Teaching in University Science Laboratories (Developing Best Practice) Course

Editorial Take

The University of Amsterdam's course on Teaching in University Science Laboratories fills a critical gap in higher education pedagogy. While many teaching courses focus on lectures, this program zeroes in on the unique challenges of lab-based science instruction. It’s a thoughtful, research-informed guide for educators committed to transforming passive lab sessions into dynamic learning experiences.

Standout Strengths

• Lab-Centric Pedagogy: Unlike general teaching courses, this program focuses exclusively on laboratory settings, offering strategies tailored to hands-on science education. It recognizes that labs are not just about following procedures but fostering scientific thinking and inquiry.
• Active Learning Emphasis: The course champions student-centered learning, encouraging educators to shift from demonstration-based to inquiry-driven labs. This promotes deeper understanding and critical thinking in students through guided exploration and problem-solving.
• Diversity and Inclusion Focus: It thoughtfully addresses the challenge of varied student preparedness, offering tools to diagnose prior knowledge and scaffold learning. This ensures all students, regardless of background, can engage meaningfully with lab content.
• Reflective Teaching Practice: The course promotes self-assessment and continuous improvement, urging instructors to reflect on their methods and student outcomes. This metacognitive approach helps educators grow and adapt their teaching over time.
• Assessment Innovation: It moves beyond traditional lab reports, introducing formative assessment techniques that capture student understanding during the lab. This enables real-time feedback and instructional adjustments for better learning.
• Academic Rigor and Credibility: Developed by a reputable European university, the course benefits from evidence-based educational research and academic standards. This lends authority and trustworthiness to its recommendations and frameworks.

Honest Limitations

• Not for Technical Skill Building: The course does not teach advanced lab techniques or instrumentation. Instructors seeking hands-on training in specific scientific methods may find it lacking in technical depth and practical demonstrations.
• Theoretical Over Practical Application: While conceptually strong, some educators may desire more video demonstrations or case studies from real classrooms. The content leans toward principles rather than step-by-step implementation guides.
• Certificate Access Requires Payment: Although the course can be audited for free, earning a certificate involves a fee. This may deter some educators, particularly those from underfunded institutions or developing regions.
• Limited Interactivity: As a Coursera offering, the interactivity depends on peer discussions and self-reflection. Those expecting live mentoring or real-time feedback from instructors may find the experience less engaging.

How to Get the Most Out of It

• Study cadence: Dedicate 3–4 hours weekly to fully engage with materials and complete reflective exercises. Consistency helps in applying concepts progressively to your own teaching context.
• Parallel project: Apply each module’s insights to redesign one of your current lab sessions. This hands-on approach reinforces learning and yields immediate classroom improvements.
• Note-taking: Keep a teaching journal to document reflections, student reactions, and adjustments. This builds a personalized repository of effective lab teaching strategies over time.
• Community: Join course discussion forums to exchange ideas with global educators. Peer insights can reveal diverse cultural and institutional approaches to lab instruction.
• Practice: Pilot new questioning techniques or group activities in your next lab. Small experiments help test what works before full-scale implementation.
• Consistency: Revisit course materials before each teaching semester. Refreshing core concepts ensures sustained application and refinement of best practices.

Supplementary Resources

• Book: "How Learning Works" by Ambrose et al. complements this course by explaining cognitive principles behind effective teaching and student engagement in STEM.
• Tool: Use Padlet or Google Jamboard for collaborative pre-lab discussions and real-time student input during experiments to enhance interaction.
• Follow-up: Enroll in Coursera’s "Instructional Design" courses to expand into curriculum development and assessment design beyond the lab.
• Reference: The National Research Council’s "America’s Lab Report" offers policy-level insights into science lab education reform and evidence-based practices.

Common Pitfalls

• Pitfall: Treating labs as mere procedure-following exercises. This undermines inquiry and critical thinking. Instead, design labs to emphasize hypothesis testing and data interpretation.
• Pitfall: Overloading students with technical steps. Simplify protocols to focus on conceptual understanding, allowing cognitive space for scientific reasoning and analysis.
• Pitfall: Neglecting formative feedback. Waiting until lab reports are submitted delays correction. Use in-lab questioning and observation to guide learning in real time.

Time & Money ROI

• Time: At 8 weeks with 3–4 hours per week, the time investment is manageable for working educators. The return comes in improved student engagement and learning outcomes.
• Cost-to-value: Free auditing makes it highly accessible. Even the paid certificate offers good value for professional development in academic roles where teaching quality is evaluated.
• Certificate: While optional, the certificate validates professional development, useful for promotion dossiers or teaching portfolios in academic appointments.
• Alternative: Free alternatives exist but lack structured pedagogy. This course’s academic rigor and focus justify its place over generic teaching guides or YouTube tutorials.

Editorial Verdict

This course is a valuable resource for university science educators aiming to modernize their laboratory teaching. It successfully shifts the focus from rote experimentation to meaningful, inquiry-based learning. By addressing core challenges like student diversity, engagement, and assessment, it equips instructors with practical, research-backed strategies. The modular design allows for flexible learning, and the emphasis on reflection fosters long-term teaching improvement. While not a substitute for subject-matter expertise, it fills a critical gap in pedagogical training for lab environments.

We recommend this course to teaching assistants, lab coordinators, and faculty members in STEM disciplines. It’s especially beneficial for those transitioning from research-focused roles to teaching-intensive positions. Though the certificate comes at a cost, the free audit option ensures broad accessibility. For educators serious about enhancing student learning in labs, this course offers excellent return on time and effort. It stands out as one of the few specialized offerings in science pedagogy on Coursera, making it a must-consider for academic developers and curriculum designers alike.