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. Author manuscript; available in PMC: 2019 Dec 1.
Published in final edited form as: J Subst Abuse Treat. 2018 Oct 2;95:43–47. doi: 10.1016/j.jsat.2018.09.006

Facility-Level Changes in Receipt of Pharmacotherapy for Opioid Use Disorder: Implications for Implementation Science

Andrea K Finlay a,b, Ingrid A Binswanger c,d, Christine Timko a,e, David Smelson f, Matthew A Stimmel g, Mengfei Yu a, Tom Bowe a, Alex H S Harris a,h
PMCID: PMC6209329  NIHMSID: NIHMS990870  PMID: 30352669

Abstract

Background:

The U.S. is facing an opioid epidemic, but despite mandates for pharmacotherapy for opioid use disorder to be available at Veterans Health Administration (VHA) facilities, the majority of veterans with opioid use disorder do not receive these medications. In implementation research, facilities are often targeted for qualitative inquiry or quality improvement efforts based on quality measure performance during a one-year period. However, sites that experience quality performance changes from one year to the next may be highly informative because mechanisms that impact facility change may be more discoverable. The current study examined changes in receipt of pharmacotherapy for opioid use disorder in a national healthcare system to determine the extent to which sites fluctuated in performance over a two-year period and illustrate how changes in quality measures over time may be useful for implementation research and healthcare surveillance of quality measures.

Methods:

Using national VHA data from Fiscal Years (FY) 2016 and 2017, we calculated quality measure performance as the number of patients who received pharmacotherapy for opioid use disorder (i.e., methadone, buprenorphine, and naltrexone) divided by the number of patients with a current non-remitted opioid use disorder diagnosis for each FY at each facility (n=129) and examined change from FY16 to FY17.

Results:

The mean rate of receipt of pharmacotherapy for opioid use disorder was 38% (facility range = 3% to 74%) in FY16 and 41% (facility range = 2% to 76%) in FY17. The average facility-level change in performance was 3% and ranged from –19% to 26%. There were 32 facilities that decreased in provision of pharmacotherapy, 12 facilities with no change, and 85 facilities that increased.

Conclusions:

For facilities with average or high performance, it was difficult to maintain their performance over time. Identifying and learning from facilities with recent fluctuations may be more informative to guide the design of future quality improvement efforts than studying facilities with stable high or low performance.

Keywords: Opioid-related disorders, Pharmacotherapy, Methadone, Buprenorphine, United States Department of Veterans Affairs, Implementation Science

1. Introduction

The United States is facing a major opioid epidemic with more than 42,000 people dying from opioid overdose deaths in 2016 (Seth, Scholl, Rudd, & Bacon, 2018). U.S. military veterans are also affected by this epidemic: There has been a 62% increase in veterans diagnosed with opioid use disorder at Veterans Health Administration (VHA) facilities between Fiscal Year (FY) 2004 (N = 30,093) (Oliva, Trafton, Harris, & Gordon, 2013) and FY12 (N=48,689) (Finlay et al., 2016) and rates of opioid overdose among veterans increased from 2001 to 2009 (Bohnert et al., 2014). Addressing the opioid crisis is a high priority for the Department of Veterans Affairs (VA) and the White House. Two medications, methadone and buprenorphine, are the most effective treatments for opioid use disorder (Amato et al., 2005; Amato, Minozzi, Davoli, & Vecchi, 2011; Kleber, 2008; Mattick, Breen, Kimber, & Davoli, 2009), and there is evidence to consider naltrexone as a second line medication (Department of Veterans Affairs & Department of Defense, 2015). These medications are mandated to be available and considered for all eligible veterans who receive care at the VHA medical facilities (Department of Veterans Affairs, 2008), but the majority of veterans with a current opioid use disorder do not receive these medications. The primary goal of this study was to examine changes in the quality measure of receipt of pharmacotherapy for opioid use disorder. Improving receipt is critical to address the opioid epidemic because these medications are effective at treating opioid use disorder and are mandated to be available at all VHA facilities.

