What Optical Modules Do S1700 Switches Support?

The following table lists the optical modules supported by the Huawei S1700 switches.

ESFP-GE-multimode module (850 nm, 0.5 km, LC)	ESFP-GE-single-mode module (1550 nm, 40 km, LC)
SFP-GE-single-mode module (1310 nm, 10 km, LC)	ESFP-GE-single-mode module (1550 nm, 80 km, LC)
ESFP-GE-single-mode module (1310 nm, 40 km, LC)	ESFP-GE-single-mode module (1550 nm, 100 km, LC)
ESFP-GE-single-mode module (1550 nm, 100 km, LC)	ESFP-GE-single-mode module (1550 nm, 40 km, LC)
SFP-GE-BIDI single-mode module (TX1490/ RX1310, 10 km, LC)	SFP-GE-BIDI single-mode module (TX1310/RX1490, 10 km, LC)

The comment question about the huawei S1700, maybe you want to know, plesae read as below:

Q1: Can S1700 be managed by U2000 or eSight?

A1: The S1700 series switches cannot be managed by U2000 or eSight.

Q2: What is the operating temperature range of S1700 switches?

A2: The operating temperature range of S1700 switches is 0°C to 45°C.

Q3: Why does the diskless workstation fail to start after STP is enabled on an S1700 web-managed switch?

A3: To solve this problem, configure the service port of the switch connected to the diskless workstation as an edge port. For details, see the user guide of the web network management system.

Q4: How many types do S1700 switches have? How can these types be differentiated? How Can I log in to these switches?

A4: The S1700 switches are classified into NMS-free, web-managed, and web/SNMP-managed switches, as listed in the following table. Use the IP addresses, user names, and passwords provided in the table to log in to the switches.

Type	Model	Default IP Address	UserName/Password
NMS-free switch	S1700-8-AC, S1700-24-AC, S1724G, S1700-52R-2T2P-AC, S1700-8G-AC	NA	NA
Web-managed switch	S1728GWR-4P	196.168.0.1	admin/admin
Web/SNMP-managed switch	S1700-28GFR-4P-AC, S1700-52GFR-4P-AC, S1700-28FR-2T2P-AC, S1700-52FR-2T2P-AC	192.168.1.25 3	admin/admin

The Naming Conventions of Huawei AR Routers

Do you know the Huawei AR router naming conventions? The answers will be shown as below.

AR150/ AR160/ AR200 series routers naming conventions

Figure 1 shows naming conventions of the AR150/160/200 series routers. Digits and letters are described in Table 1.

Figure 1 AR150/160/200 series routers naming conventions 

Table 1 AR150/160/200 series routers naming conventions

Field	Meaning	Description
A	Product name	AR: application and access routers
B	Hardware platform type. The value can be 1 or 2.	1: four LAN interfaces
		2: eight LAN interfaces
C	Combines with B to indicate different router series using the same hardware platform.	The following router series are available:
		15: 4*FE LAN interface series
		16: 4*GE LAN interface series
		20: 8*FE LAN interface series
D	Type of major or fixed uplink interfaces on the router	1: FE or GE
		6: ADSL-B/J
		7: ADSL-A/M
		8: G.SHDSL
		9: VDSL over POTS
E	Other interface types supported by the router. This field is optional.	E: enhanced major uplink interface (dual-uplink or two-wire/four-wire DSL enhanced)
		F: uplink GE combo interface
		G: uplink wireless interface (GPRS, 3G, or LTE)
		V: voice interface
		W: Wi-Fi access interface
F	Extended information about the router. This field is optional.	HSPA+7: WCDMA HSPA+7 3G standard
		C: CDMA2000 3G standard
	NOTE:	D: DC model
	This field starts with "-" and specifies supplementary interface descriptions or other possible configurations.	P: PoE supported
		L: FDD-LTE, a European standard

AR1200/ AR2200/ AR3200 series routers naming conventions

Figure 2 shows naming conventions of the AR1200/2200/3200 series routers. Digits and letters are described in Table 2.

Figure 2 AR1200/2200/3200 series routers naming conventions  

Table 2 AR1200/2200/3200 series routers naming conventions

Field	Meaning	Description
A	Product name	AR: application and access routers
B	Hardware platform series code	Currently, three router series are available: 1, 2 and 3. A larger value indicates higher performance.
C	Hardware platform type	2: modular router
D	Maximum number of slots supported by the router	AR1200 series: D indicates the maximum number of SIC slots supported.
		AR2200/3200 series: D indicates the maximum number of XISC slots supported.
		NOTE:
		D can be 0, indicating the cost-effective router model with fixed uplink interfaces or reduced number of slots. E represents the number of fixed uplink interfaces and or reduced number of slots.
E	Fixed uplink interfaces on the router	1: FE/GE
		2: E1/SA
		4: four SIC slots
		NOTE:
		If E is 0, the device has no fixed uplink interface.
F	Other interface types supported by the router. This field is optional.	F: FE LAN interface
		L: simplified interface
		V: fixed voice interface
		W: fixed Wi-Fi access interface
G	Extended information about the router. This field is optional.	A: AC model (AC is the default configuration, and this field can be omitted in AC models.)
		D: DC model
	NOTE:	48FE: 48 fixed 100M switching ports
	This field starts with "-" and specifies supplementary interface descriptions or other possible configurations.

