36^th World Nano Conference

About us

The 36th World Nano Conference, scheduled for August 24–25, 2026, in London, UK, serves as a premier global platform dedicated to advancing nanoscience and nanotechnology for transformative impact across multiple industries. Under the theme “Nanotechnology Unleashed: Transforming Materials, Medicine, and a Sustainable Future,” the conference brings together leading researchers, scientists, industry innovators, engineers, academicians, and policymakers to explore breakthrough advancements driving the next era of nanoscale technologies. This international gathering aims to foster powerful collaborations and accelerate translational research by presenting cutting-edge discoveries in nanomaterials, nano-medicine, nano-electronics, nano-fabrication, energy nanotechnology, and emerging innovation ecosystems. The conference provides a dynamic environment for participants to exchange high-value knowledge through keynote lectures, scientific sessions, technical demonstrations, poster presentations, panel discussions, and industry networking. It highlights the expanding role of nanotechnology in addressing global challenges from precision therapeutics, targeted drug delivery, and regenerative medicine to sustainable materials, clean energy solutions, smart manufacturing, and environmental remediation. With rapid advancements in AI-nano integration, quantum materials, nano-robotics, and next-generation sensors, the event offers unparalleled insights into the technologies shaping the future of science and industry. Set in the vibrant, historic, and innovative city of London, the 36th World Nano Conference provides an inspiring backdrop for meaningful scientific exchange and global partnership. Researchers, professionals, and students are invited to join this influential community committed to harnessing nanotechnology’s immense potential to improve health, enhance industrial productivity, and create a more sustainable and technologically advanced world.

Sessions

Advanced Nanomaterials & Functional Surfaces

Advanced nanomaterials and functional surfaces are transforming scientific and industrial landscapes through their exceptional mechanical, electrical, optical, and catalytic properties. Research in this domain focuses on designing materials at the atomic and molecular scale to achieve superior performance in strength, conductivity, flexibility, and chemical reactivity. Functional surfaces engineered with nanoscale precision allow for self-cleaning, anti-corrosion, antimicrobial, and energy-harvesting capabilities, enabling breakthroughs across healthcare, aerospace, energy storage, coatings, and consumer technologies. Innovations include metamaterials, quantum-confined structures, plasmonic interfaces, and multifunctional hybrid composites. These engineered nanostructures play a crucial role in next-generation electronics, biomedical implants, advanced filtration systems, and sustainable manufacturing processes. Their unique ability to respond to light, heat, pressure, or chemical stimuli makes them ideal for smart devices and adaptive systems. Continued advancements in synthesis, characterization, and surface engineering are accelerating the transition from laboratory research to real-world applications, supporting a future driven by highly efficient, durable, and intelligent material technologies.

Nano-Medicine & Targeted Drug Delivery

Nano-medicine and targeted drug delivery represent one of the most impactful advances in modern healthcare, enabling precise therapeutic intervention at the molecular level. Nanocarriers such as liposomes, dendrimers, nanoparticles, micelles, and polymeric systems offer controlled release, improved solubility, and enhanced bioavailability of therapeutic agents. Their ability to accumulate in diseased tissues through passive or active targeting significantly reduces systemic toxicity while increasing treatment effectiveness. Cutting-edge approaches combine nano-enabled imaging, real-time tracking, and multifunctional diagnostic-therapeutic platforms for personalized medicine. Nanotechnology is revolutionizing cancer therapy, gene delivery, neurological treatment, infectious disease management, and vaccine development. Emerging innovations such as stimuli-responsive nanoparticles, immune-modulating nanocarriers, and biomimetic delivery systems open new pathways for precision therapeutics. Integration with AI, microfluidics, and molecular engineering enhances targeting accuracy and predictive modeling, accelerating the development of next-generation clinical solutions. With continuous research and regulatory progress, nano-medicine is shaping a future where therapies are safer, smarter, and tailored to individual patient needs.