Implementation scientists and quality improvement managers often investigate high and low performing facilities – positive and negative deviance studies (Rose & McCullough, 2017) – to learn about barriers and facilitators to access to and use of pharmacotherapy for opioid use disorder. For example, a study of adoption of pharmacotherapy for alcohol use disorder in VHA facilities used facility-level quantitative data to select the 30 highest and lowest adopting facilities to invite to participate in a survey and follow-up interviews (Harris et al., 2013). High and low outlier anticoagulation clinics, which were 3 of the top and 3 of the bottom 10 performing sites in terms of anticoagulation control, were selected for qualitative inquiry in another study conducted in the VHA (Rose et al., 2012). However, positive and negative deviance approaches generally focus on one-year time periods, which may fail to elucidate the complex mechanisms that impact improvement or deterioration. Studying healthcare facilities that experience significant changes in quality performance from one year to the next may provide more comprehensive insights compared to studying facilities with stable high or low performance. As a secondary aim, we assess how measuring change in the quality metric of pharmacotherapy for opioid use disorder over more than one year would impact the selection of facilities for further investigation compared with traditional positive and negative deviance approaches. This “change” approach may have value for broader implementation research and healthcare surveillance of quality measures to ensure patients are receiving high quality care. Although applicable to any quality measure, pharmacotherapy for opioid use disorder is an optimal example for informing implementation research because the importance of treating opioid use disorder and the focus on improving access to these medications in the US.

1.1. Pharmacotherapy for Opioid Use Disorder Among Veterans

The VHA serves approximately 8 million veteran patients per year with over 50,000 patients diagnosed with a current opioid use disorder. At VHA, methadone, buprenorphine, and naltrexone are offered through licensed opioid treatment programs and buprenorphine and naltrexone are also provided in other clinical settings such as primary care. Despite the mandate to provide these medications, the provision of pharmacotherapy for opioid use disorder varies widely across VHA facilities nationally. In FY08, the rate of receipt of opioid pharmacotherapy treatment, defined as visiting a methadone clinic and/or filling a prescription for buprenorphine, among 35,240 veterans with opioid use disorder visiting VHA facilities ranged from 0% to 66% (Oliva, Harris, Trafton, & Gordon, 2012). The total number of patients diagnosed with opioid use disorder has increased over time as has the number of veterans receiving pharmacotherapy for opioid use disorder (Oliva et al., 2013). However, these studies did not examine facility-level changes in this quality measure over time. Studies that have examined barriers to and facilitators of pharmacotherapy for opioid use disorder, both within and outside the VA, have used nationally representative survey or telephone interviews (Aletraris, Edmond, Paino, Fields, & Roman, 2016; Knudsen, Abraham, & Oser, 2011), convenience samples (e.g., selected participant from a local area, surveyed conference participants) (Barry et al., 2009; Cunningham, Kunins, Roose, Elam, & Sohler, 2007; Friedmann et al., 2012), facilities with a high prevalence of patients with opioid use disorder (Gordon et al., 2011), and purposive sampling to represent a wide range of departments in two health care systems (Green et al., 2014). Although unique information may be drawn using these various methodologies, the results may reflect general beliefs rather than recent specific incidents or mechanisms that would explain how facilities improve or worsen on a quality measure.

1.2. Targeting Facilities for Implementation Science Efforts

Implementation science is the study of methods that improve the utilization of evidence-based treatments and policies in health care (Fogarty International Center, 2018). To inform the design and testing of strategies to improve provision of evidence-based practices, implementation scientists often undertake in-depth qualitative studies of the barriers and facilitators to high-quality treatment in low and high performing facilities (Gilmer, Katz, Stefancic, & Palinkas, 2013; Harris et al., 2013; Proctor et al., 2009; Rose et al., 2012). In these negative or positive deviance studies, low or high performing facilities are identified by using a single survey or time period (e.g., one FY period) to measure treatment quality. However, lessons learned from stable high-performing facilities may not provide the whole picture when designing strategies to help low-performing facilities improve. Facilities that have been stable in their performance metrics may not be informative of the mechanisms that influence change and could be utilized at other facilities. Quality measures that have changed from the prior year may give a signal of factors that may be influencing change, but the within-facility fluctuations in quality measures must be sufficiently large to suggest that informative on-the-ground activities are occurring. We use pharmacotherapy for opioid use disorder as a timely example of how change in a quality measure can be examined to identify facilities where mechanisms of change are in play and target these facilities for further inquiry.

