This symposium will focus on the latest advances in computational nanoscience, including methods development, materials discovery, and insights into the design and optimisation of nano materials and devices. As the power of computational approaches continues to grow, this session will bring together experts across a broad range of fields to discuss emerging innovations and challenges.

Key Topics include

• Development of New Methods
  • Electronic structure methods
  • Molecular simulation methods
  • Machine-learning methods

• Development of New Materials
  • ML-assisted materials discovery
  • Self- and directed-assembly
  • Crystal nucleation and growth

• Insights into Properties of Materials
  • Functional materials
  • Colloids and interfaces
  • Biomaterials

• Device Modelling
  • Computational approaches to designing and optimising devices

Target Audience

This symposium will appeal to researchers, engineers, and industry professionals working in computational nanoscience, nanotechnology, and related areas. The session aims to foster interdisciplinary discussions on the future of computational nanoscience and its real-world impact.

Keynote speakers

Invited speakers

The Nanoscale Semiconductor Symposium at ICONN 2026 will explore the latest breakthroughs in semiconductor technology, with a particular focus on nanoscale integration, advanced packaging, and the challenges of interfacing diverse electronic, photonics, and quantum systems. This symposium aims to provide a comprehensive forum for discussing not only novel materials and device architectures, but also the critical issues surrounding the next-generation semiconductor technologies.
The symposium will delve into the interfacing challenges that arise when merging diverse components, from rigid CMOS-based systems to emerging flexible and wafer-level 3D integration solutions. Discussions will span topics and applications from advanced lithography and deposition techniques, featuring insights from world leaders in 3DIC initiatives and experts from international semiconductor foundries.
In addition, the symposium will aim to address the policy and strategic dimensions of semiconductor development. Sessions will aim to cover critical regulatory and investment frameworks, including the USA Chips Act, European investment initiatives, and the AUKUS perspectives, that are shaping the global semiconductor landscape. Diverse academics and industry leaders will share their views on how these policies influence research, development, and manufacturing on a global scale.
We invite you to submit your abstracts and join us in this exciting exploration of nanoscale semiconductor technology. Your contributions will help shape the future of the industry and foster a dynamic dialogue among researchers, policymakers, and industry experts.

Key Topics include

Nanomechanics of Advanced Materials 

• Nanoscale Integration Techniques:
  Advances in integrating nanoscale devices and components, including heterogeneous materials and emerging 3D integration methods.

• Advanced Packaging and Interconnection:
  Innovations in packaging strategies, wafer-level integration, thermal management, and reliability challenges in next-generation devices.

• Interfacing Diverse Systems:
  Challenges and solutions for merging traditional CMOS, flexible electronics, MEMS, photonics, and quantum systems.

• Advanced Lithography and Deposition Processes:
  New techniques in patterning and material deposition critical for fabricating nanoscale semiconductor structures.

• Novel Materials and Device Architectures:
  Discussion of emerging semiconductor materials, including quantum materials, and innovative device designs. 

• Application-Driven Innovations:
  Case studies and breakthroughs in sectors such as neuromorphic computing, healthcare, automotive, IoT, and environmental monitoring driven by nanoscale semiconductor advances.

• Future Trends in Manufacturing:
  Overcoming scalability challenges, evolving fabrication methods, and strategies to meet the demands of next-generation semiconductor technologies.

• Policy and Strategic Directions in Semiconductor Development
  Impact of global policies, investments, and regulations on semiconductor research, manufacturing, and supply chains.

Target Audience

This symposium will appeal to researchers, engineers, and industry professionals working on nanoscale semiconductors, advanced materials, photonics, and quantum systems. It brings together academic innovators pushing the boundaries of nanoscale integration with engineers and industry experts designing, manufacturing, and packaging the next generation of semiconductor devices. Leaders in R&D, technology strategy, and policy will share insights on turning breakthrough research into practical solutions, while investors and global stakeholders explore the frameworks shaping our industry. Join us for a dynamic forum where ideas converge, collaborations ignite, and the future of nanoscale semiconductors is collectively envisioned.

Keynote speakers

Invited speakers

DNA and RNA nanotechnology concerns the unconventional design of artificial nucleic acid materials beyond their function as genetic information carriers in cells. It harnesses the unique programmable properties of nucleic molecules to create unprecedented nanoscale structures and devices with applications across a wide range of disciplines including chemistry, physics, engineering, computer science, mathematics, biology, electronics and photonics. Nucleic acid nanotechnology offers the ability to design and manipulate matter with high precision at the molecular, nano and microscopic scales, enabling many areas, including: DNA origami architectures, plasmonic nanoassemblies, DNA robots, DNA computing, biosensing, drug delivery and RNA therapies and mRNA vaccines.

