150 Best Colleges for Neuroscience

Over the past two decades, the popularity of Neuroscience as a college major has increased rapidly. 

It makes sense that students would be attracted to the study of neuroscience. Neuroscience is an exciting, rapidly-evolving field. New technologies have made it possible to study the brain and cognition in deeper ways than ever before, and neuroscience relates to many of the pressing issues of our time, from AI to human-machine interfaces to cognitive development to aging. It can be incredibly exciting to try to understand the organ that defines us as individual, conscious human beings.

Because neuroscience is a new and inherently interdisciplinary field, there’s an incredible amount of variation in what it means to study Neuroscience in college. At some colleges and universities, the Neuroscience major is almost entirely about the biology of the brain (neurobiology), while at others, the Neuroscience major is primarily focused on questions of cognition, behavior, and perception (neuropsychology). Some colleges have created standalone Neuroscience academic departments with their own faculty and classes, while other colleges have left Neuroscience as an inter-departmental collaboration between the Biology and Psychology departments. Some colleges offer a separate major in Cognitive Science, while other colleges bundle cognitive science topics into a Neuroscience major. Some colleges don’t technically offer a Neuroscience major, but can still be a great place for studying neuroscience. These differences will have a big impact on the experience of studying neuroscience as an undergrad!

Below, I provide a list of 150 colleges and universities in the US that offer strong programs in neuroscience. First, though, I want to explain a bit more about neuroscience as a field. I know that it’s rare for high school students to have the opportunity to engage much with neuroscience before college. It’s my hope that learning a bit more about the different sides to neuroscience can help students as they decide where to apply to college.

If you just want the list of colleges, skip ahead:

Best ultra-selective colleges for Neuroscience (<10% admitted)

Best highly selective colleges for Neuroscience (10–20% admitted)

Best very selective colleges for Neuroscience (20–35% admitted)

Best moderately selective colleges for Neuroscience (35–50% admitted)

Best less-selective colleges for Neuroscience (50+% admitted)

Introduction

Neuroscience as a discipline

Understanding a bit about how colleges and universities are structured can help give context to the current state of Neuroscience in higher education.

Most academic disciplines have been around for a long time. Disciplines like biology, chemistry, physics, mathematics, economics, political science, history, and philosophy solidified in the late-nineteenth century as separate areas of study as scholars became increasingly specialized. The concept of a college major (as opposed to a general studies degree) developed around the same time, and new professional societies and specialized journals devoted to each discipline also emerged. At most colleges and universities, academic departments (which hire faculty, offer classes, and administer majors and minors) align with these established disciplines.

This context of academic disciplinarity means that when a new field develops that doesn’t fit neatly into the existing disciplines, colleges and universities have to figure out how to deal with it.

Neuroscience exists primarily at the intersection of biology and psychology, but also draws on other fields like chemistry, physics, philosophy, linguistics, economics, engineering, mathematics, and computer science. Some colleges have created new Neuroscience departments to align with this new field. The oldest departments were established in the 1960s (at Harvard and UC Irvine, where it was called Neurobiology and Psychobiology respectively), but many Neuroscience departments are very new. 

Not every college has created a new Department of Neuroscience. Many colleges have left Neuroscience hovering in between the Biology and Psychology departments, often creating a cross-departmental “Program in Neuroscience” to administer an undergrad major or minor. At other colleges, Neuroscience sits firmly within either the Biology department or the Psychology department, and the primary home for the Neuroscience program gives a clue as to the particular side of the field prioritized at that college. 

These different administrative structures can affect your undergraduate experience studying neuroscience.

The different flavors of neuroscience

Neuroscience refers to the study of the brain and the rest of the nervous system, but there are many different subfields within neuroscience. 

Here are some of the main ways that scientists across many fields are studying the brain:

  • Cellular and molecular neuroscience focuses on the biological mechanisms by which information flows within and among cells in the nervous system and the mechanisms through which the cellular structure of the nervous system develops and is maintained. Topics include the molecular basis of membrane permeability, action potentials, sensory transduction, synaptic transmission, neuronal modulation, mechanisms of drug action, and the molecular basis of genetic disorders of the nervous system. This area of neuroscience also might be called neurobiology or neurophysiology; when focused at the molecular level, this subfield might also be called neurochemistry. It overlaps significantly with biology, biochemistry, and pharmacology.

