The Good Tech Companies - Agentic SRE: What Happens When AI Doesn't Just Suggest Fixes, It Applies Them
Episode Date: July 21, 2026This story was originally published on HackerNoon at: https://hackernoon.com/agentic-sre-what-happens-when-ai-doesnt-just-suggest-fixes-it-applies-them. AI is moving fro...m suggesting fixes to executing them. Explore what Agentic SRE means, lessons from AWS and Cloudflare outages and why governed automation matter Check more stories related to undefined at: https://hackernoon.com/c/undefined. You can also check exclusive content about #agentic-ai, #agentic-sre, #autonomous-operations, #ai-incident-response, #ai-remediation, #production-automation, #autonomous-remediation, #good-company, and more. This story was written by: @devtron. Learn more about this writer by checking @devtron's about page, and for more stories, please visit hackernoon.com. Agentic SRE takes AI beyond recommending fixes to executing production remediation. While this can dramatically reduce incident response times, incidents at AWS and Cloudflare show why autonomous actions need guardrails. The future of SRE isn't unrestricted AI it's policy-driven, governed automation that combines AI speed with engineering oversight.
Transcript
Discussion (0)
This audio is presented by Hacker Noon, where anyone can learn anything about any technology.
Agentic SRE. What happens when AI doesn't just suggest fixes, it applies them, by DevTron Inc.
For years, AI has played an advisory role in operations. It analyzed logs, correlated alerts,
identified probable root causes, and suggested remediation steps, while engineers remained
responsible for deciding what to do next. With the rise of Agentic AI, systems are no longer limited
to recommending actions they can execute. An AI agent can restart a service, roll back a deployment,
scale infrastructure, or trigger a remediation workflow without waiting for human intervention.
For engineering teams, this promises faster incident response, lower operational overhead,
and reduced mean time to resolution, MTTR. But moving from recommending actions to executing them
fundamentally changes the risk profile of production operations, AI can't do that. The question is no longer
whether AI can identify the right remediation. Theorial question is whether it should execute that
remediation autonomously, especially in complex production environments where every action can have
cascading effects. Recent incidents it and demonstrate why this distinction matters. When execution
becomes the risk, suggesting a rollback and automatically performing one are fundamentally different
decisions. When AI recommends an action, it still needs validation of the broader context dependencies,
business impact, recent deployments, ongoing incidents, or any weather operational signals that
may not be immediately visible. Greater than autonomous execution removes that validation layer.
Modern production environments are highly distributed, with hundreds of interconnected services,
shared infrastructure, and constantly evolving workloads. A remediation that appears correct
for one service may unintentionally degrade another. Acting quickly is valuable, but only when
the action itself is appropriate. This is where Agentic SRE becomes fundamentally different from
traditional automation. The challenge isn't enabling AI to act, it's ensuring AI acts within
clearly defined operational boundaries. As organizations begin adopting Agentic SRE, the focus is
shifting from whether AI can automate incident response to how it can do so safely. Platforms like
DevTron Asterisk are designed around this principle combining eye-powered investigation with policy-driven
execution, approvals, and guardrails SO Autonomous Actions remain controlled rather than unrestricted.
Oz when recovery automation amplified the incident. In October 2025,
AWS experienced one of the most significant outages in the history of its East-1 region,
affecting a broad range of cloud services U-S.-B organizations worldwide. According to AWS's
post-incident analysis, the incident began with an internal automation defect affecting DynamoDB's
DNS management.
A bug in an automated process accidentally removed a critical DNS record required for DynamoDB
to remain reachable. Because DynamoDB serves as a foundational dependency for numerous AWS services,
including EC2, Lambda, ECS, and internal control planes, the impact quickly spread beyond a single
service. As DynamoD B became unavailable, automated recovery mechanisms began responding to failing
health checks. Load balancers initiated automatic FI lovers to maintain service availability,
but those FI lovers reduced available capacity across the region. As capacity decreased,
request failures increased, triggering additional recovery actions that further amplified the disruption.
