Literature DB >> 26962033

Assessing the appropriateness of prevention and management of venous thromboembolism in Australia: a cross-sectional study.

Peter D Hibbert1, Natalie A Hannaford2, Tamara D Hooper1, Diane M Hindmarsh3, Jeffrey Braithwaite3, Shanthi A Ramanathan4, Nicholas Wickham5, William B Runciman6.   

Abstract

OBJECTIVES: The prevention and management of venous thromboembolism (VTE) is often at variance with guidelines. The CareTrack Australia (CTA) study reported that appropriate care (in line with evidence-based or consensus-based guidelines) is being provided for VTE at just over half of eligible encounters. The aim of this paper is to present and discuss the detailed CTA findings for VTE as a baseline for compliance with guidelines at a population level.
SETTING: The setting was 27 hospitals in 2 states of Australia. PARTICIPANTS: A sample of participants designed to be representative of the Australian population was recruited. Participants who had been admitted overnight during 2009 and/or 2010 were eligible. Of the 1154 CTA participants, 481(42%) were admitted overnight to hospital at least once, comprising 751 admissions. There were 279 females (58%), and the mean age was 64 years. PRIMARY AND SECONDARY OUTCOME MEASURES: The primary measure was compliance with indicators of appropriate care for VTE. The indicators were extracted from Australian VTE clinical practice guidelines and ratified by experts. Participants' medical records from 2009 to 2010 were analysed for compliance with 38 VTE indicators.
RESULTS: Of the 35,145 CTA encounters, 1078 (3%) were eligible for scoring against VTE indicators. There were 2-84 eligible encounters per indicator at 27 hospitals. Overall compliance with indicators for VTE was 51%, and ranged from 34% to 64% for aggregated sets of indicators.
CONCLUSIONS: The prevention and management of VTE was appropriate for only half of the at-risk patients in our sample; this provides a baseline for tracking progress nationally. There is a need for national and, ideally, international agreement on clinical standards, indicators and tools to guide, document and monitor care for VTE, and for measures to increase their uptake, particularly where deficiencies have been identified. Published by the BMJ Publishing Group Limited. For permission to use (where not already granted under a licence) please go to http://www.bmj.com/company/products-services/rights-and-licensing/

Entities:  

Keywords:  AUDIT; GENERAL MEDICINE (see Internal Medicine); INTERNAL MEDICINE; ORTHOPAEDIC & TRAUMA SURGERY; SURGERY

Mesh:

Year:  2016        PMID: 26962033      PMCID: PMC4785294          DOI: 10.1136/bmjopen-2015-008618

Source DB:  PubMed          Journal:  BMJ Open        ISSN: 2044-6055            Impact factor:   2.692


The study is designed to be representative of the Australian population rather than a convenience-based or purposive-based sample. The review of medical records, while costly and difficult, allowed compliance to be measured in a real-world setting. Numbers of participants and/or eligible encounters are low for some indicators. There was a high rate of attrition of potential participants and several sources of possible bias. However, weighting using two methods and five different options made no significant difference to the compliance percentage.

Introduction

Each year in Australia about 1 in every 1000 people develop a first episode of venous thromboembolism (VTE), manifesting as deep venous thrombosis (DVT) and/or pulmonary embolism (PE).1 2 This amounts to about 20 000 cases, of which 80% occur during or soon after an admission to hospital.1 2 Including loss of productivity, total costs amount to well over $A1 billion per year.3 There is evidence that the appropriate use of pharmacological and mechanical prophylaxis in orthopaedic, general surgical and medical patients can reduce the incidence of VTE,4–6 although a recent paper has questioned use of pharmacological prophylaxis in lower risk medical patients.7 Clinical practice guidelines (CPGs) have been developed, in Australia8 9 and elsewhere,10 11 to prevent VTE and to standardise the management of DVT and PE. Several initiatives have been undertaken to promote and facilitate their uptake, including implementation guides,12 templates,13 learning modules,14 hospital medication self-assessments15 and patient information pamphlets.16 However, despite these initiatives and the considerable harm from VTE, much of the care provided for VTE is not in line with CPGs17 in both the developed18 and developing worlds.19 As healthcare is facing an affordability crisis, there is an urgent need to move towards being able to monitor the appropriateness of care (care in line with evidence-based or consensus-based guidelines).20 The CareTrack Australia (CTA) study was designed to establish baseline estimates of the appropriateness of care delivered, at a population level, by a range of practitioners in real-world settings, and to determine what would be needed to monitor the ongoing appropriateness of care.21 CTA showed that adult Australians received appropriate care for 22 common conditions at 57% of eligible healthcare encounters during 2009 and 2010; VTE compliance was reported at 58%.22 The aim of this paper is to present and discuss the detailed CTA findings for VTE as a baseline for compliance with guidelines at a population level, from which to track progress resulting from future interventions.

