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Article

Complication Rates after Breast Surgery with the Motiva Smooth Silk Surface Silicone Gel Implants—A Systematic Review and Meta-Analysis

by
Marie-Luise Aitzetmüller-Klietz
1,2,3,†,
Siling Yang
1,2,3,†,
Philipp Wiebringhaus
1,2,3,†,
Sascha Wellenbrock
1,2,3,
Mahmut Öztürk
1,2,3,
Maximilian Kückelhaus
1,2,3,
Tobias Hirsch
1,2,3 and
Matthias Michael Aitzetmüller-Klietz
1,2,3,*
1
Division of Plastic Surgery, University Hospital Muenster, Waldeyerstrasse 1, 48149 Muenster, Germany
2
Department for Plastic and Reconstructive Surgery, Institute for Musculoskeletal Medicine, Westfaelische Wilhelms-University Muenster, 48157 Muenster, Germany
3
Department of Plastic, Reconstructive, and Aesthetic Surgery, Hand Surgery, Fachklinik Hornheide, Dorbaumstrasse 300, 48157 Muenster, Germany
*
Author to whom correspondence should be addressed.
These authors contributed equally to this work.
J. Clin. Med. 2023, 12(5), 1881; https://doi.org/10.3390/jcm12051881
Submission received: 2 February 2023 / Revised: 13 February 2023 / Accepted: 23 February 2023 / Published: 27 February 2023
(This article belongs to the Special Issue Clinical Advances in Plastic and Aesthetic Surgery)

Abstract

:
Background: In an era where textured devices are being phased out due to concerns about BIA-ALCL, the Motiva SilkSurface breast implants intend to alleviate historical prosthesis-related complications. However, its safety and feasibility remain unelucidated. Methods: An analysis of Pubmed, Web of Science, Ovid, and Embase databases was performed. A total of 114 studies were identified initially, and 13 of these met the inclusion criteria and were assessed regarding postoperative parameters such as complication rate or follow-up period. Results: In 4784 patients who underwent breast augmentation with Motiva SilkSurface breast implants, a total of 250 (5.2%) complications were observed. Short- and medium-term complication rates ranged from 2.8–14.4% and 0.32–16.67%, respectively. The most common complication was early seroma (n = 52, overall incidence = 1.08%), followed by early hematoma (n = 28, overall incidence = 0.54%). The incidence of capsule contracture was 0.54% and breast implant-associated-anaplastic large cell lymphoma was not observed. Discussion: Although the majority of the studies in the current literature suggest the distinction of the Motiva SilkSurface breast implants in terms of postoperative complications and capsular contracture, its safety and feasibility need to be further elucidated with well-designed, large-scale, multicenter, prospective case-control studies. Other: No funding was received.

