Literature DB >> 32601319

How digital tools can advance quality and equity in genomic medicine.

Yvonne Bombard1,2, Robin Z Hayeems3,4.   

Abstract

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Year:  2020        PMID: 32601319      PMCID: PMC7322700          DOI: 10.1038/s41576-020-0260-x

Source DB:  PubMed          Journal:  Nat Rev Genet        ISSN: 1471-0056            Impact factor:   53.242


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COVID-19 has launched our community of practice into a new reality of digital care. On top of pre-existing wait times and workforce shortages in clinical genetics[1,2], the pandemic has revealed the urgency of virtual care interventions to minimize interruptions and compromised access to care. Digital health applications, portals and platforms are emerging across many medical disciplines, including genomic medicine. A scan of the clinical genetics landscape confirms the increasing use of chatbots, digital portals and machine learning algorithms to facilitate patient intake, phenotyping, counselling, laboratory analysis and result reporting (Fig. 1). These digital solutions have become essential to enable access to basic genetics services and optimize their delivery. For remote and less well-served communities, digital tools can improve access, reduce wait times, and enable continuity and quality of care. Patient portals in other areas have improved patient engagement, medication adherence, use of preventive services and clinical outcomes[3]. Digital decision support tools for patients and clinicians have broadened the reach and efficiency of genomic medicine[4] by enabling easier access to testing and counselling resources, especially for non-genetics specialists or those practising in resource-limited settings. By off-setting administrative burden on providers, digital intake forms and pedigree programmes can, in turn, increase the time available for meaningful, patient-centred consultations.
Fig. 1

Digital care tools in genomic medicine.

a | The genetics service pathway that will be delivered digitally by the Genetics Navigator, a digital application under development aimed at delivering the full spectrum of clinical services. b | Horizon scan of the modalities used in existing digital care tools for each phase of the genetics service pathway.

Digital care tools in genomic medicine.

a | The genetics service pathway that will be delivered digitally by the Genetics Navigator, a digital application under development aimed at delivering the full spectrum of clinical services. b | Horizon scan of the modalities used in existing digital care tools for each phase of the genetics service pathway. However, these profound clinical opportunities expose a myriad of technological divides for both providers and patients. From providers’ perspectives, new digital solutions will require interoperability with existing laboratory information and medical record systems and will need to seamlessly integrate multiple data sources and formats to minimize cognitive data overload[5]. A model of care that depends on digitization will require substantial capacity building among practitioners to equip them with the required skillset. Similarly, optimizing patients’ computer and health literacy as well as robust internet access while maintaining privacy is fundamental and likely to be challenging to achieve on a large scale. While reshaping the patient–provider interaction may alter relationship dynamics, whether this alteration proves favourable or unfavourable with respect to the patient experience remains to be seen.

Shifting dynamics in care

Early experiences leveraging telehealth capabilities under COVID-19 restrictions are signalling a shift in the dynamics of care. From advisory meetings with geneticists and genetic counsellors in tertiary-care settings, our data indicate that clinical geneticists detect a heightened sense of trust among patients receiving virtual care compared with in-person visits (Y.B. and R.Z.H., unpublished observations). Outside of a clinic setting, their perception is that the doctor–patient hierarchy dissipates, allowing the patient to feel more comfortable speaking and sharing ideas. They welcome emerging digital tools to support a range of clinical and administrative tasks (for example, phenotyping, family history taking, consent, education, referrals and integration of multi-disciplinary teams, and appointment booking). However, they feel strongly about retaining real-time engagement, be it in person or video conference-based, with patients to build rapport, understand the nuances of the patient and their circumstances, and ensure complex information is delivered with the expertise it requires. Both a commitment to patient-centred care and liability concerns underpin this perspective.

Balancing digital access with human interaction

Ultimately, our community of practice will need to consider how to best balance the efficiencies granted by digital tools with the comfort and quality of in-person encounters. For example, despite patient enthusiasm for the Genomics ADvISER, a digital health application to guide patients’ choices in the case of incidental findings, some patients still wanted a human touch[6] — an obvious but critical gap in the increasing digitization of care. One potential solution is a hybrid model whereby in-person (or video conference-based) encounters are supplemented with digital pre- and post-test tools. To this end, we are developing the Genetics Navigator (Fig. 1), an innovative model of care for genomic medicine designed to facilitate and optimize the delivery of the entire genomic testing pathway. Unlike existing tools that focus on specific components of genomic service delivery (Fig. 1), the Genetics Navigator aims to supplement the full pathway of care, from pre-test counselling, education, decision support, laboratory reporting, personalized return of results, post-test counselling, customized management recommendations and referrals to automated recontact for reanalysis of variants over time. Aligned with the principles of user-centred design, the Genetics Navigator will include a chatbot and audio, visual and graphical components to engage patients and deliver quality, comprehensive care. While such automation may improve efficiencies and reduce provider burden, it remains to be determined with what role genetics providers will be comfortable as these models of care evolve.

A watershed moment

digital solutions can reduce disparities in access … and engage broader communities of health-care providers Our community of practice is at a watershed moment. The efficiencies of digital solutions have exposed technological divides that layer on top of existing disparities in access to care and representation in genomics. On the one hand, digital solutions can reduce disparities in access by deploying genomic services in diverse and underserved settings outside academic research centres and engage broader communities of health-care providers. On the other hand, the databases that we use to interpret variant pathogenicity suffer from long-standing biases because of the under-representation of genome data across ethnic groups[7]. The quality of care afforded by digital solutions is only as good as the data input into these systems. Existing biases may therefore be reinforced by digital solutions, disproportionately disadvantaging those already marginalized by genomic medicine[8]. Similarly, there is a critical need to reconsider the proprietary nature of some digital tools and data access to avoid exacerbating existing genomic and technological disparities. Participatory governance models, where control is shared with patients, can not only increase patients’ trust and address their privacy concerns but enable co-design of patient-centred solutions that ultimately improve patients’ experiences and outcomes[9]. quality of care afforded by digital solutions is only as good as the data input into these systems We anticipate that comfort and efficiencies with digital genomic applications will evolve as we acquire more experience as well as the clinical and economic evidence to inform their adoption. The onus is now on our community to build the evidence base and required governance model to ensure equitable and sustainable digital genomic medicine.
  10 in total

Review 1.  Digital health-enabled genomics: Opportunities and challenges.

