a man in a coat shakes the hand of a man wearing a prosthetic arm.

Computational Health

Our Purpose

Computing and data have changed how we approach questions in clinical care and health science. Health records, medical images, genomic data, wearable devices and population health data now give researchers more information than ever before. Computational methods help turn that information into better ways to understand, prevent, diagnose and treat disease. 

UC Noyce supports researchers and thinkers from all disciplines, career stages and backgrounds who are advancing computational health and driving discovery where digital innovation, medicine and the health sciences meet. 

The Opportunity

We aim to support collaborative research that applies data science, modeling and computing to important health questions in entirely new ways. This work can transform diagnostic tools, treatments and disease tracking. It can also help researchers and clinicians understand the social and environmental factors that shape health and make sure new tools work for every patient. Our goal is to improve health and well-being for all communities. 

UC Noyce takes a broad view of its thematic areas. Computational health covers many disciplines that apply computing and data science to health, including but not limited to: 

  • Brain and mental health: neuroimaging analysis, brain network modeling and machine learning to detect early signs of neurological and mental health conditions 
  • Scalable computational infrastructure: secure cloud platforms, data pipelines and high-performance computing for large biomedical and clinical datasets 
  • Healthy aging and emerging health technologies: sensor data analytics, predictive models and smart-home systems that help older adults live independently 
  • Social and environmental factors in health: geospatial analysis, data integration and modeling of how neighborhood, environment and access shape health outcomes 
  • Therapeutic interventions: computational drug discovery, molecular simulation and in silico clinical trials 
  • Diagnosis and medical imaging: computer vision and deep learning to support faster, more accurate diagnosis 
  • Precision medicine: genomic data analysis, bioinformatics and multi-omics modeling to tailor treatments to individuals 
  • Digital health and remote monitoring: signal processing and real-time analytics for data from wearables and mobile devices 
  • Public health and disease tracking: epidemiological modeling, outbreak forecasting and natural language processing of health records and reports 
  • Health equity: bias detection in clinical algorithms and data methods that make sure underrepresented populations are included 
  • Clinical decision support: human-centered design of predictive tools and interfaces that clinicians can trust and use 

 

The following are just a few examples of how UC Noyce Initiative researchers are making an impact in computational health: