Multivariate Data Analytics for Industry

See the failure before it happens.

Transition from reactive decisions to data-driven management. Our technology, based on multivariate data analysis (MDA), identifies hidden anomalies before failure, reduces downtime, and lowers maintenance costs.

OPC UA
Modbus · MQTT · SCADA native
0
Failure history required to start
24/7
Real-time deviation monitoring

The manifesto

01

Reactive is over

Run-to-failure and calendar-based maintenance burn budget and uptime. We replace guesswork with continuous multivariate surveillance of your process.

02

Normal is enough

An archive of normal operation is all we need. No failure data, no years of labelling — the standard of healthy behavior is learned from what you already have.

03

No black boxes

Every alarm comes with an explanation. Load vectors show exactly which parameter deviated, by how much, and what to do about it.

Solution 01 — Connectivity & IT-Infrastructure

Connect your equipment. Unify your data.

We transform disparate data sources — SCADA, ICS, PLC, sensors — into a unified, reliable, and scalable digital network. You gain the foundation for predictive analytics, quality control, and production optimization.

Industrial network and data infrastructure
fig. 01 — Connectivity & IT-Infrastructure

What is included in the service?

01

Technical audit

Survey of existing equipment, controllers, SCADA systems and networks. Evaluation of data quality, polling frequency, and gaps. Identifying bottlenecks hindering digitalization.

// Result: Report with a roadmap and technical specifications

02

Deployment of the data collection system

Installation of industrial gateways and edge agents. Configuring adapters for OPC UA, Modbus TCP, MQTT, Siemens S7. Streaming data through message brokers (Kafka / NATS).

// Result: Uninterrupted data collection in real time

03

Creating time series databases

Deployment of a specialized database on the customer's premises (on-premise) or in the cloud. Automatic data cleanup, synchronization, and quality control.

// Result: A single, structured repository for historical and current data

04

Integration with existing systems

Connection to SCADA (WinCC, FactoryTalk, MasterSCADA, etc.). Integration with MES and ERP via REST API.

// Result: Digital circuit "equipment → analytics → control"

05

Ensuring reliability and safety

On-premise deployment within the customer's network for critical information infrastructure (CII) and pharmaceuticals. Ability to work on Russian operating systems. Redundancy and system health monitoring.

// Result: Secure and resilient infrastructure

Ready to build a robust IT infrastructure for digital transformation? Request a free initial audit — we'll assess your current status and highlight potential for optimization.

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Solution 02 — Predictive Analytics

Predict equipment failures. Optimize maintenance schedules.

Transition from reactive decisions to data-driven management. Our technology, based on multivariate data analysis (MDA), identifies hidden anomalies before failure, reduces downtime, and lowers maintenance costs.

Industrial machinery under predictive monitoring
fig. 02 — Predictive Analytics

How our technology works

01

Data collection and preparation

We connect to your sensors, controllers, and SCADA via OPC UA, Modbus, and MQTT. We accumulate historical data — an archive of normal operation is sufficient; data on failures is not required.

02

Building a "digital shadow"

Multivariate statistics compress hundreds of parameters into a few key components. We establish the standard — the "golden batch" of normal equipment behavior.

03

Online monitoring and anomaly detection

The system compares the current state with the standard in real time and flags any deviation. The prediction is generated before the critical failure.

04

Interpreting the causes — no black boxes

Load vectors show which parameters deviated and by how much. You receive answers like: "Thermocouple #3 in the heating zone is drifting +7°C from the norm; manifold pressure has dropped by 5%."

05

Making decisions

Calibrate the sensor, replace the heating element, clean the pipeline, edit process parameters. Plan repairs in advance, at a convenient time, without interrupting production.

Results for the client — numbers from the pilots

Unplanned downtime 10–15% reduction
Product defect 5–12% reduction
Variation in quality between units 20–30% reduction
Energy consumption Up to 8% reduction
Payback period 6–12 months

Want to predict failures instead of putting out fires? Order a free analysis of your data in just one day — we'll show you what hidden anomalies are already present in your production and what economic impact they can deliver.

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Solution 03 — Process Optimization

Identify bottlenecks. Uncover hidden inefficiencies.

We transform the chaos of production data into precise instructions for improving efficiency. Multivariate analysis uncovers hidden relationships between parameters, identifies root causes of losses, and optimizes processes without capital expenditures.

Golden batch trend chart from a process optimization pilot
fig. 03 — Process Optimization

How our technology works

01

Data collection and integration

We connect to your sources: APCS, SCADA, MES, ERP. We collect data on process parameters (X) and product characteristics (Y).

02

Multivariate modeling

We build a model based on PLS regression — a mathematical relationship between input (X) and output (Y). Hundreds of parameters condense into a few key factors that explain product quality.

03

Identifying bottlenecks

We analyze variable contributions — which parameters influence the result and how much. We compare identical units to find behavioral differences, and cluster batches by deviation type.

04

Formulating recommendations

We answer the technologist's main question: "How do we configure X to get the best Y?" You receive specific, proven recommendations for changing parameters.

05

Implementation and control

After the changes, we keep monitoring and record the achieved effect. Control charts maintain the process in the optimal zone.

Do you want to see the hidden reserves of your production? Order an express analysis of a single process — in 1–2 weeks we'll build a model, identify key influencing factors, and provide initial recommendations for optimization.

