Curriculum Detail

Explore our Curriculum

Science

The Science Department offers courses at many different levels for students with varied interests and abilities. A wide range of advanced courses and electives encourages students to go beyond the two-year
science requirement.  All of the courses emphasize building the student’s interest and confidence, illuminating connections among the sciences and between science and everyday life, building a logical approach to problem solving, and developing skills of observation, inquiry, analysis and communication.

A student may fulfill the School’s graduation requirement in Science by taking Biology and Chemistry or Physics during the academic year. The usual sequence is Biology, Chemistry, Physics, and advanced sciences
or electives. Chemistry and Chemistry Accelerated are mutually exclusive, as are Physics and AP®Physics 1.

Our signature research program, The Hopkins Authentic Research  Program in Science (HARPS), offered in Grade 11 and the following summer, requires a special application and approval process. Students who successfully complete the yearlong course in experimental design will work in a university laboratory during the summer following Grade 11.
  • Engineering Nature

    Engineering Nature:
    Earth System Science and Climate Change

    Grades 10–12, Term I, ½ credit 

    Can we control nature? In the age of engineering, can solutions which once seemed like science fiction be the answers to our climate problems? Students will build on their understanding of the kinematics and dynamics behind how the Earth's climate system functions and learn how humans have perturbed this system. Through hands-on experiments, they will explore multiple case studies about how our impact on Earth's thermal system has made major changes in areas such as ocean chemistry, storm intensity, and coastline geomorphology. The capstone of this course is a student-driven design engineering project which will engage students in posing questions and using maker spaces to develop solutions.

  • Adv Biology: Aquatic Systems

    Aquatic Systems offers students the chance to explore aquatic life and ecosystems through the lens of place—from freshwater lakes and rivers to brackish wetlands, estuaries, and the open ocean. Students examine how physical conditions like salinity, depth, and flow shape biodiversity, physiology, and ecological interactions across these environments. Topics include microbial productivity, invertebrate and vertebrate adaptations, food web dynamics, and the impact of human activity on aquatic systems. Coursework is grounded in lab investigation and field-based inquiry. Students conduct water quality testing, sample aquatic organisms, and participate in conservation-focused fieldwork, including horseshoe crab monitoring and estuarine research. Through comparative analysis of systems such as mangrove forests, salt marshes, and coral reefs, students develop a broad and applied understanding of aquatic biology. Topics may include freshwater ecosystems, brackish systems, estuaries,  marine systems, conservation across aquatic systems. (Prerequisites: Biology and Chemistry or higher and departmental approval)

  • Adv Biology: Cell & Microbiology

    Cell & Microbiology introduces students to the structure, diversity, and behavior of cells, with a special emphasis on microorganisms. The course also explores the fundamental biology of prokaryotic and eukaryotic cells, the metabolic strategies microbes use to survive and grow, and the roles they play in ecosystems and human health. Students investigate how microbes interact with their environments, with other organisms, and within the human body—through both beneficial and harmful relationships. Through hands-on labs and observations, students learn essential microbiology techniques, develop experimental skills, and gain a deeper appreciation for the invisible organisms that shape our world. Topics may include cell structure and function, cellular biochemistry, microbial metabolism and growth, microbial diversity and ecology, and microbes and human health. (Prerequisites: Biology and Chemistry or higher and departmental approval)
  • Adv Biology: Evolution & Biodiversity

    Advanced Evolution and Biodiversity examines the principles of evolution and the biological diversity that results from it. Students study how genetic variation and evolutionary processes shape populations and lead to the development of new species. Key topics include natural selection, genetic drift, speciation, phylogenetics, and the classification of life. The course also includes units on Mendelian and non-Mendelian genetics, developmental biology, and the evolution of major body plans. Students use data analysis, modeling, and case studies to explore how evolutionary theory is applied in modern biology, including conservation, biotechnology, and the study of human origins. Topics may include evolutionary theory and evidence, population genetics and microevolution, Mendelian and non-Mendelian genetics, speciation and macroevolution, phylogenetics and classification, evolution of development, biodiversity and applied evolution. (Prerequisites: Biology and Chemistry or higher and departmental approval)
  • Adv Biology: Molecular Genetics & Biotech