1.3. Current Study

The primary aim of this study was to evaluate the magnitude of within-facility changes in an addiction treatment quality measure, pharmacotherapy for opioid use disorder, over a two-year period. We examined the proportion of patients who received pharmacotherapy for opioid use disorder in FY16 through FY17 at VHA facilities to determine whether the rate of receipt increased or decreased at facilities over time and the extent to which the rate of receipt changed. Such data can be used to target future investigations that elucidate the mechanisms of change in performance over time, and ultimately to design and test strategies to improve access and use of pharmacotherapy for opioid use disorder. The secondary aim of this study was to provide an illustrated example of how examining changes in a quality measure over time may be used to aid in healthcare quality surveillance. Although we used pharmacotherapy for opioid use disorder as the quality measure of interest, potentially any quality measure could be examined over longer time periods to provide a different picture of quality within a healthcare system.

2. Materials and Methods

2.1. Denominator Sample

We followed the American Society for Addiction Medicine’s (ASAM) specifications for opioid use disorder diagnosis using International Classifications of Diseases −10th (ICD-10) Edition-CM codes (Harris, Weisner, et al., 2016). Using national VHA outpatient and inpatient clinical records, we identified veteran patients who received an opioid use disorder diagnosis during an outpatient visit or inpatient stay in FY16 (October 1, 2015 through September 30, 2016) and FY17 (October 1, 2016 through September 30, 2017). Opioid disorder diagnosis ICD-10 codes included F11.20, F11.10, F11.122, F11.222, F11.120, F11.129, F11.229, F11.23, F11.99, F11.14, F11.188, F11.159, F11.150, F11.151, F11.181, F11.182, F11.19. Our sample was selected based on opioid abuse and opioid dependence diagnosis codes, included veterans with a new or reoccurring/stable diagnosis, and excluded veterans with an in-remission diagnosis. This study was approved by the Stanford University Institutional Review Board and the VA Palo Alto Research & Development Committee.

2.2. Numerator

Receipt of pharmacotherapy for opioid use disorder was calculated for each FY. Following version 2 of the ASAM specifications (Harris, Weisner, et al., 2016), patients who had at least one visit to a VA methadone clinic in their outpatient records and/or who filled at least one prescription for buprenorphine (i.e., Suboxone, Subutex, excluding patches and intravenous medications) or naltrexone (oral or injection) in their pharmacy records were counted as having received pharmacotherapy for opioid use disorder.

2.3. Analyses

We limited our analyses to facilities that had patients who were diagnosed with opioid use disorder during FY16 and FY17. For each of the remaining 129 facilities (out of 130, one facility did not have patients diagnosed with opioid use disorder in both FYs), we calculated quality measure performance as the number of patients who received pharmacotherapy for opioid use disorder divided by number of patients diagnosed with a non-remitted opioid use disorder. We calculated the overall average and range in receipt of pharmacotherapy for each FY. For each facility, we subtracted the FY16 rate of receipt from the FY17 rate of receipt to calculate the change in performance over the two FYs. We chose the absolute change in percent for the primary analyses but included relative change in percent in the supplemental appendix as it provides another useful view of the data. Facilities with a 1% or greater change from FY16 to FY17 were considered increasing facilities. Facilities with a 0% change were no change facilities, and facilities with a −1% change or greater were considered decreasing facilities. We examined the overall and facility-level distribution in change in performance over the two FYs.

3. Results

There were 52,763 veteran patients in FY16 and 54,078 veteran patients in FY17 who received a diagnosis of a non-remitted opioid use disorder. The number of patients per facility who were diagnosed with opioid use disorder ranged from 39 to 1,239 patients (mean [M] = 409, standard deviation [SD] = 261) in FY 2016 and from 32 to 1,218 patients (M = 419, SD = 267) in FY 2017. The change in the number of patients diagnosed with opioid use disorder from FY 2016 to FY 2017 ranged from −110 to 182 (M = 10, SD = 44). The proportion of change in denominators represented a 44% decrease to 83% increase in the number of patients diagnosed with opioid use disorder. In FY 2016, the overall rate of receipt of pharmacotherapy for opioid use disorder was 38% (n=20,028), with facility-level performance ranging from 3% to 74%. In FY17, the overall rate of receipt of pharmacotherapy for opioid use disorder was 41% (n=22,179), with facility-level performance ranging from 2% to 76%. At the facility-level, the change in receipt of pharmacotherapy for opioid use disorder from FY16 to FY17 averaged 3% and ranged from –19% to 26%. In Figure 1, facilities were ordered from the lowest to highest rate of receipt of pharmacotherapy for opioid use disorder in FY16; the bars display their change from FY16 to FY17. Details on the number of patients diagnosed and treated and the percentage rate for each facility for FY16 and FY17 are reported in the supplemental appendix.

