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Volume:3 Issue:12 Number:5 ISSN#:2563-559X
OE Original

Efficacy and Safety of Oral Opioids After Total Hip or Knee Arthroplasty

Authored By: OrthoEvidence

December 30, 2020

How to Cite

OrthoEvidence. Efficacy and Safety of Oral Opioids After Total Hip or Knee Arthroplasty. OE Original. 2020;3(12):5. Available from: https://myorthoevidene.com/Blog/Show/109

Total hip arthroplasty (THA) and total knee arthroplasty (TKA) are some of the most common orthopaedic surgeries, which are expected to be increasing significantly in the future (Singh et al., 2019). Over 450 000 THAs and nearly 800 000 TKAs are performed annually in the United States (US) (Foran, 2020). Postoperative pain, a manifestation of inflammation owing to surgical injury of tissues and/or nerves (Derry et al., 2016), is inevitable. Patients undergoing THA or TKA often reported moderate to severe pain post operation (Petersen et al., 2015; Sayers et al., 2016). This can influence postoperative functional recovery and as a result, prolong hospitalization and increase healthcare costs (Derry et al., 2016; Gan et al., 2017). If not effectively managed, acute postoperative pain may result in a higher risk of chronic pain development and prolonged opioid use as well as opioid-related adverse events (Gan et al., 2017).


Opioids including tramadol, morphine sulfate, oxycodone and other formulas remain the mainstay therapeutic of postoperative pain management (Derry et al., 2016; Gan et al., 2017). Opioids produce analgesic effects by binding to opioid receptors, inhibiting the release of neurotransmitters in the central and peripheral nervous system (Pathan et al., 2012). On the other hand, opioids can induce adverse effects such as nausea, vomiting, dizziness, depression of temperature regulation, and if used in high dose or for longer duration, neuroendocrine dysfunction and dependence can occur (Derry et al., 2016; Pathan et al., 2012).


There has been a trend of opioid overprescribing after surgery (Wunsch et al., 2016; Goesling et al., 2016). A retrospective cohort study of over 236 000 patients after THA or TKA in the US showed that the proportion of patients receiving an opioid prescription within 60 days after surgery increased from 82% in 2014 to 90% in 2017, while the mean score of pain reduction during the same period of time (between post discharge and 60 days after discharge) remained similar across the years, which was always less than 0.5 on a 0-10 pain scale (Shah et al, 2020).


Using opioids for postoperative pain management takes into consideration an acceptable balance between efficacy in pain control and potential harm of adverse effects and dependency. In this OE Original, we conducted a systematic review and meta-analysis outlining the evidence from randomized controlled trials (RCTs) regarding the use of oral opioids among THA or TKA patients.


Methods


We searched for RCTs in which oral opioids were investigated as a treatment or prophylactic of postoperative pain in 3 databases for peer-reviewed studies (i.e., Ovid Medline, Embase, and PsychInfo). We assessed the risk of bias (RoB) and quality of evidence using the Cochrane RoB and the GRADE approach, respectively.


Results


Study Characteristics


We identified 10 eligible RCTs, published between 1983 and 2016. The sample sizes ranged from 37 to 483 patients. Interventions included tramadol in 3 studies (McQuay et al., 2016; Stubhaug et al., 1995; Fu et al., 2010), morphine sulphate in 3 studies (Manoir et al., 2006; Musclow et al., 2012; Reiter et al., 2003), and oxycodone, tapentadol, oxymorphone, buprenorphine and sufentanil in 1 study (Hartrick et al., 2009; Gimbel et al., 2004; O'Sullivan et al., 1983; Jove et al., 2015), respectively. The comparator from all the included studies was placebo.



We present the characteristics of the included RCTs in Table 1 and a summary of their risk of bias in Figure 1.

Table 1. Characteristics of included RCTs (Comparator, placebo)

Author, Year

Country

Sponsor

Patient

Number of patients

Intervention

Fu et al., 2010

China

Not reported

TKA

100

Tramadol 0.1 mg twice a day

Gimbel et al., 2004 *

United States

Endo Pharmaceuticals Inc.

THR and TKR

207

Single dose of oxycodone IR 10 mg; Single dose of oxymorphone IR 30 mg, 20 mg or 10 mg

Hartrick et al., 2009 **

United States

Johnson & Johnson Pharmaceutical, Grünenthal

THR and TKR

483

Single dose of oxycodone Hydrochloride IR; Single dose of tapentadol IR 50 mg

Jove et al., 2015 **

United States

AcelRx Pharmaceuticals Inc.

