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- Instrumentation, Devices, Detection, and Spectroscopy
Scope:
This session covers the development and application of advanced accelerator systems, instrumentation, detection technologies, and spectroscopic techniques for scientific, industrial, and medical applications. Topics include particle accelerator systems and components, beam generation, acceleration, transport, control, beam diagnostics, radiation detection, dosimetry, particle and photon detectors, spectroscopy, imaging, and advanced measurement techniques. Contributions on accelerator technologies, beam instrumentation, detector development, radiation measurement, and applications in materials science, energy, environment, industry, and healthcare are particularly encouraged.
Key Areas:
Particle Accelerators; Accelerator Systems and Components; Beam Generation and Transport; RF Technology; Beam Diagnostics and Instrumentation; Accelerator Control Systems; Radiation Detection; Radiation Dosimetry; Dosimeters and Dose Measurement; Particle and Photon Detectors; Scintillators; Semiconductor Detectors; Spectroscopy; Optical and Photonic Instrumentation; Terahertz (THz) and Infrared Techniques; Laser Diagnostics; Imaging Systems; Nuclear Instrumentation; Data Acquisition and Signal Processing; Industrial, Medical, and Scientific Applications
2. Light–Matter Interaction, Irradiation, and Emission
2. Light–Matter Interaction, Irradiation, and Emission
Scope:
This session covers fundamental and applied research on the interactions between photons, electrons, radiation, and matter across a wide range of energy, time, and length scales. Topics include photon absorption and emission processes, excited-state dynamics, nonlinear and quantum phenomena, ultrafast processes, plasma–radiation interactions, and advanced optical technologies. Contributions involving lasers, free-electron lasers, synchrotron radiation, terahertz and infrared sources, photonic materials, optoelectronic devices, and emerging light-based technologies are particularly encouraged.
Key Areas:
Light–Matter Interaction; Photon–Electron Interaction; Ultrafast Science; Nonlinear Optics; Quantum Optics; Optical and Electronic Excited-State Dynamics; Optical Emission; Photoluminescence; Electroluminescence; Laser Science and Technology; Free-Electron Lasers; Synchrotron Radiation; Terahertz and Infrared Science; Pump–Probe Spectroscopy; Plasma Photonics; Photonic Materials; Metamaterials and Metasurfaces; Optoelectronics; Quantum and Emerging Photonic Technologies
3. Agricultural and Environmental Applications
3. Agricultural and Environmental Applications
Scope:
This session covers the application of radiation, photon technologies, accelerated particles, plasma techniques, and advanced analytical approaches for agriculture, environmental science, and sustainable technologies. Topics include agricultural improvement, food and biological systems, environmental monitoring, pollution detection and remediation, resource management, and green technologies. Contributions involving radiation processing, spectroscopy, sensing technologies, plasma applications, and advanced materials for sustainable solutions are particularly encouraged.
Key Areas:
Radiation Applications in Agriculture; Food and Crop Processing; Plant Improvement; Electron and Ion Beam Applications; Plasma Agriculture; Food and Environmental Safety; Environmental Monitoring; Pollution Detection and Control; Environmental Sensors; Remote and Spectroscopic Sensing; Water and Soil Characterization; Waste Treatment; Sustainable Materials; Green Technologies; Climate and Environmental Solutions; Circular Economy; Industrial Applications
4. Energy and Photovoltaics
4. Energy and Photovoltaics
Scope:
This session covers on advanced materials, radiation and photon-based technologies, and innovative devices for energy generation, conversion, storage, and efficient utilization. Topics include photovoltaic and semiconductor technologies, energy storage systems, hydrogen and fuel-cell technologies, energy harvesting, radiation effects on energy materials, and functional surfaces for sustainable energy applications. Contributions addressing material design, fabrication, characterization, device optimization, and emerging energy technologies are particularly encouraged.
Key Areas:
Photovoltaics; Solar Energy Materials; Semiconductor Materials and Devices; Radiation Effects on Materials; Energy Conversion; Energy Storage; Batteries; Supercapacitors; Hydrogen Energy; Fuel Cells; Thermoelectric Materials; Energy Harvesting; Functional Thin Films; Surface Engineering; Advanced Energy Materials; Sustainable Energy Technologies; Smart Energy Systems; Emerging Energy Devices
5. Material Characterization, Modification, and Fabrication
5. Material Characterization, Modification, and Fabrication
Scope:
This session covers advanced approaches for the design, synthesis, characterization, modification, and fabrication of materials using radiation, photons, accelerated particles, plasma technologies, and emerging processing techniques. Topics include nanomaterials, functional materials, advanced manufacturing, surface engineering, thin films, coatings, and multiscale characterization methods for understanding and tailoring material properties. Contributions addressing structure–property relationships, novel fabrication strategies, material processing technologies, and applications in energy, electronics, healthcare, environment, and industrial technologies are particularly encouraged.
Key Areas:
Materials Characterization; Materials Synthesis and Design; Nanomaterials; Functional Materials; Advanced Materials; Surface Engineering and Modification; Radiation Processing; Electron Beam Processing; Ion Beam Modification; Plasma Processing; Laser Processing; Thin Films and Coatings; Nanofabrication; Additive Manufacturing; 3D Printing; Advanced Microscopy; Spectroscopy and Structural Analysis; Materials Modeling; Smart and Sustainable Materials; Industrial Applications
6. Biological and Medical Applications
6. Biological and Medical Applications
Scope:
This session covers the application and advancement of radiation, photons, accelerated particles, plasma technologies, and advanced materials for biological research, healthcare, and life science applications. Topics include radiation-based technologies, biomedical imaging and diagnostics, therapeutic techniques, biosensing platforms, biomaterials, and emerging biomedical technologies. Contributions covering fundamental biological interactions, medical applications, biotechnology, and translational research from laboratory development to clinical and industrial applications are particularly encouraged.
Key Areas:
Radiation Medicine; Cancer Therapy; Medical Imaging; Biomedical Instrumentation; Biomedical Diagnostics; Biosensors; Biomaterials; Tissue Engineering; Regenerative Medicine; Nanomedicine; Drug Delivery Systems; Photodynamic Therapy; Plasma Medicine; Radiation Dosimetry; Medical Devices; Wearable and Implantable Technologies; Biointerfaces; Biotechnology; Healthcare Applications
7. Artificial Intelligence, Simulation, and Advanced Techniques
7. Artificial Intelligence, Simulation, and Advanced Techniques
Scope:
This session covers the integration of artificial intelligence, computational methods, data-driven approaches, and advanced techniques to accelerate discoveries and innovations in science and technology. Topics include machine learning, scientific computing, numerical modeling, simulation, automation, and advanced data analysis for radiation, photon, plasma, accelerator, materials, biological, and engineering research. Contributions involving AI-assisted experiments, digital transformation, predictive modeling, advanced characterization, and emerging computational technologies are particularly encouraged.
Key Areas:
Artificial Intelligence (AI); Machine Learning; Deep Learning; Data-Driven Science; Scientific Computing; Computational Physics; Numerical Modeling; Multiphysics Simulation; Particle Beam Simulation; Plasma Simulation; Materials Modeling; Computational Materials Science; Digital Twins; Automated Experimentation; AI-Assisted Characterization; Image and Signal Processing; Data Analysis; High-Performance Computing; Advanced Computational Techniques; Smart Research Technologies
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