Appendix B Setting Up Your Computer’s IP Address 6 Select Internet Protocol Version 4 (TCP/IPv4) and then select Properties.
Appendix B Setting Up Your Computer’s IP Address 7 The Internet Protocol Version 4 (TCP/IPv4) Properties window opens. Figure 132 Windows Vista: Internet Protocol Version 4 (TCP/IPv4) Properties 8 Select Obtain an IP address automatically if your network administrator or ISP assigns your IP address dynamically.
Appendix B Setting Up Your Computer’s IP Address 2 In the Command Prompt window, type "ipconfig" and then press [ENTER]. You can also go to Start > Control Panel > Network Connections, right-click a network connection, click Status and then click the Support tab to view your IP address and connection information. Windows 7 This section shows screens from Windows 7 Enterprise. 1 Click Start > Control Panel.
Appendix B Setting Up Your Computer’s IP Address 3 Click Change adapter settings. Figure 135 Windows 7: Network And Sharing Center 4 Double click Local Area Connection and then select Properties. Figure 136 Windows 7: Local Area Connection Status Note: During this procedure, click Continue whenever Windows displays a screen saying that it needs your permission to continue.
Appendix B Setting Up Your Computer’s IP Address 5 Select Internet Protocol Version 4 (TCP/IPv4) and then select Properties.
Appendix B Setting Up Your Computer’s IP Address 6 The Internet Protocol Version 4 (TCP/IPv4) Properties window opens. Figure 138 Windows 7: Internet Protocol Version 4 (TCP/IPv4) Properties 7 Select Obtain an IP address automatically if your network administrator or ISP assigns your IP address dynamically. Select Use the following IP Address and fill in the IP address, Subnet mask, and Default gateway fields if you have a static IP address that was assigned to you by your network administrator or ISP.
Appendix B Setting Up Your Computer’s IP Address 3 The IP settings are displayed as follows. Figure 139 Windows 7: Internet Protocol Version 4 (TCP/IPv4) Properties Mac OS X: 10.3 and 10.4 The screens in this section are from Mac OS X 10.4 but can also apply to 10.3. 1 Click Apple > System Preferences. Figure 140 Mac OS X 10.
Appendix B Setting Up Your Computer’s IP Address 2 In the System Preferences window, click the Network icon. Figure 141 Mac OS X 10.4: System Preferences 3 When the Network preferences pane opens, select Built-in Ethernet from the network connection type list, and then click Configure. Figure 142 Mac OS X 10.
Appendix B Setting Up Your Computer’s IP Address 4 For dynamically assigned settings, select Using DHCP from the Configure IPv4 list in the TCP/IP tab. Figure 143 Mac OS X 10.4: Network Preferences > TCP/IP Tab. 5 For statically assigned settings, do the following: • From the Configure IPv4 list, select Manually. • In the IP Address field, type your IP address. • In the Subnet Mask field, type your subnet mask.
Appendix B Setting Up Your Computer’s IP Address • In the Router field, type the IP address of your device. Figure 144 Mac OS X 10.4: Network Preferences > Ethernet 6 Click Apply Now and close the window. Verifying Settings Check your TCP/IP properties by clicking Applications > Utilities > Network Utilities, and then selecting the appropriate Network Interface from the Info tab. Figure 145 Mac OS X 10.
Appendix B Setting Up Your Computer’s IP Address Mac OS X: 10.5 and 10.6 The screens in this section are from Mac OS X 10.5 but can also apply to 10.6. 1 Click Apple > System Preferences. Figure 146 Mac OS X 10.5: Apple Menu 2 In System Preferences, click the Network icon. Figure 147 Mac OS X 10.
Appendix B Setting Up Your Computer’s IP Address 3 When the Network preferences pane opens, select Ethernet from the list of available connection types. Figure 148 Mac OS X 10.5: Network Preferences > Ethernet 4 From the Configure list, select Using DHCP for dynamically assigned settings. 5 For statically assigned settings, do the following: • From the Configure list, select Manually. • In the IP Address field, enter your IP address. • In the Subnet Mask field, enter your subnet mask.