Nano-Electronics & Quantum Devices

Nano-electronics and quantum devices are redefining the boundaries of speed, miniaturization, and computational power. Fabricating electronic components at the nanoscale enables ultra-fast processors, low-power chips, high-density memory, and transformative architectures beyond the limitations of classical semiconductor technology. Innovations such as quantum dots, nanowires, single-electron transistors, spintronic systems, and 2D materials are accelerating the evolution of quantum computing, neuromorphic circuits, and next-generation communication networks. These nanoscale devices harness quantum phenomena such as superposition, tunneling, and entanglement, enabling unprecedented capabilities for encryption, sensing, and data processing. Nano-electronics also supports advanced biomedical implants, flexible electronics, wearable systems, and edge-AI technologies. Integration of nanoscale fabrication with photonics, superconducting materials, and AI-driven modeling enhances device performance and reliability. As industries demand higher efficiency and greater computational potential, nano-electronics and quantum device engineering are driving a global shift toward intelligent, resilient, and energy-optimized digital infrastructure.

Carbon Nanotubes & Graphene Innovations

Carbon nanotubes and graphene continue to revolutionize material science due to their extraordinary strength, conductivity, flexibility, and lightweight composition. These carbon-based nanomaterials unlock unprecedented performance across electronics, energy storage, aerospace engineering, biomedical devices, and environmental applications. Graphene’s single-atom thickness and exceptional electron mobility support ultra-fast electronics, transparent conductive films, and next-generation sensors. Carbon nanotubes offer remarkable tensile strength and are pivotal in lightweight composites, nanoscale transistors, and advanced filtration systems. Breakthroughs in functionalization, scalable manufacturing, defect engineering, and hybrid material integration are expanding their commercial viability. Applications include high-performance batteries, supercapacitors, drug delivery carriers, smart coatings, and structural reinforcements. Their thermal, electrical, and optical properties also enable new platforms for quantum research, photonics, and flexible device fabrication. As production technologies advance and costs decrease, carbon nanotube and graphene innovations will accelerate global progress in sustainable materials and high-performance engineering.

Nanofabrication & Nanoscale Engineering

Nanofabrication and nanoscale engineering enable the precise construction of structures, devices, and systems at atomic and molecular dimensions. This field integrates top-down and bottom-up techniques, including lithography, etching, self-assembly, nanoimprinting, and molecular patterning to create functional components for electronics, biotechnology, photonics, and advanced materials. High-resolution manufacturing allows for the development of nanoscale transistors, quantum devices, biosensors, microfluidic interfaces, and optical components with exceptional accuracy. Innovations in 2D materials, metamaterials, and flexible substrates are driving breakthroughs in wearable devices, smart surfaces, and compact medical technologies. Nanoscale engineering advances also support energy harvesting, environmental monitoring, and materials with programmable properties. As fabrication tools evolve through AI-driven design, high-throughput automation, and hybrid manufacturing approaches, nanotechnology becomes increasingly scalable for industrial use. The continued progress of nanofabrication underpins the next generation of high-performance devices and intelligent systems.

Energy Nanotechnology & Storage Solutions

Energy nanotechnology fuels the development of highly efficient, sustainable, and compact energy systems through nanoscale enhancements in storage, conversion, and transmission. Nanostructured materials provide superior conductivity, catalytic activity, and mechanical stability, enabling advancements in lithium-ion batteries, solid-state batteries, hydrogen storage, and next-generation supercapacitors. Nano-engineered catalysts accelerate reactions in fuel cells, photovoltaic cells, and green hydrogen production, improving overall energy efficiency. Innovations such as graphene-based electrodes, metal–organic frameworks, nanostructured silicon, and perovskite nanomaterials are reshaping the global energy landscape. These materials enhance charge transport, reduce degradation, and increase storage capacity while supporting flexible and wearable energy devices. Energy nanotechnology also plays a vital role in clean energy systems, grid resilience, electric mobility, and decentralized power solutions. As demand grows for high-performance and environmentally responsible technologies, nanoscale energy solutions provide pathways for sustainable industrial and societal progress.