This symposium is motivated to provide a platform to showcase state-of-the-art progress as well as address future challenges and opportunities for collaborative work with other disciplines in nanotechnology and nanomedicine.

Key Topics include

• Structural DNA nanotechnology including DNA origami 

• Functional and dynamic DNA nanostructures

• DNA-based self-assembly of nanomaterials

• DNA-based nanocomposites, nanoparticles, nanocrystalline materials, and nanoclusters

• DNA-based hydrogels and liquids

• DNA-based nanodevices and molecular machines

• DNA nanomaterials for bioapplications in medicine, diagnostics, and drug delivery 

• DNA-based logic gates
  
• Computational DNA nanotechnology
  
• DNA-based information processing and storage
  
• RNA aptamers
  
• mRNA vaccines and lipid nano particle formulations
  
• RNA therapeutics
  
• Hybrid DNA-RNA molecular computing

Target Audience

This symposium will appeal to researchers, engineers, and industry professionals working in biomolecular nanotechnology, self-assembly, materials science, nanomedicine, diagnostics and sensing. The session aims to foster interdisciplinary discussions on the future of DNA and RNA nanotechnologies and their real-world impact.

The “2D Materials and Devices” Symposium aims to explore the cutting-edge research and developments in two-dimensional (2D) materials, with a focus on their properties, fabrication techniques, and potential applications in various fields. As these materials continue to revolutionize the world of nanotechnology, electronics, and photonics, the symposium will provide a platform for interdisciplinary discussions and collaborations. The primary objective is to foster knowledge exchange between scientists, engineers, and industry professionals to advance the understanding and practical use of 2D materials in next-generation devices. Attendees will gain insights into both the fundamental physics and the commercial potential of 2D materials, ranging from fundamental research to device integration.

Key Topics include

• Synthesis and Characterization of 2D Materials: Methods for producing high-quality monolayers and few-layer materials (e.g., graphene, transition metal dichalcogenides, hexagonal boron nitride).

• Electronic and Optoelectronic Devices: Applications of 2D materials in transistors, photodetectors, light-emitting diodes (LEDs), and flexible electronics.

• 2D Materials in Energy Storage and Conversion: Exploring the role of 2D materials in batteries, supercapacitors, and solar cells.

• Quantum and Topological Effects: Investigation of quantum phenomena, such as superconductivity, magnetism, and topological phases, in 2D materials.

• Nanostructuring and Heterostructures: Design and fabrication of 2D material-based heterostructures and their role in improving device performance. 

Target Audience

The “2D Materials and Devices” Symposium is aimed at a diverse audience, including researchers, academics, and professionals working in materials science, nanotechnology, physics, and electrical engineering. It will also engage engineers, technologists, and industry leaders focused on the development and commercialization of 2D materials in applications such as electronics, energy storage, sensors, and flexible devices. Graduate students, postdoctoral researchers, and early-career scientists with an interest in advancing the understanding and application of 2D materials will benefit from the event, as will policymakers and funding agencies seeking to support innovation in this rapidly growing field.

This symposium provides a dynamic platform for researchers exploring the mechanical behavior of materials at the nanoscale to exchange the latest advancements in nanomechanics. It will cover a wide range of topics, including the fundamental principles of nanomechanics, cutting-edge techniques for nanomechanical characterization, and the mechanical behavior of nanoscale materials under various conditions. Additionally, the symposium will highlight recent developments in computational nanomechanics, the role of artificial intelligence in predictive modeling, and emerging interdisciplinary approaches. By fostering collaboration and knowledge exchange, this event aims to drive innovation and deepen our understanding of nanoscale mechanical phenomena.

Key Topics include

Nanomechanics of Advanced Materials 

• Nanoparticles, nanotubes, and nanowires 

• 2D materials (e.g., graphene, MXenes, MoS₂) 

• Nanocomposites 

• Soft materials: hydrogels, biomaterials, and soft electronics 

• Energy-harvesting nanodevices 

• Energy storage materials (e.g., batteries, supercapacitors) 

• Nanostructured materials for carbon capture and storage 

• Advanced metallic and ceramic materials 

Nanomechanical Characterisation  

• In situ electron microscopy for nanomechanical testing 

• High-resolution transmission electron microscopy studies of mechanical deformation 

• Advanced atomic force microscopy techniques for force measurements 

• Nanoindentation and tribological studies of nanostructured materials 

• Synchrotron X-ray, neutron, and other techniques 

Computational Nanomechanics & AI Integration 

• Atomistic and molecular dynamics simulations of mechanical behaviour 

• Multiscale modelling of nanomechanical behaviour 

• Machine learning for mechanical property prediction 

• Digital twins and AI-driven materials design 

• Quantum mechanical modelling of nanomechanics 

Target Audience

This symposium will attract researchers, engineers, and industry professionals from fields such as computational nanomechanics, nanotechnology, materials science, and manufacturing. The session is designed to encourage interdisciplinary discussions on the future applications of nanomaterials, focusing on leveraging their unique mechanical properties to develop innovative devices and structures.