THR and TKR

419

Sufentanil 15 µg via sublingual tablet system

Manoir et al., 2006

France

Not reported

THA

40

Morphine sulphate IR 20 mg every 4 h for 24 h

McQuay et al., 2016

Ten countries ***

Menarini Group

THA

480

Single dose of tramadol hydrochloride 100 mg

Musclow et al., 2012

Canada

Not reported

THR and TKR

162

Morphine sulfate 30 mg twice daily for 3 days

O'Sullivan et al., 1983

United Kingdom

Reckitt and Colman Pharmaceutical

THR

37

Sublingual buprenorphine 0.4 mg

Reiter et al., 2003

Austria

Not reported

THR

98

Single dose of morphine sulfate 20 mg before the operation

Stubhaug et al., 1995

Norway

Grünenthal

THR

103

Single dose of tramadol 100 mg

Note: IR=immediate release; THA=total hip arthroplasty; TKA=total knee arthroplasty; THR=total hip replacement; TKR=total knee replacement.

* The pain outcome in this study was not able to be pooled in the meta-analysis because the dispersion of pain score was neither reported nor could be imputed from other studies using the same measure.

** Only two-day total pain relief (TOTPAR) was reported in this study. TOTPAR was calculated as the total score of pain relief (time elapsed since the previous observation), with the sum including all observations of pain relief collected from the observational period.

*** Thirty-seven study sites in 10 countries (Czech Republic, Germany, Hungary, Latvia, Lithuania, Poland, Serbia, Spain, Taiwan, and Ukraine).



Meta-analysis


We meta-analyzed outcomes of postoperative pain and treatment-related adverse events at the longest follow-up durations.


  1. Postoperative pain: oral opioids versus placebo

      1.1 Pain on 0-100 visual analogue scale (VAS)


Of the 7 RCTs comprising 826 patients that reported pain on a 0 to 100 VAS (a higher score indicates worse pain), tramadol was used in 3 studies, morphine sulphate was used in 3 studies and buprenorphine was used in 1 study as the active intervention drug, to be compared with identical matching placebos. Oral opioids showed an overall efficacy of greater operative pain reduction compared to placebo with a weighted mean difference (MD) of 5.5 points less pain (95% CI, 2.16 points less to 8.84 points less pain, P=0.001, moderate quality of evidence) up to 3 days after THA or TKA (Figure 2). The MD did not reach the recommended minimally important difference (MID) of 10 mm on a 100 VAS when reporting treatment effects regarding pain (Busse et al., 2015).


If we look at the subgroup analysis by specific type of opioids, effects of pain reduction maintained for tramadol and buprenorphine while morphine did not show a significant effect (MD, 5.66 points less pain, 95% CI, 14.48 points less to 3.17 points more pain, P=0.21, low quality of evidence) compared to placebo (Figure 2).


     1.2  Pain on total pain relief (TOTPAR) scale


We also meta-analyzed the pain outcome of the two-day total pain relief (TOTPAR, no range, a higher score indicates a better outcome) reported by two studies (Hatrick et al., 2009; Jove et al., 2015) that compared opioids to placebo. TOTPAR was calculated as the total score of pain relief measured at 15, 30, 45, and 60 minutes, and then every 1 hour until 12 hours, as well as every 2 hours until 48 hours after therapy. Opioids showed greater pain relief compared to placebo with a weighted MD of 33.15 points more pain relief (95% CI, 26.52 points more to 39.78 points more pain relief, P < 0.001, high quality of evidence) up to 2 days after THA or TKA (Figure 3).



     1.3  Pain evaluated by the sum of pain intensity (SPID)


The pain outcome in one study (Gimbel et al., 2004) was not able to be pooled in the meta-analysis because the dispersion of pain score was neither reported nor could be imputed from other eligible studies using the same measure. This 5-arm study showed that among patients undergoing THA or TKA, a single dose of oxymorphone at 30 mg, 20 mg or 10 mg significantly reduced postoperative pain up to 8 hours compared to placebo (P < 0.05). Greater pain reduction was observed for a single dose of 10 mg oxycodone compared to placebo but the difference was not statistically significant. Risk of bias was low.


  1. Treatment-related adverse events (AEs): oral opioids versus placebo

      2.1 Overall AEs


Patients who received opioids had a higher risk of experiencing AEs (427/908=47.0%) compared to those received placebo (116/537=21.6%) with a risk ratio (RR) of 1.64 (95% CI, 1.24 to 2.16, P < 0.001, moderate quality of evidence) (Figure 4).


