38th PARIS International Congress on Chemical, Biological & Environmental Engineering Research (CBEER-26) July 20-22, 2026 Paris (France)

CBEER-26


Biochemistry Environmental Sciences



Call for Papers: CBEER-26



 



All Abstracts, Reviews, short articles, Full articles, Posters are welcomed related with any of the following research fields:



1. Core Engineering Foundations (Interrelated)



These topics serve as the "common language" for all three disciplines.





  • Transport Phenomena: The study of momentum (fluid mechanics), energy (heat transfer), and mass transfer.




  • Thermodynamics: Energy balances, phase equilibria, and chemical reaction energetics.




  • Reaction Engineering: Design and optimization of reactors for chemical or biological processes.




  • Process Control & Dynamics: Using sensors and mathematical models to maintain stability in a system.




  • Material and Energy Balances: The fundamental accounting of inputs, outputs, and accumulations.





2. Chemical Engineering (ChE)



Focuses primarily on the large-scale production of chemicals, fuels, and materials.





  • Separation Processes: Distillation, absorption, extraction, and membrane filtration.




  • Petrochemical Engineering: Refining crude oil and natural gas processing.




  • Polymer & Materials Science: Synthesis of plastics, composites, and advanced nanomaterials.




  • Process Intensification: Making chemical plants smaller, safer, and more efficient.




  • Catalysis: Developing substances to speed up chemical reactions without being consumed.





3. Biological Engineering (BioE)



Applies engineering principles to living systems and biological materials.





  • Bioprocess Engineering: Large-scale cultivation of bacteria, yeast, or mammalian cells (e.g., for vaccines).




  • Metabolic Engineering: Modifying genetic pathways to produce specific chemicals or biofuels.




  • Biomedical Engineering:





    • Tissue Engineering: Growing replacement organs or scaffolds.




    • Pharmacokinetics: Modeling how drugs move through the human body.






  • Bioinformatics: Using computational tools to analyze biological data (genomics/proteomics).




  • Food Engineering: Processing, preservation, and packaging of food products.





4. Environmental Engineering (EnvE)



Focuses on protecting human health and the environment through technical solutions.





  • Water & Wastewater Treatment: Design of systems to purify drinking water and treat industrial/municipal waste.




  • Air Quality Engineering: Monitoring and controlling industrial emissions and particulate matter.




  • Solid & Hazardous Waste Management: Remediation of contaminated soil and landfill engineering.




  • Sustainability & Life Cycle Assessment (LCA): Quantifying the environmental "footprint" of a product from "cradle to grave."




  • Hydrology & Water Resource Management: Managing the distribution and quality of groundwater and surface water.





5. Major Intersections (Interrelated Topics)



This is where the three disciplines overlap to solve complex global challenges.




  • Green Chemistry, Carbon Capture and Sequestration (CCS), Industrial Ecology.




  • Bioremediation (using microbes to clean spills), Waste-to-Energy, Bio-filtration.




  • Pharmaceutical Manufacturing, Synthetic Biology, Biomaterials for drug delivery.




  • Sustainable Biofuels, Circular Economy systems, Global Climate Modeling.