Authors:  Yvonne Bombard; Geoffrey S Ginsburg; Amy C Sturm; Alicia Y Zhou; Amy A Lemke
Journal:  Am J Hum Genet       Date:  2022-07-07       Impact factor: 11.043

2.  Regulatory oversight and ethical concerns surrounding software as medical device (SaMD) and digital twin technology in healthcare.

Authors:  Amos Lal; Johnny Dang; Christoph Nabzdyk; Ognjen Gajic; Vitaly Herasevich
Journal:  Ann Transl Med       Date:  2022-09

3.  ORCA, a values-based decision aid for selecting additional findings from genomic sequencing in adults: Efficacy results from a randomized trial.

Authors:  Elizabeth G Liles; Michael C Leo; Amanda S Freed; Kathryn M Porter; Jamilyn M Zepp; Tia L Kauffman; Erin Keast; Carmit K McMullen; Inga Gruß; Barbara B Biesecker; Kristin R Muessig; Donna J Eubanks; Laura M Amendola; Michael O Dorschner; Bradley A Rolf; Gail P Jarvik; Katrina A B Goddard; Benjamin S Wilfond
Journal:  Genet Med       Date:  2022-05-06       Impact factor: 8.864

Review 4.  Genomics in Egypt: Current Status and Future Aspects.

Authors:  Eman Ahmed El-Attar; Rasha Mohamed Helmy Elkaffas; Sarah Ahmed Aglan; Iman S Naga; Amira Nabil; Hoda Y Abdallah
Journal:  Front Genet       Date:  2022-05-13       Impact factor: 4.772

5.  The role of digital tools in the delivery of genomic medicine: enhancing patient-centered care.

Authors:  Salma Shickh; Sara A Rafferty; Marc Clausen; Rita Kodida; Chloe Mighton; Seema Panchal; Justin Lorentz; Thomas Ward; Nicholas Watkins; Christine Elser; Andrea Eisen; June C Carroll; Emily Glogowski; Kasmintan A Schrader; Jordan Lerner-Ellis; Raymond H Kim; David Chitayat; Cheryl Shuman; Yvonne Bombard
Journal:  Genet Med       Date:  2021-03-02       Impact factor: 8.864

6.  Web-Based Tool (FH Family Share) to Increase Uptake of Cascade Testing for Familial Hypercholesterolemia: Development and Evaluation.

Authors:  Hana Bangash; Ahmed Makkawy; Justin H Gundelach; Alexandra A Miller; Kimberly A Jacobson; Iftikhar J Kullo
Journal:  JMIR Hum Factors       Date:  2022-02-15

7.  Research on Health Disparities Related to the COVID-19 Pandemic: A Bibliometric Analysis.

Authors:  Keng Yang; Hanying Qi
Journal:  Int J Environ Res Public Health       Date:  2022-01-22       Impact factor: 3.390

8.  Examining access to care in clinical genomic research and medicine: Experiences from the CSER Consortium.

Authors:  Amanda M Gutierrez; Jill O Robinson; Simon M Outram; Hadley S Smith; Stephanie A Kraft; Katherine E Donohue; Barbara B Biesecker; Kyle B Brothers; Flavia Chen; Benyam Hailu; Lucia A Hindorff; Hannah Hoban; Rebecca L Hsu; Sara J Knight; Barbara A Koenig; Katie L Lewis; Kristen Hassmiller Lich; Julianne M O'Daniel; Sonia Okuyama; Gail E Tomlinson; Margaret Waltz; Benjamin S Wilfond; Sara L Ackerman; Mary A Majumder
Journal:  J Clin Transl Sci       Date:  2021-09-14

9.  Genetics Adviser: a protocol for a mixed-methods randomised controlled trial evaluating a digital platform for genetics service delivery.

Authors:  Salma Shickh; Daena Hirjikaka; Marc Clausen; Rita Kodida; Chloe Mighton; Emma Reble; Jordan Sam; Seema Panchal; Melyssa Aronson; Tracy Graham; Susan Randall Armel; Emily Glogowski; Christine Elser; Andrea Eisen; June C Carroll; Cheryl Shuman; Emily Seto; Nancy N Baxter; Adena Scheer; Serena Shastri-Estrada; Geoff Feldman; Kevin E Thorpe; Kasmintan A Schrader; Jordan Lerner-Ellis; Raymond H Kim; Hanna Faghfoury; Yvonne Bombard
Journal:  BMJ Open       Date:  2022-04-29       Impact factor: 3.006

10.  The evolving role of germline genetic testing and management in prostate cancer: Report from the Princess Margaret Cancer Centre international retreat.

Authors:  Roderick Clark; Miran Kenk; Kristen McAlpine; Emily Thain; Kirsten M Farncombe; Colin C Pritchard; Robert Nussbaum; Alexander W Wyatt; Johann de Bono; Danny Vesprini; Yvonne Bombard; Justin Lorentz; Steven Narod; Raymond Kim; Neil Fleshner
Journal:  Can Urol Assoc J       Date:  2021-12       Impact factor: 1.862

  10 in total

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