Amazon Web Services went down again on Friday morning, July 24, 2026. Around 7:40 a.m. ET, outage trackers lit up with reports that Apple Pay, DoorDash, Reddit, Hulu, and PlayStation Network had all stopped responding at once. The common thread, as AWS and the New York Post both confirmed, was a single AWS region, US-WEST-2 in Oregon, where a regional internet connectivity problem cascaded into a disruption AWS itself would later confirm and, by 9 a.m. ET, resolve.
The outage lasted roughly 80 minutes from first reports to AWS’s own resolution notice, short by the standards of the company’s worst incidents. But it leaves behind a bigger question than what broke this time. TechTimes counted this as AWS’s third notable reliability incident in roughly eleven weeks, following a data center thermal event in May and a network disruption in June that also touched AWS-linked services, with each incident landing on a different layer of the AWS stack — and, as of August 2026, a fourth US-WEST-2 connectivity issue has since followed. For a company that still controls 28% of the global cloud infrastructure market, according to Synergy Research Group, a pattern of repeat incidents is starting to look less like bad luck and more like a trend worth watching.
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What Happened: The July 24 AWS Outage Timeline
The first signs of trouble showed up on Downdetector shortly after 6:40 a.m. ET, when users on the East Coast began reporting failed logins and broken checkouts. AWS acknowledged the problem at 4:40 a.m. PT (7:40 a.m. ET), posting a status update confirming it was investigating connectivity issues tied to its US-WEST-2 region.
At 8:01 a.m. PT, AWS said it had identified the root cause of the internet connectivity problem affecting US-WEST-2 and had begun taking steps to restore service. Nine minutes later, at 8:10 a.m. PT, the company reported that connectivity to a second region, US-WEST-1, had been resolved. Four minutes after that, at 8:14 a.m. PT, AWS said US-WEST-2 itself was fixed too. Shortly after 9 a.m. ET, the broader disruption was over, AWS said, putting the total AWS outage window at roughly 80 minutes.
That recovery time is short compared with AWS’s worst incidents, a point we’ll return to later. Still, the speed of the fix didn’t stop the outage from trending within the hour, or from reviving a now-familiar question: how much of the internet still depends on a handful of AWS regions staying online at the same time.
Which AWS Services and Consumer Apps Went Down
The AWS Offerings Named in the Outage
AWS’s status updates ultimately named ten affected offerings, a count independently corroborated by IncidentHub’s own tracking of the July 24 event. Based on the company’s own updates, the list included Direct Connect, Global Accelerator, Internet Connectivity, IoT Core, Site-to-Site VPN, API Gateway, EC2, ECS, ELB, and VPC. None of those are consumer-facing products on their own. All of them sit underneath other companies’ applications, which is exactly why an outage in ten backend offerings turned into a headline about Reddit and Hulu going dark.
The Consumer Apps That Broke
The downstream list was longer and far more visible than AWS’s own service list. Users reported problems with Apple Pay, DoorDash, Reddit, Hulu, and PlayStation Network, among other services that route traffic through US-WEST-2 or US-WEST-1. One affected company posted on X that it was dealing with “a massive AWS outage in America” that was disrupting service for its users. AWS, for its part, said there was no indication that any customer data had been lost during the incident.
The Cascade Numbers: 9 Incidents Across 7 Providers
Independent outage-tracking coverage puts the July 24 disruption’s downstream reach slightly higher than the five household-name apps that made headlines. IncidentHub’s incident tracking recorded 9 confirmed cascade incidents across 7 providers tied to the US-WEST-2 disruption, alongside the 10 affected offerings AWS listed in its own later accounting of the event. Those two counts describe different things: AWS’s list is what broke inside its own infrastructure, while the cascade count is how many separate downstream providers had to open their own incident reports because of it.
That means at least two of the seven affected providers didn’t get the same news-cycle attention as Apple Pay, DoorDash, Reddit, Hulu, or PlayStation Network. That’s typical of cascade failures generally: the highest-traffic consumer apps drive the headlines, while smaller or more specialized providers dealing with the same root cause often show up only on outage-tracking dashboards and status-page aggregators, not in mainstream coverage.
