Real-time sensor orchestration from factory floor to enterprise systems. Connect any IoT device, process events at scale, and deploy on edge or cloud.
Industrial IoT demands real-time processing that legacy systems can't deliver
Modern factories run on dozens of incompatible systems: PLCs with proprietary interfaces, legacy SCADA systems, HTTP APIs, UDP streams, and custom binary formats. Integration projects take 6+ months and break with every firmware update.
Cloud-only IoT platforms fail when network connectivity drops. Production lines can't afford to stop because of internet outages. Critical decisions need edge processing with cloud sync, not cloud-or-nothing.
A single production line generates 10TB+ of sensor data monthly. Legacy databases and batch ETL can't keep pace. Real-time anomaly detection, predictive maintenance, and quality control demand stream processing at scale.
20-year-old MES and ERP systems can't handle real-time event streams. Custom integration projects cost $500K+ and create brittle point-to-point connections that break with every upgrade cycle.
Data scientists train predictive maintenance models in notebooks, but deploying them to production takes months. By the time models reach the factory floor, sensor patterns have changed and accuracy drops below 70%.
Equipment failures cost automotive manufacturers $22K per minute. Batch processing detects anomalies hours too late. By the time alerts fire, production lines are already down and revenue is lost.
Real-time orchestration from factory floor to enterprise cloud
Connect to any data source via HTTP/REST, UDP, WebSocket, Kafka, or custom adapters. Stream processing engine normalizes data from PLCs, robots, CNC machines, and sensors into unified event streams through IoT gateways.
Deploy layline.io clusters at factory edge for low-latency processing, with automatic cloud sync for enterprise analytics. Local processing continues during network outages with automatic reconciliation.
Event-driven pipelines feed ML models for predictive maintenance, real-time quality control, and OEE optimization. Detect anomalies in milliseconds, trigger maintenance alerts, and prevent defects before they happen.
# Real-time vibration analysis at factory edge
def analyze_vibration(sensor_stream):
# 10-second sliding window
window = sensor_stream.window(seconds=10)
# Calculate FFT for frequency analysis
fft_spectrum = calculate_fft(window.values)
# Detect bearing failure signature
if detect_bearing_frequency(fft_spectrum):
alert = create_maintenance_alert(
machine_id=sensor_stream.machine_id,
severity="HIGH",
predicted_failure_hours=24,
vibration_pattern=fft_spectrum
)
trigger_alert(alert)
return sensor_stream
The future of manufacturing demands real-time data orchestration
Bi-directional synchronization between physical assets and digital twin models with event-sourcing architecture
Handle massive sensor volumes from distributed factories with elastic horizontal scaling
Connect MES, ERP, WMS, and logistics systems for complete supply chain visibility
Real-time energy consumption monitoring and carbon footprint calculation for ESG reporting
Real-world applications across modern industrial operations
Real-time vibration, temperature, and acoustic sensor analysis with ML-powered anomaly detection. Predict bearing failures, motor degradation, and hydraulic issues before catastrophic breakdown.
Coordinate handoffs between production stages—CNC machines to assembly, assembly to packaging, packaging to shipping. Route work orders based on machine availability, priority, and capacity.
Monitor energy consumption at machine, line, and facility levels with automated carbon calculations for Scope 1/2 emissions reporting. Optimize production schedules for renewable energy availability.
Bi-directional event streaming between physical equipment and digital twin models. Real-time state synchronization enables predictive simulations, "what-if" analysis, and autonomous optimization.
Open-source freedom meets industrial-grade reliability for the modern factory floor
Edge operation with low-latency processing for critical manufacturing decisions—no cloud dependency required.
Connect to any industrial system via HTTP APIs, UDP streams, Kafka, or custom JavaScript adapters—integrate with existing IoT gateways.
Apache 2.0 license with no per-sensor fees, no vendor lock-in, and complete control over your infrastructure.
| Feature | layline.io | Cloud-Only (AWS/Azure IoT) | Proprietary MES (Siemens/GE) | Generic iPaaS (MuleSoft/Boomi) |
|---|---|---|---|---|
| Edge Deployment | Limited | |||
| Industrial Integration (via Gateways) | Via Gateway | |||
| Real-Time Processing (<5ms) | Variable | |||
| Licensing Model | Open-Source Apache 2.0 | Per Device/ Consumption | Per Sensor/ High Cost | Per Connection |
| Offline Resilience | Limited | |||
| Visual Workflow Designer | Basic | Proprietary |
Common questions about deploying layline.io for industrial IoT and factory automation
layline.io connects to industrial equipment through IoT gateways that translate industrial protocols to standard interfaces. Use HTTP/REST endpoints, UDP streams, Kafka topics, or WebSocket connections to receive data from your existing gateway infrastructure.
For custom integrations, build JavaScript adapters that parse proprietary data formats and normalize sensor data into unified event streams. The platform handles connection pooling, retry logic, and data transformation automatically.
Deploy edge clusters close to PLCs and sensors for low-latency processing, then stream processed events to cloud analytics systems. All protocol configuration is version-controlled and deployable across multiple factory sites.
Yes. layline.io runs as a fully autonomous cluster at the factory edge on industrial PCs, edge gateways, or ruggedized servers. Real-time processing (anomaly detection, quality control, equipment monitoring) happens locally with zero cloud dependency.
When network connectivity is available, edge clusters automatically sync processed events to cloud storage (S3, Azure Blob, Google Cloud Storage) and enterprise systems (MES, ERP, data lakes). During outages, events queue locally on disk with configurable retention policies.
When connectivity returns, the cluster automatically reconciles state and backfills missed events. Production lines never stop because of internet failures—critical decisions happen at the edge in milliseconds.
Configure ML inference pipelines using layline.io's workflow designer. Connect sensor streams (vibration, temperature, acoustic, current draw) to your trained models via REST APIs, gRPC endpoints, or embedded Python/JavaScript processors.
For real-time anomaly detection, deploy models as containerized microservices alongside edge clusters. Stream sensor data through sliding windows (5-second, 10-second, 1-minute), calculate FFT spectra and statistical features, then invoke model inference endpoints with low latency.
When models detect anomalies or predict failures, configure automatic actions: create work orders in CMMS systems, send alerts to maintenance teams, adjust machine parameters, or halt production lines. Model updates deploy instantly across all factory sites without downtime.
Yes. layline.io's distributed architecture scales horizontally across cluster nodes. Edge deployments on industrial PCs can handle hundreds of simultaneous sensor streams generating high event volumes per factory.
For larger facilities, deploy regional edge clusters per production area (Assembly, Welding, Painting) with centralized cloud aggregation. Each cluster processes local sensor data with low latency, then streams aggregated metrics to enterprise systems.
Data retention is configurable: keep raw sensor data for 7-30 days at the edge for root cause analysis, while streaming aggregated metrics (OEE, energy consumption, quality metrics) to cloud data lakes for long-term analytics and regulatory compliance.
Configure bi-directional event streams between physical assets and digital twin models using layline.io's workflow designer. Sensor events (temperature, vibration, position, tool wear) flow from equipment to twin models for state synchronization and predictive simulation.
Digital twins run optimization algorithms and \"what-if\" scenarios, then send control commands back to physical equipment through layline.io workflows. For example: adjust CNC spindle speed based on tool wear predictions, modify assembly line timing for throughput optimization, or trigger maintenance windows before predicted failures.
Event sourcing architecture maintains complete state history for time-travel debugging and compliance audits. Replay production events to understand root causes of quality issues or simulate alternative scenarios to optimize future production runs.
Choose the edition that fits your industrial IoT needs
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