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. 2025 Jun 4;45:185–198. doi: 10.1016/j.jpra.2025.06.001

“A systematic review of mesh support of the breast in aesthetic breast surgery”

Grace Ho-Kiu Wong 1,, Stephen Hamilton 1
PMCID: PMC12269451  PMID: 40678269

Abstract

Aesthetic breast surgeries, including reduction mammoplasty, mastopexy, and breast augmentation, aim to enhance patient satisfaction by improving breast aesthetics. The use of mesh in these surgeries has been proposed to provide improved long-term structural support, addressing conditions such as recurrent ptosis and implant displacement. This narrative systematic review analysed 31 studies involving 2,425 patients to evaluate the effectiveness and safety of mesh in aesthetic breast surgeries. The studies, comprising mostly retrospective case series and a few prospective observational studies, generally reported favourable outcomes with improved breast shape and high patient satisfaction. Reported complication rates were low, with issues such as seroma, haematoma, and infection. However, the evidence is insufficient to recommend the routine use of mesh in aesthetic breast surgery. Future research should focus on high-quality, unbiased studies with standardised outcome measures.

keywords: Mammaplasty, Breast implants, Surgical mesh, Aesthetic surgery, Treatment outcome

Introduction

Aesthetic breast surgery aims to enhance patient satisfaction by aligning surgical outcomes with individual aesthetic perceptions. With its growing popularity, the field continues to evolve, incorporating advancements in surgical techniques to achieve more refined and durable results.1 These procedures primarily address concerns related to breast shape, volume, and ptosis, catering to patients seeking enhancement, correction, or restoration of their breast aesthetics.

The primary categories of aesthetic breast surgery include breast augmentation, reduction mammoplasty and mastopexy.2 Additionally, revisional aesthetic breast procedures are increasingly performed to correct changes in breast shape or volume following primary surgery, ensuring continued patient satisfaction.

Achieving a successful long-term outcome depends on combination of patient-specific factors and surgical techniques. However, the natural aging process and the inherent limitations of breast implants are critical considerations, as they can contribute to progressive changes in breast shape, volume loss, or recurrent loss of projection over time. Understanding these long-term effects is essential for both surgeons and patients in setting realistic expectations and optimising surgical planning to achieve durable aesthetic results.

The use of mesh in implant-based breast reconstruction has gained popularity since 2013, with an increase in the variety of mesh materials licensed for use in these operations.3 High-quality systematic reviews and randomised controlled trials have been conducted to evaluate the effectiveness and safety of mesh use in implant-based breast reconstruction.4, 5, 6, 7, 8 However, evidence supporting the use of mesh in aesthetic breast surgery remains limited. To the best of our knowledge, there is no previous systematic review on the use of mesh in aesthetic breast surgeries.

Meshes have been proposed as a reinforcement to improve the stability of aesthetic breast surgeries, to offer improved long-term structural support and potentially reduce complications such as recurrent ptosis and implant displacement.9 Mesh materials available for use in aesthetic breast surgeries can be broadly categorised into synthetic mesh and biologic mesh. Biological meshes are manufactured with animal tissue, while synthetic meshes are composed of absorbable or non-absorbable materials. Despite the potential benefits proposed by mesh manufacturers, there is variability in clinical practice regarding the use of mesh in aesthetic breast surgeries. While an international guideline was issued by a professional body regarding the use of mesh in breast reconstruction procedures,10 there is a lack of clinical guidelines regarding the use of mesh in aesthetic breast surgeries.

This narrative systematic review seeks to analyse current evidence on the safety and effectiveness of mesh in aesthetic breast surgeries, addressing key surgical outcomes and complications. By examining the reported outcomes in these studies, this review seeks to provide a comprehensive understanding of the current evidence, identify limitations in current knowledge about mesh use in aesthetic breast surgeries, and suggest directions for future research.

Aims

This narrative systematic review aims to analyse the available evidence in the literature on the effectiveness and safety of the use of mesh in aesthetic breast surgeries, including mastopexy, breast augmentation and augmentation-mastopexy. We also aim to explore the limitations in current evidence in the published data, and the potential future directions for improving the surgical outcomes in aesthetic breast surgery.

Materials and methods

Search strategy

This review was performed following a systematic literature search (Figure 1). A broad search of the literature was conducted using the following electronic databases: MEDLINE, EMBASE, Cochrane Central Register of Controlled Trials, and PubMed. The key words used in the literature search were a combination of (mastopexy OR mammoplasty OR breast reduction OR breast augmentation OR aesthetic breast surgery) AND (mesh OR scaffold OR ADM). In addition, the references from relevant studies were reviewed and included if applicable.

