| Objective | Description | |-----------|-------------| | | Shows how mass and energy balances, thermodynamics, and transport phenomena are applied to biological systems. | | Develop a Systematic Approach to Bioprocess Design | Presents a step‑by‑step methodology: conceptual design → kinetic modeling → reactor selection → scale‑up → control and optimization. | | Emphasize Modeling and Simulation | Provides detailed derivations of kinetic models (Monod, Andrews, substrate inhibition) and tools for computational analysis. | | Address Process Economics and Sustainability | Discusses cost estimation, life‑cycle analysis, and the role of bioprocesses in green manufacturing. | | Prepare Readers for Real‑World Applications | Includes case studies (e.g., antibiotic production, recombinant protein expression, biofuel fermentation). |
You can often "borrow" a digital version of the first edition legally for free. Used Copies: | Objective | Description | |-----------|-------------| | |
Bioprocess engineering is a vital field that combines engineering principles with biology and chemistry to develop innovative solutions for the production of valuable products from biological systems. By understanding the principles of bioprocess engineering, engineers can design, optimize, and operate bioprocesses to manufacture a wide range of products. | | Address Process Economics and Sustainability |