User's Manual
Table Of Contents
- Chapter 1 Introduction
- Chapter 2 Mesh Point CLI and Administrative Access
- Chapter 3 Networking and Radio Configuration
- 3.1 Network Interfaces
- 3.2 Network Bridging
- 3.2.1 Bridging Configuration
- 3.2.2 FastPath Mesh Bridging
- 3.2.3 Fine-tuning FastPath Mesh Network Performance
- 3.2.3.1 Selecting the FastPath Mesh Multicast Transmit Mode
- 3.2.3.2 Setting the FastPath Mesh Packet Interval
- 3.2.3.3 Setting the FastPath Mesh Transmit Control Level
- 3.2.3.4 Setting Multicast Video Clamping Thresholds
- 3.2.3.5 Setting Mesh Routing Reactivity
- 3.2.3.6 Setting Mesh Packet Time To Live
- 3.2.3.7 Viewing Current Mesh Performance Parameters
- 3.2.3.8 Frame Processor Parameters
- 3.2.4 STP Bridging
- 3.3 Global Radio Settings
- 3.4 Individual Radio Settings
- 3.4.1 Radio Band, Short Preamble, Guard Interval
- 3.4.2 Channel Selection
- 3.4.3 Distance, Beacon Interval, Noise Immunity
- 3.4.4 Network Type, Antenna Gain, Tx Power
- 3.4.5 MIMO
- 3.4.6 STBC
- 3.4.7 Channel Lock and Other Channel Selection Features
- 3.4.8 DFS, TDWR, and Channel Exclusion
- 3.4.9 Radio BSS Settings
- 3.4.9.1 BSS Radio, BSS Name and SSID
- 3.4.9.2 WDS Bridging or AP Infrastructure Configuration
- 3.4.9.3 BSS State, SSID Advertising and Drop Probe Requests
- 3.4.9.4 BSS STA Idle Timeout and 802.11g-Only Settings
- 3.4.9.5 BSS Unicast Transmission Rate Settings
- 3.4.9.6 BSS WMM QoS Setting
- 3.4.9.7 BSS Fragmentation and RTS Thresholds
- 3.4.9.8 BSS DTIM Beacon Countdown
- 3.4.9.9 BSS VLANs Settings
- 3.4.9.10 BSS Fortress Security Zone
- 3.4.9.11 FastPath Mesh BSS Cost Offset
- 3.4.9.12 BSS Multicast Settings
- 3.4.9.13 Bridging MTU and Beacon Encryption
- 3.4.9.14 BSS Description
- 3.4.9.15 BSS Wi-Fi Security Configuration
- 3.4.10 Antenna Tracking / Rate Monitoring
- 3.4.11 ES210 Mesh Point STA Settings and Operation
- 3.4.11.1 STA Radio, Name, SSID and SSID Roaming
- 3.4.11.2 STA State
- 3.4.11.3 STA Unicast Transmission Rate Settings
- 3.4.11.4 STA Background Scanning
- 3.4.11.5 STA WMM QoS Setting
- 3.4.11.6 STA Fragmentation and RTS Thresholds
- 3.4.11.7 STA Multicast Rate
- 3.4.11.8 STA Description
- 3.4.11.9 STA Wi-Fi Security Configuration
- 3.4.11.10 Editing or Deleting a STA Interface Connection
- 3.4.11.11 Establishing a STA Interface Connection
- 3.4.11.12 ES210 Station Access Control Lists
- 3.5 Local Area Network Configuration
- 3.6 Time and Location Configuration
- 3.7 GPS and Location Configuration
- 3.8 DHCP and DNS Services
- 3.9 Ethernet Interfaces
- 3.10 Quality of Service
- 3.11 VLANs Implementation
- 3.12 ES210 Mesh Point Serial Port Settings
- 3.13 Mesh Viewer Protocol Settings
- Chapter 4 Network Security, Authentication and Auditing
- 4.1 Fortress Security Settings
- 4.1.1 Operating Mode
- 4.1.2 FIPS Settings
- 4.1.3 MSP Encryption Algorithm
- 4.1.4 Encrypted Data Compression
- 4.1.5 MSP Key Establishment
- 4.1.6 MSP Re-Key Interval
- 4.1.7 Key Beacon Interval
- 4.1.8 Fortress Legacy Devices
- 4.1.9 Encrypted Zone Cleartext Traffic
- 4.1.10 Encrypted Zone Management Settings
- 4.1.11 Authorized Wireless Client Management Settings
- 4.1.12 Turning Mesh Point GUI Access Off and On
