Literature DB >> 26167289

Direct emergency medical services transport in STEMI: breaking the bank for non-PCI capable hospitals?

Jacqueline L Green1, Brahmajee K Nallamothu1.   

Abstract

Entities:  

Keywords:  Emergency Medical Services; Systems of Care

Year:  2015        PMID: 26167289      PMCID: PMC4493164          DOI: 10.1136/openhrt-2014-000139

Source DB:  PubMed          Journal:  Open Heart        ISSN: 2053-3624


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Direct emergency medical services (EMS) transport of patients with ST-elevation myocardial infarction (STEMI) to a percutaneous coronary intervention (PCI)-capable hospital is emerging as an effective strategy to improve care and reduce costs. This approach has been shown to improve mortality,1 decrease time to reperfusion,2 and reduce overall costs.3 Accordingly, the 2013 updated American Heart Association/American College of Cardiology (AHA/ACC) Guidelines for STEMI management now include a class I recommendation for direct EMS transport to a PCI-capable hospital for patients with STEMI,4 and EMS systems of care are maturing to facilitate this approach. Despite these important trends, however, some communities remain reluctant to implement direct EMS transport for various reasons. The study by Pathak et al5 published in Open Heart provides critical insight into one of the most frequently-cited concerns raised by skeptics: revenue loss at non-PCI capable hospitals as lucrative cardiovascular services are diverted away.6 Opponents to direct EMS transport have long perceived the practice will financially jeopardise smaller hospitals in rural and underserved communities given the large role cardiovascular services play in subsidising less reimbursed care. Pathak et al respond to this assertion with an interesting analysis of Florida's hospital discharge data from 2006. The Florida Agency for Health Care Administration includes all discharge claims from 100% of Florida hospitals due to statewide mandatory reporting. The authors defined hospitals susceptible to losing patients through direct EMS transport as STEMI referral hospitals. These were facilities that did not perform PCI procedures on inpatients or those that performed fewer than 200 PCIs annually. By dividing all adjusted charges for patients with a primary discharge diagnosis of STEMI (using International Classification of Diseases-9 diagnostic codes) by all adjusted charges for all hospital inpatients, the authors created a metric of projected revenue loss—assuming all inpatient revenue from patients with STEMI would be lost if direct EMS transport had been instituted universally across the state. Several findings reported by the authors are noteworthy. In the primary analysis, average projected revenue losses from cardiovascular services at most STEMI referral hospitals were estimated to be minimal. Indeed, on average STEMI referral hospitals in the state had projected revenue losses of just $0.33 for every $100 of total patient revenue. Furthermore, the five hospitals with the greatest projected revenue losses from proposed direct EMS transport were all located in metropolitan areas with a high-volume PCI centre within 30 min driving distance. Only 9% of STEMI referral hospitals were rural and a mere 5% offered PCI. These findings challenge the assumption that small, rural hospitals in underserved communities will suffer by participating in a regionalised STEMI system of care that encourages direct EMS transport. Yet the primary analysis did not incorporate patients with non-STEMI with acute coronary syndrome (ACS), who also may impact the economics of STEMI referral hospitals. To address this concern, Pathak et al performed a sensitivity analysis focused on a ‘worst-case’ scenario where STEMI referral hospitals lost revenue from all patients with ACS. Even here they found negligible (<2%) losses in revenue, suggesting these facilities should expect little financial impact if they participate in a regionalised STEMI system of care that supports direct EMS transport and should be able to continue to provide essential services in other clinical areas. Several limitations to the data source analysed merit discussion and should caution readers in interpreting these findings. First, these analyses only evaluated inpatient revenue, and did not include potential losses for subsequent outpatient care. Patients may prefer to arrange their outpatient care, such as cardiac catheterisations, imaging and follow-up appointments, at the hospital where they initially received ACS care. These patients are not captured in hospital claims, and thus, this is an important uncertainty that future work will need to consider. Second, administrative data are notoriously inaccurate at discriminating between patients with STEMI and patients with non-STEMI and thus cannot capture who may be eligible for reperfusion therapy.7 That said, the authors’ analysis of the broader group of patients with ACS is reassuring as it should not be affected by this concern. A third limitation is the time lag in data sources. Trends in procedure revenues and referral patterns in 2006 are of less clear relevance in 2014, given that local STEMI networks evolving in Florida over the last decade resulted in a dramatic increase (from 62.4% to 89.7%) in the proportion of STEMI patients initially hospitalised at a PCI capable facility.8 Thus these analyses potentially describe hospitals that were sufficiently financially diverse at baseline to survive the initial transition toward regionalisation of STEMI services already underway in Florida. Fourth, because considerable geographic variation in cardiovascular procedure use9 and the distribution of PCI-capable hospitals exists nationally,10 it remains unclear how applicable the findings are for patients outside of Florida. Ultimately, any discussion regarding costs in the USA also deserves consideration of the rapidly changing landscape of reimbursement accompanying the landmark Affordable Care Act (ACA) that was signed into law in March 2010. Such changes may impact direct EMS transport in multiple ways. For example, almost twice as many hospital mergers existed in 2012 as compared with 2006.11 As hospitals merge into larger health systems in response to ACA and other policies, an opportunity arises for PCI-capable hospitals to lead a comprehensive regionalised system of emergency cardiovascular care that includes direct EMS transport. Also since 2006, accountable care organisations (ACO) have emerged and now encompass 14% of the US population.12 ACOs strive to deliver care more efficiently through the development of networks of care. Finally, the insurance market place is shifting dramatically with the implementation of the ACA. An estimated 20 million Americans have gained insurance coverage, and all plans are required to meet certain benefits standards.13 In response to the growing demand for accountability, insurers are implementing strategies, such as value-based purchasing and bundled payments, that have the potential to financially incentivise timely and effective care like reperfusion. We believe the multitude of changes in reimbursement and healthcare organisation since the time of this analysis in 2006 only serve to strengthen financial incentives for hospitals within regionalised systems of STEMI care. Pathak et al offer unique clarity into the hospital characteristics and finances of potential STEMI referral hospitals that chose to participate. Their work suggests most of these hospitals are in metropolitan areas and are not likely to suffer significant revenue losses from direct EMS transport. Such evidence should reassure regions that are developing better and more organised STEMI systems of care that they can broaden the reach of timely reperfusion with primary PCI without breaking the bank for small, rural hospitals.
  11 in total

