Past Innovation Labs

How can those with expertise in the development of AI, large-language, and generative content models join forces with biomedical science educators to provide insight and guidance on training about, using, and leveraging these tools?  This lab created new interdisciplinary collaborations to generate creative strategies on the use of data science approaches for creating new strategic partnerships between AI developers, biomedical researchers, and educators. 

The COVID-19 pandemic has upset our lives in ways unimaginable. We are only now, just contending with the secondary effects of COVID exposures – so-called ‘long-haul COVID’ – but also the effects of deferred regular health check-ups, poor mental health, etc. This lab fostered the formation of new interdisciplinary collaborations to generate creative strategies on the use of data science approaches for predicting secondary health effects of the COVID-19 pandemic.

Artificial Intelligence (AI) has great potential to assist in biomedical decision making. However, such systems are not immune from making erroneous recommendations, struggling to maintain patient privacy, and which give rise to vexing questions about their suitability across genders, ethnic, or cultural communities. The lab formed new interdisciplinary collaborations that generated creative strategies for addressing ethics of AI in biomedicine.

The brain is recognized as a major source of microscopic, systems-level, spatial, and temporal datatypes in health as well as in disease. This BDSIL aimed to highlight the challenges of working with such datatypes and how data might be integrated to gain insights into brain form, function, and connectivity and the understanding of major clinical disorders.

Rural health and environmental exposures specifically concerns communities in less populated areas of the country where exposure to pollutants, toxins, chemicals, etc have a disproportionate impact on citizen health and wellbeing. The immediate and long-term consequences of these exposures have a direct impact on life quality due to reduced access to health care, policies of local government, health disparities, changes to diet and exercise, and corporate interests. Collaborations between biomedical and quantitative scientists lead to project ideas with better approaches to implementation and interpretation of such data.

Understanding the implications of single cell heterogeneity is critical for developing personalized treatments. The Lab promoted collaboration between mathematicians, statisticians, and biomedical researchers towards the development of novel or significantly adapted models, methods, and approaches for overcoming difficult data science challenges arising from the collection and analysis of single cell big data.

The study of the microbiome is a rapidly developing area with the aim of identifying, treating, and preventing disease as well as promoting health by understanding the interaction of microbes with humans in a variety of ecological niches both within the human body and the external environment. The projects generated at the lab approached the relevant data associated with the microbiota with a health or biomedical research objective.

Achieving the potential of wearable and ambient sensors will necessitate the integration of different data formats, including structured and unstructured data, realtime and static data, from diverse populations interacting with a range of devices including but not limited to wearable electronics, mobile devices, and environmental sensors. This data requires the development of computational and analytical methods to enable high-confidence predictions that relay just in time information to individuals through a personalized user interface and experience (UI/UX) for the greatest impact. The teams developed at the lab created project ideas that addressed this data science challenge.