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22nd International Conference on Advanced Energy Materials and Research, will be organized around the theme “Novel Innovation in Energy Materials to encounter Global Challenges”

ADVANCED ENERGY MATERIALS 2020 is comprised of keynote and speakers sessions on latest cutting edge research designed to offer comprehensive global discussions that address current issues in ADVANCED ENERGY MATERIALS 2020

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The increasing energy demand due to growing global population and the critical relationship between Energy, environment and sustainability lead to novel discoveries and advancement in the field of Energy Materials in search of alternative resources. The prime requirement to transform feedstock into suitable energy sources is the catalyst for better solar cells and energy storage materials. Energy Materials is making ground breaking developments in the science of materials innovation and production. At present, novel materials are technologically advanced for energy storage and generation. The transformation of Conventional fossil fuel to renewable and sustainable energy sources due to the geophysical and social stress results in the development of Advanced Energy Materials to support emerging technologies. The emerging materials for energy associated application are photovoltaicfuel cells, nanostructured materials, light sources etc. The international EaaS (Energy as a service market) value is likely to be USD 1,116.5 million in 2018 and is estimated to reach USD 7,336.1 million by 2023 at a growing (CAGR) rate of 45.72% from 2018 to 2023. The foremost drivers are growing energy consumption, price instability and emerging potential of renewable energy resources.


  • Track 1-1Nonrenewable energy sources
  • Track 1-2Renewable energy sources
  • Track 1-3Advanced electronic materials
  • Track 1-4Advanced engineering materials
  • Track 1-5Energy technology
  • Track 1-6Energy conversions and sustainability
  • Track 1-7Nanoporous material

Nanomaterial or nanostructured materials are characterised into nanocomposite, nanofoam, nanoporous material and nanocrystalline materials depending on the phases of matter. The inorganic nanomaterials such as nanowires, nanorods, quantum dots are used in optoelectronics because of their optical and electrical properties that depend on their size and shape. These nanomaterials are potentially used in organic materials based optoelectronic devices which find its application in Organic solar cells, OLEDs etc. The functioning of these devices is ruled by photo induced processes such as electron transfer and energy transfer. Hence it is necessary to have enhanced understanding of photoinduced processes in organic/inorganic nanomaterial composite for their application in optoelectronic devices. Nanoparticles is also been used as chemical catalyst which are very good adsorbents. Nanofabrication is a significant subfield of nanotechnology associated with energy. The method of producing and designing devices at nanoscale is called as Nanofabrication. The nanofabricated devices help in capturing, storing and transfer of energy in a better way to meet the existing energy technologies, thus utilized in the development of consumer products. The benefits include increased heating and lightning efficiency, improved electrical storage capacity and reduction in pollution which enables the capital investment in the nanotechnology research.

  • Track 2-1Semiconductors
  • Track 2-2Nanocrystals
  • Track 2-3Nanocomposite
  • Track 2-4Nanofoam
  • Track 2-5Nanocrystalline materials

Hydrogen which is simple, abundant, zero-emission fuel in the earth is used as an energy carrier for broad range of application. Under normal temperature and pressure hydrogen is colorless, nontoxic, non-metallic and combustible gas and could be used as a substitute to fossil and liquid fuels. Hydrogen energy have been potentially used in cars, houses, mobile power, to launch satellite vehicles, industries, in telecom tower for power back up, to produce electricity, internal combustion engines and many more applications. Hydrogen is produced from numerous resources such as natural gas, coal (carbon sequestration), nuclear energy, and biomass, solar, hydro-electric power and geothermal by varied processes. Hydrogen originates from several organic compounds, particularly hydrocarbons which are used to make other fuel such as natural gas, gasoline, methanol and propane. Hydrogen is being separated from hydrocarbons by the process of reforming, electrolysisWater splitting, one of the electrochemical processes is the more significant research area. Pure form of hydrogen has its capability to operate fuel cell in zero- emission electric vehicles. The future of hydrogen is to join electricity as a significant energy carrier and can be transported to necessary location.

