Table of Contents
ToggleIntroduction
In the world of industrial automation, processing data in real-time at the edge of the network is becoming increasingly important. IIoT Edge Gateways equipped with built-in algorithms for edge analysis and onboard data processing are revolutionizing how industries operate. This blog explores the significance of these capabilities, the benefits they offer, and real-world applications.
What is Edge Analysis?
Edge analysis refers to the processing of data at the edge of the network, close to where the data is generated. Unlike traditional cloud-based analysis, edge analysis allows for immediate data processing and decision-making, reducing latency and providing real-time insights.
Difference Between Edge Analysis and Cloud-Based Analysis
Beneficial Features for Edge Analysis
Reduced Latency:
By processing data locally, edge analysis minimizes the delay between data generation and actionable insights, enabling immediate decision-making.
Real-time Insights:
It will analyze data as it is generated, providing instantaneous insights and allowing for prompt responses to any anomalies or changes.
Enhanced Security:
Local data processing reduces the exposure of sensitive data, minimizing the risk of cyber threats and data breaches.
Lower Bandwidth Usage:
Since data is processed at the edge, only relevant and summarized information is transmitted to the cloud, reducing overall bandwidth requirements.
Reduced Cost:
Cloud computation is relatively expensive. With Edge Analysis,, you can reduce the cost of operations by reducing the cost of cloud charges.
Key Use Cases
Data Cleaning:
Raw data is segregated and cleaned thoroughly. Data garbage, such as interesting and outliers, is removed.
Data Aggregation:
Data is aggregated & summarised at the granule level. Aggregation such as sum, multiplication, scaling, and statistical computations are performed. A custom aggregate code can also be interesting.
Relation-based Computation:
Many of the formulas that depend on multiple data points can also be integrated.
Predictive Maintenance:
A built-in formula can predict equipment failures before they occur, allowing for timely maintenance and reducing downtime.
Real-time Quality Control:
Continuous monitoring of production quality in real-time ensures that defects are detected and addressed immediately.
Energy Management:
Optimize energy usage across operations, reducing costs and improving sustainability.
Anomaly Detection:
Detects abnormal patterns in data that may indicate potential issues, enabling proactive measures.
How Built-in Algorithms Work
- Data Collection: The IIoT Gateway collects data from various sensors and devices within the industrial environment.
- Data Preprocessing: The collected data is cleaned and organized for analysis, ensuring accuracy and consistency.
- Algorithm Execution: Machine learning and statistics formulas are executed on the edge device to analyze the data and generate insights.
- Actionable Outputs: The analysis results are used to generate actionable insights and automated actions, such as triggering maintenance alerts or adjusting operational parameters.
Examples of Integrated Formula
Category 1: Predictive Maintenance
Failure Prediction: Identifies patterns that indicate an impending failure.
Remaining Useful Life Estimation: Estimates the remaining operational life of equipment.
Condition-Based Monitoring: Continuously monitors equipment condition and performance.
Category 2: Quality Control
Defect Detection: Identifies defects in products during the manufacturing process.
Process Optimization: Optimizes manufacturing processes for improved efficiency and quality.
Statistical Process Control (SPC): Monitors process stability and variability using statistical methods.
Category 3: Operational Efficiency
Energy Usage Optimization: Analyzes and optimizes energy consumption.
Anomaly Detection: Detects unusual patterns that may indicate potential issues.
Asset Utilization Tracking: Monitors and optimizes the utilization of assets.
Throughput Analysis: Analyze the production throughput to identify bottlenecks.
Downtime Analysis: Identifies and analyzes the causes of equipment downtime.
Adding Counters: Tracks specific events or conditions over time.
Timers: Measures the duration of specific events or operations.
Multi-tag Validation: Validates the conditions of multiple data points simultaneously.
Multi-tag Mathematical Calculations: Performs complex calculations using multiple data points.
Comparison: Edge vs. Cloud Processing
Aspect | Edge Processing | Cloud Processing |
Latency | Lower latency due to local data processing | Higher latency due to data transmission to the cloud |
Bandwidth | Reduced bandwidth usage | Higher bandwidth usage |
Security | Enhanced security by keeping data local | Increased exposure due to data transmission |
Scalability | Limited by the edge device’s capabilities | High scalability for large-scale data storage |
Case Study: Smart Supervisor IIoT Edge Gateway
Scenario: A leading manufacturing plant needed a solution to monitor and optimize their machine assets remotely. Traditional methods were inefficient and led to significant downtimes.
Solution: By integrating the Smart Supervisor IIoT Edge Gateway for edge analysis, the plant achieved real-time data collection and remote diagnostics. This enabled them to:
- Monitor machine health continuously.
- Receive instant alerts for any anomalies.
- Optimize machine performance remotely.
Outcome: The plant saw a 30% reduction in maintenance costs and a 25% increase in operational efficiency.
Conclusion
Built-in accurate formulas for edge analysis and onboard data processing in IIoT Edge Gateways are transforming industrial operations. By providing real-time insights, reducing latency, and enhancing security, these capabilities are essential for modern industrial automation. Embrace the future of industrial automation with IIoT Edge Gateways equipped with advanced.