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Epicor Kinetic AI integration playbook.

Epicor Kinetic AI integration for specialty manufacturers sits at the center of operations: it is where structured data lives and where the AI layer reads and writes. ColabContent builds custom AI layers on top of Epicor Kinetic as fixed-fee commissions ($45,000 to $180,000), with code owned by the operator at handoff. Standard build cycle: 6 to 7 weeks. The standard integration pattern is read-and-suggest through Epicor Kinetic's API layer; the system of record stays Epicor Kinetic.

The four AI workflows ColabContent builds on Epicor Kinetic for specialty manufacturers: custom CPQ on the shop's actual part library, spec parsing and capability validation, RFQ triage with walk-away recovery, and retrieval over the estimator archive
Four builds on Kinetic's API; the ERP stays the system of record.

Custom AI on top of Epicor Kinetic for $15M-$150M specialty manufacturers. CPQ AI, spec parsing, RFQ triage, walk-away recovery. Calibrated to your part library, your pricing rules, your customer history. Built on top of Kinetic, not replacing it.

ForOwner-CEO / Chief Estimator
StackEpicor Kinetic + custom AI layer
Build cycle7 weeks
Measured onQuote turnaround, win rate, RFQ coverage

Why this memo.

Epicor's Prism AI roadmap is real and the team behind it is competent. The mid-market specialty shop running Kinetic with two senior estimators and a part library built over decades is not the average Epicor customer. The leverage available to that shop is in custom CPQ AI built on top of Kinetic, calibrated to the shop's part library, the shop's pricing rules, the shop's customer history.

This memo is the architecture. Below: the Kinetic surface area a build touches, the workflows in scope, and what we don't build.

The Kinetic surface area a build touches.

Epicor Kinetic exposes the Epicor REST API and the Kinetic Functions framework, both authenticated and stable. Reads/writes against Quote, Job, Part, Customer, Operation, Resource Group, and the Engineering Workbench. For the AI layer, reads run against the BAQ (Business Activity Query) layer, which is faster than table-by-table reads.

For shops with strict data-residency requirements, we deploy entirely inside the shop's Azure or AWS tenant. Epicor data does not leave the shop's environment.

Workflow I: Custom CPQ AI on the shop's actual part library.

The quote-turnaround workflow. Estimators describe the same split when we scope this: a short window of genuine judgment wrapped in hours of parsing the RFQ, looking up part history, pulling current material costs, checking machine capacity, and formatting the response.

The custom AI version: reads the inbound RFQ (PDF, email, customer-portal upload), extracts part specs, looks up matching prior jobs in Kinetic, validates capability against current Resource Group state, drafts pricing on the shop's actual rules, formats the response in the customer's expected format. Senior estimator validates the judgment call, signs off, sends.

How it gets measured: elapsed time from RFQ received to quote sent, quotes issued per estimator per week, and win rate on quotes returned inside the customer's decision window. Baselines come out of the shop's own Kinetic history before the build starts, so the after number is compared against the shop's own before number rather than an industry average.

Workflow II: Spec parsing and capability validation.

The "we can't do that" detection workflow. Every shop has capability constraints (tolerance, material, finishing process, machine envelope) that an inexperienced estimator may not catch on the first pass. The custom AI cross-references the RFQ specs against the shop's actual capability matrix in Kinetic.

Catches "we can't hold that tolerance on Mazak 5" before the quote goes out, not after the order arrives. How it gets measured: spec mismatches caught pre-quote versus caught post-order, pulled from the shop's own change-order and rework records.

Workflow III: RFQ triage and walk-away recovery.

Shops walk away from inbound RFQs because the estimator cannot get to them. How many, and what they were worth, is knowable from the shop's own inbox and portal records; quantifying that is the first step of this workflow, not an assumption we bring in. The custom AI then triages the inbound, drafts a fast no with a referral or a delayed-quote offer, captures the relationship for a future RFQ, and surfaces the high-priority RFQs to the senior estimator first.

How it gets measured: inbound RFQs that received no response before the build, the same count after, and what the newly answered ones returned as quoted and won revenue.

Workflow IV: Estimator-archive RAG.

Twenty years of quotes, part histories, customer-specific rules, and "the way we price that family of jobs." Custom retrieval over the Kinetic and document archive puts that institutional knowledge in front of whoever is quoting, at the moment they are quoting, with the source record cited so the estimator can check it.