Appendix B Setting Up Your Computer’s IP Address • In the Router field, enter the IP address of your IAD. Figure 149 Mac OS X 10.5: Network Preferences > Ethernet 6 Click Apply and close the window.
Appendix B Setting Up Your Computer’s IP Address Verifying Settings Check your TCP/IP properties by clicking Applications > Utilities > Network Utilities, and then selecting the appropriate Network interface from the Info tab. Figure 150 Mac OS X 10.5: Network Utility Linux: Ubuntu 8 (GNOME) This section shows you how to configure your computer’s TCP/IP settings in the GNU Object Model Environment (GNOME) using the Ubuntu 8 Linux distribution.
Appendix B Setting Up Your Computer’s IP Address 1 Click System > Administration > Network. Figure 151 Ubuntu 8: System > Administration Menu 2 When the Network Settings window opens, click Unlock to open the Authenticate window. (By default, the Unlock button is greyed out until clicked.) You cannot make changes to your configuration unless you first enter your admin password.
Appendix B Setting Up Your Computer’s IP Address 3 In the Authenticate window, enter your admin account name and password then click the Authenticate button. Figure 153 Ubuntu 8: Administrator Account Authentication 4 In the Network Settings window, select the connection that you want to configure, then click Properties.
Appendix B Setting Up Your Computer’s IP Address 5 The Properties dialog box opens. Figure 155 Ubuntu 8: Network Settings > Properties • In the Configuration list, select Automatic Configuration (DHCP) if you have a dynamic IP address. • In the Configuration list, select Static IP address if you have a static IP address. Fill in the IP address, Subnet mask, and Gateway address fields. 6 Click OK to save the changes and close the Properties dialog box and return to the Network Settings screen.
Appendix B Setting Up Your Computer’s IP Address 7 If you know your DNS server IP address(es), click the DNS tab in the Network Settings window and then enter the DNS server information in the fields provided. Figure 156 Ubuntu 8: Network Settings > DNS 8 Click the Close button to apply the changes.
Appendix B Setting Up Your Computer’s IP Address tab. The Interface Statistics column shows data if your connection is working properly. Figure 157 Ubuntu 8: Network Tools Linux: openSUSE 10.3 (KDE) This section shows you how to configure your computer’s TCP/IP settings in the K Desktop Environment (KDE) using the openSUSE 10.3 Linux distribution. The procedure, screens and file locations may vary depending on your specific distribution, release version, and individual configuration.
Appendix B Setting Up Your Computer’s IP Address 1 Click K Menu > Computer > Administrator Settings (YaST). Figure 158 openSUSE 10.3: K Menu > Computer Menu 2 When the Run as Root - KDE su dialog opens, enter the admin password and click OK. Figure 159 openSUSE 10.
Appendix B Setting Up Your Computer’s IP Address 3 When the YaST Control Center window opens, select Network Devices and then click the Network Card icon. Figure 160 openSUSE 10.3: YaST Control Center 4 When the Network Settings window opens, click the Overview tab, select the appropriate connection Name from the list, and then click the Configure button. Figure 161 openSUSE 10.
Appendix B Setting Up Your Computer’s IP Address 5 When the Network Card Setup window opens, click the Address tab Figure 162 openSUSE 10.3: Network Card Setup 6 Select Dynamic Address (DHCP) if you have a dynamic IP address. Select Statically assigned IP Address if you have a static IP address. Fill in the IP address, Subnet mask, and Hostname fields. 7 272 Click Next to save the changes and close the Network Card Setup window.
Appendix B Setting Up Your Computer’s IP Address 8 If you know your DNS server IP address(es), click the Hostname/DNS tab in Network Settings and then enter the DNS server information in the fields provided. Figure 163 openSUSE 10.3: Network Settings 9 Click Finish to save your settings and close the window. Verifying Settings Click the KNetwork Manager icon on the Task bar to check your TCP/IP properties. From the Options sub-menu, select Show Connection Information. Figure 164 openSUSE 10.
Appendix B Setting Up Your Computer’s IP Address When the Connection Status - KNetwork Manager window opens, click the Statistics tab to see if your connection is working properly.
