Scale-up and Technology Transfer

Process Chemistry Training Programs

Process Chemistry Training Programs are designed to equip professionals with the knowledge and practical skills required for successful process development, scale-up, technology transfer, manufacturing excellence, and regulatory compliance in the pharmaceutical and chemical industries.

Learning Outcomes

Upon completion of the program, participants will be able to:

• Develop robust, scalable, and cost-effective chemical processes through systematic route selection, process optimization, and scale-up strategies.
• Improve technical problem-solving capabilities in process development, impurity control, crystallization, and technology transfer.
• Apply process safety, risk management, and regulatory principles to support reliable process development and manufacturing excellence.

Core Training Modules

The training programs cover the key technical areas essential for successful process development, scale-up, technology transfer, and manufacturing excellence.

1. Route Selection and Process Optimization

• Route scouting and feasibility assessment.
• Reagent and solvent selection.
• IP landscape and route differentiation.
• Design of Experiments (DoE) based process optimization.
• In-process control strategy development.
• Raw material cost optimization.

2. Downstream Operations and Product Isolation

• Design practical and scalable downstream processes.
• Work-up and impurity removal strategies.
• Product isolation and recovery optimization.
• Solvent management and process efficiency.
• Safety and robustness in downstream operations.

3. Scale-up and Technology Transfer

• Scale-up principles and associated challenges.
• Documentation and knowledge transfer for successful scale-up and technology transfer.
• Process validation and robustness assessment.
• Process troubleshooting during manufacturing.

4. Process Safety and Risk Management

• Reaction hazard assessment.
• Thermal safety considerations.
• Safe scale-up practices.
• Quality Risk Management (QRM).

5. Contained Chemistry for Potent APIs

• Categorization and Occupational Exposure Bands (OEBs) for potent compounds.
• Process development considerations for potent and highly potent APIs.
• Facility design and containment controls for safe handling and manufacturing operations.
• Cleaning validation, decontamination procedures, and cross-contamination control.
• Risk assessment, PPE strategy, and safe operational practices.
• Industrial case studies and regulatory expectations.

6. Crystallization and Polymorphism

• Crystallization process development.
• Preparation and control of API solid forms including salts, co-crystals, solvates, hydrates, and amorphous forms.
• Polymorph screening of APIs.
• Particle properties and process performance.
• Solid-state characterization.

7. Practical Impurity Management

• Assessment of potential impurities during manufacturing and storage.
• Impurity source identification and control strategies.
• Genotoxic and nitrosamine impurity management.
• Establishing impurity thresholds and specifications according to ICH guidelines.
• Synthesis and qualification of impurity standards.

8. Structure Elucidation and Characterization

• Spectroscopic techniques including NMR, MS, IR, and related analytical methods.
• Structural confirmation of intermediates, products, and impurities.
• Interpretation of spectroscopic and analytical data.
• Characterization of process-related impurities.
• Characterization of polymorphs, solvates, hydrates, and amorphous forms.
• Practical industrial case studies.

9. Quality Systems and Regulatory Compliance

• ICH and FDA guidelines and regulatory expectations.
• Data integrity and documentation practices.
• Quality by Design (QbD) principles.
• GMP considerations in process development and manufacturing.
• Chemistry, Manufacturing, and Controls (CMC) for regulatory submissions.

10. Green Chemistry for Sustainable Process Development and Manufacturing

• Principles of green chemistry.
• Route selection for sustainable and resource-efficient processes.
• Reduction of waste, emissions, and Process Mass Intensity (PMI).
• Energy-efficient process design and manufacturing practices.
• Greener reagents, catalysts, and process alternatives.
• Green chemistry metrics including E-factor, Atom Economy, and PMI.
• Industrial case studies in sustainable process development.

11. Advanced Process Technologies

• Flow chemistry fundamentals.
• Process intensification concepts.
• Continuous processing opportunities.
• Process Analytical Technology (PAT) for monitoring and control.
• Industrial case studies.

Training Delivery Formats

• Online Training Programs
• In-House Corporate Training
• Workshops and Seminars
• Case Study Discussions
• Customized Training Programs

Who Should Attend?

• Process R&D Scientists
• Medicinal and Synthetic Chemists
• Scale-up and Technology Transfer Teams
• Production and Manufacturing Chemists
• Quality Assurance and Regulatory Professionals

About the Trainer

Dr. P. Muni Bhaskar, Founder of Dr. Bhaskar's Process Solutions, has over 21 years of industrial experience in pharmaceutical process development and manufacturing.

His expertise spans Process R&D, Scale-up, Technology Transfer, Impurity Management, Process Safety, Quality Systems, and Regulatory Compliance. The training programs are built on practical industrial experience, real-world challenges, and industry-focused case studies to provide participants with actionable knowledge that can be directly applied in their professional roles.