Battery Materials & Energy Storage
Sessions focused on materials, chemistries, devices, safety, and circular strategies for advanced batteries and electrochemical storage.
Lithium-Ion Battery Materials
Cathodes, anodes, binders, separators, degradation, and performance optimization for lithium-ion systems.
Solid-State Batteries
Solid electrolytes, interfaces, processing, stability, and scalable solid-state battery architectures.
Sodium-Ion & Potassium-Ion Batteries
Emerging alkali-ion chemistries, electrode materials, electrolytes, and application readiness.
Next-Generation Battery Technologies
Beyond lithium-ion concepts, novel chemistries, high-energy designs, and early-stage storage platforms.
Supercapacitors
Electrode materials, electrolytes, hybrid capacitors, power density, and cycling stability.
Electrolytes & Electrodes
Design, synthesis, interfacial behavior, and characterization of electrolyte and electrode materials.
Battery Recycling & Circular Economy
Recovery, reuse, second-life systems, lifecycle assessment, and sustainable battery value chains.
Battery Safety & Thermal Management
Thermal runaway mitigation, diagnostics, fire-safe materials, pack design, and reliability testing.
Hydrogen & Fuel Cell Materials
Sessions covering hydrogen generation, storage, catalysis, fuel cell components, durability, and green hydrogen technologies.
Hydrogen Production Materials
Materials for electrolysis, reforming, photoelectrochemical production, and scalable hydrogen generation.
Green Hydrogen Technologies
Renewable hydrogen pathways, system integration, efficiency, cost reduction, and enabling materials.
Proton Exchange Membrane Fuel Cells
Membranes, catalysts, gas diffusion layers, water management, and PEM fuel cell performance.
Solid Oxide Fuel Cells
Electrolytes, electrodes, interconnects, degradation, and high-temperature fuel cell materials.
Hydrogen Storage Materials
Metal hydrides, porous materials, chemical carriers, safety, and storage system integration.
Electrocatalysts for Hydrogen Evolution
Catalyst design, activity, stability, mechanisms, and low-cost alternatives for hydrogen evolution.
Water Splitting Technologies
Electrochemical, photoelectrochemical, and hybrid systems for efficient water splitting.
Fuel Cell Durability
Failure mechanisms, accelerated testing, materials stability, and lifetime improvement strategies.
Solar Energy Materials
Sessions on photovoltaic materials, device engineering, solar harvesting, and photocatalytic routes for clean energy.
Perovskite Solar Cells
Perovskite absorbers, interfaces, stability, tandem integration, and scalable fabrication.
Silicon Photovoltaics
Crystalline silicon materials, passivation, module performance, manufacturing, and reliability.
Thin-Film Solar Cells
CIGS, CdTe, amorphous silicon, emerging absorbers, and thin-film process development.
Organic Solar Cells
Donor-acceptor materials, morphology control, flexible devices, and stability improvements.
Tandem Solar Cells
Multi-junction designs, current matching, optical management, and high-efficiency device stacks.
Photovoltaic Device Engineering
Contacts, transport layers, encapsulation, modeling, and performance optimization for PV devices.
Solar Energy Harvesting
Materials and device concepts for capturing, converting, and storing solar energy.
Photocatalytic Materials
Semiconductors, catalysts, heterostructures, and mechanisms for solar-driven chemical conversion.
Catalysts & Energy Conversion Materials
Sessions addressing catalyst design and energy conversion pathways for fuels, chemicals, and electrochemical systems.
Heterogeneous Catalysis
Surface-active materials, supports, reaction mechanisms, and catalytic process optimization.
Electrocatalysis
Catalysts, interfaces, kinetics, and stability for electrochemical energy conversion reactions.
Photocatalysis
Light-driven catalytic materials for environmental remediation, fuels, and chemical synthesis.
CO₂ Reduction Catalysts
Catalyst design, selectivity, conversion pathways, and systems for carbon dioxide reduction.
Oxygen Evolution & Reduction Reactions
OER and ORR materials, mechanisms, active sites, and device-relevant performance.
