| Literature DB >> 34154580 |
Elizabeth Ford1, Natalie Edelman2,3, Laura Somers2, Duncan Shrewsbury2, Marcela Lopez Levy4, Harm van Marwijk2, Vasa Curcin5, Talya Porat6.
Abstract
BACKGROUND: Well-established electronic data capture in UK general practice means that algorithms, developed on patient data, can be used for automated clinical decision support systems (CDSSs). These can predict patient risk, help with prescribing safety, improve diagnosis and prompt clinicians to record extra data. However, there is persistent evidence of low uptake of CDSSs in the clinic. We interviewed UK General Practitioners (GPs) to understand what features of CDSSs, and the contexts of their use, facilitate or present barriers to their use.Entities:
Keywords: Adoption; Alert fatigue; Barriers; Clinical decision support; General practice; Primary health care
Mesh:
Year: 2021 PMID: 34154580 PMCID: PMC8215812 DOI: 10.1186/s12911-021-01557-z
Source DB: PubMed Journal: BMC Med Inform Decis Mak ISSN: 1472-6947 Impact factor: 2.796
Participants characteristics
| Characteristic | N |
|---|---|
| Age | |
| 30–39 years | 8 |
| 40–49 years | 2 |
| 50 + years | 1 |
| Gender | |
| Male | 7 |
| Female | 4 |
| Ethnicity | |
| White British | 7 |
| British Asian | 3 |
| British other | 1 |
| GP role | |
| Partner | 2 |
| Salaried | 7 |
| Trainee | 1 |
| Hours worked | |
| Locum | 1 |
| Full time | 2 |
| Part time | 9 |
| Number of years practicing | |
| Median (years) | 5 |
| Range (years) | 2–30 |
| Location of practice | |
| London | 5 |
| Brighton | 3 |
| West Sussex | 1 |
| Kent | 1 |
| Somerset | 1 |
| Setting of practice | |
| Inner city | 3 |
| Urban | 3 |
| Suburban | 2 |
| Rural | 3 |
Fig. 1Coding tree detailing the themes and subthemes
Recommendations for further investigation
| Domain | Recommendation |
|---|---|
| Provenance and Transparency | Supply the CDSS alongside an accessible and signposted evidence-base |
| Threat to autonomy and skills | Include GPs in the development of the tool so it is aligned to their clinical needs and workflow and so that they can recommend it to their peers |
| Clear communication and management guidance | For any prediction given by the tool, provide an evidence-based management or care guideline for the clinician to follow |
| Supply visual communication aids, co-designed with patients, so that clinicians can communicate the outcome of the tool with their patients easily | |
| Sensitivity to wider context | Only release a new tool widely when validation of accuracy, and study of unintended consequences, has occurred in real world settings |
| Consider and evaluate contextual effects on accuracy such as age, frailty, and multi-morbidity | |
| Ensure balance of false positives to false negatives given by tool is appropriate for resource use and does not result in excess harm | |
| User control and flexibility | Allow GP to maintain control, override or dismiss a tool |
| Ensure there is a provision to record wider context rationale for over-riding tool use | |
| Integrate tool appropriately with EHR and ensure self-population from previously recorded data as much as possible | |
| Intrusiveness | Consult with GPs on appropriate balance between having a self-generating pop-up or having a template which can be called up by the GP |
| Alert proliferation and fatigue | Consider the new tool in the context of all other tools within the system. Is this one really adding value? |
| Consider developing technologies which manage multiple tools or prioritise the most important alerts and suppress the rest | |
| Consider a learning system which learns from the behaviour of GPs and accumulated evidence of the effectiveness of the different tools and alerts to adapt tools’ behaviour | |
| Training and support | Label and signpost online training available for using the tool within the tool itself, e.g. a video showing how it works and how to get the most from it and personalise settings where appropriate |
| Sustainability: How expensive and adequate is the support for the tool and will it still be provided over time? |