In the result of subgroup analysis by type of opioids, tramadol did not show a statistically significant difference in AEs compared to placebo (RR 1.19; 95% CI, 0.76 to 1.87, P=0.45, moderate quality of evidence). Other types of opioids (oxycodone, tapentadol,buprenorphine and sufentanil) showed a higher risk of AEs compared to placebo. In one study, patients received a single dose of 20 mg morphine sulfate and were followed for 24 hours after the treatment, and reported no adverse events from either morphine or placebo groups (Figure 4).


     3.2 Specific AEs


Data for 6 specific AEs were available for meta-analysis (Table 2). There was a higher risk of nausea, dizziness and pruritus with oral opioids over placebo up to 3 days’ follow-up. We did not find statistically significant differences between opioids and placebo with respect to the proportion of patients experiencing vomiting, headache and drowsiness.


Table 2. Specific adverse events reported by the included RCTs (opioids versus placebo)

Adverse events

Event rates with opioid

Event rates with placebo

Relative effect (95% CI)

Absolute effect

Quality of evidence

Risk with placebo

Risk difference with opioid

Nausea

239/801 (29.8%)

55/429 (12.8%)

RR 2.19

(1.22 to 3.92)

128 per 1,000

153 more per 1,000 (from 28 more to 374 more)

Moderate

Vomiting

140/838 (16.7%)

47/466 (10.1%)

RR 1.70

(0.87 to 3.32)

101 per 1,000

71 more per 1,000

(from 13 fewer to 234 more)

Low

Dizziness

102/768 (13.3%)

22/396 (5.6%)

RR 2.65

(1.10 to 6.43)

56 per 1,000

92 more per 1,000

(from 6 more to 302 more)

Moderate

Headache

28/644 (4.3%)

16/273 (5.9%)

RR 0.75

(0.41 to 1.37)

59 per 1,000

15 fewer per 1,000

(from 35 fewer to 22 more)

Moderate

Drowsiness

28/105 (26.7%)

23/104 (22.1%)

RR 1.20

(0.75 to 1.93)

221 per 1,000

44 more per 1,000

(from 55 fewer to 206 more)

Moderate

Pruritus

61/733 (8.3%)

13/362 (3.6%)

RR 3.36

(1.00 to 11.22)

36 per 1,000

85 more per 1,000

(from 0 fewer to 367 more)

Low


Note: RR=risk ratio; CI=confidence interval.


Discussion


In our systematic review and meta-analysis, moderate to high quality of evidence showed the efficacy of oral opioids on postoperative pain management among patients after THA or TKA at short-term follow-up. The most investigated formulas were 100 mg of tramadol given either as a single dose or twice a day before discharge, and morphine sulfate 20 mg to 30 mg per dose for not more than 3 days. The effect size of any opioid did not surpass the recommended MID of 10 points on a 0 to 100 pain scale. A higher risk of nausea, dizziness and pruritus is associated with oral opioids compared to placebo.


It is crucial to treat acute postoperative pain, in order to reduce the risk of developing chronic pain, poorer function and recovery, and increased healthcare costs (Gan, 2017; Petersen et al., 2015). In many settings, conventional opioids are considered to be a standard treatment regimen for acute postoperative pain. Oral analgesics are easy to use. No serious AEs were reported with the short-term use of oral opioids in our included studies. Specifically, tramadol showed a statistically but not clinically significant effect on acute postoperative pain control and did not increase the risk of overall AEs.


The implications of opioid use for different durations is an area that remains largely unexplored. However, it is an area that does require further research as there is evidence indicating that opioids are commonly prescribed to patients after THA and TKA up to 2 months after discharge (Shah et al., 2020). When it comes to opioids following surgery, the most critical concern that surgeons are facing at the moment is opioid dependence. There is a lack of data from RCTs regarding dependency, but this has been examined in some non-randomized studies. One study reported that 41% of opioid-naive patients requested at least one refill of opioids after THA and TKA, and 12% of patients requested more than two refills (Dwyer et al., 2018). More research evaluating the impact of opioids on dependency following joint arthroplasty is critically needed, including studies examining how different prescription protocols may influence long-term opioid use.


We did not restrict our literature search for length of follow-up and the available studies only provide data that could be meta-analyzed for up to 3 days. The number of eligible studies was also small. Reasons for post charge prescription of opioids, as well as their effectiveness and harm from use are yet to be investigated. Large, well-conducted trials are needed to address these important questions.


Bottom line


Evidence from the observational study shows that opioids are commonly prescribed to patients after THA and TKA for postoperative pain management up to 2 months post charge (Shah et al., 2017). There is a lack of high-level evidence of efficacy and safety of oral opioids for longer than 3 days among this group of patients. More studies with longer follow-up are needed to provide evidence for the best selection of duration and dose of opioids with an optimal balance between pain management and tolerability, while also taking into account the potential for dependence.




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