Methods

The CTA methods have been described in detail elsewhere.21 22 Some aspects of relevance to VTE are summarised here.

Development and ratification of indicators

An initial list of 15 indicators (with 54 subcriteria) was sourced from recommendations within the National Health and Medical Research Council guidelines8 9 and sent to three practising specialist haematologists who were Heads of Departments, asking them to comment on and rate each on a scale of 1–9 for appropriateness23 in the Australian context during 2009 and 2010. A two-round review process was used and a formal process was employed for managing discrepancies between specialists.21 Opinions of other specialists were not canvassed for logistical reasons. This resulted in 39 indicators being accepted as appropriate: 31 relating to pharmacological and mechanical prophylaxis and eight to risk assessment, discharge care and management of DVT or PE (see table 1).
Table 1

CTA indicators (and aggregated sets of indicators) by compliance

Indicator numberIndicator and sets of indicatorsEligible encounters (N)Compliant encounters (N)Compliance* (%)95% confidence limits† (%)
45–48Patients undergoing certain orthopaedic procedures or care received appropriate pharmacological anticoagulant therapy55346248–75
45Patients who had a hip arthroplasty have received anticoagulant therapy for up to 35 days‡2212Insufficient data to report
46Patients who had hip fracture surgery have received anticoagulant therapies for up to 35 days§22Insufficient data to report
47Patients who had a knee arthroplasty received anticoagulant therapies for up to 28 days¶2416Insufficient data to report
48Patients who had a lower limb fracture received anticoagulant therapies for at least 5 days or until fully mobile§74Insufficient data to report
62, 68–70, 73–75Patients undergoing certain orthopaedic procedures or care received appropriate mechanical anticoagulant therapy104494737–57
62Patients having a total hip replacement have been prescribed graduation compression stockings2019Insufficient data to report
68Patients having a total hip replacement have been prescribed an intermittent pneumatic compression device1811Insufficient data to report
69Patients having hip fracture surgery have been prescribed an intermittent pneumatic compression device31Insufficient data to report
70Patients having a total knee replacement have been prescribed an intermittent pneumatic compression device2115Insufficient data to report
73Patients having a total hip replacement have been prescribed a foot pump181Insufficient data to report
74Patients having a total knee replacement have been prescribed a foot pump222Insufficient data to report
75Patients having hip fracture surgery have been prescribed a foot pump20Insufficient data to report
49–54Patients undergoing non-orthopaedic surgical procedures (general, gynaecological, abdominal, cardiac, thoracic or vascular, trauma or spinal surgery) or who had cancer and underwent surgery received appropriate pharmacological anticoagulant therapy226763427–41
49Patients who had a general surgical procedure received anticoagulant therapies (unless contraindicated) until hospital discharge or fully mobile**55193522–49
50Patients who had gynaecological surgery received anticoagulant therapies (unless contraindicated) until hospital discharge or fully mobile**265Insufficient data to report
51Patients who had abdominal surgery received anticoagulant therapies (unless contraindicated) until hospital discharge or fully mobile**61294818–78
52Patients who had cardiac, thoracic or vascular surgery received anticoagulant therapies (unless contraindicated) until hospital discharge or fully mobile**31123916–66
53Patients who had trauma or spinal surgery received anticoagulant therapies started after primary haemostasis was established (unless contraindicated) until hospital discharge or fully mobile**180Insufficient data to report
54Patients who have cancer that underwent surgery received one of the following anticoagulant therapies (unless contraindicated) until hospital discharge or fully mobile**3511315–74
63–67, 71–72Patients undergoing non-orthopaedic surgical procedures received appropriate mechanical anticoagulant therapy2941766052–67
