Manufacturing

Section
Solutions by industry
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4 min
Updated

We build AI solutions for industrial enterprises: from automated defect detection on the production line to predictive equipment maintenance. Our systems reduce unplanned downtime by 30–50% and lower defect rates by 40–60%.

AI systems for manufacturing companiesPDF

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Automated Defect Detection and Quality Control

Machine vision systems powered by convolutional neural networks (CNNs) perform visual product inspection at production line speed — up to several thousand units per minute. Models are trained on the enterprise's historical data and detect micro-cracks, chips, geometry deviations, coating defects, and assembly flaws with 99.2–99.8% accuracy, exceeding the capabilities of human inspectors.

Unlike traditional machine vision systems, our deep learning-based solutions do not require manual rule configuration for each new defect type. The model is fine-tuned on just a few dozen examples of a new defect and begins detecting it within 1⁠–⁠2 days. This is critically important for enterprises with a wide product range.

The system classifies detected defects by severity, generates statistics on defect types and root causes, and identifies correlations with process parameters. This analytics enables elimination of the root causes of defects rather than merely rejecting products at the output.

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Predictive Equipment Maintenance

Unplanned equipment downtime is one of the largest cost drivers in manufacturing, accounting for 5–20% of the value of produced goods. Predictive Maintenance systems analyze data streams from vibration, temperature, pressure, current consumption, and acoustic emission sensors for early anomaly detection.

Machine learning models — Random Forest, Gradient Boosting, LSTM networks — are trained on historical equipment operation and failure data, predicting Remaining Useful Life (RUL) with 85–93% accuracy. This enables scheduling maintenance at the optimal time, reducing unplanned downtime by 30–50% and extending equipment lifespan by 15–25%.

Transitioning from calendar-based scheduled maintenance to condition-based maintenance reduces spare parts costs by 20–30%, since component replacement occurs based on actual need rather than a fixed schedule. The system also optimizes spare parts inventory by forecasting demand based on the condition of the equipment fleet.

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Manufacturing Process Optimization

AI models analyze hundreds of process parameters — temperature, pressure, feed rate, reagent concentration, environmental conditions — and identify optimal operating modes that maximize yield while minimizing resource consumption.

Digital Twin technology enables simulation of the manufacturing process and testing of parameter changes in a virtual environment before applying them to real equipment. This eliminates the risk of defects from experimental settings adjustments and accelerates optimization by 5–10x compared to traditional approaches.

Practical optimization results include: 8–15% reduction in energy consumption, 5–12% reduction in raw material usage, and 10–20% increase in line throughput without capital investment in equipment. The system operates in operator recommendation mode or in fully automated mode with feedback through the industrial control system (SCADA/DCS).

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Sensor Data Analytics and Industrial IoT

Modern manufacturing equipment generates terabytes of data from thousands of sensors. Our sensor data processing platforms scale from individual machines to entire production facilities, collecting, aggregating, and analyzing data in real time with latency under 100 milliseconds.

The solution architecture includes edge computing at the equipment level for initial data processing and filtering, which reduces network load by 80–90% and ensures critical algorithms continue to operate even when connectivity to the central server is lost. MQTT, OPC UA, and Modbus protocols ensure compatibility with most industrial controllers.

The comprehensive analytics platform visualizes data through interactive dashboards, detects anomalies using Isolation Forest and Autoencoder algorithms, generates management reports, and builds predictive models for planning. Integration with MES and ERP systems (SAP, Oracle, and others) provides a unified information space across the enterprise.

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Benefits

  • Defect detection with 99.2–99.8% accuracy at line speed
  • 30–50% reduction in unplanned downtime
  • 40–60% lower defect rates through root cause analysis
  • 8–15% energy savings and 5–12% raw material savings
  • 10–20% increase in line throughput without capital expenditure
  • 15–25% extension of equipment lifespan
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Who It Is For

Mechanical engineering, chemical, pharmaceutical, food & beverage, and metallurgical enterprises, as well as discrete and process manufacturing

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