Nano-Sensors & Smart Diagnostics

Nano-sensors and smart diagnostic platforms enable ultra-sensitive detection of biological, chemical, and environmental signals with unmatched precision. Utilizing nanomaterials such as quantum dots, carbon nanotubes, metallic nanoparticles, and nanoscale transducers, these sensing systems capture minute changes in molecular interactions, enabling real-time monitoring and rapid diagnostics. Applications span medical imaging, disease screening, environmental surveillance, food safety, and industrial quality control. Nano-sensors enhance early detection of cancer, infectious diseases, metabolic disorders, and neurological conditions through high specificity and low detection limits. Integration with wireless networks, AI algorithms, and wearable technologies supports smart health monitoring and personalized medical interventions. Meanwhile, environmental nano-sensors assist in pollution tracking, water quality assessment, and hazardous material detection. As nanofabrication and signal amplification technologies evolve, nano-sensors continue to redefine diagnostic accuracy and accessibility, shaping a world where rapid, reliable, and intelligent sensing improves public health and operational efficiency.

Nanotoxicology & Safety Assessment

Nanotoxicology and safety assessment focus on understanding the interactions of nanomaterials with biological systems, ecosystems, and human health. As nanoscale materials become increasingly prevalent in medicine, consumer products, energy devices, and industrial processes, evaluating their potential risks is essential. Research examines how particle size, shape, charge, surface chemistry, and aggregation influence toxicity, cellular uptake, and long-term environmental effects. Advanced models, in vitro systems, organ-on-chip platforms, and computational simulations enable accurate prediction of biocompatibility and hazard profiles. Regulatory frameworks and global safety standards rely on scientific evidence from nanotoxicology to ensure responsible production, usage, and disposal of nanomaterials. This field also supports the design of safer, eco-friendly nanostructures through principles of green chemistry and risk-based engineering. By aligning safety science with innovation, nanotoxicology ensures that nanotechnology evolves with transparency, responsibility, and global trust, protecting public health while enabling continued technological progress.

Bio-Nanotechnology & Molecular Engineering

Bio-nanotechnology and molecular engineering merge biological systems with nanoscale science to create highly functional and intelligent technologies. This interdisciplinary field designs nano-bio interfaces, engineered biomolecules, and hybrid materials that mimic or enhance natural biological processes. Applications include targeted therapeutics, nano-enabled vaccines, biosensors, regenerative medicine, and smart biomaterials capable of responding to environmental cues. Molecular engineering enhances the precision of protein design, gene regulation, cellular manipulation, and enzyme activity, enabling breakthroughs in disease treatment, tissue growth, and metabolic control. Bio-nanotechnology also contributes to synthetic biology, drug discovery, agricultural improvements, and environmental solutions using biologically inspired nanostructures. Advancements in imaging, molecular modeling, and self-assembly accelerate the development of bio-hybrid systems with superior functionality. This rapidly evolving field is redefining the future of medicine, health monitoring, biotechnology, and engineered biological systems.

Nanophotonics & Optoelectronic Applications

Nanophotonics and optoelectronics explore the manipulation of light at the nanoscale to develop highly efficient, compact, and powerful optical technologies. Nanostructures such as plasmonic materials, photonic crystals, quantum dots, and 2D materials enable exceptional control over light–matter interactions. These advancements support innovations in high-speed communication systems, solar cells, LEDs, lasers, imaging techniques, and quantum photonic devices. Nanophotonics enhances data transmission rates, energy conversion efficiency, sensing accuracy, and optical resolution across scientific and industrial sectors. Optoelectronic devices integrated with nanoscale components enable flexible displays, wearable sensors, biomedical imaging, and smart optical chips. Emerging research explores hybrid optical-electronic systems, integrated photonic circuits, and light-driven computing for next-generation information technologies. With continued progress, nanophotonics is shaping the future of sustainable energy, medical diagnostics, quantum technologies, and high-performance communication networks.

Nano-Robotics & Intelligent Systems

Nano-robotics and intelligent nanosystems represent the frontier of autonomous, miniaturized technologies designed to operate with precision inside complex environments. These nanoscale machines can perform targeted drug delivery, tissue repair, biosensing, and molecular manipulation with remarkable accuracy. They are engineered using smart materials, magnetic components, biological motors, and programmable nanostructures that respond to chemical, thermal, or optical stimuli. Nano-robots hold tremendous potential for minimally invasive medicine, early disease intervention, environmental monitoring, and advanced manufacturing processes. By integrating AI algorithms, machine learning, and real-time sensing, intelligent nanosystems can navigate biological pathways, adapt to dynamic conditions, and execute controlled therapeutic actions. Research continues to expand the capabilities of swarm nano-robots, self-assembling devices, and hybrid bio-nano machines. These technologies promise transformative advancements in healthcare, industrial automation, and precision engineering.