1. Introduction

According to the annual report of the American Society of Plastic Surgeons (ASPS), breast augmentation has been one of the five most frequently performed cosmetic procedures from 2006 to this date. Alone in 2020, 193,073 patients underwent breast augmentation, of whom 103,485 (54%) received breast implants [1]. Despite the paucity of global statistics, the number of patients with breast implants worldwide is estimated to be 35 million [2]. Considering the size of this patient population and the disconcerting previous experience with specific implants, the surveillance of these devices cannot be overstated.
Historically, breast implants have undergone at least three accountability crises since their invention in 1960 [3], resulting in considerable negative physical or psychological impact on those patients involved. In addition to the detrimental repercussions of the 1992 Dow Corning crisis and the 2010 Poly Implant Prothesis (PIP) crisis [3], breast implant-associated anaplastic large cell lymphoma (BIA-ALCL), which was initially described in 1997 [4], emerged as the third crisis of the last decades. In breast plastic surgery and especially in oncoplastic breast reconstructive surgery, acellular dermal matrices are used, which significantly improve surgical conditions by also promoting healing and forming aesthetic scars [5].
In an era where textured surface breast implants are globally recalled, Establishment Labs (Alajuela, Costa Rica) launched the SmoothSilk®/SilkSurface® technology. This led to the innovation of Motiva SilkSurface, which became the pioneer of the sixth generation of silicone breast implants. Since its introduction to the market in 2010, Motiva implants have undergone four major modifications (Figure 1). The first generation introduced the concept of SilkSurface to the market and remains one of the most favored breast implants to this day. Two years later, in addition to the enhancements in silicone gel (ProgressiveGel®PLUS), a new barrier technology (Bluseal®) was introduced to preclude potential silicone leakage. In 2014, Establishment Labs released their third-generation implant—Motiva Ergonomix®, which was featured to have “The most Natural Look and Feel” thanks to their newly utilized TrueTissue Technology®. By combining the unique properties of the ProgressiveGel Ultima® and special elastic elastomer shell, they were able to mimic the natural breast tissue by allowing the downward shifting of the point of maximum projection in an upright position to form a natural teardrop shape. Aside from the peculiarities of the previous version, the latest Motiva implants, Motiva Ergonomix2®, embodies enhanced high-strength silicone dispersion, also known as the Motiva SuperSilicones®. It is suggested to have better mechanical properties as well as better adaptation to changes [6,7,8].
For the assurance of product traceability, Establishment Labs also retails its implants with Q INSIDE SAFETY TECHNOLOGY™ where a radio-frequency identification device (RFID) is embedded in the prosthesis and transmits accurate product information when read with an RFID reader. Despite the promising advantages, the adoption of RFID has been subject to controversy due to artifacts in the screening of high-risk cancer patients and the potential violation of patient confidentiality.
Although the company claims that the Motiva implants represent the most innovative devices available today, the clinical evidence to demonstrate its safety and superiority is limited. This study investigates the outcome and complication rates of Motiva SilkSurface breast implants in clinical use, to provide an evidence-based safety assessment.

2. Materials and Methods

2.1. Retrieval Method

The study was performed in accordance with the Cochrane handbook and PRISMA guidelines [9,10]. The literature search and retrieval as well as the data extraction was carried out collectively by two research fellows on 13 July 2022 using the Pubmed, Web of Science, Ovid, and Embase databases. The retrieval was conducted using the keywords “Motiva implant” without any limitations regarding language, time, or article type due to the limited number of publications in the literature. Randomized controlled trials, and cross-sectional and cohort studies on Motiva implants were included. Figure 2 demonstrates the structure of the current study. The follow-up periods were stratified into short-term (less than or equal to 1 year), mid-term (more than 1 year and less than 5 years), and long-term (more than or equal to 5 years).

2.2. Inclusion Criteria

  • The studies in which the patients underwent breast augmentation using Motiva SilkSurface implants;
  • The study provided detailed raw data on surgical outcomes, i.e., postoperative complications;
  • The number of patients included was greater than two.

2.3. Exclusion Criteria

  • The reviews, meta-analyses, conference reports, letters, expert consensus, and other types of literature in which the clinical data were not available;
  • Case reports or case series with less than three patients included;
  • The manuscripts which were not available in full text.

2.4. Acquisition of the Clinical Data

The literature screening and data acquisition were performed by two research fellows in our department data in line with the aforementioned inclusion and exclusion criteria. The acquired data included:
  • Basic Characteristics such as the First Author, Date, and Country of the Publication, the Journal, Interval of the Study, Follow-Up Period, Number of Patients and Number of Prostheses, and the Disclosures
  • Patients’ Baseline Information: Age, Height, Weight, Body Mass Index (BMI); If no Information was Available this was Highlighted in the Manuscript
  • Information on Breast Implant and Surgical Procedures: Name of the Implant, Breast Augmentation Type, Surgical Approach, Breast Implant Volume, and Profile/Projection as well as the Number of Surgeons
  • Surgical Outcome by Means of Complication Rates

2.5. Statistical Analysis

Statistical and graphical analyses were performed using SPSS Advanced Statistics Software version 22.0 (SPSS Inc., Chicago, IL, USA). Categorical variables are expressed using frequencies and percentages.