    Molecular Genetics and Biotechnology offers students a focused exploration of how genetic information operates in eukaryotic cells and how biotechnology tools are used to manipulate it. Through lectures, labs, and real-world case studies, students explore how DNA is replicated, how genes are regulated and expressed, and how scientists apply these processes in genetic engineering, medicine, and agriculture. Emphasizing eukaryotic gene control mechanisms and modern molecular lab techniques like PCR and gel electrophoresis, the course connects molecular biology to real-world applications in medicine, agriculture, and genetic research. It provides a strong foundation for students interested in biomedical research, genetics, or careers in biotechnology. Topics may include DNA structure and function, eukaryotic gene expression and regulation, molecular biology lab techniques, and genetic engineering and biotechnology. (Prerequisites: Biology and Chemistry or higher and departmental approval)
  • Adv Chemistry: Energy & Change

    This second year, lab-rich course invites students to explore the driving forces of physical and chemical changes through the lenses of reactions, their rates and corresponding energy profiles. Key concepts include oxidation-reduction, composition analysis, collision theory, rate laws, basic nuclear chemistry, enthalpy, entropy, Gibbs free energy, voltaic and electrolytic cells. Laboratory work will use spectroscopic and other quantitative methods, including calorimetry and titration, to investigate physical and chemical processes. Students will consistently draw on their understanding of nomenclature, reactions, and stoichiometry from first-year chemistry as they calculate quantities, interpret data, and construct explanations. (Prerequisite: Chemistry or higher and departmental approval)
  • Adv Chemistry: Organic

    This course explores the structure, properties, and reactions of carbon-containing compounds. Building on foundational knowledge from biology and first-year chemistry, students will study organic nomenclature, structural formulas, stereochemistry, bonding, reaction mechanisms, and key functional groups. The course also highlights real-world connections to biochemistry, medicinal chemistry, toxicology, and pharmacology to contextualize organic chemistry’s role in health and science careers. Laboratory investigations include chromatography, basic synthesis techniques, and spectroscopy, providing hands-on experience with essential organic methods. Modifications to topics will be made based on instructor and student interests to foster engagement and curiosity. (Prerequisite: Chemistry or higher and departmental approval)
  • Adv Climate & Systems Science

    This advanced course examines Earth as an engineered system of interconnected energy and matter flows. Students apply systems and futures thinking to explore how interactions among the atmosphere, hydrosphere, biosphere, and geosphere drive climate processes and change. Through modeling, lab investigations, and real-world case studies, students analyze both historical and emerging climate dynamics to understand how human activities perturb natural equilibria. Drawing on principles of environmental engineering and design, students use systems models to prototype innovative, science-based solutions that promote resilience and sustainability. The course culminates in a Design Capstone, where students collaborate to create, test, and communicate actionable interventions for a changing planet (Prerequisite: Biology and Chemistry or Physics).

  • Adv Physics: Electromagnetism & Light

    This calculus-based elective explores the interconnected world of waves and fields that power modern technologies and shape our understanding of the universe. Students will develop a strong conceptual and mathematical foundation in electricity and magnetism, covering electric charge, fields, circuits, and electromagnetic induction. From this opening, the course investigates how electromagnetic waves emerge, their behavior as light, and the ways they interact with matter through phenomena such as reflection, refraction, lenses, mirrors, and wave interference, culminating in a first look at the quantum nature of light. Through frequent hands-on labs and real-world investigations, students will analyze, model, and experiment with the fundamental forces that govern everything from everyday electronics to space telescopes.. This course is ideal for students eager to challenge themselves and prepares them for further study in science or engineering. (Prerequisite: Physics or higher; Co-requisite: Calculus 1 Enriched or higher)
  • Adv Physics: Fluids & Thermodynamics

