4.4 Research Beyond the Wet Lab

When most students think "research," they picture pipettes, cell cultures, and late nights in a laboratory. But this is a narrow view.

Medical schools value all forms of systematic inquiry: clinical research, public health studies, health policy analysis, quality improvement projects, and more. If wet lab work doesn't excite you, that's not a problem. It's an opportunity to find research that aligns with your genuine interests.

Medical schools want evidence that you can:

• Ask meaningful questions
• Design systematic approaches to answering them
• Analyze information critically
• Draw evidence-based conclusions
• Contribute to the broader body of knowledge

You can demonstrate all of these through research that never involves a microscope. In fact, clinical and public health research often connects more directly to patient care than basic science does.

Studies conducted with human participants or human data.

Types of Clinical Research:

• Retrospective Chart Reviews — Analyzing existing patient records.
• Prospective Cohort Studies — Following patients over time.
• Clinical Trials — Testing new treatments. Undergrads usually assist with recruitment, data collection, regulatory compliance.
• Case Studies / Case Series — Detailed analysis of unusual cases.

How to Find:

• Contact physicians you've shadowed about research involvement
• Look for "Clinical Research Coordinator" postings
• Check with your university's medical school or affiliated hospitals
• Search faculty directories for physicians with research interests

Advantages:

• Direct connection to patient care
• Easier to explain to non-scientists
• May involve patient interaction
• Faster publication timelines than basic science

Focuses on population health, disease prevention, and health systems.

Types:

• Epidemiological Studies — Disease patterns in populations.
• Health Disparities Research — Why outcomes differ across groups.
• Health Behavior Research — Why people make certain health choices.
• Health Policy Analysis — Effects of policies on outcomes.
• Community-Based Participatory Research — In partnership with communities.

How to Find:

• Public health departments at universities
• Schools of public health
• State or local health departments
• Community health centers
• Nonprofit health organizations

Advantages:

• Often addresses social justice concerns
• May involve community engagement
• Connects to systemic healthcare issues
• Aligns with policy/advocacy interests

QI projects aim to improve healthcare delivery within a specific setting.

Examples:

• Reducing hospital-acquired infections through a new protocol
• Improving patient satisfaction scores through communication training
• Decreasing wait times in an outpatient clinic
• Increasing vaccination rates in a primary care practice

How to Find:

• Hospital quality departments
• Patient safety officers
• Clinic managers
• Physicians interested in improving their practice

Advantages:

• Direct, tangible impact
• Results often visible quickly
• Strong stories for applications
• May be easier to initiate

QI projects may not lead to traditional publication but can result in presentations, internal reports, or implementation of new practices.

Types:

• Policy Analysis — Evaluating health policies.
• Economic Evaluation — Cost-effectiveness.
• Legislative Research — Supporting policymakers.

How to Find:

• Health policy institutes or think tanks
• University policy schools
• Congressional offices (health legislative assistants)
• State health departments
• Healthcare consulting firms

Advantages:

• Connects medicine to broader social systems
• Develops policy analysis skills
• Different career paths within medicine
• Often involves writing and communication

Types:

• Bioinformatics — Genomic, proteomic data.
• Health Informatics — EHR data, decision support tools.
• Machine Learning in Healthcare — Algorithms for diagnosis, prognosis.

How to Find:

• Bioinformatics departments
• Health informatics programs
• Computer science faculty
• Industry research labs

Advantages:

• Extremely high demand
• Often remote
• Differentiating skill set
• Applications across medicine

Typically requires programming (Python, R) and statistical knowledge.

• Independent Research with Faculty Guidance — Approach a faculty member with a research question.
• Community Health Needs Assessment — Partner with a local organization.
• Systematic Reviews — Synthesize existing literature without lab access.

How to Approach Faculty: "I'm interested in [topic] and wondering if you'd be willing to supervise an independent project. I've been thinking about [specific question]. I've done some preliminary reading and believe this could be addressed by [general approach]. Would you be open to discussing feasibility?"

• Be Clear About Methods — "I analyzed retrospective data from 500 patients using logistic regression."
• Emphasize Your Contribution — What did you personally do beyond data entry?
• Connect to Medicine — Make clear how this relates to healthcare.
• Prepare to Explain — Practice explaining value and rigor to non-experts.

Questions to Ask Yourself:

• Do I prefer working with data or with my hands?
• Am I more interested in individual patients or population health?
• Do I care more about discovery or implementation?
• Am I drawn to biological mechanisms or social determinants?
• Do I enjoy writing and analysis or experiments and observation?

The best research experience genuinely engages you.

My genuine interests: (What health topics, questions, or problems do I actually care about?)

My skills: (Writing? Statistics? Programming? Patient interaction? Languages?)

Research types that might fit:

• Clinical research
• Public health / epidemiology
• Quality improvement
• Health policy
• Computational / informatics
• Other:

Potential mentors or organizations to contact:

First step I'll take this week: