CC BY-NC-ND 4.0 · Rev Bras Ortop (Sao Paulo) 2022; 57(05): 856-862
DOI: 10.1055/s-0040-1719087
Artigo Original
Ombro e Cotovelo

Nociceptive Profile and Analgesic use of Patients Submitted to Rotator Cuff Repair Surgery: A Prospective Cohort[*]

Article in several languages: português | English
1   Programa de Pós-Graduação em Saúde e Desenvolvimento Humano, Universidade La Salle, Canoas, RS, Brasil
2   Hospital Independência, Divina Providência, Porto Alegre, RS, Brasil
,
2   Hospital Independência, Divina Providência, Porto Alegre, RS, Brasil
3   Programa de Pós-Graduação em Ciências Médicas, Universidade Federal do Rio Grande do Sul, Porto Alegre, RS, Brasil
,
1   Programa de Pós-Graduação em Saúde e Desenvolvimento Humano, Universidade La Salle, Canoas, RS, Brasil
,
1   Programa de Pós-Graduação em Saúde e Desenvolvimento Humano, Universidade La Salle, Canoas, RS, Brasil
,
Mariane Schäffer Castro
1   Programa de Pós-Graduação em Saúde e Desenvolvimento Humano, Universidade La Salle, Canoas, RS, Brasil
,
1   Programa de Pós-Graduação em Saúde e Desenvolvimento Humano, Universidade La Salle, Canoas, RS, Brasil
3   Programa de Pós-Graduação em Ciências Médicas, Universidade Federal do Rio Grande do Sul, Porto Alegre, RS, Brasil
› Author Affiliations
 

Abstract

Objective This study aimed to evaluate the nociceptive profile and the intake of analgesic drugs of patients submitted to rotator cuff repair surgery. Also, to evaluate the nociceptive thresholds and the integrity of the descending inhibitory system, pain catastrophism and prevalence of nociceptive or neuropathic pain.

Methods Approved by the Ethics Committee of La Salle University (1.325.433/2015). 40 patients (>18 years old) who underwent rotator cuff repair surgery (divided in small and large injuries) were recruited. The used instruments were: Sociodemographic Questionnaire, Functional Pain Scale, Visual Analogue Scale (VAS), Quantitative Sensory Test (QST) and Conditioned Pain Modulation Task (CPM).

Results Patients had a significant difference in pain thresholds QST heat (independent samples t test) and quality of sleep, mood and anxiety (paired t test) in groups preoperative. There was a significant correlation between preoperative CPM and postoperative VAS (Pearson Correlation). It was observed that, in preoperative, 38 patients used analgesics continuously. Besides that, in postoperative, use of opioid drugs was higher in patients with small injury (13 patients) than in those with large injury (9 patients).

Conclusion Therefore, patients with rotator cuff injuries did not present alterations in the descending inhibitory system, but showed alterations in pain thresholds, which may interfere in the postoperative period and still be related to the consumption of analgesics.


#

Introduction

According to the International Association for the Study of Pain (IASP), pain is “an unpleasant sensory and emotional experience associated with actual or potential tissue damage, or described in terms of such damage”.[1] [2] IASP also defined chronic pain as that which lasts for more than 3 months, characterized by persistent physical pain, disability, emotional disturbance, and social withdrawal symptoms, exist- ing together and influencing one another.[3] Neuropathic pain is usually caused by a lesion or a disease of the somatosensory nervous system.[4]

At hospitals, the most prevalent acute pain is postoperative pain, usually associated with tissue damage prevailing after long surgeries, such as toracic, abdominal, renal and orthopedics.[5] Incidence, intensity and locus depends on several factors, such as anxiety, fear, depression, genetic and environmental factors that influence pain sensibility.[6] After a surgical procedure, prolonged noxious stimuli usually cause suffering, body damage and postoperative complications.[7]

