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A new approach to Health Benefits Package design: an application of the Thanzi La Onse model in Malawi.
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- Author(s): Molaro, Margherita1 (AUTHOR) ; Mohan, Sakshi2 (AUTHOR); She, Bingling1 (AUTHOR); Chalkley, Martin2 (AUTHOR); Colbourn, Tim3 (AUTHOR); Collins, Joseph H.3 (AUTHOR); Connolly, Emilia4 (AUTHOR); Graham, Matthew M.5 (AUTHOR); Janoušková, Eva3 (AUTHOR); Li Lin, Ines3 (AUTHOR); Manthalu, Gerald6 (AUTHOR); Mnjowe, Emmanuel7 (AUTHOR); Nkhoma, Dominic7 (AUTHOR); Twea, Pakwanja D.6 (AUTHOR); Phillips, Andrew N.3 (AUTHOR); Revill, Paul2 (AUTHOR); Tamuri, Asif U.5 (AUTHOR); Mfutso-Bengo, Joseph7 (AUTHOR); Mangal, Tara D.1,2 (AUTHOR); Hallett, Timothy B.1 (AUTHOR)
- Source:
PLoS Computational Biology. 9/30/2024, Vol. 20 Issue 9, p1-23. 23p.
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- Abstract:
An efficient allocation of limited resources in low-income settings offers the opportunity to improve population-health outcomes given the available health system capacity. Efforts to achieve this are often framed through the lens of "health benefits packages" (HBPs), which seek to establish which services the public healthcare system should include in its provision. Analytic approaches widely used to weigh evidence in support of different interventions and inform the broader HBP deliberative process however have limitations. In this work, we propose the individual-based Thanzi La Onse (TLO) model as a uniquely-tailored tool to assist in the evaluation of Malawi-specific HBPs while addressing these limitations. By mechanistically modelling—and calibrating to extensive, country-specific data—the incidence of disease, health-seeking behaviour, and the capacity of the healthcare system to meet the demand for care under realistic constraints on human resources for health available, we were able to simulate the health gains achievable under a number of plausible HBP strategies for the country. We found that the HBP emerging from a linear constrained optimisation analysis (LCOA) achieved the largest health gain—∼8% reduction in disability adjusted life years (DALYs) between 2023 and 2042 compared to the benchmark scenario—by concentrating resources on high-impact treatments. This HBP however incurred a relative excess in DALYs in the first few years of its implementation. Other feasible approaches to prioritisation were assessed, including service prioritisation based on patient characteristics, rather than service type. Unlike the LCOA-based HBP, this approach achieved consistent health gains relative to the benchmark scenario on a year- to-year basis, and a 5% reduction in DALYs over the whole period, which suggests an approach based upon patient characteristics might prove beneficial in the future. Author summary: All publicly funded healthcare systems face difficult decisions about how limited resources should be allocated to achieve the greatest possible return in health. These decisions are particularly pressing in lower-income countries (LICs) like Malawi, where resources are extremely limited and their inefficient allocation results in larger morbidity and mortality. In this work, we introduce a new analytical tool to inform such decisions based on an "all diseases, whole healthcare system" simulation specifically tailored to Malawi, the Thanzi La Onse (TLO) model. The TLO model is able to forecast the health burden that should be expected from different resource-allocation strategies in Malawi specifically, allowing policy-makers to explore a wide range of policy options in a safe and theoretical fashion. In this analysis, we compare the forecasted health burden from a set of common resource-prioritisation strategies, and draw some general conclusions as to what makes certain strategies more or less effective in reducing the health burden incurred. [ABSTRACT FROM AUTHOR]
- Abstract:
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