Figure 1.

Figure 1

Systematic literature search flow diagram.

Eligibility

Studies were considered for inclusion if they reported original clinical data on outcomes of aesthetic breast surgeries with use of mesh. Studies published in English language, prior to February 2025 (date of literature search) were included. Review articles, meta-analyses, case reports, editorials, and letters were excluded. Two authors reviewed the articles independently of each other, and the included studies were determined after screening of titles and abstracts, followed by full-text reviews of selected articles.

Data extraction

Full-text analyses of included studies were performed, with extraction of information summarised in Table 1. The following information was analysed, synthesised, and extracted from each included study: author, year of publication, study design and mean follow-up duration, conflict of interest, surgical technique, mesh support, and surgical outcome. Due to the heterogeneity of data and study design, a meta-analysis could not be conducted. A narrative systematic review was conducted.

Table 1.

Summary of included studies.

Author Number of patients Study design and mean follow-up Conflict of interest / financial association Surgical technique Mesh support Surgical outcome
Johnson11 43 Retrospective review; 2 years N/A Central core reduction Marlex mesh attached to second rib No complication
Góes12 96 Retrospective review; 2–7 years N/A Periareolar mammoplasty -Polyglactine 910 mesh (n = 55)
-Mixed mesh (polyglactine with polyester) (n = 41)
-Dermal flap (n = 158)
Complications:Seroma: 1.5 % (n = 3)
-Haematoma: 1 % (n = 2)
-Fat necrosis cysts: 2 % (n = 6)
-Loss of areolar sensitivity: 4 % (n = 10)
Polyglactine mesh: Less drop, less frequent early ptosis, more beautiful mammary shape
deBruijin13 170 (327 breasts) Retrospective review; 1.4 years Yes Mastopexy: Lejour / Lejour with small horizontal extension / wise pattern 3D preshaped woven polyester mesh (apside) No recurrent ptosis
deBruijin14 63 (121 breasts) Retrospective review; 2 years Yes Mastopexy Soft-knitted 3D polyester mesh (Breform) No major complications or extrusion.
4 patients required minor secondary cosmetic correction.
Maxwell15 78 Retrospective review; 12 months Yes Revisional breast augmentation; augmentation mastopexy ADM −2 complications (2.5 %) requiring reoperation
-No Baker III/IV capsular contracture
Góes16 5 Prospective observational study; 5 years N/A Periareolar mammoplasty FortaPerm biologic tissue matrix (3-layered) 4 out of 5 (80 %): no asymmetry or ptosis;
Bilateral seromas + extrusion of mesh (n = 2)
Brown17 27 Retrospective review; 19 months N/A Wise pattern reduction mammoplasty ADM mesh sutured to chest wall as a sling or internal brasserie to support the inferior pedicle Complications:Cellulitis (n = 1): resolved with antibiotics
-Partial skin flap necrosis (n = 1): treated conservatively
No significant pseudoptosis or nipple rotation
vanDeventer18 112 (218 breasts) Initial pilot study with 15 patients then retrospective review of 112 patients; 2 years 2 months Yes Mastopexy (n = 156)
Breast reduction (n = 62)
Biocompatible mesh, U-shaped mesh anchored to chest wall Results from pilot study:Loss of nipple sensation (7.6 %)
-Fat necrosis (7.6 %)
-Infection (3.8 %)
Maxwell19 186 (197 breasts) Retrospective review; 3.3 years Yes Revisional breast augmentation or augmentation mastopexy ADM 98 % revisions reported as successful.
Complications: 4.8 %
Pozner20 93 (179 breasts) Retrospective review Yes Revisional breast augmentation with or without mastopexy ADM Major complications (1.6 %)
High-riding implants (n = 2)
Minor imperfections requiring office procedures (n = 7)
AdamsWPJr21 11 Prospective observational study; 12 months Yes Mastopexy GalaFLEX (P4HB) mesh No major complications.
Delayed wound healing (n = 1).
Distance (notch to lowest point of breas): No statistically significant change between months 3 and 12
AdamsWPJr22 62 Retrospective review; 12 months Yes Mastopexy (n = 44)
Breast reduction (n = 10)
Mastopexy + reduction (n = 7)
Breast augmentation + mastopexy (n = 1)
GalaFLEX (P4HB) mesh 89.7 % had successful ptosis correction and maintenance.
5 adverse events (8 %)
Pompei23 6 Retrospective review; 12 months N/A 2 mastopexies and 4 breast reductions TIGR® Matrix Surgical Mesh Lower rate of revisional and mesh explantation surgeries.
Ruff24 5 Retrospective review; 25 months N/A Revisional breast augmentation TYRX™ absorbable antibiotic-impregnated polypropylene mesh anterior to implant. Triple antibiotic solution of bacitracin (50,000 U)/vancomycin (1 g) / gentamicin (80 mg) for irrigation in 500cc of normal saline No recurrence of capsular contracture.
Haematoma (n = 1)
