Every few weeks, a new headline declares the same thing: “AI will kill software development.”
Or DevOps. Or engineering as we know it.
You’ve probably read some versions of it already. And if you lead an IT team, you’ve likely felt the pressure behind those claims. Boardrooms now want faster delivery, smaller teams, and more projects. And of course, they want ROI in the medium to long term.
But here’s the problem: most of that conversation mixes everything together. Coding, architecture, delivery, operations, ownership. As if software were just one long typing exercise.
It isn’t.
What GenAI is really doing is not “replacing development,” but reconstructing the software production chain. Some stages of that process are clearly accelerating. Others are becoming more fragile. And a few (quietly) are increasing the influence of senior developers rather than diminishing it.
That distinction matters. A lot.
Because writing code is only one part of building software. One link in the chain. Important? Yes, but not the only one that matters. And while AI can now generate working code in seconds, it still can’t determine whether that code aligns with your architecture, supports your operating model, or will stand up six months from now under hundreds, or even millions of users.
This is where many organizations are starting to realize that the friction, instead of disappearing, is simply moving to another part of the development process.
And that shift brings new challenges. For example: things work, but fewer people can explain why. And that can accelerate the accumulation of technical debt and spaghetti code.
Code is just a melody, software is the entire album
We used that concept in one of our latest AXIS reports, “Rethinking Tech Hiring for the AI-Augmented Era.” You can take a look at it here.
It’s a didactic way to understand why GenAI isn’t directly eroding the discipline of software development. And certainly not removing developers and engineers from the equation.
GenAI is excellent at helping with melodies. It can draft functions, scripts, configs, and tests at impressive speed, much like AI can generate a compelling beat.
But albums still require other things. More substance. And that’s where human expertise comes in.
Albums need structure. Cohesion. Trade-offs. Someone has to decide what stays, what gets cut, and what needs to be reworked before it ever reaches an audience.
Software works the same way.
As AI accelerates code generation, the center of gravity shifts toward decisions that can’t be automated: architectural consistency, operational reliability, and long-term maintainability. These are not typing problems. They’re judgment problems.
This is also where the tension between delivery speed and technical debt becomes more visible.
Access to cheaper code (really fast!) is objectively good news for most organizations. It lowers barriers, shortens delivery cycles, and makes experimentation far more affordable.
The risk appears when that speed becomes the default, and review becomes superficial. When less time is spent questioning decisions, understanding trade-offs, or validating how a piece of logic fits into the broader system. This isn’t new. Teams have always reused snippets, leaned on forums, or borrowed solutions from past projects.
The difference now is scale.
What used to happen occasionally (with copy-paste code or quick fixes from Stack Overflow) can now happen continuously, across entire codebases, and at a much higher pace. GenAI doesn’t introduce the habit, but without a doubt, it helps to amplify the problem. And without strong oversight, that acceleration can quietly push complexity and fragility downstream, where DevOps and operations teams are left to absorb the impact.
And ironically, this is why senior developers matter more, not less.
Their role is no longer centered on producing every line of code. It’s about setting standards, validating AI-generated output, and ensuring that what gets delivered today doesn’t become tomorrow’s bottleneck.
That’s the metamorphosis many organizations are only starting to grasp…
So… What Really Changed in DevOps? And What Didn’t?
Last year, Anthropic’s CEO, Dario Amodei, suggested we might soon reach a point where AI writes the vast majority of code. Whether that number ends up being 70%, 90%, or something else is almost beside the point.
What’s becoming harder is not writing code. As code production accelerates, so does the amount of AI slop entering systems: code, configurations, and workflows that technically work, but are ambiguous by nature. That ambiguity comes from three sources.
First, AI models are trained on massive volumes of public code with highly uneven quality. Production-grade systems, quick hacks, abandoned experiments, and unreviewed snippets are all treated as equivalent during training. The model does not learn to distinguish good engineering from fragile shortcuts. It learns statistical correlation.
Second, most AI-generated code is driven by natural language prompts. Human language is efficient for expressing intent, but it is imprecise by design. Requests like “make it scalable,” “improve performance,” or “add security” leave critical decisions unstated. The model fills those gaps with probabilistic guesses, not architectural judgment or domain understanding.
