J Dent Anesth Pain Med. 2021 Feb;21(1):1-14. English.
Published online Jan 29, 2021.
Copyright © 2021 Journal of Dental Anesthesia and Pain Medicine
Review

Pre-emptive analgesic efficacy of injected ketorolac in comparison to other agents for third molar surgical removal: a systematic review

Sunnypriyatham Tirupathi,1 Srinitya Rajasekhar,2 Sardhar Singh Maloth,3 Aishwarya Arya,4 Pushpalatha Tummalakomma,4 and Rama Brahman Lanke5
    • 1Department of Pedodontics & Preventive Dentistry, Malla Reddy Institute of Dental Sciences, Hyderabad, Telangana, India.
    • 2Department of Pedodontics & Preventive Dentistry, Malla Reddy Dental College for Women, Hyderabad, Telangana, India.
    • 3Department of Periodontics, Mamata Dental College, Khammam, Telangana, India.
    • 4Department of Periododntics, Malla Reddy Institute of Dental Sciences, Hyderabad, Telangana, India.
    • 5Familia Dental LLC, Texas, USA.
Received August 21, 2020; Revised December 04, 2020; Accepted January 13, 2021.

This is an Open Access article distributed under the terms of the Creative Commons Attribution Non-Commercial License (http://creativecommons.org/licenses/by-nc/4.0/) which permits unrestricted non-commercial use, distribution, and reproduction in any medium, provided the original work is properly cited.

Abstract

This study aimed to evaluate and compare the pre-emptive analgesic efficacy of injected ketorolac to that of other agents for impacted third molar surgical removal in a healthy population.

PubMed, Ovid SP, Cochrane databases were filtered from 1980 to July 2020 for potential papers using relevant MeSH terms and pre-specified inclusion and exclusion criteria independently by reviewers. Studies that compared pre-emptive intramuscular or intravenous administration of ketorolac to other agents were evaluated. The outcomes sought were self-reported postoperative pain (patient-perceived pain), median duration for rescue analgesic medication, total number of analgesics consumed in the recovery period, and global assessment (overall patient satisfaction) after the recovery period.

Six studies were included in the final evaluation. The outcome of pain perception and the number of analgesics taken were significantly lower in the ketorolac group (intramuscular or intravenous) in most of the studies (n=5) than in the group of other drugs. The mean time for rescue analgesia intake was higher for the ketorolac group, and global assessment scores were also better in the ketorolac group.

Although the included studies show significantly better outcomes such as postoperative pain, median time taken for rescue medication, total number of analgesics taken, and overall patient satisfaction with injected ketorolac group in comparison to injected diclofenac, dexamethasone, and tramadol, definitive conclusions cannot be made regarding the superiority of injected Ketorolac as a pre-emptive agent. A greater number of randomized control trials with a proper protocol are needed to make definitive conclusions.

Keywords
Analgesics; Ketorolac; Pain; Parenteral; Pre-emptive; Third molar

INTRODUCTION

Preemptive analgesia involves the delivery of an analgesic agent prior to the start of the surgical procedure. It is thought that by initiating analgesic interventions before the surgical procedure, intraoperative and postoperative nociception can be mitigated to the central nervous system and provide superior benefits in comparison to the same analgesic if given postoperatively [1, 2]. Surgical procedures can lead to a process called sensitization, which can lead to allodynia and hyperalgesia, which can result in increased pain postoperatively and also pain that will not respond to analgesics. Any surgical procedure can lead to localized tissue damage resulting in the release of inflammatory mediators, which can directly result in peripheral sensitization (increased excitability of dorsal horn neurons, nociception due to Aδ fibers and C fibers), which in turn can lead to central sensitization. Central sensitization can lead to allodynia and hyperalgesia as signals transmitted via Aβ fibers are perceived as pain. It is hypothesized that pre-emptive administration of analgesics can reduce central and peripheral sensitization, which in turn reduces postoperative pain [2].

Evidence regarding the efficacy of pre-emptive analgesia administration is still weak in the field of medicine and dentistry, and the concept of pre-emptive analgesia administration is still a subject of debate, with few individual systematic reviews reporting positive benefits [3, 4] and other few contradicting the same [5].

Third molar removal is one of the most common surgical procedures in dentistry, which can cause varying degrees of postoperative pain, swelling, and trismus. Evaluating the best analgesic, best dose, and best timing of analgesic for reducing postoperative morbidity in third molar surgeries can be valuable for improving postoperative care. Many randomized trials evaluated the pre-emptive analgesic efficacy of various drugs for third molar surgical removal with different results.