    This advanced, lab-rich elective invites students to dive into the physics of fluids and the fundamentals of thermodynamics—exploring the principles that govern everything from ocean currents and weather patterns to engines and stars. Beginning with the properties of matter and the nature of fluids, students investigate pressure, buoyancy, fluid flow, and the surprising behaviors behind phenomena like flight and flotation. The course then transitions to thermodynamics, where students explore temperature, energy transfer, heat engines, and entropy, developing both a conceptual and mathematical understanding of the laws that shape our universe. Throughout, students engage in hands-on labs and experiments, analyzing real data and applying theoretical models to real-world systems. Students design a final project of their own choosing, showcasing their mastery of the material through creative exploration or practical application. This course builds a strong foundation for further study in physics or engineering, while nurturing scientific curiosity and independent thinking. (Prerequisite: Physics or Core Enriched Physics)

  • Adv Physics: Mechanics & Waves

    This calculus-based elective provides a deep dive into mechanics.  Applications that deepen and enrich core physics learning of kinematics, Newton’s Laws, universal gravitation, linear and rotational momentum, Energy, Simple Harmonic Motion, sound, and waves are explored.  Using digital probeware available in the laboratory and on their phones, students work collaboratively to design, conduct, and present a Capstone Experiment on a topic of their choice. Projects addressing mechanical performance or design in a wide range of disciplines including but not limited to athletics, dance, music, or mechanical engineering can be explored.  This course has a required Capstone experiment and term exam.  It is intended for inquisitive students with a strong interest in physical science or engineering.  (Prerequisite:  Physics or higher, Corequisite: Calculus 1 Enriched or higher)

  • Adv Physics: Modern Topics

    This advanced course is a flexible, second-semester course that adapts its content to match student curiosity. As a calculus-based course, it begins by refreshing students' comfort with essential tools—dimensional analysis, order-of-magnitude reasoning, foundational probability, and the language of vectors—while deepening the mathematical sophistication. The remaining trajectory is co-designed by the class, selecting from threads such as special relativity and spacetime, quantum mechanics and information, nuclear and particle physics, solid-state and superconductivity, astrophysics and cosmology, or instrumentation and data analysis. Emphasis falls on questions that connect principle to practice: from lasers, semiconductors, and MRI/PET to GPS timing, quantum sensing, and space telescopes. Learning is inquiry-driven and collaborative, blending hands-on experiments with theoretical exploration, computational modeling, and technology design challenges. Culminating in a final project, students cultivate conceptual depth, physical intuition, and investigative confidence—emerging with a skillset well suited for further study in physics, astronomy, or engineering. (Prerequisite: Physics or higher, Corequisite: Introduction to Calculus or higher)

  • Advanced Robotics Engineering: AI and Machine Learning

    Advanced Robotics Engineering:
    A.I. and Machine Learning

    Grades 11 & 12, Term II, ½ Credit

    Robots are increasingly becoming more and more “human-like” to the point that they can learn how to do certain functions independently and make intelligent decisions. In this course, we will study the topics of machine (reinforcement) learning and artificial intelligence, using mobile robots, specifically legged and wheeled robots. Students will learn the kinematics and dynamics of robots, as well as how to create feedback algorithms to control robots' motion. Students will study reinforcement learning and create A.I. simulations and then used these tools to teach a four-legged robot how to walk and run and teach a wheeled robot how to learn to successfully navigate its environment. Prior physics knowledge is required for this course, so students should have either already completed a Physics course or should currently be enrolled in AP® Physics 1. (Prerequisites: Physics and Robotics Engineering or departmentally approved experience with robotics; Co-requisite: AP® Physics 1—if Physics prerequisite not satisfied).

  • AP Physics C: Mechanics

    AP® Physics C: Mechanics

    Grades 11 & 12, Term I, ½ credit

    In the first half of this second-year Physics course sequence, students concentrate on mechanics, exploring both the theory and applications of Newton’s laws. Calculus is an essential tool while the range of topics discussed becomes more focused and the depth of
    problems explored dramatically outstrips those seen in the preparatory course, AP® Physics 1. This course prepares students for the Advanced Placement® Examination in Physics C: Mechanics. (Prerequisite: AP® Physics 1; Co-requisite: AP® Calculus BC, or AP® Calculus AB with an A- or higher in Enriched Precalculus, and departmental approval)
  • Astrophysics: Light and Stars

