These models can improve the diagnosis, etiognosis and prognosis of diseases and other ecosystem outcomes at the population scale. Morphological reaction-transport multicompartment models, global sensitivity and uncertainty models, and portfolio decision models based on information theory are the tools used and developed in HumNat research and practice. In particular Dr. Convertino is using the theory of self-organized criticality and mass-response function to investigate universalities and scale dependencies of patterns observed in nature, attribute patterns to process, and detect effective transmission networks (functional and structural) in a reverse engineering framework.
Current projects embrace a one-health approach – not only restricted to infectious diseases – and provide a technology / data analytics / theories for real time solutions of the problem investigated with a consequentialist perspective. The overall goal is an health-based design of socio-ecological system using engineering methods. Such issues are about food safety and defense, tubercolosis complex, leptospirosis/toxoplasmosis, cholera, antimicrobial resistance, surveillance networks, dynamic network biomarkers, natural and urban ecosystem health issues, anticarcinogen drug design, and science communication. In a broader perspective Dr. Convertino is involved in the promotion of complexity science and engineering methods into public health, smart and connected global system science, art-in-science, and systemic macro-epidemiology. Dr. Convertino teaches novel graduate classes (‘’Complex Systems Modeling for Population Health’’ and ”Environmental Health Engineering: Systemic Epidemiology and Design”) at the UofM School of Public Health and an undergraduate honor class (”How Nature Works”) in the UofM honor undergraduate program. Funding of Dr. Convertino are from the state of Minnesota (MnDRIVE initiative), University of Minnesota School of Public Health, Healthy Food and Healthy Lives Institute, 3M, USACE HQ, and NSF. The research is framed within national working groups of NIH (Interagency Modeling and Analysis Group – Multiscale Modeling Consortium, and the Office of Behavioral and Social Sciences Research) and National Academy of Engineering (Frontiers of Engineering program), and internationally (for instance in the FuturICT project, and the The World Health Organization Collaborating Centre for Complexity Science).