Postoperative pain intensity and the need for large amounts of analgesics in the first days after surgery are predictors for chronic pain.[8] A systematic review evidenced that persistent postsurgical pain (PPSP) is experienced by 10% to 50% of patients, can be serious in about 5% to 10% of individuals. Due to this condition, 20% of patients seek care in a pain clinic.[9]

Rotator cuff injuries are the most frequent cause of shoulder pain.[10] Complete rotator cuff rupture is related to young individuals due to traumatic situation, while in elderly patients it has as etiology a tendon fragility, with repetitive microtraumas related to acromial anatomy and poor tendon vascularization.[11] Such injuries are more common the supraspinatus tendon injury, which has an insertion in the greater tuber of the humerus. Supraspinatus injury can be divided into partial or complete.[12] Partial rotator cuff injuries has an incidence of 13% to 37% of world population.[13] However, rotator cuff surgical repair, either open or arthroscopic, is the best conduct in case of persistent pain and evolutive muscle weakness.[14] Peripheral nerve block may provide adequate analgesia in immediate postoperative until 20 hours.[15]

The most used therapy for analgesia are non steroidal anti inflammatory drugs (NSAIDs) and high doses of opioids, administered orally or intravenously used for a short time. Analgesics mechanism of action is based on prostaglandin synthesis inhibition, responsible for mild and moderate pain, local vasodilation and increase of vascular permeability.[16] Opioids are potent analgesics with recommendation for moderate or intense pain treatment. NSAIDs are used as single agents or associated to opioids, it does not cause respiratory depression, reduces the opioid necessary amount and consequently the incidence of adverse effects.[17]

Since there are no previous studies evidencing the difference between small and large injury pain levels in chronic pain patients that underwent to rotator cuff repair surgery, this evaluation is needed. Therefore, this study aimed to compare the nociceptive profile and analgesic use between patients with small and large injuries with chronic pain submitted to rotator cuff repair surgery.


#

Material and Methods

Reports are according to STROBE guidelines. Approval of this study was made by the Ethics Committee (1.325.433/2015). Protocols are according to the Declaration of Helsinki (Resolution 466/12 of National Health Council).

Study Design

This is a prospective cohort, in which evaluated patients with rotator cuff injury who were submitted to open repair surgery. Measurement and determination of injury extension were performed by a surgeon and classified as small injury between 1 cm to 3 cm and large injury between 3 cm to 5 cm.[18]


#

Participants

Inclusion criteria: more than 18 years old, pain for more than 6 months, not made rotator cuff repair surgery yet, interned in the hospital to undergo rotator cuff repair surgery and sign an informed consent to participate in the study.

Exclusion criteria: indication of other surgical procedure besides rotator cuff repair, difficulty in questionnaires understanding, use of systemic corticosteroids and oncologic disease or diabetes, since it was described in the literature that these pathologies could interfere in pain thresholds.


#

Sample Size Calculation

Visual Analogue Scale (VAS) represents one of the main measurements of pain that would demonstrate patient improvement in postoperative. For sample size calculation it was used 2 articles that showed significant alterations in VAS in patients on rotator cuff repair preoperative and postoperative. Effect size was 3.51 and 2.78 (d de Cohen), using a t test for independent samples, with a 0.05 two-tailed alpha error, 80% of power and the same sample size for each group. Sample size calculation was made in gpower program. Sample size determined was 40 patients.


#

Outcomes

A sociodemographic questionnaire elaborated by the research group was applied. Primary outcome was Visual Analogue Scale (VAS), it quantifies pain from 0 to 10. Pain Catastrophizing Scale (PCS) was performed to evaluate total catastrophism, rumination, magnification and hopelessness. LANSS scale (Leeds Assessment of Neuropathic Symptoms and Signs) was to differentiate neuropathic pain from nociceptive pain. VAS (from 0 to 10) was used to evaluate sleep quality, humor and anxiety. Profile of Chronic Pain Scale (PCP:S) was made to evaluate pain frequency and intensity, its effect on activities and on emotions.