    Astrophysics: Light and Stars

    Grades 10–12, Term I, ½ credit

    This course will allow students to explore the stars and what powers them. Students will start by learning to navigate the sky, then turn to the nature of light, our main (and until recently, only) method of observing the heavens. Finally, the bulk of the semester will be spent on the primary sources of light in the universe: stars. The course will answer questions such as: How does light travel across the universe, and what hinders it? What powers stars? How do stars form, and what conditions create different types of stars? What happens as a star’s fuel runs out? The semester will end with topics of the students’ choice, which may include exoplanets, cosmology, solar system formation, black holes, galaxies, quasars, and more. Throughout the semester, the course will exchange in-class days for other events, such as observations at night with Hopkins’ telescopes. (Prerequisite: Algebra 2; Co-requisite: Chemistry)

  • Botany: Roots to Shoots

    Botany: Roots to Shoots
    Grades 11 & 12, Term I, 1⁄2 credit
    This course will be an introduction to the fascinating
    and diverse world of plants, from the tiniest mosses
    to towering forest giants, and from exotic orchids to
    carnivorous species. The course will take a project-based
    approach to studying the topics of evolution, diversity,
    structure and function, reproduction, and ethnobotany,
    focusing on the economic, medicinal, and cultural
    uses of plants. Students will explore botany through a
    series of interactive projects and activities to deepen
    their understanding of how plants fit into the ecosystem,
    culture, local community, and world around them.
    (Prerequisite: Biology; Co-requisite: Chemistry or
    Chemistry Accelerated)
  • Chemistry Enriched

    This course is designed for students with high science aptitude and proven achievement in both science and mathematics. Thus, self-motivation and a significant time commitment are required for mastery of the material. Topics include: the structure of the atom, nuclear chemistry, periodicity of the elements, chemical bonding and molecular structure, chemical reactions, stoichiometry, gas laws and kinetic theory, kinetics, thermodynamics, equilibrium, and acids and bases. The course may also include some of all of the following topics: oxidation/reduction, electrochemistry, and biochemistry. Placement in the Chemistry classes will be based on a placement test and department approval. Please note, while both Chemistry and Enriched Chemistry are first year chemistry courses, material is taught in a different order. Movement in either direction between the two courses after the school year has started is burdensome for the student. (Prerequisite: Biology, Algebra II or higher, and departmental approval)
  • Chemistry Enriched

    This course is designed for students with high science aptitude and proven achievement in both science and mathematics. Thus, self-motivation and a significant time commitment are required for mastery of the material. Topics include: the structure of the atom, nuclear chemistry, periodicity of the elements, chemical bonding and molecular structure, chemical reactions, stoichiometry, gas laws and kinetic theory, kinetics, thermodynamics, equilibrium, and acids and bases. The course may also include some of all of the following topics: oxidation/reduction, electrochemistry, and biochemistry. Placement in the Chemistry classes will be based on a placement test and department approval. Please note, while both Chemistry and Enriched Chemistry are first year chemistry courses, material is taught in a different order. Movement in either direction between the two courses after the school year has started is burdensome for the student. (Prerequisite: Biology, Algebra II or higher, and departmental approval)
  • Design Engineering

    Design Engineering 

    Grades 10–12, Term II, ½ credit, Student may declare credit for Science or Art

    Answering the call of  twenty-first century research to recognize the powerful synergy between art and science, this multidisciplinary course is team-taught by teachers in both disciplines. Students explore the space where science and art overlap by working individually and collaboratively on a series of projects and research-based experiments. Equal time in the classroom, laboratory, and art studio enables students to learn the science, practice visualizations, and produce viable, creative, and whimsical solutions to scientific problems. Projects may include designing vehicles in which fluid dynamics serve as inspiration for beautiful line patterns and vice versa, creating structures that recognize the relationship of form and function in architecture, mapping the mathematics in nature, manipulating waveforms in the production of music and optical effects. This course counts as an academic course for determining course load. (Co-requisite: Precalculus or higher)

  • Earth Science: Core to Crust

    Earth Science: Core to Crust

    Grade 7

    This course introduces the workings of the scientific method and basic laboratory skills. Metric measurement and experimental design are emphasized as students practice asking and answering scientific questions related to the Earth and its systems. Within the context of studying minerals, students are introduced to chemical concepts such as atomic structure, phase transitions, and the periodic table. Both qualitative and quantitative data analysis skills are applied throughout the year. Organization and observation skills are reinforced as
    students explore concepts such as Earth’s structure, geology, and plate tectonics.
  • Earth Science: Surface to Space