Figure 1.

Figure 1.

Facilities are ordered by Fiscal Year (FY) 2016, lowest to highest rate of receipt in pharmacotherapy for opioid use disorder. The bars display the change in rate of receipt from FY 2016 to FY 2017, with unfilled bars indicating a positive change and filled bars indicating a negative change.

There were 32 facilities (25% of the total number of facilities in the study) that had a decrease in rates of receipt of pharmacotherapy, 12 facilities (9%) with no change, and 85 facilities (66%) with an increase. Among facilities that decreased, 21 facilities decreased 1–5%, 7 facilities decreased 6–9%, and 4 facilities decreased 11–19%. Among facilities that increased, 43 facilities increased 1–5%, 30 facilities increased 6–10%, and 12 facilities increased 11–26%. Table 1 displays the number of decreasing, no change, and increasing facilities by their FY16 rate of receipt, coded as low (<33% rate of receipt), average (33% to 43% rate of receipt; ±5% from the FY16 average), and high (>43%). The majority of decreasing facilities declined from a high rate of receipt, the majority of no change facilities were consistent in their low rate of receipt, and the majority of increasing facilities improved from a low rate of receipt.

Table 1.

Change in Provision of Pharmacotherapy for Opioid Use Disorder From Fiscal Years 2016 to 2017 at Veterans Health Administration Facilities

Fiscal Year 2016 Facility Rate
Facility Change
from FY16 to FY17
Low (<33%) Average (33%
to 43%)
High (>43%) Total
Decreasing 8 8 16 32
 −11% to −19% 1 2 1 4
 −6 to −10% 2 1 4 7
 −1 to −5% 5 5 11 21
No Change (0%) 5 4 3 12
Increasing (1% to 26%) 50 16 19 85
 1% to 5% 20 10 13 43
 6% to 10% 21 4 5 30
 11% to 26% 9 2 1 12

4. Discussion

Nationally, the overall provision of pharmacotherapy for opioid use disorder at VHA facilities increased from 38% in FY16 to 41% in FY17 with two-thirds of facilities experiencing an increase over the two-year period. There were wide variations in the number of patients at each facility diagnosed with opioid use disorder, the facility-level provision of pharmacotherapy, and the change in provision of pharmacotherapy. Our results were consistent with prior research that has documented wide variability in receipt of pharmacotherapy for opioid use disorder (Oliva et al., 2012) and that the number of VHA patients diagnosed with opioid use disorder and receive pharmacotherapy has increased over time (Oliva et al., 2013). From a clinical or public health perspective, it is encouraging that two-thirds of facilities in a national healthcare system had an increase in provision of pharmacotherapy for opioid use disorder from FY16 to FY17. Of the 32 facilities that had a decrease in the receipt, 16 were facilities that started from an above average rate of receipt. Out of 12 facilities with no change, only 4 average- and 3 high-performing facilities maintained their FY16 rate of receipt in FY17. These results suggest that it is difficult for facilities to maintain average or high levels of performance, even over a relatively short period of two years.

From an implementation science standpoint, we identified facilities that experienced significant recent change in performance. We found 12 facilities that improved more than 10% and 4 facilities that experienced decreases in performance over 10% in absolute terms. Future investigation into the mechanisms driving changes at these facilities, such as through qualitative interviews with key informants, may provide valuable insights for implementation strategy design. There may be other cut points, such as a 5% or greater absolute change, that would be useful in identifying facilities to target for further investigation.

In addition to using recent change in performance as a criterion for selecting facilities for in-depth examination of barriers and facilitators, recent change might be a useful factor to consider in selecting the target facilities for intervention or to examine as a moderator of change. Within the VA healthcare system, there is no target goal or agreed upon percentage of patients with opioid use disorder who should receive pharmacotherapy for opioid use disorder. However, the VA generally monitors performance measures and targets the lower end of the distribution for quality improvement efforts. We expect that facilities with initial low performance and the most improvement will provide the most valuable information to teams developing interventions for other low performers. For example, in designing an intervention to improve quality measure performance among facilities that currently provide pharmacotherapy to fewer than 10% of their opioid use disorder patients, we would seek to learn from facilities that improved substantially from a similarly low baseline (e.g., 7% to 28%). A facility that improved a similar amount from a higher baseline (e.g., 29% to 54%) might not generalize as well to the target facilities.