Use of Quantitative Sensory Testing (QST) was to determine the maximum tolerated temperature and heat pain threshold on volar side of the forearm of the contralateral limb to the surgical shoulder. Patient pressed a button when he felt first heat sensation, first pain sensation and when he can not tolerate heat increase.

Conditioned Pain Modulation (CPM) was the difference between two painful stimuli: a heat applied in the unoperated shoulder arm with pain that was previous measured in QST task as 6, concomitantly with a painful stimuli the patient immersed the contralateral foot in water at a temperature of 0 to 1,5°C for 30 seconds. Since the patients were in a postoperative period in the shoulder, the cold stimuli was performed in the same body side as the shoulder operated, providing equal results as if it was made in the operated shoulder. After stimuli, registered pain magnitude was through VAS.


#

Setting

All patients were submitted to ipsilateral brachial plexus block injury, through interscalene, guided by ultrasound. Anesthetics used were ropivacaine 0.375% and lidocaine 1%. After complete sensitive block of the area to be operated confirmation, sedation was with 0.05 mg of fentanyl and 1 to 5 mg of midazolam.

In postoperative period, patients received analgesic drugs according regular prescription: acetaminophen 750 mg associated with codeine 30 mg orally every 6 hours. A patient screening was made when patient was interned, one day before surgery.


#

Statistical Analysis

Verification of normality was through Shapiro-Wilk test. Continuous variables were parametric and were described as mean ± standard deviation. To evaluate possible correlations between pre and post operative, it was used Pearson Correlation. When continuous variables were compared between two measures from the same patient, paired t test was used. To evaluate the effect of injury size it was used an independent sample t test. Categorical data were by Fisher exact test or Chi-Square. For all analysis the significance level established was P < 0.05. Analysis were through SPSS 20.0 (Chicago, IL)


#
#

Results

There was an inclusion of a total of 40 patients in the study; description of sample sociodemographic characteristics are in [Table 1].

Table 1

Variable

Small injury

Large injury

P Value

Age (mean ± SD)

55.82 ± 7.84

62.00 ± 10

0.035[*]

Sex

0.748

 Female

15

12

 Male

08

05

Alcoholism

0.428

 Yes

6

2

 No

17

15

Smoking

0.707

 Yes

6

3

 No

17

14

Shoulder

0.848

 Right

13

10

 Left

10

07

Psychoactive Substances

0.432

 Yes

3

4

 No

20

13

Previous Diseases

0.896

 Yes

4

10

 No

19

7

Psychiatric Disorders

0.730

 Yes

7

4

 No

16

13

Pain Drugs

1.000

 Yes

22

16

 No

1

1

Among participants, there was a significant difference in groups ages, with a large injury in those older patients. When analyzing laterality, 57.5% (23) were affected in the right side, while 42.5% (17) on the left side.

Regarding use of drugs, in preoperative most patients (38) used analgesics continuously. Besides that, in postoperative, use of opioid drugs was higher in patients with small injury ([Figure 1].), morphine being the most used.

Zoom Image
Fig. 1 Use of opioids in rotator cuff repair surgery postoperative.

[Table 2] shows results regarding pain thresholds and descending inhibitory system evaluation, in which significant found alterations were in heat QST in small injury patients.