    Earth Science: Surface to Space

    Grade 8

    This course exposes students to additional topics within the area of Earth Science. Using the world around us as our subject, students study topics that include climate and weather, water, and other natural resources. Introductory physics concepts such as mechanics, energy transfer, and gravity are taught within the context of these topics. Through lectures, labs, and projects, students develop an awareness of some of the complexities of the modern world, including the transfer and transformation of energy, climate change, and resource allocation. The course emphasizes the development of analytic thinking and reasoning. The course aims to portray science as a relevant and rewarding field of study and to prepare students for more advanced work in the high school.

  • Hopkins Authentic Research Program In Science

    Science Research Program

    Hopkins Authentic Research
    Program In Science (HARPS)

    Grade 11 ONLY, Full-year course, 1 credit;
    Additional Summer Lab Research, ½ credit

    Hopkins provides students with an opportunity to engage in authentic scientific research at a partner university or other research lab after completing a year-long experimental design curriculum on campus. In Term I of Grade 11, students concentrate on specific elements of the scientific method by executing physical and biological science techniques, completing targeted experiments, and delving into and critiquing current scientific articles in a journal-club format, all while learning content to complement experimental work. Upon this foundation, students begin to narrow their focus to a scientific area and identify potential laboratories doing work which aligns with their interests. After the summer experience, students share their research with the greater community during a poster session. The top presenters at this session will be invited to deliver a talk to their peers during the Fall science seminar. (Prerequisites: Biology and Chemistry, application, and departmental approval)

  • Physics Enriched

    Physics Enriched combines bold curiosity with real-world exploration as students uncover the essential principles of physics. This course blends deep conceptual insight and mathematical fluency with hands-on investigation, guiding students through the essential principles of mechanics, motion, forces, momentum, and energy in the first term, then advancing into rotational dynamics, gravity, orbital mechanics, electricity, and circuits in the second. Throughout, students engage in real-world problem solving, experimental work, and data analysis, leading to an immersive field experience at Six Flags New England, where they use smartphone technology to collect and analyze ride data to see physics in action beyond the classroom. The year concludes with collaborative group projects that push students to synthesize and apply what they’ve learned, inviting them to explore special additional topics like sound, relativity, or fluid dynamics (among many others). Physics Enriched is designed to empower students to think like physicists and ignite their curiosity and confidence, building the foundation and scaffolding necessary for success in advanced level physics courses, while helping students discover and pursue their own passions within physics and beyond. (Co-requisite: Precalculus Enriched or higher)

  • Psychology

    Psychology

    Grades 11 & 12, Term I & II, ½ credit

    This course includes topics typically studied in a standard college introductory psychology course. It provides a general overview of the following topics: methods, approaches, and history; biological basis of behavior; sensation and perception; state of consciousness; learning; cognition; motivation and emotion; testing and individual differences; developmental psychology; personality; abnormal psychology; treatment of psychological disorders; and social psychology. In addition, students begin to explore the process of self-discovery through classroom assignments and individualized projects. For those students interested in taking the Advanced Placement® Examination in Psychology, supplemental preparation is offered. (Prerequisites or Co-requisites: Biology and Chemistry)

  • Robotics Engineering

    Robotics Engineering

    Grades 10–12, Term I, ½ credit

    This is a multi-disciplinary and project-based learning course which will introduce students to robots and engineering in our technologically-advancing global society. The driving question for this class will be “How can robots make a positive impact and solve problems and challenges in our global community?” Working in guided inquiry teams, students will research and identify their community problem and work towards the goal of successfully designing, building, and testing a robot that can provide a viable, robust solution. Using the Engineering Design Process, students will learn how to logically and methodically progress through their identified challenge through the stages of robot design and develop an understanding for the iterative nature of problem solving. Students will learn how to design a robot chassis with motion, sensor control hardware, and arm manipulation. Students will also learn how to code the hardware for both driver-controlled and autonomous modes.