3. Results

The PRISMA flow chart of the study is depicted in Figure 2. Subsequent to the literature search using Pubmed, Embase, Web of Science, and Ovid databases, and removing the duplicates, 54 articles were listed for initial evaluation. A total of 39 articles were excluded (irrelevant literature (n = 10); did not meet the inclusion criteria (n = 17); conference reports, expert consensus, corrigendum, or discussion (n = 12)). The remaining 15 studies were then reevaluated for inclusion. Two of these studies included either patients with different types of implants or did not provide sufficient data to be included (Figure 2). This resulted in the inclusion of 13 papers [11,12,13,14,15,16,17,18,19,20,21,22,23,24,25], with a total number of 4784 patients.
The majority of articles were from Asia—specifically from Korea (54%, n = 7). The countries of origin for included studies are shown in Figure 3. Similarly, the distribution of the studies per continent can be seen in Figure 4. The follow-up ranged from 4.2 months to 72 months. In terms of study design, retrospective analyses (77%, n = 10) constituted the majority. Eight of the 13 studies (62%) received funding from the corresponding device manufacturer or disclosed personal financial interest for an author with the device company. The characteristics of the included studies and baseline patient information are summarized in Table 1.

3.1. Implanted Devices

The generation, volume, profile, and projection of the Motiva SilkSurface implants that were used in each study are shown in Table 2. Third-generation Motiva breast implants (Motiva Ergonomix™) were preferred most frequently. As implants with different sizes can be used in the same patient to achieve symmetry, we refrained from using the number of patients for calculations and instead used the number of implants.

3.2. Operative Data

The majority of the patients (89%) underwent primary breast augmentation. In terms of the surgical incision and pocket selection, inframammary fold (IMF), and dual-plane techniques were the most frequent approaches. More than half of the studies irrigated the pocket with antibiotic solutions to mitigate a postoperative infection. Montelukast sodium, which is considered to reduce capsule contracture, was utilized only in two studies. Detailed operative data are shown in Table 3.

3.3. Complications

Of the 4784 patients who received breast augmentation with Motiva SilkSurface breast implants, 251 patients faced complications with an overall incidence rate of 5.25% (Table 4). The incidence rates for individual complications can be seen in Figure 5. Excluding miscellaneous complications, marked as “Others”, the most common complication was early seroma (n = 52, overall incidence = 1.09%) which was followed by early hematoma (n = 28, overall incidence = 0.59%). Short-term complication rates ranged from 2.63–15.79% while medium-term rates ranged from 0.32–16.67% (Figure 6). A reoperation was needed in only five studies and the need for reoperation ranged from 0% to 8.57%. These were mostly due to the recurrence of the complications or aesthetic needs.

