WPA2 
• Linux & VxWorks: Added feature to support saving/restoring NVRAM environment variables from the web UI
• Linux & VxWorks: Added support for Afterburner over WDS. The entire ESS is modal with respect to Afterburner. 
• Linux & VxWorks: Improved the Afterburner rate selection algorithm
• Linux & VxWorks: Added Secure Easy Support  support for WET devices
• Linux: Fixed a bug where the DHCP would under some conditions give the old subnet based IP address
• Linux & VxWorks: When AES based stations exceed that what the hardware can support, the excess stations were not being handled by software earlier. Support has been added to support handling such clients in software.
• Linux & VxWorks: The crypto library has been renamed to libbcmcrypto
• Linux& VxWorks: Provided support for an external Broadcom wireless MAC without sprom. This enables wireless on the motherboard designs.
• Linux& VxWorks: Supports for an open window in SES without disassociating the existing clients
• VxWorks: A VxWorks big endian based Access Point  was not sending out packets on time in response to a PS Poll when the station was in power save.

What's New in Release 3.90.39.0?

• Linux & VxWorks: Added support for the BCM95352 platform
• Linux & VxWorks: Added support for BCM94318
• Linux & VxWorks: The earlier release with AfterBurner enabled prevented enabling WDS. This has been fixed. The current implementation causes AfterBurner to be disabled when WDS is enabled
• Linux & VxWorks: Channel 165 in the 802.11a band has been enabled based on updated specification
• Linux & VxWorks: Fixed WMM priority not working on platforms with a builtin switch or with the 5325E
• Linux & VxWorks: Added support for ST flash in page mode
• Linux & VxWorks: Renamed the libcrypto library to libbcmcrypto
• Linux: Fixed a bug in the Open router build that had some of the crypto libraries missing

What's New in Release 3.90.7.0?

• VxWorks: Added support for a VxWorks BSP. Support for a VLAN driver is also included that supports both tagged and untagged VLAN packets. Support has been added for both the BigEndian as well as LittleEndian versions.
• Linux: Added support for WPA2 
• Linux and VxWorks: Added support for WMM
• Linux and VxWorks: Supports multiple wireless interfaces in both operating systems
• Linux and VxWorks: Initial support for DualBand 4318MPAGH reference designs
• Linux: Provided additional componentization to build smaller sized routers

What's New in Release 3.80.13.0?

• Linux: Added a mechanism to obtain WDS link status.
• Linux: Added  web page item 'LAN/Default Gateway' to support setting up a default gateway when configured as an Access Point.
• Linux: Added support for a DHCP client when configured as an Access Point. Previously the Access Point's IP was statically configured
• Linux: Fixed a bug where the router was accepting association requests from clients having an invalid MAC address. This would cause the router to get confused at times
• Linux: Added a new IOVAR IOCTL to control the numbers of clients that are alowed to associate to the AP.
• Linux: Added statistics to get the time in seconds since a client station was associated.
• Linux: Added a bit in the Broadcom Information Element to indicate if the router has been configured as a WDS.
• Linux: Performing a WLC_SCAN_RESULTS after a WLC_SCAN will now return a null list till the scan completes. Previously it used to return the result of the previous scan. 
• Linux: Improved the accuracy of the reported G-PHY CCK RSSI.
• Linux: Changed the format of the NVRAM for some wireless security variables.
  
  Old: wl<N>_auth_mode=open
  New: wl<N>_auth=0 and wl<N>_auth_mode=none
  
  Old: wl<N>_auth_mode=shared 
  New: wl<N>_auth=1 and wl<N>_auth_mode=none
  
  Old: wl<N>_auth_mode=wpa
  New: wl<N>_auth=0 wl<N>_akm=wpa and wl<N>_auth_mode=none
  
  Old: wl<N>_auth_mode=psk
  New:  wl<N>_auth=0 wl<N>_akm=psk and wl<N>_auth_mode=none
• Linux: Added the ability for syslog logging into a circular RAM buffer. The log mesages can be displayed on the "internal" web page. This feature is not compiled in by default. BB_FEATURE_IPC_SYSLOG in the busybox configuration and CONFIG_SYSV_FS in the kernel configuration need to be enabled to get this feature.

What's New in Release 3.61.9.1?

• Linux: Added support for multiple clients connected to the Broadcom WET device.

What's New in Release 3.61.9.0?

• Linux: Fixed a bug where the Broadcom web page was applying some of the 802.11g parameters when changing the dual band wireless to 802.11a mode.
• Linux: Adds support for EZ 54g

What's New in Release 3.61.5.0?

