Perspectives of U.S. Private Payers on Insurance Coverage for Pediatric and Prenatal Exome Sequencing – Results of a study from the Program in Prenatal and Pediatric Genomic Sequencing (P3EGS)

Abstract

Purpose:

Exome sequencing (ES) has the potential to improve management of congenital anomalies and neurodevelopmental disorders in fetuses, infants and children. U.S. payers are key stakeholders in patient access to ES. We examined how payers view insurance coverage and clinical utility of pediatric and prenatal ES.

Methods:

We employed the framework approach of qualitative research to conduct this study. The study cohort represented 14 payers collectively covering 170,000,000 enrollees.

Results:

Seventy one percent of payers covered pediatric ES despite perceived insufficient evidence because they saw merit in available interventions or in ending the diagnostic odyssey. None covered prenatal ES, because they saw no merit. For pediatric ES, 50% agreed with expanded aspects of clinical utility (e.g., information utility), and 21% considered them sufficient for coverage. For prenatal ES, payers saw little utility until in-utero interventions become available.

Conclusions:

The perceived merit of ES is becoming a factor in payers’ coverage for serious diseases with available interventions, even when evidence is perceived insufficient. Payers’ views on ES’ clinical utility are expanding to include informational utility, aligning with the views of patients and other stakeholders. Our findings inform clinical research, patient advocacy, and policy-making, allowing them to be more relevant to payers.

Introduction

Congenital anomalies and neurodevelopmental disorders affect 3–5% of live-born infants and children.¹ These conditions are among the leading causes of infant mortality.² Life-saving and progression-curbing interventions tailored to some of these conditions are now available, but many interventions must be applied expediently, given the possibility of rapid disease progression.^3,4 Accurate and timely genetic diagnosis is critical, but traditional testing methods, such as chromosomal microarray (CMA) and single-gene and/or gene panel tests, produce lower diagnostic rates⁵ and may take the patient/family and clinicians on a prolonged diagnostic odyssey.^6,7

Exome Sequencing (ES), using next-generation sequencing technology, offers a broader and more comprehensive diagnosis of pediatric and prenatal genetic diseases than tradition testing. Studies have demonstrated that ES diagnosed up to 78% of pediatric neurodevelopmental disorders when other tests did not yield a result^8,9 and led to changed medical management in 30% of diagnosed cases.¹⁰ Time-to-diagnosis advantages have been shown in studies of rapid genome and/or exome sequencing in the neonatal/pediatric intensive care unit setting.^11,12 ES was also determined more cost-effective than traditional testing.¹³

As a result, ES is being adopted into clinical practice to diagnose suspected neurodevelopmental genetic conditions in children – either in conjunction with CMA or as a first-line test.^14,15 Given the ES diagnostic advantages, it is also being evaluated for use in the prenatal setting, usually following a normal CMA result,¹⁶ to diagnose ultrasound-detected fetal structural anomalies, which affect 2–3% of pregnancies.¹⁷ Adding prenatal ES to CMA has been shown to increase the rate of genetic diagnosis of fetal anomalies, compared to standard of care testing.^18,19 The increased genetic diagnosis rate has the potential to improve family counseling and to inform prenatal and neonatal medical management. However, at this time, prenatal ES is considered emergent and experimental, due to the small body of evidence of clinical benefit and few proven in-utero interventions available.¹⁶ As new evidence of ES’ benefit is demonstrated and new fetal therapies for prenatally detected congenital disorders are available outside of research setting, prenatal ES is likely to become increasingly integrated into clinical practice.