Nair25 5 Retrospective review; 15.34 months N/A Breast implant revisional surgery with capsulectomy / capsulorrhaphy GalaFLEX (P4HB) mesh No complication requiring reoperation.
All patients reported verbal satisfaction.
Calobrace26 6 Retrospective review; 159 days N/A Popcorn capsulorrhaphy, in revisional breast augmentation GalaFLEX (P4HB) mesh No implant malposition or complication.
Becker27 21 Retrospective review; 16.5 months Yes Augmentation / augmentation mastopexy (n = 3)
Mastopexy (n = 5)
Augmentation/mastopexy revision (n = 13)
TIGR® Matrix surgical mesh Asymmetry requiring revision (n = 2)
Flap necrosis (n = 1)
Relapse of IMF (n = 1)
József28 Mesh group: n = 59
Non-mesh group: n = 58
Retrospective review; 16 months N/A Mastopexy (n = 58), breast reduction (n = 17), implant and mastopexy (n = 42) ULTRAPRO™ mesh No significant differences in surgical complications.
BREAST-Q questionnaire: significant differences in breast satisfaction, physical wellbeing, and sexual wellbeing (higher scores in patients in mesh group)
Likert scale (3 non-involved breast surgeons): average score for mesh group 4.4, non-mesh group 3.8.
Hamdi29 50 Prospective observational study; 3 years N/A Mastopexy Vicryl mesh in 23 patients.
Mixed polyester / vicryl mesh in 27 patients.
Average self-reported score of 4.54.
Assessment by blinded fellows: average score 4.32.
Statistically significant differences between Vicryl and Progrip mesh (4.33 vs 4.7).
Wound dehiscence in 1 patient.
Turin30 12 (cosmetic breast revision) Prospective observational study; 355 days Yes Complex revision / Capsulorrhaphy / Implant pocket revision / Implant exchange and mastopexy Durasorb; resorbable polydioxanone mesh Seroma requiring aspiration (n = 1)
None experienced recurrence of ptosis, capsular contracture, or implant malposition.
Malucci31 100 Prospective observational study; 14 months Yes Mastopexy (n = 79) +/- augmentation
Revisional surgeries for secondary indications
GalaFLEX (P4HB) mesh Lower pole stability: Ptosis fully corrected.
Consistent maintenance of lower pole position maintained between 6 weeks and 1 year postoperative.
Measurements: Differential in descent of IMF, differential in lengthening of lower pole arch.
Chiemi32 41 Retrospective review; 8.4 months Yes Primary mastopexy-augmentation Polydioxanone (PDO) mesh Favourable results reported in all patients
Mean scar quality scaled score 4.341 (Good-Excellent)
Chiemi33 200 Retrospective review; 9.3 months Yes Breast augmentation
-Smooth implants alone (n = 84)
-Micro-textured implants (n = 49)
-Smooth implants plus PDO internal support matrix (n = 67)
Polydioxanone Internal Support Matrix (PDO) Smooth implant group with PDO mesh had the lowest scar malposition rate of 4.48 %, significant difference compared with smooth devices alone.
Abdelkader34 24 Prospective randomized cohort study; 36 months N/A Mastopexy ADM Suprasternal notch-to-nipple distance (median):Mesh group: increase of 1.5cm
-Non-mesh group: increase of 2cm
Overall complication rate: 12.5 %
Buccheri35 34 Retrospective review; 6–28 months Yes Revisional breast augmentation GalaFLEX (P4HB) mesh No minor or major complications.
Self-reporting questionnaires show high levels of patient satisfaction.
Tomouk36 11 Retrospective review; 3–5 years N/A Revisional breast augmentation SurgiMend ADM (n = 5) or GalaFLEX mesh (n = 6). Two complications in the same patient. One emergency return to theatre for bleeding, one minor scar revision.
Chiemi37 104 Retrospective review; 8.8 months Yes Revision-augmentations with vertical or wise-pattern, (n = 74); Revision-augmentation without mastopexies (n = 25), revision without implant exchange (n = 5) Polydioxanone (PDO) mesh 12.5 % patients required reoperation: 30.8 % due to desired size change, 69.2 % due to complications necessitating surgery.
No mesh-related complications
Bistoni38 72 Retrospecticve review; 24.8 months Yes Augmentation mastopexy GalaFLEX (P4HB) mesh No recurrent ptosis, bottoming out, implant displacement, or capsular contracture
Harfouche39 89 Retrospective review; 12 months Yes Revisional breast augmentation Ovine-Reinforced Hybrid Mesh (OviTexPRS); Porcine Acellular Dermal Matrix (STRATTICE) Reduction in Baker grades reported in all patients.
Chiemi40 522 Retrospective review; 13.7 months Yes Primary breast augmentation / mastopexy-augmentation / revision-augmentations with or without mastopexy Polydioxanone (PDO) mesh Decreased malposition in primary augmentation; improved scarring in mastopexy.
Buccheri41 60 Prospective observational study; 12 months N/A Primary mastopexy GalaFLEX (P4HB) mesh Nipple-IMF distance: significant difference between mesh group and non-mesh group (unpaired): 9.57 vs 8.47 cm, at 12 months

