MANUFACTURING · THROUGHPUT AND THE CONSTRAINT

Find the line you already own before buying another

Lead times stretch, work gets turned away and the answer on the table is another line. Planned hours go in at one end and good parts come out at the other, and the gap between them is usually concentrated in one cell that nobody has measured. OutcomeCatalyst counts downtime from the notes your shift leads already write and computes where the hours actually go.

What it does

Margin intelligence, in plain terms

A manufacturer with three plants runs three ERPs, and the same physical part carries a different part number in each. That single fact is why nobody can answer what a part costs, what a customer is really worth, or which line is holding back the whole plant. Margin intelligence joins them and answers all three.

Normalise the part, not the part number
The same bearing is three records in three systems. Parts are matched on spec rather than on code, so procurement can finally see that one plant pays 28% more than another for an identical item.
Rebuild margin after cost to serve
Booked gross margin is not kept margin. Freight, rebates, expedites and returns are joined back to the customer and the SKU, which is how a large account can book 30% and keep 4%.
Find the line that constrains the plant
OEE is calculated from machine runtime rather than from a shift report, and downtime reasons come from the notes where they are actually written. One line sets the pace for everything downstream.
Age the cash on your shelves
An ERP records inventory as an asset regardless of whether it has moved in three years. Inventory is aged by category against target days on hand, so the releasable cash is separated from the working stock.
How it works

From three ERPs to one number, in four steps

No migration, no consolidation project, and no change to how any plant runs day to day.

1
Connect each plant where it stands
SAP at one plant, NetSuite at another, something older at the third is the normal case. Each is read in place, along with Coupa, supplier invoices and the quote emails that never reach any system.
2
Match parts on specification
Part descriptions, dimensions, supplier codes and unit-of-measure are reconciled so the same item resolves to one record across every plant. This is the step that makes price comparison possible at all.
3
Attach the costs that come after the invoice
Freight bills, rebate accruals, credit memos and expedite charges are joined to the order they belong to, so margin reflects what the transaction actually earned.
4
Rank the work by dollars
Price spreads, negative-margin accounts, the constraint line and the dead stock all arrive as one ranked list with a draft action attached. A person decides what to act on.
Why it matters

Why this matters in mid-market manufacturing

Multi-plant manufacturers are usually the product of acquisition, and each acquisition arrived with its own ERP, its own part numbering and its own supplier relationships. Consolidating those systems is a multi-year project that rarely finishes and never pays back on the schedule promised, so most operators live with the fragmentation permanently.

The cost of living with it is specific. Procurement negotiates plant by plant against suppliers who see the whole account, which means the supplier has better information than the buyer. Two of your own plants bidding separately for the same part is not a rare edge case, it is the default outcome of the structure.

Margin reporting has the same blind spot in a different place. Gross margin is calculated at the invoice, but freight, rebates, returns and expedites land afterwards in different ledgers. A customer can be your largest by revenue and your worst by contribution, and the standard margin report will never show it.

On the floor, capacity is misunderstood in a way that costs capital. Plants buy another line because throughput is short, when the constraint is a single cell running at under half its potential. The downtime reasons that would prove it are written in shift notes rather than captured as data.

Two of your own plants are bidding separately against a supplier who sees the whole account.
That is not a procurement failure. It is what happens when three ERPs never agree on a part number.
Agentic AI

Agentic AI in manufacturing, without the hand-waving

Three words get used interchangeably by vendors and they are not the same thing. The difference decides whether you get a dashboard or a decision.

A chatbot
Answers a question you asked. Nothing changes in the ERP and no buyer's day is different.
Automation
Fires a fixed rule the same way every time. It works until the same part arrives under a different part number from a second plant, which is the normal case.
An agent
Reads the evidence across plants, forms a judgment against your cost standards, drafts the action, and hands it to a buyer or plant manager to approve.

Most agentic AI pilots on a plant floor fail for a reason that has nothing to do with the model. An agent asked what a part really costs needs to know that 4471-B in Ohio, 4471B in Texas and SKU 88213 at the contract manufacturer are the same item. Three ERPs, three numbering schemes, no shared key. The agent has no path to walk, so it guesses, and a confident guess on a consolidation decision is expensive.

The agents here are deliberately narrow. Each has one job, a defined set of sources it may read, a written standard to check against, and a person who approves before anything leaves the building. That is what makes them safe to run against real money, and it is why they survive an audit.

The data layer

The data layer agentic AI actually needs

Every workflow above runs on one layer. Building it is most of the work, and it is the part nobody demos.

Entity resolution
One part, three plants, three part numbers. The same is true of suppliers, customers and routings. Until those collapse to one record, no agent can compare a price to a price.
A manufacturing ontology
Part, BOM, routing, work centre, purchase order, receipt, scrap code, and how they connect. A general-purpose model does not know that scrap at one operation changes the landed cost of everything downstream.
Provenance on every field
Each value carries the invoice, receipt or work order it came from. A buyer challenging a supplier on price will be asked where the number came from, and the answer has to be one click away.
Governance and permissions
The layer inherits your access rules. What an agent can read is what the person it works for can read, and every read is logged.