For sustainable clinical adoption in the pediatric and prenatal settings, ES must be covered by insurance payers. Although it is possible to receive reimbursement for a novel genomic technology from a United States (U.S.) payer without a formal positive coverage policy, the absence or variability of formal positive coverage leads to payment uncertainty, variation in clinical practice, and barriers to access, particularly for underserved populations. A study of U.S. payers’ policies has shown that coverage for pediatric ES increased between 2015 and 2017 but remained fragmented: nearly half of payers whose policies were reviewed did not formally cover pediatric ES.²⁰ Prenatal ES is currently not formally covered in the U.S., although it is sometimes possible to receive payment. To facilitate more consistent insurance coverage of pediatric ES, as well as future coverage for prenatal ES and other novel genomic tests, it is crucial to understand payers’ coverage decision-making related to these technologies. This understanding is essential to inform researchers developing relevant evidence, clinicians ordering ES, patient advocacy efforts and the work of policy makers.²¹

The objective of our study was to examine U.S. payers’ views and perspectives on pediatric and prenatal ES in the context of coverage decision-making.

We focused on the perspective of private payers because private payers cover two thirds of the insured U.S. population.²² The study was conducted at the University of California, San Francisco (UCSF) within the Program in Prenatal and Pediatric Genomic Sequencing (P3EGS). P3EGS is a part of the Clinical Sequencing Evidence-Generating Research (CSER) consortium, and this study is aligned with CSER objectives to engage key stakeholders, including payers.²³ This study builds on our previous research on payer coverage decision-making for genomics.^24–26 These data add to our understanding of payers’ perspectives regarding pediatric and prenatal ES and how payers view their clinical utility. We focused on clinical utility because it is a central concept in payers’ coverage decision-making.^25–27 Our findings are significant and timely for stakeholders not only in pediatric and prenatal ES but also in other current and future genomic innovations.

Materials and Methods

We used the modified framework approach of qualitative research to design and conduct this semi-structured interview study.^28,29

Study cohort

Study participants were members of the UCSF Center For Translational and Policy Research on Personalized Medicine (TRANSPERS) Payer Advisory Council.³⁰ The Council was established in 2007, and its members have participated in a number of our previous studies on payer decision-making.^24–26 The Council is comprised of senior executives from 14 U.S. payer entities, including the 8 largest national health plans, 3 major regional health plans, one state Medicaid agency, and 2 non-health plan bodies (a multi-payer association and a laboratory benefit management company). Payers participating in the Council collectively cover over 170,000,000 lives. We invited all 14 Council members to take part in our study, and they all participated.

The non-health plan entities were invited because they develop coverage policies or coverage recommendations for health plans. For the purposes of this study, we refer to all participants as payers, in order to protect the individual and company anonymity. All participants were decision-makers regarding coverage for genomic technologies in their respective organizations: for example, a chief medical officer, a vice-president of medical policy, a head of genetics, and other senior positions.

Developing the interview guide

To inform the development of the interview guide, we conducted a literature review and discussions with 6 clinical and/or research experts on pediatric and prenatal ES: 4 UCSF P3EGS investigators and 2 outside experts. The interviews collected their perspectives on the benefits and risks of pediatric and prenatal ES, with a specific focus on clinical utility. Experts also suggested questions for payer interviews that would be of interest to clinicians and researchers.

Based on literature review and expert input, we developed a semi-structured interview guide. The guide included interview questions (see Table 1 for an excerpt), as well as background and context, such as a description of the standard of care testing for congenital anomalies and neurodevelopmental disorders and the role of ES in management of these conditions. The interview questions asked about the level of interest in prenatal and pediatric ES, the reasons that payers covered or did not cover these technologies, how they perceived risks of ES in these settings, and what they thought about suggestions provided by experts on how to facilitate coverage of pediatric and prenatal ES (see Table 1).

Table 1.

Interview Semi-Structured Questions

1 What is the level of interest in pediatric and prenatal ES in your organization, relative to other medical technologies or services? What are the reasons for this level of interest?

2 Do you currently cover ES (or recommend coverage for ES, if you are not a payer) in pediatric setting? In prenatal setting? Why / why not?

