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AI for Clean Energy, Utilities & Smart Grid Systems Course

INR ₹2,499.00 INR ₹24,999.00Price range: INR ₹2,499.00 through INR ₹24,999.00

Discover how artificial Intelligence is changing the face of renewable energy, electricity distributors, their suppliers and intelligent smart grid systems. In a three-week course, learn about how AI can be applied in energy forecasting, optimization of smart grids, predictive maintenance of energy systems, and integration of renewables, while providing you with tangible and practical realworld knowledge needed for todays energy system.

Feature
Details
Format
Online (e-LMS)
Level
Intermediate
Domain
AI in Energy Systems & Smart Grids
Core Focus
Renewable forecasting, grid optimization, predictive maintenance
Data Types
Time-series energy data, load curves, weather datasets
Methods Covered
ML forecasting models, anomaly detection, optimization algorithms
Hands-On Component
Yes – Energy forecasting & grid analytics project
Final Deliverable
AI-driven energy system solution blueprint
Target Audience
Energy engineers, data scientists, grid professionals

About the Course
The global energy transition has introduced complexity into power systems. High penetration of renewables creates variability. Distributed energy resources require coordination. Grid operators must balance supply and demand in near real time.
Artificial intelligence is increasingly used to forecast solar and wind generation, predict energy demand patterns, detect anomalies in grid infrastructure, optimize energy distribution, and improve asset reliability through predictive maintenance.
“At first glance, renewable forecasting seems like a straightforward regression task. It is not. Weather uncertainty, non-linear load behavior, and spatial grid constraints complicate modeling decisions.”
This course examines:
  • How AI models are trained on energy time-series data
  • How forecasting errors affect grid stability
  • How optimization algorithms support smart grid control
  • How predictive maintenance improves asset reliability
  • How energy system behavior should be interpreted alongside machine learning outputs
Participants learn to interpret energy system behavior alongside machine learning outputs.

Why This Topic Matters
Energy systems are undergoing structural transformation driven by:

  • Renewable energy integration
  • Decentralized generation
  • Electric vehicle charging networks
  • Battery storage systems
  • Carbon reduction policies
Utilities must now manage dynamic, data-intensive networks.
AI in clean energy supports improved renewable integration, reduced curtailment losses, smarter energy storage dispatch, grid resilience during peak loads, and efficient maintenance scheduling.
More precisely, intelligent forecasting and optimization reduce operational risk and infrastructure strain. Professionals who understand both power systems engineering and AI modeling are increasingly critical in utility modernization efforts.

What Participants Will Learn
• Explain the architecture of modern smart grids
• Apply machine learning to renewable energy forecasting
• Build demand prediction models using historical load data
• Analyze time-series energy datasets
• Develop predictive maintenance models for grid assets
• Understand energy storage optimization strategies
• Evaluate grid stability metrics under AI-driven control
• Design AI solutions tailored to utility operations

Course Structure / Table of Contents
Module 1 — Foundations of AI in Energy Systems
  • Overview of smart grids and distributed energy systems
  • AI applications in renewable integration
  • Data sources in utility environments
  • Comparison of traditional vs AI-enhanced grid management
Module 2 — Renewable Energy Forecasting
  • Solar power prediction using weather data
  • Wind generation modeling
  • Time-series forecasting methods
  • Forecast evaluation metrics
Module 3 — Energy Demand Forecasting
  • Load curve analysis
  • Short-term vs long-term demand prediction
  • Seasonal and behavioral factors
  • Machine learning approaches for demand modeling
Module 4 — Grid Stability and Optimization
  • Voltage and frequency stability basics
  • AI-based optimization for load balancing
  • Dispatch strategies for distributed energy resources
  • Real-time analytics in grid control
Module 5 — Predictive Maintenance in Utilities
  • Anomaly detection in transformer and line data
  • Equipment failure prediction models
  • Condition-based maintenance strategies
  • Cost and reliability trade-offs
Module 6 — Energy Storage and Smart Dispatch
  • Battery management optimization
  • AI for storage scheduling
  • Integration of storage with renewables
  • Peak shaving and demand response
Module 7 — Data Integration and Smart Infrastructure
  • IoT sensors in smart grids
  • Real-time monitoring platforms
  • Edge analytics in energy systems
  • Interoperability challenges
Module 8 — Case Studies in Utility AI Deployment
  • AI adoption in renewable farms
  • Smart meter analytics
  • Grid modernization initiatives
  • Lessons from real utility implementations
Module 9 — Final Applied Project
  • Define an energy system challenge
  • Select forecasting or optimization strategy
  • Design AI architecture
  • Present implementation roadmap and risk analysis

