H3C vs Huawei Switches: Comware vs VRP CLI and Buying Guide - 夜莺博客

H3C vs Huawei Switches: Comware vs VRP CLI and Buying Guide

H3C and Huawei share a common origin but have evolved into fully separate vendors with two different network operating systems: H3C runs Comware, Huawei runs VRP. Both CLIs are deliberately Cisco-like, which makes life easier for engineers migrating between the brands. This guide compares the two ecosystems — CLI style, campus model lines, data center options and price positioning — and answers the practical question of whether you can mix H3C and Huawei switches in one network.

The comparison is aimed at engineers who have to make a procurement or migration decision rather than collect specifications. Model numbers only matter insofar as they map to a supported software train and a life cycle; what actually determines whether a deployment succeeds is the CLI habits your team already has, the management platform you standardise on, and whether the vendor has a local channel that can deliver spares in 24 hours.

H3C vs Huawei: At a Glance

Dimension H3C (S5560/S6520) Huawei (S5700/S6700)
CLI style Comware (Cisco-like) VRP (Cisco-like)
Access sweet spot S5500/S5560 (1G PoE) S5700 (1G PoE)
Aggregation S6520 (10G uplinks) S6700 (10G uplinks)
Data center S10500 / H3C DC line CloudEngine (CE68/CE128)
Market strength China/APAC Global
Operating system Comware 7 VRP V200 (CE: V300)
Prompt after login <H3C> <Huawei>
Enter configuration mode system-view → [H3C] system-view → [Huawei]
Show output display ... display ...
Save configuration save force save
Stacking technology IRF iStack / CSS (data center)
Campus SDN controller AD-Campus / SeerEngine iMaster NCE-Campus

Shared History, Separate Roads

The two companies were one entity for a period: Huawei and 3Com created the H3C joint venture in 2003, and Huawei's enterprise switches of that era share DNA with what became Comware. The joint venture separated, H3C passed through HP and later Tsinghua Unigroup ownership, and the two product lines diverged. That history explains why the command shapes remain so similar — display instead of show, system-view instead of configure terminal, and a three-level prompt hierarchy that both vendors kept.

The divergence is more important than the similarity today. H3C's campus portfolio and Huawei's campus portfolio are now independent, the management platforms are entirely separate products, and the data center roadmaps point in different directions. Nothing on one platform is guaranteed to behave identically on the other, and treating them as interchangeable because the CLI looks the same is the most common mistake made by teams who are new to both.

Operating Systems: Comware 7 vs VRP

Comware 7 and VRP V200 are both modular network operating systems with a multi-process architecture, a separate control plane and forwarding plane, and in-service software upgrade support on the higher-end platforms. Both carry feature licensing for advanced routing and both expose structured management interfaces — NETCONF and RESTCONF on the higher-end models, plus SNMPv3 and gRPC-style telemetry on newer hardware.

Where they differ in daily operation is the configuration model. Comware organises features into clearly separated views with a strict hierarchy, and it validates configuration aggressively as you type. VRP is slightly more permissive and lets you stage configuration in some contexts before the interface or protocol exists. Neither is better in the abstract; what matters is which one your team will be debugging at 3am, and which vendor's documentation your engineers can actually read.

Comware vs VRP: CLI Differences

Both operating systems use a hierarchical CLI (user view → system view → feature views). A quick example on H3C Comware 7:

<H3C> system-view
[H3C] vlan 10
[H3C-vlan10] description Users

And the equivalent on Huawei VRP:

<Huawei> system-view
[Huawei] vlan 10
[Huawei-vlan10] description Users

The command shapes are nearly identical, but details differ (for example H3C uses display and reset saved-configuration on Comware 7 much like Huawei). Teams coming from Cisco will find either easy; teams coming from HP ProCurve may find Comware more familiar since H3C's lineage includes HP. For a deeper command-by-command comparison, see our H3C vs Huawei command comparison and H3C Comware CLI basics.

Side-by-Side Command Reference

Task H3C Comware 7 Huawei VRP
Show running config display current-configuration display current-configuration
Show interfaces summary display interface brief display interface brief
Save the configuration save force save
Clear startup config reset saved-configuration reset saved-configuration
Set an access port port link-type access / port access vlan 10 port link-type access / port default vlan 10
Set a trunk port port link-type trunk / port trunk permit vlan 10 port link-type trunk / port trunk allow-pass vlan 10
Native / PVID VLAN port trunk pvid vlan 999 port trunk pvid vlan 999
Create an aggregation interface Bridge-Aggregation 1 interface Eth-Trunk 1
Add a member port port link-aggregation group 1 eth-trunk 1
LACP mode link-aggregation mode dynamic mode lacp-static
Static route ip route-static 0.0.0.0 0 10.0.0.1 ip route-static 0.0.0.0 0 10.0.0.1
VRRP virtual IP vrrp vrid 1 virtual-ip 172.16.1.1 vrrp vrid 1 virtual-ip 172.16.1.1
Basic ACL acl basic 2000 acl 2000
Advanced ACL acl advanced 3000 acl 3000
Enable SSH server ssh server enable stelnet server enable
Local user local-user admin class manage aaa / local-user admin

