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1.
Value Health ; 27(7): 830-836, 2024 Jul.
Article in English | MEDLINE | ID: mdl-38401798

ABSTRACT

OBJECTIVES: Most current methods to value healthcare treatments only incorporate measures such as quality-adjusted life-years, combining gains in health-related quality of life and life expectancy in specific ways. Failure of these methods to recognize other dimensions of value has led to calls for methods to include additional values that are associated with the healthcare treatments but not captured directly by quality-adjusted life-years. This article seeks to provide methodologically sound ways to incorporate additional health-related outcomes, focusing on budget-constrained healthcare systems, in which using standard welfare economics methods are often eschewed. METHODS: The analysis develops standard extra-welfarist approaches to maximizing aggregate health, subject to fixed-budget constraints, using Lagrange multiplier methods. Then, additional valuable health-related outcomes, eg, reduced caregiver burden, real option value, and market- and non-market productivity are introduced. The article also introduces a social welfare function approach to illuminate how disability, disease severity and other equity-related issues can be incorporated into complete welfare measures. RESULTS: Resulting analysis, fully developed in an Appendix in Supplemental Materials found at https://doi.org/10.1016/j.jval.2024.02.005 and summarized in the main text, show that understanding how average and marginal healthcare costs increase with output and how health augments "additional values" provides ways to assess willingness to pay for them in these fixed-budget situations. CONCLUSIONS: In budget-constrained healthcare systems, only from actual budget allocations can values both of health itself and "additional values" be inferred. These methods, combined with methodologically sound social welfare functions, demonstrate how to move from "health" to "welfare" in measuring the value of increased healthcare use.


Subject(s)
Budgets , Delivery of Health Care , Quality-Adjusted Life Years , Humans , Delivery of Health Care/economics , Cost-Benefit Analysis , Social Welfare/economics , Quality of Life
2.
Value Health ; 2024 Jul 06.
Article in English | MEDLINE | ID: mdl-38977180

ABSTRACT

OBJECTIVES: To identify and describe potential societal and individual sources of support for orphan drug programs. METHODS: The Generalized Risk-Adjusted Cost-Effectiveness method shows that acute illness and disability severity increase individuals' willingness to pay for health gains. We develop a social welfare function (SWF) that incorporates individuals' own values, combined with politically or ethically determined weights. We introduce the concept of horizontal equity-that individuals in similar situations should be treated similarly-into the SWF. Finally, we introduce anonymous altruism into individuals' utility functions-the desire to help others, without knowing their identity. RESULTS: Combined with the empirical link between disease severity and rarity, the Generalized Risk-Adjusted Cost-Effectiveness method demonstrates heightened willingness to pay for health gains for people with rare diseases, leading rational individuals to support orphan drug programs, our first pillar of support. Adding horizontal equity to the SWF further increases societal support for orphan drug programs. Anonymous altruism, focusing most strongly on those in the most-dire circumstances, leads to altruistic support for those with severe disorders. Because innovators' economic incentives lead them to focus on larger markets, anonymous altruistic individuals will increasingly prefer public investments into rare diseases over time, as private markets systematically produce gains for common diseases. CONCLUSIONS: We identified 3 supporting pillars for orphan drug programs: (1) individuals' propensity to prefer treatments for severe diseases; (2) the preference for horizontal equity in our social welfare; (3) anonymous altruism, the desire to help strangers, coupled with market incentives that underserve strangers with rare diseases.