Facilities that recently experienced a deterioration in performance may also provide unique information on whether preventive efforts should be enacted at high performing facilities to help maintain high quality care. Additional years of data would be needed to determine if declines in performance are temporary or signal a persistent problem. Depending on the priorities of the healthcare system, there are several temporal ways to examine pharmacotherapy for opioid use disorder, and by extension any quality measure, that could inform stakeholders about the quality of care in their facilities or healthcare systems.

It is also worth noting that change in performance can be driven by changes in a facility’s numerator or denominator. We were primarily interested in learning from initially low performing facilities that increase the number of patients with opioid use disorder who were treated - in other words, numerator expansion. However, some of the facilities with apparently positive changes may have achieved this status by diagnosing fewer patients, also called denominator contraction (Harris, Chen, et al., 2016). The quality measure we selected, pharmacotherapy for opioid use disorder, is a diagnosis based measure and is susceptible to denominator management (Bradley et al., 2013; Harris, Chen, et al., 2016). Providers can improve on this measure by diagnosing fewer patients with opioid use disorder. Although there are proposed solutions to this problem, such as facility population based or epidemiologically-derived denominators (Harris, Rubinsky, & Hoggatt, 2015), it is beyond the scope of this study to examine such alternatives. However, the data presented in the supplemental appendix is necessary to distinguish these very different signals.

4.1. Limitations

The unique contributions of this study are to examine change in pharmacotherapy for opioid use disorder by facility over a two-year period and introduce the concept of monitoring changes in quality measures over multiple years to the implementation science literature. Despite these strengths, there are a few limitations to our study. First, we focused on the absolute percent change from FY16 to FY17, but the relative rate of change or changes in the absolute number of veterans who received pharmacotherapy for opioid use disorder at a given facility could yield different results. For facilities that serve a large number of patients, small increases in percent change can reflect a substantial number of patients who start to receive medications – however, absolute rate of change does not inform us of the increase of the absolute number of patients who start to receive medications. Examining the data in these various ways may be useful for healthcare surveillance purposes. Also, there may have been changes within the VHA system or broader political or social changes that may have influenced facility-level changes. Although there was (and continues to be) increasing emphasis in the U.S. and within the Veterans Health Administration to address opioid use disorder, if this change had an impact on treatment use we would expect receipt of pharmacotherapy for opioid use disorder to improve more uniformly across the health care system. Instead, we observed variation across facilities in both years suggesting that changes were occurring at the local level.

4.2. Conclusions

By examining a quality measure over a two-year period, we found that out of 129 facilities, there were 53 facilities with a 6% or greater positive or negative change in receipt of pharmacotherapy for opioid use disorder from FY16 to FY17. For facilities with average or high performance, it was difficult to maintain their performance over time. These results suggest that using multi-year snapshots of quality measures may be a more effective way to select facilities for in-depth qualitative work. Facilities with initially low performance that improve substantially may yield the most useful information as to mechanisms of change, whereas facilities that experience deterioration may provide unique information for facilities on how to protect high performance rates. In addition, monitoring changes in quality measures over time may have utility for healthcare surveillance purposes.

Acknowledgments

Role of the Funding Source: Research reported in this publication was supported by the National Institute on Drug Abuse of the National Institutes of Health under Award Number R21 DA041489. Dr. Finlay was supported by a Department of Veterans Affairs Health Services Research & Development (VA HSR&D) Career Development Award (CDA 13–279). Dr. Timko was supported by a VA HSR&D Senior Research Career Scientist award (RCS 00–001). Dr. Harris was funded as a VA HSR&D Research Career Scientist (RCS 14–132).

The content is solely the responsibility of the authors and does not necessarily represent the official views of the National Institutes of Health. The views expressed in this article are those of the authors and do not necessarily reflect the position nor policy of the Department of Veterans Affairs (VA) or the United States government. The VA had no role in the study design; in the collection, analysis and interpretation of data; in the writing of the report; or in the decision to submit the paper for publication.

