Bridging the Data Deluge in Biomedicine
Explore the RulesBiomedical research is being transformed by technologies that generate vast, complex datasets, creating an unprecedented demand for researchers who can navigate the world of computational analysis. However, practicing scientists often need to acquire these skills while actively conducting research, making multi-year degree programs an impractical solution. The challenge, therefore, is to provide effective, focused training that can be immediately applied. The answer lies in the short, intensive bioinformatics training course. Such courses must be timely, specific, and practical to overcome significant barriers to progress in adopting new technologies 1 . This article outlines ten simple rules for designing these essential educational experiences, empowering trainers to build a more data-literate research community.
Biomedical research generates vast, complex datasets requiring computational skills.
Short, intensive courses provide focused training that can be immediately applied.
The foundation of a successful course is a well-defined and relevant need. The topic should address an immediate, widespread challenge faced by your target audience of biomedical researchers. To identify these needs, look for prevalent issues discussed in literature, such as those concerning reproducibility in research or common statistical misconceptions. Aligning the course with both the strategic goals of a research organization and the expressed interests of self-organized groups ensures that the content is not only relevant but also likely to attract a dedicated audience 1 . Centering your planning on the learner, rather than a desire to teach a favorite topic, is key to creating a course that truly fills a gap.
Resist the urge to build a curriculum entirely from scratch. The wealth of high-quality, open educational resources available today makes this unnecessary and inefficient. A good starting point is to seek out existing materials that feature an applied, hands-on approach. Excellent examples include free online books like R for Data Science and The Python Data Science Handbook, or curated materials from projects like Bioconductor 1 . Your role as a developer is to act as a curator, integrating the best materials from various sources—such as software user guides, online tutorials, and open-access texts—to create a coherent learning path. This approach significantly reduces development time and allows for more rapid deployment.
R for Data Science, Python Data Science Handbook, Bioconductor
Effective bioinformatics training requires a careful balance between theory and practice. While lectures are efficient for conveying concepts, practical skills like coding and data analysis are best learned through hands-on practice 1 . A course that leans too heavily on theory will leave learners unable to apply their knowledge; one that is purely practical may produce researchers who can run a script but cannot interpret the results or troubleshoot when something goes wrong. Strive for a blend where new concepts are briefly introduced just before learners use them in a practical exercise. This "just-in-time" teaching helps ground abstract ideas in immediate application, leading to a deeper and more functional understanding.
Conceptual framework and principles
Hands-on exercises and application
Structure is crucial for learning. A proven model for a short course involves dividing content into discrete sessions, each built around a clear learning objective. A effective session structure includes 8 :
Establish the conceptual framework for the problem.
Allow learners to actively engage with the tools and concepts.
Consolidate the new knowledge and address common questions.
This block structure can be repeated throughout the course, creating a predictable and supportive rhythm for learners. A typical three-day course would aggregate several of these blocks per day, beginning with an orientation and ending with a comprehensive final wrap-up to solidify the learning 8 .
One of the biggest challenges in short-course training is an audience with varied backgrounds. To bring all learners to a similar starting point, it is essential to clearly state the prerequisite knowledge and skills. When compiling materials, note the assumptions they make about prior knowledge in areas like statistics or programming. You can then provide, or point learners to, foundational resources to address these gaps beforehand 1 . Using a simple pre-course survey to gauge familiarity with key concepts can help you tailor your instruction and ensure no one is left behind from the very first session.
Learning is a social activity. For in-person courses, the physical space should allow participants to work in small groups, fostering an atmosphere where they can learn from each other 1 . The beginning of the course is the perfect time to "break the ice," establish ground rules, and create a team-oriented environment where instructors and participants share a common mission 8 . This collaborative spirit builds a supportive network, encouraging participants to ask questions and work through challenges together, which is far more effective than isolated, individual learning.
Foster team-oriented environment and peer support
Be realistic about what can be achieved in a short time and how long people can maintain focus. Short sessions scheduled at a regular time are known to maximize participation 1 . Avoid the temptation to cram in too much content; it is better to cover less material thoroughly than to rush through a comprehensive list. Furthermore, long, multi-hour practical exercises that require work outside of class should be avoided. Instead, design exercises that can be completed within the class session, allowing for immediate feedback and support from instructors 1 .
