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ELI5: How does the AI know what a 'next step' is?

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(@ci_cd_enthusiast)
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Joined: 7 months ago
Posts: 382
Topic starter   [#28134]

Hey folks, been deep-diving into AI-powered dev tools lately, especially around project management and automation. One thing that keeps popping up in tools like Read AI is this magic-sounding "suggest next step" feature. It got me thinking about the CI/CD parallels—our pipelines also decide "what's next" based on rules and context.

So, how does it actually work under the hood? In overly simple terms, it's usually a combo of:
1. **Pattern Recognition:** The AI is trained on tons of projects (meeting transcripts, task lists, code commits). It learns common sequences—like "agenda set -> discussion -> action items" or "PR opened -> tests run -> deploy to staging".
2. **Context Analysis:** It looks at your *current* state (e.g., "meeting just ended with a decision to update the auth module") and matches it to similar patterns it's seen.
3. **Probabilistic Output:** It suggests the most statistically likely "next step" from its training, like "Create a story: 'Update authentication module to use OAuth2.0'".

Think of it like a smart `gitlab-ci.yml` rule. You define rules for jobs based on changes:

```yaml
deploy_staging:
script: ./deploy.sh staging
rules:
- if: $CI_COMMIT_BRANCH == "main" && $CI_PIPELINE_SOURCE == "merge_request_event"
```

The AI is doing something similar, but its "rules" are the patterns learned from data, not manually written. It's not truly "understanding" like we do, just a very sophisticated pattern matcher. The real trick is in the quality and structure of its training data.

Anyone else tinkered with integrating these kinds of AI suggestions into their actual dev workflows? I'm curious about the false-positive rate—like when it suggests a totally irrelevant step 😅

-pipelinepilot


Pipeline Pilot


   
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(@alice2)
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Posts: 182
 

That's a solid analogy to a CI/CD pipeline rule, and you've correctly identified the core statistical mechanism. Where it gets interesting, and often frustrating from a data engineering perspective, is in the construction of the training corpus that defines those probabilities.

Your pipeline example is deterministic: the rule `if: $CI_COMMIT_BRANCH == "main"` has one correct interpretation. The AI's "rules" are instead derived from implicit patterns in its training data, which can embed all sorts of biases. If 80% of the project timelines it learned from had a "write documentation" step that was chronically deferred or done poorly, the most statistically likely next step it suggests might *not* be the correct or efficient one, just the most common. It's predicting common workflow *descriptions*, not necessarily optimal workflow *prescriptions*.

This is why the "context analysis" phase is so critical. The tool isn't just matching your current state to a sequence; it's first encoding your specific context (your unique JIRA project key, your team's jargon for "blocked") into the same latent space as its training examples. A slight mismatch in that encoding can lead to a suggestion that is statistically adjacent but logically incoherent, like suggesting a "deploy to prod" step after a preliminary design discussion. The real engineering challenge is in curating the training data and tuning that embedding model to reduce that noise.


Your data is only as good as your pipeline.


   
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(@data_diver_dan)
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Joined: 6 months ago
Posts: 455
 

Exactly. The encoding mismatch you're describing is the core technical debt in these systems. From an analytics engineering standpoint, we treat this as a data quality problem: it's a join on a poorly defined key.

If the model's latent space encodes "blocked" from 10,000 public GitHub issues, but your team's JIRA context uses "blocked" to mean "awaiting legal review" specifically, the semantic similarity is low. The suggestion will be based on the common public definition, not your private ontology. You'd see this in poor precision/recall metrics if you could measure it.

We run into this when building conformed dimensions in the warehouse. The fix there is explicit mapping tables and business logic. For these AI agents, that mapping layer is often missing or opaque, so it defaults to the statistical mean of its training corpus. It's not reasoning, it's approximating a join.


Garbage in, garbage out.


   
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(@data_diver_42)
Honorable Member
Joined: 7 months ago
Posts: 400
 

The CI/CD analogy is spot on - it really is just a complex rules engine. What always gets me is how brittle that context matching can be. I've seen tools suggest "create a JIRA ticket" when we use Linear, because their training data was skewed towards enterprise JIRA shops. It's less "intelligent next step" and more "most common adjacent task in the training corpus."

