What the Namecheap Outage Revealed About DNS Recovery

On 13th August 2026, a storm knocked out cooling at RadiusDC’s Phoenix data centre, which hosted essential Namecheap operations. To protect hardware from thermal damage, Namecheap took services offline while temporary chillers were brought in. The incident and recovery ran for roughly 30 hours, with Namecheap’s own site unreachable for about 11 hours 42 minutes of that. Shared, VPS and dedicated hosting went down, along with EasyWP, Private Email, the domain management portal, support and DNS. Namecheap confirmed in its outage update, that whilst DNS management was unavailable during the incident, DNS resolution remained available.

It’s easy to file this away as a hosting provider having a bad day; however, that undersells what’s actually going on here.

Product boundaries aren’t failure boundaries

To a customer, hosting, DNS, account management and support look like separate services, and there’s rarely a reason to think about whether they’re separate underneath as well unless and until something forces the question.Namecheap’s hosting, email and customer control panel were affected by the incident, while DNS management was also unavailable. DNS resolution itself remained available. From outside, these look like separate services and functions, but the same incident was able to affect several of them at once.

This isn’t specific to Namecheap. A product’s interface won’t tell you where its failure domains sit; that’s what vendor due diligence is for. If you depend on a supplier for two or more things that look separate, like hosting and DNS, it’s worth directly asking whether they actually run on independent infrastructure, rather than assuming they do because they’re sold as separate products.

The recovery path was caught in the outage too

There’s a sharper detail here than the DNS point on its own. A customer whose website was hosted elsewhere but relied on Namecheap for DNS might reasonably have wanted to move their nameservers away while the incident was under way. The obvious way to do that was through the control panel, but the control panel was itself unavailable for part of the incident. Support was harder to reach at the same time, for the same reason.

So the problem wasn’t only that services had failed. Some of the tools customers would normally use to respond to that failure were caught in it too. It’s easy to ask what happens if a dependency goes down. It’s more useful to ask what happens to your ability to recover when the systems you’d need for recovery can be affected by the same incident. DNS control, cloud consoles, identity providers, deployment tooling, status pages, and runbooks can all end up on that list without anyone deciding they should be.

Detection and communication run on different clocks

StatusCake’s own monitoring began showing impact on affected sites roughly 25 minutes before Namecheap published its first public update, timestamped 08:35 ET / 12:35 UTC. That isn’t a knock on Namecheap’s communications. Twenty-five minutes to understand a physical infrastructure failure, work out what it touched and publish something coherent isn’t obviously slow for an incident of this size. But the gap is worth sitting with. A vendor’s status page tells you what the vendor has established and is ready to say publicly. Your own monitoring tells you what your service is actually doing, observed from outside that vendor’s infrastructure, and those aren’t running on the same timeline. If the first sign something’s wrong reaches you through a supplier’s status page, you’ve effectively adopted part of that supplier’s own incident-response process as your detection mechanism, without meaning to.

What’s actually worth monitoring

This incident is also a reminder that “is the website up” isn’t always a single question. A visitor reaching a site depends on several things working in sequence: DNS has to resolve, the destination has to be reachable, and the application then has to return something useful. One check can tell you the whole path has failed, but it can’t always tell you which part of it failed.

Namecheap’s DNS resolution remained available during this incident, so this wasn’t itself a DNS availability failure; but it’s still a useful reminder of why monitoring DNS separately from HTTP can matter, and it’s something StatusCake’s uptime monitoring supports as its own test type, alongside TCP, SMTP, SSH, PING, and PUSH, rather than treating it as part of the HTTP check itself.

That’s the case for monitoring DNS separately from HTTP; and it’s something StatusCake’s uptime monitoring already supports as its own test type, alongside HTTP, TCP and the rest, rather than treated as part of the HTTP check itself. An HTTP test’s diagnostics might already tell you a failure looks DNS-related, but only after a real request has gone through whatever resolver sits in that check’s path; and remember that the resolver can keep returning a cached answer for a while after your actual nameservers have gone down. A DNS test pointed directly at your own authoritative nameservers bypasses that caching and can catch the failure sooner. It also catches something HTTP can’t: if your domain gets pointed at the wrong server, through misconfiguration or a hijack, and that server still answers HTTP requests with a 200, the HTTP test passes; it has no way of knowing the answer is wrong. A DNS test checked against the IP address you actually expect does. Run this way, the two tests aren’t duplicating each other. Each one catches something the other structurally can’t.

The same logic extends to where those checks run from. Reports of the Namecheap incident came from multiple countries, which is a reminder that a failure in one physical location can have consequences well beyond it. Monitoring from more than one location helps establish whether a problem is genuinely widespread or confined to a particular network, resolver or region. This is a distinction that’s hard to make from a single vantage point, and one that changes how you respond.

None of this makes a vendor’s status page useless. It’s still the clearest account of what the vendor itself knows, once you already know something’s wrong. It just shouldn’t be the thing that tells you first.

The same lesson keeps showing up

There’s a connection here to what happened at GitHub on 17 August and Monzo’s Stand-in activation two days later, even though all three are quite different incidents. GitHub showed how a system can behave unexpectedly once one part of it comes under pressure. Monzo showed the difference between a fallback designed to work and one being exercised under real conditions for the first time at scale. Namecheap showed that services and management controls which look separate from outside can still be affected by the same underlying incident, including some of the tooling you’d need to respond to it.

The common thread isn’t that modern systems are complicated, but rather that failure is what actually exposes the dependencies that were hard to see while everything was working, and the architecture that matters during an incident isn’t necessarily the one described by the product menu, the service names, or the diagram. It’s whatever turns out to be able to fail together.

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