Swami Keshvanand Institute of Technology, Management & Gramothan
Supervisor
Dr. Prem singh
Professo
r
Presented by
Vikram
22ESKME046
7th Sem Mech
Hybrid Power Generation
•Combination of renewable and
non- renewable sources
• Ensures continuous power supply
• Improves efficiency
•Reduces dependency on single
energy source
• Supports sustainable development
Overview of Topics
• Introduction
• Context of Hybrid Systems
• Energy Efficiency
• Environmental Impact
• Challenges and Future Trends
Introduction
•Hybrid systems combine two or
more energy sources
•Common combinations: solar-wind, solar-
diesel
•Used in rural and remote
power applications
• Reduces greenhouse
emissions
• Provides reliable power
Context
Solar Wind Diesel
• Need for clean and reliable power
• Growing energy demand worldwide
• Fluctuations in renewable energy sources
• Integration with smart grids
• Policy support for hybrid projects
50
40
30
20
10
Working Principle
• Energy from multiple sources combined
•Power management via
intelligent controllers
• Storage through batteries
• Grid and off-grid compatibility
• Improves supply reliability
Energy Efficiency
• Higher energy utilization rate
• Reduced fuel consumption
• Efficient load sharing
• Optimized renewable use
• Less transmission loss
Environmental Impact
Hybrid Non-Hybrid
• Reduced C
O
₂ emissions
• Lower noise pollution
• Conservation of fossil fuels
• Eco-friendly installations
• Supports green energy goals
100
90
80
70
60
50
Limitations and Challenges
• High installation cost
• Complex control systems
• Maintenance of multiple units
• Intermittency of renewables
• Infrastructure and policy barriers
Future Opportunities
• Integration with AI and IoT
• Use of hydrogen storage
• Expansion in smart cities
• Decentralized hybrid microgrids
• Government incentives and subsidies
Research Trends
AI Integration IoT Use Storage In
• Improved hybrid algorithms
• Advancements in storage technology
• Smart hybrid inverters
• Real-time data monitoring
• Economic feasibility studies
80
75
70
65
60
55
Conclusion
• Hybrid systems ensure energy reliability
• Sustainability and cost efficiency
• Key solution for remote areas
• Encourages renewable adoption
• Future of energy lies in hybridization
References
• IEEE Papers on Hybrid Energy Systems
• Renewable Energy Journal 2024
• World Energy Outlook 2023
• ScienceDirect – Hybrid Systems Review
• ResearchGate – Hybrid Microgrids Study
Thank You

Hybrid_Power_Generation_With_Thanks.pptx

  • 1.
    Swami Keshvanand Instituteof Technology, Management & Gramothan Supervisor Dr. Prem singh Professo r Presented by Vikram 22ESKME046 7th Sem Mech
  • 2.
    Hybrid Power Generation •Combinationof renewable and non- renewable sources • Ensures continuous power supply • Improves efficiency •Reduces dependency on single energy source • Supports sustainable development
  • 3.
    Overview of Topics •Introduction • Context of Hybrid Systems • Energy Efficiency • Environmental Impact • Challenges and Future Trends
  • 4.
    Introduction •Hybrid systems combinetwo or more energy sources •Common combinations: solar-wind, solar- diesel •Used in rural and remote power applications • Reduces greenhouse emissions • Provides reliable power
  • 5.
    Context Solar Wind Diesel •Need for clean and reliable power • Growing energy demand worldwide • Fluctuations in renewable energy sources • Integration with smart grids • Policy support for hybrid projects 50 40 30 20 10
  • 6.
    Working Principle • Energyfrom multiple sources combined •Power management via intelligent controllers • Storage through batteries • Grid and off-grid compatibility • Improves supply reliability
  • 7.
    Energy Efficiency • Higherenergy utilization rate • Reduced fuel consumption • Efficient load sharing • Optimized renewable use • Less transmission loss
  • 8.
    Environmental Impact Hybrid Non-Hybrid •Reduced C O ₂ emissions • Lower noise pollution • Conservation of fossil fuels • Eco-friendly installations • Supports green energy goals 100 90 80 70 60 50
  • 9.
    Limitations and Challenges •High installation cost • Complex control systems • Maintenance of multiple units • Intermittency of renewables • Infrastructure and policy barriers
  • 10.
    Future Opportunities • Integrationwith AI and IoT • Use of hydrogen storage • Expansion in smart cities • Decentralized hybrid microgrids • Government incentives and subsidies
  • 11.
    Research Trends AI IntegrationIoT Use Storage In • Improved hybrid algorithms • Advancements in storage technology • Smart hybrid inverters • Real-time data monitoring • Economic feasibility studies 80 75 70 65 60 55
  • 12.
    Conclusion • Hybrid systemsensure energy reliability • Sustainability and cost efficiency • Key solution for remote areas • Encourages renewable adoption • Future of energy lies in hybridization
  • 13.
    References • IEEE Paperson Hybrid Energy Systems • Renewable Energy Journal 2024 • World Energy Outlook 2023 • ScienceDirect – Hybrid Systems Review • ResearchGate – Hybrid Microgrids Study
  • 14.