3.
Value Health ; 26(11): 1601-1607, 2023 11.
Article in English | MEDLINE | ID: mdl-37597613

ABSTRACT

OBJECTIVES: While welfarist economics (WE) methods rely wholly on individuals' valuations, extra-welfarist (EW) methods seek alternative measures of value. Major reviews of the EW literature conclude that EW studies almost universally replace "utility" with "health" as the maximand. This analysis seeks to understand what conclusions are necessary and sufficient to make EW and WE methods concurrent and discusses implications for measuring social value. METHODS: Using standard WE methods, I demonstrate that EW is equivalent to WE with 2 key restrictions-individuals have constant returns to health in producing utility and health budgets are fixed. Fixing budgets removes a key WE step, determining the marginal rate of substitution between consumption and health, the willingness to pay for health gains. RESULTS: Because EW methods equate with WE with these 2 restrictions, I show how formal models to construct aggregated social welfare functions (SWFs) in WE frameworks lead directly to SWF models using EW models of value. I also show that, in fixed-budget health systems, when SWFs place different values for improving health of different subpopulations, aggregate health output fails as a SWF criterion. I demonstrate how different societal values can and should enter EW SWF models using WE criteria. I also discuss the implications when either of these key restrictions does not properly represent people's preferences. CONCLUSIONS: Once EW methods are shown to be a restricted form of WE methods, those WE methods can illuminate how best to measure SWFs in EW environments.


Subject(s)
Delivery of Health Care , Social Welfare , Humans , Cost-Benefit Analysis
4.
Value Health ; 26(9): 1329-1333, 2023 09.
Article in English | MEDLINE | ID: mdl-37406962

ABSTRACT

OBJECTIVES: Widespread use of electronic health records (EHRs) now makes it feasible to expand beyond health insurance claims data to include full EHR data for health economics and outcomes research (HEOR) studies. We seek to develop ways to maximize researcher access to such data while strongly protecting patients' privacy rights. METHODS: We analyzed alternative organizational structures and intellectual property rights assignments as they now exist and compared these with structures and intellectual property rights assignments that would maximize access to data for HEOR studies and minimize transactions costs. We analyzed data protection requirements and financial incentives at 3 levels: patient decision making, patients' data aggregators, and final aggregation across patients' data. RESULTS: Creating new HEOR data systems requires new organizations and funding, while also protecting patients' data privacy rights. The Cures Act enables a new market for trusted third parties (TTPs) to aggregate patients' data. New secondary data aggregators must combine individuals' aggregated EHRs into usable HEOR databases. Maximal patient participation requires complete health insurance coverage of costs that healthcare providers charge for transmitting patients' data to TTPs. The new secondary system to aggregate data from many TTPs into usable HEOR optimally has external funding. CONCLUSIONS: Important steps remain uncompleted to achieve maximally available HEOR data while protecting patients' privacy rights. HEOR information is a public good, so private incentives to support creation and operation of this new system remain incomplete. Public and private support can expand this system to optimally improve people's health.


Subject(s)
Confidentiality , Electronic Health Records , Humans , Outcome Assessment, Health Care , Costs and Cost Analysis
5.
Value Health ; 26(7): 1003-1010, 2023 07.
Article in English | MEDLINE | ID: mdl-36796478

ABSTRACT

OBJECTIVES: Both private sector organizations and governmental health agencies increasingly use illness severity measures to adjust willingness-to-pay thresholds. Three widely discussed methods-absolute shortfall (AS), proportional shortfall (PS), and fair innings (FI)-all use ad hoc adjustments to cost-effectiveness analysis methods and "stair-step" brackets to link illness severity with willingness-to-pay adjustments. We assess how these methods compare with microeconomic expected utility theory-based methods to value health gains. METHODS: We describe standard cost-effectiveness analysis methods, the basis from which AS, PS, and FI make severity adjustments. We then develop how the Generalized Risk Adjusted Cost Effectiveness (GRACE) model assesses value for differing illness and disability severity. We compare AS, PS, and FI against value as defined by GRACE. RESULTS: AS, PS, and FI have major and unresolved differences between them in how they value various medical interventions. Compared with GRACE, they fail to properly incorporate illness severity or disability. They conflate gains in health-related quality of life and life expectancy incorrectly and confuse the magnitude of treatment gains with value per quality-adjusted life-year. Stair-step methods also introduce important ethical concerns. CONCLUSIONS: AS, PS, and FI disagree with each other in major ways, demonstrating that at most, one correctly describes patients' preferences. GRACE offers a coherent alternative, based on neoclassical expected utility microeconomic theory, and can be readily implemented in future analyses. Other approaches that depend on ad hoc ethical statements have yet to be justified using sound axiomatic approaches.