APPENDIX C Pop-up Windows, JavaScripts and Java Permissions In order to use the web configurator you need to allow: • Web browser pop-up windows from your device. • JavaScripts (enabled by default). • Java permissions (enabled by default). Note: Internet Explorer 6 screens are used here. Screens for other Internet Explorer versions may vary. Internet Explorer Pop-up Blockers You may have to disable pop-up blocking to log into your device.
Appendix C Pop-up Windows, JavaScripts and Java Permissions 1 In Internet Explorer, select Tools, Internet Options, Privacy. 2 Clear the Block pop-ups check box in the Pop-up Blocker section of the screen. This disables any web pop-up blockers you may have enabled. Figure 167 Internet Options: Privacy 3 Click Apply to save this setting. Enable Pop-up Blockers with Exceptions Alternatively, if you only want to allow pop-up windows from your device, see the following steps.
Appendix C Pop-up Windows, JavaScripts and Java Permissions 2 Select Settings…to open the Pop-up Blocker Settings screen. Figure 168 Internet Options: Privacy 3 Type the IP address of your device (the web page that you do not want to have blocked) with the prefix “http://”. For example, http://192.168.167.1.
Appendix C Pop-up Windows, JavaScripts and Java Permissions 4 Click Add to move the IP address to the list of Allowed sites. Figure 169 Pop-up Blocker Settings 5 Click Close to return to the Privacy screen. 6 Click Apply to save this setting. JavaScripts If pages of the web configurator do not display properly in Internet Explorer, check that JavaScripts are allowed.
Appendix C Pop-up Windows, JavaScripts and Java Permissions 1 In Internet Explorer, click Tools, Internet Options and then the Security tab. Figure 170 Internet Options: Security 2 Click the Custom Level... button. 3 Scroll down to Scripting. 4 Under Active scripting make sure that Enable is selected (the default). 5 Under Scripting of Java applets make sure that Enable is selected (the default).
Appendix C Pop-up Windows, JavaScripts and Java Permissions 6 Click OK to close the window. Figure 171 Security Settings - Java Scripting Java Permissions 280 1 From Internet Explorer, click Tools, Internet Options and then the Security tab. 2 Click the Custom Level... button. 3 Scroll down to Microsoft VM. 4 Under Java permissions make sure that a safety level is selected.
Appendix C Pop-up Windows, JavaScripts and Java Permissions 5 Click OK to close the window. Figure 172 Security Settings - Java JAVA (Sun) 1 From Internet Explorer, click Tools, Internet Options and then the Advanced tab. 2 Make sure that Use Java 2 for
Appendix C Pop-up Windows, JavaScripts and Java Permissions 3 Click OK to close the window. Figure 173 Java (Sun) Mozilla Firefox Mozilla Firefox 2.0 screens are used here. Screens for other versions may vary. You can enable Java, Javascripts and pop-ups in one screen. Click Tools, then click Options in the screen that appears.
Appendix C Pop-up Windows, JavaScripts and Java Permissions Click Content.to show the screen below. Select the check boxes as shown in the following screen.
Appendix C Pop-up Windows, JavaScripts and Java Permissions 284 IAD User’s Guide
APPENDIX D IP Addresses and Subnetting This appendix introduces IP addresses and subnet masks. IP addresses identify individual devices on a network. Every networking device (including computers, servers, routers, printers, etc.) needs an IP address to communicate across the network. These networking devices are also known as hosts. Subnet masks determine the maximum number of possible hosts on a network. You can also use subnet masks to divide one network into multiple sub-networks.
Appendix D IP Addresses and Subnetting The following figure shows an example IP address in which the first three octets (192.168.1) are the network number, and the fourth octet (16) is the host ID. Figure 176 Network Number and Host ID How much of the IP address is the network number and how much is the host ID varies according to the subnet mask.
Appendix D IP Addresses and Subnetting By convention, subnet masks always consist of a continuous sequence of ones beginning from the leftmost bit of the mask, followed by a continuous sequence of zeros, for a total number of 32 bits. Subnet masks can be referred to by the size of the network number part (the bits with a “1” value). For example, an “8-bit mask” means that the first 8 bits of the mask are ones and the remaining 24 bits are zeroes.