• Boot Loader: CFE adds support for downloading images greater than 4M Bytes. CFE also adds support for  flash chip greater than 4MBytes.
• Boot Loader: CFE's nvErase command syntax changed to
  nvErase <offset> <size>.
• Boot Loader: The PMON cp2fl syntax changed to 
  cp2fl <src> <offset> <size>, where
  <offset> is 0 for PMON and
  <offset> is 40000 for linux.trx.
• Linux: Upgraded to a newer tool chain (version 3.2.3)
• Linux: WDS now supports WPA/PSK. The Broadcom reference web interface has the security method for the WDS link follow what the normal wireless AP is configured for.  However, the new functionality allows independent settings. Additionally, support is added to allow specifying which node in the WDS link is to act as the supplicant and which as the authenticator. The earlier mode of automatically determining this based on MAC address is also supported.
• Linux: Added a new security mode that simultaneously supports AES, TKIP and legacy WEP stations.
• Linux: Added support for WPA/PSK in WET mode.
• Linux: Added support for 128 pairwise keys. The BCM94306 and BCM94309 B0 versions will support 12 hardware keys, while the C0 will support 50. The remaining clients will use software encryption. Software encryption is only supported for TKIP stations.
• Linux: Afterburner adds support for 802.11a in addition to 802.11g. It now works for DualBand 4309 designs. Afterburner also extends supports for WPA-PSK including WEP, TKIP, and AES.
• Linux: Fixed a bug in WPA/PSK mode where a 32 byte passphrase would fail.
• Linux: Added "Authenticated Stations" table in wireless page which lists all currently authenticated station MAC addresses along with their status if they are associated and are WPA authorized.
• Linux: Support for 5GHz High Band Channels (Channel 149, 153, 157, 161) on 4309-C0 board designs.
• Linux: Fixed a multicast performance issue on the BCM94306/MCN94309 C0 cards.
• Linux: Fixed a bug where when changing the country code of the locale in the wireless page other parameters that were changed on the page will change back to the original value.

What's New in Release 3.51.21.6?

• Linux: Adds support for Afterburner. There is a new board flag used to indicate Afterburner capability.  The wireless web page will indicate an Afterburner GMode if the hardware is capable of supporting this mode.

What's New in Release 3.51.21.0?

• Linux: Adds support for the BCM94712AGR.
• Linux: Supports an external ADMTech 6996 VLAN chip on the ethernet interface.
• Linux: Fixed GPIO allocation to be programmable instead of hardcoded.
• Linux: Fixed a WET mode problem that prevented two WET devices connected to the same Access Point from talking to one another.
• Boot Loader: Support for dynamic memory calibration at boot time on the BCM4704 and BCM4712.
• Boot Loader: Support for a self decompressing CFE boot loader. This allows for a boot loader that fits within 128K currently.

What's New in Release 3.41.21.0?

• Linux: Supports multiple WAN interfaces over multiple PHYs. Multiple PPPoE interfaces can be created over a single PHY. 
• Linux: Added support for USB gadget device to provide embedded USB device support.
• Linux: Optimized performance on the BCM94702 based boards when enabling XPress Technology.
• Linux: Optimized the router for better performance when handling clients that are in power save mode.
• Linux: Optimized TKIP performance.
• Linux: Support for Dualband C0 Reference Designs. 3.30.15 Supported C0 single band designs.
• Linux: Re-vamped locales in favor of countries. Locales have been moved to an internal driver concept. It will be much easier for end users to use the country they are in. Old SPROM settings for default "locale" will still be honored. Over time, external configuration of locales will go away. Selection via an actual country name has a better fit for 802.11h as well as Windows own internal tracking of location.
• Linux: Augmented the auto channel selection algorithm to dynamically choose the best channel when no clients are associated to it.
• Linux: The router now reports the up-time on the status page.
• Linux: Added the '54g Only' rate to the hidden internal page for WECA 802.11g testing.
• Linux: Fixed a rare case where changing the interface on the WAN side from a Static IP / DHCP to PPPoE on the same network required rebooting the router for the packets to go out on the PPPoE connection.
• Boot Loader: Fixed the legacy boot loader- PMON - to enable it to download images greater than 3M
• Boot Loader: Added support for the AMD Mirro-Bit 2M and 4M flashes

What's New in Release 3.31.12.0?

• Linux: Support for the 4306C0 chip.
• Linux: Fixed a bug which prevented a client using WPA from roaming from one AP to another. This bug would have only be seen with a newer version of Microsoft's supplicant. 
• Linux: Support for the 4704 AGR router.
• Linux: Enabled options to turn on the XPress Technology feature to all 802.11 network nodes. A UI element in the "Wireless" page controls this setting. 

What's New in Release 3.31.3.0?