Third, these systems are inherently probabilistic. Even with similar prompts, they can produce different implementations, dependencies, or logic flows. That variability makes consistency difficult to enforce across a growing system, especially when output is generated incrementally by different people, at different times, with slightly different contexts.
The result is code that often looks correct and passes basic checks, but carries hidden assumptions, inconsistencies, and shortcuts. That ambiguity does not disappear once the code runs. It accumulates. And this is where the tension becomes most visible, particularly in DevOps, where accelerated delivery meets real systems, operational constraints, and real consequences.
From what our technical leaders see in lots of projects, the impact of GenAI on DevOps is far from uniform. Some parts of the workflow clearly changed. Others changed much less than expected. And across the chain, the type of work shifted more than the responsibility itself.
That’s why the next sections walk through the DevOps lifecycle step by step, based on what our teams are seeing on the ground. For each stage, we’ll separate what actually changed from what largely stayed the same, and where senior engineering experience still plays a decisive role.
The DevOps Chain Under GenAI
1) Plan: AI can summarize. Humans still decide.
AI is great at turning chaos into a decent draft.
- It can summarize incidents from last week.
- It can scan tickets and cluster them by theme.
- It can rewrite messy requirements into clearer acceptance criteria.
That’s helpful. It reduces the “scroll fatigue” that burns teams out.
But planning is still politics plus judgment. What do we ship first? Which risk do we accept? Which dependency is a real blocker, and which is just someone being nervous?
AI can surface patterns. It can’t carry accountability. You still own the call.
What changed: planning cycles get shorter because prep work is faster.
What didn’t: prioritization still lives in human trade-offs.
2) Build: GenAI accelerates output. It doesn’t guarantee understanding.
AXIS cites GitHub’s AI in software development findings: 97% of developers have used AI, and 71% say it helps them learn new languages or understand existing codebases. AXIS also notes Google’s CEO saying 25% of Google’s new code is generated by Gemini, and that it still gets reviewed by engineers.
That last part matters more than people admit.
Because DevOps doesn’t suffer from “not enough code.” DevOps suffers from code that behaves badly in real conditions: weird edge cases, dependency drift, unclear ownership, config sprawl.
AI can draft:
- Terraform modules
- Helm charts
- GitHub Actions
- Jenkinsfiles
- Bash/Python glue code
But humans still need to answer:
- Does this fit our architecture?
- Does this introduce hidden coupling?
- Are we creating a new snowflake environment?
What changed: builders can move from idea to artifact faster.
What didn’t: the “does this belong in our system?” decision stays human.
3) Test: AI boosts coverage, but quality is still a design problem
Testing is one of the clean wins. AI can generate a lot of unit tests quickly. It can propose edge cases. It can help write mocks. It can even draft basic load scenarios.
But test strategy isn’t about typing.
What’s the real failure mode here? What do we fear? Data loss? Downtime? Incorrect billing? Broken auth? A bad test suite can be worse than no test suite because it creates false confidence.
So AI helps you write tests, but senior engineers still need to design the testing story.
What changed: teams can “fill the gaps” faster.
What didn’t: meaningful test design still requires experience.
4) Release: faster pipelines, noisier signals
AI is great at explaining pipeline failures. It can read logs and tell you what likely happened. It can suggest fixes. It can draft a rollback plan.
But releases now face a new problem: volume.
When coding gets easier, teams ship more. When teams ship more, pipelines get busier. When pipelines get busier, small issues stack up.
So yes, AI reduces the time to diagnose a failed step. But the release machine still needs discipline: clear ownership, change control, and sane blast radius design.
What changed: less time spent reading logs like it’s a crime novel.
What didn’t: release risk still needs human guardrails.
5) Run: AI is a strong assistant during incidents, not the incident commander
During an incident, AI can:
- Summarize alerts
- Correlate logs across services
- Suggest likely root causes
- Draft a status update
That’s real value. It buys time.
But incident response includes moments that AI can’t own:
- Choosing between rollback vs. hotfix
- Deciding what to communicate and when
- Judging whether “green dashboards” are lying
- Managing stakeholder anxiety (yes, that’s part of ops)
So the best pattern is simple: treat AI like a smart, fast SRE buddy. Not the captain.