Measured against AWS’s own worse incidents, a 7-provider spread is still a contained event. The June 2026 disruption logged 565 AWS-tagged reports and 482 Cloudflare-tagged reports on Downdetector in a single window, and October 2025’s DynamoDB failure generated more than 11 million Downdetector complaints spread across upwards of 2,500 companies, per the Associated Press. Nine cascade incidents across seven providers doesn’t come close to either of those — consistent with AWS’s own roughly 80-minute resolution timeline — but it’s still a reminder that a “contained” AWS network problem rarely stays contained to AWS alone.
For engineering teams building their own outage-detection tooling, the gap between AWS’s 10-service list and IncidentHub’s 7-provider cascade count is a useful data point in its own right. A monitoring setup that only watches AWS’s status page will catch the ten backend offerings AWS names. It won’t necessarily catch every downstream provider affected by them, since companies don’t always publish their own incident reports on the same timeline AWS updates its status page, and some smaller providers may not publish one at all. Teams that depend on any of the ten named AWS offerings have reason to check their own vendors’ status pages directly rather than assume an all-clear from AWS alone means every downstream dependency recovered at the same time.
AWS’s Official Response to the Outage
AWS’s public statements during the incident followed a familiar cadence: acknowledge, investigate, narrow down, resolve. Its clearest statement, posted while the outage was still active, read:
“We have identified the root cause of the Internet connectivity to the US-West-2 Region and have taken steps to restore connectivity. We have seen some improvement to Internet connectivity in the last few minutes but continue to work towards full recovery.”
AWS status update, July 24, 2026
AWS classified the incident internally as an “impaired” event, the designation the company uses for issues that visibly affect customers without taking a region fully offline. That distinction matters for enterprise customers with service-level agreements tied to specific severity tiers, though AWS has not published information about service credits or compensation tied to this particular incident.
AWS did not attribute the outage to a cyberattack, and nothing in its public updates suggested one. The explanation offered was narrower: a connectivity problem affecting how traffic reached the US-WEST-2 region from the broader internet, not a failure inside the region’s compute or storage layers.
The Root Cause: What AWS Has Confirmed, and What It Hasn’t
AWS’s public language for July 24 named a specific network path: an internet connectivity and networking hardware problem on the route connecting US-WEST-2 to the Seattle Metro area, not a failure inside a customer’s application. That’s more specific than the standalone phrase “internet connectivity to the US-West-2 Region” suggests, though AWS has not said which hardware failed, why, or whether the fault originated inside its own network or further out on the path to Seattle.
Even so, that’s a thinner disclosure than AWS gave for its May 2026 outage, when the company identified a specific chiller hardware failure inside a single Northern Virginia data center, as both AWS and Mashable reported, that triggered a thermal event and a rapid loss of cooling capacity. It’s thinner still than the detailed public writeup AWS published after its October 2025 US-EAST-1 incident, which named the exact subsystem (DynamoDB’s DNS management) and the specific failure mode, a race condition between two automated DNS “Enactors” running in different availability zones.
A full post-incident report for July 24 may still follow with more engineering detail. AWS has historically published detailed retrospectives for its most disruptive events, sometimes weeks after the fact. Until then, the public record confirms the network path AWS blames, the US-WEST-2-to-Seattle-Metro route, but not the specific hardware fault behind it.
AWS pointed to that same network path again when a second, shorter connectivity issue hit US-WEST-2 in early August 2026. AWS Support said on X that the issue was resolved between 3:55 AM and 4:15 AM PDT, a 20-minute window, followed by a brief reconvergence event that caused intermittent routing issues from 4:47 AM to 4:59 AM PDT before all routes were fully restored. AWS again pointed to networking devices responsible for routing traffic from the region to the Seattle Metro, the same route named in July, though the company has not said whether the two incidents share a root cause or are unrelated failures on the same stretch of infrastructure. That open question is likely to shape how much multi-region failover budget survives into Q4 2026 planning, a theme we return to in the engineering playbook section below.
