Where a single process deviation costs a batch, a regulatory submission, or patient safety — generic AI is not an option.

Datanoetic's auditable, grounded intelligence is built for the standards you operate under. Every root cause is cited from your audit-logged records. Every recommended action awaits QA approval. Every process improvement is traceable from trigger to deployment.

The compliance gap that costs pharma operations the most.

From "batch on hold" to "root cause cited, QA action proposed" — in seconds, not hours, with full audit-logged lineage.

The data to root-cause every batch hold, every cold-chain excursion, and every serialisation error already exists in your systems — LIMS, ERP, CMMS, environmental monitoring. The problem is that it is locked in silos. Assembling it for one investigation takes hours. Under GxP, every hour of delay is a batch release delay, a regulatory risk, and a cost.

Datanoetic connects your regulated data layer into a single, tenant-isolated, audit-logged VSM — without replacing any system. DNAI™ reasons across it to surface root causes in seconds, grounding every answer in the specific records your QA team can act on and your auditors can trace.

/ Recommend-and-confirm. Every DNAI™ action awaits QA approval — explicitly not autonomous. Audit-logged connectors and isolated tenancy support 21 CFR Part 11 / GDP / GxP.

  • 01

    Batch release delays: QC hold root causes buried across LIMS, ERP, and manual records.

    Hours to investigate a single deviation — each system holds part of the answer, none of them are connected.

  • 02

    Cold chain compliance: temperature excursions identified retrospectively, not in the intervention window.

    The data existed. It just wasn't connected to the right KPI in real time — so intervention becomes rejection.

  • 03

    Serialisation errors: aggregation failures caught at 3PL goods-in rather than at source.

    Regulatory non-compliance detected downstream — when correction is expensive and the batch may already have shipped.

  • 04

    Equipment-driven yield variation: CMMS calibration events not correlated with LIMS yield data in real time.

    The connection between equipment state and yield suppression is invisible until the pattern repeats — and the batch is already held.

  • 05

    Regulatory reporting: periodic performance reports assembled manually across disconnected GxP systems.

    Slow, expensive, and introduces transcription risk. Under 21 CFR Part 11, every step of that process is itself an audit exposure.

  • 06

    Supplier deviation management: incoming material deviations trigger batch holds without a cross-system causal trace.

    The supplier system, the material test record, and the batch it affects exist in three places — none connected until the QA investigation starts.

Where pharma supply chains lose value. And how Datanoetic closes each gap.

When Batch L-2847 goes on hold, the investigation requires separate logins to LIMS, ERP, CMMS, and paper batch records. Cross-referencing them to identify whether Equipment E-06's calibration drift caused the yield suppression — and that it happened 94 minutes before the first failing test — takes hours. Every hour is a batch release delay and a regulatory risk.

How Datanoetic closes it

DNAI™ KPI Guard monitors every published VSM node continuously. When Batch L-2847's yield drops below threshold at QC Release, an Insight Card surfaces on that specific node — citing Equipment E-06's calibration flag from CMMS, the 3 prior correlated yield events from LIMS, and the recommended action — awaiting QA supervisor approval. Root cause in 312ms, not hours.

A regulated manufacturing operation generates data across four to six systems — each knowing part of the batch story. LIMS knows QC results. CMMS knows equipment calibration state. ERP knows the production schedule. Environmental monitoring knows excursion events. None of them know how Equipment E-06's calibration drift connects to Batch L-2847's yield suppression — until the investigation starts.

How Datanoetic closes it

Datapro-V™ maps your end-to-end regulated operation as a live VSM — every batch step, every KPI anchored to the step that owns it, every equipment entity and data source assigned to the steps they affect. Audit-logged, read-only connectors to LIMS, CMMS, ERP, and env_monitoring feed a single tenant-isolated layer. Source audit trails are preserved, not replaced; the cross-system view is assembled from what already exists.

General-purpose AI assistants can describe GxP best practices. They cannot tell you that Batch L-2847 is failing at QC Release because Equipment E-06's calibration flag was raised in CMMS 94 minutes before the first failing test result, that this correlates with 3 prior yield events on Line 2 in the last 7 days, and that the QA supervisor needs to approve escalation to maintenance and re-routing of Batch L-2848 to Line 3 — with every step audit-logged.

How Datanoetic closes it

DNAI™ reasons from your Knowledge Graph — every batch, every equipment entity, every LIMS assay, every compliance threshold — not from general training data. KPI Guard generates hypotheses grounded in your process graph, cites the specific audit-logged records it used, and proposes a QA-approvable action. Every step is traceable: source record → hypothesis → recommendation → approval → deployment.

