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International Journal of Biomaterials logoLink to International Journal of Biomaterials
. 2023 Apr 29;2023:1883460. doi: 10.1155/2023/1883460

The Influence of the Hyaluronic Acid Gel on the Postoperative Sequelae following Surgical Removal of the Impacted Mandibular Third Molar in Comparison with the A-PRF: A Randomized Controlled Trial

Thoulfokar Shokor Al-Saadi 1,, Ahmed Fadhel Al-Quisi 1
PMCID: PMC10163971  PMID: 37159615

Abstract

One of the most common procedures in oral surgery is the removal of impacted mandibular third molars, often followed by pain, swelling, alveolitis, and trismus. Purpose. To compare the outcomes of the intrasocket application of 1% hyaluronic acid oral gel (HA) and advanced platelet-rich fibrin (A-PRF) on the expected postoperative complications, pain, swelling, and trismus follow the surgical extraction of the impacted mandibular third molar. Material and Methods. A randomized controlled trial was conducted at the Oral and Maxillofacial Surgery Unit, Dental Teaching Hospital. Healthy patients who required surgical removal of the impacted mandibular third molar were divided randomly into three groups. The extraction site of the group (A) patients remained without the addition of any material, just suturing of the wound with simple interrupted sutures, while in group (B) patients, the extraction site was filled with 1 cc of 1% hyaluronic acid gel (periokin®), and in group C patients, the extraction site was filled with A-PRF. Results. Sixty-six eligible patients participated in this study; both hyaluronic acid gel 1% (periokin®) and advanced platelet-rich fibrin showed a significant reduction in pain, swelling, and trismus on the 1st, third, and seventh postoperative days when compared to the control group, while the comparison between HA and A-PRF showed no significant differences except for the pain on the third postoperative day. There was a significant pain decrease in the A-PRF group than HA group. Conclusion. Intrasocket application of 1% hyaluronic acid gel (periokin®) or advanced platelet-rich fibrin can be an effective primary way to significantly reduce postoperative pain, trismus, and edema compared to the control group following mandibular third molar surgery.

1. Introduction

Pain, edema, and trismus are the most common postoperative sequels seen in individuals who underwent oral surgical procedures. Other clinical signs, including facial or neck hematomas, persistent alveolus bleeding, pyrexia, and dry socket symptoms, may be observed. These symptoms are prevalent after mandibular third molar surgical removal, considered one of the most challenging and time-consuming oral surgical procedures [1].

The severity of these postoperative sequels is directly related to the depth and space available for removal of the impacted mandibular third molar, the angulation of the tooth, root spacing, size of the bone septum, presence or absence of a dilated tooth follicle, periodontal space, bone density, and the relation to the inferior alveolar nerve [2]. Delays in recovery and an increased chance of developing chronic pain have been linked to inadequate care for early postoperative pain [3]. These morbidities remained a significant issue for patients and surgeons; as a result, decreasing these problems may significantly improve patient outcomes [4].

Nowadays, platelet-rich fibrin (PRF), also known as an autologous fibrin matrix, is a second-generation platelet concentrate that is considered a valuable factor in reducing discomfort associated with the postodontectomy healing phase; these autologous materials are derived from the patient's blood constituents to regulate inflammation and aid the healing process [57]. It does not induce allergies and poses no danger of cross-infection. It comprises a three-dimensional fibrin matrix rich in platelets and leukocytes. It contains cytokines, stem cells, and growth factors, forming a biodegradable scaffold that promotes microvascularization and facilitates epithelial cell migration to its surface [8].

Furthermore, platelet-rich fibrin concentrates can release growth factors for 1 to 4 weeks, ensuring a longer duration of healing stimulation than platelet-rich plasma, which releases all growth factors at the time of administration [6].

Advanced platelet-rich fibrin (A-PRF) can be obtained by lowering the centrifugation speed, which leads to more efficient uptake of cells and cytokines during centrifugation through developing a persistent fibrin net [9].

On the other hand, several studies showed that hyaluronic acid (HA) is a good option for accelerating wound healing by promoting granulation tissue development, preventing destructive inflammation during the healing phase, and performing re-epithelialization and angiogenesis [10]. Hyaluronic acid is a naturally derived polymer biomaterial. It is a major extracellular matrix (ECM) component in nearly every mammalian tissue and fluid [11].

