DAVISA AI STUDIO · SECTOR AI applied to manufacturing
For managing directors, plant managers, quality directors and operations directors of
discrete and food manufacturers running Business Central. Scrap prediction on real
history, multi-material invoice automation, predictive maintenance and systematic
non-conformance analysis. Without hype, with numbers and a deadline.
The state of digital maturity in manufacturing in 2026
Spanish SMB manufacturing arrives at 2026 with a high level of digital maturity in
companies that have rolled out Business Central together with the dv* shop-floor
extensions: dvproduction for work order, routing and production report management;
dvquality for quality control and non-conformities; dvscrap for structured scrap
recording by root cause; dvmermas for raw-material waste tracking in food and process
manufacturing. In this profile of company the data exists, is traceable and accumulates
with statistical quality.
The gap, as in construction, sits on top of the data. OEE is calculated and published,
but its predictive analysis is still manual. Scrap is recorded correctly, but root
cause is assigned in the monthly quality meeting by intuition. Waste is measured, but
parametric optimisation to reduce it is not addressed systematically. Maintenance is
still mostly calendar-based preventive plus reactive when something breaks, with dvgmao
as the foundation if implemented, but without the predictive layer yet. The raw
material for AI is there; the AI kitchen is not.
In food manufacturing, a layer of batch traceability and sanitary compliance is added,
already well covered by BC plus the relevant batch-control extensions. AI applied in
this sub-sector mainly enters waste optimisation, anticipation of quality rejects on
organoleptic or microbiological characteristics and consumption forecasting to adjust
launches. Traceability stays with the documentation system; AI analyses and proposes
without altering the record.
The entry cost for AI cases in manufacturing has dropped sharply with Azure Machine
Learning, Azure OpenAI Service and Document Intelligence. The real barrier is no
longer technological: it's the quality and age of the data in BC. Without twelve to
twenty-four months of clean history with dvproduction and dvquality live, predictive
models don't stabilise. That's why the first case is usually document automation,
which doesn't need history, and the predictive case follows.
The problems where AI delivers real impact
Four gaps where, with BC + the dv* shop-floor extensions and the right AI layer, the
ROI is clear and the timeline is reasonable. If you recognise yourself in one of them,
there is a use case to start with.
Scrap only detected after the fact, with no anticipation
The plant closes work orders with scrap above target and finds out in Monday's dashboard or, worse, at month-end close. Corrective action arrives late, with the batch already shipped and the loss locked in. The knowledge of the veteran operator who can sense when a batch is going wrong stays trapped in one person.
Industrial scrap prediction →
Supplier invoices in multi-material operations
A typical manufacturer processes hundreds of invoices per month with multi-material lines, ancillary charges, agreed waste and supplier item codes different from the internal ones. Analytical posting to cost centre, work order and line item still depends on people with context. It is slow, error-prone and doesn't scale.
Supplier invoice automation →
Maintenance still reactive on the plant floor
The maintenance strategy mixes calendar-based preventive with reactive when something breaks. Real predictive maintenance, based on real machine signals and breakdown history, is not yet applied systematically. Unplanned downtime consumes between 5% and 15% of theoretical plant availability.
Sector opportunity — pilot to be tailored →
Quality non-conformities that keep coming back
The quality system records non-conformities one by one but doesn't cross-reference history to detect patterns. The same non-conformity recurs because nobody has the bandwidth to correlate incidents against material, supplier, shift or machine. AI can read the full non-conformance history and suggest the correlations a human doesn't have time to find.
Sector opportunity — pilot to be tailored →
Davisa stack applied to manufacturing
The AI layer sits on top of the Davisa shop-floor stack you already have, or that we
deploy for you before the pilot. The better the shop-floor extensions are configured,
the more the model pays back. The following flow describes the typical architecture of
a manufacturer with the AI Studio live.
- Microsoft Dynamics 365 Business Central: financial, accounting,
warehouse and shop-floor core common to the entire business activity.
- dvproduction: advanced manufacturing management on BC (work order,
routing, production report, material consumption, time control by operator and machine).
- dvquality: quality management system (inspection plans, non-
conformities, corrective actions, quality certificates and audits).
- dvscrap: structured scrap recording by work order, machine, shift
and root cause. Data core for scrap prediction models.
- dvmermas: raw-material waste tracking in food and process
manufacturing, with deviation against standard and by cause.