Artificial Photosynthesis
Integrated materials and systems for solar-to-fuel conversion inspired by natural photosynthesis.
Catalytic Nanomaterials
Nanoscale catalysts, size effects, active site engineering, and advanced characterization.
Energy Conversion Systems
Materials integration for fuel cells, electrolyzers, solar fuels, and catalytic reactors.
Functional & Advanced Energy Materials
Sessions highlighting advanced material classes with functional properties for future energy technologies.
Nanomaterials for Energy
Nanostructured materials for storage, conversion, catalysis, and energy device performance.
Two-Dimensional Materials
Layered materials, heterostructures, defects, interfaces, and energy applications.
Graphene & MXenes
Synthesis, functionalization, composites, conductivity, and applications in storage and catalysis.
Quantum Materials
Quantum phenomena, correlated systems, topological properties, and energy-relevant functionality.
Smart Functional Materials
Responsive, adaptive, and stimuli-sensitive materials for intelligent energy systems.
Hybrid Materials
Organic-inorganic hybrids, composites, interfaces, and multifunctional energy applications.
High-Entropy Materials
Compositionally complex alloys, oxides, ceramics, and catalysts for energy technologies.
Advanced Ceramics
Ceramic electrolytes, coatings, thermal materials, structural ceramics, and durability.
Electronic & Semiconductor Materials
Sessions covering electronic, optoelectronic, thermal, and power materials for electrified energy systems.
Wide Bandgap Semiconductors
SiC, GaN, oxides, diamond, device materials, and high-power applications.
Electronic Materials
Conductors, semiconductors, insulators, interfaces, and materials for electronic devices.
Flexible Electronics
Stretchable, printable, wearable, and lightweight materials for flexible energy electronics.
Power Electronics Materials
Materials for converters, modules, packaging, thermal management, and high-voltage systems.
Thermoelectric Materials
Materials for waste heat recovery, cooling, transport control, and device efficiency.
Dielectric Materials
High-k materials, capacitors, insulation, energy density, and breakdown reliability.
Magnetic Materials
Magnetic materials for motors, generators, power systems, and energy-efficient devices.
Optoelectronic Materials
Light-emitting, light-detecting, and photonic materials for energy and sensing applications.
Sustainable Energy Materials
Sessions centered on sustainable design, low-carbon processing, circularity, and environmentally responsible materials innovation.
Sustainable Materials Design
Design principles that reduce impact while improving performance, availability, and lifecycle value.
Eco-Friendly Materials
Non-toxic, abundant, recyclable, and environmentally preferable materials for energy systems.
Bio-Based Energy Materials
Biopolymers, biomass-derived carbons, bio-inspired materials, and renewable feedstocks.
Circular Economy in Materials
Reuse, repair, remanufacturing, recycling, and closed-loop material flows.
Carbon-Neutral Materials
Materials and processes designed for net-zero or carbon-neutral energy technology pathways.
Low-Carbon Manufacturing
Manufacturing methods that reduce energy use, emissions, waste, and resource intensity.
Green Chemistry
Safer synthesis, renewable solvents, atom economy, and reduced hazardous materials use.
Sustainable Processing Technologies
Scalable processing methods with reduced environmental footprint and improved resource efficiency.
Computational Materials & AI
Sessions exploring data, modeling, automation, and artificial intelligence for accelerated energy materials discovery.
AI for Materials Discovery
AI-guided screening, generative design, property prediction, and experimental prioritization.
Machine Learning in Materials Science
Models, descriptors, datasets, validation, and applications across materials research.
Materials Informatics
Data infrastructure, ontologies, databases, workflows, and FAIR materials data practices.
Computational Materials Design
First-principles, multiscale, and simulation-driven approaches to materials development.
Digital Twins
Virtual representations of materials, devices, manufacturing processes, and energy systems.
High-Throughput Materials Screening
Automated computation and experimentation for rapid evaluation of candidate materials.
Quantum Computing for Materials
Quantum algorithms and computing approaches for complex materials and chemical systems.
Data-Driven Materials Engineering
Integration of data, modeling, and experiments to optimize materials and processes.