Appendix D IP Addresses and Subnetting Notation Since the mask is always a continuous number of ones beginning from the left, followed by a continuous number of zeros for the remainder of the 32 bit mask, you can simply specify the number of ones instead of writing the value of each octet. This is usually specified by writing a “/” followed by the number of bits in the mask after the address. For example, 192.1.1.0 /25 is equivalent to saying 192.1.1.0 with subnet mask 255.255.255.128.
Appendix D IP Addresses and Subnetting The following figure shows the company network before subnetting. Figure 177 Subnetting Example: Before Subnetting You can “borrow” one of the host ID bits to divide the network 192.168.1.0 into two separate sub-networks. The subnet mask is now 25 bits (255.255.255.128 or /25). The “borrowed” host ID bit can have a value of either 0 or 1, allowing two subnets; 192.168.1.0 /25 and 192.168.1.128 /25. The following figure shows the company network after subnetting.
Appendix D IP Addresses and Subnetting In a 25-bit subnet the host ID has 7 bits, so each sub-network has a maximum of 27 – 2 or 126 possible hosts (a host ID of all zeroes is the subnet’s address itself, all ones is the subnet’s broadcast address). 192.168.1.0 with mask 255.255.255.128 is subnet A itself, and 192.168.1.127 with mask 255.255.255.128 is its broadcast address. Therefore, the lowest IP address that can be assigned to an actual host for subnet A is 192.168.1.1 and the highest is 192.168.1.126.
Appendix D IP Addresses and Subnetting Table 87 Subnet 3 IP/SUBNET MASK NETWORK NUMBER LAST OCTET BIT VALUE IP Address 192.168.1. 128 IP Address (Binary) 11000000.10101000.00000001. 10000000 Subnet Mask (Binary) 11111111.11111111.11111111. 11000000 Subnet Address: 192.168.1.128 Lowest Host ID: 192.168.1.129 Broadcast Address: 192.168.1.191 Highest Host ID: 192.168.1.190 Table 88 Subnet 4 IP/SUBNET MASK NETWORK NUMBER LAST OCTET BIT VALUE IP Address 192.168.1.
Appendix D IP Addresses and Subnetting Subnet Planning The following table is a summary for subnet planning on a network with a 24-bit network number. Table 90 24-bit Network Number Subnet Planning NO. “BORROWED” HOST BITS SUBNET MASK NO. SUBNETS NO. HOSTS PER SUBNET 1 255.255.255.128 (/25) 2 126 2 255.255.255.192 (/26) 4 62 3 255.255.255.224 (/27) 8 30 4 255.255.255.240 (/28) 16 14 5 255.255.255.248 (/29) 32 6 6 255.255.255.252 (/30) 64 2 7 255.255.255.
Appendix D IP Addresses and Subnetting addresses, follow their instructions in selecting the IP addresses and the subnet mask. If the ISP did not explicitly give you an IP network number, then most likely you have a single user account and the ISP will assign you a dynamic IP address when the connection is established. If this is the case, it is recommended that you select a network number from 192.168.0.0 to 192.168.255.0.
Appendix D IP Addresses and Subnetting IP Address Conflicts Each device on a network must have a unique IP address. Devices with duplicate IP addresses on the same network will not be able to access the Internet or other resources. The devices may also be unreachable through the network. Conflicting Computer IP Addresses Example More than one device can not use the same IP address.
Appendix D IP Addresses and Subnetting following example, the LAN and WAN are on the same subnet. The LAN computers cannot access the Internet because the router cannot route between networks. Figure 180 Conflicting Router IP Addresses Example Conflicting Computer and Router IP Addresses Example More than one device can not use the same IP address. In the following example, the computer and the router’s LAN port both use 192.168.1.1 as the IP address. The computer cannot access the Internet.