What changed: quicker triage and cleaner comms drafts.
What didn’t: hard calls still sit with humans.
6) Improve: technical debt got louder, even when nobody talks about it
Here’s the part that sneaks up on organizations.
GenAI makes it easy to ship. That’s good. But it also makes it easy to ship inconsistency and scale it.
We define vibe coding as code produced through prompting, copy-paste, and reprompting, without an exhaustive review of the output. In hiring, this blurs the line between people who truly understand systems and those who can generate passable results.
In DevOps, vibe coding shows up differently:
- Duplicate scripts across repositories
- Pipelines that “work” but no one can clearly explain
- Configurations that grow by accumulation
- Playbooks that no longer reflect reality
And then you get the most expensive form of waste: senior engineers spending their time cleaning up ambiguity.
That’s the hidden cost. Not AI usage. Ambiguity.
What changed: more output, more change, more drift.
What didn’t: systems still punish ambiguity, sooner or later.
The Honest Takeaway for IT Leaders
GenAI didn’t remove the need for DevOps maturity. It raised the price of not having it.
If I had to boil it down into a few practical moves for the next quarter, it’d be these:
- Raise the bar on review, not just for code, but also for pipelines and infrastructure-as-code. AI makes it easy to generate. Your system needs consistency.
- Make “explainability” a delivery requirement. If a change can’t be explained, it can’t be owned.
- Treat AI outputs like junior engineer output. Fast, helpful, and absolutely not production-ready without review.
- Protect time for architecture and operational design. AXIS calls this out clearly: the lifecycle still depends heavily on human expertise.
And maybe the most human point: don’t let speed bully you into sloppy decisions. We’ve all been there. A tight deadline. A stakeholder asking “How hard can it be?” A team tempted to paste the answer and move on.
GenAI makes that temptation stronger.
Your job as an IT leader isn’t to slow people down. It’s to keep the album coherent even when the melodies are being written at lightning speed.
- Follow us on LinkedIn for more practical insights
- Or reach out if you need help scaling teams without scaling risk
FAQs
Did GenAI replace DevOps roles?
No. GenAI changed how work flows through DevOps, but it did not remove the need for DevOps roles. Planning, release decisions, incident response, and long-term system reliability still require human accountability and experience.
Which parts of DevOps changed the most with GenAI?
Tasks that involve drafting, summarizing, or generating first versions changed the most. Examples include infrastructure templates, CI/CD definitions, test scaffolding, and log analysis. These steps are faster, but still require review and ownership.
Which parts of DevOps did not change significantly?
Prioritization, architectural decisions, release risk management, and incident leadership remain largely human-driven. These areas depend on judgment, context, and trade-offs that cannot be automated.
What is AI slop in software development?
AI slop refers to code, configurations, and workflows that technically work but are built on ambiguous prompts and uneven training data. They often lack clarity, consistency, and long-term maintainability, increasing technical debt over time.
How does vibe coding affect DevOps teams?
In DevOps, vibe coding often appears as duplicated scripts, pipelines that no one can explain, configuration drift, and playbooks that fall out of sync with reality. The cost usually shows up later, when senior engineers must clean up ambiguity.
Does AI-generated code increase technical debt?
It can. GenAI accelerates output, but without strong review and standards, it can amplify inconsistency at scale. The risk is not AI itself, but how its output is integrated into existing systems.
Why are senior engineers more important in AI-augmented teams?
Senior engineers provide architectural context, set standards, review AI-generated output, and ensure systems remain reliable over time. Their role shifts from writing every line of code to maintaining coherence across fast-moving systems.
How does Inclusion Cloud help teams adapt to GenAI in DevOps?
Inclusion Cloud helps organizations scale with senior engineering and DevOps talent that understands both AI-assisted development and enterprise delivery standards. We focus on teams that can move fast without losing reliability, ownership, or architectural clarity.
Can Inclusion Cloud help scale DevOps and engineering teams quickly?
Yes. We help companies scale delivery teams with experienced engineers and DevOps professionals who are already comfortable working with AI tools in production environments, without treating automation as a shortcut.