A Pattern Emerges: Four AWS Incidents in Four Months
Line up AWS’s 2026 incidents side by side and a pattern starts to take shape. Four separate events, each with a different root cause, have disrupted AWS-linked services since early May.
| Date | Region(s) | Stated Cause | Approx. Duration | Notable Impact |
|---|---|---|---|---|
| May 7-8, 2026 | US-EAST-1 (single Availability Zone, use1-az4) | Chiller hardware failure, thermal event | ~14 hours to full cooling recovery | Coinbase, FanDuel, CME Direct reported errors on EC2 and EBS |
| June 22, 2026 | Multi-region, network-level | Disruption linked to network provider Zayo, not confirmed as AWS-internal | Several hours | 565 AWS reports and 482 Cloudflare reports logged on Downdetector |
| July 24, 2026 | US-WEST-2 and US-WEST-1 | Internet connectivity/networking hardware issue, US-WEST-2-to-Seattle-Metro path | ~80 minutes | Apple Pay, DoorDash, Reddit, Hulu, PlayStation Network affected; 9 cascade incidents across 7 providers per IncidentHub |
| Aug 2026 | US-WEST-2 | Networking devices routing traffic to the Seattle Metro | 20 min, plus a 12-min reconvergence event | No consumer-app impact confirmed publicly |
| Oct 19-20, 2025 (for scale) | US-EAST-1 | DynamoDB DNS race condition | ~15 hours | 11M+ Downdetector complaints across 2,500+ companies, per AP |
The causes are different enough that treating all four as one story would be misleading, though two of them now trace to the same piece of infrastructure. A chiller failure and a possible third-party network issue are distinct from what happened in July and August, when AWS pointed both times to the network path connecting US-WEST-2 to the Seattle Metro area. AWS has not confirmed the two incidents share a root cause, and lumping all four together still risks the kind of oversimplified “AWS is falling apart” narrative that circulated online within minutes of Friday’s outage. But four incidents serious enough to draw notice inside about four months is still more than most AWS customers would call normal, and two of them tracing to the same regional network path is enough to change how reliability teams talk about single-provider risk in planning meetings this quarter.
Looked at through the layer-by-layer framing TechTimes used in its own count of the sequence, the four incidents don’t just differ by date, they differ by which part of the AWS stack failed. May’s outage was a physical infrastructure problem: a chiller hardware failure in a single Availability Zone that cascaded into a thermal event and forced a roughly 14-hour cooling recovery. June’s disruption sat one layer up, in third-party network infrastructure tied to network provider Zayo rather than anything confirmed as AWS-internal. July and August both trace to a third layer entirely: the internet-facing networking hardware carrying traffic between US-WEST-2 and the Seattle Metro area, a route AWS named in both incidents without confirming whether the two share a root cause.
That layer distinction matters more for reliability planning than a simple incident count does. A chiller failure and a network-hardware fault on the same regional route call for different mitigations: physical infrastructure redundancy addresses the former, while route-level network diversity or a secondary connectivity path out of US-WEST-2 addresses the latter. Treating “four incidents in four months” as one undifferentiated reliability problem risks pointing engineering budgets at the wrong fix. Treating July and August as a two-incident cluster on the same network path, by contrast, is a narrower and more actionable finding, and it’s the one AWS’s own public statements support most directly.
Why the Incident Count Depends on Who’s Counting
Readers comparing coverage of this story will notice the incident count isn’t fixed. TechTimes’ count of a “third notable reliability incident in roughly eleven weeks” was published before the August connectivity issue occurred, which is why it stops at three rather than four. This article’s running count, updated after AWS’s August confirmation, puts the total at four incidents across four months. Both counts are accurate for the moment they were taken. The discrepancy is a timing artifact, not a disagreement about what happened.
That distinction matters more than it might seem. A count that stops at “three in eleven weeks” describes a company having a rough quarter. A count that reaches “four in four months,” with two of those four tracing to the same network route, describes something closer to a recurring, unresolved infrastructure weakness. Neither framing is wrong, but each leads readers toward a different read on how worried to be. The more durable signal isn’t the raw number, which will keep shifting as long as AWS keeps having incidents, but the pattern underneath it: the last two US-WEST-2 issues both named the identical Seattle Metro network path as the cause, and AWS still hasn’t said whether that’s a coincidence.
How the July 2026 AWS Outage Compares to October 2025’s 15-Hour Meltdown
Measured by duration and scope, Friday’s outage was minor next to AWS’s last truly historic incident. On October 19-20, 2025, a race condition inside DynamoDB’s DNS management system in US-EAST-1 set off a cascading failure that AWS’s own post-incident report says ran for approximately 15 hours, from 11:48 p.m. PDT on October 19 to 2:20 p.m. PDT the next day.
