Understanding the Science Behind the Student Research Award
Recent Trent University News has highlighted a significant milestone for the physics department: the establishment of the Dr. Ian Affleck ’71 Physics Undergraduate Research Prize. This new award provides critical funding for students seeking hands-on laboratory experience. The inaugural recipient, Khoi Ngo, is using this support to study the optical properties of ultra-thin, transparent films. For prospective physicists, understanding the specifics of this research provides a clear window into what undergraduate research in Canada actually looks like.
The Mechanics of Polarized Light
Light typically travels in waves that vibrate in multiple directions perpendicular to its path. When light is filtered to vibrate in only a single plane, it becomes polarized light. This phenomenon is not merely an academic curiosity; it is a fundamental component of modern technology. Polarized light is essential for liquid crystal displays (LCDs) in televisions and smartphones, anti-glare sunglasses, and advanced optical microscopes used in material science. By controlling the orientation of light waves, researchers can reveal hidden stress patterns in plastics, analyze the chemical composition of solutions, and design more efficient optical communication systems.
How Birefringence Alters Light Waves
Birefringence, also known as double refraction, occurs when a material possesses two distinct refractive indices depending on the polarization and direction of the incoming light. When polarized light enters a birefringent material, it splits into two separate rays that travel at different speeds. As these rays exit the material, they recombine. Depending on the thickness of the material and the wavelength of the light, certain colors will constructively interfere while others destructively interfere, resulting in vibrant, iridescent colors. Common household items like clear adhesive tape and kitchen cling wrap exhibit birefringence. By studying how these everyday materials manipulate light, undergraduate researchers can grasp complex wave mechanics without the need for expensive, specialized optical crystals.
The Role of Thin-Film Interference
Khoi Ngo’s research does not stop at birefringence. The project also investigates thin-film interference, a phenomenon where light waves reflecting off the top and bottom surfaces of an ultra-thin layer interact with one another. When white light hits a thin film, certain wavelengths are amplified while others are canceled out, producing a specific color. The intersection of birefringence and thin-film interference is a highly specialized area of study. Understanding how these two physical phenomena interact under varying conditions gives researchers the foundational knowledge required to design new optical devices, such as more precise sensors or advanced display technologies.
Submit your application today to pursue a physics program where you can engage with these complex scientific questions from your very first year.
How Undergraduate Research Shapes Future Physicists in Canada
In many academic systems, meaningful laboratory research is reserved exclusively for graduate students. However, the landscape of higher education in Canada increasingly emphasizes early exposure to research for undergraduates. Engaging in research as an undergraduate allows students to apply theoretical classroom knowledge to tangible, open-ended problems. It shifts the learning dynamic from memorizing established facts to actively participating in the scientific method.
For Khoi Ngo, a second-year international student from Vietnam, this opportunity represents a crucial step in defining his career trajectory. Transitioning to a new country presents academic and social challenges, but integrating into a research lab provides a structured, supportive environment. Working closely with a faculty member like Dr. Aaron Slepkov allows undergraduate students to learn experimental design, data analysis, and technical writing—skills that are highly sought after by employers and graduate admissions committees alike. Early research experience helps students determine whether a career in academia or industry is the right fit before committing to advanced degrees.
The Impact of the Dr. Ian Affleck ’71 Physics Undergraduate Research Prize
Financial barriers often prevent students from taking on unpaid summer research projects. Recognizing this hurdle, Glenda ’71, Geoffrey ’99, and Kate Affleck established the Dr. Ian Affleck ’71 Physics Undergraduate Research Prize. Philanthropic contributions like this play a vital role in the ecosystem of Canadian universities. By earmarking funds specifically for undergraduate research, donors ensure that capable students are not excluded from valuable experiences due to financial constraints.
The prize honors the legacy of Dr. Ian Affleck, a Trent University alumnus who went on to become one of the world’s leading theoretical physicists. After completing his Bachelor of Science in Physics and Mathematics at Trent in 1975, Dr. Affleck earned his master’s and Ph.D. from Harvard University by 1979. His career was defined by his work in quantum systems, earning him nearly every major physics award in Canada, including the Herzberg Medal and the Killam Prize, along with prestigious international honors. The Affleck family’s decision to direct their philanthropy toward undergraduate research reflects a clear understanding of how early mentorship shapes scientific careers.