Environmental Nanotechnology & Remediation

Environmental nanotechnology uses nanomaterials to detect, remove, and neutralize pollutants, supporting sustainable ecosystems and industrial practices. Engineered nanostructures such as metal oxides, carbon-based materials, nanosorbents, and catalytic nanoparticles can degrade contaminants, purify water, treat wastewater, and capture toxic gases with exceptional efficiency. Nanosensors provide real-time monitoring of air, soil, and water quality, enabling rapid response to environmental hazards. Nanotechnology enhances renewable energy systems, waste reduction, and climate resilience by enabling cleaner manufacturing and resource recovery. Advanced remediation strategies utilize photocatalysis, nanofiltration, nano-enabled bioremediation, and hybrid treatment systems to restore contaminated environments. As global sustainability demands increase, environmental nanotechnology offers powerful solutions for industrial pollution, agricultural runoff, emerging contaminants, and microplastic mitigation. Continued research ensures safe, scalable, and eco-friendly deployment of nanomaterials to protect natural resources.

Polymer Nanocomposites & Advanced Materials

Polymer nanocomposites combine polymer matrices with nanoscale fillers to create lightweight, durable, and multifunctional materials with significantly enhanced performance. Nanoparticles such as graphene, nanoclays, carbon nanotubes, metal oxides, and quantum dots impart superior strength, thermal stability, flame resistance, and electrical conductivity. These advanced materials offer immense value across automotive manufacturing, aerospace engineering, packaging, electronics, construction, and biomedical devices. Tailoring interfacial interactions, dispersion methods, and polymer chemistry enables the development of composites optimized for structural reinforcement, barrier properties, sensing functionality, and flexible electronics. Polymer nanocomposites also support sustainability through biodegradable matrices, recyclable components, and reduced material usage. Continuous advancements in scalable production, additive manufacturing, and nanofiller modification accelerate industrial adoption. With expanding applications, polymer nanocomposites continue shaping the next generation of high-performance and eco-conscious materials.

Nano-Coatings & Surface Modification

Nano-coatings and surface modification technologies enhance material performance by introducing nanoscale functionalities that improve durability, conductivity, hydrophobicity, biocompatibility, and chemical resistance. Engineered coatings deliver self-cleaning properties, anti-corrosion protection, antimicrobial action, UV shielding, and thermal management across medical devices, electronics, automotive components, textiles, and infrastructure. Nanostructured films enable optical clarity, mechanical reinforcement, and smart responsiveness to environmental stimuli. Surface modification techniques—including plasma treatments, chemical vapor deposition, atomic layer deposition, and nano-patterning—offer precise control over surface chemistry and topology. These enhancements extend product lifespan, reduce maintenance costs, and support energy-efficient designs. Nano-coatings play a crucial role in clean technology, biosensing, aerospace engineering, and wearable devices. As industries seek advanced, multifunctional materials, nanoscale surface engineering delivers transformative solutions that meet modern performance demands.

AI-Integrated Nanotechnology & Future Systems

AI-integrated nanotechnology merges computational intelligence with nanoscale innovation to create adaptive, predictive, and self-optimizing systems. Artificial intelligence accelerates nanomaterial design, manufacturing optimization, and performance forecasting by analyzing complex datasets and identifying novel configurations. AI-driven modeling enhances nanomedicine, drug delivery, energy storage, sensor accuracy, and material discovery through automated pattern recognition and predictive analytics. Intelligent nanosystems combine embedded sensors, autonomous response mechanisms, and machine learning algorithms to perform real-time diagnostics, environmental monitoring, and precision interventions. This convergence supports smart manufacturing, quantum engineering, next-generation robotics, and personalized healthcare. As digital technologies evolve, AI integration will play a central role in advancing nanoscale applications with unprecedented speed, accuracy, and scalability, shaping the future of intelligent materials and autonomous nanosystems.