What we don't build.

We do not replace Epicor Kinetic. We do not build a competitor to Epicor Prism. We do not build a generic chatbot the floor queries; the leverage is in CPQ workflow integration. If the shop wants Epicor's roadmap configured well, Epicor Pro Services is the right answer. If the shop wants the workflows above, on top of Kinetic, ours is.

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Integration playbook

How a custom AI layer integrates with Epicor Kinetic.

Why this integration matters.

Epicor Kinetic sits at the center of the operational stack for many manufacturers. The workflows that route through it are the workflows where AI investment shows up first on the P&L: RFQ-to-quote, BOM construction, production scheduling, shop-floor data capture, vendor RFQ. A commissioned AI layer that integrates cleanly with Epicor Kinetic addresses those workflows without forcing the operator to migrate off the system of record.

Architecture: where the AI layer sits relative to Epicor Kinetic.

The most common integration pattern is a read-and-suggest pattern. The AI layer reads structured records out of Epicor Kinetic, runs the workflow it was commissioned to run, and writes back a suggested action that a human reviewer approves inside Epicor Kinetic's native UI. The system of record stays Epicor Kinetic. The AI layer never bypasses the human-in-the-loop step for production-data writes.

For lighter-touch workflows the layer can be scoped read-only: it extracts structured data out of Epicor Kinetic, hands it to a reasoning step, and emits a report. No writes back. The operator uses the report as input to their existing decision process. Time to ship is faster and integration risk is lower.

For heavier workflows, where the audit trail is structured and the failure cost is bounded, the loop can be closed end to end with structured logging on every write. That scope takes longer (six to seven weeks rather than four to five), requires more diligence on the read and write permissions inside Epicor Kinetic, and ships with a runbook for human review of edge cases.

The integration mechanics, in plain language.

Integration with Epicor Kinetic happens at one of three levels: the API layer, the webhook layer, or the database layer. The right level depends on what permissions the operator's Epicor Kinetic instance grants, what data the workflow needs to see, and what data the workflow needs to write.

API layer. Read and write through Epicor Kinetic's documented REST or SOAP endpoints. Cleanest, most maintainable, vendor-supported. Works when the data the workflow needs is exposed through the API.

Webhook layer. Subscribe to Epicor Kinetic events, react to them in real time, write back through the API. Good for workflows that need to fire when a specific record changes.

Database layer. Direct read against the underlying database, where the API does not expose what is needed. Brittle, requires direct hosting access, used only as a last resort and always with the operator's explicit approval.

Common pitfalls when integrating AI with Epicor Kinetic.

Treating the integration as an afterthought. The AI work is the easy part. The integration is the hard part. Operators that under-invest in the integration boundary spend the entire build cycle fighting authentication, rate limits, and edge-case schema. The commission scopes the integration boundary in the first week.

Skipping the human-in-the-loop step too early. Closing the loop end-to-end on day one is a recipe for hidden errors. Every engagement starts with human review of every AI output. Only after the operator has seen the output quality hold for sixty to ninety days does the human-in-the-loop step relax to spot-check.

Underestimating the data-cleanup work. Epicor Kinetic contains data the operator has entered over years. Some of it is clean. Some of it is not. The AI layer's quality is bounded by the data it reads. Cleaning happens as part of the build, not as a prerequisite for it. If the data is unworkable we flag it in the diagnosis call.

Building bespoke when a product would suffice. If Epicor Kinetic already has a productized AI feature that covers the workflow, the operator should evaluate it before commissioning a custom build. We will tell the operator honestly when that is the right answer.

What we have shipped, and what we have not.

Straight answer first: we have not shipped a commission on Epicor Kinetic. Specialty manufacturing is the newest vertical in this practice, and we would rather say that than dress up a number. The playbook above is how we would scope the work, not a claim that a Kinetic build is already running in production somewhere.

What we have shipped is adjacent and measurable. More than 6,000 live calls handled across client systems, including 3,787 AI-handled calls and 5,514 minutes for Jim Glaser Law across five channel-specific voice agents, which attribute every answered call to the channel that produced it. A regional third-party logistics operator (211 calls handled) and a multi-location home services operator (1,486 calls, 2,203 minutes) run on the same call infrastructure. On the platform side, a 47-attorney litigation firm runs its matters, invoicing and IOLTA trust accounting on a system we built and migrated: 13,296 matters, 4,396 clients, 5,684 invoices, trust ledgers reconciled byte-identical against the prior system.

