Equity in essence: a call for operationalising fairness in machine learning for healthcare.
Equity in essence: a call for operationalising fairness in machine learning for healthcare.
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DOI:
10.1136/bmjhci-2020-100289
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发表时间:
2021-04
影响因子:
4.1
通讯作者:
Ghassemi M
中科院分区:
文献类型:
--
作者:
Wawira Gichoya J;McCoy LG;Celi LA;Ghassemi M
INTRODUCTION Machine learning for healthcare (MLHC) is at the juncture of leaping from the pages of journals and conference proceedings to clinical implementation at the bedside. Succeeding in this endeavour requires the synthesis of insights from both the machine learning and healthcare domains, in order to ensure that the unique characteristics of MLHC are leveraged to maximise benefits and minimise risks. An important part of this effort is establishing and formalising processes and procedures for characterising these tools and assessing their performance. Meaningful progress in this direction can be found in recently developed guidelines for the development of MLHC models, 1 guidelines for the design and reporting of MLHC clinical trials, 2 3 and protocols for the regulatory assessment of MLHC tools. 4 5 But while such guidelines and protocols engage extensively with relevant technical considerations, engagement with issues of fairness, bias and unintended disparate impact is lacking. Such issues have taken on a place of prominence in the broader ML community, 6–9 with recent work highlighting issues such as racial disparities in the accuracy of facial recognition and gender classification software, 6 10 gender bias in the output of natural language processing models 11 12 and racial bias in algorithms for bail and criminal sentencing. 13 MLHC is not immune to these concerns, as seen in disparate outcomes from algorithms for allocating healthcare resources, 14 15 bias in language models developed on clinical notes 16 and melanoma detection models developed primarily on images of light-coloured skin. 17 Within this paper, we will examine the inclusion of fairness in recent guidelines for MLHC model reporting, clinical trials and regulatory approval. We highlight opportunities to ensure that fairness is made fundamental to MLHC, and examine ways how this can be operationalised for the MLHC context.FAIRNESS AS AN AFTERTHOUGHT? Model development and trial reporting guidelines Several recent documents have attempted, with varying degrees of practical implication, to enumerate guiding principles for MLHC. Broadly, these documents do an excellent job of highlighting artificial intelligence (AI)-specific technical and operational concerns, such as how to handle human-AI interaction, or how to account for model performance errors. Yet as outlined in table 1, references to fairness are either conspicuously absent, made merely in passing, or relegated to supplemental discussion. Notable examples are the recent the Standard Protocol Items: Recommendations for Interventional Trials-AI (SPIRIT-AI) 2 and Consolidated Standards of Reporting Trials-AI (CONSORT-AI) 3 extensions, which expand prominent guidelines for the design and reporting of AI clinical trials to include concerns relevant to AI. While the latter states in the discussion that ‘investigators should also be encouraged to explore differences in performance and error rates across population subgroups’, 3 there is no more formal inclusion of the concept into the guideline itself. Similarly, the announcement papers for the upcoming Transparent Reporting of a multivariable prediction model for Individual Prognosis or Diagnosis-ML (TRIPOD-ML) 18 andStandards for Reporting of Diagnostic Accuracy Studies AI Extension (STARD-AI) 19 guidelines for model reporting do not allude to these issues (though we wait in anticipation for their potential inclusion in the final versions of these guidelines). While recently published guidelines from the editors of
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DOI:
10.1093/jamia/ocaa133
发表时间:
2020-12-01
影响因子:
6.4
作者:
Ferryman, Kadija
通讯作者:
Ferryman, Kadija
影响因子:
56.9
作者:
Caliskan, Aylin;Bryson, Joanna J.;Narayanan, Arvind
通讯作者:
Narayanan, Arvind
影响因子:
56.9
作者:
Obermeyer, Ziad;Powers, Brian;Mullainathan, Sendhil
通讯作者:
Mullainathan, Sendhil
影响因子:
8.8
作者:
Leisman, Daniel E.;Harhay, Michael O.;Maslove, David M.
通讯作者:
Maslove, David M.
影响因子:
82.9
作者:
Cruz Rivera S;Liu X;Chan AW;Denniston AK;Calvert MJ;SPIRIT-AI and CONSORT-AI Working Group;SPIRIT-AI and CONSORT-AI Steering Group;SPIRIT-AI and CONSORT-AI Consensus Group
通讯作者:
SPIRIT-AI and CONSORT-AI Consensus Group