In 2020, a systematic review and meta-analysis by Filho et al. reported that after pre-emptive oral administration, most non-steroidal anti-inflammatory drugs (NSAIDs) showed good results for reduction of the inflammatory response, and the average pain scores and consumption of rescue medication were also reduced [6]. However, an older systematic review by Costa et al. (2015) reported that pre-emptive oral administration of non-steroidal anti-inflammatory drugs (NSAIDs) did not exhibit any significant effect in reducing postoperative pain after removal of lower impacted third molars [7]. A similar systematic review and meta-analysis by Falci et al. (2017) reported that oral administration of dexamethasone is beneficial when administered preemptively, but its superiority over NSAIDs could not be stated clearly [8].

Third molar extraction: Pre-emptive analgesic action of different drugs used to evaluate parameters related to third molar surgical extraction [9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19, 20, 21, 22, 23, 24, 25, 26, 27, 28, 29, 30, 31, 32, 33, 34, 35, 36, 37, 38, 39, 40, 41, 42, 43, 44, 45, 46, 47, 48, 49]. Different classes of drugs are administered through various routes as pre-emptive analgesic agents before the removal of third molars across various studies (Tables 1 & 2). The injection route of drug administration is better than the oral route of administration as peak plasma concentration is reached in lesser duration, and food does not affect the absorption of the drug. To date, no systematic review has evaluated injected pre-emptive analgesia for third molar removal. The present systematic review aimed to evaluate and compare pre-emptive injected ketorolac in comparison to other agents for surgical removal of the third molar.

Table 1
Different groups of drugs used as pre-emptive analgesic agents

Table 2
Different routes of drugs used as pre-emptive analgesic agents

METHODS

This study was registered in the Prospero database [CRD42020205125] and followed PRISMA guidelines for reporting.

Eligibility criteria: The search strategy was performed with the PICO framework: Population, Intervention, Comparison, and Outcome, based on the following question. “Efficacy of parenterally (Intravenously or Intramuscularly) administered Ketorolac over other agents as a pre-emptive analgesic agent for third molar surgery on postoperative pain reduction.” The Population Intervention Comparison Outcome (PICO) search strategy of the systematic review was: [P] patients: adult subjects requiring third molar surgery; [I] intervention: ketorolac administered parentally (intramuscular or intravenous) as a pre-emptive agent before surgery; [C] comparison: placebo or any other active agent administered parenterally as pre-emptive agents before surgery. [O] outcome of interest: postoperative pain after third molar surgery.

Information sources: An electronic search was performed in three databases: PubMed, Ovid SP, and Cochrane. The search was conducted from the publication years 1980 to 2020. The last search was performed on July 30, 2020. Only articles published in English were included. The search was based on a pre-specified question using relevant MeSH terms. A broad search was made using a combination of MeSH terms “Ketorolac” AND “Molar.”

Eligibility criteria: Randomized clinical trials comparing the efficacy of postoperative pain reduction after pre-emptive parenteral administration of ketorolac to that of parenteral administration of placebo or other agents after third molar surgery were included. Animal studies, pre-clinical trials, non-clinical trials, comparative studies, technical notes, case reports, narrative reviews, and systematic reviews and articles that were not published in English were excluded. Studies where ketorolac or other drugs were administered orally, transdermally, intra-operatively, or postoperatively are excluded. Studies in which Ketorolac or other drugs were administered sub-mucosally or as infiltration into the local site were also excluded since they are considered as local routes of drug delivery. Initially, studies retrieved after comprehensive MeSH terms search were imported to Zotero (www.zotero.org) from all the databases, and the exclusion of duplicates was performed, followed by a screening of titles and abstracts. Relevant articles were then included for a complete text review.

Two independent reviewers analyzed and recorded the data. The data form contained information regarding author names and year of publication, study design, intervention, control, and outcomes. The only outcome measure evaluated was intraoperative pain after third molar surgery.

Data synthesis: A qualitative analysis of the selected studies was carried out. Randomized clinical trials comparing the efficacy of the parenteral administration of ketorolac to that of the parenteral administration of placebo or other agents were included and evaluated for postoperative pain outcomes. A quantitative data analysis was not carried out as a limited number of studies are available.

Risk of bias (RoB) assessment: The methodological quality assessment of the included articles was conducted independently by two review team members using the Cochrane Collaboration's criteria. The risk of bias was evaluated for all seven parameters: random sequence generation, allocation concealment, blinding of participants and personnel and outcome assessment, completeness of outcome data, selective reporting of outcomes, and other sources of bias.