  • Behavioral neuroscience is the study of how the brain and the rest of the nervous system provide the foundation for behaviors, including decision-making, motivation, emotional processes, pathways for learning and memory, and normal and abnormal behavior processes. This area of neuroscience draws closer to psychology, and it might also be called biological psychology. Behavioral neuroscience might also overlap with economics (especially behavioral economics), sociology, or other social science fields. 

  • Cognitive neuroscience explores on how cognitive functions, such as vision or language, are implemented by the brain. Drawing upon a variety of techniques for probing the working brain at cognitive and neural levels—including functional neuroimaging, analysis of cognitive impairments in brain-damaged patients, and electrophysiological techniques—research in cognitive neuroscience seeks to relate mental representations and computations to brain mechanisms and processes. Cognitive neuroscience also engages with questions of consciousness. This area of neuroscience draws closer to psychology and overlaps significantly with linguistics (the study of language) and cognitive science.

  • Affective neuroscience focuses specifically on how the brain produces emotions. It identifies how particular structures, chemicals, and networks in the brain relate to emotional (affective) states such as fear, anger, or satisfaction. At many colleges, affective neuroscience falls under behavioral neuroscience or cognitive neuroscience.

  • Developmental neuroscience studies how the brain and nervous system form and change. Developmental neuroscientists explore both typical and atypical trajectories of nervous system development to better understand the bases of normal function and dysfunction. From the biological side, neuroscientists might focus on how neural anatomy develops. From the cognitive side, neuroscientists might study how cognitive processes that change with age such as judgment and learning, correspond to aspects of the developing brain. At many colleges, developmental neuroscience falls under behavioral neuroscience or cognitive neuroscience.

  • Systems neuroscience applies biological, physical, and computation techniques to study the brain as a complex system, approaching the brain at a larger scale rather than at the cellular or molecular level. Research in this area explores the description and analysis of neural circuits, focusing on the connectivity and interactions between neurons within specific brain regions to understand how neural circuits process sensory information, generate motor commands, and contribute to higher cognitive functions. Systems neuroscience can include electrophysiology, the electrical activity of biological systems in an organism. Computational modeling and data analysis usually essential for simulating neural circuits, analyzing connectivity, and interpreting complex neural data. Systems neuroscience could be considered a part of systems biology.

  • Sensory neuroscience focus specifically on how the brain processes sensory information like vision, hearing, smell (olfaction), and touch. It can also include the vestibular system (the balance and spatial orientation system located in the inner ear). At the cellular level, sensory neuroscience may include the anatomy and physiology of neurons that are part of sensory systems. At the systems level, it explores how sensory neural circuits transmit information. At the cognitive level, it may explore the philosophical basis of sensation.

  • Computational neuroscience incorporates a diverse set of approaches from mathematics, physics, engineering, and computer science to study brain function across many subfields of neuroscience: cellular and molecular, systems and circuits, and behavioral and cognitive. Computational neuroscience can also involve using inspiration from the biological brain to develop neural networks and other forms of machine learning systems (AI) that can mimic the brain. Computational neuroscience overlaps significantly with math, data science, statistics, and computer science, and might be considered a part of computational biology or bioinformatics.

  • Neural engineering involves using engineering technology to study the function of neural systems and the development of implantable technology for neuroprosthetic and rehabilitation applications. Neural engineering might include the study of electrophysiology (the electrical activity of biological systems in an organism) and neural circuits. Some programs might also cover the engineering of the imaging technologies (neuroimaging) that enable neuroscience research. Neural engineering could be considered a subfield of biomedical engineering, but often also involves a significant amount of electrical engineering.

If you already feel drawn to a particular area within neuroscience, you might consider that when making your college list. The classes that make up a Neuroscience major can vary quite a lot — some colleges lean more towards the neurobiology side, while other colleges lean more towards the cognitive and behavioral neuroscience side. While many colleges might offer one class in computational neuroscience, a limited number of colleges offer extensive coursework in computational neuroscience, and this may even be a separate major (in Computational Biology or Computational Neuroscience). Meanwhile, neural engineering is generally only offered at institutions with substantial biomedical engineering programs.

Neuroscience vs. Cognitive Science

If you’re exploring Neuroscience, you may also keep coming across this related field called Cognitive Science (also known as Cog Sci).

Cognitive science is the study of the human mind and brain, focusing on how the mind represents and manipulates knowledge and how mental representations and processes are realized in the brain, including how computations are implemented by neural tissue. Cognitive scientists also study how cognitive functions develop, and how they break down when the brain is damaged.

