Pedagogical innovation in Microbiology: As Experiential learning collaborates with traditional learning

Teaching methodology is an ever-evolving process where the educator and the student continue to learn as they grow. Their exchange of knowledge and views in course of their growth paves the path for finding best ways to enrich the teaching-learning process. The educator comes across heterogeneous batches of learners whose requirement changes every year. While some students learn fast, some others are slow ones. While some prefer to memorize lessons, some want to understand the concept, again some others rely on illustrations and other elaborations, preferably tangible ones, to comprehend what a teacher teaches.

Traditional learning has long been the staple of educational systems globally, imparting knowledge through structured lessons, supported by textbooks and other resources in classrooms as well as in laboratories sometimes. However it is no longer sufficient to meet the diversified requirement of a class of students nowadays.  

Challenges faced in traditional learning models

 Although Traditional learning models are proficient in structuring a basic understanding for students, there are limitations as follows:

  1. ‍Lecture-based methods safeguard the consistent flow of information, but it may not be appealing to the diverse group of students with different learning styles, rather it may promote passive learning.
  2. Model of traditional learning often fail to bridge the gap between theoretical knowledge and its practical application in the real world (or instance, requirement in industries). A student may perform well in exams but struggle to cope up with the workplace challenges due to dearth of skills essential for employability.
  3. Traditional learning being generic, it provides students exposure to wide range of skills and knowledge that will be advantageous for any career they choose related to the subject they learn. However, in absence of real-life exposure to genuine work-based projects, it often becomes challenging for the students to specify their actual expectations from their careers. So often manpower gets wasted as either truly deserving candidates miss to make the right choice in time or because of recruitment of undeserving candidates in inappropriate positions.
  4. Whatever may be the efforts of the educators or the learners a lack of connectivity prevails with a certain fraction of students in a batch every time, resulting in emergence of discrepancy between slow-learners and fast learners and the difference becomes difficult to be resolved.

Solution for the limitations of traditional learning models:

If educational institutions implement experiential practices into their curriculum early on, then students could gain a primary preview of their future careers, test theories, make vital connections, and refine skills in environments reflecting their post-graduate destinations.

This career clarity is of prime importance to ensure that students love what they do and identify the skills they will need in professional lives.

Therefore traditional teaching needs to be complemented with experiential learning that emphasizes on hands-on experience and real-world application. It is similar to the “show and tell” activities of students of primary school where traditional learning reflects the telling component and experiential learning resembles the showing part. Both components are mutually exclusive in imparting knowledge, but if applied in tandem, they are sure to make the learning process an enriched one catering the need of every type of students. This is particularly significant for wet lab based subjects like microbiology which has led to incorporation of curriculum revolution in microbiology education.

Table 1: Comparison of traditional learning and experiential learning:

 

 

 

Advantages

Traditional learning

Experiential learning

A structured and systematic approach

Bridges the gap between theory and real-world application

Time-tested and widely accepted

 

 

 

             Disadvantages

Can be passive in nature

May require more resources to implement

Sometimes, it may fall behind current industry demands

Might be challenging to integrate into traditional curricula

Might not cater to all learning styles

Requires institutions to develop and maintain relationships with a diverse range of organizations

 

Collaboration of traditional learning and experiential learning in Department of Biological Sciences, Adamas University:

 Considering student interest as one of the topmost priorities, Department of Biological Sciences, School of Life Science and Biotechnology of Adamas University has amalgamated experiential learning with the time-honored approach of traditional learning for the full-fledged training of   young scientific minds of aspiring microbiologists of both undergraduate and post-graduate programs.

Generally, the process of data analysis and interpretation followed by drawing conclusions to decide on next steps in any experiments is reserved for higher class students of undergraduate and post graduate programs. In our department, the educators encourage the students to think critically and participate in themed active learning activities in the classroom/ laboratories rather than taking mere observations or performing surveys. For instance, students are given a graph on microbial growth kinetics or enzyme kinetics from peer-reviewed journals to be interpreted that allows the students to not only understand the biological phenomena but also comprehend useful information from scientific articles.  The C.R.E.A.T.E. method — Consider, Read, Elucidate the hypothesis, Analyze and interpret the data, and Think of the next Experiment (Hoskins et al. 2011, https://teachcreate.org/ ) has been adopted to encourage the students to gather knowledge from text books, interpret the essence of the chapters, apply the knowledge to explain unanswered questions in old experiments and find new ideas for new innovations. Alternatively, for medical microbiology and immunology, case studies are included to train their skill of critical thinking skills.

Figure 1: Representative photographs of different aspects of experiential learning in Microbiology in Adamas University

Due to time limitations during the semester, most of the undergraduate labs are unable to provide the necessary instruction on vital aspects of experimental sciences, like replication, sample size, reproducibility, and additional critical thinking required when designing experiment to answer biological questions. Department of Biological Sciences of Adamas University provides training in these prime components of experimentation through project works, dissertation and field works. Communication skill of the students are refined using tools like flip-learning, poster presentations, model making, platform presentation and other Moreover, as the first footfall for exposure to industries, networking is crucial in the competitive landscape of modern days. Industrial internship is a pivotal experiential strategy to prepare the students in navigating the real-time requirements of job market at present. In our department industrial internship is a mandatory component in curriculum of both undergraduate and postgraduate programs that allows the learners to assess their knowledge in action. Moreover, we attempt to elevate the learning experience through collaborations with pioneer industry partners, by incorporating industry relevant topics in curriculum (as suggested by industry experts present in panel of Board of studies of the department), organization of Industry series talks, workshops and introducing rel-life projects for the students to participate.

