| Literature DB >> 35006086 |
Andre Q Andrade1, Jean-Pierre Calabretto1,2, Nicole L Pratt1, Lisa M Kalisch-Ellett1, Gizat M Kassie1, Vanessa T LeBlanc1, Emmae Ramsay1, Elizabeth E Roughead1.
Abstract
BACKGROUND: Digital technologies can enable rapid targeted delivery of audit and feedback interventions at scale. Few studies have evaluated how mode of delivery affects clinical professional behavior change and none have assessed the feasibility of such an initiative at a national scale.Entities:
Keywords: audit and feedback; digital health; digital intervention; health education; health professional; physician; precision public health; primary care
Mesh:
Year: 2022 PMID: 35006086 PMCID: PMC8787661 DOI: 10.2196/33873
Source DB: PubMed Journal: J Med Internet Res ISSN: 1438-8871 Impact factor: 5.428
Determinants of innovation diffusion and predicted advantages of proposed solution.
| Determinant of innovation | Predicted advantages of proposed solution |
| Relative advantage | Electronic messages are easier to read and act upon and less cumbersome than other communication means, such as printed materials or telephone communication |
| Compatibility | The solution uses communication infrastructure already being used to receive laboratory test results, with minimal additional impact on clinician workflow |
| Complexity | The solution can be described by the three main processes (patient identification, message tailoring, and secure delivery), which are understood by all stakeholders |
| Trialability | The solution was trialed in 3 small pilots and 1 randomized controlled trial before large-scale adoption |
| Risk | The solution has a relatively low cost and builds upon a 15-year program, reducing risk |
| Task issues | The solution is embedded in current workflow, with minimal task disruption |
| Augmentation/support | Each message is data driven, meaning it offers information related to a unique patient, also providing clear and unambiguous recommendations |
Figure 1Example of the intervention delivered to general practitioners (digital version).
Figure 2CONSORT (Consolidated Standards of Reporting Trials) flowchart. GP: general practitioner.
Clinical and demographic data at baseline.
| Baseline data | Postal intervention | Digital intervention | ||
| Number of participants | 1466 | 1519 | ||
| Age (years), mean (SD) | 76.1 (14.6) | 76.1 (14.5) | ||
| Male, n (%) | 853 (58) | 883 (58) | ||
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| ||||
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| High | 41 (3) | 34 (2) | |
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| Medium | 1188 (81) | 1213 (80) | |
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| Low | 237 (16) | 272 (18) | |
| Concurrent opioid use, n (%) | 590 (40) | 636 (42) | ||
Figure 3Average daily DDD by intervention group. DDD: defined daily dose.
Primary and secondary outcomes, by intervention arm.
| Outcomes | Postal | Digital | |
| Average defined daily dose change (baseline to 6 months) | –0.030 | –0.023 | .61 |
| Average defined daily dose change (baseline to 12 months) | –0.058 | -0.058 | .98 |
| Percentage of new psychologist visits (baseline to 6 months) | 1.0 | 1.3 | .75 |
| Percentage of new psychologist visits (baseline to 12 months) | 2.0 | 3.8 | .02a |
| Hazard ratio for general practitioner visit within 90 days (95% CI) | 0.92 (0.85-0.99) | 1 (reference) | .04a |
aP<.05.