- 4.1.13 SSH Access to the Mesh Point CLI
- 4.1.14 Blackout Mode
- 4.1.15 Allow Cached Credentials
- 4.1.16 Fortress Access ID
- 4.2 Digital Certificates
- 4.3 Access Control Entries
- 4.4 Internet Protocol Security
- 4.5 Authentication and Timeouts
- 4.5.1 Authentication Servers
- 4.5.2 Internal Authentication Server
- 4.5.2.1 Basic Internal Authentication Server Settings
- 4.5.2.2 Certificate Authority Settings
- 4.5.2.3 Global User and Device Authentication Settings
- 4.5.2.4 Local 802.1X Authentication Settings
- 4.5.2.5 OCSP Authentication Server Settings
- 4.5.2.6 OCSP Cache Settings and Management
- 4.5.2.7 Internal Authentication Server Access Control Lists
- 4.5.3 User Authentication
- 4.5.4 Client Device Authentication
- 4.5.5 Session Idle Timeouts
- 4.6 ACLs and Cleartext Devices
- 4.7 Remote Audit Logging
- 4.8 Wireless Schedules
- 4.1 Fortress Security Settings
- Chapter 5 System Options, Maintenance and Licensing
- Chapter 6 System and Network Monitoring
- Index
- Glossary
Fortress ES-Series CLI Guide: Networking and Radio Configuration
31
The ULA is not configurable. You can use set bridging to
enter a specific 16-bit hexadecimal subnet identifier. The
default is
0x8895.
# set bridging -mode mesh -s
<subnetIdInHex>
FastPath Mesh Zone
Use the -zone parameter to indicate whether FP Mesh network
traffic will pass in the
clear
zone or the
encrypted
zone:
# set bridging -mode mesh -zone clear|encrypted
Placing the network in the
encrypted
zone globally enables
end-to-end Fortress’s Mobile Security Protocol (MSP) for the
FP Mesh network.
The Mesh Point Core interfaces used to form the network must
be configured to reside in the same
-zone
as the FP Mesh
network overall (refer to Section 3.9).
You must be logged on to an
administrator-level account to
change configuration settings (refer to Section 2.2).
Cost parameters
CAUTION: The
default cost equa-
tion values are normally
optimal for FP Mesh. Ill-
considered changes can
easily affect network
behavior adversely.
You can rebalance how the FP Mesh network computes the
throughput and latency costs of available data paths by
specifying new values for a and/or b in the FP Mesh cost
equation:
cost = a *(1/CLS) + b*(Q/CLS) + U
...in which:
CLS - (Current Link Speed) is the time-averaged link
speed, as measured in bits per second.
Q - is the time-averaged current queue depth, as measured
in bits.
U - is the user defined per-interface cost offset, which
allows you to configure one link to be more costly than
another. Any non-negative integer between
0 (zero) and
4,294,967,295 can be defined (for configuration
information, refer to Section 3.4.9.11 for wireless and
Section 3.9 for Ethernet interface controls).
a and b - are user defined constants, corresponding to
throughput and latency, respectively. Any non-negative
integer between
0 (zero) and 65,535 can be defined. The
default for each is
1.
Define new throughput and latency values with
set bridging -cost-parameters -a and -b, where the
aValue
is the throughput cost weighting factor and the
bValue
is
the latency cost weighting factor. As a rule, a higher
aValue
improves overall throughput, while a higher
bValue
, reduces
latency.