In effect, systems designed to improve resilience continued executing recovery logic based on
assumptions that were no longer valid. Restoring service required engineers to manually identify
the faulty automation, disable it, restore the missing DNS configuration, and carefully recover
dependent services. AWS later confirmed that the problematic automation was disabled across all regions
while a permanent fix was developed. The incident wasn't a failure of automation itself.
It demonstrated that autonomous execution, when operating without sufficient safeguards, can propagate
failures faster than we can intervene. Cloudflare. Different incidents, same operational lesson.
wasn't an isolated example. In November 2025, Cloudflare experienced a global outage following
what appeared to be a routine operational change. A database update unexpectedly caused a
configuration artifact used by Cloudflare's bot detection systems to grow significantly larger than
anticipated. That artifact was automatically propagated across Cloudflare's global network,
eventually exhausting resources within the software responsible for routing customer traffic.
The incident was particularly challenging because engine,
engineers initially suspected an external cyber attack before discovering that the disruption originated
from an internal automated deployment process. Only weeks later, Cloudflare encountered another
production incident. A routine security update activated an existing defect within legacy infrastructure,
causing another portion of its network to fail. Although the trigger was different,
the operational outcome was remarkably similar. In both incidents, automation executed exactly
as designed. What it lacked was the contextual awareness to recognize that continuing those actions was
worsening the situation rather than resolving it. Recovery ultimately depended on engineers identifying the
underlying issue, stopping the automation, and restoring services manually. The real lesson for
Agentic SRE, the Oz and Cloudflare outages are often cited as examples of automation failures.
In reality, they illustrate a more important engineering principle. The issue wasn't that automated systems
could execute actions. The issue was that they continued executing those actions after the
assumptions behind them had become invalid. This distinction becomes even more important AS organizations
adopt agenic AI. Unlike traditional automation, AI agents don't simply execute predefined scripts.
They can observe system state, reason over multiple signals, decide on an action, and execute
remediation autonomously. That additional capability dramatically expands what can be automated,
but it also increases the impact often correct decisions.
An AI agent capable of modifying production systems across hundreds of services can reduce
incident response times significantly.
The same capability can also propagate an incorrect remediation just as quickly.
The objective of agentic SRE, therefore, shouldn't be unrestricted autonomy.
It should be controlled execution.
AI should autonomously handle operational tasks that engineering teams have already validated,
such as restarting unhealthy workloads, executing approved rollback procedures, scaling applications
within predefined thresholds, or resolving known failure conditions.
Greater than when incidents fall outside those validated patterns, the agent should greater
than escalate instead of improvising.
From autonomous execution to autonomous operations, the next evolution of SRE isn't just
AI that identifies incidents, its AI Thadjohn investigate, reason, and execute remediation
while operating within engineering defined policies.
Deftron Atlas brings this vision of agentic SRE into practice.
It continuously monitors applications, correlates signals across your stack,
investigates probable root causes, and recommends or executes remediation
through human-approved runbooks.
With Bulltin safety guardrails, verification, and complete operational visibility,
Atlas helps engineering teams automate repetitive incident response
while ensuring every production action remains governed and auditable.
Explore DevTron Atlas to learn how AI-powered incident investigation and autonomous remediation
can help your team resolve incidents faster while maintaining confidence in every production change.
Conclusion, the transition from AI-assisted operations to Agentic SRE marks a fundamental shift
in how production systems are managed.
AI is no longer limited to surfacing insights or recommending remediation.
It is increasingly becoming an active participant in incident response.
As the Oz and Cloudflare incidents demonstrate, the challenge isn't enabling ITO take action.
It's ensuring those actions are informed, governed, and aligned with established operational practices.
Autonomous execution without context can amplify failures just as quickly as it can resolve them.
The future of a Gentic SRE, therefore, isn't about giving AI complete control of her production.
It's about combining AI's speed and consistency with engineering defined policies, validated workflows, and human-oenix.
oversight where it matters most. Organizations that strike this balance won't just automate incident
response, they'll build more resilient, reliable, and trustworthy production systems. Thank you
for listening to this Hackernoon story, read by artificial intelligence. Visit hackernoon.com to
read, write, learn and publish.