That event took down dozens of dependent AWS services, including Lambda, ECS, EKS, Fargate, Amazon Connect, and IAM authentication, and rippled out to consumer platforms including Snapchat, Roblox, and Venmo. The Associated Press reported that Downdetector logged more than 11 million complaints tied to the outage, spread across more than 2,500 companies, while Ookla separately estimated that more than 4 million users experienced degraded connectivity during the incident, according to Reuters.
July 24’s outage ran for roughly 80 minutes from first report to AWS’s resolution notice, and AWS named ten affected offerings rather than the dozens implicated in October. Far fewer companies have gone on record describing direct financial losses this time. The comparison isn’t really about which outage was “worse” in some abstract sense. It’s about what each one reveals: October 2025 was a software logic failure inside AWS’s core database service, while July’s incident traces to a single network path connecting US-WEST-2 to Seattle Metro that AWS caught and fixed inside the length of a long commute.
Why US-East-1 and US-West-2 Carry Outsized Risk
Nearly every one of AWS’s most disruptive incidents over the past decade traces back to one of two regions: US-EAST-1 in Northern Virginia or, now, US-WEST-2 in Oregon. That’s not a coincidence. US-EAST-1 was AWS’s original region, launched in 2006, and it remains the default region for countless applications and the home of several control-plane functions that other regions quietly depend on.
US-WEST-2 carries a similar concentration risk on the west coast. It’s one of AWS’s largest and most heavily used regions, popular with companies that want lower latency to Asia-Pacific customers or that picked it as a secondary region years ago and simply never left.
Reliability teams have pushed multi-region architecture for years precisely because of this concentration. The problem is cost and complexity: running true active-active infrastructure across two or more AWS regions roughly doubles data transfer and operational overhead for many workloads, which is why so many companies, including some with billions in revenue, still run mission-critical services out of a single region. A tool like Kubecost can show engineering teams exactly what that redundancy would cost before they commit to it. Friday’s outage is unlikely to change that math for most companies. It might change it for a few.
Market Impact: Cloud Dominance Meets Reliability Scrutiny
None of AWS’s 2026 incidents have dented its market position in any way visible in the numbers so far. AWS still leads global cloud infrastructure spending with 28% market share in the first quarter of 2026, according to Synergy Research Group, ahead of Microsoft Azure at 21% and Google Cloud at 14%. Enterprise cloud infrastructure spending hit $129 billion in Q1 2026 alone, up 35% year-over-year, largely on the back of AI workload demand.
| Provider | Q1 2026 Market Share | YoY Revenue Growth | Primary US Regions | 2026 Incidents of Note |
|---|---|---|---|---|
| Amazon Web Services | 28% | 19% | US-EAST-1 (Virginia), US-WEST-2 (Oregon) | 4 (May, June, July, August) |
| Microsoft Azure | 21% | 40% | East US, West US | None of comparable public scale found |
| Google Cloud | 14% | 63% | us-central1, us-east1 | None of comparable public scale found |
| All others combined | 37% | Varies | Varies by provider | Varies |
Source: Synergy Research Group, Q1 2026 cloud infrastructure market data.
Azure and Google Cloud are both growing faster than AWS in percentage terms (40% and 63% year-over-year, respectively, against AWS’s 19%), but that’s a story about smaller bases catching up, not customers fleeing AWS over reliability concerns. Enterprise cloud contracts run for years, migration costs are steep, and switching providers over an 80-minute outage would be a wildly disproportionate response for most businesses. For a fuller breakdown of how the three platforms stack up on price and performance, see our AWS vs Azure vs Google Cloud comparison.
Enterprise Customers Are Asking Harder Questions
What is changing, based on the conversations reliability and platform teams are having in public forums this week, is the tone inside enterprise IT departments. Four incidents in four months is enough to justify a line item in next quarter’s infrastructure budget for disaster recovery testing, multi-region failover drills, or at minimum a fresh audit of which production workloads still have a single point of failure. Some of that spending will show up as FinOps teams re-examining cloud budgets that were already stretched thin by AI infrastructure costs. It’s a slower, quieter form of market impact than a stock price move, but arguably the more consequential one for AWS’s competitors trying to win multi-cloud budget allocation.