3 What is your opinion on the aspects of clinical utility of pediatric ES (Figure 1) and prenatal ES (Figure 2)? Do you agree / disagree with the aspects of clinical utility depicted? Why agree / disagree? In each diagram, which aspect(s) alone would be sufficient for coverage, in the absence of other aspects?

4What do you perceive the risks and challenges of ES in pediatric and prenatal settings to be?

5 What is your reaction to the these suggestions by clinical experts on how to provide insurance coverage for pediatric and prenatal ES: Consider pediatric and prenatal ES research as clinical practice, because in reality, patients receive ES in the research as clinical care. Base reimbursement for ES on a limited number of qualified institutions with demonstrated high quality of relevant care.

Notes:

ES – exome sequencing

This table presents an excerpt from the interview guide. The guide also included background and context (description of standard of care testing for congenital anomalies and neurodevelopmental disorders and the role of ES in management of these conditions), as well as Figures 1 and 2 conceptualizing clinical utility.

In addition, the interview guide contained background and questions related to the clinical utility of pediatric and parental ES. To frame these questions, we reviewed definitions of the clinical utility of genomic tests in the literature. The debate over how to define clinical utility is ongoing, and numerous definitions have been proposed.^31,32 They vary in breadth (e.g., whether it is improvement in health outcomes, or also the ability to diagnose and/or change clinical management), and in scope (e.g., whether it pertains only to the patient tested, or also to the family). To explore payers’ perspectives, we followed the recommendation by the American College of Medical Genetics and Genomics (ACMG) to expand the framing of clinical utility to a broader, multifaceted view of clinical utility for genomics.³³ We used a definition adapted from ACMG: clinical utility of genetic testing is a continuum of benefits, which encompasses a spectrum of aspects, including the value of a diagnosis to the individual and family, as well as effects on diagnostic or therapeutic management, and implications for prognosis, health, and physiological benefits to patients and their relatives.

Guided by this definition, and informed by discussions with experts, we conceptualized clinical utility for pediatric and prenatal ES in two diagrams (Figures 1 and 2), which were included with the interview guide. One of the interview questions explored whether payers agreed with the various aspects of clinical utility conceptualized in the diagrams and whether these aspects were independently sufficient for granting coverage to pediatric and/or prenatal ES.

Figure 1. Aspects of Clinical utility of Pediatric Exome Sequencing.

Boxes corresponding to aspects of clinical utility are shaded

ES – exome sequencing

Figure 2. Aspects of Clinical Utility of Prenatal Exome Sequencing.

Boxes corresponding to aspects of clinical utility are shaded

ES – exome sequencing

* Few In-utero non-termination interventions are currently available outside of research setting.

Data collection and analysis

Semi-structured interviews were conducted with the study cohort from January through April 2019. The interviews were conducted over the phone; lasted 45–60 minutes each, were recorded, with interviewee’s verbal consent, and later transcribed verbatim for analyses. Interviewees received the study description and the interview guide in advance. They were promised that all results would be reported in an unattributable, anonymous and aggregate fashion. No interviewees were offered or received payment for participation. Two investigators (Trosman and Weldon) conducted thematic analyses and coding of the transcribed interviews. Disagreements were resolved by discussion and consensus. Simple frequencies were used to further describe the findings.

Results

Payers’ interest in and coverage of pediatric and prenatal ES

Considerably more payers reported high or medium interest in pediatric than prenatal ES (Table 2). Cited reasons for high and medium interest in pediatric ES were: significant test implications, both positive and negative, the serious nature of relevant conditions, and cost concerns driven by high test prices and increasing usage of pediatric ES. Payers with low interest explained it by insufficient demand from their physician networks, the perception that ES is not ready for clinical practice, and competing internal priorities related to genetic testing, such as cancer genetics.

Table 2.