Results

Study characteristics

A total of 251 articles were identified and screened using our search criteria according to preferred reporting items for systematic reviews and meta-analyses (PRISMA) guidelines (Figure 1). Thirty-one studies published from 1981 through 2025 were included (Table 1). The 31 studies included a total of 2,425 patients. There were 24 retrospective case series and 7 prospective observational studies. Three studies included a control group to establish a comparison with the mesh group.28,34,35 No randomised controlled study was identified in our literature search. The mean follow-up period of the included studies ranged from 159 days to 5 years. The sample size of the included studies ranged from 5 to 522.

Surgical techniques and outcomes

Aesthetic breast surgery techniques described include implant augmentation, mastopexy, breast reduction, and revisional aesthetic breast surgeries. Various mesh materials were described in the included studies, including Marlex (Phillips Petroleum Company, Bartlesville, Okla, USA) polypropylene mesh, Polyglactine, Poly-4-Hydroxybutyrate GalaFLEX™ (Galatea Surgical, Inc., Lexington, MA, USA) mesh, vicryl mesh, Polydioxanone (PDO) mesh, TIGR® Matrix Surgical mesh (Novus Scientific Pte Ltd, Singapore), 3D Polyester, FortaPerm Biologic tissue matrix (Organogenesis, Canton, MA, USA), TYRX™ (TYRX, Inc., Monmouth Junction, NJ, USA) absorbable antibiotic-impregnated polypropylene mesh, Ovine-Reinforced Hybrid Mesh (OvitexPRS, TELA Bio, Malvern, PA, USA), and ULTRAPRO™ (Ethicon, Somerville, NJ, USA). Six studies described the use of acellular dermal matrix (ADM). Breast augmentation (with or without mastopexy) and breast implant-related revisional surgery were the most described aesthetic breast surgical techniques among the included studies, documented in 16 of the included studies. Primary mastopexy was described in 13 studies. Primary reduction mammoplasty was described in 6 studies.

Mesh placement

In studies involving mastopexy technique, mesh was most frequently placed in the lower pole for parenchymal support.13,14,21,22,23,28,32,34,41 Several studies described mesh placement beneath the skin flap, either encircling the breast parenchyma or coned around the breast mound.13,14,21,22 Circumferential placement over periareolar dermal flaps has been reported by the same author for periareolar mastopexies.12,16 A sling configuration, with mesh anchored medially, laterally, and inferiorly, was described to provide lower pole reinforcement.28 Additionally, one study reported mesh fixation to medial and lateral pillars to enhance vertical projection and central breast shaping.29

In studies describing mesh use in primary augmentation procedures, the lower pole remained the most frequent site of mesh reinforcement, with fixation along the inframammary fold (IMF).33,38,40

In revisional aesthetic breast surgeries, placement of mesh often involves the lower pole15,25,26,30,31,37 but is also extended to the lateral, medial, or superior borders of the implant capsule, tailored to the defect.19,20,35,36,39,40 Chiemi et al.40 described the use of mesh as a “fortress” in complex revisional surgeries requiring Wise-pattern mastopexy, using two pieces of mesh both inside and outside of the pocket.

