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Module 1:
Nanotechnology in energy research, Fossil fuels, Nanotechnology in fuel production, Renewable energy sources; Advantages of renewable energy sources.
Module 2:
Thermoelectric materials (bulk), Thermoelectric materials (in nanoscale), Thermoelectric nanocomposites, Applications of thermoelectric nano materials
Module 3:
Supercapacitors, Types of supercapacitors, Design of supercapacitors, Carbon based materials for supercapacitors, Necessary parameters for supercapacitors, Applications.
Practice 1: Energy band gap calculation of a material using UV –Vis spectroscopy.
Module 4:
Fuel Cells: Low temperature fuel cells; High temperature fuel cells; Catalysts for fuel cells and electrolytes; Solid oxide fuel cells; Applications
Module 5:
Semiconductor based Hydrogen production; Selection of nanomaterials for energy harvesting and storage applications; Other significant materials for Hydrogen storage; Thermal energy storage systems
Module 6:
Batteries : Lithium ion battery; Nanomaterials in Li ion battery; Nanomaterials in K ion battery
Practice 2: Energy storage density and efficiency calculation from PE loop.
Practice 3: XRD Analysis of a material having supercapacitor performance.
Module 7:
Aluminium ion battery; Graphene battery; Sodium ion battery
Practice 4: Prediction of the thermodynamic properties of a material using BIOVIA Material Studio.
Practice 5:Determination of HOMO-LUMO of an energy storage material using BIOVIA Material Studio.
Practice 6: Effect of doping and its microstructural analysis towards exploring the energy storage property of material.
Reference Books:
Nanotechnology in energy research :
Nanotechnology in energy : A new frontier
Nanotechnology for energy research
Nanotechnology in fuel production :
Nano science and nanotechnology used in fuel cells for transportation
Renewable energy Sources; Advantages of renewable energy sources :
Thermoelectric Materials (Nano)
Thermoelectric materials (Nanomaterials)
Carbon based nanomaterials in supercapacitors :
Necessary parameters for super capacitors :
Practice 1 (2 hours) : Energy band gap calculation of a material using UV –Vis spectroscopy.
Selection of nanomaterials for energy harvesting and storage applications : |
Significant materials for Hydrogen Storage Applications : |
New Materials for Hydrogen Storage
Thermal energy storage systems : |
Highly efficient thermal energy storage system
How thermal energy storage works?
Sodium Ion Batteries : |
Sodium batteries that can replace lithium-ion developed
Practice 3 (2 hours) : XRD Analysis of a material having supercapacitor performance.
Practice 4 (2 hours) : Prediction of the thermodynamic properties of a material using BIOVIA Material Studio.
- VLab
Practice 5 (2 hours) : Determination of HOMO-LUMO of an energy storage material using BIOVIA Material Studio.
- VLab
Practice 6 (2 hours) : Effect of doping and its microstructural analysis towards exploring the energy storage property of material.
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