More related:

Huawei AR530 Series Routers Specification

Huawei AR3200 Series Routers Specification

Huawei AR1200 Series Routers Specification

Huawei Router Purchase List – Component Selection Guide

End of Life Announcement for Some Huawei AR G3 Series Routers

How to Configure IS-IS IPv6 for Huawei Routers

Applicability

This example applies to all Huawei AR routers of V200R002C00 and later versions.

Networking Requirements

As shown in Figure 1:

• RouterA, RouterB, RouterC, and RouterD belong to the same AS. The four routers need to run IS-IS to implement IPv6 interworking.
• RouterA, RouterB, and RouterC belong to Area 10, and RouterD belongs to Area 20.
• RouterA and RouterB are Level-1 routers, RouterC is a Level-1-2 router, and RouterD is a Level-2 router.

Figure 1 Networking diagram of configuring IS-IS IPv6
 

Procedure

1. Configure RouterA.

#

 sysname RouterA

#

 ipv6  //Enable IPv6 unicast forwarding.

#

isis 1  //Enable IS-IS process 1.

 is-level level-1  //Set the router as a Level-1 router.

 network-entity 10.0000.0000.0001.00  //Set the NET for IS-IS process 1.

 #

 ipv6 enable topology standard  //Enable the IPv6 capability for IS-IS process 1.

 #

#

interface GigabitEthernet1/0/0

 ipv6 enable  //Enable IPv6 on the interface.

 ipv6 address 10:1::2/64  //Configure a global unicast IPv6 address for the interface.

 isis ipv6 enable 1  //Enable the IPv6 capability for IS-IS process 1 on the interface.

#

Return

2. Configure RouterB.

#

 sysname RouterB

#

 ipv6

#

isis 1

 is-level level-1

 network-entity 10.0000.0000.0002.00  //Set the NET for IS-IS process 1.

 #

 ipv6 enable topology standard

 #

#

interface GigabitEthernet1/0/0

 ipv6 enable

 ipv6 address 10:2::2/64  //Configure a global unicast IPv6 address for the interface.

 isis ipv6 enable 1

#

return

3. Configure RouterC.

#

 sysname RouterC

#

 ipv6

#

isis 1

 network-entity 10.0000.0000.0003.00  //Set the NET for IS-IS process 1.

 #

 ipv6 enable topology standard

 #

#

interface GigabitEthernet0/0/0

 ipv6 enable

 ipv6 address 30::1/64  //Configure a global unicast IPv6 address for the interface.

 isis ipv6 enable 1

 isis circuit-level level-2  //Set the circuit type as Level-2, allowing only Level-2 adjacencies to be established on the interface.

#

interface GigabitEthernet1/0/0

 ipv6 enable

 ipv6 address 10:1::1/64  //Configure a global unicast IPv6 address for the interface.

 isis ipv6 enable 1

#

interface GigabitEthernet2/0/0

 ipv6 enable

 ipv6 address 10:2::1/64  //Configure a global unicast IPv6 address for the interface.

 isis ipv6 enable 1

#

return

4. Configure RouterD.

#

 sysname RouterD

#

 ipv6

#

isis 1

 is-level level-2  //Set the router as a Level-2 router.

 network-entity 20.0000.0000.0004.00  //Set the NET for IS-IS process 1.

 #

 ipv6 enable topology standard

 #

#

interface GigabitEthernet1/0/0

 ipv6 enable

 ipv6 address 30::2/64  //Configure a global unicast IPv6 address for the interface.

 isis ipv6 enable 1

#

interface GigabitEthernet2/0/0

 ipv6 enable

 ipv6 address 20::1/64  //Configure a global unicast IPv6 address for the interface.

 isis ipv6 enable 1

#

return

5. Verify the configuration.

Run the display isis route command on each router to view IS-IS routes.

Interfaces on RouterA, RouterB, RouterC, and RouterD can successfully ping each other.

Configuration Notes

• IPv6 must be enabled in the system view and interface view.
• The IPv6 capability must be enabled for IS-IS on interfaces.
• When using the network-entity command to set a NET for an IS-IS process, configure the same area ID for routers in an area.

The more information about technical support you can consult with our technician - Bill, and his e-mail address is as below:  

bill@huanetwork.com

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Example for Configuring the SNMP Function to Implement Communication Between the Device and the NMS
Example for Connecting Intranet Users to the Internet in Easy IP Mode
Example for Configuring the Device as a PPPoE Client to Connect Users to the Internet
How to Configure the PPPoE Client on Huawei AR1200?
Example for Connecting Intranet Users to the Internet in NAT Address Pool Mode