Still no participant
Still no reviews
Nanotechnology in energy research, Fossil fuels, Nanotechnology in fuel production, Renewable energy sources; Advantages of renewable energy sources.
Thermoelectric materials (bulk), Thermoelectric materials (in nanoscale), Thermoelectric nanocomposites, Applications of thermoelectric nano materials
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.
Fuel Cells: Low temperature fuel cells; High temperature fuel cells; Catalysts for fuel cells and electrolytes; Solid oxide fuel cells; Applications
Semiconductor based Hydrogen production; Selection of nanomaterials for energy harvesting and storage applications; Other significant materials for Hydrogen storage; Thermal energy storage systems
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.
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.
Nanotechnology in energy research :
Nanotechnology in energy : A new frontier
Nanotechnology for energy research
Reducing energy consumption by nanotechnology
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)
Thermoelectrics and nanotechnology
Carbon based nanomaterials in supercapacitors :
Amazing 3D-Printed graphene supercapacitor electrode
Necessary parameters for super capacitors :
Practice 1 (2 hours) : Energy band gap calculation of a material using UV –Vis spectroscopy.
Low temperature fuel cells :
High temperature fuel cells :
Reforming and high temperature fuel cells
Catalysts for fuel cells and electrolytes :
|Semiconductor based Hydrogen Production :
Energy storage in hydrogen : Does this beat batteries?
|Selection of nanomaterials for energy harvesting and storage applications :
Nanomaterials for Hydrogen storage-PDF
|Significant materials for Hydrogen Storage Applications :
New Materials for Hydrogen Storage
Hydrogen storage through hydrides
|Thermal energy storage systems :
Highly efficient thermal energy storage system
How thermal energy storage works?
Thermal energy storage: Sensible heat
|Nanomaterials in Li Ion Battery :
Graphene in Lithium ion battery
|Sodium Ion Batteries :
Sodium batteries that can replace lithium-ion developed
Sodium ion battery manufacturing
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.
Practice 5 (2 hours) : Determination of HOMO-LUMO of an energy storage material using BIOVIA Material Studio.
Practice 6 (2 hours) : Effect of doping and its microstructural analysis towards exploring the energy storage property of material.