Industrial Training on IIoT 4.0 and Machine Learning

Original price was: ₹25,000.00.Current price is: ₹23,999.00.

Industrial Training on IIoT 4.0 and Machine Learning

Original price was: ₹25,000.00.Current price is: ₹23,999.00.

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Module 1: Introduction to Industry 4.0 & IIoT

Objectives:

  • Understand Industry 4.0 concepts, smart factories, and cyber-physical systems.
  • Identify IIoT use cases in manufacturing, utilities, logistics, etc.

Key Topics:

  • Evolution from Industry 1.0 to 4.0
  • Components: CPS, Cloud, Edge, Big Data, AI
  • What is IIoT? Difference between IoT and IIoT
  • Industrial use cases: predictive maintenance, OEE monitoring, energy optimization, asset tracking

Moodle items:

  • Resource: PDF/Presentation – “Industry 4.0 & IIoT Fundamentals”
  • URL: 1–2 short videos (YouTube)
  • Activity: Quiz 1 (MCQs on concepts)
  • Forum: “Share an IIoT use case from your industry”

Module 2: IIoT Architecture, Protocols & Platforms

Objectives:

  • Explain IIoT reference architectures.
  • Understand industrial communication protocols.

Key Topics:

  • IIoT reference architecture (sensor → edge → gateway → cloud → dashboard)
  • Industrial connectivity & protocols:
    • MQTT, HTTP/REST, CoAP
    • OPC UA, Modbus basics
  • Edge vs Cloud vs On-prem deployment
  • Overview of common IIoT platforms (open-source & cloud)

Moodle items:

  • Page/Book: “IIoT Architecture & Protocols Overview”
  • Assignment: Draw your organization’s current architecture and propose an IIoT-enabled version (upload PDF/image).
  • Quiz 2: Protocols & architecture.

Module 3: Sensors, Edge Devices & Data Acquisition

Objectives:

  • Understand field devices, sensors, and edge hardware.
  • Learn how data is collected and streamed.

Key Topics:

  • Types of industrial sensors: temperature, vibration, pressure, flow, current, proximity, etc.
  • Microcontrollers & edge devices (generic explanation: PLCs, Raspberry Pi, ESP32, industrial gateways)
  • Data acquisition basics: sampling rate, resolution, signal conditioning
  • Streaming data to broker/cloud (MQTT publisher–subscriber pattern)
  • Data logging: CSV, time-series DB, dashboards

Moodle items:

  • Resource: PDF with sample wiring diagrams or conceptual diagrams
  • URL/Lab sheet: Simple “MQTT publisher/subscriber” demo (even if simulated)
  • Assignment: Short report – “Identify 5 important sensors for your plant/use case and justify why”.

Module 4: Data Engineering for IIoT Analytics

Objectives:

  • Prepare raw IIoT data for ML.
  • Understand handling of time-series and event data.

Key Topics:

  • Data types in IIoT: time-series, events, alarms, logs
  • Data cleaning: missing data, noise, outliers
  • Feature extraction/engineering from sensor data:
    • Statistical features: mean, RMS, peak, variance, rolling window stats
    • Time-lag features, moving averages, aggregation
  • Basic data pipelines: ingest → clean → transform → store
  • Tools overview: Python (pandas), Jupyter, basic CSV operations

Moodle items:

  • Resource: Jupyter notebook/PDF: “Basic preprocessing of IIoT sensor data”
  • Assignment: Mini-task – Upload a CSV (provided) after cleaning & adding 2–3 features.
  • Quiz 3: Data preprocessing & time-series basics.

Module 5: Machine Learning for IIoT Applications

Objectives:

  • Train basic ML models for industrial use cases.
  • Interpret model outputs for decision-making.

Key Topics:

  • Quick recap: supervised vs unsupervised learning
  • Common ML tasks in IIoT:
    • Predictive maintenance (remaining useful life, breakdown prediction)
    • Anomaly detection (faults, leakage, abnormal vibration)
    • Quality prediction (pass/fail, defect classification)
  • Algorithms (conceptual, not super heavy maths):
    • Regression: Linear/Random Forest Regressor
    • Classification: Logistic Regression, Random Forest, XGBoost (intro)
    • Clustering: k-Means for anomaly detection
  • Model evaluation metrics: accuracy, precision, recall, F1, ROC-AUC, confusion matrix
  • Interpreting results in an industrial context (reducing downtime, cost savings).

Moodle items:

  • Resource: Notebook or PDF – sample ML pipeline on sensor dataset
  • Quiz 4: ML concepts & metrics
  • Assignment: Build a simple ML model (or concept report) using provided dataset (predict normal/faulty condition).

Module 6: Edge AI & Real-time Deployment Concepts

Objectives:

  • Understand deployment challenges in real-time industrial environments.
  • Introduce Edge AI and lightweight models.

Key Topics:

  • Why Edge AI? Latency, bandwidth, privacy, reliability
  • Deploying models on edge devices (concept level, not deep coding):
    • Model compression basics (quantization, pruning – high level)
    • Real-time inference pipeline
  • Integration with dashboards and alert systems
  • Cybersecurity basics in IIoT & ML systems

Moodle items:

  • Page: “From Prototype to Production: Deploying ML in IIoT Environments”
  • Forum: Discussion – “Cloud vs Edge: What is realistic for your industry?”
  • Short assignment: Design a conceptual architecture diagram showing where the ML model will run.

Module 7: Capstone Project & Assessment

Objectives:

  • Apply the entire pipeline from IIoT concept to ML model & deployment plan.
  • Present a practical, industry-oriented solution.

Capstone Task (example):
Learners must choose one industrial problem, e.g.:

  • Predictive maintenance of a motor/pump
  • Energy consumption optimization in a small plant
  • Temperature/humidity monitoring with anomaly alerts
  • Production line defect detection concept

Deliverables (for Moodle submission):

  1. Architecture Diagram – Sensors → Edge → Gateway → Cloud → Analytics.
  2. Data & ML Plan – What data, features, and ML algorithm will be used?
  3. Demo/Prototype (optional if time) – Notebook, screenshots, or simulation.
  4. Business Impact Note – 1–2 pages on cost saving, reliability, safety, or efficiency improvement.

Moodle items:

  • Assignment (Project Report + Files Upload)
  • Activity: Online Presentation (via BigBlueButton/Zoom link) or offline evaluation
  • Feedback form (Questionnaire) for course evaluation.