- dvgmao: maintenance management (preventive, corrective, breakdown
history, cost per machine). Foundation for predictive maintenance cases.
- dvinvoice-hub and dvdata-analysis: inbound invoicing document hub
and analytical exploitation layer feeding the AI pipeline with structured data.
- Azure Machine Learning + Azure OpenAI + Document Intelligence: AI
layer deployed in your Azure tenant. ML for predictive models, OpenAI for
conversational assistants and Document Intelligence for document extraction.
Deployment examples
Three typical manufacturer scenarios. These are indicative examples, not published
case studies with audited figures: they show how the AI Studio lands in companies
with a profile similar to yours.
Example 1 Plastic injection moulder, 60 people, 8 machines
Problem: 5.5% scrap rate over manufacturing cost. Detected at month-end close. The plant manager senses correlation between resin type, machine and shift but has no capacity for systematic analysis.
Proposed solution: Scrap prediction pilot on BC + dvproduction + dvquality + dvscrap. Azure Machine Learning model trained on 18 months of history. Per-work-order prediction before launch and proactive alert to the plant manager.
Expected result: Expected 20% to 30% reduction in scrap rate in the first year, which in this case means recovering 1.1 to 1.7 margin points. Indicative figures, to be confirmed against your actual history.
Example 2 Food manufacturer, 120 people, several lines and recurring SKUs
Problem: Finance department overwhelmed by raw-material supplier invoices with multi-material lines, agreed waste and supplier item codes different from internal ones. Four people spending half a day each typing them in.
Proposed solution: Smart posting pilot on dvinvoice-hub with Document Intelligence: document extraction, matching against the live purchase order, posting proposal to manufacturing line and work order.
Expected result: Expected 60% reduction in capture time per invoice. Person-days reassigned to control and supplier reconciliation. Conservative, indicative figures, to be validated against your data.
Example 3 Precision machining manufacturer, 40 people, 12 CNC machines
Problem: Real plant availability around 78%, with 22% lost between planned downtime and breakdowns. Maintenance mostly reactive. No mature CMMS and no IoT sensors deployed yet.
Proposed solution: Two-phase pilot: first implement dvgmao to organise the maintenance data and breakdown history; then, on top of six months of consolidated data, train a predictive breakdown model on the critical machines.
Expected result: In year one, with dvgmao well implemented alone, expected recovery of 2 to 4 OEE points. In year two, with the predictive model in production, another 2 to 3 additional points. Indicative figures, to be refined in the Discovery.
What AI will NOT do for you in manufacturing
Honesty before hype. Four things AI does not solve in an industrial plant, no matter
how much Discovery we run.
- It doesn't fix a broken shop-floor process. If production reports
aren't closed, if scrap is recorded in bulk rather than by root cause, or if non-
conformities stay on an operator's sheet without making it into BC, AI has nothing
to learn from. The operational flow has to be tidy and data has to flow with
discipline into BC first. AI accelerates what works; it doesn't rescue what doesn't.
- It doesn't work with less than one year of clean history.
Predictive models need volume. Without 12 to 24 months of consolidated data in
dvproduction, dvquality and dvscrap, the model will find noise, not patterns. If
your BC has been in industrial production for less than a year, the honest answer
is to wait or start with non-predictive document cases.
- It doesn't replace the plant manager or the quality manager. AI
proposes parametric adjustments, predicts scrap, correlates non-conformities. The
call to act, the authorisation to stop the line and the signature on the corrective
action stay human. AI speeds up someone who already knows how to read OEE; it
doesn't turn an operator into a plant manager.
- It doesn't replace an industrial strategy. If the plant has
structural problems with capacity, product mix, technological obsolescence or
supplier quality, AI accelerates knowledge of the problem but doesn't solve the
strategic decision. That stays management work.
How we kick off an AI project in manufacturing
Three phases of the Davisa AI Studio method, adapted to the specifics of manufacturing.
Each phase with a concrete deliverable and a fixed timeline.
1 Discovery
5 days
Field work with your plant manager, quality manager, maintenance lead and CFO.
Audit of the data in dvproduction, dvquality, dvscrap and, where applicable,
dvgmao. Identification of the pilot case with the highest ROI on real history and
definition of the KPI target and baseline.
Deliverable: prioritised AI roadmap and selected pilot case.