Keynote speakers

Invited speakers

This symposium will explore the latest advancements in nano carbon materials, including carbon nanotube, graphene, graphene oxide, few-layer graphite, nanodiamond and other novel carbon structures that exhibit nanoscale features. The symposium will focus on all topics relevant to carbon nanomaterial, including synthesis, processing and functionalization, carbon nanomaterials’ characterisation and properties, theory and simulation related to carbon materials, and applications of carbon nanomaterials in catalysis, composites, energy storage, and nanodevices.

Key Topics include

New forms of nanocarbon materials 

• Novel phases of carbon materials under extreme conditions 

• Diamane  

• Carbon quantum dots 

• Nanocarbon from novel precursors 

Graphene/graphene oxide 

• Optoelectronics based on graphene/graphene oxide 

• Thermoelectric device based on graphene/graphene oxide 

• Photothermal devices based on graphene/graphene oxide 

• Supercapacitors based on graphene/graphene oxide 

• Membranes based on graphene/graphene oxide 

Diamond and its devices 

• Diamond based photonic devices and microscope 

• Diamond based quantum sensors and devices 

Nanocomposites 

• Composites enforced by nanocarbon materials (e.g., carbon fibres) 

• Concretes enforced by nanocarbon materials 

• Membranes based on nanocarbon materials 

Catalysis 

• Electrocatalysts based on nanocarbon materials 

• Photocatalysts based on nanocarbon materials 

• Other heterogeneous catalysts based on nanocarbon materials 

• technologies 

Batteries 

• Anodes based on nanocarbon materials 

• Cathodes based on composites of nanocarbon materials 

Target Audience

This symposium will appeal to researchers, engineers, and industry professionals using nanocarbon materials in various research fields of nanotechnology, materials science, devices, energy storage, composites, energy storage, and environmental engineering. The session aims to foster interdisciplinary discussions on the future of nanocarbon materials and their real-world impact.

Keynote speakers

Invited speakers

This symposium will explore the latest advancements in soft bioelectronics, focusing on materials, device architectures, and system integration for applications in healthcare, human-machine interfaces, and environmental monitoring. As the demand for soft, stretchable, and bio-compliant electronics grows, this session will bring together experts working at the intersection of nanomaterials, materials science, electronics, and soft robotics to discuss emerging innovations and translational challenges.

Key Topics include

Materials & Fabrication 

• Bio-compatible and biodegradable electronic materials 

• Stretchable, ultra-thin, and skin-like electronics 

• Self-healing and damage-resistant electronic systems 

• Printing and additive manufacturing for bioelectronics 

Wearable and Implantable Bioelectronics 

• Smart skin patches, tattoos, and epidermal sensors 

• Wireless, battery-free, and energy-harvesting bioelectronics 

• Implantable and minimally invasive bioelectronic systems 

• Electrophysiological and multimodal health monitoring 

Human-Machine Interfaces & Soft Robotics 

• Neuromorphic bioelectronic interfaces 

• Brain-computer interfaces and soft neural implants 

• Electronic textiles and bioelectronic wearables 

• Soft robotic-assisted bioelectronic platforms 

Bioelectronics for Environmental and Animal Monitoring 

• Bio-integrated sensors for plants and ecosystems 

• Flexible electronics for animal health and behavior tracking 

• Remote and autonomous sensing technologies 

Target Audience

This symposium will appeal to researchers, engineers, and industry professionals working in nanotechnology, materials science, biomedical engineering, robotics, and environmental monitoring. The session aims to foster interdisciplinary discussions on the future of flexible bioelectronics and their real-world impact.

The Nanoelectronics Symposium aims to advance the field by exploring cutting-edge materials—such as semiconductor nanowires, quantum dots, topological and superconducting materials, and 2D materials—and their applications in ultra-fast, miniaturised, and energy-efficient devices. It will connect innovations in design and fabrication, focusing on advanced techniques like sub-10 nm lithography, atomic layer deposition, and self-assembly for scalable production. The symposium will highlight quantum phenomena in next-generation applications, including quantum computing hardware (e.g., single-electron transistors, molecular-scale transistors) and ultra-sensitive sensing. It will also address future energy-efficient, adaptive, and brain-inspired computing paradigms covering neuromorphic circuits (e.g., memristors), spintronics, and bio-inspired systems using biological components. Applications in AI, cognitive computing, medical physics, and biomedical fields (e.g., wearable nanosensors and drug delivery) will be emphasised, fostering interdisciplinary collaboration and practical pathways for mass production and real-world impact.