That is the honest read for a Kinetic shop evaluating us: the integration discipline, the human-in-the-loop pattern, and the migration work are demonstrable and referenceable today. A shipped Kinetic reference is not, and we will say so on the call rather than after the contract.

What an Epicor Kinetic engagement scope looks like.

A typical Epicor Kinetic commission scope: one or two specific workflows, read-and-suggest pattern, four-to-seven-week build cycle, fixed fee in the $45K to $180K band depending on integration depth and workflow complexity. The diagnosis call identifies the workflow. The prototype demonstrates feasibility against the operator's real data inside seven to ten days. The production build ships inside the operator's own cloud tenant under NDA.

The operator owns the Epicor Kinetic integration code, the AI prompts, the model selection, and the data pipeline at handoff. We do not retain a license, a recurring fee, or a vendor relationship that the operator depends on.

Extended questions

The questions buyers ask after the first one.

How much of the buy decision should the operator make versus delegate.

The right shape of the buying motion has the operator-owner or operating partner in the room for the diagnosis call. The constraint identification is too consequential to delegate to a department head. The implementation work that follows can and should be delegated; the decision on which constraint a commission addresses cannot.

How to evaluate references the consulting house presents.

Three questions per reference. First, what was the named constraint the commission addressed at this operator. Second, what was the measured result twelve months post-handoff, in dollars or hours. Third, does the reference operator still run the system. Vague references on any of those three are flags. Hold us to the same standard: ColabContent puts prospects directly on the phone with operators whose systems we built and still run, including Jim Glaser Law, whose owner takes reference calls himself. A fifteen-minute call to the operator is the most honest signal a prospect can get.

How a fixed-fee commission scopes overage risk.

The fixed fee is set after the diagnosis call, after the integration depth is named, and after both sides have written the constraint in a sentence. Overages occur when the operator changes the scope mid-build (a different workflow, a different integration, an additional system). Either side can pause the build to renegotiate; neither side absorbs hidden overages without explicit agreement. The default is to ship the original scope and address scope expansion in a separate engagement.

What happens to the system one year after handoff.

The system continues to run inside the operator's cloud tenant. Models, prompts, and integration code are versioned and the operator has the source. When the underlying foundation model improves (a new release from the model vendor, a new open-weight option), the operator can swap the component without renegotiating the engagement. How we structure the year after: a quarterly review of the system's outputs, an annual swap of any underperforming components, no ongoing fee.

When the right call is not a commission.

The right call is sometimes a product (when the workflow matches a product's calibration target), sometimes an internal hire (when the operator has a five-year horizon and a $5M AI runway), sometimes a Big Four engagement (when the operator is large enough that the strategy-then-build separation makes sense), sometimes no AI right now (when the operator's leading constraint is not actually addressable with AI). We tell prospects when their constraint falls into one of those buckets and route them to whichever path fits. We cap how many commissions we take in a quarter; the firms that get a slot are the firms where the commission is the right buying motion.

The five-minute fit-check worksheet.

Operators who want to test the fit before booking a diagnosis call can run a five-minute self-check on six questions. First, is the shop's annual revenue in the $15M to $150M band. Second, is there a named workflow where time or money is leaking measurably. Third, has the operator tried an off-the-shelf product and either rejected it or hit a misfit ceiling. Fourth, is the operator comfortable running the system inside their own cloud tenant under NDA. Fifth, can the senior operator commit to forty-five minutes for a diagnosis call. Sixth, is the budget runway for a $45K to $180K fixed fee real this quarter.

Six yes answers means a diagnosis call is worth the forty-five minutes. Three or fewer yes answers means the right next step is probably one of the alternatives. Four or five yes answers means the call surfaces whether the missing one is addressable.

What to bring to the diagnosis call.

Two artifacts make the call substantially more productive. First, a one-page description of the leading constraint, written in the operator's words, naming the workflow and the rough dollar or hour leakage. Second, a list of the systems the operator uses for the workflow (the system of record, the related tools, the integration boundaries). Neither artifact has to be polished. The point is to surface the constraint quickly so the call's forty-five minutes are spent on diagnosis, not exposition.

Ready when you are

Book the 45-minute diagnosis.

Custom CPQ AI on your Kinetic instance, on your real part library, scoped to ship in 7 weeks.