---
title: "4 Steps to Build Trust in Network Automation"
id: "26042"
type: "post"
slug: "build-trust-network-automation-ip-fabric"
published_at: "2026-04-29T20:13:40+00:00"
modified_at: "2026-10-26T21:21:03+00:00"
url: "https://ipfabric.io/blog/build-trust-network-automation-ip-fabric/"
markdown_url: "https://ipfabric.io/blog/build-trust-network-automation-ip-fabric.md"
excerpt: "Learn how you can build reliable network automation and AIOps—starting with the right data."
taxonomy_category:
  - "AI &amp; automation"
taxonomy_post_tag:
  - "AIOps"
  - "MCP server"
  - "Network automation"
---

# 4 Steps to Build Trust in Network Automation

Learn how you can build reliable network automation and AIOps—starting with the right data.

[https://ipfabric.io/author/daren/](https://ipfabric.io/author/daren/)
[Daren Fulwell](https://ipfabric.io/author/daren/)
Field CTO

Published

29 Apr 2026

Updated

26 Oct 2026

For decades, network operations teams have followed a single mandate: run a network the business can depend on. This hasn’t changed much over the years, but what has changed is the level of complexity.

Modern enterprise networks are always in flux, with near-constant updates across data centers, cloud platforms, SaaS services, and edge environments. All together, this infrastructure powers the applications and services that keep the business running. But if you lose track of a device here, or a dependency there, it gets increasingly difficult to maintain an accurate understanding of what’s actually going on in your network.

Even the most experienced engineers can’t always predict how a given change will impact the customer experience. But there is a way to know—and it starts with better [network visibility](https://ipfabric.io/blog/ip-fabric-hybrid-multi-cloud-network-visibility/)
.

Transcript I wanted to show you something, some  
 experiments we’ve been doing on using  
 MCP as an interface into IP Fabric’s  
 data to really enable some interesting  
 use cases very much focused on the kinds  
 of things that you do or I do as a  
 network engineer. I’ll very quickly buzz  
 through the first one. We’ll talk about  
 root cause analysis. Now, what we’ve got  
 here is a situation with IP Fabric where  
 over two snapshots, we’ve got a path  
 from a host to uh AWS, and it’s changed.  
 Something’s changed uh during those two  
 paths. One one time it was going this  
 way towards this firewall and out. The  
 other time it’s going uh as you can see  
 down here into the MS network and across  
 means that the routing’s changed between  
 the two and we’ve got all the  
 information. But rather than dig into it  
 yourself to go find out, what we can do  
 instead is ask um ask Claude to help us  
 out here. So if I just switch this to uh  
 show you what I’ve done with Claude.  
 Claude is is now attached to an MCP  
 server which is hanging off the back of  
 IP Fabric and it’s able to query the  
 information and then reason about it. So  
 I’ve set up a prompt here as you can see  
 said that this these two devices are in  
 the network one’s on prem one’s in the  
 cloud some change has happened a  
 particular date go find out what  
 happened and so what it’s actually done  
 here um if you if I just quickly scroll  
 this through you’ll be able to see that  
 it’s got the information about the two  
 snapshots it’s traced the path in the  
 two similar to what we saw in the uh  
 visualization before but then it  
 actually looks at the reasons why that’s  
 happened. So it looks at the routting  
 tables on the devices,  
 understands that there’s the change,  
 identifies what that change is, and it  
 digs into the way that that change has  
 echoed through the network and  
 summarized it. Right? So it’s actually  
 produced an output here which  
 essentially says that route is  
 propagated from AWS through um BGP into  
 a firewall into OPF and it’s understood  
 all of that and it’s produced me a  
 report and that report details all of  
 the information that’s been used in  
 order to gain uh an understanding of  
 what’s happened. And what it’s done is  
 created me an executive summary as you  
 can see. And then down at the bottom  
 here, it’s given me some  
 recommendations, reviewing  
 redistribution policy, looking at the  
 design intent, consider root  
 summarization. So, it’s produced here a  
 report that basically is is um giving me  
 that root cause analysis that I’ve been  
 looking for.  
 That would have taken you or me as a  
 network engineer uh several hours to get  
 to the bottom of. And because we have  
 the data in IP fabric and because we can  
 expose it the right way, Claude is able  
 to do this for us in minutes.  
 If this is interesting um and you’re in  
 Amsterdam this week, go and see our team  
 um at Cisco Live. It’s in booth B 04 in  
 the world of solutions. They can show  
 you this and other examples like it of  
 things that you’re be enabled to do  
 using the unique data set that’s in IP  
 Fabric’s digital twin.  
 See you there.