  • Track 3-1Hydrogen fuel
  • Track 3-2Fuel cells
  • Track 3-3Electrolysis
  • Track 3-4Hydrogen production and hydrogen embrittlement
  • Track 3-5Hybrid automobiles
  • Track 3-6Geothermal and hydroelectric power

The emerging potential power generation since last decade is solar technology. The propagation of research on materials science and technology associated to photothermal, photoelectrochemical, photovoltaic, solar energy conversion is projected to be by Solar Energy Materials and Solar cells. Solar absorber devices, radiative cooling system, heat storage materials are some of the photothermal devices. Photochemical and photoelectrochemical devices include photocatalysis, photoelectrodes, solar desalination system, photoconversion and their applications. Light trapping, solar concentrators, imaging and non-imaging optical collectors, texturing are the optical properties of materials.

  • Track 4-1Solar thermo electronics
  • Track 4-2Solar fuels
  • Track 4-3Solar thermal power
  • Track 4-4Organic solar cells & inorganic solar cells
  • Track 4-5Solar energy devices
  • Track 4-6Smart windows

Polymeric materials are vital for the future electronic devices and flexible electronic applications. The research based on the electronic, structural and chemical properties of polymeric materials are widely used in the applications of microelectronics and low cost solar materials. Their applications include lithium-ion polymer battery (LiPo), electro active polymers, polymeric surface, Crystallization of polymers, cationic & plasma polymerization, polymer brush etc... In recent times, self-healing materials industrialized for energy harvesting and storage are all polymer‐based materials. Those self-healing Energy Harvesting Devices include nanogenerators, Photovoltaics, solar cells, supercapacitors and lithium batteries. Recently lightweight composite material is discovered for energy storage in flexible electronics, electric vehicles and aerospace applications.

  • Track 5-1Polymer materials
  • Track 5-2Polymer capacitors
  • Track 5-3Polymer hybrid materials
  • Track 5-4Polymer catalysts
  • Track 5-5Conductive polymers

Crystalline porous materials is the trending research area in the field of proton conducting materials that includes Coordination polymers (CPs), polyoxometalates (POMs), covalent organic frameworks (COFs) and metal–organic frameworks (MOFs). Among those are two major evolving and developing families of crystalline porous materials, Covalent-organic frameworks (COFs) and Metal–organic frameworks (MOFs). These materials are categorized by their extreme porosity, wonderful structural density and flexible functional tenability at molecular level which find its application in batteries, supercapacitors and electrochemical energy storage devices. The crystalinity of materials offers stability for the electrochemical treatment and porosity (high surface area) helps in diffusion of electrolytes and mobility of ions.

  • Track 6-1Proton conducting materials
  • Track 6-2Metal-organic frameworks
  • Track 6-3Covalent-organic frameworks
  • Track 6-4Electrochemical energy storage devices
  • Track 6-5Energy device applications
  • Track 6-6Lithium and Li-sulfur batteries

The materials for catalysis and energy with electrochemical properties are appropriately used in energy storage applications such as batteries and electro catalysts. Metal nanoparticles are also widely explored heterogeneous catalysis. The size of these metal nanostructures manipulates the activity of catalysis. The novel energy research approaches to overcome the usage of fossil fuels is to develop chemical energy storage of renewable energy. Materials with emerging energy technologies such as super capacitors, renewable energy sources, thermoelectric devices, photovoltaic cells, piezoelectric, ferroelectric materials will be sustainable to withstand the global energy demand. The Single- atom catalyst (SACs) which has single metal atom attached on support has low particle size with increased free energy. The suitable interaction with other isolated atoms creates stable active sites with high selectivity.