I'd love to see these tools expose some kind of confidence score or lineage for their suggestions. Like, "This next step is suggested because it followed 'update auth module' in 70% of similar project histories." Then you could audit the training bias.


Data is the new oil - but it's usually crude.


   
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(@danielb)
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Joined: 3 months ago
Posts: 252
 

Your CI/CD analogy is good but misses a critical difference: pipelines have explicit control flows with known failure states. These AI tools often don't.

Think of your `gitlab-ci.yml` example. If the `if:` condition fails, the job doesn't run and you know why. The AI's "rules" are probabilities from a latent space. There's no explicit branch condition to debug, just a statistical match to a noisy dataset. When it fails, you can't trace the logic.

The result is a suggestion engine with high recall for common patterns and near-zero precision for edge cases.



   
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(@amymk)
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Joined: 2 months ago
Posts: 115
 

That's a really good point about not being able to debug it. It reminds me of when our inventory system suggests a reorder quantity. It just gives a number, but we can't see the exact sales data or lead time it used. We just have to trust it, or ignore it.

So without a confidence score or lineage like user50 mentioned, we're just taking a guess based on a black box? That seems risky for any business step.



   
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(@integration_jane_new)
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Joined: 7 months ago
Posts: 304
 

Yes, that inventory system analogy is painfully accurate. The business risk isn't just in taking the suggestion; it's in the hidden cost of *not* being able to validate or correct it. You end up building parallel, manual validation workflows because you can't trust the black box, which negates the automation value.

In integration work, we'd call this a missing observability layer. A proper middleware platform would emit an event log you could trace: "Trigger: inventory level < threshold. Fired rule: reorder_quantity = avg(sales_last_30d) * lead_time_days. Confidence: 85%." Without that, you're right, it's just a guess.

The real integration challenge is that these AI suggestion engines rarely expose hooks for you to inject your own business logic or correction feedback, so the loop never closes. They stay a black box.



   
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(@amelia2)
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Joined: 3 months ago
Posts: 261
 

The mapping layer problem is exactly why I stopped using generic AI agents for our deployment triage. We had to build an explicit mapping service that translates our internal slack channel alerts (`#p1-fire`) into structured incidents before any "next step" logic runs.

Without that, the agent kept suggesting we page the on-call for every automated test failure, because in its training data, "fire" often meant "production outage".


Ship it, but test it first


   
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(@cost_analyst_ray)
Honorable Member
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Posts: 434
 

Your CI/CD pipeline analogy is strong for understanding the mechanism, but it fundamentally misrepresents the cost profile. A pipeline rule is a deterministic instruction you pay for once in engineering time. This AI suggestion engine is a continuous, probabilistic inference process you pay for per query, with hidden operational costs for validation when its statistical guess is wrong.

The real question from a FinOps perspective isn't "how does it know," but "what is the unit economics of that guess?" If the model suggests creating a Jira ticket 70% of the time, but your team uses Linear, you're paying for the API call to generate a useless suggestion and then paying again for the engineer's time to ignore it. That's a pure cost leak with no observability into the waste.


CostCutter


   
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(@amelia7k)
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Joined: 3 months ago
Posts: 120
 

That comparison to a CI/CD pipeline rule makes so much sense, thanks! It really helps to think of it like that.

But I have a super basic question. You mentioned it matches the current state to similar patterns it's seen. How does it *know* the current state? Like, if my tool is reading a meeting transcript, how does it figure out we decided to "update the auth module"? Does it just look for keywords?

Sorry if that's a dumb question, still trying to wrap my head around the basics.



   
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(@gregm)
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Posts: 424
 

Your CI/CD analogy is tempting, but it papers over the real trick: where does the "context" actually come from? Your example says it looks at the *current* state, like "meeting just ended with a decision to update the auth module." That's the leap of faith.

It doesn't *know* that decision was made. It makes a probabilistic guess based on language patterns, the same way it guesses the next step. So you have a system guessing what just happened, then guessing what should happen next, all based on statistical correlations from other people's data. That's two layers of assumption before you even get a suggestion. Hardly a reliable rules engine.


Trust but verify


   
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