
Christine Chan, in the lab with Alexandra Chisholm, PhD
Christine Chan, ReStart Academy
Can you share a little background on your teaching experience?
I am starting my fourth year as a high school science teacher at District 79’s ReStart Academy at the Comprehensive Adolescent Rehabilitation and Education Service (CARES). I have taught biology, earth and space science, and environmental science. Our school collaborates with Mount Sinai to provide a safe space for students with mental disorders to simultaneously receive public-school education and outpatient psychiatry therapy.
Our student body is more diverse than any other school in the country. We have art school students, specialized high school students, special education students, LGBTQ+ students, and students from other minority groups. Although it can be challenging at times to have such a diverse group of students in the classroom, it does lead to unexpected perspectives and insights. Learning is bidirectional. I can inspire students and help them discover new aspects of themselves, while they introduce me to a broad variety of knowledge.
Who inspired you to become a science teacher?
I enjoyed my college science classes more than my high school science classes. While it was much more challenging, the content was much more relevant to my personal life. I found myself more easily drawn to science learning and asking more questions about the world around me. Science has enlarged my interests in health, scientific innovation, medicine, climate change, and sustainability.
I was inspired to become a science high school teacher because I think the excitement around science learning should be encountered earlier. I want to become a teacher who teaches science in a way that is relevant, rigorous, and fun for young students. I also want to inspire and motivate young people to care more and take action about major societal problems, such as health disparities, climate change, and the lack of diversity in science, technology, engineering, and mathematics fields.
I believe there are creative ways to teach rigorous and exciting science while also preparing students for standardized tests. For example, while we must teach fundamental concepts of the endocrine and reproductive system, why can’t we teach it in the context of our students’ real worlds? They are more likely to pay attention, care, and invest time in learning. Many of my students are transgender, so they have heard of or may be taking testosterone or estrogen shots. I can teach students fundamental biology and help them apply conceptual knowledge to understand real applications of medicine.
What did you learn through the activities, and especially working in the lab with a mentor?
My experience in the Hurd lab taught me that science and technology are advancing simultaneously. In the past, I was under the impression that people learn to code and program because they want to work in IT or make cool computer programs. As technology opens the door to large amounts of complex data, scientists need coding skills to use programs that can comprehend the information. Researchers in the Hurd lab write codes to make sense of and analyze large amounts of data from RNA sequencing. Scientists need to be flexible and lifelong learners to keep up with the latest programs and research methods.
In addition, I learned that a strong background in the biological mechanism of a research topic is essential. Without a fundamental background understanding, it is very hard to conduct literature searches, stay updated within the scientific community, understand methodology and results, and draw conclusions. Overall, the results of research projects are often very complex because the brain is very complex. There is still so much we don’t know about the brain.
What lessons will you take to the classroom?
My experience in the Hurd Lab, guidance from my lab mentor, Alexandra Chisholm, PhD, and professional development sessions have all inspired me. I plan to use some physical, interactive models acquired in my professional development sessions, to teach synapses. For example, I can have students throw balls (neurotransmitters) from the presynaptic neuron into the receptors (cups) of postsynaptic neurons. I can use this model to teach about neural communication and neuroplasticity.
I also want to encourage my students to learn coding via datacamp.com. I was enrolled in some courses during my time in the Hurd lab, where I acquired a great set of introductory skills. Educators can help students enroll in six-month coding courses that are interactive and project based. This is a great fit for my school because we don’t have a computer science teacher.
The Hurd lab also inspired me to create a bioinformatic poster project. Dr. Hurd is actively working to bridge the connection between the research community and the larger society, and she teaches her college interns the importance of this connection by assigning them a bioinformatics poster about prenatal exposure to cannabis. I think students can solidify their understanding of any topic by making posters to inform or educate local communities. For example, my students are very passionate about LGBTQ+ activism. I plan to have them create bioinformatic posters for trans teens about the mechanisms behind hormone replacement therapy.
Lastly, I plan to utilize some of the connections I built during this experience to coordinate field trips to science research labs or facilities to give students a better sense of where scientists work, what problems researchers are investigating