Outcomes

All studies concluded satisfactory overall surgical outcomes (Table 1) from using mesh in aesthetic breast surgery. Subjective assessment of clinical outcome was documented in the majority of included studies (n = 26). Five studies recorded patient questionnaires as part of the measures of surgical outcome. No standardised outcome measure was identified among all the included studies.

Breast augmentation (with/without mastopexy)/ implant revisional surgeries

A total of 16 studies investigated the use of mesh in breast augmentation (with or without mastopexy) or implant-related revisional surgeries. Reported complication rates ranged from 1.6 % to 4.8 %, with documented adverse events including seroma, hematoma, asymmetry, implant malposition and capsular contracture. Despite these complications, all studies concluded that overall outcomes were satisfactory.

Chiemi et al.32 reported superior results with polydioxanone (PDO) mesh incorporation (n = 67) compared to smooth breast implants alone, with a significantly lower rate of scar malposition in the mesh group than in patients with smooth implants alone (n = 84). However, the same authors reported a 12.5 % reoperation rate33 in patients who underwent revisional breast augmentation, primarily due to either desired size change or complications necessitating surgical intervention.

Maxwell et al.15 conducted a retrospective review of 78 patients who underwent revisional breast augmentation and augmentation mastopexy, concluding favourable outcomes. Notably, no cases of Baker grade III or IV capsular contracture were observed at 12 months of follow-up. In a subsequent publication,19 the same authors analysed a larger cohort of 186 cases with a mean follow-up of 3.3 years, reporting 1.6 % incidence of Baker grade III or IV capsular contracture.

Harfouche et al.39 compared porcine ADM with Ovine-Reinforced Hybrid Mesh in 89 patients with Baker Grade III or IV capsular contracture who underwent revisional breast augmentation. The authors reported reduction in capsular contracture grades in all patients at 12 months of follow-up.

Primary mastopexy

Thirteen studies, comprising 774 patients, examined the use of mesh in primary mastopexy. Complications varied among studies. Reported events included wound dehiscence (n = 1),29 delayed healing (n = 1),21 loss of nipple sensation (up to 7.6 %), fat necrosis (up to 7.6 %),18 seroma (1.5 %),12 infection (up to 3.8 %),18 hematoma (1 %),12 and asymmetry.27 One study reported extrusion of mesh in two patients.16

Three studies28,34,41 included a control group (non-mesh group) for comparison, demonstrating no significant difference in surgical complications between mesh and non-mesh groups. Abdelkader et al.34 reported a statistically significant difference in the median increase of suprasternal notch-to-nipple distance between the mesh and non-mesh group (median 1.5 cm versus 2 cm, p < 0.05).

József Z et al.28 incorporated BREAST-Q questionnaires as part of the study outcome measures, reporting higher patient satisfaction scores in the mesh group compared with the non-mesh group. Hamdi et al.29 documented patient and blinded assessor satisfaction scores, demonstrating a statistically significant advantage of mixed mesh over Vicryl mesh in terms of lower pole stability and reduced elongation.

One study32 primarily assessed scar hypertrophy and keloid scar formation as the main surgical outcomes, concluding that PDO mesh effectively minimised poor scarring. However, no control group was included in this study.

Reduction mammoplasty

Among the 6 studies (170 patients) reporting outcomes in breast reduction with mesh incorporation, all concluded satisfactory outcomes. Complications recorded include seroma, haematoma, cellulitis, skin flap necrosis, mesh extrusion, and loss of areolar sensitivity. One study11 reported no complications. The use of mesh was reported to be associated with less frequent early ptosis and more satisfactory mammary shape.

Conflict of interest

Among the 31 included studies in this systematic review, conflict of interest or financial association between author(s) with mesh manufacturers were reported in 18 studies, which contributes to 58 % of all included studies in this review.

Discussion

Aesthetic breast surgeries aim to improve the aesthetic outcome of the breasts, addressing mainly volume, shape, and ptosis of breast tissue. The use of biologic or synthetic mesh has gained interest in recent decades as a scaffold to maintain breast tissue or breast implant position, thus improving the durability and stability of aesthetic breast surgery. The use of mesh has also been proposed to reduce the risk of capsular contracture related to breast implants and to reduce the incidence of ptosis recurrence. The included studies have described different types of mesh, and each has a different composition profile. There is a lack of evidence on how each type of mesh differs from each other. Biological meshes have been advertised as more biocompatible and thus cause less inflammatory response, while synthetic meshes are at risk of causing foreign body reaction,42 which could cause chronic inflammation and eventually lead to mesh extrusion.

