58th BANGKOK International Conference on “Chemical, Biological & Environmental Engineering” (BCBEE-25) Dec. 22-24, 2025 Bangkok (Thailand)

BCBEE-25


Chemical & Material Sciences (General) Environmental & Geological Engineering Bioinformatics & Computational Biology Molecular Biology Environmental & Geological Engineering Environmental Sciences Biodiversity & Conservation Biology Environmental & Occupational Medicine Environmental Law & Policy



Call for papers/Topics



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



I. Chemical Engineering




  • Process Intensification & Design:


    • Modular and intensified chemical processes.

    • Microreactors and lab-on-a-chip systems.

    • Advanced separation technologies (membranes, adsorption, reactive distillation).

    • Process modeling, simulation, and optimization (including AI/ML applications).

    • Sustainable process design and green engineering principles.



  • Catalysis & Reaction Engineering:

    • Novel catalyst development (nanocatalysts, biocatalysts, single-atom catalysts).

    • Catalysis for sustainable energy (e.g., hydrogen production, CO2 conversion).

    • Advanced reaction kinetics and reactor design.

    • Photocatalysis and electrocatalysis.



  • Materials Science & Engineering (Chemical Aspects):

    • Advanced functional materials (polymers, ceramics, composites).

    • Nanomaterials synthesis and characterization for specific applications.

    • Smart materials (self-healing, responsive materials).

    • Materials for energy storage and conversion.

    • Bio-based and biodegradable materials.



  • Thermodynamics & Transport Phenomena:

    • Advanced thermodynamic modeling and simulation.

    • Fluid mechanics, heat transfer, and mass transfer in complex systems.

    • Multiphase flow and interfacial phenomena.

    • Computational Fluid Dynamics (CFD) for process analysis.



  • Petroleum & Petrochemical Engineering (Sustainable Aspects):

    • Cleaner production technologies in the oil and gas industry.

    • Conversion of CO2 to chemicals and fuels.

    • Valorization of refinery by-products.





II. Biological Engineering / Biochemical Engineering




  • Bioprocess Engineering:


    • Bioreactor design and optimization for microbial and cell cultures.

    • Upstream and downstream processing in biomanufacturing.

    • Bioseparations and purification technologies.

    • Process analytical technology (PAT) for bioprocesses.



  • Synthetic Biology & Metabolic Engineering:

    • Designing and engineering biological systems for novel functions.

    • Metabolic pathway engineering for biosynthesis of chemicals, fuels, and pharmaceuticals.

    • CRISPR-based technologies for genetic manipulation.

    • Biosensors and diagnostic tools development.



  • Biomaterials & Regenerative Medicine:

    • Design and fabrication of biomaterials for tissue engineering and drug delivery.

    • Scaffolds for regenerative medicine and organ-on-a-chip systems.

    • Bio-nanotechnology and nanomedicine.

    • Biocompatibility and surface modification of materials.



  • Biofuels & Bioenergy:

    • Algal biofuels and advanced lignocellulosic biomass conversion.

    • Biorefineries for integrated production of fuels, chemicals, and materials.

    • Anaerobic digestion and biohydrogen production.

    • Techno-economic analysis of bioenergy systems.



  • Food & Agricultural Engineering (Biochemical aspects):

    • Bioprocessing for food ingredients and supplements.

    • Sustainable food production and precision agriculture.

    • Waste valorization in food processing.

    • Novel food technologies (e.g., cultivated meat).



  • Environmental Biotechnology:

    • Bioremediation of contaminated sites (soil, water, air).

    • Microbial fuel cells and bioelectrochemical systems.

    • Biotechnology for waste treatment and resource recovery.





III. Environmental Engineering




  • Water Resources & Wastewater Treatment:


    • Advanced water purification technologies (membranes, advanced oxidation processes).

    • Desalination and water reuse.

    • Removal of emerging contaminants (pharmaceuticals, microplastics, PFAS).

    • Resource recovery from wastewater (nutrients, energy).

    • Smart water networks and real-time monitoring.



  • Air Pollution Control:

    • Carbon Capture, Utilization, and Storage (CCUS) technologies.

    • Emission control for industrial and mobile sources.

    • Indoor air quality and air pollution modeling.

    • Technologies for removal of VOCs, NOx, SOx, and particulate matter.



  • Solid Waste Management & Resource Recovery:

    • Waste-to-energy technologies (incineration, pyrolysis, gasification).

    • Sustainable landfill management.

    • Recycling and recovery of critical raw materials.

    • Circular economy principles for waste minimization.

    • Valorization of waste into valuable products.



  • Environmental Modeling & Risk Assessment:

    • Pollutant transport and fate modeling in environmental systems.

    • Climate change modeling and impact assessment.

    • Life Cycle Assessment (LCA) for products and processes.

    • Environmental risk assessment and management.



  • Sustainable Cities & Infrastructure:

    • Green building materials and energy-efficient building design.

    • Sustainable urban planning and smart city solutions.

    • Nature-based solutions for urban water management and climate adaptation.

    • Environmental impact assessment for infrastructure projects.



  • Remediation Technologies:

    • Phytoremediation, bioremediation, and chemical remediation of contaminated soil and groundwater.

    • Sediment remediation techniques.





IV. Cross-Cutting & Interdisciplinary Themes




  • Sustainable Development & Circular Economy:


    • Integration of chemical, biological, and environmental engineering for sustainable development.

    • Industrial symbiosis and eco-industrial parks.

    • Policy and economic aspects of green technologies.



  • Computational & Data-Driven Approaches:

    • Artificial Intelligence (AI) and Machine Learning (ML) in all sub-disciplines (e.g., process optimization, material design, environmental forecasting).

    • Big data analytics for complex engineering systems.

    • Digital Twins for process monitoring and optimization.

    • Computational chemistry and biology for molecular design.



  • Nanotechnology in C, B, & E Engineering:

    • Nanomaterials for catalysis, separation, sensing, and environmental remediation.

    • Health and environmental implications of nanomaterials.



  • Safety, Health & Risk Management:

    • Process safety and inherently safer design.

    • Occupational health and safety in chemical and biological industries.

    • Risk assessment for novel technologies and processes.



  • Education & Professional Development:

    • Curriculum development for modern chemical, biological, and environmental engineers.

    • Hands-on learning, simulations, and virtual labs.

    • Ethics in engineering and sustainable practices.

    • Training for the future workforce in these evolving fields.



  • Policy, Regulations & Standards:

    • Environmental regulations and their impact on technological development.

    • International collaborations for addressing global environmental issues.

    • Standardization in green technologies and sustainable practices.