Appendix D IP Addresses and Subnetting 296 IAD User’s Guide
APPENDIX E Wireless LANs Note: Your specific IAD may not support all of the wireless security types described in this appendix. See the product specifications for more information about which wireless security types are supported. Wireless LAN Topologies This section discusses ad-hoc and infrastructure wireless LAN topologies. Ad-hoc Wireless LAN Configuration The simplest WLAN configuration is an independent (Ad-hoc) WLAN that connects a set of computers with wireless adapters (A, B, C).
Appendix E Wireless LANs Intra-BSS traffic is traffic between wireless clients in the BSS. When Intra-BSS is enabled, wireless client A and B can access the wired network and communicate with each other. When Intra-BSS is disabled, wireless client A and B can still access the wired network but cannot communicate with each other.
Appendix E Wireless LANs An ESSID (ESS IDentification) uniquely identifies each ESS. All access points and their associated wireless clients within the same ESS must have the same ESSID in order to communicate. Figure 184 Infrastructure WLAN Channel A channel is the radio frequency(ies) used by wireless devices to transmit and receive data. Channels available depend on your geographical area.
Appendix E Wireless LANs hidden node. Both stations (STA) are within range of the access point (AP) or wireless gateway, but out-of-range of each other, so they cannot "hear" each other, that is they do not know if the channel is currently being used. Therefore, they are considered hidden from each other. Figure 185 RTS/CTS When station A sends data to the AP, it might not know that the station B is already using the channel.
Appendix E Wireless LANs Fragmentation Threshold A Fragmentation Threshold is the maximum data fragment size (between 256 and 2432 bytes) that can be sent in the wireless network before the AP will fragment the packet into smaller data frames. A large Fragmentation Threshold is recommended for networks not prone to interference while you should set a smaller threshold for busy networks or networks that are prone to interference.
Appendix E Wireless LANs several intermediate rate steps between the maximum and minimum data rates. The IEEE 802.11g data rate and modulation are as follows: Table 92 IEEE 802.11g DATA RATE (MBPS) MODULATION 1 DBPSK (Differential Binary Phase Shift Keyed) 2 DQPSK (Differential Quadrature Phase Shift Keying) 5.
Appendix E Wireless LANs accounting and control features. It is supported by Windows XP and a number of network devices. Some advantages of IEEE 802.1x are: • User based identification that allows for roaming. • Support for RADIUS (Remote Authentication Dial In User Service, RFC 2138, 2139) for centralized user profile and accounting management on a network RADIUS server.
Appendix E Wireless LANs The following types of RADIUS messages are exchanged between the access point and the RADIUS server for user accounting: • Accounting-Request Sent by the access point requesting accounting. • Accounting-Response Sent by the RADIUS server to indicate that it has started or stopped accounting. In order to ensure network security, the access point and the RADIUS server use a shared secret key, which is a password, they both know. The key is not sent over the network.
Appendix E Wireless LANs authentication method does not support data encryption with dynamic session key. You must configure WEP encryption keys for data encryption. EAP-TLS (Transport Layer Security) With EAP-TLS, digital certifications are needed by both the server and the wireless clients for mutual authentication. The server presents a certificate to the client. After validating the identity of the server, the client sends a different certificate to the server.
Appendix E Wireless LANs Note: EAP-MD5 cannot be used with Dynamic WEP Key Exchange For added security, certificate-based authentications (EAP-TLS, EAP-TTLS and PEAP) use dynamic keys for data encryption. They are often deployed in corporate environments, but for public deployment, a simple user name and password pair is more practical. The following table is a comparison of the features of authentication types.
Appendix E Wireless LANs required for compatibility reasons, but offers stronger encryption than TKIP with Advanced Encryption Standard (AES) in the Counter mode with Cipher block chaining Message authentication code Protocol (CCMP). TKIP uses 128-bit keys that are dynamically generated and distributed by the authentication server. AES (Advanced Encryption Standard) is a block cipher that uses a 256-bit mathematical algorithm called Rijndael.
Appendix E Wireless LANs authentication. These two features are optional and may not be supported in all wireless devices. Key caching allows a wireless client to store the PMK it derived through a successful authentication with an AP. The wireless client uses the PMK when it tries to connect to the same AP and does not need to go with the authentication process again. Pre-authentication enables fast roaming by allowing the wireless client (already connecting to an AP) to perform IEEE 802.
