47th BALI World Congress on “Chemical, Biological & Environmental Engineering” (WCBEE-25) scheduled on Dec. 25-27, 2025 Bali (Indonesia)

WCBEE-25


Chemical & Material Sciences (General) Chemical Kinetics & Catalysis Bioinformatics & Computational Biology Molecular Biology Cell Biology Developmental Biology & Embryology Evolutionary Biology Microbiology Biodiversity & Conservation Biology Bioinformatics & Computational Biology



Topics/Call for Papers



So, Topics of Interest for Submission include, but are Not Limited to:



I. Chemical Engineering Fundamentals & Process Intensification




  • Reaction Engineering & Catalysis:


    • Advanced catalysts for sustainable chemical processes (e.g., heterogeneous, homogeneous, biocatalysis).

    • Novel reactor design and process intensification (e.g., microreactors, intensified separations).

    • Reaction kinetics and thermodynamics for complex systems.

    • Electrocatalysis and photocatalysis for chemical synthesis.



  • Separation Processes:

    • Advanced membrane technologies (e.g., nanofiltration, reverse osmosis, gas separation membranes).

    • Adsorption and chromatography for purification and separation.

    • Distillation and absorption enhancements.

    • Hybrid separation processes.



  • Process Design, Simulation & Control:

    • Process modeling and simulation (e.g., Aspen Plus, gPROMS, CFD).

    • Process optimization and control for efficiency and safety.

    • Process integration and pinch analysis for energy efficiency.

    • Digital Twins and Industry 4.0 in chemical processes.



  • Transport Phenomena:

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

    • Multiphase flows and granular materials.

    • Computational Fluid Dynamics (CFD) applications.



  • Thermodynamics & Phase Equilibria:

    • Advanced thermodynamic models for non-ideal systems.

    • Phase equilibria in diverse chemical and biological mixtures.





II. Biological Engineering & Biotechnology




  • Bioprocess Engineering:


    • Fermentation and bioreactor design and optimization.

    • Downstream processing and bioseparation.

    • Biomanufacturing for pharmaceuticals, biofuels, and bioproducts.

    • Cell-free bioprocessing.



  • Synthetic Biology & Metabolic Engineering:

    • Designing and engineering novel biological systems and pathways.

    • Metabolic pathway engineering for enhanced product yields.

    • CRISPR-based technologies for genetic engineering.

    • Biosensors and synthetic gene circuits.



  • Tissue Engineering & Regenerative Medicine:

    • Bioprinting of tissues and organs.

    • Biomaterials for tissue scaffolds and implants.

    • Stem cell engineering and applications.

    • Cellular therapies and gene delivery systems.



  • Biomaterials & Nanobiotechnology:

    • Design and synthesis of biocompatible materials.

    • Nanoparticles and nanomaterials for drug delivery and diagnostics.

    • Bio-inspired materials and biomimetics.



  • Environmental Biotechnology:

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

    • Bioenergy production from waste biomass.

    • Microbial fuel cells and bioelectrochemical systems.

    • Algae biotechnology for CO2 capture and bioproducts.



  • Bioinformatics & Computational Biology:

    • Modeling and simulation of biological systems.

    • Omics data analysis (genomics, proteomics, metabolomics).

    • Machine learning for biological data interpretation.





III. Environmental Engineering & Sustainability




  • Water & Wastewater Treatment:


    • Advanced oxidation processes (AOPs) for recalcitrant pollutants.

    • Membrane filtration for water purification and desalination.

    • Resource recovery from wastewater (nutrients, energy, water reuse).

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

    • Nature-based solutions for water management.



  • Air Pollution Control & Management:

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

    • Catalytic converters and advanced scrubbers for industrial emissions.

    • Indoor air quality technologies.

    • Monitoring and modeling of atmospheric pollutants.



  • Solid Waste Management & Resource Recovery:

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

    • Anaerobic digestion for organic waste.

    • Recycling and upcycling of materials.

    • Circular economy principles in waste management.



  • Contaminated Land & Soil Remediation:

    • Physical, chemical, and biological remediation techniques.

    • Risk assessment and management of contaminated sites.

    • Sustainable land use and rehabilitation.



  • Climate Change Mitigation & Adaptation:

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

    • Greenhouse gas emission reduction strategies.

    • Climate-resilient infrastructure.

    • Sustainable energy systems for decarbonization.



  • Environmental Monitoring & Sensing:

    • Development of advanced environmental sensors.

    • Remote sensing and GIS for environmental assessment.

    • IoT networks for real-time environmental monitoring.





IV. Cross-Cutting & Interdisciplinary Themes




  • Green Engineering & Sustainable Design:


    • Principles of green chemistry and engineering.

    • Design for sustainability and eco-efficiency.

    • Industrial symbiosis and eco-industrial parks.



  • Process Safety & Risk Management:

    • Hazard identification and risk assessment in chemical and biological processes.

    • Inherently safer design.

    • Environmental risk management.



  • Nanotechnology in Environmental & Biomedical Applications:

    • Nanomaterials for water treatment, sensing, and targeted drug delivery.

    • Environmental implications and toxicology of nanomaterials.



  • AI, Machine Learning & Data Analytics in C.B.E. Engineering:

    • AI for process optimization, fault detection, and predictive maintenance.

    • ML for modeling complex environmental systems (e.g., water quality prediction).

    • Data analytics for biological insights and drug discovery.



  • Ethics & Policy in C.B.E. Engineering:

    • Ethical considerations in genetic engineering and biotechnology.

    • Environmental regulations and policy development.

    • Public perception and engagement in controversial technologies.



  • Circular Bioeconomy:

    • Integrated biorefineries for sustainable production of chemicals, materials, and fuels from biomass.

    • Valorization of waste streams into high-value products.



  • Education in Chemical, Biological & Environmental Engineering:

    • Curriculum development for future engineers (e.g., sustainability, digital skills).

    • Innovative teaching methods and hands-on learning experiences.

    • Addressing the skills gap for emerging industries.