Science

A thorough and intensive study of the subject of biology, this course covers the material on the AP exam syllabus and is considered the equivalent of a first-year, college-level course. Labs in biotechnology, outside reading, and computer-based learning provide a challenging menu for the student interested in the subject of biology. This course prepares students to take the AP Biology exam.

This course assumes a strong grasp of introductory chemistry; a background in physics is helpful. Many familiar chemical concepts are investigated in more detail and several new topics such as thermodynamics and electrochemistry are introduced. Lab work in this course is more extensive and complex, and involves greater use of instrumentation such as visible spectrophotometers; more emphasis is placed on accurate quantitative results than in first-year chemistry. This course prepares students for the AP Chemistry exam.

AP Physics offers a calculus-based extension of the classical mechanics topics introduced in Honors Physics. Inquiry-based laboratory work and problem sets are the foundational pillars of each unit, inviting students to apply theoretical concepts to real-world scenarios. Additionally, students explore physics beyond the AP curriculum through readings, classroom discussions, and independent project work. The equivalent of a one-semester physics course at most colleges and universities, this course prepares students for the AP Physics C: Mechanics exam. Note: Due to the rigorous use of differential and integral calculus techniques, AP Physics students must have previously taken or be concurrently enrolled in BC Calculus.

The spectacular engineering of the human body intrigues us all, and this course examines the structure as well as the function of that marvelous design. The sophistication and fine-tuned physiology of each system is studied, as well as how disease affects homeostasis or the balance of each system. Within each unit, the relevance of our studies to current health and wellness issues is emphasized through topics like sports medicine, computer analysis of diet and nutrition, skin cancer, tissue engineering, cardiovascular disease, concussions and second impact syndrome, Alzheimer's, and CPR and First Aid. Laboratory-based learning is emphasized through work with microscopes, dissection, anatomical models, simulations, and our on-campus fitness center.

This course will introduce students to the immune system, and the molecular and cellular mechanisms that organisms use to differentiate self from non-self. By learning how organisms recognize and respond to foreign substances, students will gain a better understanding of the biology behind autoimmune disorders, allergies, organ transplants, and vaccines. The course will focus both on the experimental evidence that forms our understanding of the immune system and the clinical relevance of that knowledge.

This course in astronomy engages students with an overview of the universe; topics for discussion include the origin of the universe, the formation of the solar system, stellar evolution, the emergence of life on Earth (and possibly elsewhere), and the historical development of science. Technical skills will be stressed through labs, and assignments in class will give students opportunities to understand the material from a deep level while giving them a chance to apply skills learned in their math courses. Additionally, students will use technical computing to solve numerical problems and express their findings in written reports, developing their scientific communication skills.

The course begins with a review of electricity, starting with a quick re-examination of circuit vocabulary and concepts. Electric fields, magnetic fields and Faraday's law of electromagnetic induction are then introduced. Students synthesize concepts by (a) measuring the magnetic field strength of the earth, (b) learning about the aurora borealis, and (c) understanding the electric power generation and distribution grid in Massachusetts. Finally, students examine how electricity and magnetism join together according to Maxwell's equations to produce light. The fall semester culminates with a gigantic design project. Students build a room-sized Rube Goldberg-style kinetic sculpture, incorporating tools and skills developed during the electricity and magnetism units.

This advanced course offers students the opportunity to study Nature’s chemical artistry beyond the confines of a regular classroom environment. In the first portion of the course, students work to develop molecular-level understanding of biological systems and master an arsenal of techniques for probing these systems, including gel electrophoresis, chromatography, spectroscopy, and molecular modeling. In the second portion of the course, students design and conduct original research on self-selected biochemical problems. Independent work is communicated through a final poster presentation.