Educational Experiments

This course emerged from a growing dissatisfaction with educational models that treat students primarily as recipients of pre-packaged knowledge while separating learning from the complexity of real human experience.

At the center of the course is the idea of personal epistemology: the ways individuals come to understand knowledge, belief, identity, experience, and meaning. Rather than treating learning as the memorization of external content, the course asks students to reflect on how they construct their understanding of themselves, others, and the world around them.

One of the defining features of the course is that the lived experiences of the students themselves become a central part of the learning environment. Students continuously examine their own assumptions, relationships, influences, fears, priorities, and evolving ways of making meaning.

The course uses design thinking, reflection, dialogue, and experiential learning to help students think more intentionally about the lives they are designing and the systems shaping those lives. Throughout the semester, students engage in small personal experiments, reflect on the people and experiences that have shaped their beliefs, examine the narratives they have inherited about themselves, and begin taking ownership of the stories they want to live by.

Rather than focusing on grand abstract life plans, the course emphasizes small, sustainable actions that help students move toward more intentional and self-directed ways of living. Developed in the context of the AI era and broader changes in higher education, the course reflects a shift away from purely content-centered teaching toward learning experiences centered on metacognition, reflection, human complexity, and personal agency.

This course was designed in response to the growing reality that communication no longer happens within isolated cultural environments. Ideas, technologies, products, media, and human interactions now move constantly across borders, yet many educational models continue to approach communication through assumptions rooted in narrow cultural contexts.

The course asks students to examine how meaning changes across cultures and how communication styles, expectations, values, power dynamics, and social norms shape the ways ideas are perceived and received in different parts of the world. A central theme throughout the course is the recognition that what feels natural, persuasive, respectful, or effective in one context may be interpreted very differently in another.

Particular attention is given to helping students move beyond unconsciously Western-centered assumptions about communication and develop a broader awareness of how much of the world experiences relationships, authority, collaboration, feedback, identity, and expression differently.

The course is heavily rooted in practice and experiential learning. Rather than relying primarily on lectures or textbook-driven instruction, students participate in simulations, collaborative activities, role-playing exercises, and design challenges that require them to actively navigate intercultural communication scenarios.

AI is integrated into the course as a tool for creating dynamic simulations and cross-cultural scenarios that allow students to experiment with communication across different countries, environments, and cultural expectations. Assignments are intentionally designed to move beyond conventional exams. In one example, students participate in escape-room-style midterm experiences where they must successfully adapt communication and product-pitching strategies to representatives from different cultural contexts in order to progress through the experience.

The course strongly reflects SFBU’s Think, Do, Create approach to learning by combining critical reflection, practical experimentation, and creative problem-solving. Rather than treating communication as a static technical skill, the course approaches it as an evolving human practice deeply connected to culture, identity, empathy, systems, and lived experience.

This course examines sustainability not as a single scientific problem, but as a deeply interconnected human, technological, ecological, economic, and ethical challenge. Drawing from the physical and biological sciences through a transdisciplinary lens, the course explores how natural systems function, how human systems disrupt or support them, and what kinds of futures remain possible in a rapidly changing world.

A systems-thinking approach runs through the entire course. Students investigate topics such as renewable energy, sustainable materials, biodiversity, climate change, circular economies, sustainable agriculture, ecosystem services, nanotechnology, and bio-inspired design while continuously asking larger questions surrounding environmental integrity, economic viability, and social equity. The course emphasizes that sustainability is not only about scientific feasibility, but also about justice, context, trade-offs, and long-term human responsibility.

One of the defining features of the course is its deliberate shift away from purely content-heavy science instruction toward a more dialogue-centered and practice-heavy learning environment. Rather than treating science as static information to memorize, the course approaches scientific inquiry as an active social process involving debate, interpretation, uncertainty, systems thinking, and collective meaning-making.

To support this approach, I am developing a custom three-act book specifically for the course that brings together scientific, philosophical, technological, ecological, political, and human perspectives on sustainability. The course also integrates AI in ways designed to deepen metacognition, preparation, participation, and scientific dialogue rather than simply automate learning.

Before each class, students prepare for parliamentary-style debates on major sustainability questions and engage in one-on-one debate simulations with an AI companion trained around the topic under discussion. Students assume positions, defend arguments, encounter competing viewpoints, and refine their thinking through these interactions before arriving in class.

Inside the classroom, the learning environment becomes highly interactive and discussion-driven. Students can see patterns emerging from the broader set of debates, examine AI-generated summaries of scientific arguments, identify gaps in understanding, and collectively work through areas requiring deeper scientific clarification. The classroom then shifts from passive content delivery toward facilitated inquiry, collaborative interpretation, and action-oriented exploration.

A recurring element of the course asks students to connect global sustainability questions back to their own local and cultural contexts, recognizing that environmental challenges and solutions are experienced differently across regions, economies, and communities.