  • Summer: Bugs, Bacteria, & Biotechnology - A Fun Look at the Cool Things Biologists Do!

    Open to students entering grades 7–8.
      
    Join us for a summer of Biology exploration! Students will study the invisible microbial world that surrounds us, exploring biodiversity in the Hopkins forest, and delve into the mysterious workings of cells. Members of class will engage in activities and hands-on investigations, such as: 
    • Creating homemade pH indicators
    • Researching their favorite pathogen
    • Collecting and studying invertebrates (respiration rate and behavior investigations)
    • Solving epidemiological mysteries 
    • Turning E. coli blue with the magic of molecular genetics
    No prior experience with Biology needed (but a curiosity about the world around you encouraged!)
  • Summer: Robot Rumble! Build, Code, Discover

    Open to all students entering grades 7–9.
    In this immersive, five-week robotics camp, students jump into the world of engineering as they design, build, and program their own custom robot! Using a microcontroller, small groups will wire LEDs, buttons, sensors, and motors to build a robot, then bring their creations to life with beginner-friendly MicroPython code.

    As the weeks progress, each group’s robot will evolve from a simple rolling chassis into a smart machine that can navigate courses, dodge obstacles, and power a mechanism like a claw, arm, or launcher. Along the way, students will learn how robots sense their environment, how code controls motion, and how engineers test, troubleshoot, and improve their designs.

    The class culminates in the Robot Rumble—a friendly and fun challenge where robots race through mazes, complete missions, or score points in a custom game. No prior coding or robotics experience is required—just curiosity, creativity, and a willingness to experiment.
  • Biology

    Biology

    Grades 9 & 10

    This course introduces students to the core ideas of biology including cellular structure, energy transfer in ecosystems, genetics & heredity, and evolution. These topics will be explored through a variety of methods, including demonstration, class discussion, guided-inquiry and experimentation. By the end of the course, students will be empowered to delve further in the
    subject by using newly acquired biological content knowledge and skills to analyze and interpret novel situations.
  • Chemistry

    Chemistry

    Grades 10–12

    This fundamental science course includes lecture, problem-solving, integrated activities, and laboratory experiments, and is designed to introduce the student to the nature of matter. The material is presented with both descriptive and quantitative considerations, with emphasis on problem-solving skills and abstract (theoretical) conceptualization. Topics include: gas laws and kinetic theory, properties of matter, basic kinetics, the structure of the atom, periodicity of the elements, chemical bonding and molecular structure, chemical reactions, stoichiometry, thermodynamics, nuclear chemistry, equilibrium, and acids and bases. Placement in the Chemistry classes will be based on a placement test and departmental approval. Please note, while both Chemistry and Chemistry Accelerated are first year chemistry courses, material is taught in a different order. Movement in either direction between the two courses after the school year has started is burdensome for the student.  (Prerequisite: Biology)

  • Chemistry Accelerated

    Chemistry Accelerated

    Grades 10–12

    This course is designed for students with high science aptitude and proven achievement in both science and mathematics. Thus, self-motivation and a significant time commitment are required for mastery of the material. Topics include: the structure of the atom, nuclear chemistry, periodicity of the elements, chemical bonding and molecular structure, chemical reactions, stoichiometry, gas laws and kinetic theory, kinetics, thermodynamics, equilibrium, and acids and bases. The course may also include some of all of the following topics: oxidation/reduction, electrochemistry, and biochemistry. Placement in the Chemistry classes will be based on a placement test and department approval. Please note, while both Chemistry and Chemistry Accelerated are first year chemistry courses, material is taught in a different order. Movement in either direction between the two courses after the school year has started is burdensome for the student. (Prerequisite: Biology and departmental approval)

  • Physics

    Our introductory physics course is designed to provide a solid scaffolding for students to start building up their understanding of essential principles in physics as well as some of the applications of those principles in the world around us. The course is based on conceptual and algebra-based learning supported by frequent hands-on experiences and lab activities. The syllabus is composed of kinematics, dynamics, momentum, and energy in the first term, and universal gravitation, simple harmonic motion, rotational mechanics and planetary motion, and electricity and simple circuits in the second term. The course leads to an immersive field experience at the Six Flags amusement park in New England in the second term. Finally, the year course concludes with collaborative group projects that encourage students to choose a project that aligns with their personal interests and to synthesize and apply what they have learned. (Co-requisite: Precalculus or higher)

