Where scientific curiosity meets quantitative problem-solving

Questions about disease, treatment, genetics, and population health often involve complex systems and uncertain outcomes. Quantitative methods help researchers design stronger studies, model these processes, and measure the evidence behind scientific findings.

But producing a result is only the beginning:


  • Was the study designed to answer the scientific question?
  • Does the model reflect the underlying biological or health process?
  • How much uncertainty surrounds the estimated effect?
  • Could chance, bias, or other factors explain the finding?
  • Will the conclusion hold across studies, settings, and populations?

That's where BIOSTATISTICS and HEALTH DATA SCIENCE 
turn scientific questions into rigorous, actionable evidence.

Hello Kyle,


Your academic coursework gives you an unusually strong starting point for biostatistics and health data science -- fields that apply mathematical and statistical reasoning to biological, clinical, and public health questions, turning scientific observations into rigorous evidence about health and disease.


You understand that scientific discoveries depend on context: how a disease develops, how an exposure is measured, or how a treatment affects the body. You also have the quantitative tools to model relationships, assess variability, and reason carefully under uncertainty.


At Michigan Biostatistics, graduate study can prepare you to unite your scientific understanding with advanced training in probability, inference, modeling, study design, and computation.


Biostatisticians bring those perspectives together to improve the way health research is designed, analyzed, and interpreted.


Their work spans nearly every form of modern health data, and through every stage of the entire research process. They analyze electronic health records to uncover patterns in care and outcomes, study genomic data to identify factors associated with disease, use medical images to improve detection and diagnosis of cancer, and integrate information across clinical studies and entire populations. They also adapt machine-learning methods for healthcare—evaluating whether algorithms are accurate, reproducible, interpretable, fair, and appropriate for the decisions they may influence.


That work might include:

Designing an efficient and informative clinical trial

Modeling the progression or spread of disease

Quantifying uncertainty in a large genetic study

Measuring differences in treatment response

Developing new statistical methods for complex biomedical data

Validating emerging biomedical technologies for scientific and clinical use

At the University of Michigan, you can pursue this work through three distinct graduate pathways:


  • MS in Biostatistics, combining rigorous statistical training with applied health research
  • MS in Health Data Science, with its strong computational and machine-learning focus
  • PhD in Biostatistics, preparing students to develop new methods and lead original research.


If you enjoy both understanding how the natural or human world works and developing precise ways to study it, biostatistics offers a place where those interests become one field.

Interested in learning more about biostatistics?
 
 
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