RESULTS

In all the databases, 318 records were found, of which six were duplicates. After removing duplicate articles, 312 records were screened by title and abstract. The full text of the 11 potentially relevant papers was evaluated, among which 5 were excluded [50, 51, 52, 53, 54]. The reasons for exclusion are presented in Table 3. Finally, six studies were included in this final systematic review [18, 30, 32, 33, 55, 56]. A flowchart of the search results is presented in Figure 1.

Fig. 1
Flow chart of the search results is presented.

Characteristics of the included studies: The details of the included studies are presented in Table 4. All six studies included were published between 2016 and 1998. Risk of bias: Risk of bias (Fig. 2) was evaluated according to the Cochrane guidelines. Randomization and allocation concealment (sealed envelope) was mentioned in five studies [18, 32, 33, 55, 56]. Blinding of both operator and patient was performed in four studies [18, 33, 55, 56]. Outcome assessment was performed in all the six included studies [18, 30, 32, 33, 55, 56]. Attrition bias was reported in two studies [33, 56]. Bias due to selective reporting was not observed in any of the six studies included. Among the six studies included, bilateral extractions (split-mouth design) were performed in three studies [18, 30, 55], and unilateral third molar extraction in three studies [32, 33, 56]. In the cases of bilateral extractions, the lag period between two appointments was between and 3–4 weeks [18, 30]. The lag period was not mentioned in the study by Claseman et al. (1998) [55]. In all six studies, asymptomatic impacted third molars were included for surgery [18, 30, 32, 33, 55, 56]. Extraction was performed only under local anesthesia in only three studies [18, 30, 32], and local anesthesia and IV sedation in the remaining three studies [33, 55, 56].

Fig. 2
Risk of bias was evaluated according to the Cochrane guidelines.

Age group: The ages of the subjects in the included studies ranged from 16 to 35 years.

The study drug: A 30-mg dose of ketorolac was the study medication in all the studies, intra-muscular administration was performed in studies by Shah et al. (2013) [30] and Mony et al. (2016) [18]. Intravenous administration was performed in the studies by Claseman et al. (1998) [55], Gutta (2013) [33], Gopalraju (2014) [32], Ong and Tan (2004) [56]. Control drug: Intra-muscular (IM) diclofenac 75 mg in the study by Mony et al. (2016) [18], intravenous tramadol 50 mg in the study by Gopalraju et al. (2014) [32], Ong and Tan (2004) [56], tramadol 50 mg in the study by Shah et al. (2013) [30], IV 8 mg dexamethasone in the study by Claseman et al. (1998) [55], and saline as placebo in the studies by Gutta et al. (2013) [33].

Pre-operative duration before drug administration: The duration before which drugs were administered as pre-emptive agents parenterally varied from 5 to 30 minutes before surgery. Five min in the study by Gutta et al. (2013) [33], 10 min in the study by Gopalraju et al. (2014) [32], 20 min Shah et al. (2013) [30], 30 minutes in the study by Mony et al. (2016) [18], and duration not mentioned in the studies by Claseman et al. (1998) [55], Ong and Tan (2004) [56].

Recovery period duration evaluated: Recovery period durations evaluated ranged from 3 days to 5 days postoperatively in five studies [18, 30, 32, 33, 56]. In the study by Claseman et al. (1998), participants were only evaluated for 1 d postoperatively [55].

Postoperative pain: Self-reported postoperative pain was measured in studies using different scales; the visual analogue scale (VAS) was filled by the patient at 12 hours postoperatively in the study by Mony et al. (2016) [18], Gopalraju et al. (2014) [32], Ong and Tan (2004) [56]. VAS score at 8 hours postoperatively was evaluated in the study by Gutta et al. (2013) [33], and the pain intensity score (10-point scale) at 12 hours postoperatively was measured in the study by Shah et al. (2013) [30]. Pain intensity was assessed using the heft-parker graphic pain rating in the study by Claseman et al. (1998) [55].

Type of oral rescue medication taken: Ibuprofen 400 mg in the study by Mony et al., [18]. A combination of diclofenac potassium 50 mg + paracetamol 500 mg + serratiopeptidase 10 mg was the rescue analgesic used in the study by Shah et al. (2012) [30]. The study by Gutta et al. (2013) used a narcotic analgesic as rescue medication but did not specify the exact medication [33]. Acetaminophen 500 mg was the rescue analgesic used in the study by Goplaraju et al. (2013) [32].

DISCUSSION

Reducing postoperative morbidities such as pain, discomfort, trismus, and inflammation after third molar surgery is a highly investigated topic in oral and maxillofacial surgery. The main objective of our systematic review was to investigate the efficacy of intravenously-administered pre-emptive ketorolac in comparison with other agents. The outcome of interest evaluated were parameters related to postoperative pain such as the subjective sensation of pain, first rescue medication taken, total dosage of rescue medication taken, and overall satisfaction.