In microbiology research it is now common to use “omic” technologies to find answers to scientific questions.  For that a thorough understanding of these technologies should be complemented with basic bioinformatics skills. Our department provides advanced training in bioinformatics using technology skills like R, Python etc.

.Postsecondary enrolments in the life science and health related fields are steadily increasing in which microbiology serves an important role in the curriculum. This has enhanced the opportunities for pedagogical innovation which will be key to addressing future demands of the students and their learning process.

Biochemistry in the Modern Era

Few subjects are as complex and fascinating in the wide range of scientific inquiry as biochemistry. It’s the science that investigates the chemical processes found in and connected to living things, helping to solve the most basic riddles of life. Biochemistry is more important than ever as we approach the dawn of the modern era, propelling revolutionary developments in biotechnology, agriculture, medicine, and other fields.

This time of the year for a class XII student (especially from a science background) is a challenging one. Most of them either prepare for engineering or medical entrance examinations and eventually sit for them. Therefore, students may experience anxiety due to heightened expectations. But one should always remember that in the field of competitive exams, one cannot predict success, as often people with sufficient preparation can fail. Hence, one should not lose hope because there are many subjects where one can get success in their career. Students who are interested in a career in biological sciences with a strong foundation in chemistry can pursue a graduation degree in biochemistry. Besides, students who want to pursue a research career in biological sciences in the future must go for this subject. Biochemistry is the branch of science that explores the chemical processes within and related to living organisms. The study of the subject comprises classical topics like cellular structure and function, biomolecules, metabolism, etc. as well as modern topics like bioinformatics, genomics and proteomics, genetic engineering, and many more. Therefore, understanding these fundamental concepts provides insights into the molecular mechanisms underlying life processes, disease pathology, and potential targets for therapeutic intervention.
A graduate and post-graduate degree in biochemistry opens a wide range of career opportunities across various sectors. Here are some potential career paths you could consider:

  1. Research Scientist: In government organizations like research institutes, DRDO, ISRO, etc.
  2. Clinical Biochemist: In hospitals, diagnostic laboratories, or different healthcare centers.
  3. Pharmaceutical Industry: Pharmaceutical companies employ biochemists in various roles, such as drug development, formulation, regulatory affairs, or marketing.
  4. Academia:In schools, colleges, universities, or other reputed institutes.
  5. Bioinformatics: In different corporate houses working on clinical data research.
  6. Biomedical Engineering: In different pharmaceutical companies involved in biomedical instrumentation research.
  7. Food and Beverage Industry: Biochemists are employed in the food and beverage industry to develop and improve products, ensuring their safety, quality, and nutritional value.
  8. Patent Law and Intellectual Property: In government organizations and private farms as a patent officer or agent.

Furthermore, some new exciting areas where a graduate or a postgraduate in Biochemistry can find jobs include the following –

Artificial Intelligence (AI):
AI has revolutionized the field of biology across various domains and biochemistry is not an exception in that; knowledge of biochemical pathways and artificial intelligence can be utilized in different aspects like drug discovery, precision medicine, disease diagnosis,biomedical imaging, drug repurposing and side effect prediction, biological modeling, and simulation, etc. The involvement of AI has increased the scope of biochemistry students to explore the subject in higher details which in turn gives them a scope to work in several other fields of science, media, and commerce.

Precision Medicine: Decoding the Human Genome
The advent of high-throughput sequencing technologies has revolutionized the landscape of medicine, paving the way for personalized healthcare. Biochemistry plays a pivotal role in this revolution by deciphering the human genome, identifying genetic variations, and elucidating their implications in health and disease. From predicting disease predispositions to designing

targeted therapies, biochemistry empowers clinicians with unprecedented insights into individualized patient care.

Drug Discovery and Development: Targeted Therapies
Gone are the days of serendipitous drug discovery. In the modern era, biochemistry lies at the heart of rational drug design, enabling scientists to meticulously tailor therapeutics for specific molecular targets. Through techniques like structure-based drug design and virtual screening, researchers can identify promising compounds with precision, accelerating the development of novel treatments for a myriad of ailments, from cancer to neurodegenerative disorders.

Synthetic Biology: Engineering Life
Biochemistry intersects with engineering in the burgeoning field of synthetic biology, where scientists wield the principles of molecular biology and genetics to engineer biological systems with novel functionalities. From synthesizing biofuels to producing therapeutic proteins, synthetic biology holds the promise of addressing pressing global challenges while offering innovative solutions to improve human health and well-being.

Environmental Remediation: Harnessing Nature’s Toolbox
As concerns about environmental degradation escalate, biochemistry offers eco-friendly solutions for remediation and conservation. Enzymes capable of degrading pollutants, microorganisms engineered to remediate contaminated sites, and bio-based materials for sustainable packaging are just a few examples of how biochemistry leverages nature’s toolkit to address pressing environmental challenges and foster a greener, more sustainable future.

In the modern era, biochemistry stands as a beacon of hope and innovation, driving transformative advancements across diverse domains. From unraveling the intricacies of the human genome to engineering biological systems with unprecedented precision, biochemistry continues to redefine the boundaries of scientific possibility, shaping a future where human health, environmental sustainability, and technological innovation converge harmoniously. As we embark on this exhilarating journey, one thing remains abundantly clear: the wonders of biochemistry in the modern era are boundless, and the possibilities are limitless. At Adamas University, we offer undergraduate, postgraduate, and Ph.D. programs in Biochemistry.

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