Appendix

Number of Veterans Diagnosed with Opioid Use Disorder, Number who Received Pharmacotherapy for Opioid Use Disorder, and Percent Treated at Veterans Health Administration Facilities in Fiscal Years 2016 to 2017

FY2016 FY2017 Change from
FY2016 to FY2017
Smallest
Quartile
Facilities
Veterans
with
OUD
Received
pharm.
for OUD
Percent
treated
Veterans
with
OUD
Received
pharm.
for OUD
Percent
treated
Absolute Relative
1 39 13 33% 51 8 16% −18% −53%
2 42 3 7% 32 9 28% 21% 294%
3 48 16 33% 65 26 40% 7% 20%
4 58 21 36% 106 21 20% −16% −45%
5 77 27 35% 55 16 29% −6% −17%
6 87 7 8% 110 8 7% −1% −10%
7 97 9 9% 79 25 32% 22% 241%
8 100 5 5% 83 10 12% 7% 141%
9 104 45 43% 99 52 53% 9% 21%
10 107 38 36% 97 34 35% 0% −1%
11 110 36 33% 94 35 37% 5% 14%
12 122 34 28% 133 48 36% 8% 30%
13 124 13 10% 156 42 27% 16% 157%
14 127 83 65% 135 63 47% −19% −29%
15 132 35 27% 126 20 16% −11% −40%
16 133 34 26% 113 19 17% −9% −34%
17 135 51 38% 120 47 39% 1% 4%
18 137 45 33% 124 50 40% 7% 23%
19 141 14 10% 150 17 11% 1% 14%
20 142 36 25% 131 43 33% 7% 29%
21 143 27 19% 187 52 28% 9% 47%
22 146 18 12% 136 37 27% 15% 121%
23 148 64 43% 142 64 45% 2% 4%
24 148 43 29% 155 74 48% 19% 64%
25 149 98 66% 182 112 62% −4% −6%
26 157 48 31% 154 66 43% 12% 40%
27 180 37 21% 245 62 25% 5% 23%
28 184 90 49% 182 104 57% 8% 17%
29 184 45 24% 183 65 36% 11% 45%
30 195 114 58% 207 117 57% −2% −3%
31 198 42 21% 183 55 30% 9% 42%
32 209 72 34% 210 82 39% 5% 13%
FY2016 FY2017 Change from
FY2016 to FY2017
Second
Quartile
Facilities
Veterans
with
OUD
Received
pharm.
for OUD
Percent
treated
Veterans
with
OUD
Received
pharm.
for OUD
Percent
treated
Absolute Relative
33 212 94 44% 208 94 45% 1% 2%
34 215 29 13% 259 36 14% 0% 3%
35 217 30 14% 218 30 14% 0% 0%
36 225 123 55% 245 127 52% −3% −5%
37 227 98 43% 253 110 43% 0% 1%
38 232 8 3% 131 16 12% 9% 254%
39 239 84 35% 263 95 36% 1% 3%
40 241 121 50% 238 125 53% 2% 5%
41 243 9 4% 248 5 2% −2% −46%
42 246 71 29% 269 85 32% 3% 9%
43 251 51 20% 244 69 28% 8% 39%
44 252 72 29% 235 128 54% 26% 91%
45 253 39 15% 283 50 18% 2% 15%
46 256 80 31% 277 97 35% 4% 12%
47 257 103 40% 244 87 36% −4% −11%
48 261 154 59% 269 138 51% −8% −13%
49 262 118 45% 240 117 49% 4% 8%
50 267 116 43% 346 136 39% −4% −10%
51 283 96 34% 297 93 31% −3% −8%
52 285 11 4% 228 5 2% −2% −43%
53 286 81 28% 318 105 33% 5% 17%
54 287 76 26% 314 102 32% 6% 23%
55 288 212 74% 308 233 76% 2% 3%
56 298 113 38% 271 110 41% 3% 7%
57 300 65 22% 261 83 32% 10% 47%
58 306 53 17% 302 83 27% 10% 59%
59 313 62 20% 362 98 27% 7% 37%
60 325 81 25% 317 87 27% 3% 10%
61 350 95 27% 405 107 26% −1% −3%
62 357 140 39% 444 261 59% 20% 50%
63 358 170 47% 310 162 52% 5% 10%
64 377 214 57% 360 253 70% 14% 24%
FY2016 FY2017 Change from
FY2016 to FY2017
Third
Quartile
Facilities
Veterans
with
OUD
Received
pharm.