Postoperative pain: IM Ketorolac versus IM Diclofenac sodium: In the study by Mony et al. (2016) [18], which compared pre-emptive IM Ketorolac versus IM Diclofenac sodium, at 11 hours, patients reported pain scores were significantly lower with pre-emptive IM ketorolac than IM diclofenac sodium [18]. IM Ketorolac versus IM Tramadol: In the study by Shah et al. (2013) [30], patients treated with IM ketorolac reported significant pain relief at postoperative 8 hours, with significantly lower pain scores than when treated with IM tramadol. However, at hour 12, the difference was not statistically significant [30] IV Ketorolac versus IV Tramadol. In the study by Gopalraju et al. (2014) [32], the mean pain intensity was higher in the IV Tramadol group over a 12 h period (54.6) than in the IV ketorolac group (32.9). The difference was statistically significant (P = 0.003) [32]. In the study by Ong and Tan (2004) [56], patients experienced significantly less pain throughout the 12-h investigation period when they received IV ketorolac than when they received IV tramadol. IV Ketorolac versus IV Placebo: In the study by Gutta et al. (2013) [33], the IV Ketorolac group recorded lower VAS scores at all times, but only the score at the fourth hour was significantly lower than those in the IV placebo group [33].

First rescue medication taken: The median time taken for rescue medication was counted for both the study and control/placebo group. IM Ketorolac versus IM Diclofenac sodium: In the study by Mony et al. (2016) [18], the maximum time taken for pain perception for patients in the IM Ketorolac group was 5.48 hours and for those in the IM diclofenac sodium group was 4.98 hours. The p-value was 0.235, which was not significant [18]. IM Ketorolac versus IM Tramadol: In the study by Shah et al. (2013) [30], the mean time for rescue analgesia was 8.86 ± 0.91 hours for the ketorolac group, compared to 7.43 ± 1.15 hours for the tramadol group (P < 0.001). IM Ketorolac versus placebo: In the study by Shah et al. (2013) [30], the mean time for the rescue analgesic was 8.86 ± 0.91 hours for the ketorolac group as against 2.42 ± 1.70 hours for the placebo group (P < 0.001). IV Ketorolac versus IV Placebo: In the study by Gutta et al. (2013) [33], the median time taken for the first rescue medication in the study group was 9.5 hours and in the control group was 7 hours. This might be due to variations in the study, such as pre-operative 8mg IV dexamethasone. IV Ketorolac versus IV Tramadol: In the study by Gopalraju et al. (2014) [32], the median time for re-medication in IV Tramadol and IV Ketorolac was 7 and 10 h, respectively, P = 0.004. In the study by Ong and Tan (2004) [56], the ketorolac group reported a longer time to rescue analgesia (median 9.0 h) than the tramadol group (median 7.0 h) (P = 0.007).

Total dosage of rescue medication taken: The total dosage of rescue medication was determined for both the study and control/placebo group. IM Ketorolac versus IM Diclofenac sodium: In the study by Mony et al. (2016) [18], the mean number of rescue medications (ibuprofen 400 mg) taken by the patients in the three postoperative days was 3.24 in Ketorolac group and 4.04 in the diclofenac group, P = 0.004 [18]. IM Ketorolac versus IM Tramadol: In the study by Shah et al. (2013) [30], Ketorolac proved more efficient than tramadol with patients in the ketorolac group consuming fewer rescue analgesics (diclofenac potassium 50 mg/paracetamol 500 mg/serratiopeptidase 10 mg) than when treated with tramadol (P < 0.001). IM Ketorolac versus placebo: In the study by Shah et al. (2013) [30], Ketorolac proved more efficient than placebo for patients in the ketorolac group consuming fewer rescue analgesics (7.36 ± 1.7) than those treated with placebo (10.76 ± 3.03) (P < 0.001). IV Ketorolac versus IV Placebo: In the study by Gutta et al. (2013) [33], no statistically significant differences in the total number of pills taken (narcotic analgesic) were found between the control and study groups. This might be due to variations in the study, such as pre-operative 8mg IV dexamethasone. IV Ketorolac versus IV Tramadol: In the study by Gopalraju et al. (2014) [32], the mean number of analgesics (acetaminophen 500 mg) used in tramadol and ketorolac was 10.2 ± 1.76 and 6.8 ± 1.67, respectively (P < 0.05) [32]. In the study by Ong and Tan (2004), the total postoperative analgesic consumption (acetaminophen 1,000 mg) for the ketorolac group (median = 4, range 0–12) was also significantly less than that in the tramadol group (median = 6, range 0–16) (P = 0.02) [56].