Among the studies included in this systematic review, complication rates for implant augmentation procedures were generally low, ranging from 1.6 % to 4.8 %. One study33 reported a reoperation rate of 12.5 % in implant revisional surgeries within a follow-up period of 8.8 months. Notably, 69.2 % of those reoperations were attributed to complications. In the literature, reoperation rates for primary augmentation reach approximately 10 % within 2 years,43,44 while 25 % of patients may require more than one revision procedure.45 However, this systematic review does not allow for a comprehensive comparative analysis of reoperation rates due to limited data.

A 2019 systematic review of mastopexy outcomes reported that, in the subgroup undergoing mastopexy with glandular reshaping without mesh (n = 1489), the rate of wound complication was 0.7 %.46 Sensory changes in the nipple-areolar complex were observed in 0.9 % of cases, while fat necrosis and infection were each reported in 0.9 % and 0.1 % of patients, respectively. The highest infection rate (1.8 %) was observed in the subgroup where mesh was used. In our systematic review, studies involving mastopexy technique with mesh reported infection rates of up to 3.8 %.18

All the included studies in this narrative systematic review concluded with positive outcomes with the use of mesh in aesthetic breast surgery, with improved breast shape and high patient satisfaction scores. The rate of complications in all the studies was quoted as low. The use of mesh was associated with enhanced structural support, improved longevity of results and reduction in complications. However, the incorporation of mesh in aesthetic breast surgeries should be cautious as there is limited long-term data on the outcome of mesh use in aesthetic breast surgeries.

A significant limitation of this review is the predominance of retrospective case series with small sample sizes and short follow-up durations. Only three of the seven prospective studies included a control group. The majority of the included studies are of level 4 evidence. The lack of randomised controlled studies rendered it challenging to make definitive conclusions on the effectiveness of mesh use in aesthetic breast surgery.

Moreover, there is a lack of standardisation in reporting of surgical outcomes and complications among these studies. The technique of photographic documentation is not standardised among these studies, which confounds the measurements for comparison. The variety of mesh used in different studies contributed to the difficulty in analysing the effectiveness of their use in improving aesthetic breast surgery. The reported surgical outcome and complication rate associated with one type of mesh may not be applied to another type of mesh. In addition, the variation in surgical techniques described in each study and each aesthetic breast surgery is a confounding factor for this review.

It is also pertinent to note that financial interest with mesh manufacturers was reported in 18 of the 31 (58 %) included studies, significantly contributing to commercial bias. Authors of these 18 studies were either shareholders in the manufacturer companies or receivers of financial gain from the utilisation of mesh in these studies. This contributes significantly to potential effects on the overall perception of efficacy and safety of mesh use in aesthetic breast surgery.

Overall, all the included studies concluded with a favourable surgical outcome with the use of mesh in aesthetic breast surgeries. However, the outcome measure is limited by low levels of evidence, lack of standardisation of the outcome measure, lack of control group and small sample sizes.

Conclusion and future work

This narrative systematic review analysed the safety and effectiveness of using mesh in aesthetic breast surgeries from the literature. The 31 studies included in this review, encompassing 2,425 patients, generally reported favourable outcomes. All included studies concluded that the use of mesh was associated with improved breast aesthetics and high patient satisfaction. Complications reported in these studies were infrequent, including seroma, haematoma, and infection. However, the evidence base predominantly comprises of retrospective case series and small-sample prospective studies, with significant variability in mesh types, surgical techniques, and outcome measures. The heterogeneity of study design and the lack of standardisation in outcome measures rendered it impossible to conduct a meta-analysis in this review. Additionally, a significant proportion of studies demonstrated potential commercial bias due to financial associations with mesh manufacturers. Consequently, while preliminary results are promising, the current evidence is insufficient to recommend the routine use of mesh in aesthetic breast surgery. Future research should prioritise high-quality, unbiased studies with standardised methodologies and long-term follow-up to better ascertain the benefits and risks associated with mesh in these procedures.

Declaration of competing interest

None of the authors have any known conflict of interest.

Funding

The authors received no financial support for the research, authorship, and publication of this article.

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