• Linux: Upgraded the kernel to 2.4.20.
• Linux: Substantial optimization of code to reduce the size of the combined flash content to less than 2 Mbytes
• Linux: Augmented the application triggered port forwarding functionality to accept a range of port values as a trigger to open up the inbound ports.
• Linux: Added support for multiple PPTP sessions.
• Linux: Added support for Intel C3 flash.

What's New in Release 3.21.12.0?

• Linux: Fixed an inter-operability bug in WPA that prevented non-Broadcom stations from connecting to the Broadcom AP.

What's New in Release 3.21.9.0?

• Linux: Fixed a bug where the firmware would fail on systems without an UART.
• Linux: Fixed a boot loader bug where it was resetting the NVRAM variables on the BCM94704agr while booting up.
• Linux & VxWorks: Fixed 4301+2050 radio bug, preventing proper throughput to occur on the card.

What's New in Release 3.21.7.0?

• Linux: Added WPA support. This release supports TKIP, AES (4306/4309 Only), WPA, WPA-PSK as well as 802.1x authenticated WPA networks.
• Linux: Security features can be independently controlled for each wireless interface.
• Linux: The router can support for AES and TKIP encryption simultaneously, allowing client stations using AES or TKIP to connect. 
• Linux: The router was validated to run on 8M of RAM.
• Linux & VxWorks: Added support for SST and MX flash.
• Linux: Added support to automatically select the optimal channel when starting up. 
• Linux: Added support for the BCM94704agr. Also support resetting to factory defaults when holding down the reset button longer than 5 seconds.
• Linux: Added support for the connect on demand and service name features when using PPPoE.
• Linux: The web pages now accept MAC addresses in either a ':' or '-' seperated format.
• Linux: The router is now certifiable for the UPnP logo.
• Linux: Added support for an 802.11b-only mode when using a BCM94306 card running on a 802.11g band.
• Linux: Added  support for NVRAM variables greater than 256 bytes.
• Linux: Fixed a bug in the web page when operating in the 802.11a band, where the selectable rates only went up to 36Mbps
• VxWorks: Fixed a bug where large packets (>1500 bytes) was not handled correctly.
• Linux & VxWorks: Added support for 4301+2050 reference design
• Linux: Added support for frame bursting for performance improvements. This feature must be enabled in your .inf to work. Additionally, on the AP side this feaure is required to be enabled (using an IOCTL).
• Linux & VxWorks: Improved G-Protection throughput (CTS-to-self).
• Linux & VxWorks: 802.11G Draft 8.2 support
• Linux: Improved performance asymmetry between the transmit and receive paths.

 What's New in Release 3.11.50.0?

• VxWorks: Support for multiple wireless MiniPCI cards in the router. Support includes independent WEP, SSID, bridging mode, locale, network type, radio control, MAC restrictions modes etc.
• VxWorks: Added a LAN lease time GUI element
• VxWorks: Full WECA tests executed at BRCM

 What's New in Release 3.11.48.0?

• Linux: Support for multiple wireless MiniPCI cards in the router. Support includes independent WEP, SSID, bridging mode, locale, network type, radio control, MAC restrictions modes etc.
• Linux & VxWorks: Support for 802.11a only MiniPCI card as well as dual band 802.11a/b/g MiniPCI cards in the router.  The router dynamically displays the choice of bands available to select from based on the type of wireless card(s) plugged in. 
• Linux & VxWorks: Enabled automatic G-Mode protection  of 11g data traffic in the presence of 11b traffic. Added a GUI control in the web pages to enable or disable this.
• Linux & VxWorks: Changed the GUI in the "Filters" page. The router now supports a unified "LAN Client Filters" interface instead of separate interfaces for "LAN IP Filters", "LAN TCP Port Filters" and "LAN UDP Port Filters". Additionally, support for time based filtering has also been added.
• Linux & VxWorks: Changed the GUI in the "Routing" page. The router now supports a unified "Port Forwards" interface instead of separate "LAN TCP Port Forwards" and "LAN UDP Port Forwards".
• Linux & VxWorks: Implemented "Application Specific Port Forwarding" to allow an application to trigger the opening of ports to the outside. This prevents the need to permanently open ports to the outside using the "Port Forwards" menu. Additionally, the LAN IP address to map the open ports to is determined dynamically (based on where the application is running). 
• Linux : Added support for Application Level Gateways (ALG) for TFTP and H323.
• Linux & VxWorks: Support of up to 3 NTP servers, with initial default servers in place.
• Linux & VxWorks: UPnP and the web pages now agree with port mappings created using either interface
• Linux & VxWorks: Fixed a bug in the AP that was causing association to take much longer when there was significantly large amount of wireless traffic present. 
• Linux & VxWorks: Throughput and consistency of throughput improvements.
• Linux & VxWorks: In client driver releases prior to 3.10.39.0, when an AP in a BSS network enables g-protection via Info Element 47, throughput will be very low. Connectivity is still enabled so that a user may upgrade to a later driver.
• Linux: Added a LAN lease time GUI element
• Linux: Fixed a bug where changing the "Bridge Restrict" mode, from enabled to disabled (or the other way around), during an established WDS session would cause WDS bridging to fail.
• Linux: Full WECA tests executed at BRCM

 What's New in Release 3.11.30.5?