Request it now

Solution 04 — Quality Control

Consistent quality. Batch after batch.

Move from spot product quality checks to continuous, real-time quality monitoring. Our technology compares the current process to a "gold standard" and prevents deviations before they lead to defects. Quality becomes predictable, not an afterthought.

Engineer monitoring product quality in real time
fig. 04 — Quality Control

How our technology works

01

Formation of the "golden standard"

Together with your technologists, we select the batches with the best quality. From historical data we construct a multidimensional profile of the ideal process (PCA method) and define control limits — the zone in which the process is considered stable.

02

Online comparison with the standard

The system receives data from the sensors of each new batch in real time, compares the current multidimensional state vector with the golden standard, and flags any deviation.

03

Detecting deviations

When control limits are exceeded, the system generates an early warning. The deviation may be imperceptible for individual sensors, but is obvious in multidimensional space.

04

Deciphering the cause

Contribution vectors show which parameters deviated from the standard and by how much. The technologist receives the answer: "The temperature in zone 2 is 5°C higher, the pressure in the reactor is 0.3 bar lower."

05

Making a decision

We correct the process immediately, preventing defects. Result: consistent quality from batch to batch.

Do you want to control quality in real time, rather than checking it after the fact? Order an analysis of three "bad" and three "good" batches — in just one week we'll show you which parameters truly distinguish defective goods from the norm, and build the first version of a "golden standard."

Request it now

Solution 05 — DFOS Data Analytics

Turn years of fiber optic monitoring archives into actionable insight.

Your DTS, DSS and DAS systems have been collecting data for years. Vendor software handles live monitoring — but says nothing about what happened last month, last year, or what would happen in the future. We apply multivariate data analysis (MDA) to jointly process temperature, strain and acoustic records — and reveal hidden anomalies invisible when each channel is analyzed separately.

Distributed fiber optic sensing: DTS, DSS and DAS channels along a subsea pipeline
fig. 05 — DFOS Data Analytics

How our technology works

01

Archive ingestion and cataloging

We accept accumulated DTS, DSS, DAS and RTTR archives in any common format — HDF5, TDMS, Parquet, CSV, vendor exports. The system identifies parameters (length, spatial resolution, sampling rate, units), validates quality, and files each dataset into a unified catalog linked to your asset hierarchy.

// Result: Full inventory of what you have, and whether it is fit for analysis

02

Building a unified multivariate state vector

The fiber is not just a thermometer or a microphone — it is one distributed sensor. We merge DTS profiles, DSS profiles and DAS-derived features into a single multidimensional description of the trace at every moment in time. This is the foundation of multivariate analysis.

// Result: One digital shadow of the entire trace, not thousands of separate charts

03

PCA/PLS modeling and anomaly detection

We build a PCA/PLS model of healthy behavior from historical data. Every new observation is checked against the control limits. Anomalies are flagged — including deviations invisible in any single channel.

// Result: Hidden anomalies detected without failure history, using only normal operation archives

04

Interpreting the causes — no black boxes

Contribution plots show exactly which modality — temperature, strain, or acoustics — and which section of the trace contributed to the deviation. You get answers like: "Temperature contribution 40%, acoustics 45%, strain 15%, section 3,450 m."

// Result: An instruction an engineer can act on, not a score from a black box

05

Retrospective analysis and reporting

We reconstruct the timeline of past events, build baseline temperature and strain profiles, recompute RTTR with DSS correction, classify acoustic events, and prepare formal reports. Results are delivered through interactive views (heatmap, waterfall, spectrograms, contribution plots) and machine-readable API.

// Result: Reproducible reporting for engineering, regulatory and insurance purposes

Use cases

Power cables. Recompute RTTR retrospectively with DSS correction and reveal unused capacity reserve — without replacing the cable.
Oil & gas pipelines. Find past incidents in DAS archives: digging, vehicle traffic, intrusions, leaks. Build a hot-zone map and an evidence pack for insurance.
Subsea infrastructure. Reconstruct the event timeline and prepare an evidence pack for insurers and technical experts.
Mining. Detect hidden anomalies in conveyor belts and rollers weeks before failure; move from reactive to planned maintenance.
Transport and infrastructure. Assess degradation of tunnels, bridges and runways from multi-year archives.
Data centers. Identify thermal risk zones from historical bus duct temperature profiles.
Chemical, petrochemical and pharmaceutical. Move from product quality control to process control, with fully auditable statistics.
Environment. Build objective, reproducible environmental reporting on years of distributed measurements.

Show us a sample of your DTS, DSS or DAS archive. We will run a pilot on a single trace, build a multivariate model, and show what your data already knows about your infrastructure — before it fails.

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Why MDA

Chaos in. Instructions out.

Anomalies before failure

Deviations are flagged while there is still time to act — weeks, not minutes.

Less downtime

Plan repairs at a convenient time, without interrupting production. Unplanned stops become scheduled tasks.

Lower maintenance costs

Calibrate, replace, clean — only where the data says so. No more blanket part swaps and over-maintenance.

Explainable answers

Not a score from a black box: "Thermocouple #3 is drifting +7°C from the norm" — an instruction an engineer can execute.

Get started

Your archive of normal operation is enough to begin.

Tell us about your process. We will show you what your data already knows about your equipment — before it fails.

// No failure history required

// Connects to OPC UA, Modbus, MQTT

// Pilot on one unit, scale to the plant