Ultimately, the course treats sustainability not simply as a scientific topic, but as an evolving design challenge that requires scientific literacy, systems thinking, creativity, ethical reflection, and the capacity to imagine and prototype more sustainable futures.

Scientific Methods was designed as part of the Habib Liberal Core Curriculum, where I served as the principal designer of the course. The course is structured across three major arcs: the historical development of scientific thought, the introduction and practice of scientific inquiry and methods, and the application of scientific techniques through project-based work.

Underlying all three arcs is a larger question: how do human beings come to understand the natural world, and how does scientific understanding evolve over time?

The first arc of the course explores the historical evolution of scientific thought across civilizations, intellectual traditions, and scientific revolutions. Using gravity as a recurring conceptual thread, students examine how human understanding evolved from Greek natural philosophy to Muslim scientific scholarship, through the scientific transformations of the Renaissance, the observational work of Galileo, Newtonian mechanics, and eventually Einstein’s reimagining of space, time, and gravity.

A central goal of this section is to help students understand that scientific knowledge is neither static nor absolute. Scientific paradigms often appear stable from within, yet they remain open to challenge, revision, and transformation as evidence, methods, and frameworks evolve. Students examine how scientific claims gain stability, how paradigms weaken over time, and how entirely new scientific worldviews emerge.

Alongside these historical developments, students engage with thinkers such as Popper, Feynman, and Sagan while exploring broader questions surrounding positivism, determinism, probability, free will, cosmology, time, and the nature of inquiry itself. Questions such as “Where do we come from?” and “What existed before the Big Bang?” become entry points into larger conversations about the possibilities and limits of scientific understanding.

The second arc of the course introduces students to the practice of scientific inquiry and the logic of the scientific method itself. Students engage with experimentation, hypothesis formation, observation, interpretation, and the iterative nature of scientific reasoning while examining the relationship between evidence, models, uncertainty, and explanation.

The third arc moves toward scientific techniques and project-based inquiry. Students work with statistical methods, data analysis, modeling, and scientific investigation while applying these approaches to research-driven projects of their own.

One of the defining features of the course is its emphasis on multimodal and creative forms of demonstrating understanding. Rather than relying solely on traditional exams or research papers, students create visual novels, comics, podcasts, performances, role plays, and other experimental forms of scientific storytelling and interpretation. The course treats scientific inquiry not simply as technical training, but as a creative and deeply human endeavor.

In many ways, the course functions like a large collaborative canvas where students are encouraged to experiment intellectually and creatively while engaging seriously with the history, philosophy, methods, and practice of science.

Renewable Energy was designed in 2014 during a period when Karachi, and Pakistan more broadly, were facing severe and deeply visible energy challenges. The course emerged from a recognition that energy could not be understood purely as a technical or engineering problem. Questions surrounding energy were simultaneously scientific, political, ecological, economic, ethical, and deeply human.

At the same time, the course was shaped by the growing reality of the Anthropocene and the increasing pressure of climate change. Pakistan occupied a particularly difficult position within this conversation: a developing country facing urgent energy demands while also confronting the ethical, environmental, and social consequences of fossil-fuel dependence in an already unstable climate system.

The course was intentionally designed as a cross-disciplinary learning experience organized around multiple arcs, each approaching energy from a different perspective.

The first arc explored energy through physics, introducing students to solar power, wind energy, hydroelectric systems, nuclear energy, and the physical principles underlying energy production and transfer.

The second arc approached energy through chemistry, examining topics such as geoengineering, carbon capture, batteries, energy storage systems, and the chemical dimensions of climate intervention and sustainability.

The third arc focused on biology and living systems, exploring biofuels, bioenergy, bio-inspired design, ecological systems, and the relationship between energy and the biological world.

The fourth arc shifted toward policy and governance. Students examined Pakistan’s energy policies alongside regional and global approaches while asking difficult questions about infrastructure, regulation, equity, sustainability, political decision-making, and systemic failures. This part of the course intentionally pushed students to critically evaluate not only what was technologically possible, but also what was politically, ethically, and socially unfolding around them.

The final arc focused on communication, awareness, and human behavior. Students examined how societies communicate about energy, consumption, climate change, sustainability, and ecological crisis. Questions surrounding the two-degree Celsius threshold, internet energy consumption, the sixth mass extinction, and patterns of human behavior became central to this section of the course.

A major emphasis throughout the course was the idea that learning should move beyond classroom boundaries into public engagement and action. Students were required to design campaigns, communication collateral, awareness initiatives, and public-facing interventions that extended into families, communities, and social networks. Their work was published on social media, shared publicly, and evaluated partly through the impact and conversations it generated outside the university itself.

Rather than treating energy as an isolated scientific topic, the course approached it as a systems-level challenge requiring scientific literacy, ethical reflection, policy awareness, communication, creativity, and public engagement.