63Patients having general surgery have been prescribed graduated compression stockings72638878–94
64Patients having gynaecological surgery have been prescribed graduation compression stockings2821Insufficient data to report
65Patients having abdominal surgery have been prescribed graduation compression stockings66487346–91
66Patients having cardiac, thoracic or vascular surgery have been prescribed graduation compression stockings5217332–85
67Patients having neurosurgery have been prescribed graduation compression stockings1311Insufficient data to report
71Patients having cardiac, thoracic or vascular surgery have been prescribed an intermittent pneumatic compression device507142–41
72Patients having neurosurgery have been prescribed an intermittent pneumatic compression devices139Insufficient data to report
55–61Medical patients admitted to hospital with certain conditions received appropriate pharmacological anticoagulant therapy167774636–57
55Medical patients admitted to hospital with ischaemic stroke received anticoagulant therapies until resolution of the acute medical illness or until hospital discharge††51Insufficient data to report
56Medical patients admitted to hospital with myocardial infarct (where full anticoagulant is not in use) received anticoagulant therapies until resolution of the acute medical illness or until hospital discharge††156Insufficient data to report
57General medical patients admitted to hospital assessed as being at risk of VTE received anticoagulant therapies until resolution of the acute medical illness or until hospital discharge††84435140–62
58Medical patients admitted to hospital with active cancer received anticoagulant therapies until resolution of the acute medical illness or until hospital discharge††238Insufficient data to report
59Medical patients admitted to hospital with decompensated cardiac failure received anticoagulant therapies until resolution of the acute medical illness or until hospital discharge††73Insufficient data to report
60Medical patients admitted to hospital with acute on chronic lung disease received anticoagulant therapies until resolution of the acute medical illness or until hospital discharge††31154830–67
61Medical patients admitted to hospital with acute on chronic inflammatory disease received anticoagulant therapies until resolution of the acute medical illness or until hospital discharge††21Insufficient data to report
76–80Patients with suspected PE/DVT were managed with appropriate investigations, or had anticoagulant therapy started as soon as clinically suspected; or if PE/DVT confirmed, were managed appropriately89576451–76
76Patients with a suspected DVT had a venous duplex ultrasound performed1210Insufficient data to report
77Patients with a suspected PE had investigations performed‡‡2117Insufficient data to report
78Patients with a suspected DVT or PE where ultrasound was delayed, had anticoagulant therapy started (unless contraindicated) as soon as clinically suspected108Insufficient data to report
79Patients with a confirmed DVT/PE received anticoagulant therapies§§63Insufficient data to report
80Patients who were administered heparin therapy had it continued until the INR had been therapeutic for 48 h (INR range 2.0–3.0)40194826–70
Patients discharged on anticoagulant therapy have an appropriate documented care plan including details on the intended duration of treatment AND a review date¶¶70324631–61
43Patients who are discharged on anticoagulant therapy have a documented care plan that includes details on the intended duration of treatment73435946–71
44Patients who are discharged on anticoagulant therapy have a documented care plan that includes a review date70355029–71

Bold typeface indicates the aggregated indicators.

*Percentage compliance calculated as the number of compliant encounters/number of eligible encounters ×100.

†Compliance and per cent of compliance were not calculated for <30 encounters.

‡Enoxaparin 40 mg/day; dalteparin 5000 U/day; LDUH 5000 u three times a day; fondiparinux 2.5 mg/day (started 6–8 h postoperatively); rivaroxaban (orally); dabigatran (orally).

§Enoxaparin 40 mg/day; dalteparin 5000 U/day; LDUH 5000 u three times a day; fondiparinux 2.5 mg/day (started 6–8 h postoperativey).