4. Discussion

4.1. Safety Assessment of Motiva SilkSurface Breast Implants

The optimal outcome in breast reconstruction necessitates two cardinal features; the finest aesthetic without morbidity. Although both patients and their surgeons are primarily focused on the surgical outcome in terms of aesthetics, safety issues remain a major concern in the long term. Motiva products have been introduced to the market for more than ten years and are claimed to be cell-friendly and safe, as well as ergonomic. The third generation Motiva implants, Ergonomix SilkSurface Silicone Breast Implants, has attracted great attention due to the utilization of low viscosity, highly elastic 100% silicone gel with special rheological properties that would mimic the natural shape and dynamics of the human breast tissue. However, complications related to these implants have not yet been extensively investigated.
Possible postoperative complications of breast augmentation include capsular contracture, hematoma, seroma, chest pain, infection, asymmetry, implant displacement, and implant rupture, among others. The studies included in this manuscript reported a variety of complications again at varying rates, ranging from 0.3% to 68.6%, with a median complication rate of 8.7%. The divergence in reported rates can be justified by different follow-up periods and the surgical techniques in each study.
The TrueMonobloc technology in Ergonomix SilkSurface Silicone Breast Implants discards a gap formation the patch and the shell, forming a single uniform structure with enhanced tensile strength and thereby higher resistance to rupture [22]. The robustness of the shell has been reported to exceed standard regulatory standards and explains the existence of only one single prosthetic rupture complication in the patient series reported in this manuscript.
Coating of the breast implants mainly through glycoprotein deposition due to foreign body reaction is expected and does not typically cause chronic inflammation. However, in certain cases, this reaction can be convoluted by dysregulated immune response and infiltration of the thin fibrous layer around the implants with immune cells. Subclinical bacterial infection and micro degradation of the silicon or silicon itself have been hypothesized to aggravate this response, which can also result in capsular contracture in later stages [12]. Pain and discomfort in patients with capsular fibrosis or, in severe cases, deformation of the breast tissue as well as the implants would increase the need for revision surgery.
Third and fourth-generation breast implants were developed to minimize the incidence of capsule contraction through enhanced silicone cohesion. Elimination of the silicone leakage would prevent an excessive foreign body reaction and reduce the capsular contraction as a post-implantation complication [26]. To hinder the same complication, refinement of the surface topography was targeted in the sixth-generation breast implants [27].
Current research suggests the superiority of implants with textured surfaces over smooth surfaced devices with regard to the reduced incidence of postoperative capsular contracture [27,28]. It has been hypothesized that (1) the textured surfaces interrupt the planar arrangement of fibroblasts [29], (2) the infiltration of the breast tissue into the implants inhibits synovial chemotaxis [19], and (3) oscillatory interstitial fluid stress through micromotion of the implants alters fibroblast activity [30]. However, the unique topography of textured surfaces is suggested to pose a higher risk of breast implant-associated-anaplastic large cell lymphoma (BIA-ALCL) by easing bacterial biofilm formation and intensifying the chronic inflammatory response. Chronically triggered innate immunity and induced T-cell proliferation are thought to account for the malignant transformation in genetically susceptible individuals [31]. Considering the pitfalls of previous surface architectures, a shift to smooth or nano-surface implants appears inevitable.
The Motiva products have been gradually updated utilizing trademark technologies since its introduction, yet the SilkSurface technology remains the “fingerprint” of the product, distinguishing this product from its contenders. The outer shell topography of Motiva is created by 3D-inverted negative imprinting technology on the polydimethylsiloxane (PDMS) material without the use of foreign particles, unlike other implants that use sugar or salt crystal projection to create aggressive textures. The one-of-a-kind fine surface in Motiva implants is suggested to embody extreme delicacy with no loose particles and have 49,000 contact points of 16 μm depth per cm2 [32].
Characterizing the physical properties of the implant surface is the key to understanding how surface texture affects tissue response to breast implants. SilkSurface surface technology is used to enhance the biocompatibility of Motiva breast implants by reducing the tissue ingrowth of the implant, optimizing surface adsorption, and avoiding the release of particle fragments.
The extent of tissue ingrowth of the prosthesis is influenced by the surface texture of the implant. Smooth or nanotextured implants, like the Motiva implants, have a smooth and irregular microstructure with no pores, which lessens the number of sites for tissue ingrowth and limits tissue adhesion to the implant [33]. Motiva implants have a layered micro/nanotopography on their surface, which has been shown to affect cell attachment, proliferation, migration, and differentiation in various cell types and matrices [34]. Atlan et al. evaluated the surface texture of 12 different breast implant devices and found that smooth/nanotextured implants had the lowest ingrowth tendency compared to textured tissue [33].
The Motiva prostheses have been described as less invasive than traditional textured prostheses and more resistant to capsular contracture than smooth prostheses, as their silk surface is designed to minimize the foreign body reaction [16]. It has also been demonstrated that nanotextured breast implants may reduce bacterial growth in infected biofilms [35]. In addition, less foreign body reaction with higher levels of immunosuppressive FOXP3+ regulatory T-cell have been observed with the implants with an average roughness of 4 µm both in animals and humans [36].
Despite the presence of individual data sets mostly from single centers and accompanying evidence from translational research, the validation of the superiority of the silk surface breast implant necessitates multicenter clinical trials. In addition, in an era where textured breast implants are being gradually withdrawn from the market, there is still a need and potential for clinical studies comparing the characteristics and surgical outcomes of smooth surface and silk surface implants, especially concerning capsular contracture incidence.
Of the 13 clinical studies included in this study, only three compared the Motiva SilkSurface prostheses with others regarding postoperative complications. In this study, the incidence of capsular contracture after breast augmentation with the Motiva SilkSurface implants ranged from 0–2.06% with a median rate of 0.54%, which is lower than the capsular contracture rate of 3.6% reported by Namnoum for both smooth and textured implants [37]. Similarly, it was lower than what was reported in a ten-year follow-up study including smooth and textured implants [38], where the authors noted a sobering capsular contracture rate of 18.9–28.7%. Nevertheless, due to the limited number of studies with relatively short median follow-ups, we are still far away from reaching an absolute conclusion.
In addition, there are no reported cases of BIA-ALCL associated with Motiva implants. However, this does not specifically substantiate the freedom from BIA-ALCL following breast reconstruction with these implants as BIA-ALCL usually occurs 7–10 years post-surgery. There is only one clinical study in the literature with a follow-up of six years but again with a limited number of patients, and the FDA has reported a single case of BIA-ALCL in a patient with smooth breast implants [6].
With a roughness of 3.18 μm, Motiva SilkSurface breast implants are classified as smooth products according to the International Organization for Standardization (ISO) 14,607 [39]. Considering the tendency of smooth surfaced products to displacement, there might be reservations against these implants in the clinical setting. In the current study, we observed an overall displacement rate of 0.44%. An expert consensus on the application of Motiva SilkSurface prostheses suggests limited dissection for pocket creation to facilitate an optimal fitting of the device and limit potential expansion and displacement [40].