Subject(s)
Life Expectancy , Quality of Life , Humans , Cost-Benefit Analysis , Quality-Adjusted Life Years , Patient Acuity
6.
Value Health ; 24(2): 244-249, 2021 02.
Article in English | MEDLINE | ID: mdl-33518031

ABSTRACT

OBJECTIVES: Cost-effectiveness analysis (CEA) embeds an assumption at odds with most economic analysis-that of constant returns to health in the creation of happiness (utility). We aim to reconcile it with the bulk of economic theory. METHODS: We generalize the traditional CEA approach, allow diminishing returns to health, and align CEA with the rest of the health economics literature. RESULTS: This simple change has far-reaching implications for the practice of CEA. First, optimal cost-effectiveness thresholds should systematically rise for more severe diseases and fall for milder ones. We provide formulae for estimating how these thresholds vary with health-related quality of life (QoL) in the sick state. Practitioners can also use our approach to account for treatment outcome uncertainty. Holding average benefits fixed, risk-averse consumers value interventions more when they reduce outcome uncertainty ('insurance value') and/or when they provide a chance at positively skewed outcomes ('value of hope'). Finally, we provide a coherent way to combine improvements in QoL and life expectancy (LE) when people have diminishing returns to QoL. CONCLUSION: This new approach obviates the need for increasingly prevalent and ad hoc exceptions to CEA for end-of-life care, rare disease, and very severe disease (eg, cancer). Our methods also show that the value of improving QoL for disabled people is greater than for comparable non-disabled people, thus resolving an ongoing and mathematically legitimate objection to CEA raised by advocates for disabled people. Our Generalized Risk-Adjusted Cost-Effectiveness (GRACE) approach helps align HTA practice with realistic preferences for health and risk.


Subject(s)
Cost-Benefit Analysis/methods , Disabled Persons , Quality of Life , Technology Assessment, Biomedical/methods , Happiness , Humans , Severity of Illness Index , Uncertainty
7.
Health Econ ; 30(7): 1697-1702, 2021 07.
Article in English | MEDLINE | ID: mdl-33884694

ABSTRACT

Operationalizing cost-effectiveness analysis (CEA) requires that decisionmakers select maximum willingness to pay thresholds (K). We generalize previous methods used to estimate K using highly flexible hyperbolic absolute risk aversion (HARA) utility functions that encompass a wide range of risk behavior. For HARA utility, we calculate formulas for relative risk aversion (r*) and relative prudence (π∗ ), using literature-based estimates to calibrate our HARA model. We then assess optimal WTP thresholds (K) in absolute value and relative to income (K/M). Across the most-plausible range of risk preference parameters (r* and π∗ ), optimal K/M ratios sit (approximately) in the range of 1 to 3, although we cannot readily rule out larger K/M values. The optimal K always increases with income, while K/M falls with income if utility has increasing relative risk aversion. Results of this more-general model of economic utility are broadly consistent with previous work using more-restrictive Weibull functions. More precision in measuring the key parameters-particularly relative prudence (π∗ ) will narrow down the range of K/M estimates. The highly general HARA structure illuminates why and how optimal CEA thresholds change with income. An appendix illuminates how relative risk aversion and relative prudence relate to each other.