¶Enoxaparin 40 mg/day; dalteparin 5000 U/day; LDUH 5000 u three times a day; fondiparinux 2.5 mg/day (started 6–8 h postoperatively); rivaroxaban(orally); dabigatran (orally).

**Enoxaparin 20 mg/day; dalteparin 2500 U/day.

††Enoxaparin 40 mg/day; dalteparin 5000 U/day; LDUH 5000 U two times or three times a day; assumed implicit and explicit risk assessments included.

‡‡One of: ventilation perfusion scan; CT angiography; pulmonary angiography.

§§Heparin administered together with warfarin for at least 5 days; unfractionated heparin intravenous (APTT) or subcutaneous (dose/kg); LMWH subcutaneously at least once daily.

¶¶Compliance for this aggregated indicator was both indicators 43 and 44 were compliant for a participant in an episode of hospitalisation. In other aggregated indicators, compliance was measured by adding each individual encounter as each episode of hospitalisation was an independent event.

APTT, activated partial thromboplastin time; DVT, deep venous thrombosis; INR, international normalised ratio; LDUH, low-dose unfractionated heparin; LMWH, low molecular weight heparin; PE, pulmonary embolism; VTE, venous thromboembolism.

CTA indicators (and aggregated sets of indicators) by compliance Bold typeface indicates the aggregated indicators. *Percentage compliance calculated as the number of compliant encounters/number of eligible encounters ×100. †Compliance and per cent of compliance were not calculated for <30 encounters. Enoxaparin 40 mg/day; dalteparin 5000 U/day; LDUH 5000 u three times a day; fondiparinux 2.5 mg/day (started 6–8 h postoperatively); rivaroxaban (orally); dabigatran (orally). §Enoxaparin 40 mg/day; dalteparin 5000 U/day; LDUH 5000 u three times a day; fondiparinux 2.5 mg/day (started 6–8 h postoperativey). Enoxaparin 40 mg/day; dalteparin 5000 U/day; LDUH 5000 u three times a day; fondiparinux 2.5 mg/day (started 6–8 h postoperatively); rivaroxaban(orally); dabigatran (orally). **Enoxaparin 20 mg/day; dalteparin 2500 U/day. ††Enoxaparin 40 mg/day; dalteparin 5000 U/day; LDUH 5000 U two times or three times a day; assumed implicit and explicit risk assessments included. ‡‡One of: ventilation perfusion scan; CT angiography; pulmonary angiography. §§Heparin administered together with warfarin for at least 5 days; unfractionated heparin intravenous (APTT) or subcutaneous (dose/kg); LMWH subcutaneously at least once daily. ¶¶Compliance for this aggregated indicator was both indicators 43 and 44 were compliant for a participant in an episode of hospitalisation. In other aggregated indicators, compliance was measured by adding each individual encounter as each episode of hospitalisation was an independent event. APTT, activated partial thromboplastin time; DVT, deep venous thrombosis; INR, international normalised ratio; LDUH, low-dose unfractionated heparin; LMWH, low molecular weight heparin; PE, pulmonary embolism; VTE, venous thromboembolism.

Recruitment of participants and healthcare providers

A sample designed to be representative of the Australian adult population was used. Households were randomly selected from a phone directory (the Telstra White Pages) from defined regions within New South Wales and South Australia and contacted using a Computer-Assisted Telephone Interview (CATI).21 22 One adult was randomly selected from each household and was asked to participate. Those who agreed were sent a mail package containing information about the study and a consent form to allow access to their medical records. Participants who provided consent were called back and asked if they had been admitted overnight to a hospital or had one or more of the CTA conditions, and which healthcare providers they had seen for these in 2009 and 2010. Hospitals identified by the participants were contacted and asked to provide their consent for medical record access.22