Like Neuroscience, Cognitive Science is a newer field and inherently interdisciplinary. Cognitive science has grown out of the overlaps between cognitive psychology, linguistics, biology, philosophy, computer science, mathematics, and design. A small number of colleges have created a standalone Cognitive Science department, with its own faculty and classes, but more often Cognitive Science exists as an interdepartmental program with classes and professors drawn from other departments. Compared to a Neuroscience major, a Cognitive Science major is more likely to include more coursework in Computer Science, Linguistics, and Philosophy.

Because of the significant overlaps between Neuroscience and Cognitive Science, I’ve included information about Cognitive Science in the college descriptions below. However, if you’re primarily interested in Cognitive Science, you can also consult this guide focused on the Best Colleges for Cognitive Science [LINK].

Neuroscience as a pre-med major

In the US, there is no required undergrad major for students intending to pursue careers in medicine. In order to apply to medical school, students just need to complete certain classes during the course of their undergrad degree, along with the MCAT exam. 

The college classes that you’ll need to take as a pre-med student are general biology (with lab), general chemistry (with lab), organic chemistry (with lab), biochemistry (with lab), calculus, general physics (with lab), and two semesters of English or another writing-intensive subjects. [Link to Association of American Medical Colleges (AAMC) requirements.] Some medical schools also ask for classes in genetics, anatomy and physiology, statistics (including biostatistics), epidemiology, or psychology. Courses in behavioral sciences (psychology, sociology, etc) and other social sciences broadly are often encouraged. In addition, some coursework in public health or medical ethics could make sense for a pre-med student.

These required courses mean that while it’s technically possible to apply to medical school from any undergraduate major, many pre-med students select a major that already includes most of these courses. At many colleges, a Neuroscience major aligns well with the required pre-med courses, especially at colleges where Neuroscience leans towards the neurobiology side and includes foundational courses in biology, chemistry, physics, and math.

Even at colleges where the Neuroscience major leans towards the psychology side, it can still work as a pre-med major — you might just have to spend more of your elective classes making sure that you cover the science requirements for medical school applications.

(What else do you need for med school? In general, strong med school applicants will have a high GPA, a high MCAT score, clinical exposure, lab research experience, strong faculty recommendations, and compelling application essays that articulate their reasons for pursuing medicine. Check out my guide to the Best Colleges for Pre-Med Students here [LINK].)

Careers in neuroscience research

If you’re interested in a career in neuroscience research, either in academia or in industry, you’ll need to continue on to graduate school (an MD or PhD, or maybe a Masters). The typical path would be to enter a PhD program either directly from undergrad or after a few years of research experience (e.g. as a lab tech in a neuroscience-related lab).

You don’t necessarily need to major in Neuroscience in order to be a competitive applicant to Neuroscience graduate programs. Depending on the specific area within neuroscience you’re pursuing, you could be a competitive applicant with an undergrad major in Biology, Biochemistry, Psychology, Cognitive Science, Biomedical Engineering, Computer Science, or Applied Math. Students coming from one of these “parent” fields of neuroscience might even be stronger applicants to graduate programs, because they’re more likely to have deeper training in a particular discipline, as opposed to training that’s broader but shallower.

Regardless of your undergraduate major, if you’re hoping to apply to graduate programs, your research experience as an undergraduate will be key. This could be working in a faculty lab, undertaking independent research with a faculty mentor, or a mix of both. Look for colleges where you’ll be able to get substantial research experience as an undergrad in the area of neuroscience that interests you. Some students elect to spend some years working in a lab as a research assistant before applying to graduate programs, especially if they didn’t get enough research experience as an undergrad student.

For most neuroscience research graduate programs, students will need a strong background in applied math, statistics, and/or computer science (coding in Python, Matlab, and R). If you’re considering applying to grad school, make sure to take advantage of opportunities to take biostatistics and computational modeling classes. In particular, experience using data analysis for neuroscience research will strengthen your profile as an applicant to neuroscience grad programs.

How to evaluate Neuroscience programs

If you’re planning to pursue Neuroscience in college, here are some important factors to consider:

  • Does this college offer a good way to study Neuroscience? Remember that this doesn’t necessarily have to be a Neuroscience major — depending on the college, it may be possible to study neuroscience from within a major like Biology or Psychology.

  • What kind of Neuroscience major is this? Does it lean more towards the neurobiology side of the field, or more towards the behavioral neuroscience and psychology side of the field? Is it very structured, with lots of required classes, or is there a lot of flexibility to create a major tailored to your interests?

