Call for papers/Topics



Full Articles/ Reviews/ Shorts Papers/ Abstracts are welcomed in the following research fields:



I. Nanotechnology 




  • Nanomaterials Synthesis and Fabrication:


    • Green synthesis methods for nanomaterials (e.g., bio-inspired, sustainable routes).

    • Self-assembly and hierarchical assembly of nanomaterials.

    • Advanced nanofabrication techniques (e.g., 3D printing at nanoscale, lithography).

    • Synthesis of specific nanomaterials: nanoparticles (metal, metal oxide, quantum dots), nanotubes (carbon, inorganic), nanowires, nanofilms, 2D materials (graphene, MXenes, TMDs), nanocomposites.



  • Nanomaterials Characterization:

    • Advanced microscopy techniques (TEM, SEM, AFM, STM).

    • Spectroscopic methods (XPS, XRD, FTIR, Raman, UV-Vis).

    • Thermal analysis, rheology, and mechanical testing at the nanoscale.

    • Computational and theoretical modeling of nanomaterials.



  • Fundamental Nanoscale Phenomena:

    • Quantum effects in nanomaterials.

    • Surface chemistry and interface phenomena at the nanoscale.

    • Understanding size-dependent properties (optical, electrical, magnetic, mechanical).





II. Materials Science & Engineering




  • Advanced Materials:


    • Functional materials (e.g., smart materials, self-healing materials).

    • Biomaterials and biocompatible materials.

    • Energy materials (e.g., for batteries, fuel cells, solar cells).

    • Electronic and magnetic materials.

    • Advanced composites and nanocomposites.

    • Coatings and thin films.

    • Catalytic materials.



  • Sustainable Materials:

    • Bio-based polymers and bioplastics.

    • Recycled and upcycled materials.

    • Biodegradable and compostable materials.

    • Circular economy approaches in materials design and production.

    • Life cycle assessment (LCA) of materials.



  • Materials Processing and Manufacturing:

    • Green manufacturing processes.

    • Additive manufacturing (3D printing) of advanced materials.

    • Surface engineering and modification.

    • Waste treatment and recycling processes for materials.





III. Environmental Sciences & Applications




  • Environmental Nanotechnology:


    • Water Purification and Treatment:


      • Nanofiltration and membrane technologies.

      • Nanosorbents for pollutant removal (heavy metals, organic pollutants, dyes).

      • Photocatalysis for water decontamination.

      • Nanomaterials for pathogen detection and inactivation.

      • Wastewater treatment and resource recovery using nanomaterials.



    • Air Pollution Control:

      • Nano-enabled filters for particulate matter and volatile organic compounds (VOCs).

      • Nanocatalysts for gas phase pollutant degradation.

      • Nanosensors for real-time air quality monitoring.



    • Soil and Groundwater Remediation:

      • Nanoremediation techniques (e.g., nanoscale zero-valent iron for organic and inorganic contaminants).

      • Nanomaterials for bioremediation and phytoremediation enhancement.



    • Waste Management and Resource Recovery:

      • Nanotechnology for waste valorization and energy recovery.

      • Recycling and upcycling of nanomaterials.





  • Environmental Monitoring and Sensing:

    • Nanosensors for detecting a wide range of environmental pollutants (gases, heavy metals, pesticides, pharmaceuticals, microorganisms).

    • Smart monitoring systems integrating nanotechnology with IoT and AI.

    • Bio-inspired sensors for environmental applications.



  • Sustainable Energy Technologies:

    • Nanomaterials for improved solar energy conversion and storage.

    • Nanomaterials for hydrogen production and fuel cells.

    • Energy harvesting and energy efficiency using nanotechnology.



  • Environmental Impact and Safety of Nanomaterials (EHS):

    • Nanotoxicity and eco-toxicity of nanomaterials.

    • Risk assessment and life cycle considerations of nanomaterials.

    • Regulatory frameworks and ethical considerations for nanotechnology.

    • Safe synthesis, handling, and disposal of nanomaterials.



  • Climate Change Mitigation:

    • Carbon capture, utilization, and storage (CCUS) using nanomaterials.

    • Nanotechnology for greenhouse gas reduction.





IV. Cross-Cutting & Emerging Topics




  • Computational Materials Science and Nanotechnology for Environmental Applications:


    • AI and machine learning in nanomaterial design and environmental modeling.

    • Molecular dynamics and ab initio simulations for environmental systems.



  • Nanobiotechnology for Environmental Applications:

    • Integration of nanotechnology with biology for environmental solutions.

    • Biosensors and bioremediation using nano-bio interfaces.



  • Policy, Regulations, and Societal Impact:

    • Standardization and regulation of nanotechnology in environmental applications.

    • Public perception and societal acceptance of nanotechnologies.

    • Economic and commercial aspects of nanotechnology in environmental solutions.