Table 2

Small injury

P Value

Large injury

P Value

Pre

Post

Pre

Post

Heat QST

37.15 ± 2.08

36.17 ± 1.89

0.015*

36.33 ± 2.29

36.34 ± 2.29

0.975

Pain QST

43.05 ± 2.88

42.58 ± 2.62

0.345

43.36 ± 2.30

42 ± 2.21

0.610

Tolerance QST

48.61 ± 2.70

48.11 ± 3.22

0.389

48.64 ± 2.42

46.90 ± 2.54

0.320

CPM

0.33 ± 1.76

0.16 ± 2.02

0.698

-0.25 ± 1.87

0.54 ± 1.69

0.730

VAS

4.86 ± 2.83

4.82 ± 3.17

0.955

3.47 ± 2.87

4.82 ± 3.22

0.197

When performing t test to evaluate pain thresholds between small injury preoperative and large injury preoperative there was no significant difference. However, when performing Pearson Correlation there were some interesting correlations. In large injuries, preoperative heat QST is correlated with postoperative heat QST (r = 0.765, P < 0.001) and preoperative tolerance QST (r = 0.542, P = 0.025). In small injuries, preoperative heat QST is correlated with postoperative heat QST (r = 0.605, P = 0.002). Preoperative pain QST is correlated with preoperative tolerance QST (r = 0.589, P = 0.003). Preoperative tolerance QST is correlated with postoperative tolerance QST (r = 0.588, P = 0.003). There was a correlation between preoperative CPM and postoperative CPM (r = 0.468, P = 0.024), between preoperative CPM and postoperative VAS (r = 0.475, P = 0.022) and between postoperative CPM and postoperative VAS (r = 0.409, P = 0.053).

Regarding small injury patients, they have a higher catastrophism when compared to large injury. [Table 3] presents catastrophism data

Table 3

Small Injury

P Value

Large Injury

P Value

Pre

Post

Pre

Post

Hopelessness

12.73 ± 6.18

13.00 ± 6.59

0.807

9.0 ± 5.12*

10.88 ± 5.76

0.213

Magnification

6.43 ± 3.89

5.86 ± 3.88

0.508

5.0 ± 3.29

4.52 ± 3.16

0.500

Rumination

9.39 ± 4.37

9.47 ± 4.25

0.900

6.70 ± 2.95*

7.82 ± 3.35

0.174

Total

28.56 ± 13.40

28.30 ± 13.67

0.500

20.70 ± 10.19*

23.23 ± 11.30

0.221

[Table 4] demonstrates variations in sleep pattern, anxiety level and humor in patients with small and large injury in preoperative and postoperative.

Table 4

Small Injury

P Value

Large Injury

P Value

Pre

Post

Pre

Post

Sleep

10.02 ± 3.52

10.71 ± 3.46

0.432

9.94 ± 3.91

11.02 ± 2.96

0.393

Anxiety

5.41 ± 3.82

3.84 ± 3.13

0.048

6.0 ± 3.48

3.52 ± 2.76

0.019*

Humor

5.32 ± 2.97

3.71 ± 2.38

0.003*

5.32 ± 2.67

3.58 ± 2.57

0.069

Small injury patients presented significant difference in humor domain, meaning that patients with small injury present largest changes in humor when comparing preoperative to postoperative. Large injury patients presented a higher level of anxiety in first preoperative 24 hours when compared to postoperative. Data were also compared between groups (small and large injury), evaluating only preoperative or postoperative, there was no significant difference (t test for independent samples; P > 0.05)

[Table 5] shows results of Profile of Chronic Pain Scale (PCP:S), regarding pain frequency and intensity, pain effect on activities and pain effect on emotions. Groups showed no statistical difference in preoperative and postoperative (t test for independent samples; P > 0.05).

Table 5

Small injury

P Value

Large injury

P Value

Preop.

Postop.

Preop.

Postop.

Frequency and Intensity

26.17 ± 3.64

24.52 ± 5.59

0.081

23.94 ± 4.81

23.20 ± 6.19

0.648

Effect on Activities

27.34 ± 7.33

29.21 ± 7.27

0.250

25.05 ± 10.70

25.11 ± 10.63

0.983

Effect on Emotions

11.95 ± 5.61

11.47 ± 6.72

0.606

10.58 ± 5.90

10.41 ± 6.76

0.900

Total Score

64.60 ± 13.83

65.21 ± 15.41

0.797

59.00 ± 17.53

58.08 ± 21.71

0.856

[Table 6] represents prevalence of nociceptive and neuropathic pain in preoperative patients with rotator cuff injury.