Interest in and Coverage of Pediatric and Prenatal Exome Sequencing by the Payer Cohort

	% of payers
Level of overall interest in ES, N=14
Pediatric ES:
High	57% (8/14)
Medium	29% (4/14)
Low	14% (2/14)
Prenatal ES:
High	29% (4/14)
Medium	21% (3/14)
Low	50% (7/14)
Currently provide coverage (or recommend coverage if you are a non-payer)? N=14
Pediatric ES	71% (10/14)
Prenatal ES	0% (0/14)
Reasons for coverage of pediatric ES, N=10
Availability of interventions informed by ES	70% (7/10)
See value in ending “the diagnostic odyssey”	30% (3/10)
Reasons for non-coverage of pediatric ES, N=4
Insufficient evidence of utility of ES vs. standard care	75% (3/4)
See no merit in any multi-gene testing, including ES	25% (1/4)
Reasons for non-coverage of prenatal ES, N=14
No evidence of utility	100% (14/14)
See no merit of ES prenatally, vs postnatally*	79% (11/14)
Skeptical about the ability to gather evidence*	29% (3/14)
See more harm than benefit*	14% (2/14)

Notes:

ES – exome sequencing

High interest – actively follow new studies, frequent internal review of coverage and/or new indications

Medium interest – occasional review of new studies, somewhat frequent review of coverage

Low interest – not following new studies, infrequent or no internal discussions of coverage and/or new indications

^*Not mutually exclusive

Most payers in our cohort noted that their organizations provided (or recommended) coverage for pediatric ES (71%, 10/14), while none covered prenatal ES (Table 2). Payers covering pediatric ES found evidence of its clinical utility insufficient but recognized the merit of the test (i.e. saw the overall underlying need for it). The merit for pediatric ES was based on its potential to inform the available clinical interventions (70%, 7/10) or to end the diagnostic odyssey (30%, 3/10). However, half of the payers covering pediatric ES still expressed concerns about potential inappropriate use, expanding indications, and difficulty interpreting test results. Hence, they established limitations on covered clinical scenarios and ordering specialties, and some have implemented prior authorization and utilization management programs.

In contrast to pediatric ES, where payers saw some, albeit insufficient evidence, they found no evidence of clinical utility for prenatal ES, and some of them doubted the ability to generate enough evidence in the future. Also, the majority saw no merit in its use, explaining that the lack of in-utero interventions outside of research settings obviated the need to perform ES in prenatal, versus the postnatal setting, where interventions are available. Thus, in their opinions, ES added no informational value above prenatal ultrasound and standard genetic testing.

How payers viewed clinical utility of pediatric and prenatal ES

The obtained insights regarding clinical utility are summarized in Table 3 and described below. The interviews assessed two angles: whether payers agreed with a specific aspect of ES’ clinical utility (Table 3, column 2), and whether they considered this aspect independently sufficient for coverage if other aspects are absent and/or unproven (Table 3, column 3).

Table 3.

Payers’ Views on Aspects of Clinical Utility for Pediatric and Prenatal Exome Sequencing

	% of payers who agree with this aspect of utility, N=14	% of payers who agree that this aspect is sufficient for clinical utility, N=14
Pediatric ES*
Health outcomes of clinical interventions informed by ES*	100% (14/14)	100% (14/14)
Change in clinical interventions informed by ES*	100% (14/14)	43% (6/14)
Withdrawal of futile interventions, and/or transition to palliative care	64% (9/14)	36% (5/14)
End of diagnostic odyssey (negative result – rule-out, or positive result - genetic diagnosis)	64% (9/14)	21% (3/14)
Informational utility: directing family to disease-specific support, education, research	50% (7/14)	21% (3/14)
Utility for family care: parents’ reproductive decisions; diagnoses for family members with suspected genetic conditions	50% (7/14)	0%
Prenatal ES**
Referral to tertiary center for delivery and specialized medical management of newborn	43% (6/14)	21% (3/14)
Termination decision, informed by ES	0%	0%
Upon birth, withdrawal of futile interventions, and/or provision of palliative care only	0%	0%
Obtaining genetic diagnosis prenatally	29% (4/14)	0%
Informational utility: directing family to disease-specific support, education, research	0%	0%
Utility for family care: parents’ reproductive decisions; diagnoses for family members with suspected genetic conditions	0%	0%