*Learn more about IP Fabric’s enterprise-grade [MCP server](https://ipfabric.io/blog/ip-fabric-mcp-server-for-enterprise-aiops/)
.*

### Demand More From Your Network Data

When a NetOps team feels like they’re losing control of their network, automation is often their first attempt to fix it. They’ll take a “divide and conquer” approach: automating what they can, so they have more time to work on what they can’t. This strategy is sound in theory, but in order to succeed, they need to build automation using [the right data](https://ipfabric.io/blog/network-discovery-build-network-source-of-truth/)
. And so, we’ve circled back to our original problem: not having an accurate understanding of the network.

The same concern extends to [AIOps](https://ipfabric.io/unlock-aiops-with-ip-fabric-enterprise-mcp-server/)
. AI agents, like humans, need the right data to get the right result. Is your data consistent? Is it complete? Is it up to date? If you answer “no” to any of these three questions, your AI agent is as likely to make mistakes as any human employee.

Transcript AI does not magically fix bad data. So often times in our modern environments, we’re dealing with multiple vendors, whether those are on prim in the cloud, different vendors for routing, switching, wireless, uh, firewall. So  
 what we end up with is with a hodgepodge of tools oftent times with different gooies for management, different operating systems, and even different APIs, logs only show a small portion of the picture. Whereas with IP Fabric or network snapshots, you’re getting a complete view of how that network is architectured, configured, and operating. Our mission at IP Fabric is to democratize your network data. We try to empower everyone in the organization, whether they’re admin, engineer, automation engineer, AI developer. We try to democratize that data so they all can have that power to do that automation and make those consistent decisions and understand their network infrastructure.

*Learn more about how to [build for network automation and AI](https://ipfabric.io/blog/total-network-operations-network-digital-twin-ai/)* with IP Fabric.

### Close the Network Visibility Gap

The shift from manual operations to automation—and eventually, to [autonomy](https://ipfabric.io/blog/agentic-ai-autonomous-network-digital-twin/)
—is a progression that requires a continuously updated understanding of the network. AI agents act on context. If that context is trapped in people’s heads, the AI agent’s output will reflect that.

This is where [network digital twins](https://ipfabric.io/blog/total-network-operations-network-digital-twin-ai/)
 come in. Rather than cobbling together a patchwork view from spreadsheets and fragmented tooling, organizations can trust a network digital twin to be an authoritative simulation of network behavior at a given point in time. Better yet, it’s modeled in structured data so it can serve as a common cognitive substrate for human engineers and AI agents alike.

When your teams and tools are all informed by the same source of truth, it builds a foundation for more reliable and resilient operations. In other words, this shared visibility translates directly to lower risk—and cost—over time.