Subject(s)
Health Services , Income , Cost-Benefit Analysis , Humans , Quality-Adjusted Life Years
8.
Proc Natl Acad Sci U S A ; 115(50): 12595-12602, 2018 12 11.
Article in English | MEDLINE | ID: mdl-30530682

ABSTRACT

Entities involved in population health often share a common mission while acting independently of one another and perhaps redundantly. Population health is in everybody's interest, but nobody is really in charge of promoting it. Across governments, corporations, and frontline operations, lack of coordination, lack of resources, and lack of reliable, current information have often impeded the development of situation-awareness models and thus a broad operational integration for population health. These deficiencies may also affect the technical, organizational, policy, and legal arrangements for information sharing, a desired practice of high potential value in population health. In this article, we articulate a vision for a next-generation modeling effort to create a systems architecture for broadly integrating and visualizing strategies for advancing population health. This multipurpose systems architecture would enable different views, alerts, and scenarios to better prepare for and respond to potential degradations in population health. We draw inspiration from systems engineering and visualization tools currently in other uses, including monitoring the state of the economy (market performance), security (classified intelligence), energy (power generation), transportation (global air traffic control), environment (weather monitoring), jobs (labor market dynamics), manufacturing and supply chain (tracking of components, parts, subassemblies, and products), and democratic processes (election analytics). We envision the basic ingredients for a population health systems architecture and its visualization dashboards to eventually support proactive planning and joint action among constituents. We intend our ambitious vision to encourage the work needed for progress that the population deserves.


Subject(s)
Population Health , Health Planning , Humans , Malaria/prevention & control , Population Health/statistics & numerical data , Systems Analysis , Systems Theory
9.
Breast Cancer Res Treat ; 173(2): 417-427, 2019 Jan.
Article in English | MEDLINE | ID: mdl-30306429

ABSTRACT

PURPOSE: Little is known about whether gene expression profile (GEP) testing and specific recurrence scores (e.g., medium risk) improve women's confidence in their chemotherapy decision or perceived recurrence risk. We evaluate the relationship between these outcomes and GEP testing. METHODS: We surveyed women eligible for GEP testing (stage I or II, Gr1-2, ER+, HER2-) identified through the Surveillance, Epidemiology, and End Results (SEER) Registry of Washington or Kaiser Permanente Northern California from 2012 to 2016, approximately 0-4 years from diagnosis (N = 904, RR = 45.4%). Confidence in chemotherapy was measured as confident (Very, completely) versus Not Confident (Somewhat, A little, Not At All); perceived risk recurrence was recorded numerically (0-100%). Women reported their GEP test receipt (Yes, No, Unknown) and risk recurrence score (High, Intermediate, Low, Unknown). In our analytic sample (N = 833), we propensity score weighted the three test receipt cohorts and used propensity weighted multivariable regressions to examine associations between the outcomes and the three test receipt cohorts, with receipt stratified by score. RESULTS: 29.5% reported an unknown GEP test receipt; 86% being confident. Compared to no test receipt, an intermediate score (aOR 0.34; 95% CI 0.20-0.58), unknown score (aOR 0.09; 95% CI 0.05-0.18), and unknown test receipt (aOR 0.37; 95% CI 0.24-0.57) were less likely to report confidence. Most women greatly overestimated their recurrence risk regardless of their test receipt or score. CONCLUSIONS: GEP testing was not associated with greater confidence in chemotherapy decisions. Better communication about GEP testing and the implications for recurrence risk may improve women's decisional confidence.


Subject(s)
Breast Neoplasms/pathology , Clinical Decision-Making , Gene Expression Profiling , Neoplasm Recurrence, Local/diagnosis , Patient Participation/psychology , Adult , Aged , Breast/pathology , Breast/surgery , Breast Neoplasms/epidemiology , Breast Neoplasms/therapy , Cancer Survivors/statistics & numerical data , Chemotherapy, Adjuvant/psychology , Chemotherapy, Adjuvant/statistics & numerical data , Female , Humans , Mastectomy , Middle Aged , Neoplasm Recurrence, Local/epidemiology , Neoplasm Recurrence, Local/prevention & control , Patient Participation/statistics & numerical data , Prognosis , Propensity Score , SEER Program/statistics & numerical data , Self Report/statistics & numerical data
10.
Value Health ; 22(7): 785-791, 2019 07.
Article in English | MEDLINE | ID: mdl-31277825

