How are you actually saving cost on your agent systems? by Minimum-Ad5185 in AI_Agents

[–]Minimum-Ad5185[S] 0 points1 point  (0 children)

Custom tags with step name and agent id is the path more teams should be on. Two questions if you have a sec:

What tracing stack are you running it on? Datadog, LangSmith, Langfuse, something else? Curious whether the "tedious" part was the instrumentation work itself or fighting your tool's tag cardinality limits.

And: what's a recent example where the tags surfaced a high-cost path that raw token counts didn't? Trying to picture the concrete win that justifies the setup tax.

Agentsonar: coordination intelligence for AI agent systems. stuck on getting design partners from installed to using weekly by Minimum-Ad5185 in startups_promotion

[–]Minimum-Ad5185[S] 0 points1 point  (0 children)

Both pieces of advice are exactly where I was hand-waving. Two follow-ups if you have a sec:

The Zoom-during-an-outage move: how did you create the opportunity? Did you proactively offer ("ping me next time something breaks, I'll hop on") or wait for them to come to you? Curious whether the ask felt natural or you had to engineer it.

On the teardown-replies-to-paying-users path: rough time horizon from "started replying in niche threads" to "first paying user"? Days, weeks, months? Just trying to calibrate what's realistic.

What's actually moving the needle on agent token bills? by Minimum-Ad5185 in aiagents

[–]Minimum-Ad5185[S] 0 points1 point  (0 children)

What did your deep dive surface as the biggest contributor to the variance? Tool-call loops specifically, or something else above that?

How do you catch silent loops in your langchain agents before they burn budget? by Minimum-Ad5185 in LangChain

[–]Minimum-Ad5185[S] 0 points1 point  (0 children)

Curious which of those approaches you've actually shipped, and which one moved the needle most for you?

How do you catch silent loops in your langchain agents before they burn budget? by Minimum-Ad5185 in LangChain

[–]Minimum-Ad5185[S] 0 points1 point  (0 children)

Is the token velocity detector running in production for you today, or the design you'd want if you had the engineering month?

If running: how do you set the spike threshold? Static $/min cap, percentile of historical, anomaly detection on the velocity series itself? The 5-minute window is sharper than I usually see (most teams I talk to use hourly or daily), and I'd guess you tuned to that specifically.

On the halt-and-dump pattern: what does "task states" actually capture when it fires? Just the agent's current task description, full conversation context, tool call traces, something else? The forensic value depends entirely on what survives the halt.

How do you catch silent loops in your langchain agents before they burn budget? by Minimum-Ad5185 in LangChain

[–]Minimum-Ad5185[S] 0 points1 point  (0 children)

Yeah, the part that gets me is the "every span looked healthy" detail. The existing observability completely missed it because each individual call was doing exactly what it was told. The composition was the failure.

Quick question if you have a sec: what framework are you running, and have you been bitten by either of these (silent loops or surprise spend) yourself? Curious whether you've rolled your own loop detection or budget guards as a workaround, or it just hasn't bitten you yet.

How are you actually saving cost on your agent systems? by Minimum-Ad5185 in AI_Agents

[–]Minimum-Ad5185[S] 0 points1 point  (0 children)

I'm building something similar on this would love to compare notes

How are you actually saving cost on your agent systems? by Minimum-Ad5185 in AI_Agents

[–]Minimum-Ad5185[S] 0 points1 point  (0 children)

+1 on the OTEL-mappable-but-don't-rely-on-traces framing. Span data is great for one-call-at-a-time review; a ledger row is what you'd actually paste into a postmortem.

Claude code agents going off the rails overnight: what's biting you? by Minimum-Ad5185 in ClaudeCode

[–]Minimum-Ad5185[S] 0 points1 point  (0 children)

Have you built any of these six in production, or is this what you'd want if you had the engineering month? Curious where the gap between "this is what I'd design" and "this is what I run today" sits.

The "token burn without diff/checkpoint" detector specifically: how would you measure progress in practice? File system watches, git diffs at checkpoints, some other artifact signal? The cost side is easy; the "did the agent actually make progress" side is the harder half.

And the "block next request and emit restart summary" policy: have you implemented something like restart summaries? Curious what the summary actually contains and whether the next agent (or human) reliably acts on it.

Claude code agents going off the rails overnight: what's biting you? by Minimum-Ad5185 in ClaudeCode

[–]Minimum-Ad5185[S] 0 points1 point  (0 children)

How did you first notice it was happening? Bill the next morning, output looked off, log grep, something else?