It mediates chemotaxis, proliferation, and progressive differentiation of mesenchymal cells. It, therefore, plays a vital role in tissue regeneration and repair [12].

This study compares the outcomes of 1% hyaluronic acid oral gel and advanced platelet-rich fibrin on the expected postoperative sequels (pain, swelling, and trismus) following the surgical extraction of the impacted mandibular third molar.

2. Materials and Methods

A double-blind, randomized controlled trial was conducted in the Oral and Maxillofacial Surgery Unit, Dental Teaching Hospital, according to the ethical principles and in compliance with the Declaration of Helsinki and its later amendments.

This study had been ethically approved by The Research Ethics Committee of the College of Dentistry, University of Baghdad, with a reference number (393) on the date 27-12-2021. This trial had been registered at the Thai clinical trial registry with a registration number (TCTR 20220602008).

A thorough clinical and radiological examination by an independent maxillofacial surgeon was performed on all patients in this study, and only healthy, none smoker patients with horizontal and mesioangular impacted lower third molar teeth (level A or B, class I or II) according to winter classification and the degree of impaction based on the Pell & Gregory category classification were included in this study.

The sample size of this study was calculated by using G-power software. Block randomization was achieved with Microsoft Excel 2013 to ensure all groups had the same number of patients. Moreover, an independent Maxillofacial Surgeon made subsequent evaluations of the pain, swelling, and trismus during the three visits (first, third, and seventh days following the surgery).

The eligible patients were randomly divided into three groups. Group A patients (control group) were managed by surgical extraction of the impacted lower third molar tooth without placing material inside the extraction socket. Group B patients (study group) were managed by applying 1 cc of 1% hyaluronic acid gel (periokin® Spain) combined with gel foam in a sterilized amalgam jar to avoid slippage of the material out of the surgical site. Group C patients (study group) were managed by applying A-PRF into the extraction socket after surgical removal of the impacted mandibular third molar.

Before the surgical procedure, all patients were instructed to rinse their mouths with 0.12% chlorhexidine mouthwash for 30–60 seconds. The patients were operated under the local anesthesia obtained by block injection of 1.8 ml of 2% lidocaine hydrochloride with epinephrine 1 : 80,000 (Huon's Co., Ltd., Korea) into the inferior alveolar nerve with infiltration anesthesia into the long buccal and lingual nerves. The same operator performed all the surgical procedures, where a full mucoperiosteal flap was raised after a triangle incision with a no. 15 scalpel blade. The osteotomy was done with a round bur mounted on a W&H surgical low-speed handpiece. Tooth extraction was performed using an elevator following adequate bone osteotomy and tooth sectioning. Following tooth removal, the socket was irrigated with chlorhexidine 0.2%. Then, the wound was sutured with simple interrupted sutures for the group A patients. The extraction site of the group B patients was filled with one cc of 1% hyaluronic acid gel (periokin®) mixed with gel foam, as shown in Figure 1. In group C patients, A-PRF was prepared using 10 ml of the patient's venous blood drawn from the median cubital vein and inserted immediately into dry, anticoagulant-free, glass-coated plastic tubes as shown in Figure 2. The centrifuging time was 14 minutes, and the speed was 1500 rpm [13]. A-PRF is the yellowish layer formed at the top of the centrifuged tube that is dissected by scissors from the red corpuscle base at the bottom and applied to the surgical site before suturing.

Figure 1.

Figure 1

Hyaluronic acid gel preparation and mixing with gel foam: (a) 1 cc of hyaluronic acid gel (periokin®) was drawn by using a plastic hypodermic syringe, (b) mixing gel foam (Spongostan®, Denmark) with the hyaluronic acid gel in a sterilized amalgam jar, and (c) application of the mixture into the surgical site.

Figure 2.

Figure 2

Clinical case for the preparation of A-PRF: (a) after centrifugation of the blood, the tube shows two layers (A-PRF at the top and RBC at the bottom), (b) picking up A-PRF from the tube, and (c) A-PRF application into the socket.