1.  Development of systems of care for ST-elevation myocardial infarction patients: the emergency medical services and emergency department perspective.

Authors:  Peter Moyer; Joseph P Ornato; William J Brady; Leslie L Davis; Chris A Ghaemmaghami; W Brian Gibler; Greg Mears; Vincent N Mosesso; Richard D Zane
Journal:  Circulation       Date:  2007-05-30       Impact factor: 29.690

2.  Feasibility of determining myocardial infarction type from medical record review.

Authors:  Ken S Woo; William A Ghali; Danielle A Southern; Jack V Tu; Gerry Parsons; Michelle M Graham
Journal:  Can J Cardiol       Date:  2008-02       Impact factor: 5.223

3.  Reduction in mortality as a result of direct transport from the field to a receiving center for primary percutaneous coronary intervention.

Authors:  Michel R Le May; George A Wells; Derek Y So; Chris A Glover; Michael Froeschl; Justin Maloney; Richard Dionne; Jean-François Marquis; Edward R O'Brien; Alexander Dick; Heather L Sherrard; John Trickett; Pierre Poirier; Melissa Blondeau; Jordan Bernick; Marino Labinaz
Journal:  J Am Coll Cardiol       Date:  2012-10-02       Impact factor: 24.094

4.  2013 ACCF/AHA guideline for the management of ST-elevation myocardial infarction: a report of the American College of Cardiology Foundation/American Heart Association Task Force on Practice Guidelines.

Authors:  Patrick T O'Gara; Frederick G Kushner; Deborah D Ascheim; Donald E Casey; Mina K Chung; James A de Lemos; Steven M Ettinger; James C Fang; Francis M Fesmire; Barry A Franklin; Christopher B Granger; Harlan M Krumholz; Jane A Linderbaum; David A Morrow; L Kristin Newby; Joseph P Ornato; Narith Ou; Martha J Radford; Jacqueline E Tamis-Holland; Carl L Tommaso; Cynthia M Tracy; Y Joseph Woo; David X Zhao
Journal:  J Am Coll Cardiol       Date:  2012-12-17       Impact factor: 24.094

5.  De Facto regionalization of care for ST-elevation myocardial infarction in Florida, 2001-2009.

Authors:  Colin J Forsyth; Elizabeth Barnett Pathak; Joel A Strom
Journal:  Am Heart J       Date:  2012-10-16       Impact factor: 4.749

6.  Health care coverage under the Affordable Care Act--a progress report.

Authors:  David Blumenthal; Sara R Collins
Journal:  N Engl J Med       Date:  2014-07-02       Impact factor: 91.245

7.  The impact of a statewide pre-hospital STEMI strategy to bypass hospitals without percutaneous coronary intervention capability on treatment times.

Authors:  Emil L Fosbol; Christopher B Granger; James G Jollis; Lisa Monk; Li Lin; Barbara L Lytle; Ying Xian; J Lee Garvey; Greg Mears; Claire C Corbett; Eric D Peterson; Seth W Glickman
Journal:  Circulation       Date:  2012-12-30       Impact factor: 29.690

8.  Geographic variation in cardiovascular procedure use among Medicare fee-for-service vs Medicare Advantage beneficiaries.

Authors:  Daniel D Matlock; Peter W Groeneveld; Steve Sidney; Susan Shetterly; Glenn Goodrich; Karen Glenn; Stan Xu; Lin Yang; Steven A Farmer; Kristi Reynolds; Andrea E Cassidy-Bushrow; Tracy Lieu; Denise M Boudreau; Robert T Greenlee; Jeffrey Tom; Suma Vupputuri; Kenneth F Adams; David H Smith; Margaret J Gunter; Alan S Go; David J Magid
Journal:  JAMA       Date:  2013-07-10       Impact factor: 56.272

9.  Routine diversion of patients with STEMI to high-volume PCI centres: modelling the financial impact on referral hospitals.

Authors:  Elizabeth Barnett Pathak; Meg M Comins; Colin J Forsyth; Joel A Strom
Journal:  Open Heart       Date:  2015-06-29

10.  Growth in percutaneous coronary intervention capacity relative to population and disease prevalence.

Authors:  James R Langabeer; Timothy D Henry; Dean J Kereiakes; Jami Dellifraine; Jamie Emert; Zheng Wang; Leilani Stuart; Richard King; Wendy Segrest; Peter Moyer; James G Jollis
Journal:  J Am Heart Assoc       Date:  2013-10-28       Impact factor: 5.501

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