  • AP Physics C: Electricity & Magnetism

    AP® Physics C:
    Electricity and Magnetism

    Grades 11 & 12, Term II, ½ credit

    In the second half of this second-year Physics course sequence, students investigate Maxwell’s laws of electricity and magnetism. Calculus is an essential tool in both terms while the range of topics discussed becomes more focused and the depth of problems explored dramatically outstrips those seen in the preparatory course, AP® Physics 1. This course prepares students for the Advanced Placement® Examination in Physics C: Electricity and Magnetism, and concludes with a review period covering both mechanics and electromagnetism. (Prerequisite: AP® Physics C: Mechanics).

  • Anatomy & Physiology

    Anatomy and Physiology

    Grades 11 & 12, Term II, ½ credit

    This course gives students the opportunity to explore how the human body works by investigating the structure and functions of its parts and systems. Topics include the muscular, skeletal and cardiovascular systems, as well as other topics that demonstrate the interconnectivity of all the systems. The lab component of this course allows students to compare anatomical structures among various species and to investigate the evolutionary relationships across taxa. (Prerequisites: Biology and Chemistry or Physics)

  • Contemporary Issues in Science

    Contemporary Issues In Science

    Grades 11 & 12, Term II, ½ credit

    This course gives students a chance to dive into science topics that they may not have otherwise had a chance to consider. Are stem cells the new magic bullet in eradicating human diseases? Do detox diets do a better job than your own liver?  Is the statement “I took a homeopathic remedy, and two days later my cold was gone. Homeopathy really works!” a post hoc logical fallacy or an argumentum ad ignorantiam? What emerging diseases should we watch out for, and should science eradicate mosquito species entirely? Class participation and discussion are essential components of this course. (Prerequisites: Biology and Chemistry or Physics)

  • AP Environmental Science

    AP® Environmental Science

    Grades 11 & 12, 1 credit

    Students examine the four spheres of the natural world, the biosphere, atmosphere, lithosphere, and hydrosphere, from an interdisciplinary perspective that incorporates the data collected through scientific research with the social, economic, political, and legal issues of human society. Using a combination of laboratory and field experimentation, as well as local field trips, students examine issues of environmental concern that are both current and local, gaining understanding of the scientific principles, concepts, and methodologies required to understand the interrelationships of the natural world. In addition, through readings and classroom discussions, students can further evaluate the history of environmental issues, our society’s attempts to identify and address them, and potential solutions to prevent or resolve these issues in the future. Students are expected to write both formal laboratory reports and more informal persuasive response papers on a regular basis. Topics include: the loss of biodiversity, population and community ecology, renewable and non-renewable resource use, energy consumption and production, agricultural systems and food distribution, human population growth and economic development, and the effects of pollution on human health and the environment. (Prerequisites: Biology, Chemistry and departmental approval)

  • Modern Physics (T2)

    Grades 11 & 12. Term II, ½ credit.

    Ideas like time travel, quantum tunneling, universal
    expansion, and the mysterious probabilistic nature of
    existence feel to many the realm of science fiction, when
    in fact these phenomena are the most tested scientific
    predictions in history. In this course an exploration of
    Einstein’s relativity leads us to the inevitability of the
    basic paradigm of the universe’s behavior: Quantum Mechanics.
    With those new tenets in hand students embark
    on a final research project in a topic of their choosing
    in contemporary physics–from dark energy to quantum
    computers. (Co-requisites: Physics or AP® Physics 1, and
    AP® Calculus AB or higher)
  • Psychology

    Psychology

    Grades 11 & 12, Term I & II, ½ credit

    This course includes topics typically studied in a standard college introductory psychology course. It provides a general overview of the following topics: methods, approaches, and history; biological basis of behavior; sensation and perception; state of consciousness; learning; cognition; motivation and emotion; testing and individual differences; developmental psychology; personality; abnormal psychology; treatment of psychological disorders; and social psychology. In addition, students begin to explore the process of self-discovery through classroom assignments and individualized projects. For those students interested in taking the Advanced Placement® Examination in Psychology, supplemental preparation is offered. (Prerequisites or Co-requisites: Biology and Chemistry)