The row that surprises most engineers is SSH. Comware treats the SSH server as a single global service (ssh server enable) plus a local user, while VRP requires the server to be enabled as stelnet and a VTY user interface to be created and bound to the SSH inbound protocol. Both are straightforward once you have done it once; neither is obvious from the other's documentation.

VLAN, Trunk and Link Aggregation in Practice

Layer 2 configuration is where the two platforms look most alike and behave most differently. Comware uses port access vlan to assign the untagged VLAN on an access port; VRP uses port default vlan. On a trunk, Comware permits VLANs with port trunk permit vlan and VRP allows them with port trunk allow-pass vlan. These are not aliases — typing the wrong one produces a syntax error, and the habit you build on one platform will fail on the other for the first week.

The hybrid port is the other notable feature shared by both platforms and absent from Cisco's default model. A hybrid port can carry the same VLAN tagged on one link and untagged on another, which makes it useful when connecting to devices that expect untagged access in one direction and a tagged trunk in the other:

! H3C Comware 7 - hybrid port
interface GigabitEthernet1/0/1
   port link-type hybrid
   port hybrid vlan 10 untagged
   port hybrid vlan 20 tagged
   port hybrid pvid vlan 10

! Huawei VRP - hybrid port
interface GigabitEthernet0/0/1
   port link-type hybrid
   port hybrid untagged vlan 10
   port hybrid tagged vlan 20
   port hybrid pvid vlan 10

Note the word order: Comware puts untagged after the VLAN list, VRP puts it before. A small difference that wastes real time if you are translating configurations under pressure.

Stacking: IRF vs iStack and CSS

Both vendors offer proprietary switch stacking, and both take it seriously as an availability feature rather than a management convenience. H3C's implementation is IRF (Intelligent Resilient Framework), which turns up to nine switches into a single logical device with one control plane and one management address. Huawei's equivalent is iStack on the campus S series and CSS (Cluster Switch System) on the higher-end data center platforms, where it is combined with M-LAG or Eth-Trunk multi-chassis bundling.

Capability H3C IRF Huawei iStack / CSS
Logical device One IP, one config, one control plane One IP, one config, one control plane
Member count Typically 2–9 members Typically 2–9 members (iStack)
Member role Master / standby / slave Master / standby / slave
Interconnect IRF ports (dedicated logical ports) Stack ports / CSS fabric ports
Link aggregation to downstream Cross-member LACP M-LAG or Eth-Trunk across chassis
Split handling MAD detection (LACP or BFD) DAD detection / MAD relay

Both have a split-brain problem and both solve it the same way: a dedicated multi-active detection mechanism that keeps one side forwarding and shuts down the other's user ports. If you deploy either without configuring MAD or DAD, a failed stack cable becomes a duplicate-MAC event across the whole campus. This is the single highest-value operational check in an H3C or Huawei campus deployment.

Routing and High Availability

Both platforms implement OSPF, IS-IS, BGP, VRRP and PIM to standards, and both support route policies, prefix lists and BFD for sub-second failure detection. Interoperability with Cisco, Juniper and Arista is essentially a non-issue at Layer 3, which is the reassuring part of a mixed-vendor environment.

Configuration style differs in small ways worth knowing before you write a template. Comware declares OSPF processes with a dedicated view and enables OSPF per network or per interface; VRP does the same but frequently uses an area sub-view, which changes the nesting of the commands you type. VRRP is syntactically almost identical on both, including the vrrp vrid keyword, and both support VRRP tracking so that an uplink failure can lower the priority and force a gateway failover. On the campus S series, both vendors also offer their own proprietary first-hop options, but these only work within a single vendor's stack and are best avoided in a mixed design.