KPI Guard
Batch pass · L-2847 · Line 2 87.2% ▼ vs 98.5%
Batch pass rate %
AggregatedBy node
100959085
1 Jan8 Jan15 Jan22 Jan29 Jan
Analyst

Why is Batch L-2847 not releasing on schedule?

Equipment E-06's calibration flag was raised in CMMS at 06:40 — 94 min before the first failing test; 3 prior yield events on this line in 7 days correlate with E-06.

Ranked driversWeight
01 E-06 calibration driftCMMS · cal_events
02 Batch size varianceERP · prod_sched
03 Incoming material lot · L-2840LIMS · batch_qc
Organisation / / Site-1
Profile Workflow Analytics 94% 2
Main workflow 1 Batch Manufacturing
Edit Preview Live
EU Office
1 0 0 %
Dispensing & Charging
Local step
ID: 1
99.1%
Dispensing & Charging
Metadata 4
Markus Feld Markus Feld
Rosa Lind Rosa Lind
ERP · prod_sched Weigh Station WS-3
GMP Line 2
KPI parameters 3
Time
Quality
Cost
Compression · Line 2
Local step
ID: 2
94.3%
Compression · Line 2
Metadata 6
Tomasz Nowak Tomasz Nowak
Viktor Schultz Viktor Schultz
+1
Equipment E-06 CMMS · cal_events
+1
Line 2 Calibration-watch
KPI parameters 4
Time
Quality
Risk
Cost
QC Release
Local step
ID: 3
87.2%
DNAI DNAI New Insight
QC Release
Metadata 5
Priya Anand Priya Anand
Aisha Rahman Aisha Rahman
LIMS · batch_qc ERP · prod_sched
Batch L-2847 Release-gate
KPI parameters 4
Time
Quality
Risk
Cost
Serialisation & Aggregation
Local step
ID: 4
98.4%
Serialisation & Aggregation
Metadata 4
Daniel Cooper Daniel Cooper
Mei Tanaka Mei Tanaka
ERP · serialisation
21 CFR Part 11
KPI parameters 3
Time
Quality
Risk
Cold-Chain Despatch
Local step
ID: 5
98.0%
Cold-Chain Despatch
Metadata 5
Sarah Mitchell Sarah Mitchell
Viktor Schultz Viktor Schultz
IoT · temp_log Cold-Chain Carrier
Cold-chain 2–8°C
KPI parameters 3
Time
Quality
Sustainability
Organisation / / Site-1
Profile Workflow Analytics 94% 2
Main workflow 1 Batch Manufacturing
Edit Preview Live
EU Office
1 0 0 %
Dispensing & Charging
Local step
ID: 1
99.1%
Dispensing & Charging
Metadata 4
Markus Feld Markus Feld
Rosa Lind Rosa Lind
ERP · prod_sched Weigh Station WS-3
GMP Line 2
KPI parameters 3
Time
Quality
Cost
Compression · Line 2
Local step
ID: 2
94.3%
Compression · Line 2
Metadata 6
Tomasz Nowak Tomasz Nowak
Viktor Schultz Viktor Schultz
+1
Equipment E-06 CMMS · cal_events
+1
Line 2 Calibration-watch
KPI parameters 4
Time
Quality
Risk
Cost
QC Release
Local step
ID: 3
87.2%
DNAI DNAI New Insight
QC Release
Metadata 5
Priya Anand Priya Anand
Aisha Rahman Aisha Rahman
LIMS · batch_qc ERP · prod_sched
Batch L-2847 Release-gate
KPI parameters 4
Time
Quality
Risk
Cost
Serialisation & Aggregation
Local step
ID: 4
98.4%
Serialisation & Aggregation
Metadata 4
Daniel Cooper Daniel Cooper
Mei Tanaka Mei Tanaka
ERP · serialisation
21 CFR Part 11
KPI parameters 3
Time
Quality
Risk
Cold-Chain Despatch
Local step
ID: 5
98.0%
Cold-Chain Despatch
Metadata 5
Sarah Mitchell Sarah Mitchell
Viktor Schultz Viktor Schultz
IoT · temp_log Cold-Chain Carrier
Cold-chain 2–8°C
KPI parameters 3
Time
Quality
Sustainability

The improvement, KPI by KPI.

DNAI™ resolves today's batch incident; DNOVA™ removes the cause for good. Hover any metric to see the DNOVA™ process logic behind it — and the other KPIs it configures on your VSM.