ES – exome sequencing

^*Compared to current standard of care diagnostics in pediatric setting

^**Compared to current standard of care diagnosis in in prenatal setting, and to WES post-birth

Pediatric ES

Payers viewed aspects of the clinical utility of pediatric ES relative to the current standard of testing. All payers agreed that from a coverage perspective, the incremental impact on clinical outcomes for pediatric patients tested with ES vs standard is the most desirable aspect of clinical utility. However, a sizable minority (43%, 6/14) considered a change in clinical management and/or another aspect of clinical utility as acceptable and sufficient for coverage (Table 3).

While 64% (9/14) of payers perceived withdrawal of futile interventions as a valid component of clinical utility, only 36% (5/14) viewed it as independent and stand-alone. Others commented that this aspect is secondary to outcome improvement and change in interventions, and therefore should not be used independently to demonstrate the utility of a genetic test. As one interviewee stated: “I hope we are not using genetics to discontinue care for patients. I would not encourage that this sort of treatment futility is demonstrated through a genetic test.”

Similarly, 50% (7/14) of payers acknowledged the informational utility of ES (directing family to disease-specific support, education, and research), but most regarded informational utility as secondary to other aspects of clinical utility. Only 3 payers considered informational utility as potentially sufficient for coverage if evidence demonstrated an impact on patient care. None of the payers regarded utility for family care - reproductive decisions or diagnosis for siblings – as independently sufficient for coverage. They commented that “supporting or informing the family is not the primary reason to use ES – these should be linked to other aspects. For example, a support group is important for parents when stopping futile care or transferring to hospice”.

The end of the diagnostic odyssey was viewed by most payers (64%, 9/14) as a valid aspect of clinical utility, and several of them considered it sufficient for coverage (Table 3). These payers agreed with Figure 1 that the end of the diagnostic odyssey is different from informational utility, in that it stops further genetic testing and may inform disease-specific medical management. However, of these 9 payers, only 2 agreed that receiving a negative result may, in fact, end the diagnostic odyssey. Others noted that “on the surface, the rule-out utility makes sense, but only if we can resolve the challenge of VUS (variants of unknown significance) or inaccurate results, which may result in additional work that could be unnecessary or harmful.”

Prenatal ES

Here, payers discussed clinical utility not only relative to standard testing but also compared to testing ES after birth. Overall, 79% (11/14) of payers expressed difficulty recognizing the clinical utility of prenatal ES, in the absence of proven in-utero clinical interventions. Consequently, they viewed other aspects of clinical utility in Figure 2 as secondary and not relevant until in-utero interventions become available in clinical practice. All interviewed payers stated that they would not consider pregnancy termination as an intervention or an aspect of clinical utility in the context of coverage policy. Provided reasons included regulatory, political and/or ethical challenges and skepticism that a genetic diagnosis adds to the termination decision beyond sonographic results.

Likewise, most payers expressed skepticism that prenatal ES and an in-utero genetic diagnosis provide any incremental value compared to sonography and CMA testing. Accordingly, 57% (8/14) of payers thought that referral to a tertiary center for delivery and specialized newborn management should happen anyway, based on abnormal ultrasound results. All payers described other aspects of clinical utility (informing withdrawal of futile interventions, informational utility, and utility for parents’ reproductive decisions) as occurring after birth, and therefore relevant to pediatric but not the prenatal clinical utility of ES (Table 3). Several payers noted that availability of rapid sequencing made a timely diagnosis after birth feasible and obviated the necessity for prenatal ES. One payer added that in exceptional circumstances, ES may be performed several weeks before birth, to prepare for the immediate neonatal intervention.