Tools, Techniques, or Platforms Covered
Python for energy data analysis
Time-series forecasting models
ARIMA and LSTM concepts
Regression and ensemble models
Anomaly detection techniques
Optimization algorithms
Energy visualization dashboards
Smart grid simulation concepts

Real-World Applications
Knowledge from this course applies directly to solar and wind farm performance analytics, smart meter data analysis, demand-side management programs, utility predictive maintenance systems, battery storage optimization, electric vehicle charging network planning, microgrid control systems, and energy trading or pricing analytics.
In operational contexts, AI improves reliability and reduces operational costs.
In policy contexts, it supports sustainable grid transformation.
In research environments, it advances intelligent infrastructure modeling.

Who Should Attend
This course is designed for:

  • Energy and utility engineers
  • Grid operations professionals
  • Electrical engineering students
  • Data scientists entering energy analytics
  • Sustainability and renewable energy professionals
  • Researchers in smart grid systems

It assumes technical curiosity and analytical thinking.

Prerequisites: Recommended basic understanding of power systems or electrical engineering, introductory statistics knowledge, and familiarity with time-series data. Basic Python or data analysis experience and exposure to machine learning fundamentals are helpful but not mandatory. No prior deep AI specialization is required.

Why This Course Stands Out
Many AI courses treat energy as a minor use case. Many power engineering programs treat AI superficially.
This course integrates:

  • Grid engineering fundamentals
  • Renewable forecasting methodologies
  • Time-series modeling in energy systems
  • Optimization under infrastructure constraints
  • Utility-specific operational realities
The final project requires participants to design an implementable AI solution grounded in energy system context, not abstract modeling exercises. That systems-level framing reflects how AI is deployed in real utility environments.

Frequently Asked Questions
What is AI in clean energy?
It refers to applying machine learning and predictive analytics to renewable energy forecasting, grid optimization, demand prediction, and maintenance planning.
Is this course suitable for electrical engineers?
Yes. It connects AI methods directly with smart grid and power system concepts.
Does the course cover renewable forecasting?
Yes. Solar and wind forecasting are central components of the curriculum.
Will I work with time-series energy data?
Yes. Load curves and generation data are key data types covered.
Is predictive maintenance included?
Yes. The course includes anomaly detection and equipment failure prediction models for utility assets.
Is this relevant for smart grid development?
Yes. The course focuses on AI-driven grid management, distributed energy integration, and storage optimization.
Can data scientists without energy background enroll?
Yes, though basic understanding of power systems will help in interpreting results.
Category

E-LMS, E-LMS+Video, E-LMS+Video+Live Lectures

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What You’ll Gain

  • Full access to e-LMS
  • Publication opportunity
  • Self-assessment & final exam
  • e-Certificate

All Live Workshops

Feedbacks

Thank you for such an informative talk.


Dr. Naznin Pathan : 12/26/2024 at 9:38 am

Contents were excellent


Surya Narain Lal : 03/11/2025 at 6:09 pm

AI for Psychological and Behavioral Analysis

Good


Dr srilatha Ande srilatha.ammu12@gmail.com : 11/21/2025 at 11:10 am

We would like to have a copy of the presentations/lectures slides.


Khaled Alotaibi : 04/09/2025 at 2:35 am

In Silico Molecular Modeling and Docking in Drug Development

thanks a ton sir for a wonderful webinar with your great delivering speech and lectures.


Akshada Mevada : 02/13/2024 at 8:29 am

AI and Ethics: Governance and Regulation

Good but less innovative


Saraswathi Sivamani : 01/06/2025 at 11:23 am

This was a good workshop some of the recommended apps are not compatible with MAC based computers. More would recommend to update the recommendations.
Shahid Karim : 10/09/2024 at 3:14 pm

Biological Sequence Analysis using R Programming

very nice


Manjunatha T P : 06/05/2024 at 9:46 am