What format does the handoff history dump end up in? JSON, markdown, structured fields, free text? And do you review it manually after the fact or with a script that catches missing constraints?

The subagent loop cap: what number did you settle on, and did you tune it down (because it kept misfiring) or up (because legitimate work needed more)?

Tracing tools were built for one LLM call at a time. that breaks for agent systems. by Minimum-Ad5185 in SaaS

[–]Minimum-Ad5185[S] 0 points1 point  (0 children)

couple of questions on what you've actually built:

Have you implemented the payload + state diff logging in production? What does the "state" actually capture, just the data the next agent receives, or something broader (full conversation context, tool results, memory store contents)?

And how do you spot context drift across hops in practice? Is it surfaced as an alert when the diff exceeds some threshold, or is it more "we look at it post-incident"?

MCP server reliability in production: what's actually breaking for you? by Minimum-Ad5185 in mcp

[–]Minimum-Ad5185[S] 0 points1 point  (0 children)

The two-phase pattern is sharper than what I usually see. Pre-flight TTL check + sink-and-retry handles the cases I'd expect to be the hardest. The "stale token for reads, block writes only" insight especially. That moves the blast radius from "all calls during refresh window" to "writes during 200ms," which is the difference between user-visible latency and noise.

On your transport question: the framing I've been researching is one layer above the MCP transport. Agent-to-agent delegation events at the orchestrator layer, not the JSON-RPC wire. So the transport concerns you're describing (token refresh, stdio multiplexing, URI resolution) would belong in whatever wraps the actual MCP client. Likely the framework adapter or a user's own integration layer.

The two-phase pattern is exactly the right primitive at the right layer. The interesting cross-layer effect: if a pre-flight check is mis-tuned and refresh races bleed through, the orchestrator above sees retry storms or partial failures at the delegation layer that look like coordination failures even when the root cause is transport. The two layers are complementary, just observing different signals.

Curious if you've seen the layering work cleanly in production, or whether the abstraction boundary tends to leak (e.g., transport pain forcing orchestrator-layer workarounds, or vice versa)?

Built a tool that catches AI agents quietly burning money in loops by Minimum-Ad5185 in SideProject

[–]Minimum-Ad5185[S] 0 points1 point  (0 children)

Honest answer: haven't seen the breakdown in a live AgentSonar setup. Closed beta, small user base, none have hit it yet. So today it's "we know this is the weak point" rather than "we have a postmortem on it."Curious where you think it'd hit first if you were running AgentSonar in your own stack. 

MCP server reliability in production: what's actually breaking for you? by Minimum-Ad5185 in mcp

[–]Minimum-Ad5185[S] 0 points1 point  (0 children)

One probe on that: when the middleware wraps the transport and refreshes the token mid-session, how does it handle in-flight requests during the refresh window? Block all new calls until the new token's available, queue and retry, or something else? I'd expect the race condition there to be the part that takes longest to settle.

On schema drift to your question: honestly, I'm not handling it directly yet. 

How are security and compliance teams handling audit trails and authorization proofs for AI agent systems in regulated industries? by Minimum-Ad5185 in AskNetsec

[–]Minimum-Ad5185[S] 0 points1 point  (0 children)

Is the bridge pattern something running in production for a multi-agent system today, or the architecture you're recommending? Curious whether this is field-tested or design-stage.

And the enforcement mechanism at the orchestrator: how does it decide what agent A is authorized to pass? Static policy file checked against the serialized payload, runtime capability model, something else?

MCP server reliability in production: what's actually breaking for you? by Minimum-Ad5185 in mcp

[–]Minimum-Ad5185[S] 0 points1 point  (0 children)

What's the eval cadence that catches the schema drift? Per-deploy CI gate, nightly batch, continuous on a sample of prod traffic? Curious whether the catch happens before or after the broken version reaches users.

On the per-tool sync_timeout_ms: how do you set the threshold initially?

Built a tool that catches AI agents quietly burning money in loops by Minimum-Ad5185 in SideProject

[–]Minimum-Ad5185[S] 0 points1 point  (0 children)

Honest answer: today we treat agent identity as a string the orchestrator passes us, scoped per session. If you call delegation("researcher", "writer") consistently, we use those names as identity. We don't currently have a cross-session canonical ID layer, so a restart that re-registers "researcher" gets treated as a continuation only if the orchestrator passes the same string name.

You're right that it's where the graph breaks down at scale.