Key Topics include

Low-Dimensional Nanomaterials for Next-Generation Nanoelectronics 

• Semiconductor nanowires, quantum dots, topological matters, superconducting materials, and emergent 2D materials (e.g., graphene, MoS₂). 

• Ultra-fast, miniaturised, and highly efficient nanoelectronic devices. 

Nanoscale Fabrication and Manufacturing 

• Cutting-edge fabrication techniques that are critical for nanoelectronic device production, sub-10nm lithography techniques. 

• Atomic layer deposition for precise material engineering, self-assembly and bottom-up approaches for scalable manufacturing highlight practical pathways to mass-produce nanoelectronic devices. 

Quantum & Molecular Electronics 

• Role of quantum phenomena in future applications such as computing, cryptography and sensing. 

• Quantum computing hardware based on molecular or atomic components. 

• Single-electron transistors and quantum dots in high-speed computation and fabrication and potential applications of molecular-scale transistors such as ultra-sensitive sensing technologies. 

Neuromorphic, Bio-Inspired and Biomedical Nanoelectronics 

• Future computing paradigms offering energy efficiency, and are adaptive and intelligent.  

• Brain-inspired architectures and nanoelectronics applications in medical physics and biomedical domains, including flexible and wearable nanoelectronics, nanosensors, and nanoelectronics for drug delivery.  

• Memristors, spintronic devices, and resistive switching for neuromorphic circuits for computation or sensing.  

• Bio-inspired nanoelectronic systems, and implications for AI, cognitive computing, and biomedical applications. 

Target Audience

This symposium will appeal to researchers, engineers, and industry professionals in micro and nanoelectronics, nanotechnology, materials science, quantum computing, cryptography and sensing, neuromorphic and bio-inspired circuits and systems, as well as the applications of nanoelectronics in and around biology, drug delivery, environment, cyber-physical security, national security/bio-security, and defence. The session aims to foster interdisciplinary discussions on the future of nanoelectronics and real-world impact.

Keynote speakers

Invited speakers

This symposium will explore the cutting-edge advancements in nanomembrane science and environmental functional materials, addressing both fundamental understanding and real-world applications. Topics will include the fabrication, characterization, and application of nanomembranes, with a particular focus on their transport mechanisms under nanoconfinement. Additionally, the symposium will highlight recent innovations in the development of environmental functional materials, emphasizing their role in addressing sustainability challenges. Through discussions on novel material design, operando characterization techniques, and emerging applications, this session aims to foster interdisciplinary collaboration and accelerate the translation of nanoscience into impactful environmental solutions.

Keynote speakers

Invited speakers

This symposium will explore the latest advancements in nanocrystals and nanoplasmonics, focusing on synthesis and characterization of nanocrystals and nanoplasmonics, functional nanocrystals and nanoplasmonics, and their applications in biosensors, life science, catalysis, and environmental monitoring. This session will bring together international experts working at the cross-discipline of nanocrystals and nanoplasmonics to discuss emerging innovations and translational challenges, and exchange ideas on advancing our nanocrystal and nanoplasmonic research in fundamental and translational levels.

Key Topics include

Materials Synthesis & Characterization 

• Advanced synthesis methods (colloidal, solid-state, Photolithography) 

• Surface chemistry and ligand engineering 

• Optical, electronic, and magnetic properties 

• Plasmon-enhanced spectroscopy (Raman, fluorescence) 

Nanophotonic and Light-Matter Interactions 

• Quantum dots and single-photon emitters 

• Nonlinear and ultrafast plasmonic effects 

• Hybrid nanophotonic systems (e.g., plasmon-exciton coupling) 

• Light trapping and guiding in nanostructures 

Applications in Sensing and Imaging 

• Plasmonic biosensors and chemical sensors 

• Surface-enhanced Raman spectroscopy (SERS) applications 

• Super-resolution imaging and bio-labelling 

• Nanocrystals for bioimaging and contrast enhancement  

Energy Conversion and Photocatalysis 

• Plasmon-assisted solar energy harvesting 

• Nanocrystals in photocatalysis and water splitting 

• Hot electron generation and charge transport 

• Nanoplasmonics for light-driven chemical reactions 

Target Audience

This symposium will appeal to physicists, chemists, material scientists, engineers, and industry professionals working in photonics, optics, nanotechnology, material science, biosensors, and environmental monitoring. The session aims to foster interdisciplinary discussions on the future of nanocrystal and nanoplasmonic and their real-world impact.

Keynote speakers

Invited speakers