Recommended time allocation for effective learning sessions
Build in opportunities for learners to check their understanding throughout the course. This can be achieved through low-stakes, formative assessments such as in-session quizzes, short practical reports, or group discussions 2 4 . The goal is not to grade, but to provide feedback to both the learner and the instructor. For the learner, it reinforces key concepts; for the instructor, it highlights which areas may need further explanation. This continuous feedback loop ensures the course remains responsive to the learners' needs.
Low-stakes assessments for feedback, not grading
No course is perfect on the first delivery. A robust feedback mechanism is essential for continuous improvement. This can include a end-of-course questionnaire to be filled out before the final wrap-up session, as well as verbal feedback collected during that final discussion 8 . This feedback is a valuable source of information, revealing what worked well, what didn't, and how the balance between theory and practice was perceived. Use these insights to refine and improve the course for its next iteration.
When reusing and adapting existing materials, always be mindful of licensing. Ideally, use content with open licenses, such as Creative Commons licenses that permit adaptation 1 . If the license is not clear, seek permission from the author or publisher. The bioinformatics training community thrives on sharing and collaboration. If you develop new materials to meet a critical need for which no resources exist, consider sharing them with an open license to contribute to this ecosystem and support fellow educators.
To see these rules in action, let's examine the Introduction to Bioinformatics Training (IBT) course organized by H3ABioNet. This course is a real-world example of a successfully deployed short training program. It is a three-month, intensive blended learning course designed for individuals from a molecular biology background who aim to become proficient bioinformatics users .
The IBT course is structured into biweekly virtual contact sessions that combine theory with hands-on practice. The curriculum is carefully sequenced to build from foundational concepts to more complex applications.
| Module | Dates | Key Topics Covered |
|---|---|---|
| Orientation | April 22 | Course introduction and setup |
| Module 1 | April 29 - May 8 | Biological databases (NCBI, EBI), data formats |
| Module 2 | May 13 - May 22 | Introduction to Linux and the command line |
| Module 3 | May 27 - June 3 | Sequence alignment theory and BLAST |
| Module 4 | June 10 - June 12 | Multiple sequence alignment |
| Module 5 | June 17 - June 19 | Molecular evolution and phylogenetics |
| Module 6 | June 24 - July 8 | Genomics and genome browsers |
| Wrap-up | July 15 | Feedback and final evaluation |
The course exemplifies Rule 7 (Realistic Timings), as seen in the following breakdown of a typical session's schedule, which is designed to maintain engagement and focus.
| Session Block | Duration | Activity |
|---|---|---|
| Theoretical Presentation | 30-45 minutes | Instructor introduces core concepts and tools. |
| Guided Practical Exercise | 60-90 minutes | Participants work through a hands-on exercise with instructor support. |
| Q&A and Wrap-up | 15-30 minutes | Discussion of results, common pitfalls, and key takeaways. |
A successful course relies on more than just a syllabus. The following toolkit includes key materials and resources that facilitators should prepare.
Pre-existing books, guides, and tutorials that form the core content, allowing for rapid course development (Rule 2) 1 .
A short survey to assess attendees' backgrounds, helping to tailor the pace and identify learners who may need extra support with prerequisites (Rule 5) 1 .
A pre-configured computational environment ensures all participants have identical software and data access, avoiding installation issues.
One-page summaries of key Linux commands or R functions provide a safety net for beginners during practical sessions.
A structured form for collecting anonymous feedback on content, pace, and instruction, which is critical for iterative improvement (Rule 9) 8 .
Developing an effective short bioinformatics course is a strategic process that blends educational principle with practical savvy. By identifying a genuine need, thoughtfully curating existing materials, and creating a balanced, hands-on learning experience, you can equip researchers with the computational skills they need to thrive in the data-driven world of modern biology. The ten rules outlined here provide a roadmap for building courses that are not only informative but also transformative, turning the data deluge from an obstacle into an opportunity for discovery.
Use these ten rules as your guide to creating effective, impactful training that addresses the critical computational skills gap in biomedical research.
References will be listed here in the appropriate format.