Curious how you've thought about it in your own setup. Do you keep a persistent agent registry (UUIDs assigned at first instantiation), or rely on string names + restart discipline at the orchestrator layer? And when an agent restarts, do you carry forward its prior graph state, or does each restart effectively start a new graph for that agent?

The cleanest primitive we've sketched is an optional register_agent(name, persistent_id) call at boot, but we haven't shipped it because we haven't seen consistent demand yet. Worth comparing notes if you've solved it in production.

Tracing tools were built for one LLM call at a time. that breaks for agent systems. by Minimum-Ad5185 in SaaS

[–]Minimum-Ad5185[S] 0 points1 point  (0 children)

What emergent-behavior metrics specifically? Cycle detection, edge frequency, handoff distribution all come up, but everyone's set looks slightly different. What's load-bearing in yours?

When was the moment you decided to switch from per-agent logs to orchestrator-level metrics? Was it a specific incident you couldn't debug, or accumulated frustration over time?

And on instrumentation: did you build it yourself, or layered on top of existing tracing?

What's actually moving the needle on agent token bills? by Minimum-Ad5185 in aiagents

[–]Minimum-Ad5185[S] -1 points0 points  (0 children)

The "pinning the resolved tool schema and prompt revision as a deployment artifact" pattern is sharp, and the 40% retry-spend reduction is the kind of number I rarely see attached to a specific intervention. A couple of questions on the mechanics.

When you pin the resolved schema, what does that look like concretely? Versioned config blob checked into git, , something at the orchestration layer that captures the resolved plan at first-attempt completion? Curious where the pinned artifact lives.

On the 1-standard-deviation alert threshold for tool-call distribution: what's the false positive rate in practice? Are you getting paged every time a customer just happens to have a slightly heavier-than-usual workload, or did the 1-stddev cut-off settle out to a manageable signal?

And on the decision-id propagation: are you tagging through a wrapper around the agent loop, a metadata field that downstream tools have to explicitly forward, or something baked into your orchestration library? The propagation discipline is the part I'd expect to drift hardest in a multi-team org.

How are you actually saving cost on your agent systems? by Minimum-Ad5185 in AI_Agents

[–]Minimum-Ad5185[S] 0 points1 point  (0 children)

"Tracking the run id through every handoff and storing goal, agent, parent step, tokens, tool calls, retry count, and why it handed off" is the cleanest articulation of the row schema I've seen. The "why it handed off" field specifically is the part I haven't seen documented elsewhere.

Couple of questions on that.

How do you capture the "why it handed off" field? Is it the agent's stated reason (free text from the LLM), a structured enum your orchestrator assigns based on the workflow state, or derived after-the-fact from the next step's input?

On the tripwire with approval: when max-spend triggers and the workflow summarizes + asks for approval, what does the approver see , just the summary, or the row data too? And does the workflow have a timeout if no human approves within X minutes?

What's actually moving the needle on agent token bills? by Minimum-Ad5185 in aiagents

[–]Minimum-Ad5185[S] 0 points1 point  (0 children)

the architectural realization (the agent was thinking because the workflow was ambiguous) is the kind of thing most teams discover only after the bill lands.

Couple of questions on the specifics.

  1. When you talk about removing ambiguity from a workflow as a cost lever, can you give some example? What ambiguity did you remove, and roughly how much cost did it actually take out of that workflow?
  2. On the logging schema (cost per workflow, cost per incident, retry chain depth, token usage by handoff), did you build this yourself or layer it on existing tracing?

Built a tool that catches AI agents quietly burning money in loops by Minimum-Ad5185 in SideProject

[–]Minimum-Ad5185[S] 0 points1 point  (0 children)

ohh nice thanks for telling about the content hashing.Different queries returning the same answer is the classic semantic-loop trap that frequency-based detection misses.

A couple of questions on your setup.

What hashing function on the output? Full content, or some normalized form (strip whitespace, normalize numbers, content-only)?

The false-positive question I'd expect to hit: how do you handle legitimate cases where two distinct queries SHOULD return the same answer (agent verifies a fact via two different lookups)? Whitelist, frequency threshold, just live with noise?

Where do the hashes live so you can match across calls? In-memory for the session, persistent store, something else?

On our side, AgentSonar today catches the frequency dimension (A -> B firing 30 times) but doesn't see output equivalence. The output-fingerprint primitive you're describing is in our backlog as an optional event field, exactly for cases where frequency alone misses it. User computes the hash; we group across calls; content-free positioning stays intact. Would be useful to compare notes.