Azure and Google Cloud: More Reliable, or Just Less Watched?
It’s tempting to read AWS’s rough stretch as evidence that Azure or Google Cloud have pulled ahead on reliability. The public evidence doesn’t really support that conclusion either way. Microsoft and Google both publish their own status histories, at azure.status.microsoft and status.cloud.google.com respectively, and both have had their own high-profile incidents in past years.
What’s different is scale and attention. AWS is the largest cloud provider by a wide margin, hosts a disproportionate share of consumer-facing internet traffic, and has been running since 2006, giving it nearly two decades of incidents to accumulate. When AWS has a bad morning, DoorDash and Reddit and Hulu all go down at once, and it becomes a mainstream news story within minutes. A comparable outage on a smaller provider’s infrastructure might not generate the same Downdetector spike simply because fewer household-name applications depend on it.
None of that excuses four incidents in four months. It does mean the honest answer to “is AWS less reliable than its rivals” is that nobody outside these three companies has the data to say for certain, and the companies that do have the data aren’t publishing head-to-head reliability comparisons.
The Engineering Playbook: Multi-Region and Multi-Cloud Architecture
For engineering teams reacting to Friday’s outage, the standard playbook hasn’t really changed, even if the urgency has. Multi-region deployment within AWS, running production workloads across at least two regions with automated failover, remains the most common first step, and it would have insulated most applications from a single-region connectivity problem like the one that hit US-WEST-2.
Multi-cloud architecture, splitting workloads across AWS and a second provider such as Azure or Google Cloud, goes further but costs more. It requires teams to either avoid provider-specific services entirely or maintain separate code paths for each cloud, and it multiplies the operational surface that needs monitoring, patching, and on-call coverage. A service mesh can help manage that complexity once workloads span more than one provider, though it adds its own operational overhead. Most companies that go multi-cloud do it for specific workloads, such as payments processing or disaster recovery, rather than their entire stack.
The pragmatic middle ground, and the one most platform teams are likely to expand after this outage, is better automated failover within a single provider, paired with autoscaling tools like Karpenter or Cluster Autoscaler and clear, tested runbooks for what happens when a region goes dark. That’s cheaper than full multi-cloud and addresses the specific failure mode AWS has now hit four times in four months.
Checking AWS Health Programmatically
Enterprise AWS customers on Business or Enterprise support plans can query the AWS Health API directly instead of refreshing a status page mid-incident. A basic health check scoped to the regions affected on July 24 looks like this:
# Query open or upcoming AWS Health events for specific regions
aws health describe-events \
--filter '{"regions":["us-west-2","us-west-1"],"eventStatusCodes":["open","upcoming"]}' \
--region us-east-1
# No Business or Enterprise support plan? Poll the public status feed instead
curl -s https://status.aws.amazon.com/rss/all.rss | grep -A 2 "US-WEST-2"Neither approach would have shortened Friday’s 80-minute outage. What automated health checks do is cut the time between an incident starting and an engineering team noticing it, which matters more during a fast-moving outage that resolves in under 90 minutes than one that drags on for 15 hours, since there’s less time to react manually.
Historical Context: Cloud’s Reliability Reckoning Since 2017
AWS’s 2026 incidents are the latest chapter in a longer story about how much of the internet quietly depends on a small number of cloud regions. The pattern goes back nearly a decade.
On February 28, 2017, an AWS engineer debugging the S3 billing system in US-EAST-1 executed a command with a mistyped input, removing far more servers than intended and knocking the S3 index subsystem offline for about four hours. The outage disrupted a large swath of the internet and was later estimated to have cost businesses roughly $150 million to $160 million, according to a widely cited Gremlin analysis of AWS incidents.
On December 7, 2021, an automated capacity-scaling action in US-EAST-1 triggered what AWS’s own post-incident report described as a “thundering herd” effect: a surge of retry traffic that overwhelmed an internal network AWS uses to manage its own systems. That outage lasted about seven hours and degraded service for Netflix, Disney+, Robinhood, and Ring, among others.
Then came October 2025’s 15-hour DynamoDB DNS incident, followed by a 13-hour outage in December 2025 that Reuters and the Financial Times reported actually comprised two separate outages rather than one continuous event, and now four more incidents in 2026. The throughline across nearly a decade of major AWS outages is consistent: automated systems behaving in ways their designers didn’t fully anticipate, concentrated in one or two regions that carry outsized importance to the rest of the internet.