ABSTRACT

OBJECTIVE: To provide a new approach to estimate optimal willingness to pay (WTP) for health technology assessment (HTA). STUDY DESIGN: This analysis specified utility as a function of income and calibrated it using estimates of relative risk aversion, from which the optimal WTP (K) can be determined using Garber and Phelps' results (1997). METHODS: This analysis used the highly flexible Weibull utility function, calibrated with estimates of relative risk aversion (r*) derived from multiple data sources. The analysis centered on r* = 1 and conducted sensitivity analysis on r* and key Weibull parameters. For a range of income (M), graphs demonstrated how K/M and K vary with M. Results were compared with estimates of K and K/M from alternative models. Extrapolation from a representative individual to population-wide health plans was discussed. RESULTS: Using r* = 1 and central values of other key parameters, K/M (at average income for developed nations) was approximately 2× annual income. Both K and K/M rose with income. Sensitivity analysis showed that results depend moderately on the chosen value of r* and specific Weibull utility function parameters. At average income, the optimal K/M ratio (2×) was modestly lower than many standard recommendations (typically 3× average income) and substantially lower than estimates using value-of-statistical-life approaches. CONCLUSIONS: The new model, although not yet perfected, provides a different way to identify the WTP cutoff for HTA. Extrapolation to more than twice the calibration income ($50 000) is advised against. Analysis of other approaches to estimate the optimal K reveal potential upward biases.


Subject(s)
Health Care Costs , Health Expenditures , Income , Patient Preference/economics , Technology Assessment, Biomedical/economics , Choice Behavior , Cost-Benefit Analysis , Happiness , Humans , Models, Economic , Quality of Life
11.
Value Health ; 22(5): 505-510, 2019 05.
Article in English | MEDLINE | ID: mdl-31104727

ABSTRACT

A number of methods have sought to determine the value of interventions and services that promote health, even when no agreement exists on the proper way to determine and define "value." Previous valuation efforts began simply by counting deaths or measuring life expectancy, slowly evolving to the widespread use of cost-effectiveness analysis (CEA) as the de facto normative standard for medical interventions. Users of CEA recognize that the method is incomplete. Further, no meaningful agreement exists on how best to apply CEA in decision settings because of either inadequacies in the CEA framework or lack of consensus on how to use it in a setting with budget constraints. Yet efforts to value health still predominantly use (and continue to recommend) this limited framework. Is this owing to a lack of new ideas and motivation, resistance to change, or an aversion to embrace more comprehensive systems approaches? We argue that tools of systems engineering can advance our capabilities, but they have had only limited use in health policy. We identify some reasons and specifically highlight the promise of systems-analytic platforms-such as multicriteria decision support systems-and the need to make them more accessible for different uses in real situations with real consequences. We also explore the need for comparative testing of different multicriteria approaches (including direct comparisons with CEA) to learn when and by how much the recommendations differ and what the consequences might be.


Subject(s)
Budgets , Cost-Benefit Analysis , Decision Support Systems, Clinical , Health Policy , Quality-Adjusted Life Years , Decision Making , Humans
12.
Value Health ; 21(2): 131-139, 2018 02.
Article in English | MEDLINE | ID: mdl-29477390