Market Analysis

The global nanotechnology market is experiencing rapid expansion driven by transformative innovations across healthcare, electronics, energy, materials science, and environmental engineering. As industries push toward miniaturization, higher efficiency, and multifunctional performance, nanoscale technologies have become essential to next-generation products and systems. The market is projected to grow significantly over the next decade, fueled by massive investments in research and development, supportive government initiatives, and increasing commercial adoption of nanomaterials, nano-enabled devices, and smart nanosystems. Advancements in nanomaterials such as graphene, carbon nanotubes, quantum dots, metal nanoparticles, and 2D materials are enhancing strength, conductivity, flexibility, and biocompatibility, enabling breakthroughs in electronics, wearable devices, biomedical diagnostics, regenerative medicine, and aerospace components. In healthcare, nanotechnology is revolutionizing disease detection, drug delivery, imaging, and therapeutic solutions. Nano-medicines, targeted delivery systems, and nano-diagnostics are showing exceptional promise for cancer treatment, neurological disorders, cardiovascular diseases, and infectious diseases. The rise of personalized and precision medicine continues to push demand for nanoscale interventions that can deliver therapies with unprecedented specificity. The pharmaceutical and biotechnology industries are leveraging nano-formulations to improve drug solubility, stability, and controlled release, strengthening the market for biomedical nanotechnology. Meanwhile, growth in point-of-care diagnostics and nano-sensors supports a strong expansion in medical nanodevice markets, particularly with increasing global interest in early detection and remote monitoring technologies. Electronics and semiconductor sectors remain major contributors to nanotechnology commercialization. Nanoscale transistors, quantum dots, nano-optoelectronic materials, and nanofabrication techniques are powering smaller, faster, and more energy-efficient devices. With rising demand for high-speed communication, 5G/6G technologies, flexible electronics, and next-generation computing, nanoscale engineering continues to attract substantial investment. Quantum materials, neuromorphic chips, nanophotonic circuits, and advanced memory technologies are expected to drive future growth as global industries move toward ultra-compact, high-performance electronic systems.

Energy nanotechnology is another rapidly advancing domain. Nano-enabled solutions are improving energy storage, conversion, and sustainability. Nanostructured electrodes, solid-state electrolytes, and catalytic nanomaterials are enhancing battery capacity, lifespan, and safety, supporting electric vehicles, renewable storage systems, and portable electronics. In solar energy, nanotechnology enables more efficient photovoltaic cells, perovskite materials, and enhanced light absorption. Fuel cells, hydrogen storage, thermoelectric materials, and supercapacitors also benefit from nanoscale engineering, aligning with the global shift toward clean energy and decarbonization.

Past Conference Report

Nano 2025

The 35th World Nano Conference, set to take place on September 22-23, 2025, in Dubai, UAE, is a leading international event in the field of nanoscience and nanotechnology. This conference will bring together top researchers, industry professionals, and experts from around the world to explore the latest developments and innovations in the world of nanotechnology. The event will provide a dynamic platform for attendees to share their research, discuss cutting-edge applications, and delve into the future of nanotechnology across various sectors, including healthcare, electronics, energy, and environmental sustainability. With a focus on both theoretical research and practical applications, this conference will highlight advancements in nanomaterials Participants will have the opportunity to engage in engaging keynote sessions, research presentations, panel discussions, and exhibitions, making it the perfect venue for networking, learning, and exploring collaborations in the rapidly growing field of nanotechnology.

Highlights of the Conference

Keynote SessionsBe inspired by renowned leaders and innovators in nanoscience and nanotechnology who will share insights on critical issues, emerging trends, and ground breaking discoveries shaping the future of the field. These talks will provide valuable perspectives on challenges and opportunities in nanotechnology, offering attendees the chance to learn from experts and gain inspiration for advancing their own research and applications.

Research Presentations

Dive into the forefront of nanoscience through engaging oral and poster presentations. Explore cutting-edge advancements in nanomaterials, environmental nanotechnology, and other emerging fields. These presentations provide a comprehensive overview of the current state of nanotechnology, offering valuable insights into its transformative potential across various industries. Attendees will gain a deeper understanding of innovative research and future applications, driving advancements in technology, sustainability, and science.