Protein purification is a critical bottleneck in biopharmaceutical manufacturing. Novel membrane-based bioseparation technologies offer a promising, continuous, and scalable alternative to traditional methods, addressing limitations in throughput and selectivity.

Shear stress management is critical in bioprocessing, as excessive mechanical forces can disrupt cell viability and trigger apoptosis. This article details strategies for optimizing impeller design, gas dispersion, and process control to maintain optimal conditions in shear-sensitive cultures.

This article details the critical operational strategies required to maximize product titer in a chemostat system, focusing on precise control of dilution rate, substrate feeding, and continuous product recovery to overcome metabolic limitations and inhibition.

This article explores the fundamental electrochemical principles governing the interaction between metal ions, nitrogen species, and biological systems. It details how controlled potential electrolysis can be used to study redox reactions critical to life, such as those involving Fe(III) and N2, and discusses the influence of pH and ion concentration on these processes.

This article explores the critical design and operational strategies required for closed Photobioreactors (PBRs) to maximize microalgal biomass productivity and lipid accumulation for biofuel applications.

The purification of viral particles (virions) from complex biological matrices is a critical bottleneck in biopharmaceutical manufacturing. Advanced techniques like SEC, IEX, AC, and TFF are employed to achieve high purity and concentration while removing host contaminants.

This article explores advanced control strategies for bioreactors, focusing on predictive modeling and Reinforcement Learning (RL) to maintain optimal operational states. By predicting critical variables and learning optimal policies, these systems enable proactive adjustments, significantly improving process stability and yield.

This article details advanced wastewater treatment processes, focusing on biological nutrient removal (BNR) mechanisms like nitrification, denitrification, and enhanced biological phosphorus removal (EBPR), coupled with membrane separation technologies (MBR) to achieve high-quality effluent suitable for reuse.

This article explores advanced material design strategies, including functionalized carbon materials and Metal-Organic Frameworks (MOFs), for achieving highly selective binding and recovery of charged bioproducts from complex mixtures.

Biocatalytic processes are cornerstones of sustainable biotechnology, but conventional batch reactors face limitations in productivity and mass transfer. Process Intensification (PI) techniques, including enzyme immobilization, microreactor technology, and continuous culture systems, are essential for achieving scalable, efficient, and sustainable biomanufacturing platforms.