Table 6

Small injury

Large injury

Preoperative

Postoperative

Neuropathic Pain

15

06

Nociceptive Pain

08

11


#

Discussion

Analyzing location of injuries, most patients presented right shoulder small injury, corroborating with previous studies, in which rotator cuff injuries are most common in women and the most affected side is the right one.[19]

Patients with large rotator cuff injury presented higher age when compared to small injury group. This fact was earlier cited by Miyazaki and collaborators (2015), showing that elderly patients has a potential difficulty in repairing lesions, since it is a group that presents a higher number of large injuries, inferior bone quality and presents higher comorbidities that may reduce scar response and compromise surgical management.[20]

Significant results were found in pain thresholds correlations. CPM preoperative and postoperative correlation was significant in both groups and a correlation of preoperative and postoperative CPM with postoperative VAS, showing that descending inhibitory system changes influence in postoperative outcomes. This task evaluates pain modulation and perception in descending paths, where activity starts in pain control centers, found in the brainstem.[21] A painful stimuli is used, denominated as conditioned stimuli, which can inhibit perceived pain from a next stimulus.[22] Patients with chronic pain can present pain facilitation and inhibition mechanisms, which can also be measured by CPM. However, it is necessary to investigate if pain existence and pain from possible modulations influence in endogenous pain inhibition.[23]

QST is a method used to quantify sensorial functional, to evaluate small fiber path of nociceptive system and it is important for neuropathies diagnosis, due to conventional studies incapacity to evaluate small fiber function. Heat stimuli perception thresholds are used a parameter that reflects unmyelinated C fibers function, while heat stimuli pain and cold perception threshold indicates A-delta fibers function, and to a lesser extent C9 and C10 fibers function. However, in clinical routine, because cold threshold are more variable, heat pain threshold are preferably measured.[24] Central sensitization happens because nociceptive pain is generated from nociceptors stimuli, and can also be peripheral or central, while neuropathic pain is generated from a nervous system dysfunction, cause by a primary lesion and emerging as a consequence in the somatosensory system.[25]

Preoperative neuropathic pain when poorly controlled can complicate postoperative process and can also cause chronic pain.[26] When LANSS scale was applied to evaluate prevalence of nociceptive and neuropathic pain, 21 patients presented neuropathic pain in preoperative, which can probably be related to the long waiting period that patients from the study faced to have a specialized appointment. Patients from the study arrived at the hospital for a specialized appointment after a referral from Municipal Secretary of Health, the waiting time for a specialized appointmentation is usually up to 1 year. Neuropathic pain is a multifactorial event that involves various components from central and peripheral nervous system. Despite its complex perception, this kind of pain is frequently related to a peripheral origin, being dependent on electrical activity present in sensory neurons responsible for tissue and viscera innervation.[27]

Chronic pain can cause changes in patients' lifestyle, drug addiction, social isolation, compromises of identity and self-esteem. Besides that, stand out as a consequence of chronic pain, changes in sleep, emotional changes and difficulties in performing daily activities.[28] When quality of sleep, humor and anxiety, patients with small injury presented significant difference in preoperative humor when compared to postoperative humor, this fact is due to the higher levels of pain this group presents. Large injury patients presented significant difference in preoperative anxiety when compared to postoperative anxiety, which can be related to the preoperative, a period considered the most vulnerable one regarding necessities, such as physiological and psychological

Small injury group presented a higher catastrophism when compared to large injury group. Besides that, patients with small lesion presented, in preoperative, higher levels of rumination and hopelessness when compared to large lesion group, due to the fact that small injury group presented higher levels of pain. Small rotator cuff injuries are potentially more painful when compared to other injuries, possibly because of non physiological tension creates in remaining tendon fibers. Most symptoms occurs at night and during activities with upper limb lifting effort. This fact is reinforced by the higher number of patients with small injury that used analgesic drug in postoperative, demonstrated in this study. It was also verified that the most used drug in patients that underwent to rotator cuff repair surgery is morphine, a drug that acts as an opioid agonist, interacting with stereospecific receptor sites and saturated links in the brain, spinal cord and other tissues to change processes that affect pain perception. Morphine modulation is made by endogenous opioids (physiological), such as endorphins and enkephalins, and it is the first choice for postoperative chronic pain treatment.[29]

Given that pain interferes in various aspects of the individual health, knowing pain thresholds and possible factors that may compromise patient rehabilitation is of paramount importance, because with that it is possible to perform different interventions to get a positive outcome in postoperative.