  • Are there plenty of neuroscience-related courses offered in the area that interests you? Are there plenty of faculty teaching neuroscience classes? Will it be possible to get close faculty mentorship?

  • Is the Neuroscience program or department well-established and well-organized, or does it feel like a random collection of classes from other departments? What is the experience of current Neuroscience majors?

  • Are there neuroscience research labs on campus with opportunities for undergrads to participate in faculty-led research? Is research supported by imaging facilities and other campus resources? 

Neurobiology research tends to be very expensive, requiring substantial funding that many smaller or less well-funded colleges simply can’t support. Universities that have a medical school are more likely to have opportunities for translational and clinical research. Many neuroscience labs rely on NIH grants, although these can be affected by federal cuts in the past year. 

Certain types of laboratory research are more rare. For example, there are only seven National Primate Research Centers (NPRCs) funded by the NIH: California (UC Davis), Emory, Oregon (OHSU), Southwest (Texas Biomed), Tulane, Washington (UW–Seattle), and Wisconsin (UW–Madison). These primate labs use nonhuman primate models to research brain function, behavior, and neurological disorders.

Smaller colleges are more likely to focus on cognitive and behavioral neuroscience, as the lab equipment required for this kind of research is less expensive. 

  • Is there the opportunity to pursue independent student-led research with faculty guidance?

  • Are there additional advantages from the college’s location? Some areas in the US are hotspots for neuroscience research, both in academia and industry: Boston, San Francisco (and the Bay Area in general), San Diego, New York City, Seattle, and the North Carolina research triangle are well-known as strong hotspots. Other areas with significant neuroscience research are Minneapolis, Atlanta, Pittsburgh, DC, Philadelphia, and Los Angeles. Studying in a neuroscience hotspot can increase off-campus opportunities for research, summer internships, clinical volunteering, networking events, and other experiences. A college’s alumni network is stronger in their surrounding location, which can affect post-graduation career opportunities.

How to use this list

I’ve created this list to address a need I discovered while helping hundreds of students through the college admissions process over the past decade. 

Existing lists of “the best colleges for neuroscience” often just focus on the most famous universities, like Johns Hopkins and Stanford. That’s not helpful when you’re trying to make a balanced college list [LINK] with a mix of reach schools, target schools, and safety schools! That’s why I’ve included colleges with a wide range of admit rates. Every high school student should be able to find colleges here that match their profile, regardless of their stats and achievements. Even if you’re a strong applicant with a 4.0 GPA and a 1580 SAT, you’ll want to apply to some schools with higher admit rates as targets and safeties.

I also found that existing lists of “the best colleges for neuroscience” gave facts about the colleges as a whole, but lacked key information about the actual programs in neuroscience. In this list, I’ve included the details about each neuroscience program that I think are important for students to consider when they’re considering colleges — what areas of neuroscience are covered by the university? Is there a requirement for a senior research thesis? Does the program lean more towards the biology side or the psychology and cognitive science side? Is the major flexible, or does it have many required courses? Does the program include computational neuroscience? Is there a pathway to an accelerated graduate degree?

Why is this not a ranked list? In my experience, numerical rankings tend to lead students to focus on the wrong things. How can you compare a large research university with a medical school and immense national grants against a small liberal arts college? How can you compare a standout department at a university with a high overall admit rate against a relatively weak department at an ultra-selective university with a single-digit admit rate?

Ultimately, every program has different strengths and advantages. Someone interested in cognitive neuroscience might rank UC San Diego above MIT, while someone interested in computational neuroscience might rank Brown above Duke. A small liberal arts college (with only undergraduate students) might excel at preparing students for elite graduate programs in neuroscience, yet not produce the kind of neuroscience research (driven by grad students, postdocs, and faculty more focused on research than teaching) that would earn it a high ranking on many published lists of the best departments. These differences make it impossible to simply rank neuroscience programs in a meaningful way.

However, it’s certainly true that some programs are stronger than others. With that in mind, I’ve used stars to highlight the very best programs for neuroscience in broad tiers. All of the colleges on the list below would be good choices for students interested in neuroscience, but the stars indicate the best of the best.

Best ultra-selective colleges for Neuroscience (<10% admitted)

Best highly-selective colleges for Neuroscience (10–20% admitted)

Best very selective colleges for Neuroscience (20–35% admitted)

Best moderately selective colleges for Neuroscience (35–50% admitted)

Best less-selective colleges for Neuroscience (50+% admitted)

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