Materials Manufacturing & Characterization
Sessions on scalable fabrication, processing, metrology, and advanced tools for energy materials development.
Additive Manufacturing
3D printing, direct ink writing, laser processing, and additive routes for energy materials.
Thin Film Deposition
PVD, CVD, ALD, solution processing, and thin-film growth for devices and coatings.
Surface Engineering
Surface modification, coatings, functionalization, corrosion resistance, and interface control.
Materials Characterization Techniques
Structural, chemical, mechanical, electrical, and thermal analysis methods for materials.
Electron Microscopy
SEM, TEM, in situ microscopy, microanalysis, and nanoscale imaging for energy materials.
Synchrotron & Spectroscopy
Synchrotron methods, X-ray techniques, spectroscopy, and operando characterization.
Nanofabrication
Patterning, lithography, etching, self-assembly, and nanoscale device fabrication.
Advanced Processing Technologies
Novel thermal, chemical, plasma, roll-to-roll, and scalable materials processing methods.
Industrial Applications of Energy Materials
Sessions focused on translating energy materials into vehicles, grids, aerospace, wearables, IoT, and commercial systems.
Electric Vehicle Materials
Battery, motor, power electronics, lightweight, and thermal materials for electric mobility.
Grid-Scale Energy Storage
Materials for long-duration storage, stationary batteries, flow systems, and grid integration.
Aerospace Energy Materials
Lightweight, high-performance, radiation-resistant, and thermal materials for aerospace energy systems.
Smart Grid Materials
Materials supporting sensing, power conversion, communication, and resilient grid infrastructure.
Wearable Energy Devices
Flexible batteries, supercapacitors, harvesters, sensors, and biocompatible materials.
Energy Materials for IoT
Miniaturized power sources, energy harvesting, sensors, and materials for connected devices.
Industrial Scale-Up
Pilot production, quality control, manufacturability, cost, and process reliability.
Commercialization & Technology Transfer
Pathways from laboratory results to products, partnerships, IP, validation, and market adoption.
Carbon Capture & Environmental Energy Materials
Sessions on materials for carbon management, environmental protection, water treatment, and climate-resilient technologies.
Carbon Capture Materials
Sorbents, membranes, porous frameworks, solvents, and process-integrated capture materials.
CO₂ Utilization
Materials and catalysts for converting carbon dioxide into fuels, chemicals, and products.
Environmental Catalysis
Catalytic materials for emissions control, pollutant degradation, and environmental remediation.
Air Purification Materials
Filters, adsorbents, photocatalysts, and reactive materials for clean air technologies.
Water Treatment Materials
Membranes, adsorbents, catalysts, and nanomaterials for purification and desalination.
Environmental Nanotechnology
Nanoscale materials for sensing, remediation, filtration, and environmental monitoring.
Sustainable Environmental Materials
Low-impact materials for environmental protection, resource recovery, and pollution prevention.
Climate-Resilient Energy Technologies
Materials and systems designed for climate adaptation, durability, and infrastructure resilience.
Emerging Trends in Energy Materials
Sessions showcasing frontier concepts, extreme-environment materials, multifunctionality, and future net-zero energy devices.
Nuclear Energy Materials
Fuels, cladding, corrosion, radiation tolerance, and structural materials for nuclear systems.
Fusion Reactor Materials
Plasma-facing, breeding blanket, structural, and radiation-resistant materials for fusion energy.
Space Energy Materials
Materials for space power, radiation resistance, thermal control, and extreme environments.
Self-Healing Materials
Materials capable of damage repair, lifetime extension, and enhanced reliability in devices.
Multifunctional Materials
Materials combining electrical, thermal, mechanical, catalytic, or sensing functions for energy systems.
Neuromorphic Materials
Memristive, ionic, phase-change, and adaptive materials for energy-efficient computing.
Advanced Energy Devices
Emerging device architectures for storage, conversion, harvesting, and intelligent energy systems.
Future Materials for Net-Zero Energy
Long-horizon materials concepts supporting deep decarbonization and net-zero energy transitions.