  • Track 7-1Lithium ion batteries
  • Track 7-2Electrocatalysis
  • Track 7-3Fuel cell materials
  • Track 7-4Solar energy materials
  • Track 7-5Thermoelectric materials
  • Track 7-6Piezoelectric energy-harvesting materials
  • Track 7-7Materials for chemical sensing
  • Track 7-8Energy from organic materials

With increasing energy demand, world’s energy supply is likely to drop in the near future due to the declining fossil fuel feed stocks hence science and technology have to find alternative resources for the production of fuels. Currently, biomass and food waste is considered as the renewable feedstock for the production of chemicals and fuels in Europe. These renewable materials are utilized for the production of biopolymers, bioplastics and bioethanol. Biomolecules such as peptides and proteins are under research to create new nanomaterials to enhance the efficiency of photovoltaic such as solar cells and other electronic devices. Bioproteins power can also be harnessed for non-biological materials applications. Biomaterials have also been used as electrode materials in rechargeable lithium batteries. The nanostructure of these materials improves their electrochemical activity, thus enhance the battery performance.

  • Track 8-1Bio- electrode materials
  • Track 8-2Bio-inspired materials
  • Track 8-3Biopolymers
  • Track 8-4Bioplastics
  • Track 8-5Nanomaterials
  • Track 8-6Bio-proteins
  • Track 8-7Hybrid cathode materials

2D materials (2D allotropes of several elements or compounds) also mentioned as single layer materials are crystalline in nature containing single layer of atoms. These materials find its application in semiconductors, electrodes, water purification and photovoltaic. Graphene, the global first 2-D carbon material also called as “wonder material” is a transparent material with one atom thick sheet. Graphene shows unique properties such as high efficient electrical conductivity, thermal conductivity, and current density are hundred times stronger than steel. It is the most ideal material for applications such as extremely strong composite materials, flexible displays and nano-transistors. The worldwide graphene market is predictable to range USD 278.47 Million by 2020, with a development of 42.8% from 2015 to 2020 in electronic devices, composite materials, semiconductor materials and battery technologies. Graphene based composite materials are available for commercial purpose in tennis rackets, bikes and skis. The projecting energy associated areas where graphene will have an effect is sun powered solar cells, supercapacitors, catalysis and lithium-particle batteries.

  • Track 9-12D heterostructures and superstructures
  • Track 9-2Graphene analogs
  • Track 9-3Applications of carbon in energy
  • Track 9-4Carbon nanotubes and graphene
  • Track 9-5Graphene materials
  • Track 9-6Graphene polymer batteries
  • Track 9-7Graphene Composites

Battery is an electric device comprises of one or more electrochemical cells uses external electric connections to power the electrical devices such as smartphones, flashlights and electric cars. There are two types of batteries, primary and secondary. The former type of batteries are used once and discarded, while the later type can be discharged and recharged several times. Batteries convert chemical energy directly to electrical energy that consists of some number of voltaic cells. The voltage established across a cell's terminals is subject to the energy release of the chemical reactions of its electrodes and electrolyte. Solid-state battery was invented in 2017 by John Goodenough where both the elctrodes and electrolyte are in solid state. Solid electrolytes also termed as superionics are materials that reveals high values of ionic conductivity and is widely studied materials for solid state batteries, gas sensors, fuel cells, batteries and electrochromic devices. Solid electrolytes are the potential materials to replace organic electrolytes that are flammable and toxic.This new type of battery is “three times energy denser”, safer, faster charging and used for longer lasting rechargeable batteries such as mobile devices, stationary energy storage and electric vehicles. Photovoltaic (PV) cells are devices that engross light and convert directly into electricity (e.g., solar cell). PV cell is categorized into three main types inorganic, organic and photoelectrochemical. Inorganic PV cells are commercially available as mono-crystalline, multi-crystaline and amorphous. The Industrial batteries market for end-user industry is expected to reach USD 10.84 Billion by 2021, at a CAGR of 6.5% between 2016 and 2021. The advancement in the market can be primarily due to the increasing demand from the locomotive sector, development in renewable energy sector, enlarged recycling efficiency of lead-acid and lithium-based industrial batteries, and greater performance of industrial batteries in terms of energy density. 