Explore our related articles for further reading on how philanthropy and student awards drive academic innovation.
Practical Steps to Secure Research Opportunities as an Undergraduate
Securing a funded research position requires proactive effort. Khoi Ngo’s path to receiving the Dr. Ian Affleck ’71 Physics Undergraduate Research Prize provides a highly effective blueprint for current and prospective students.
Build Connections Outside the Lecture Hall
The most critical step is attending faculty office hours. Many students only visit office hours when they are struggling with a lecture or preparing for an exam. However, these sessions are the primary avenue for demonstrating intellectual curiosity. Khoi’s research opportunity originated from a conversation with Professor Slepkov during office hours. Students should use this time to ask about the professor’s current research projects, express interest in their field of study, and inquire about potential undergraduate assistantships. Faculty members rarely hire students they do not know; establishing face-to-face contact is essential.
Engage with Student Societies and Support Networks
Becoming an active member of departmental societies, such as the Trent Undergraduate Physics Society, helps students stay informed about upcoming opportunities, workshops, and award deadlines. These societies often host guest lectures, networking events, and study groups that build a sense of community. For international students, connecting with both departmental groups and broader support networks, like Trent International, provides a dual layer of academic and social support. Building a community ensures that when research positions or funding awards arise, students are in the information loop.
Schedule a free consultation to learn more about navigating university support systems and finding research opportunities.
The Long-Term Value of Early Laboratory Experience
The benefits of participating in undergraduate research extend far beyond the immediate summer project. For students studying polarized light and birefringence, the technical skills acquired—such as aligning optical components, using spectrometers, and analyzing interference patterns—are directly transferable to graduate-level work and high-tech industries. Furthermore, undergraduate researchers learn how to navigate failure. Experiments rarely work perfectly on the first attempt, and learning to troubleshoot equipment, adjust hypotheses, and refine methodologies builds resilience.
From an academic standpoint, having co-authored a paper or presenting findings at a student conference provides a significant advantage when applying to competitive graduate programs in Canada and abroad. It signals to admissions committees that the student possesses a proven work ethic, a genuine interest in the field, and a practical understanding of scientific inquiry. For Khoi Ngo, the recognition that comes with the Dr. Ian Affleck ’71 Physics Undergraduate Research Prize serves as a strong validation of his potential as a future researcher in the field of optics.
Evaluating University Programs for Research Potential
When evaluating where to study physics, prospective students should look closely at the faculty-to-student ratio and the institutional culture regarding undergraduate involvement. Large research institutions sometimes prioritize graduate students and post-doctoral researchers for lab positions. In contrast, smaller universities often provide direct access to primary investigators. The fact that a second-year student at Trent University can secure dedicated funding to work one-on-one with a professor on a specialized optics project speaks volumes about the institution’s commitment to undergraduate education.
Prospective students should review university news outlets and departmental websites to see how frequently undergraduate students are highlighted for research achievements. Look for specific names of undergraduate research prizes, summer research award programs, and co-op options that integrate academic study with laboratory work. Assessing the volume of undergraduate research output is a reliable metric for determining how seriously a university takes hands-on scientific training.
Have questions? Write to us! We can provide more information on how to identify universities that prioritize undergraduate research opportunities.
Turning Curiosity Into a Career in Physics
The study of polarized light and birefringence is just one example of how foundational physics concepts are applied in modern research. The establishment of the Dr. Ian Affleck ’71 Physics Undergraduate Research Prize demonstrates that with the right combination of curiosity, proactive networking, and institutional support, undergraduate students can make meaningful contributions to scientific fields long before they earn a graduate degree. For aspiring physicists, the takeaway is clear: take advantage of office hours, engage with your academic community, and actively seek out the funding and awards designed to support your early research endeavors.