Transcript Hi, Darren Fwell from IP Fabric here  
 again um with another example of some of  
 the work that we’re doing with our  
 experimentation around MCP and exposing  
 IP Fabric’s knowledge and insight of  
 your network. Um what we’re doing here  
 today is we’re looking at a design  
 validation. So, as network engineers,  
 obviously we’ve all seen many network  
 design documents containing tables that  
 look something like this. Um, in this  
 case, you’ve got information here about  
 layer 2 connections between switches.  
 You’ve got layer three connections and  
 their IP addresses. You’ve got the the  
 gateway settings, and you’ve got the uh  
 VRP configuration information, for  
 example. You could have a bunch of  
 things here, but what we want to be able  
 to do is um go to our network and  
 validate that actually the network has  
 been deployed the way you would expect  
 it to. Now um as you can see from our IP  
 fabric snapshot here, we have  
 information about that location  
 is that you can already see there are  
 things missing obviously with the  
 resilience back back here in the  
 switches and that firewall there the the  
 VPN firewall clearly um isn’t connected  
 to anything. So what we’ll do is we’ll  
 just have a look at the the next  
 snapshot which shows um what happens  
 once some changes have been made. And  
 now you can see my firewall is connected  
 to the rider network. It’s also  
 connected out to AWS here. Um and I’ve  
 got some um connections as well, some  
 redundant connections from uh my  
 switches out here which I didn’t have  
 previously. So all good. But are they  
 configured the way that we need them to  
 be? Well, what I’m going to do, I’m  
 gonna te get someone to go and answer me  
 that question without me having to do it  
 myself. Um, let’s uh switch across and  
 show you what we asked uh Claude to do  
 for us. So, Claude is connected via MCP  
 to our IP fabric snapshot. Um, and what  
 we’re going to do is we’re going to ask  
 it to validate that design uh has been  
 implemented as expected. the layer two  
 uh layer three the uh first stop  
 resolution protocol is all configured as  
 it should be and that everything is  
 connected to the right interfaces and  
 then we’re going to ask it to to  
 basically summarize that for us and uh  
 and and tell us what needs to be  
 remediated.  
 So it takes the information from the  
 snapshot. It takes which it’s you can  
 see it’s found here. You takes the  
 information from the spreadsheet and  
 starts querying IP fabric in order to  
 validate the switch ports, the IP  
 interfaces, the VRP config and the  
 neighbor topology. And some really  
 interesting um detail here when you dig  
 into it. Um and here you can see it’s  
 actually completed the analysis. Um it’s  
 shown that these are all the trunk  
 links. It pairs those against the uh the  
 which port configs.  
 Um it’s gathering information here about  
 which ports are connected to which and  
 so on. Going through and doing lots of  
 validation. You can see lots of ticks  
 here, some crosses. Um you can see it’s  
 checking all kinds of information and  
 then it’s got all the data it needs. So  
 let me open the resulting report.  
 that comes from that. And it was  
 this one, the Paris 1x validation  
 report.  
 And if I open this one up, you can see  
 that it’s actually put together in  
 markdown a full report of everything.  
 And it’s saying here, Paris 1x has been  
 validated against the design spec. Um,  
 layer 3 infrastructure and SVI are  
 correctly implemented, but there are  
 significant discrepancies in layer 2 and  
 in the VRRP config. and it proceeds here  
 to to detail all of those here for you.  
 So, here’s your tables with the  
 information in um what’s good, what’s  
 bad. Um you can see VRP, everything’s  
 the group numbers are all incorrect and  
 so on. But what it also does is adds our  
 remediation actions for us. We didn’t  
 even ask it to do that. Uh but you can  
 see here the Arista config for those  
 switches in order to go fix that  
 information and a little summary at the  
 bottom here to state the the percentage  
 of compliance as well. So all of that  
 done without any inter interaction with  
 me the user um it’s gone ahead and and  
 used its knowledge and understanding of  
 networking in order to produce that. Now  
 of course we wouldn’t take that  
 verbatim. We would of course check that  
 through, but you can see a significant  
 amount of time been saved just bringing  
 all that data together.  
 If that use case is interesting  
 um and if you’re you want to know more  
 about the the things that IP Fabric are  
 doing with uh MCP and you’re in  
 Amsterdam this week, go to to our booth  
 at Cisco Live, the World of Solutions  
 booth B04. the team are there um demoing  
 MCP and demoing um the solution as a  
 whole. Um just let them know I I sent  
 you. Take care.

*Get a personalized [demo](https://ipfabric.io/get-a-demo-of-ip-fabric-enterprise-mcp-server/)
 of IP Fabric’s MCP server.*

### Build For Trust, Not Speed

Many IT organizations are racing to embrace shiny new tech, but the truly forward-thinking leaders are the ones taking a step back and focusing on the quality of their network data.

Once you’re confident in that data, it’s also important to think strategically about where AI makes the most sense in your network. Your infrastructure may vary in its complexity, with different areas carrying different levels of risk.

Think of it as a “crawl, walk, run” approach. By earning confidence in lower-risk areas of the network first, your team can get the evidence you need to expand automation further—along with the judgment to know [where not to](https://ipfabric.io/blog/network-ai-predictions-network-digital-twin-2026/)
.

### Settle In For the Long Game

Autonomy isn’t a feature you switch on; it’s a destination you build toward.

For decades, the job was simple: keep the lights on. That job has quietly become something far more demanding, and AI tools can only help if they’re built using data that’s current, complete, and consistent.

The teams that figure this out early will gain something you can’t buy: the confidence to make changes quickly, knowing the network will behave the way they expect it to.

*This article was originally published in [TechIntelPro](https://techintelpro.com/guest-articles/4-steps-to-build-trust-in-network-automation?utm_campaign=378945778-2026%20MCP%20server&utm_content=568665319&utm_medium=social&utm_source=linkedin&hss_channel=lcp-17940755)
.*

## Related Resources

AI & automation

### [AI Is Turning Data Governance Into A Competitive Advantage](https://ipfabric.io/blog/ai-data-governance-as-a-competitive-advantage/)

Consider these 3 questions on data governance before adopting a third-party AI solution.

AI & automation

### [The Network Data Problem Slowing Down Enterprise AIOps](https://ipfabric.io/blog/aiops-and-network-autonomy-network-digital-twins/)

Why Does AI fail on fragmented data? And how can network digital twins help to build a foundation for network autonomy?

AI & automation

### [Network Intelligence & AI-Ready Data](https://ipfabric.io/blog/network-intelligence-and-ai-ready-data/)

How does a network digital twin help you to achieve AI-ready data?