2 Pilot
8 weeks · fixed scope
Development of the chosen model or operational case. Training on history, cross-
validation, integration with BC via API, production rollout and tuning with
feedback from the first shifts. In manufacturing, the plant manager's and
operator's adoption curve is the key for the case to stick.
Deliverable: case in production + measured KPI.
3 Scaling
ongoing
Periodic retraining of the model with post-pilot data, extension to more SKUs or
more lines, rollout of the next case in the roadmap (predictive maintenance if we
started with scrap, or the reverse) and training of the internal team so they can
interpret and act on model outputs.
Deliverable: full plant coverage + monthly KPI.
Keep exploring
AI use case Industrial scrap prediction
Azure ML models trained on production, quality and scrap history to anticipate rejects.
AI use case Supplier invoice automation
Extraction, matching and analytical posting of multi-material invoices with Document Intelligence.
BC extension dvproduction
Advanced manufacturing management on BC: work order, routing, production report and consumption.
BC extension dvquality
Quality management system on BC: inspections, non-conformities and corrective actions.
BC extension dvscrap
Structured scrap recording by work order, machine, shift and root cause. Predictive data core.
BC extension dvmermas
Raw-material waste tracking in food and process manufacturing.
BC extension dvgmao
Maintenance management on BC: preventive, corrective, breakdown history and cost per machine.
Sector Discrete manufacturing
The traditional sector page with the full Davisa proposition for discrete manufacturing.
Sector Food manufacturing
The traditional sector page with the full Davisa proposition for food.
Calculator Real OEE and scrap cost
Calculate the real annual loss from scrap and unrecovered OEE points in your plant.
Hub Davisa AI Studio
Full catalog of use cases, sectors, method and Discovery of the AI Studio.
Frequently asked questions
How much historical data do we need for a predictive model to work on the shop floor?
As a practical rule, between 12 and 24 months of clean history in Business Central with dvproduction, dvquality, dvscrap and dvmermas live and properly configured. We need enough volume for the model to distinguish real patterns from statistical noise: recurring batches, machine parameters, material-supplier mixes, shifts, operators and quality outcomes. If you have less than 12 months with BC in production, the honest answer is to wait or start with non-predictive cases like invoice automation or the executive close summary.
Do we need IoT sensors on the machines to get value from AI?
Not mandatory, but it helps. With BC data alone (work order, routing, material consumption, production reports, scrap and non-conformance records) you can already train useful models, especially to anticipate material-supplier-shift-machine mix problems. Adding real-time IoT signals (temperature, pressure, vibration, speed) gives the model more resolution and enables in-shift parametric adjustment and proper predictive maintenance. Without IoT we start with batch cases; with IoT we move into real-time.
Does it work for one-off engineer-to-order manufacturing or only for series?
Manufacturing with order repetition (recurring batches, frequent SKUs) and measurable parameters works very well: injection moulding, machining, stamping, extrusion, blowing, lamination, process chemistry, industrial food. Pure project-based one-off manufacturing (e.g. unique boilermaking) has less room for predictive models because each order is statistically unique. In that case the AI Studio focuses on document automation, operational assistants and per-project margin analysis, not scrap prediction.
What about food traceability — does AI break it?
No. AI in food manufacturing sits on top of the traceability already provided by BC + dvproduction + dvquality. The AI layer reads, analyses and proposes, but it does not modify the batch record or raw-material tracking. Traceability stays in the standard quality management system and, where applicable, the food batch control extensions. What AI adds is agility: early detection of recurring non-conformities, anticipation of quality rejects and parametric adjustment proposals to reduce scrap, all without touching the traceability documentation system.
How long until we see measurable results on the shop floor?
The 8-week pilot delivers a model in production or an operational case. The real scrap-reduction curve becomes visible between months three and six, once the plant starts acting systematically on alerts and the model has been retrained with post-pilot data. For invoice automation, impact is visible from the first week. For predictive maintenance, the first savings appear in month two or three in a single avoided breakdown. Industrial patience matters and we don't sell this as a two-week case.
Next step
Already a Davisa customer?
We frame the AI layer inside your current relationship with BC and the dv*
shop-floor extensions. Your usual advisor coordinates the AI Studio engagement.
Talk to the team →
New to Davisa?
We start with the 5-day Discovery on your plant. Audit of real data, technical
assessment and prioritised roadmap so that in one week you know where it makes
sense to invest.
Request AI Discovery →