Review of medical records

Medical record reviews were undertaken for the 1154 consenting participants whose healthcare providers had also provided consent. Healthcare encounters were deemed eligible for scoring of VTE indicators if a participant had been admitted overnight during 2009 and/or 2010. Experienced registered nurses were recruited and trained as surveyors to conduct the medical record reviews using a web-based tool for onsite encrypted data collection. They were provided with formal training and received a manual with detailed criteria for inclusion, exclusion and scoring of indicators. Estimates of compliance were measured as the percentage of eligible encounters for the VTE indicators that were answered ‘yes’.21 22 The inclusion criteria for the indicators for VTE prophylaxis were specific to particular types of surgery (eg, hip fracture surgery or abdominal surgery) or medical conditions (eg, decompensated cardiac failure or acute on chronic lung disease).8 9 As the CTA study was designed to measure the overall appropriateness of the healthcare delivered for 22 conditions and was not powered for significant results at indicator level, the number of eligible encounters for many indicators was low. To address this, indicators were aggregated into broader, clinically meaningful categories. For example, orthopaedic conditions with pharmacological prophylaxis (indicators 45–48) were grouped and included hip arthroplasty, hip fracture surgery, knee arthroplasty and lower limb fractures (see table 1). Data relating to documentation of VTE risk assessment (indicator 42) was not included in the analysis reported here, as a review of surveyor practices revealed that some had assumed that a risk assessment had been carried out whenever appropriate prophylaxis had been prescribed, whether or not explicit documentation of an assessment was found. This was in breach of the criteria for this indicator, and these data were thus excluded.

Statistical analysis

Mean compliance and associated 95% CIs (using a modified version of the Clopper-Pearson (exact) method) were obtained using the SURVEYFREQ procedure in SAS V.9.3 for Windows (SAS Institute, Cary, North Carolina, USA). To address biases arising from the study design (including adjustment for non-response), two different weighting options and five versions of weights (three based on approaches used in the similar US study23) were used to generate weighted estimates of compliances. These were not significantly different to unweighted compliances overall or for any condition (including VTE). Hence, unweighted compliances were used for this analysis.22 Appendix 2 of the CTA study outlines the detailed methodology and overall results.22

Results

Of the 1154 CTA participants, 481(42%) were admitted overnight to hospital at least once, with a total of 751 admissions eligible for assessment against the VTE indicators. There were 279 females (58%), and the mean age was 64 years (6% were aged 18–39, 17% 40–54, 56% 55–74 and 21% were over 70 years of age). Of the 35 145 CTA encounters (with duplicates and the risk indicator removed), 1078 (3%) were eligible for scoring against VTE indicators; the number of eligible encounters per indicator ranged from 2 to 84. Records were reviewed at 33 hospitals, with 27 having eligible encounters. Eight of the hospitals had 50 or more eligible encounters. Overall compliance with the VTE indicators was 51% (95% CI 47% to 54%), with results for aggregated sets of indicators ranging from 34% to 64% (table 1). Omission of the risk assessment indicator from the overall score reduced compliance from the 58% reported originally22 to the 51% reported here. For the eight hospitals with 50 or more eligible encounters, compliance ranged from 45% to 70%.