This is the part most vendors skip, because a layer does not demo well. It is also the reason one piece of infrastructure supports SKU margin, direct spend and working capital at once, instead of three separate tools each rebuilding the same context badly.

It also compounds. The second workflow is faster to stand up than the first and the fifth is faster still, because the entities, the ontology and the connectors already exist. Most of what a new workflow needs is already sitting in the layer.

More on the same layer

What else runs on the same layer

Once the layer exists these are weeks of work rather than months, because they read the same resolved entities.

Supplier consolidation
Every part bought at more than one price across plants, with the spread and the annual value of standardising.
Should-cost modelling
A cost built up from material, labour and machine time, compared against what you are actually paying.
Quote and margin guardrails
Quotes flagged before they go out when the configuration lands below target margin at current input costs.
Constraint and OEE analysis
The operation actually limiting throughput, found from run data rather than assumed from the routing.
Excess and obsolete inventory
Stock with no demand signal in the horizon, valued and ranked by what is realistically recoverable.
Freight and expedite leakage
Premium freight and expedite cost traced back to the scheduling decision that caused it.
The systems it reads

Built for the stack a plant actually runs

These are the systems referenced in the workflow above. Anything with an API, a database or an export can be connected, including controls and historians on the floor.

SAP
Orders, costs and receipts at plant level
NetSuite
Finance and the general ledger
Coupa
Purchase orders and approval history
Supplier invoices
What you actually paid, line by line
Quote emails
Spot prices that never reached an ERP
Part and item master
One part, three part numbers
Rockwell Automation
Line controls and PLC data
Siemens
Machine and drive telemetry
MES and historian
Machine-level runtime and cycle data
Shift notes
Why a line actually stopped
Freight bills
Cost to serve by customer and lane
Excel workbooks
Rebate accruals and credits nobody joined
Common questions

Questions plant owners and operators ask first

Do we have to consolidate our ERPs first?

No, and that is the point. Consolidation is the project most manufacturers cannot finish. This reads each plant where it stands and reconciles parts and costs on top, so you get the joined view without the migration.

How is this different from our BI or margin reports?

A margin report is accurate about what the invoice said. It cannot include the freight bill that arrived two weeks later in a different ledger, or the rebate accrued at quarter end, or the credit memo for a return. Those are what separate booked margin from kept margin.

How do you match parts across plants without a common code?

By specification rather than by code. Descriptions, dimensions, supplier part numbers and unit-of-measure are reconciled, and low-confidence matches are surfaced for a human to confirm rather than assumed. Your engineers see the match before it is used.

Will this disrupt production or touch the controls?

No. Machine data is read from the historian or MES, not written to. Nothing on the floor is controlled, adjusted or interrupted, and the plant runs exactly as it did before.

Our third plant runs a system from the 1990s. Is that a problem?

It is common and usually workable. Older systems almost always expose a database, a scheduled report or a flat-file export, and any of those is enough. It is often the plant with the most trapped value precisely because nobody has looked.

How long before we see a number we trust?

Most engagements are live on a first workflow in four to six weeks. Direct-spend price spreads are the usual starting point because they are verifiable against invoices you already have, which makes the result easy to check independently.

Who owns the decision to reprice or consolidate?

Your team, always. The system produces the comparison, the draft supplier request and the supporting documents. Procurement and commercial leadership decide what to send and what to accept.

Does this replace our ERP or our planning system?

No. It reads from them and writes findings back, so buyers, planners and controllers keep working in the systems they know. There is no new interface to adopt and no data leaves your control if you deploy in your own environment.

AI throughput and OEE analysis: common questions

Why not just use the utilisation report?

Because most utilisation reporting is built on planned hours, and a plant does not run on those. Availability, performance and quality have to be measured separately and multiplied, and the causes have to be categorised from what actually happened on the floor rather than from the schedule.

Where does the data come from?

Shift notes, which are free text and usually never counted, machine counters for cycle time, the maintenance work order log, the quality log for scrap and rework, and the production schedule for planned hours. Every one of these already exists.

Does this replace a capital investment?

Sometimes, and sometimes it just makes the case honest. If the constraint is running well and demand is real, more capacity is the right answer. If the constraint is idle a third of the time for two recurring reasons that have no standard work against them, adding capacity behind it buys very little, and the comparison should be made before the money is committed.

Unified operating layer to harness artificial intelligence. Connect fragmented data, create agentic workflows, enable faster decisions across your company.

© 2026 OutcomeCatalyst. All rights reserved.

Unified operating layer to harness artificial intelligence. Connect fragmented data, create agentic workflows, enable faster decisions across your company.

© 2026 OutcomeCatalyst. All rights reserved.

Unified operating layer to harness artificial intelligence. Connect fragmented data, create agentic workflows, enable faster decisions across your company.

© 2026 OutcomeCatalyst. All rights reserved.