ABSTRACT

The third section of our Special Task Force report identifies and defines a series of elements that warrant consideration in value assessments of medical technologies. We aim to broaden the view of what constitutes value in health care and to spur new research on incorporating additional elements of value into cost-effectiveness analysis (CEA). Twelve potential elements of value are considered. Four of them-quality-adjusted life-years, net costs, productivity, and adherence-improving factors-are conventionally included or considered in value assessments. Eight others, which would be more novel in economic assessments, are defined and discussed: reduction in uncertainty, fear of contagion, insurance value, severity of disease, value of hope, real option value, equity, and scientific spillovers. Most of these are theoretically well understood and available for inclusion in value assessments. The two exceptions are equity and scientific spillover effects, which require more theoretical development and consensus. A number of regulatory authorities around the globe have shown interest in some of these novel elements. Augmenting CEA to consider these additional elements would result in a more comprehensive CEA in line with the "impact inventory" of the Second Panel on Cost-Effectiveness in Health and Medicine. Possible approaches for valuation and inclusion of these elements include integrating them as part of a net monetary benefit calculation, including elements as attributes in health state descriptions, or using them as criteria in a multicriteria decision analysis. Further research is needed on how best to measure and include them in decision making.


Subject(s)
Biomedical Research/economics , Biomedical Technology/economics , Cost-Benefit Analysis/methods , Decision Making , Delivery of Health Care/economics , Health Expenditures , Outcome Assessment, Health Care/methods , Advisory Committees , Efficiency , Health Policy , Humans , Quality-Adjusted Life Years , United States
13.
Value Health ; 21(2): 146-154, 2018 02.
Article in English | MEDLINE | ID: mdl-29477392

ABSTRACT

The fifth section of our Special Task Force report identifies and discusses two aggregation issues: 1) aggregation of cost and benefit information across individuals to a population level for benefit plan decision making and 2) combining multiple elements of value into a single value metric for individuals. First, we argue that additional elements could be included in measures of value, but such elements have not generally been included in measures of quality-adjusted life-years. For example, we describe a recently developed extended cost-effectiveness analysis (ECEA) that provides a good example of how to use a broader concept of utility. ECEA adds two features-measures of financial risk protection and income distributional consequences. We then discuss a further option for expanding this approach-augmented CEA, which can introduce many value measures. Neither of these approaches, however, provide a comprehensive measure of value. To resolve this issue, we review a technique called multicriteria decision analysis that can provide a comprehensive measure of value. We then discuss budget-setting and prioritization using multicriteria decision analysis, issues not yet fully resolved. Next, we discuss deliberative processes, which represent another important approach for population- or plan-level decisions used by many health technology assessment bodies. These use quantitative information on CEA and other elements, but the group decisions are reached by a deliberative voting process. Finally, we briefly discuss the use of stated preference methods for developing "hedonic" value frameworks, and conclude with some recommendations in this area.


Subject(s)
Budgets , Cost-Benefit Analysis/methods , Decision Making , Delivery of Health Care/economics , Health Expenditures , Outcome Assessment, Health Care/methods , Technology Assessment, Biomedical/economics , Advisory Committees , Health Policy , Health Priorities , Humans , Quality-Adjusted Life Years , United States
14.
Value Health ; 21(2): 161-165, 2018 02.
Article in English | MEDLINE | ID: mdl-29477394

ABSTRACT

This summary section first lists key points from each of the six sections of the report, followed by six key recommendations. The Special Task Force chose to take a health economics approach to the question of whether a health plan should cover and reimburse a specific technology, beginning with the view that the conventional cost-per-quality-adjusted life-year metric has both strengths as a starting point and recognized limitations. This report calls for the development of a more comprehensive economic evaluation that could include novel elements of value (e.g., insurance value and equity) as part of either an "augmented" cost-effectiveness analysis or a multicriteria decision analysis. Given an aggregation of elements to a measure of value, consistent use of a cost-effectiveness threshold can help ensure the maximization of health gain and well-being for a given budget. These decisions can benefit from the use of deliberative processes. The six recommendations are to: 1) be explicit about decision context and perspective in value assessment frameworks; 2) base health plan coverage and reimbursement decisions on an evaluation of the incremental costs and benefits of health care technologies as is provided by cost-effectiveness analysis; 3) develop value thresholds to serve as one important input to help guide coverage and reimbursement decisions; 4) manage budget constraints and affordability on the basis of cost-effectiveness principles; 5) test and consider using structured deliberative processes for health plan coverage and reimbursement decisions; and 6) explore and test novel elements of benefit to improve value measures that reflect the perspectives of both plan members and patients.