The preoperative assessment includes measurement of the maximum mouth opening, and the postoperative assessment includes the pain, trismus, and swelling. The pain was measured using a visual analog scale (VAS) from a zero to 10 score, where zero represents the lowest pain value, and ten is the highest. The maximum interincisal opening was used to assess the trismus.

Facial swelling was subjectively assessed by criteria mentioned by Sulieman [14] as follows: grade 0 represents no swelling, grade 1 represents edema of alveolar mucosa buccally or lingually (intraorally), grade 2 represents edema of alveolar mucosa buccally or lingually and involves the cheek (extra-orally) to the body of the mandible, and grade 3 represents edema of alveolar mucosa buccally or lingually and involves the cheek (extra-orally) below the body of the mandible.

Follow-up assessment was done on the first, third, and seventh postoperative days. The statistical analysis was performed using Statistical Package for Social Science (SPSS version 21, Chicago In press, Illinois, USA). A Shapiro-Wilk test was performed to evaluate the normality of the data distribution. The chi-square test assessed the distribution association between two qualitative variables when the expected cell counts less than 5 is <20%, as in the demographic data. Dunn-Bonferroni method was performed to test whether multiple pairs of samples are significantly different. The probability value was considered significant when it was less than 0.05.

3. Results

Seventy-seven individuals with 77 impacted mandibular third molars took part in this study; 11 patients were excluded because they did not meet the inclusion criteria, and 66 patients were randomly divided into three groups (3), as shown in Figure 3.

Figure 3.

Figure 3

The flowchart illustrates the study's basic steps.

The result of the current study demonstrated that the patient's ages ranged from 18–29 years old, with 37 females and 29 males. There were no significant differences between age, gender, side of impaction, and the impaction angle among groups, as shown in Table 1.

Table 1.

A detailed demographic feature regarding different parameters for all groups.

Vars Groups Chi-square P value
Control
Mean = 23.3
SD = ±3.5
H.A
Mean = 23.05
SD = ±2.9
A-PRF
Mean = 22.9
SD = ±2.9
N % N % N %
Age (years) 18–23 11 16.66 12 18.18 13 19.69 0.121 0.941
24–29 11 16.66 10 15.15 9 13.65

Gender Female 10 15.15 14 21.21 13 19.69 1.599 0.449
Male 12 18.18 8 12.12 9 13.65

Side of impaction Left 11 50.00 10 45.45 10 45.45 0.122 0.941
Right 11 50.00 12 54.55 12 54.55

Winter classification Horizontal 13 59.09 10 45.45 12 54.55 0.852 0.653
Mesioangular 9 40.91 12 54.55 10 45.45

Pell and Gregory classification CL1 level A 4 18.18 5 22.73 5 22.73 0.756 0.993
CL1 level B 4 18.18 5 22.73 5 22.73
CL2 level B 7 31.82 7 31.82 7 31.82
CL2 level A 7 31.82 5 22.73 5 22.73

The statistical analyses showed a significant difference among all groups on all postoperative days except between the HA and A-PRF groups on the first and seventh postoperative days, as shown in Table 2. The decrease in pain during the postoperative days was more in the A-PRF group, followed by the HA group, and the slightest decrease was in the control group.

Table 2.

Multiple pairwise comparisons of pain among the groups by using the Dunn-Bonferroni method.

Period Groups P value
1-day postoperatively Control HA 0.001∗∗
Control A-PRF 0.001∗∗
HA A-PRF 0.277

3-day postoperatively Control HA 0.001∗∗
Control A-PRF 0.001∗∗
HA A-PRF 0.031

7-day postoperatively Control HA 0.036
Control A-PRF 0.008∗∗
HA A-PRF 1.00

Significant, ∗∗highly significant.

Regarding the swelling, statistical analyses showed significant differences among groups on all postoperative days except between HA and A-PRF groups, as shown in Table 3. The grade of swelling was higher in the control group on all postoperative days than in the HA and A-PRF groups.

Table 3.

Multiple pairwise comparisons of swelling among the groups by using the Dunn-Bonferroni method.