Payers’ opinions on potential risks and harms of pediatric and prenatal ES

All interviewed payers argued that considerations of clinical utility include not only potential benefits of ES but also potential risks and harms. Each payer expressed several concerns of risks and harms, including: the impact of variants of unknown significance (VUS) on additional testing, care and costs; VUS-related anxiety for families and clinicians; difficulty interpreting ES results; accuracy of ES; uncertainty of how to handle secondary genetic findings; and psychological trauma of genetic diagnosis for parents. Payers believed that the risks and harms were higher in the prenatal setting, where the absence of clinical interventions and the inability to phenotypically examine the baby add to the uncertainty of diagnosis and management and elevate parents’ stress. This was one of the reasons they saw higher net utility for pediatric than prenatal ES.

Payers’ responses to experts’ suggestions for insurance coverage of pediatric and prenatal ES

In preparing the interview guide, experts made two suggestions for expanding insurance coverage of pediatric ES and establishing coverage for prenatal ES. First, they suggested that for rare serious conditions, such as pediatric congenital anomalies and neurodevelopmental disorders, the research setting is the only one available for patients to receive clinical care; therefore, payers should consider covering ES as part of this care. In the interviews, 21% (3/14) of payers agreed that research in these settings could be considered clinical practice because of the very rare conditions and high disease burden. However, they noted regulatory and business challenges in providing insurance coverage in research settings. Other payers did not agree with this suggestion because covering research would contradict their mission and contractual obligations to employers and enrollees. They also noted that it would be challenging to decide which research settings, diseases, and modalities should or should not be covered.

Second, experts suggested coverage of pediatric and prenatal ES only when ordered by selected tertiary centers with specialized resources able to interpret results and provide adequate care. A slight majority of payers (57%, 8/14) agreed that this approach could be effective and appropriate for pediatric and prenatal ES. They described similar approaches in managing other rare and complex conditions, such as organ transplant, by developing a network of centers of excellence. Nevertheless, they stated challenges associated with such programs: establishing clear criteria, quality metrics and standards for participating centers, and addressing the needs of patients in remote locations from tertiary centers. Several payers, both affiliated and not affiliated with Blue Cross Blue Shield, shared that they were considering such networks for complex modalities such as ES.

Discussion

This study examined perspectives of a cohort of U.S. payers on insurance coverage for pediatric and prenatal ES for congenital anomalies and neurodevelopmental disorders. We found that 71% of the payer cohort covers pediatric ES, despite perceived insufficient evidence, because they see merit in available interventions or in ending the diagnostic odyssey. None of them covered prenatal ES, primarily because they saw no merit in prenatal vs. postnatal ES (79%). Our study also examined how payers viewed an expanded spectrum of clinical utility for ES, beyond the impact on clinical outcomes and management. For pediatric ES, at least 50% agreed with expanded aspects of clinical utility, including ending diagnostic odyssey, informational utility (directing family to disease-specific support, education, and research) or family utility for reproductive decision-making. Moreover, 21% considered ending the diagnostic odyssey and informational utility independently sufficient for coverage. None of the payers viewed information utility as a compelling aspect of clinical utility prenatally until in-utero interventions are available in clinical practice.

Previous studies explored payers’ views on other genomic tests, including those in cancer and pharmacogenomics.^24–26,34 They found that while payers use a range of considerations in coverage decision-making, sufficient evidence of clinical utility was a central and necessary factor for coverage. In contrast, we found that for pediatric neurodevelopmental disorders and congenital anomalies, the perceived merit of ES was a key factor in coverage, despite perceptions of insufficient clinical evidence. This finding suggests that payers’ perception of merit is a concept that should be further studied to understand how it is shaped, if / how it applies to other clinical areas, and how it relates to other coverage decision-making factors.

