Call for papers/Topics Full Articles/ Reviews/ Shorts Papers/ Abstracts are welcomed in the following research fields: 1. Core Independent Foundations These are the fundamental engineering and scientific pillars. While they inform all three branches, they exist as distinct academic and practical bodies of knowledge. Thermodynamics and Kinetics Classical and statistical thermodynamics Phase equilibria and chemical reaction equilibria Homogeneous and heterogeneous reaction kinetics Catalysis and reactor design Transport Phenomena Fluid mechanics (momentum transfer, rheology, and multiphase flow) Heat transfer (conduction, convection, and radiation in industrial systems) Mass transfer (diffusion, convective mass transport, and boundary layer theory) Microbiology and Biochemistry Cell structure, function, and metabolic pathways Enzyme kinetics and inhibition Genetics and molecular biology foundations Environmental Chemistry and Ecology Aquatic, atmospheric, and terrestrial chemistry Ecosystem dynamics, biodiversity, and nutrient cycling (Carbon, Nitrogen, Phosphorus cycles) Ecotoxicology and pollutant behavior 2. Chemical Engineering This domain focuses on transforming raw materials into valuable products through chemical and physical processes. Separation Processes Distillation, absorption, and stripping Liquid-liquid extraction and leaching Membrane separations (reverse osmosis, ultrafiltration) Adsorption and ion exchange Process Systems Engineering Process design, synthesis, and intensification Process dynamics, optimization, and control systems Plant safety, hazard analysis (HAZOP), and risk assessment Materials and Polymer Engineering Polymerization kinetics and processing Nanomaterials and biomaterials synthesis Corrosion, degradation, and materials selection 3. Biological and Bioprocess Engineering This domain applies engineering principles to living systems, organisms, and biological molecules. Bioreactor Engineering Design and scale-up of fermenters and bioreactors (stirred-tank, airlift, fluidized bed) Batch, fed-batch, and continuous cultivation strategies Aeration, agitation, and mass transfer limitations in biological fluids Downstream Processing (Bioseparations) Cell disruption and centrifugation Chromatographic separations (affinity, ion-exchange, size-exclusion) Lyophilization and formulation of biologics Biomolecular and Genetic Engineering Recombinant DNA technology and metabolic engineering Synthetic biology and pathway design Tissue engineering and cellular therapies 4. Environmental Engineering This domain focuses on protecting human health and minimizing the human footprint on the biosphere. Water and Wastewater Treatment Physical-chemical treatment processes (coagulation, sedimentation, filtration, disinfection) Biological wastewater treatment (activated sludge, anaerobic digestion, biofilm reactors) Advanced oxidation processes and desalination Air Pollution Control and Air Quality Particulate matter control (cyclones, electrostatic precipitators, fabric filters) Gaseous pollutant control (scrubbers, absorption, catalytic converters) Atmospheric dispersion modeling Solid and Hazardous Waste Management Landfill design and leachate management Hazardous waste stabilization and incineration Nuclear waste disposal and containment 5. Highly Interrelated & Interdisciplinary Domains These topics sit directly at the intersections of Chemical, Biological, and Environmental Engineering, merging them into modern sustainable practices. Bioremediation and Phytoremediation (Biological + Environmental) Using microbes or plants to degrade environmental contaminants (oil spills, heavy metals, plastics) In-situ versus ex-situ bio-treatment of soil and groundwater Sustainable and Green Chemical Engineering (Chemical + Environmental) Life Cycle Assessment (LCA) and carbon footprinting Atom economy, benign solvent selection, and waste minimization at the source Renewable energy storage (batteries, fuel cells, hydrogen economy) The Circular Bioeconomy (Chemical + Biological + Environmental) Biorefineries: Converting biomass and agricultural waste into biofuels, bioplastics, and platform chemicals Carbon capture, utilization, and storage (CCUS) via chemical and biological routes (e.g., algal carbon sequestration) Waste-to-energy technologies (gasification, pyrolysis, hydrothermal liquefaction) Biosensors and Environmental Diagnostics (Biological + Chemical + Environmental) Development of metabolic and enzymatic sensors for real-time pollutant tracking Microfluidics and "lab-on-a-chip" devices for field testing water and soil safety