Time 20–35%

Batch release cycle time

DNAI™ root cause in minutes vs hours of manual investigation across LIMS, ERP, and paper records.

Batch release cycle time

DNAI™ acts on this batch's incident — recommend-and-confirm, QA-approved. DNOVA™ acts on the chronic pattern behind it — design-and-deploy, process-owner and QA-approved.

How DNOVA™ holds it

Where DNAI™ surfaces the root cause of a single batch hold in minutes, DNOVA™ reads across the hold history and identifies the chronic process patterns driving repeat delays — equipment calibration drift, recurring CQA assay deviations, or operator certification gaps that correlate with hold rate. It proposes standing pre-batch checks and routing rules that prevent the same hold class from recurring. Process owner and QA sign off; rules are codified in Datapro-V™. Batch release cycle time shortens permanently, not shift by shift.

Other metrics we track in Time
  • Cycle Time
  • Lead Time
  • Throughput Time
  • Wait/Idle Time
  • On-Time Delivery %
  • Time Variance %

Configured to your thresholds and baselines — not industry averages. Formulas are defined and maintained by Datanoetic.

Quality 15–25%

Batch rejection / hold rate

DNOVA™ eliminates chronic equipment-driven deviations — not just resolves individual batch holds.

Batch rejection / hold rate

DNAI™ acts on this batch's incident — recommend-and-confirm, QA-approved. DNOVA™ acts on the chronic pattern behind it — design-and-deploy, process-owner and QA-approved.

How DNOVA™ holds it

DNAI™ identifies the root cause of each hold. DNOVA™ identifies the chronic cause behind the recurring ones: equipment deviation patterns, incoming material lot correlations, or line assignment rules that consistently produce yield suppression above threshold. It proposes structured process changes — updated calibration schedules, dynamic line routing, material pre-qualification rules — and, once approved by the process owner and QA, deploys them. Repeat hold classes are eliminated.

Other metrics we track in Quality
  • Defect Rate
  • First-Pass Yield (FPY)
  • Rework Rate
  • Complaint Frequency
  • Quality Index
  • Process Capability (Cp/Cpk)

Configured to your thresholds and baselines — not industry averages. Formulas are defined and maintained by Datanoetic.

Risk 99%+sustained

Cold chain compliance %

Real-time excursion alert vs retrospective detection at batch review.

Cold chain compliance %

DNAI™ acts on this batch's incident — recommend-and-confirm, QA-approved. DNOVA™ acts on the chronic pattern behind it — design-and-deploy, process-owner and QA-approved.

How DNOVA™ holds it

DNAI™ surfaces cold-chain excursions at the moment they occur — not at batch review. DNOVA™ attacks the recurrence: it analyses the incident history for cold-chain excursions and identifies the chronic patterns (specific storage zones, transfer windows, carrier routes) that repeatedly produce out-of-range events. It proposes automated pre-condition checks and alert-escalation rules for those conditions, deployed once QA approves. Compliance % is sustained rather than recovered.

Other metrics we track in Risk
  • Risk Event Frequency
  • Severity × Impact Score
  • Mitigation Success %
  • Compliance Violation Count
  • Financial Risk Exposure
  • Risk-Adjusted Return

Configured to your thresholds and baselines — not industry averages. Formulas are defined and maintained by Datanoetic.

Quality 40–60%

Serialisation error rate

Aggregation errors caught at the node, not at 3PL goods-in.

Serialisation error rate

DNAI™ acts on this batch's incident — recommend-and-confirm, QA-approved. DNOVA™ acts on the chronic pattern behind it — design-and-deploy, process-owner and QA-approved.

How DNOVA™ holds it

DNAI™ catches serialisation and aggregation failures at the specific packaging node. DNOVA™ identifies the chronic conditions that generate them — specific line configurations, operator shift patterns, or equipment states that correlate with aggregation error rates. It proposes standing serialisation validation rules and line-configuration checks, codified once process owner and QA approve, so the same error class cannot recur as a chronic cause.

Other metrics we track in Quality
  • Defect Rate
  • First-Pass Yield (FPY)
  • Rework Rate
  • Complaint Frequency
  • Quality Index
  • Process Capability (Cp/Cpk)

Configured to your thresholds and baselines — not industry averages. Formulas are defined and maintained by Datanoetic.

Time 50–70%

Regulatory reporting time

Automated evidence assembly from audit-logged, tenant-isolated connectors — no manual cross-system records.