Appendix E Wireless LANs 4 The RADIUS server distributes the PMK to the AP. The AP then sets up a key hierarchy and management system, using the PMK to dynamically generate unique data encryption keys. The keys are used to encrypt every data packet that is wirelessly communicated between the AP and the wireless clients. Figure 186 WPA(2) with RADIUS Application Example WPA(2)-PSK Application Example A WPA(2)-PSK application looks as follows.
Appendix E Wireless LANs 4 The AP and wireless clients use the TKIP or AES encryption process, the PMK and information exchanged in a handshake to create temporal encryption keys. They use these keys to encrypt data exchanged between them. Figure 187 WPA(2)-PSK Authentication Security Parameters Summary Refer to this table to see what other security parameters you should configure for each authentication method or key management protocol type.
Appendix E Wireless LANs Antenna Overview An antenna couples RF signals onto air. A transmitter within a wireless device sends an RF signal to the antenna, which propagates the signal through the air. The antenna also operates in reverse by capturing RF signals from the air. Positioning the antennas properly increases the range and coverage area of a wireless LAN. Antenna Characteristics Frequency An antenna in the frequency of 2.4GHz (IEEE 802.11b and IEEE 802.11g) or 5GHz (IEEE 802.
Appendix E Wireless LANs • Omni-directional antennas send the RF signal out in all directions on a horizontal plane. The coverage area is torus-shaped (like a donut) which makes these antennas ideal for a room environment. With a wide coverage area, it is possible to make circular overlapping coverage areas with multiple access points. • Directional antennas concentrate the RF signal in a beam, like a flashlight does with the light from its bulb.
APPENDIX F Common Services The following table lists some commonly-used services and their associated protocols and port numbers. For a comprehensive list of port numbers, ICMP type/ code numbers and services, visit the IANA (Internet Assigned Number Authority) web site. • Name: This is a short, descriptive name for the service. You can use this one or create a different one, if you like. • Protocol: This is the type of IP protocol used by the service.
Appendix F Common Services Table 96 Commonly Used Services (continued) 314 NAME PROTOCOL PORT(S) DESCRIPTION ESP (IPSEC_TUNNEL) User-Defined 50 The IPSEC ESP (Encapsulation Security Protocol) tunneling protocol uses this service. FINGER TCP 79 Finger is a UNIX or Internet related command that can be used to find out if a user is logged on. FTP TCP 20 TCP 21 File Transfer Program, a program to enable fast transfer of files, including large files that may not be possible by e-mail. H.
Appendix F Common Services Table 96 Commonly Used Services (continued) NAME PROTOCOL PORT(S) DESCRIPTION PPTP TCP 1723 Point-to-Point Tunneling Protocol enables secure transfer of data over public networks. This is the control channel. PPTP_TUNNEL (GRE) User-Defined 47 PPTP (Point-to-Point Tunneling Protocol) enables secure transfer of data over public networks. This is the data channel. RCMD TCP 512 Remote Command Service.
Appendix F Common Services Table 96 Commonly Used Services (continued) 316 NAME PROTOCOL PORT(S) DESCRIPTION TFTP UDP 69 Trivial File Transfer Protocol is an Internet file transfer protocol similar to FTP, but uses the UDP (User Datagram Protocol) rather than TCP (Transmission Control Protocol). VDOLIVE TCP 7000 Another videoconferencing solution.
APPENDIX G Legal Information Copyright Copyright © 2009 by ZyXEL Communications Corporation. The contents of this publication may not be reproduced in any part or as a whole, transcribed, stored in a retrieval system, translated into any language, or transmitted in any form or by any means, electronic, mechanical, magnetic, optical, chemical, photocopying, manual, or otherwise, without the prior written permission of ZyXEL Communications Corporation. Published by ZyXEL Communications Corporation.
Appendix G Legal Information • This device may not cause harmful interference. • This device must accept any interference received, including interference that may cause undesired operations. This device has been tested and found to comply with the limits for a Class B digital device pursuant to Part 15 of the FCC Rules. These limits are designed to provide reasonable protection against harmful interference in a residential installation.