Campus Portfolio Comparison

Layer H3C Huawei
Small branch access S5130 / S5120V3 S2730 / S2720
1G PoE access S5560 / S5500V3 S5720 / S5731
Multigigabit / 10G access S5560X-EI S5732 / S5735
Aggregation, 10G/25G uplinks S6520X S6720 / S6730
Core / chassis S7500X / S10500X S7700 / S12700E
Data center ToR S6850 / S6805 CE6857 / CE6865
Data center spine/leaf S12500 / S9820 CE8850 / CE12800
Campus controller AD-Campus / SeerEngine-Campus iMaster NCE-Campus
Wireless H3C Wireless (WX access controllers) AirEngine + iMaster NCE

Both portfolios cover every layer of a campus and data center network, so the decision rarely comes down to a missing feature. It comes down to which silicon generation is current in the model you are buying, how long the software train is supported, and whether a local partner can hold spare units. Ask for the end-of-sale and end-of-support dates in writing before you standardise on a model line.

Data Center and SDN Direction

Huawei has the more unified story from campus to data center. CloudEngine switches run a VRP derivative, the NetEngine and CloudEngine families share management tooling, and the iMaster NCE platform spans fabric automation, campus and WAN under one product family. For an organisation that wants a single management plane from access switch to data center leaf, that continuity is a genuine advantage.

H3C's data center line is technically strong, particularly the S12500 and S9820 series, and its AD-DC / SeerEngine platform covers fabric automation capably. The difference is scale of adoption rather than capability: CloudEngine has a larger install base in large-scale Chinese and global data centers, which means more third-party integration, more reference designs and more engineers who have operated it. Where the data center fleet is already built on one vendor, adding the other for the campus is generally not worth the management overhead.

Cost, Licensing and Support

Both vendors price below comparable Cisco, Arista or Juniper hardware, and both frequently win on total cost when the requirement is a large, standardised campus refresh. H3C often prices slightly more aggressively in China and parts of APAC, where its channel is deepest; Huawei's global channel is broader outside China, and its service organisation scales better for multinational rollouts.

Watch three commercial details rather than headline price. Feature licensing is not always included — advanced routing, MPLS and some SDN controller functions are licensed per device or per managed endpoint. Software maintenance contracts vary in how much feature release access they grant. And spare parts availability should be verified in writing, because a switch that cannot be replaced in 48 hours is a different risk profile from one that can.

How to Choose

  • Cost-sensitive campus with a Cisco-like CLI? Both work; H3C often prices slightly more aggressively in APAC.
  • One vendor from campus to data center? Huawei (S series + CloudEngine) has the more unified story; H3C's data center line has a smaller market share.
  • Existing fleet? Stay with the incumbent brand — switching vendors for specs alone is rarely worth it.
  • Your engineers already know one CLI? The command differences are a week of learning. Retraining a whole network team and rewriting every run book is months of work, so weight the CLI you already operate.
  • Management platform requirements? If a controller-driven campus is planned, put the controller comparison ahead of the switch comparison. The switches are largely equivalent; the controllers are not.
  • Multinational footprint? Huawei's global service reach is usually easier to contract for a rollout outside China.

Can You Mix H3C and Huawei in One Network?

Yes, at the protocol level: both support standard L2/L3, VLANs, stacking and OSPF/BGP, so interoperability in a mixed network is fine. What you cannot do is mix them inside a proprietary stack (iStack/IRF) — keep each brand within its own stack.

There are a few practical rules that make a mixed H3C and Huawei network manageable rather than fragile. Keep each vendor's proprietary stack self-contained, as noted. Standardise on proper standards-based link aggregation between tiers rather than proprietary multi-chassis bundling across brands. Prefer VRRP over either vendor's proprietary first-hop protocol, since VRRP is an open standard both implement. And standardise the VLAN and addressing plan centrally, because the access-port commands differ just enough that a copy-paste mistake between an H3C and a Huawei switch will usually be accepted by the parser but do the wrong thing.

Migration Checklist

  • Confirm which software train the target model ships with, and its end-of-support date, before committing to a model line.
  • Translate run books, not just configurations: display output formatting differs between Comware versions and VRP releases.
  • Replace all proprietary stacking with a standards-based design if the fleet becomes mixed.
  • Verify MAD or DAD is configured on every stack, and test it in a lab by pulling the stack cable.
  • Check licensing for every feature you actually intend to enable, including the SDN controller's managed-device count.
  • Test spares and RMA turnaround in writing with the local partner before the first production cutover.
  • Standardise SNMPv3, syslog and NTP across both vendors so the monitoring platform sees one consistent view.

Related Articles

See also Huawei VRP common commands and troubleshooting and Huawei switch factory reset methods.

If you are working across several vendors at once, these three references save the most time: the Comware to VRP command mapping table, the Huawei, H3C and Cisco command equivalents, and the multi-vendor CLI cheat sheet for Cisco, Juniper and Huawei.

原文链接:https://www.linknewnet.com/blog/h3c-vs-huawei-switch-comparison