Our Faculty

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    Phillip Stewart
    Dr. Paul B. MacCready, Jr. '43 Science Department Chair
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    Davidson College - B.S.
    George Washington University - M.A.
    Columbia University - Ph.D.
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    Kristen Abraham
    Science
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    Muhlenberg College - B.S.
    Wesleyan University - M.A.L.S.
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    Dawn Card
    Science
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    Ian Clark
    Science
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    Amherst College - B.A.
    Washington University at St. Louis - M.A.
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    Lynn Connelly
    Science
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    Northwestern University - B.S.
    Michigan State University - M.S.
    University of Michigan - M.S.
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    Kellie Cox
    Science
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    University of Idaho - B.S.
    University of Idaho - Ph.D.
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    A. Joel D'Angelo
    Science
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    University of Maine - B.S.
    Wesleyan College - Ph.D.
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    Priscilla Encarnação
    Science / Director of HARPS
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    University of Connecticut School of Pharmacy - Ph.D.
    Yale University - Postdoctoral Research Fellow and Associate
  • Photo of Maura Foley
    Maura Foley
    Science
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    Bates College - B.S.
    University of Maine - M.S.
    University of Maine - M.S.
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    Jennifer Geel
    Pathfinder Director of Admissions & Operations / Science
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    University of New Haven - B.S.
    Central Connecticut State University - M.S.
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    Earl Geyer
    Science
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    Wesleyan University - B.A.
    Johns Hopkins University - Ph.D.
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    Sarah Leite
    Science
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    Bowdoin University - A.B.
    Yale University - MA
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    Angelina Massoia
    Head Adviser Class of 2029 / Science
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    Wesleyan University - B.A.
    University of Pennsylvania - MSEd
    Clemson University - MS
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    Allison Mordas
    Science
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    The Evergreen State College - B.A./B.S.
    UMass Lowell - M.Ed.
  • Photo of Jason Nevis
    Jason Nevis
    Director of Aquatics
    203.397.1001 x524
    California State University Long Beach - BA
    Azuza Pacific University - MS
    Loyola Marymount University - Certificate/Credential
  • Photo of Lisa Proulx
    Lisa Proulx
    Dean of Innovation & Strategic Initiatives / Science
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    University of California, Los Angeles - B.S.
    California State University, Long Beach - M.S.
  • Photo of Ashley Sjolund
    Ashley Sjolund
    Science
    203.397.1001 x602
    Yale University - PhD
    Villanova University - B.S.
  • Photo of Octavio Sotelo
    Octavio Sotelo
    Science
    203.397.1001 x685
    National University of Mexico (UNAM) - B.S.
  • Photo of Jennifer Stauffer
    Jennifer Stauffer
    Science
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    Augustana College - B.A.
    Yale University - M.S.
    Knowles Teaching Initiative - Senior Fellow
  • Photo of Susan Watson
    Susan Watson
    Director of Counseling, School's Psychologist
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    Harvard University - Ph.D.
    Yale University - B.A.
  • Photo of Tania Wessel
    Tania Wessel
    Science
    Yale University - Ph.D.
    University of California, at Santa Barbara - BA
  • Photo of Joshua Young
    Joshua Young
    Head Adviser Class of 2026 / Science / Pathfinder Co-Director of Summer Program
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    Colby College - B.A.
    Yale University - M.S.
2026 Niche Best Schools
Ranked #1 College Prep Day School
in Connecticut
Hopkins is a private middle school and high school for grades 7-12. Located on a campus overlooking New Haven, CT, the School takes pride in its intellectually curious students as well as its dedicated faculty and staff.
Hopkins School admits students of any race, color, national and ethnic origin to all the rights, privileges, programs, and activities generally accorded or made available to students at the school. It does not discriminate on the basis of race, color, national and ethnic origin in administration of its educational policies, admissions policies, scholarship and loan programs, and athletic and other school-administered programs.