#

Conclusion

After this study it is possible to conclude that patients with small rotator cuff injury has higher catastrophism and humor alterations when compared to patients with large rotator cuff injury, due to the evidence that small injuries are more painful and, consequently, emotional alterations caused by pain.


#
#

* Work developed in the Programa de Pós-Graduação em Saúde e Desenvolvimento Humano, Universidade La Salle, Canoas, RS, Brasil.


Financial Support

There was no financial support from public, commercial, or non-profit sources.


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Endereço para correspondência

Andressa de Souza, PhD
Programa de Pós-Graduação em Saúde e Desenvolvimento Humano
Avenida Victor Barreto, 2288, 7° edifício, Canoas, RS, 92010-000
Brasil   

Publication History

Received: 25 May 2020

Accepted: 16 September 2020

Article published online:
31 March 2021

© 2021. Sociedade Brasileira de Ortopedia e Traumatologia. This is an open access article published by Thieme under the terms of the Creative Commons Attribution License, permitting unrestricted use, distribution, and reproduction so long as the original work is properly cited. (https://creativecommons.org/licenses/by/4.0/)

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  • Referências

  • 1 Barros SRF, Lima RNS, Pimentel IT, Silva JR, Bernardino WSS, Ramos DKR. Conhecimentos sobre dor adquiridos nos cursos de ciências em saúde: Uma Revisão Integrativa. Rev Univ Vale Rio Verde 2014; 12 (02) 706-715
  • 2 Merskey H, Bogduk N. Classification of Chronic Pain. 2nd ed.. IASP Task Force on Taxonomy, IASP Press; Seattle: 1994. . Part III: Pain Terms, A Current List with Definitions and Notes on Usage;1994: 209-214
  • 3 Hylands-White N, Duarte RV, Raphael JH. An overview of treatment approaches for chronic pain management. Rheumatol Int 2017; 37 (01) 29-42
  • 4 St John Smith E. Advances in understanding nociception and neuropathic pain. J Neurol 2018; 265 (02) 231-238
  • 5 Caixeta LR, Stival MM, Lima LR. Dor aguda: julgamento clínico de enfermagem no pós operatório de cirurgia cardíaca. Rev Min Enfermagem 2012; 16 (03) 400-409
  • 6 Rawal N. Current issues in postoperative pain management. Eur J Anaesthesiol 2016; 33 (03) 160-171
  • 7 Kehlet H. Postoperative pain, analgesia, and recovery-bedfellows that cannot be ignored. Pain 2018; 159 (Suppl. 01) S11-S16
  • 8 Reddi D. Preventing chronic postoperative pain. Anaesthesia 2016; 71 (Suppl. 01) 64-71
  • 9 Fonseca PRB, Gatto BEO, Tondato VA. Post-trauma and postoperative painful neuropathy. Rev Dor 2016; 17 (Suppl. 01) S59-62
  • 10 Bartoszewski N, Parnes N. Rotator cuff injuries. JAAPA 2018; 31 (04) 49-50
  • 11 Liu P. Therapeutic Effect of Single-row Technique and No-compression Sputum in the Treatment of Post Small and Medium Rotator Cuff Injury under Shoulder Arthroscopy. J Clin Nurs Res 2019; 3 (06) 37-41
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Fig. 1 Uso de opioides após a cirurgia de reparo do manguito rotador.
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Fig. 1 Use of opioids in rotator cuff repair surgery postoperative.