Why the study?
Despite clinical practice guidelines, only 50.9% of patients received appropriate VTE prophylaxis, prompting evaluation of an automated clinical decision support system.
Does a computerised clinical decision support system improve adherence to VTE prophylaxis guidelines and reduce hospital-acquired VTE in hospitalised adult patients?
Observational (n=1,809)
No
Does a computerised clinical decision support system improve adherence to VTE prophylaxis guidelines and reduce hospital-acquired VTE in hospitalised adult patients?
Absolute Event Rate: 81.4% vs 50.9%
p-value: p=< 0.01
Implementation of a computerised clinical decision support system significantly improved adherence to VTE prophylaxis guidelines and reduced the prevalence of hospital-acquired VTE.
May support CDSS for VTE prophylaxis in hospitals; hypothesis-generating, with RCTs needed to confirm causality.
OBJECTIVE: Venous thromboembolism (VTE) is an important patient safety concern. VTE leads to significant mortality and morbidity and a burden on healthcare resources. Despite the widespread availability of evidence-based clinical practice guidelines on VTE prophylaxis, we found that only 50.9% of our patients were receiving appropriate prophylaxis. The purpose of this study was to evaluate the impact of automation of an adapted VTE prophylaxis CPG using a clinical decision support system (the VTE-CDSS) on VTE prevention among hospitalised adult patients. DESIGN AND SETTING: A quasi-experimental study (pre- and post-implementation) was conducted at a large 900-bed tertiary teaching multi-specialty hospital in Riyadh, Saudi Arabia. PARTICIPANTS: The 1809 adult patients in the study included 871 enrolled during the pre-implementation stage and 938 enrolled during the post-implementation stage. INTERVENTION: Multi-faceted implementation interventions were utilised, including leadership engagement and support, quality and clinical champions, staff training and education and regular audit and feedback. MAIN OUTCOME MEASURE: Two rate-based process measures were calculated for each admission cohort (i.e. pre- and post-implementation): the percentage of inpatients who were assessed for VTE risk on admission and the percentage of inpatients who received appropriate VTE prophylaxis. Two outcome measures were calculated: the prevalence of hospital-acquired VTE (HA-VTE) events and the in-hospital all-cause mortality. RESULTS: The percentage of inpatients risk assessed for VTE on admission increased from 77.4% to 93.3% (P < 0.01). The percentage of patients who received appropriate VTE prophylaxis increased from 50.9% to 81.4% (P < 0.01). The HA-VTE events decreased by 50% from 0.33% to 0.15% (P < 0.01).All-cause in-hospital mortality did not significantly change after implementation of the VTE-CDSS compared with pre-implementation mortality (P > 0.05). CONCLUSION: The VTE-CDSS improved patient safety by enhancing adherence to the VTE prophylaxis best practice and adapted CPG. The multi-faceted implementation strategies approach improved the compliance rate of risk assessment and the adherence to prophylaxis recommendations and substantially reduced the HA-VTE prevalence. A successful CDSS requires a set of critical components to ensure better user compliance and positive patient outcomes.
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Titi et al. (2021) conducted an observational in Venous thromboembolism (VTE) (n=1,809). VTE clinical decision support system (VTE-CDSS) vs. Pre-implementation was evaluated on Appropriate VTE prophylaxis (p=< 0.01). Implementation of a VTE clinical decision support system increased appropriate VTE prophylaxis from 50.9% to 81.4% and reduced hospital-acquired VTE events from 0.33% to 0.15% (P<0.01).
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