How Industry Collaborations Make Pharmaceutical Education More Practical

India currently ranks 11th in the world in pharmaceutical exports by value, according to the Economic Survey 2025–26. Indian medicines reached 191 countries in 2024–25, and half of these exports went to highly regulated markets such as the United States and Europe. (Press Information Bureau)

This large global role creates a simple challenge for pharmaceutical education. Students cannot prepare for modern pharma work only by reading textbooks. They must understand laboratories, regulations, documentation, product quality and industrial problem-solving.

This is where collaborations between universities and pharmaceutical companies become useful. They bring students closer to the actual conditions in which medicines are researched, tested and produced.

An M.Pharma classroom teaches important subjects such as formulation development, pharmacology, quality assurance, analysis and research methods. This knowledge gives students a strong base.

However, an industrial laboratory works under different conditions. Every sample must be handled correctly. Instruments must follow standard procedures. Observations must be recorded properly. Even a small mistake in documentation or sample preparation can affect the final result.

Industry exposure helps students understand these practical details. They begin to see why concepts like validation, stability, purity, safety and consistency matter outside an examination.

Students also learn that pharmaceutical work is rarely completed by one person. Scientists, manufacturing teams, quality professionals and regulatory experts must work together before a medicine reaches patients.

A useful collaboration does much more than place a company logo on an event poster. It gives students contact with current working methods and real professional expectations.

Such collaborations may support students through:

• Guest sessions conducted by formulation scientists, production professionals and quality experts
• Industrial visits to observe manufacturing, packaging and testing processes
• Internships where students work under professional supervision
• Joint research projects based on practical pharmaceutical problems
• Workshops on instruments, regulations, documentation and laboratory safety

These activities make difficult topics easier to understand. For example, dissolution testing may look like only a laboratory experiment in class. An industry professional can explain how the result affects drug release, product consistency and regulatory approval.

Industry-linked learning can build both technical and professional ability.

Students may develop practical knowledge in:

• Preparing and handling samples without contamination
• Operating analytical instruments under trained guidance
• Reading chromatograms, spectra, graphs and test reports
• Following standard operating procedures
• Maintaining laboratory notebooks and research records
• Studying failed results instead of hiding or ignoring them
• Presenting findings to technical and non-technical teams

These skills are useful across research and development, quality control, quality assurance, production, regulatory affairs and clinical research.

Yes, especially when students get access to real research questions.

Industry professionals may share problems related to drug stability, delivery systems, process improvement, material behaviour or quality testing. Faculty members can convert these issues into suitable academic projects.

Students then learn to form a research question, select a method, study evidence and interpret results. They also understand that research does not always give a successful result on the first attempt.

Advanced material-testing facilities can further support this process. For example, Parul University’s Micro–Nano Research & Development Centre serves pharmaceutical and other industrial users and provides access to instruments such as SEM, XRD and AFM for research-based material analysis. The centre also supports technical consultancy, experimental planning, and industry-linked research.

Such exposure can help pharmacy students understand the surface, structure and behaviour of materials used in advanced formulations and pharmaceutical research.

Parul University offers Master of Pharmacy programs for students interested in advanced pharmaceutical research, specialised technologies and experimental work.

Its pharmacy learning ecosystem is supported by over 500 Scopus-indexed publications, 30 patent applications and mentors recognised among the world’s top 2% scientists.

Students should look beyond the number of company partnerships shown on a webpage. The quality of exposure matters more than the number of names.

They should check whether the program offers active internships, trained laboratory access, expert interaction, industry-based projects and research guidance. It is also useful to ask whether students receive hands-on responsibility or only attend observation visits.

A strong collaboration should improve what students can understand, perform and explain.

A laboratory result may begin as a simple graph on a computer screen. But learning how that graph was produced, what it means and how it can guide a pharmaceutical decision is what prepares a student for serious work.

As India moves towards complex generics, biosimilars and innovation-led pharmaceutical products, students will need both subject knowledge and practical judgement.

For students who wish to enter this changing field, exploring Parul University’s M.Pharma programs can be a useful step towards research-based learning, modern laboratory exposure and closer understanding of pharmaceutical industry practices.