INTEGRATING DISCRETE CHOICE EXPERIMENT EVIDENCE INTO HEALTH ECONOMIC EVALUATIONS: A FRAMEWORK FOR PATIENT-CENTERED VALUE ASSESSMENT
Author(s)
Puneet Kumar, M.Pharm1, Geof Gray2, Lorna M. Richards, PhD3, Jacquelyne Brauneis, MPH3, Dana Michelle Saavedra Roman, MPH4.
1Syneos Health, London, United Kingdom, 2Research Strategist, Syneos Health, Methven, New Zealand, 3Syneos Health, Bridgewater, NJ, USA, 4Syneos Health, San Diego, CA, USA.
1Syneos Health, London, United Kingdom, 2Research Strategist, Syneos Health, Methven, New Zealand, 3Syneos Health, Bridgewater, NJ, USA, 4Syneos Health, San Diego, CA, USA.
OBJECTIVES: Health technology assessment (HTA) bodies and reimbursement decision-makers increasingly recognize patient-preference evidence in the evaluation healthcare interventions. However, practical approaches for incorporating patient-preference evidence into health economic evaluations remain limited. This study aimed to develop a framework for integrating discrete choice experiment (DCE) evidence into economic models to support patient-centered value assessment and healthcare decision-making.
METHODS: A targeted review of methodological literature, HTA guidance, and published economic evaluations incorporating patient-preference evidence was conducted from 2021 to present. Findings were synthesized to identify pathways through which DCE-derived estimates can inform model structure, inputs, assumptions, and interpretation. Applications were mapped across treatment uptake, adherence, persistence, utility estimation, and preference-sensitive outcomes. Key considerations included attribute selection, conceptual alignment, heterogeneity, uncertainty, and external validity.
RESULTS: The framework identified four pathways for incorporating DCE evidence into health economic evaluations: (1) informing utility estimation through preference-based weighting or valuation; (2) quantifying the influence of treatment attributes on adherence and persistence assumptions; (3) estimating uptake and patient choice under alternative intervention scenarios; and (4) generating preference-informed value metrics to complement conventional cost-effectiveness outcome measures. Implementation requires alignment between DCE attributes and model parameters, characterization of heterogeneity through subgroup or latent-class analyses, and incorporation of uncertainty in deterministic and probabilistic sensitivity analyses. The framework can support early economic modeling, evidence-generation planning, and value-demonstration activities.
CONCLUSIONS: DCE evidence provides a transparent, rigorous approach for quantifying patient preferences and strengthening health economic evaluations beyond traditional health-related quality-of-life inputs. This framework offers a practical pathway for translating patient-preference evidence into economic models, supporting patient-centered value assessment for HTA, reimbursement, and healthcare decision-making. By clarifying how patient-preference evidence can inform assumptions, outcomes, and interpretation, the framework can advance routine use of patient-centered evidence in value assessment and policy decisions.
METHODS: A targeted review of methodological literature, HTA guidance, and published economic evaluations incorporating patient-preference evidence was conducted from 2021 to present. Findings were synthesized to identify pathways through which DCE-derived estimates can inform model structure, inputs, assumptions, and interpretation. Applications were mapped across treatment uptake, adherence, persistence, utility estimation, and preference-sensitive outcomes. Key considerations included attribute selection, conceptual alignment, heterogeneity, uncertainty, and external validity.
RESULTS: The framework identified four pathways for incorporating DCE evidence into health economic evaluations: (1) informing utility estimation through preference-based weighting or valuation; (2) quantifying the influence of treatment attributes on adherence and persistence assumptions; (3) estimating uptake and patient choice under alternative intervention scenarios; and (4) generating preference-informed value metrics to complement conventional cost-effectiveness outcome measures. Implementation requires alignment between DCE attributes and model parameters, characterization of heterogeneity through subgroup or latent-class analyses, and incorporation of uncertainty in deterministic and probabilistic sensitivity analyses. The framework can support early economic modeling, evidence-generation planning, and value-demonstration activities.
CONCLUSIONS: DCE evidence provides a transparent, rigorous approach for quantifying patient preferences and strengthening health economic evaluations beyond traditional health-related quality-of-life inputs. This framework offers a practical pathway for translating patient-preference evidence into economic models, supporting patient-centered value assessment for HTA, reimbursement, and healthcare decision-making. By clarifying how patient-preference evidence can inform assumptions, outcomes, and interpretation, the framework can advance routine use of patient-centered evidence in value assessment and policy decisions.
Conference/Value in Health Info
2026-11, ISPOR Europe 2026, Vienna, Austria
Value in Health, Volume 29, Issue 12S
Code
EE764
Topic
Economic Evaluation, Health Technology Assessment, Patient-Centered Research
Disease
No Additional Disease & Conditions/Specialized Treatment Areas