Discussion

Our analysis of CTA data has shown that a sample of 481 Australian adults in 27 hospitals received appropriate care for VTE during 2009 and 2010 at only 51% of eligible healthcare encounters, in spite of considerable efforts to promote and facilitate the uptake of CPGs in Australia.12–16 Thus, despite the prevalence, cost, morbidity and mortality associated with VTE and PE, prophylaxis and treatment are still in line with CPGs only half the time. This continues to be a problem in both the developed and developing worlds.17–19 CTA patients who had surgery received appropriate pharmacological or mechanical anticoagulant therapy on only 39% and 57% of occasions, respectively (aggregations from table 1). The ENDORSE study, a multinational cross-sectional survey, also examined the proportion of at-risk patients who received effective prophylaxis.17 It found, for 804 patients from eight Australian hospitals studied in 2006–2007, that 82% of at-risk surgical patients received appropriate prophylaxis. This study did not separate pharmacological and mechanical prophylaxis.17 Baseline (preintervention) compliances for surgical patients were also higher than CTA compliances in two single hospital studies (65% and 74% for pharmacological prophylaxis and 89% and 64% for mechanical prophylaxis).24 25 Possible reasons for the lower CTA compliances are that CTA was a population-based study at 27 hospitals which were effectively randomly selected, while ENDORSE mainly collected data from prominent teaching hospitals, and the two single hospital studies were about to start an intervention for VTE prophylaxis, and had possibly raised awareness of the problem. In contrast, the CTA compliance for at-risk medical patients at 46% (aggregations from table 1) was similar to those in the eight Australian ENDORSE hospitals and a regional hospital (51% and 64%, respectively).17 25 Lower compliances for medical than surgical patients in the ENDORSE study and the regional hospital are consistent with the more complex indications in medical patients, and have been noted elsewhere.26 No equivalent Australian studies could be found for indicators associated with management of suspected or confirmed DVT or PE (CTA compliance 64%), or patients with a documented discharge plan and a date for cessation of treatment (CTA compliance 46%), but it would seem reasonable to conclude that both of these areas of practice also require attention. The risk assessment indicator was studied in two Australian single-hospital studies which both found 0% compliance at the preintervention stage, with modest postintervention compliances of 28% and 36%.24 27 The poor compliances with VTE indicators in Australia are consistent with the lack of a system-wide approach. Compliance measures or outcomes are not publicly reported at hospital level,28 VTE is not included in national standards,29 nor is it a national healthcare goal.30 Australian clinicians have identified that setting agreement on clinical guidelines and standards (agreement on risk categories, risk assessment tools, mandatory actions and protocols, provision of summaries), decision-support tools, and reporting results are enablers to delivering appropriate VTE care.31 32 The fact that compliance ranged from 45% to 70% between hospitals suggests that some facilities are faring better than others at managing VTE appropriately.

Strengths and weaknesses

The key strength of the CTA study is that it is designed to be representative of the Australian population to minimise selection bias, rather than a convenience-based or purposive-based sample. However, an unavoidable consequence of this strategy, coupled with finite research funds, is that the numbers of participants and/or eligible encounters are low for some indicators; 25 of 38 had insufficient data to report. Findings for these must be disregarded or interpreted with caution. The review of medical records, while costly and difficult, allowed compliance to be measured in a real-world setting and avoided the limitations inherent in asking healthcare providers to respond to clinical vignettes33 34 or questionnaires.35 Errors arising from measurement (information bias) were within acceptable limits for implicit review.36–38 Accordingly CTA provides some baseline estimates for compliance against which progress on the provision of appropriate care for VTE could be compared and tracked. The approach used was associated with a high rate of attrition of potential participants and several other sources of possible bias. Although it was not logistically feasible to design sampling so as to eliminate all possible confounders (confusion bias) or have the sample characteristics to exactly match the Australian population, weighting using two methods and five different options made no significant difference to the overall compliance percentage, or that for VTE;22 this is consistent with providers not altering their clinical practices for patients of different ages, gender, or socioeconomic or health literacy status. Commentators have raised issues with respect to the levels of evidence for and choice of indicators, effects of comorbidities, inter-rater reliability and the possibility of care having been provided but not recorded.36 37 These have all been addressed:22 38 compliance was shown to be no different for consensus-based and evidence-based recommendations; the CTA indicators were designed to be clinically relevant but not affected by comorbidities; inter-rater reliability was moderate, but was in line with other studies using implicit medical record review;38 and the effect on overall compliance of care received but not documented is thought to be no more than 10%.23 39 40

Conclusion

Our analysis of the VTE indicators from the CTA study show that compliance is modest at 51%, despite resources and guidelines being available, and the high associated cost and burden of disease. This is consistent with the lack of a system-wide focus on VTE in Australia as is the case in most of the rest of the world. In line with recommendations arising from the overall CTA study and feedback from clinicians, the challenge is to now move towards agreement on national clinical standards and on the development of indicators and tools to guide, document and monitor the appropriateness of care for VTE. An inclusive, national wiki-based process for achieving this has been proposed.20 VTE data could then be monitored at hospital level and the data aggregated at national and, potentially at international levels to track progress and inform policy.
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