2019
DOI: 10.1007/s12687-019-00442-7
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Determining accurate costs for genomic sequencing technologies—a necessary prerequisite

Abstract: Genome sequencing (GS) is increasingly being translated into clinical practice and is a technology characterized by a complex multi-step workflow. Funding decisions for GS would be aided by formal economic evaluation of GS platforms, but these analyses require detailed costing. This article addresses the importance of and challenges associated with costing GS using a GS microcosting project in autism spectrum disorder as an illustrative example.

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Cited by 19 publications
(24 citation statements)
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“…Costs were intended to reflect trio testing in most cases (although in practice this is not always possible). To inform our parameter estimates, we used the Medicare Clinical Laboratory Fee Schedule, 37 published microcosting studies, 36,37 and publicly available pricing from reference laboratories (see Supplemental Online Appendix). On the basis of consultation with experts and in accordance with other models, we also assumed that GS was used in conjunction with some diagnostic tests typically used in standard care (eg, biochemical, imaging), providing the evidence that leads to the suspicion of a genetic disorder and indicating a need for genetic testing.…”
Section: Costs Of Diagnostic Carementioning
confidence: 99%
“…Costs were intended to reflect trio testing in most cases (although in practice this is not always possible). To inform our parameter estimates, we used the Medicare Clinical Laboratory Fee Schedule, 37 published microcosting studies, 36,37 and publicly available pricing from reference laboratories (see Supplemental Online Appendix). On the basis of consultation with experts and in accordance with other models, we also assumed that GS was used in conjunction with some diagnostic tests typically used in standard care (eg, biochemical, imaging), providing the evidence that leads to the suspicion of a genetic disorder and indicating a need for genetic testing.…”
Section: Costs Of Diagnostic Carementioning
confidence: 99%
“…For some technologies, the consideration of cascade health service use may complicate this process because it may not always be possible to separate the cost of implementing a technology for index cases from the cost of cascade testing or screening in family members. An example is trio whole genome sequencing [ 42 ], in which DNA of a pediatric proband and their parents are processed and sequenced together. Results for primary and secondary genetic variants are reported for children and parents, together with a suitable clinical action plan.…”
Section: Discussionmentioning
confidence: 99%
“…Traditionally, WGS or WES have been the preferred sequencing types for variant calling. WGS has the advantage of allowing for the identification of certain structural variants that are excluded by WES data (discussed below) but has the disadvantage of being more expensive than WES data ( 47 ). RNAseq data is a potential alternative to WGS or WES sequencing as it would allow for variant calling, as well as differential expression analysis and incorporation of mRNA expression data into neoantigen prioritization.…”
Section: Neoantigen Predictionmentioning
confidence: 99%