Cardiovascular diseases exemplify the nation’s urban-rural health disparity. To address this, we created a scalable, AI-powered, health delivery system that dovetails the needs of the patients, the practice, and the technology.
In this 1.5-year, $1.6 million project, I partnered closely with the Primary Investigator Dr. Arruda-Olson to develop an intervention model appropriate for rural sites.
I led a co-design process where we leveraged methods such as staff workshops, patient interviews, and rapid prototyping to uncover the rural clinic’s capacities and limitations.
I coordinated the IT development team through an agile process for platform enhancements and redesigned the AI-powered platform to be role-oriented so that the information is actionable.
Additionally, my colleague and I co-created workflows with the rural clinic, visualized novel service processes, and operationalized the pilot study.
Dr. Arruda-Olson’s informatics team spent five years developing an AI tool that could better detect patients who would benefit from cardiovascular prevention strategies. Cardiovascular diseases are 40% more prevalent in rural communities compared to urban areas. The needs of rural patients are different than their urban counterparts. Tailored interventions are needed.
We focused on co-designing with Mayo Clinic branch’s in Austin, MN. Austin’s embodies quintessential rural challenges such as an aging population and a shortage of providers. The AI platform could enable non-MD clinicians to deliver cardiovascular health prevention.
Participatory design played a key role in developing a context-relevant intervention to adapt the AI tool to rural clinical practices.
The process we used is visualized below:
To understand the unique affordances and barriers of the rural clinic, we conducted:
These initial engagement with staff helped us build rapport with the frontline clinicians and allowed us to identify motivated go-getters for the next phase.
Our rapid prototypes within the clinic led to the key insight:
Similarly, usability testing helped us understand what clinical information our care team members need to plan patient’s care, but :
Thanks to these insights, we reframed the intervention. A remote service would handle the clerical work of identifying the right patient, verifying the information, and sorting and sending the information to the right care team staff.
We spent 3 months piloting the intervention with a randomized controlled pragmatic pilot. During the pilot, we met weekly with the care team, iterating on their feedback. I facilitated Agile Development cycles with the IT team based on the practice’s input.
The pilot signaled promising results as 58% of eligible patients (88 out of 152) activated the intervention by completing a verification questionnaire. At completion of the 3-month pilot trial, 11% of patients implemented guideline recommendations, and 34% of eligible patients had preventive cardiovascular encounters that they may not otherwise have received.
By co-designing with a rural clinic and responding to its constraints, we developed a model that could scale to other sites. A Remote Hub could be set up in all regions of the Mayo Clinic health system to service all 47 branches.
Partogi M, Gaviria-Valencia S, Pick NJ, Bonacci RP, Mitchell JD, Chaudhry R, Swanson KM, Arruda-Olson AM. A Framework for Co-Designing Contextually Relevant Sociotechnical Interventions: Addressing Preventive Cardiovascular Health in Rural Settings. Poster presented at: AMIA 2021 Virtual Clinical Informatics Conference. 2021 May 18-20; USA.
Partogi M, Gaviria-Valencia S, Kessler M, Pick NJ, Chaudhry R, Arruda-Olson AM. Co-Designing an intervention for transformation of Cardiovascular Care Delivery in Rural Settings. Poster presented at: ACC Cardiovascular Summit Virtual. 2021 Feb 12-13. USA
Partogi M, Kaggal V, Pick NJ, Gaviria-Valencia S, Bonacci R, Michelle J, Chaudhry R, Hankey R, Franqueira A, Arruda-Olson AM. A Transformative Model for Cardiovascular Prevention in Rural Settings. Poster presented at: Mayo Clinic Artificial Intelligence Symposium. 2021 May 17-18. Rochester, Mn, USA.