Consistent with previous studies, payers in our cohort consider the impact on clinical outcomes and management as primary aspects of clinical utility. However, unlike prior studies, our findings indicate that payers are open to accepting expanded aspects of clinical utility, notably diagnostic and informational utility, for settings with available clinical interventions, such as pediatric neurodevelopmental disorders. Personal and family information utility has been deemed important by medical societies who urged their inclusion in the scope of the clinical utility of genomics.^33,35 It has also been shown of value to parents of children with rare genetic disorders undergoing exome sequencing.⁷ Our findings imply that payers’ views on the clinical utility of genomic sequencing are evolving toward higher congruence with those of other constituencies.

Our study may have implications for a range of stakeholders in the field of genomic sequencing, including clinicians, researchers, patient advocates, policy makers, and payers themselves. Our results inform the efforts of researchers studying established and emergent applications of ES to produce evidence of clinical utility relevant to payers and other audiences. One such effort is the UCSF P3EGS program, under which this study was conducted. P3EGS is a part of the CSER consortium and is aimed at investigating clinical utility for pediatric and prenatal ES.³⁶ Although many payers cover pediatric ES, coverage varies across payers and often has limited indications.²⁰ By generating evidence of clinical utility relevant to payers’ expectations, P3EGS and other investigators could help facilitate broader and more consistent coverage. Likewise, for emerging sequencing tests, such as prenatal ES, payers’ perspectives on clinical utility in the context of available interventions could help design relevant studies, as well as shape broader research priorities, focused on developing interventions in clinical areas where they are lacking.

Our study may be instructive to patient advocates, policy makers and others aiming to improve equitable access to genomic technologies, particularly for underrepresented and monitory patients. Understanding how payers evaluate these technologies may inform advocacy and policy work and potentially make it more effective. We also believe that the expanded conceptualization of clinical utility for ES developed in this study could be applied to other clinical areas and used to facilitate dialogues with a broader range of stakeholders. We plan to pursue this avenue by examining clinical utility from the broader perspective across CSER sites and stakeholders, and working with the Clinical Utility, Health Economics, and Policy (CUHEP) working group formed within the CSER consortium.³⁷

As the genomic field is likely to transition from exome to genome sequencing,³⁸ understanding payers’ coverage considerations will become increasingly important. Genome sequencing may exacerbate payers’ concerns about merit and utility in various diseases, and the risks and harms from VUS. This and future studies on payer decision-making will help to frame a cohesive and proactive research, advocacy and policy agenda for integrating genomic sequencing into coverage policy, reimbursement, and clinical practice.

Our study had several limitations. We used a relatively small cohort of payers, although collectively, their policies affect over 170 million enrollees. Public payers who cover substantial numbers of underserved and minority populations were underrepresented in our cohort. Medicaid is especially relevant to coverage for pediatric and prenatal disorders, but we were unable to broadly examine Medicaid policy decision-making in this study. Engaging Medicaid and other public payers in direct interview studies have been a challenge for researchers. Public multi-stakeholder forums, organized by quasi-government bodies, such as National Academies of Medicine may be a more feasible mechanism to elucidate their insight on coverage for sequencing technologies. Finally, some experts recommend encompassing cost-effectiveness as an aspect of the clinical utility of genomic testing. We did not include cost-related aspects in the scope of our study. Future research should elucidate whether and how payers consider cost-effectiveness as an aspect of clinical utility in coverage decisions.

Conclusions

We examined the views of U.S. payers on insurance coverage and clinical utility of exome sequencing (ES) for congenital anomalies and neurodevelopmental disorders in pediatric and prenatal settings. We found that the perceived merit of ES is becoming a factor in payers’ coverage for serious diseases, such as pediatric neurodevelopmental disorders, with available interventions, even when payers consider clinical evidence insufficient. We also found that payers’ perspectives on ES are evolving to include expanded aspects of clinical utility, notably information utility. This may indicate a trend toward higher congruence of payers’ perspectives with those of patients and other stakeholders. Future research should elucidate payers’ views on expanded clinical utility for exome and genome sequencing across diseases. Our findings inform clinical research, patient advocacy, and policy-making, allowing their efforts to be more relevant in a dialogue with payers.