What Comes Next: 5 Predictions for AWS and Cloud Reliability
- AWS publishes a detailed post-incident report. Following its pattern after October 2025 and May 2026, expect a formal writeup of the July 24 root cause within two to four weeks.
- US-WEST-2 gets a quiet infrastructure upgrade. AWS is likely to announce or accelerate network redundancy work specific to US-WEST-2, mirroring what it detailed after the DynamoDB incident.
- FinOps teams push harder for failover budget. Expect multi-region disaster recovery testing to show up more often in Q3 and Q4 2026 infrastructure planning, even without a formal mandate from leadership.
- Azure and Google Cloud lean into reliability marketing. Sales teams at both companies will likely reference AWS’s 2026 track record in competitive pitches over the next two quarters, whether or not their own public reliability data supports the comparison.
- Regulatory attention could resurface now that a fourth incident has hit. AWS confirmed a separate US-WEST-2 connectivity issue in August 2026, detailed in the root cause section above, and concentration-risk concerns that simmered after October 2025 may resurface in Washington and Brussels given how much consumer financial infrastructure, from Apple Pay to Coinbase to CME Direct, has been touched by an AWS incident this year. Whether regulators actually act remains an open question.
Frequently Asked Questions About the AWS Outage
What caused the AWS outage on July 24, 2026?
AWS attributed the outage to an internet connectivity and networking hardware problem on the network path connecting its US-WEST-2 region in Oregon to the Seattle Metro area, which also briefly affected US-WEST-1. AWS has not published a full post-incident report specifying which hardware failed or why.
How long did the AWS outage last?
Based on AWS’s own status updates, the incident ran from around 7:40 a.m. ET, when problems were first reported, to shortly after 9 a.m. ET, when AWS confirmed connectivity was restored, a window of roughly 80 minutes.
Which apps and services were affected by the AWS outage?
Reported outages hit Apple Pay, DoorDash, Reddit, Hulu, and PlayStation Network, among other services. On the AWS side, the company named ten affected offerings: Direct Connect, Global Accelerator, Internet Connectivity, IoT Core, Site-to-Site VPN, API Gateway, EC2, ECS, ELB, and VPC. IncidentHub separately tracked 9 confirmed cascade incidents across 7 providers tied to the disruption.
Is this the same as the October 2025 AWS outage?
No. The October 2025 incident was a 15-hour outage centered on US-EAST-1, caused by a DNS-related race condition inside DynamoDB. The July 2026 incident was much shorter, centered on US-WEST-2 and US-WEST-1, and described by AWS as a connectivity issue rather than a database or DNS failure.
How many AWS outages have there been in 2026?
As of August 2026, this is the fourth notable AWS-linked reliability incident since May 2026: a data center thermal event in Northern Virginia in May, a network disruption in June that also affected Cloudflare, the July 24 US-WEST-2 connectivity issue detailed in this article (TechTimes counted this one as the third in roughly eleven weeks), and a second, shorter US-WEST-2 connectivity issue in August 2026 traced to networking devices routing traffic to the Seattle Metro.
What happened in the second US-WEST-2 incident in August 2026?
AWS Support said on X that US-WEST-2 had a regional connectivity issue resolved between 3:55 AM and 4:15 AM PDT, a 20-minute window, followed by a brief reconvergence event from 4:47 AM to 4:59 AM PDT. AWS traced the cause to networking devices routing traffic to the Seattle Metro, the same network path named in the July 24 outage, and said all routes were fully restored by 4:59 AM PDT.
Did AWS lose any customer data in the July 24 outage?
AWS said there was no indication that any data had been lost during the incident.
Will AWS customers get service credits for the outage?
AWS has not published information about service credits or compensation specific to this incident. Eligibility typically depends on a customer’s individual service-level agreement and whether the outage triggered its formal thresholds.
Should companies move off AWS after this outage?
Most reliability engineers would say no. Migrating cloud providers is costly and slow, and AWS’s market position hasn’t meaningfully changed after any of its 2026 incidents. The more common response is adding multi-region failover or disaster recovery testing rather than switching providers entirely.
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