  • Track 10-1Battery technologies
  • Track 10-2Thermal storage materials
  • Track 10-3Phase Change Materials
  • Track 10-4Capacitors (Super, Ultra, Pulsed Power)
  • Track 10-5Sulfide-based solid electrolytes
  • Track 10-6Polymer-based solid electrolytes
  • Track 10-7Organic ion conductors

Optical materials and coatings play a significant role in defining the effectiveness of solar conversion processes. The coating materials for optical devices are under research development.  Few of the coating materials currently in use are heat mirrors, reflector materials, selective absorbers, fluorescent concentrator materials, cold mirrors, holographic films, optical switching films, radiative cooling surfaces and transparent insulation materials. These materials help in improving the novelty of solar energy conversion, energy-efficient windows, photovoltaic, and other hybrid designs. The functioning of electronic devices is efficiently controlled by switching devices. The innovation in electronic and photonic nanomaterials will results in the advancement of computing devices and solid-state lightning. Existing research comprises of organic semiconductors, thin films, nanostructures and bulk crystal growth. The silicon carbide semiconductor market is projected to raise $3182.89 Million by 2020, at an estimated CAGR of 42.03%. Magnetized materials are termed as ferromagnetic materials that comprises of cobalt, iron, nickel, alloys and rare earth elements. These ferromagnetic materials find its application in medicine as contrasting agent for MRI scans.

  • Track 11-1Advanced optical materials
  • Track 11-2Optical properties and materials system
  • Track 11-3Imaging, microscopy, adaptive optics
  • Track 11-4Laser beam delivery and diagnostics
  • Track 11-5Atomic, Molecular, Optical & Plasma Physics
  • Track 11-6Nano-electromagnetics
  • Track 11-7Nano-electronic devices
  • Track 11-8Ferroelectricity and piezoelectricity

Energy harvesting or scavenging is the process of capturing small amounts of energy which would be lost in the form of heat, light, sound, vibration and the stored energy is used to improve the efficiency for wireless sensor network, wearable electronics and automotive devices. These materials are capable of replacing batteries for small, low power electronic devices and are environmentally friendly. The waste energy can be harvested by different materials. Thermoelectric and pyroelectric materials help in capturing heat and are transformed into electric power. The vibration, movement and sound are captured by piezoelectric materials that are transformed into electric power. Initially, thermoelectric materials are limited due to small conversion efficiency, but the occurrence of nanostructured thermoelectric materials led to significant development in enhancing thermoelectric properties. The pyroelectric effect is being used in sensors.

  • Track 12-1Energy Storage
  • Track 12-2Systemic engineering
  • Track 12-3Thermoelectric materials
  • Track 12-4Pyroelectric materials
  • Track 12-5Piezoelectric materials
  • Track 12-6Photovoltaic energy

The increasing power consumption in developing regions enhances the power infrastructure and concern regarding the use of renewable power supplies. The governments worldwide are increasingly investing in renewable energy sources such as solar and wind. As per the global forecast to 2023, the power electronics market by materials, device type and application is predictable to increase from USD 39.03 Billion in 2018 to USD 51.01 Billion by 2023, increasing at a CAGR of 5.5% between 2018 and 2023. The growth of this market is endorsed to the advancement of power electronics and developing demand for energy-efficient battery-power portable devices. The major players in the power electronics market are Texas Instruments in US, On Semiconductor in US, Infineon Technologies in Germany, STMicroelectronics in Switzerland, NXP Semiconductors in Netherland, Vishay Intertechnology in US, Maxim Integrated Products in US etc., The major areas for emerging technologies are Storage, Smart grid and Electricity generation. Emerging Energy storage encompasses novel, economical ways of storing energy in the form of improved batteries, fuel cells, hydrogen energy storage and transport. Smart grid technologies enable efficient generation and use of energy. Emerging Electricity generation is characterized by the technology to generate power from unused resources.

  • Track 13-1Materials for hydrogen production
  • Track 13-2Materials and Technologies for Energy Conversion
  • Track 13-3Hybrid materials for energy storage and conversion
  • Track 13-4Photovoltaics and solar energy materials
  • Track 13-5Hydrogen energy storage & transport
  • Track 13-6Fuel Cell Electric Vehicles (FCEV
  • Track 13-7Biodegradable Batteries