Regulatory reporting time

DNAI™ acts on this batch's incident — recommend-and-confirm, QA-approved. DNOVA™ acts on the chronic pattern behind it — design-and-deploy, process-owner and QA-approved.

How DNOVA™ holds it

DNAI™ cites the specific audit-logged records behind every root cause and recommended action. DNOVA™ builds on this: as it codifies process changes and automated rules, those rules are logged with the same audit trail — so every DNOVA™-driven process update is traceable from trigger to approval to deployment. Regulatory reports and audit responses pull directly from the lineage layer, not from manual cross-system assembly.

Other metrics we track in Time
  • Cycle Time
  • Lead Time
  • Throughput Time
  • Wait/Idle Time
  • On-Time Delivery %
  • Time Variance %

Configured to your thresholds and baselines — not industry averages. Formulas are defined and maintained by Datanoetic.

Quality Eliminated

Equipment-driven yield loss

Eliminated for top 3 chronic equipment causes after DNOVA™ cycle 1 — based on the E-06 calibration scenario.

Equipment-driven yield loss

DNAI™ acts on this batch's incident — recommend-and-confirm, QA-approved. DNOVA™ acts on the chronic pattern behind it — design-and-deploy, process-owner and QA-approved.

How DNOVA™ holds it

After 8 weeks of DNAI™ incident data, DNOVA™ identifies: Equipment E-06 calibration events correlate with batch yield suppression at 91% confidence across 7 incidents. DNOVA™ proposes: (1) automated pre-batch calibration check for E-06 before Line 2 assignments, (2) dynamic line routing rule — if E-06 calibration age exceeds 48 hours, auto-assign batch to Line 3, (3) maintenance interval reduction from 14-day to 10-day for E-06 class. Awaits process owner and QA sign-off. On approval, rules are codified in Datapro-V™ and executed automatically for all future batches. Result: E-06-related batch holds eliminated. Process updated. Datapro-V™ baseline raised. DNOVA™ loop restarts on remaining drivers.

Other metrics we track in Quality
  • Defect Rate
  • First-Pass Yield (FPY)
  • Rework Rate
  • Complaint Frequency
  • Quality Index
  • Process Capability (Cp/Cpk)

Configured to your thresholds and baselines — not industry averages. Formulas are defined and maintained by Datanoetic.

Indicative improvements are Datanoetic-modelled projections, calibrated to your VSM during the first 30 days. Results depend on operational baseline, data connectivity, and deployment scope. All data connectors are audit-logged and tenant-isolated; the platform is designed for deployment in GxP-regulated environments (21 CFR Part 11 / GDP / GxP).

How the workflow changes.

Before

Batch L-2847 goes on hold. The QA lead opens LIMS, cross-references ERP, pulls CMMS calibration records, checks paper batch records. Three hours later: Equipment E-06's calibration drift identified as root cause, manual action proposed, manually documented.

After

DNAI™ surfaces the E-06 calibration flag in 312ms — citing LIMS, CMMS, and ERP simultaneously. The QA supervisor confirms the recommended action: escalate E-06, re-route L-2848 to Line 3. Decision is faster, fully audit-logged, traceable from record to approval.

The same equipment hold cannot recur.

After eight weeks of DNAI™ incident data, DNOVA™ identifies: Equipment E-06 calibration events correlate with batch yield suppression at 91% confidence across 7 incidents. DNOVA™ proposes three changes — an automated pre-batch calibration check for E-06 before Line 2 assignments, a dynamic line routing rule (if E-06 calibration age exceeds 48 hours, auto-assign batch to Line 3), and a maintenance interval reduction from 14-day to 10-day for the E-06 class. Awaits process owner and QA sign-off. On approval, rules are codified in Datapro-V™ and executed automatically for all future batches. E-06-related batch holds eliminated. DNOVA™ loop restarts on remaining drivers.

Live in your regulated operation in 12–16 weeks.

Implementation is managed by Datanoetic — not a self-install. We scope your GxP-regulated VSM, connect your regulated data sources with audit-logged read-only connectors, configure your compliance KPI thresholds, and deliver your first real DNAI™-explained incident in week four. 30 days to first live alert.

  1. Scope & VSM mapping
  2. Data connect LIMS ERP CMMS env_monitoring
  3. KPI thresholds & compliance configuration
  4. First value — live alert

30 minutes. One scenario. Your batch data.

We'll walk your team through the Batch L-2847 QC hold scenario on a sample VSM that mirrors your GxP-regulated operation — and one compliance KPI you wish you could explain in real time.