• Linux: UPnP fixes. Support for UPnP enabled applications such as MSN Messenger. 
• Linux: Fixed locale problem where setting "worldwide" locale was resulting in "USA". China now uses "worldwide" locale too.  
• Linux: Fixed a performance bug where the performance in a mixed b, g network did not go up once the last b client disassociated  
• Linux: Fixed a bug that caused WDS to stop functioning under certain conditions.
• Linux: g-mode changes to reflect the 6.1 draft g specification changes 

 What's New in Release 3.11.30.1?

• Linux: Added Limited Rate Support (LRS) for legacy 11b nodes that cannot handle full 11g rateset list
• Linux: Upgraded WL driver for sundry bug fixes such as:
  • Null Data frames had zero FromDS/ToDS bits
  • Error in short long/short slot timing for cwmin
  • 54g mode protection implemented, forcing STA's to use rts/cts. An IOCTL is available to force protection on and off.
  • Fixed bug for antenna diversity. SPROM control was being overwritten in the driver.
• Linux & VxWorks: Full WECA tests executed in BRCM Labs

What's New in Release 3.11.28.0?

• Linux & VxWorks: Resolved 11g data performance issue

 What's New in Release 3.11.24.0?

• VxWorks: Added UPnP Extensions for AP/Router Setup
• VxWorks: Fixed UPnP IGD test issues
• VxWorks: Added support for logging
• VxWorks: Added feature to disable all WAN traffic
• VxWorks: Added ability to display hostname in DHCP user list
• VxWorks: Added feature to discard pings from the WAN
• VxWorks: Firewall/Router enable/disable functionality
• VxWorks: Software based router reset

 What's New in Release 3.11.19.0?

• Linux & VxWorks: The USA locale no longer improperly clamps output power

 What's New in Release 3.11.17.0?

• Linux & VxWorks: Fixed an issue with dynamic G sticking in short slot
• Linux & VxWorks: Support for Rev 4.x MiniPCI production boards
• Linux & VxWorks: Fixed a bug where STA's could dis-associate under corner cases
• Linux & VxWorks: 54g homologation (locale) rules have been applied
• Linux & VxWorks: Support for short preamble
• Linux & VxWorks: Due to draft specification change, drop to long slot only if a legacy STA associates
• Linux & VxWorks: Full WECA tests executed in BRCM Labs
  
  

 What's New in Release 3.11.9.0?

• Linux & VxWorks: Added Dynamic 11g configuration in the web pages
  • 802.11b-Only mode turns of 11g network capabilities and runs in full 802.11b compatible mode
  • 54G-Auto (default) mode dynamically moves from short to long slot based on presence of 11b nets
  • 54G-Only is the same as 54G-Auto, but will not allow 11b STA's to associate, and will still fall back into long slot in the presence of 11b nets.
  • BRCM-54G-Only is hard coded for short slot, will not fall back to long slot in the presence of 11b nets. This mode should only be used under controlled environments as it will out-compete long slot networks.
• Linux & VxWorks: Added support for independent multicast rate
• Linux & VxWorks: Power save mode has been fixed for 11g networks
• Linux & VxWorks: Added support to properly age STA's so networks can bump back up to short slot mode
• Linux & VxWorks: Added a new IOCTL to return a list of associated STA's MAC addresses
• Linux & VxWorks: Added interface control for 11g nonERP indication element such that 11g STA's can be forced to use RTS/CTS
• Linux & VxWorks: Performance stability attained with rate selection algorithm tuned for CCK and OFDM ratesets

 What's New in Release 3.11.7.0?

• Linux & VxWorks: Initial support for 4306 and 11g networks
• Linux & VxWorks: Web page upgrade for 11g network configuration
• Linux & VxWorks: Initial support for 54a networks

 What's New in Release 3.11.5.0?

• Linux & VxWorks: Initial WDS release supporting mesh networks, repeater mode, and on the fly WDS partner connections.
• Linux & VxWorks: UPNP Upgrade for functionality with Windows XP Network Connections configuration page
• Linux & Vxworks: Support for 2MB Flash footprint
• Linux & VxWorks: Added support for Tx and Rx pkt counters
• Linux & VxWorks: Adds support for up to 50 clients in the accept/deny list
• Linux: Support for syslog logging

 Support

• If you have questions, please send email to hnsupport@broadcom.com.

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