Subject(s)
Cost-Benefit Analysis/methods , Decision Making , Delivery of Health Care/economics , Health Expenditures , Insurance, Health/economics , Outcome Assessment, Health Care/methods , Technology Assessment, Biomedical/economics , Advisory Committees , Economics, Pharmaceutical , Health Policy , Humans , United States
15.
Breast Cancer Res Treat ; 163(1): 167-176, 2017 May.
Article in English | MEDLINE | ID: mdl-28224383

ABSTRACT

PURPOSE: Multigene testing for breast cancer recurrence risk became available in 2007, yet many eligible patients remain untested. This study evaluated variation in testing rates, and oncologist and organizational factors associated with variation, in a setting without financial influences on testing. METHODS: We conducted a retrospective cohort study using electronic data and oncologist surveys within Kaiser Permanente Northern California, a large integrated health care system. Analyses included all 2974 test eligible patients from 2013 to 2015, 113 oncologists, and 15 practice groups. Receipt of multigene testing was evaluated with generalized linear mixed models. RESULTS: Overall, 39% of eligible patients had multigene testing, but rates varied widely among practice groups, ranging from 24 to 48% after case mix adjustment. This 24% difference among practices was greater than the variation associated with most patient characteristics, including comorbidities and race/ethnicity, and similar to that associated with tumor size. Practice group and oncologist factors were statistically significant contributors to the variation in testing after adjusting for patient factors. Patients were more likely to be tested if they had a female oncologist (aOR 1.60, 95% CI 1.21-2.12) or were in a practice whose chief had a high testing rate (aOR 1.20, 95% CI 1.12-1.29 per 10% increase in the percent tested). CONCLUSIONS: Oncologist and leadership practices play a key role in the variation in genomic test use for cancer recurrence risk even in a healthcare system without financial barriers to testing and could be a leverage point for implementing desired practice changes for new genomic advances.


Subject(s)
Breast Neoplasms/genetics , Genetic Testing/methods , Neoplasm Recurrence, Local/genetics , Aged , California , Delivery of Health Care, Integrated , Female , Humans , Middle Aged , Oncologists , Practice Patterns, Physicians' , Retrospective Studies
16.
Value Health ; 20(2): 251-255, 2017 02.
Article in English | MEDLINE | ID: mdl-28237204

ABSTRACT

Practitioners of cost-utility analysis know that their models omit several important factors that often affect real-world decisions about health care options. Furthermore, cost-utility analyses typically reflect only single perspectives (e.g., individual, business, and societal), further limiting the value for those with different perspectives (patients, providers, payers, producers, and planners-the 5Ps). We discuss how models based on multicriteria analyses, which look at problems from many perspectives, can fill this void. Each of the 5Ps can use multicriteria analyses in different ways to aid their decisions. Each perspective may lead to different value measures and outcomes, whereas no single-metric approach (such as cost-utility analysis) can satisfy all these stakeholders. All stakeholders have unique ways to measure value, even if assessing the same health intervention. We illustrate the benefits of this approach by comparing the value of five different hypothetical treatment choices for five hypothetical patients with cancer, each with different preference structures. Nine attributes describe each treatment option. We add a brief discussion regarding the use of these approaches in group-based decisions. We urge that methods to value health interventions embrace the multicriteria approaches that we discuss, because these approaches 1) increase transparency about the decision process, 2) allow flight simulator-type evaluation of alternative interventions before actual investment or deployment, 3) help focus efforts to improve data in an efficient manner, 4) at least in some cases help facilitate decision convergence among stakeholders with differing perspectives, and 5) help avoid potential cognitive errors known to impair intuitive judgments.