Period Groups P value
1-day postoperatively Control HA 0.001∗∗
Control A-PRF 0.001∗∗
HA A-PRF 1.00

3-day postoperatively Control HA 0.001∗∗
Control A-PRF 0.001∗∗
HA A-PRF 1.00

7-day postoperatively Control HA 0.031
Control A-PRF 0.031
HA A-PRF 1.00

Significant, ∗∗highly significant.

Regarding the trismus, Multiple pairwise comparisons (Tukey's HSD method) showed highly significant differences among all groups on all postoperative days except between the HA and A-PRF groups, as shown in Table 4.

Table 4.

Multiple pairwise comparisons of trismus among groups by using (Tukey's HSD).

Period Groups P value
1-day postoperative Control HA 0.001∗∗
Control A-PRF 0.001∗∗
HA A-PRF 1.00

3-day postoperative Control HA 0.001∗∗
Control A-PRF 0.001∗∗
HA A-PRF 1.00

7-day postoperative Control HA 0.001∗∗
Control A-PRF 0.001∗∗
HA A-PRF 1.00

∗∗ Highly significant.

4. Discussion

Pain, swelling, and trismus are the most common postoperative inflammatory reactions after surgically removing the impacted mandibular third molar [15].

Regarding pain, the visual analog scale (VAS) was employed in this study to measure the severity of pain felt after surgical removal of the impacted mandibular third molar because it is reproducible, straightforward, and easy for the patient to understand.

This study showed that pain significantly decreased in both HA and A-PRF groups compared to the control group. These results agreed with several previous studies demonstrating the effectiveness of HA gel or A-PRF in reducing postoperative pain [1, 16, 17].

However, when comparing the results of HA and A-PRF groups regarding pain reduction, a statistically significant decrease on the third postoperative day is only in favor of the A-PRF group; this result may be explained by the fact that A-PRF aids in the acceleration of healing and angiogenesis and minimizes the danger of inflammation in the region of application [1820]. Since the severity of the postoperative pain resulting from minor oral surgeries usually fades in days following the surgery [21], it might explain the disappearance of A-PRF preference over hyaluronic acid on the seventh postoperative day.

Deliverska and Petkova [22] proposed that postsurgical edema might be caused by the tissues' reaction to manipulation and trauma during surgery. Besides that, the length of the incision and the duration of the surgery can affect the swelling form; therefore, smaller incisions result in substantially less postoperative edema [2325].

In this study, the swelling began immediately after surgical removal of the impacted mandibular third molar and gradually increased to reach its maximum degree on the first and second postoperative days, then gradually subsided on the third or fourth postoperative days, and this agreed with many previous studies [2628]. This study showed a statistically significant reduction in facial swelling in both the HA and A-PRF groups compared to the control group, which agrees with previous studies [17, 18, 20], with no statistically significant difference between HA and A-PRF groups in all postoperative days.

The antiedematous properties of HA could be attributed to its osmotic buffering capabilities in addition to delaying leukocyte migration via adhering to its receptor CD44 [29, 30], and the antiedematous properties of A-PRF could be attributed to its ability in minimizing the risk of inflammation in the surgical site [1].

On the other hand, the typical and expected result of third molar surgery is trismus, which is measured by comparing the pre- and postoperative maximum interincisal distance [22]. Balakrishnan et al. found that pain is the leading cause of trismus following the extraction of impacted mandibular third molars [31]. The excellent performance of both A-PRF and HA regarding pain reduction may explain their statistically significant reduction in the trismus on the first, third, and seventh postoperative days compared to the control group.

However, this result disagreed with Yilmaz et al. [32, 33] studies, which may be attributed to the small sample size of these studies. Furthermore, this study showed no significant difference between the HA and A-PRF groups regarding the trismus on postoperative days.

In conclusion, 1% HA gel (periokin®) or advanced platelet-rich fibrin can significantly reduce postoperative pain, trismus, and edema after mandibular third molar surgery. However, the easy use reduced HA preparation time, and the patient's disturbing blood drawing makes HA superior to A-PRF.

Data Availability

The data used to support the findings of this study are available from the corresponding author upon request.

Conflicts of Interest

All authors declare that they have no conflicts of interest.

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Associated Data

This section collects any data citations, data availability statements, or supplementary materials included in this article.

Data Availability Statement

The data used to support the findings of this study are available from the corresponding author upon request.


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