Appendix G Legal Information 第十四條 低功率射頻電機之使用不得影響飛航安全及干擾合法通信；經發現 有干擾現象時，應立即停用，並改善至無干擾時方得繼續使用。 前項合法通信，指依電信規定作業之無線電信。低功率射頻電機須忍 受合法通信或工業、科學及醫療用電波輻射性電機設備之干擾。 在 5250MHz~5350MHz 頻帶內操作之無線資訊傳輸設備，限於室內使用。 本機限在不干擾合法電臺與不受被干擾保障條件下於室內使用。 減少電磁波影響，請妥適使用。 Notices Changes or modifications not expressly approved by the party responsible for compliance could void the user's authority to operate the equipment. This device has been designed for the WLAN 2.
Appendix G Legal Information and/or materials, ZyXEL will, at its discretion, repair or replace the defective products or components without charge for either parts or labor, and to whatever extent it shall deem necessary to restore the product or components to proper operating condition. Any replacement will consist of a new or re-manufactured functionally equivalent product of equal or higher value, and will be solely at the discretion of ZyXEL.
Index Index A Advanced Encryption Standard See AES. AES 307 ALG 111 alternative subnet mask notation 288 antenna directional 312 gain 311 omni-directional 312 call transfer 133, 134 call waiting 132, 134, 233 caller ID 233 Certificate Authority See CA.
Index do not disturb 232 rule security considerations 154 stateful inspection 137 TCP maximum incomplete 153 three-way handshake 151 domain name system see DNS DoS 138, 153 DS field 177 DS See Differentiated Services DSCP 177 DTMF detection and generation 234 dynamic DNS 179 Dynamic Host Configuration Protocol. See DHCP.
Index Windows XP 201 multiple voice channels 233 Internet access 22 Internet Assigned Numbers Authority See IANA 293 IP address 61, 104, 105, 130 IP address assignment 56 IP pool 64 IP pool setup 60 J jitter buffer 233 N NAT 61, 104, 105, 293 address mapping rule 110 application 114 definitions 112 how it works 113 mapping types 114 what it does 112 NAT (Network Address Translation) 101 NAT traversal 197 non-proxy calls 126 K key combinations 135 keypad 135 O one minute high 153 one minute low 152 ope
Index preamble mode 301 Ringer Equivalence Number 233 product registration 320 RIP 62 direction 62 Routing Information Protocol see RIP version 62 PSK 307 Q QoS 176 marking 164 tagging 164 versus CoS 164 router features 22 RTCP 234 RTP 234 RTS (Request To Send) 300 threshold 299, 300 QoS class configuration 166 Quality of Service (QoS) 163 quick dialing 234 S Quick Start Guide 29 safety warnings 7 SDP 234 R RADIUS 303 message types 303 messages 303 shared secret key 304 Service Set 74 service typ
Index status indicators 26 storage humidity 231 storage temperature 231 SUA 102 SUA (Single User Account) 102 SUA vs NAT 102 subnet 285 subnet mask 61, 148, 286 subnetting 288 supplementary services 131 syntax conventions 5 syslog 143 system name 212 system timeout 185 T TCP maximum incomplete 152, 153 Telnet 186 temperature 231 Temporal Key Integrity Protocol (TKIP) 306 three-way conference 133, 135 trademarks 317 Triangle 155 Triangle Route Solutions 156 U Uniform Resource Identifier 117 Universal Plug
Index voice channels 233 VoIP 117 peer-to-peer calls 126 VoIP features 23 VoIP standards compliance 233 W WAN (Wide Area Network) 55 warranty 319 note 320 Web 185 Web Configurator 29, 155 WEP encryption 78 Wi-Fi Protected Access 306 wireless client WPA supplicants 308 wireless security 302 wireless station list 49 WLAN interference 299 security parameters 310 WLAN button 24 WPA 306 key caching 308 pre-authentication 308 user authentication 307 vs WPA-PSK 307 wireless client supplicant 308 with RADIUS appli