Subject(s)
Quality of Health Care/economics , Technology Assessment, Biomedical/methods , Value-Based Purchasing , Cost-Benefit Analysis , Patient Preference , Treatment Outcome
17.
Value Health ; 20(2): 185-192, 2017 02.
Article in English | MEDLINE | ID: mdl-28237193

ABSTRACT

The recent acceleration of scientific discovery has led to greater choices in health care. New technologies, diagnostic tests, and pharmaceuticals have widely varying impact on patients and populations in terms of benefits, toxicities, and costs, stimulating a resurgence of interest in the creation of frameworks intended to measure value in health. Many of these are offered by providers and/or advocacy organizations with expertise and interest in specific diseases (e.g., cancer and heart disease). To help assess the utility of and the potential biases embedded in these frameworks, we created an evaluation taxonomy with seven basic components: 1) define the purpose; 2) detail the conceptual approach, including perspectives, methods for obtaining preferences of decision makers (e.g., patients), and ability to incorporate multiple dimensions of value; 3) discuss inclusions and exclusions of elements included in the framework, and whether the framework assumes clinical intervention or offers alternatives such as palliative care or watchful waiting; 4) evaluate data sources and their scientific validity; 5) assess the intervention's effect on total costs of treating a defined population; 6) analyze how uncertainty is incorporated; and 7) illuminate possible conflicts of interest among those creating the framework. We apply the taxonomy to four representative value frameworks recently published by professional organizations focused on treatment of cancer and heart disease and on vaccine use. We conclude that each of these efforts has strengths and weaknesses when evaluated using our taxonomy, and suggest pathways to enhance the utility of value-assessing frameworks for policy and clinical decision making.


Subject(s)
Decision Support Techniques , Delivery of Health Care/standards , Quality Indicators, Health Care , Value-Based Purchasing , Cardiology , Conflict of Interest , Cost-Benefit Analysis , Delivery of Health Care/economics , Medical Oncology , Vaccines
18.
Am Heart J ; 167(5): 697-706.e2, 2014 May.
Article in English | MEDLINE | ID: mdl-24766980

ABSTRACT

BACKGROUND: Over 3 million patients annually present with symptoms suggestive of obstructive coronary artery disease (oCAD) in the United States (US), but a cardiac etiology is found in as few as 10% of cases. Usual care may include advanced cardiac testing with myocardial perfusion imaging (MPI), with attendant radiation risks and increased costs of care. We estimated the cost effectiveness of CAD diagnostic strategies including "no test," a gene expression score (GES) test, MPI, and sequential strategies combining GES and MPI. METHODS: We developed a Markov-based decision analysis model to simulate outcomes and costs in patients presenting to clinicians with symptoms suggestive of oCAD in the US. We estimated quality-adjusted life years (QALYs), total costs, and incremental cost-effectiveness ratios (ICERs) for each strategy. RESULTS: In our base case, the 2-threshold GES strategy is the most cost-effective strategy at a threshold of $100,000 per QALY gained, with an ICER of approximately $72,000 per QALY gained relative to no testing. Myocardial perfusion imaging alone and the 1-threshold strategy are weakly dominated. In sensitivity analysis, ICERs fall as the probability of oCAD increases from the base case value of 15%. The ranking of ICERs among strategies is sensitive to test costs, including the time cost for testing. The analysis reveals ways to improve on prespecified GES thresholds. CONCLUSIONS: Diagnostic testing for oCAD with a novel GES strategy in a 2-threshold model is cost effective by conventional standards. This diagnostic approach is more efficient than usual care of MPI alone or a 1-threshold GES strategy in most scenarios.


Subject(s)
Coronary Artery Disease/diagnosis , Gene Expression Profiling/economics , Models, Economic , Myocardial Perfusion Imaging/economics , Coronary Artery Disease/economics , Coronary Artery Disease/genetics , Cost-Benefit Analysis , Female , Health Care Costs , Humans , Male , Middle Aged , Reproducibility of Results , United States
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