for OUD
Percent
treated
Veterans
with
OUD
Received
pharm.
for OUD
Percent
treated
Absolute Relative
65 378 114 30% 367 144 39% 9% 30%
66 380 192 51% 399 189 47% −3% −6%
67 392 97 25% 334 82 25% 0% −1%
68 394 99 25% 413 131 32% 7% 26%
69 397 176 44% 380 185 49% 4% 10%
70 398 142 36% 405 142 35% −1% −2%
71 399 199 50% 406 170 42% −8% −16%
72 404 89 22% 431 98 23% 1% 3%
73 404 204 50% 541 329 61% 10% 20%
74 411 116 28% 418 125 30% 2% 6%
75 416 171 41% 416 171 41% 0% 0%
76 416 194 47% 437 203 46% 0% 0%
77 425 76 18% 408 164 40% 22% 125%
78 433 121 28% 438 124 28% 0% 1%
79 433 191 44% 487 197 40% −4% −8%
80 434 138 32% 433 140 32% 1% 2%
81 439 135 31% 520 129 25% −6% −19%
82 445 73 16% 426 88 21% 4% 26%
83 445 269 60% 449 236 53% −8% −13%
84 457 250 55% 520 292 56% 1% 3%
85 461 122 26% 429 132 31% 4% 16%
86 465 205 44% 487 227 47% 3% 6%
87 476 108 23% 483 98 20% −2% −11%
88 481 153 32% 523 169 32% 1% 2%
89 484 243 50% 544 251 46% −4% −8%
90 487 115 24% 491 120 24% 1% 3%
91 491 226 46% 508 251 49% 3% 7%
92 507 156 31% 558 190 34% 3% 11%
93 517 126 24% 502 151 30% 6% 23%
94 518 94 18% 484 93 19% 1% 6%
95 522 96 18% 527 111 21% 3% 15%
96 525 214 41% 649 289 45% 4% 9%
FY2016 FY2017 Change from
FY2016 to FY2017
Largest
Quartile
Facilities
Veterans
with
OUD
Received
pharm.
for OUD
Percent
treated
Veterans
with
OUD
Received
pharm.
for OUD
Percent
treated
Absolute Relative
97 532 238 45% 553 249 45% 0% 1%
98 571 139 24% 627 167 27% 2% 9%
99 598 180 30% 684 245 36% 6% 19%
100 605 180 30% 602 229 38% 8% 28%
101 610 187 31% 635 218 34% 4% 12%
102 613 225 37% 638 255 40% 3% 9%
103 626 187 30% 516 205 40% 10% 33%
104 627 212 34% 597 190 32% −2% −6%
105 630 224 36% 673 301 45% 9% 26%
106 655 157 24% 728 243 33% 9% 39%
107 674 213 32% 643 257 40% 8% 26%
108 677 297 44% 700 316 45% 1% 3%
109 685 462 67% 744 432 58% −9% −14%
110 688 261 38% 656 264 40% 2% 6%
111 701 299 43% 656 294 45% 2% 5%
112 738 309 42% 881 372 42% 0% 1%
113 748 433 58% 798 457 57% −1% −1%
114 749 183 24% 931 226 24% 0% −1%
115 764 336 44% 774 362 47% 3% 6%
116 769 360 47% 711 330 46% 0% −1%
117 829 466 56% 809 510 63% 7% 12%
118 835 430 51% 747 392 52% 1% 2%
119 848 224 26% 868 261 30% 4% 14%
120 853 523 61% 892 515 58% −4% −6%
121 881 527 60% 911 534 59% −1% −2%
122 914 463 51% 913 483 53% 2% 4%
123 938 281 30% 842 304 36% 6% 21%
124 946 559 59% 931 531 57% −2% −3%
125 964 542 56% 921 588 64% 8% 14%
126 1013 370 37% 1001 508 51% 14% 39%
127 1040 660 63% 1159 698 60% −3% −5%
128 1097 487 44% 1114 562 50% 6% 14%
129 1239 378 31% 1218 450 37% 6% 21%

Note. Table was grouped in quartiles based on the facility-level number of veterans who were diagnosed with OUD in FY2016. FY = Fiscal Year. OUD = opioid use disorder.

Footnotes

Declarations of Interest: none.

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