Odne Stokke Burheim, PhD, is a Professor at NTNU – the Norwegian University of Science and Technology, Trondheim, Norway, where he is a lecturer on courses for energy storage, fluid mechanics, renewable energy and thermodynamics for engineers. He has published over 120 peer reviewed research papers and book chapters within the fields of fuel cells, electrolysis, Li-ion batteries, super capacitors, thermal regeneration, concentration cells, flow batteries, and thermal management since 2010.

• 1. Energy Storage; History and general concepts2. General Thermodynamics; Underlying thermodynamics needed for energy engineering thermal and mechanical energy storage3. Mechanical Energy Storage; Fly wheels and pumped hydroelectric energy storage4. Storing thermal energy; Storing thermal heat. Storing media in the context of district heating and solar collector storage5. Thermomechanical Energy Storage; Storing energy when both heat and mechanical energy is involved6. Electrochemical Energy Storage; Basics of engineering electrochemistry reaction kinetics and transport phenomena7. Secondary Batteries; With an in depth focus on the Li-ion battery family the chapter discusses energy and power engineering of all types of batteries and critically reviews limitations of battery systems8. Hydrogen for energy storage; An overview of fundamentals of hydrogen production, storage and reuse in the context of energy storage – towards a renewable energy market9. Capacitors; Fundamentals of supercapacitors for energy storage, but also with an in-depth view of utilizing capacitors for renewable energy production by mixing sea and river water

Odne Stokke Burheim, PhD, is a Professor at NTNU – the Norwegian University of Science and Technology, Trondheim, Norway, where he is a lecturer on courses for energy storage, fluid mechanics, renewable energy and thermodynamics for engineers. He has published over 120 peer reviewed research papers and book chapters within the fields of fuel cells, electrolysis, Li-ion batteries, super capacitors, thermal regeneration, concentration cells, flow batteries, and thermal management since 2010.

• 1. Energy Storage; History and general concepts2. General Thermodynamics; Underlying thermodynamics needed for energy engineering thermal and mechanical energy storage3. Mechanical Energy Storage; Fly wheels and pumped hydroelectric energy storage4. Storing thermal energy; Storing thermal heat. Storing media in the context of district heating and solar collector storage5. Thermomechanical Energy Storage; Storing energy when both heat and mechanical energy is involved6. Electrochemical Energy Storage; Basics of engineering electrochemistry reaction kinetics and transport phenomena7. Secondary Batteries; With an in depth focus on the Li-ion battery family the chapter discusses energy and power engineering of all types of batteries and critically reviews limitations of battery systems8. Hydrogen for energy storage; An overview of fundamentals of hydrogen production, storage and reuse in the context of energy storage – towards a renewable energy market9. Capacitors; Fundamentals of supercapacitors for energy storage, but also with an in-depth view of utilizing capacitors for renewable energy production by mixing sea and river water

Odne Stokke Burheim, PhD, is a Professor at NTNU – the Norwegian University of Science and Technology, Trondheim, Norway, where he is a lecturer on courses for energy storage, fluid mechanics, renewable energy and thermodynamics for engineers. He has published over 120 peer reviewed research papers and book chapters within the fields of fuel cells, electrolysis, Li-ion batteries, super capacitors, thermal regeneration, concentration cells, flow batteries, and thermal management since 2010.

• 1. Energy Storage; History and general concepts2. General Thermodynamics; Underlying thermodynamics needed for energy engineering thermal and mechanical energy storage3. Mechanical Energy Storage; Fly wheels and pumped hydroelectric energy storage4. Storing thermal energy; Storing thermal heat. Storing media in the context of district heating and solar collector storage5. Thermomechanical Energy Storage; Storing energy when both heat and mechanical energy is involved6. Electrochemical Energy Storage; Basics of engineering electrochemistry reaction kinetics and transport phenomena7. Secondary Batteries; With an in depth focus on the Li-ion battery family the chapter discusses energy and power engineering of all types of batteries and critically reviews limitations of battery systems8. Hydrogen for energy storage; An overview of fundamentals of hydrogen production, storage and reuse in the context of energy storage – towards a renewable energy market9. Capacitors; Fundamentals of supercapacitors for energy storage, but also with an in-depth view of utilizing capacitors for renewable energy production by mixing sea and river water