Patients' overall satisfaction—Global assessment: Patients' overall satisfaction after surgery (global assessment) was evaluated for both the study and control/placebo group. In the study by Mony et al. (2016) [18], global assessment was not evaluated [18]. IM Ketorolac versus IM Tramadol: In the study by Shah et al. (2013), Ketorolac had significantly better global assessment scores than tramadol and placebo [P < 0.001]. IM Ketorolac versus placebo: In the study by Shah et al. (2013) [30], Ketorolac has better global assessment scores than placebo [P < 0.001]. IV Ketorolac versus IV Placebo: In the study by Gutta et al. (2013) [33], there were no significant differences in the global assessment between patients. This might be due to variations in the study, such as pre-operative 8mg IV dexamethasone. IV Ketorolac versus IV Tramadol: In the study by Gopalraju et al. (2014) [32], the overall global assessment of the ketorolac group showed better postoperative sequelae and comfort than that of the tramadol group [32]. In the study by Ong and Tan (2004), Patient's overall assessment of the surgery in relation to pain, the distribution of scores shows that more patients in the ketorolac group (43.3%) scored the surgery as excellent in relation to minimum pain after the surgery as compared with patients in the tramadol group (23.3%) (P = 0.01) [56].

Limitations of this review: Owing to the diversity in the included studies and fewer studies available, meta-analysis was not performed.

  • 1. Methodological differences exist in few included studies; for example, the study by Gutta et al. (2013) [33], reported that pre-emptive IV Ketorolac is compared to placebo (saline), but the confounding variable here is in both the IV Ketorolac and IV saline group, 8 mg dexamethasone is administered pre-emptively, which might be the reason for the lack of significant differences between ketorolac and placebo (saline) groups in terms of parameters such as postoperative pain, median time for rescue medication, number of medications taken, and other factors.

  • 2. The duration of follow-up for pain intensity measurement also varied across studies; 12 hours postoperatively, Mony et al. (2016) [18], Gopalraju et al. (2014) [32], Ong and Tan (2004) [56], and 8 hours postoperatively was evaluated in the study by Gutta et al. (2013) [33].

  • 3. The other drawbacks in studies are timings of administration of drugs pre-emptively; for example, in the studies by Mony et al. (2016) [18] and shah et al. (2013) [30], intramuscular administration of ketorolac was performed 30 and 20 minutes preoperatively, peak plasma availability of ketorolac for intramuscular administration usually takes 45 minutes [57], so by the time of first incision and reflection of the flap, peak plasma concentration of the drug would not have been attained. In our opinion, by the time of the first incision ensuring peak plasma concentration is ideal.

  • 4. Self reported pain score scales also varied across studies: VAS was used in most of the studies (Mony et al. (2016) [18], Gopalraju et al. (2014) [32], Ong and Tan (2004) [56], Gutta et al. (2013) [33]), and heft-parker graphic pain rating in the study by Claseman et al. (1998) [55]. A Numerical 10-point pain intensity score was used in the study by Shah et al. (2013) [30].

  • 5. The type and dosage of rescue analgesic medication used also varied across studies: ibuprofen 400 mg [18], combination of diclofenac potassium 50 mg + paracetamol 500 mg + serratiopeptidase [30], acetaminophen 500–1000 mg [32, 56], and narcotic analgesics [33] were used across the studies.

Conclusions

Although the included studies show significantly better outcomes such as postoperative pain, median time taken for rescue medication, total number of analgesics taken, and overall patient satisfaction with injected ketorolac group in comparison to injected diclofenac, dexamethasone, and tramadol, definitive conclusions cannot be made regarding the superiority of injected Ketorolac as a pre-emptive agent. A greater number of randomized control trials with a proper protocol are needed to make definitive conclusions.

Notes

FUNDING:There is no financial support or sponsorship to declare.

DECLARATION OF INTEREST:There are no conflicts of interest to declare.

AUTHOR CONTRIBUTIONS:

  • Sunnypriyatham Tirupathi: Conceptualization, Data curation, Formal analysis, Investigation, Methodology, Resources, Software, Supervision, Validation, Visualization, Writing — original draft, Writing — review & editing

  • Srinitya Rajasekhar: Writing — review & editing

  • Sardhar Singh Maloth: Writing — review & editing

  • Aishwarya Arya: Writing — review & editing

  • Pushpalatha Tummalakomma: Writing — review & editing

  • Rama Brahman Lanke: Writing — review & editing

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