Using the Telnet Console

Parameter

Default

Description

 

 

 

 

 

Specifies the subnet mask assigned to the switch and to the

Subnet Mask

255.0.0.0

other devices on this segment of the network. Only available

 

 

for the Manual option.

 

 

 

 

 

Specifies the IP address of the device that routes to different

 

 

networks. A gateway must be defined if the workstation you

Default Gateway

0.0.0.0

are going to use for switch management is located on a

 

 

different IP segment than the switch. Only available for the

 

 

Manual option.

 

 

 

VLAN Name

default

Specifies the name of the VLAN that the switch resides in.

This VLAN must already exist.

 

 

 

 

 

3. To configure a name and contact information for the switch, enter information in these fields.

Parameter

Description

 

 

Name

Specifies the name assigned to the switch. If you are installing multiple

switches, you should give each a unique name.

 

 

 

Location

Specifies the physical location of the switch.

 

 

Contact

Specifies the name of the person responsible for the switch.

 

 

4. Highlight APPLY and press Enter.

Get IP From Description

The switch uses the Get IP From setting to determine where to get its IP address. You must use the Manual option if you want to configure multiple IP interfaces. The manual option is also more convenient if you are going to manage the switch with Telnet Console or Web Console. Both of these consoles require you to know the IP address, and although BOOTP/DHCP usually assign the same IP address when a device reboots, there is no guarantee.

•BOOTP—The switch sends out a BOOTP broadcast request when it is powered up. The BOOTP protocol allows IP addresses, network masks, and default gateways to be assigned by a central BOOTP server. If this option is set, the switch looks for a BOOTP server to provide it with this information.

•DHCP—The switch sends out a DHCP broadcast request when it is powered up. The DHCP protocol allows IP addresses, network masks, and default gateways to be assigned by a DHCP server. If this option is set, the switch looks for a DHCP server to provide it with this information.

•Manual—The switch uses the entered IP address, Subnet Mask, and Default Gateway. These entries should be of the form xxx.xxx.xxx.xxx, where each xxx is a number (represented in decimal form) between 0—255. This option requires entries in these fields:

—IP Address—This address should be a unique address on the network assigned to the switch by the network administrator.

—Subnet Mask—This is a bitmask that determines the extent of the subnet that the switch is on. The value should be 255.0.0.0 for a Class A network, 255.255.0.0 for a Class B network, and 255.255.255.0 for a Class C network, but custom subnet masks are allowed.

—Default Gateway—This IP address determines where packets with a destination address outside the current subnet are sent. This is usually the address of a router or a host acting as an IP gateway. If your network is not part of an intranet, or you do not want the switch to be accessible outside your local network, you can leave this field unchanged.

54

Intel® NetStructure™ ZT 8101 10/100 Ethernet Switch User’s Manual

Page 53 Page 55
Page 54
Image 54
Intel ZT 8101 10/100 user manual Highlight Apply and press Enter, For the Manual option
Page 53 Page 55

ZT 8101 10/100 specifications

The Intel ZT 8101 10/100 is a highly regarded network interface controller designed for efficient data communication in both home and enterprise environments. This versatile chip offers robust support for various networking technologies, making it suitable for a wide range of applications.

One of the most significant features of the Intel ZT 8101 is its capability to operate at both 10 Mbps and 100 Mbps, allowing for seamless integration into existing networks. This dual-speed functionality ensures that users can enjoy the benefits of faster data transfer rates while still maintaining compatibility with legacy hardware. The device automatically detects the network speed, facilitating a plug-and-play experience that minimizes user intervention.

The Intel ZT 8101 utilizes advanced features such as full-duplex support, which enables simultaneous data transmission and reception. This capability significantly enhances network efficiency and maximizes throughput, making it ideal for environments with high data traffic. Moreover, the chip employs sophisticated packet processing algorithms to prioritize data, reducing latency and ensuring smoother communication.

In terms of power efficiency, the Intel ZT 8101 is designed to consume minimal power, making it a suitable choice for energy-conscious applications. Its low power consumption allows for more efficient operations, contributing to overall system stability and longevity. Additionally, it incorporates power management features that can dynamically adjust the power usage based on network demand.

Another notable characteristic is the integration of hardware-based flow control, which helps prevent data packet loss during high-utilization periods. This capability is essential for maintaining the integrity of data transmission in busy network environments. The chip’s robust error detection and correction mechanisms further enhance data reliability, minimizing the chances of transmission errors.

The Intel ZT 8101 supports various network standards, including IEEE 802.3 and IEEE 802.3u, ensuring compatibility with a wide range of Ethernet devices. Its flexibility makes it an excellent choice for network upgrades, expansions, or new installations, allowing users to tailor their network infrastructure according to specific needs.

In summary, the Intel ZT 8101 10/100 network interface controller stands out for its dual-speed support, energy efficiency, and advanced networking features. Whether for home users looking to improve their network performance or businesses seeking reliable data communication solutions, the ZT 8101 represents a compelling choice that combines technology, reliability, and efficiency. As network demands continue to evolve, this Intel chip remains a fundamental component in many networking scenarios.
Top Page Image Contents