4.2. Research Status of Motiva Silksurface Breast Implants

Overall, clinical studies on Motiva SilkSurface breast implants are still limited. This may be partly due to its limited availability in different markets. For instance, the Korean Ministry of Food and Drug Safety (KMFDS) in South Korea approved these implants first in 2016 [17].
Similarly, its clinical investigation by FDA continues today, hence these implants are not still commercially available in the United States [21,41]. A possible reason for its limited adoption might also be the high cost of Motiva implants, which could influence the patient’s choice. According to a study by Moon et al., the mean cost of surgery using Motiva Ergonomix SilkSurface was 8450.02 USD, which was significantly higher when compared to the other six prostheses [15].
As far as the origin of studies in the current literature is concerned, Europe accounts for more than half of the studies on Motiva implants so far. Therefore, the current data that is available cannot be used to make implications on all patients without considering ethnicity-related variables such as skin elasticity, wound healing, and divergence in the immune response. More clinical data on the use of Motiva SilkSurface implant for breast augmentation from Asia, the Americas, Oceania, and Africa would definitely be propitious for optimal patient selection and prevention of potential complications in the future.
For the sake of completeness, it is also crucial to mention the potential limitation of the studies that are included in this study. Most of the current studies are retrospective in nature and prone to selection and information bias. Additionally, the credibility of the studies and their findings are directly affected by the number of patients included and their limited follow-up periods. In addition, most of the studies are designed as single-arm and lack control groups with other prostheses being implanted by the same surgeons with comparable techniques. With different surgical approaches utilized and designs of the studies that are included in this manuscript, it is difficult to conclude exact complication rates and their etiology. Different assessment tools (MRI, ultrasound, or patient report), different surgical incisions, and pocket selection as well as patient characteristics could mask appropriate comparison of the outcome. Additionally, a main limitation of this analysis represents the limited accessibility to standardized high-quality studies with an adequate follow-up time.
It is also worth mentioning that the results of manufacturer-sponsored studies should be interpreted with caution [19,42]. Eight of the thirteen (62%) studies included in this manuscript, either had funding from device manufacturers or one or more authors had a financial relationship with manufacturing companies. Interestingly, a study supported by Establishment Labs showed the lowest complication rate in the largest patient group (n = 2502) [25].
Considering the scarcity of the literature on Motiva SilkSurface implants, more prospective, multicenter case-control studies are needed to assess and validate the safety of these implants. National breast implant registries which have been initially established due to concerns about breast implant illness (BII) and BIA-ALCL are and will be the most reliable sources of information on patients with these implants [43]. In addition, despite limited adoption due to patient privacy concerns, the Qid technology could theoretically improve adherence in follow-up, and provide non-biased, standardized data in the near future.

5. Conclusions

Although the majority of the studies in the current literature suggest the distinction of the Motiva SilkSurface breast implants in terms of postoperative complications and capsular contracture, its safety and feasibility need to be elucidated with well-designed, large-scale, multicenter, prospective case-control studies with longer follow-ups.

Author Contributions

Conceptualization, M.-L.A.-K., S.Y. and P.W.; methodology, S.Y.; software, S.Y.; validation, M.-L.A.-K., S.Y. and P.W.; formal analysis, M.M.A.-K. and S.Y.; investigation, M.-L.A.-K., M.M.A.-K. and P.W.; resources, S.Y. and M.M.A.-K.; data curation, S.Y. and M.M.A.-K.; writing—original draft preparation, S.Y., M.-L.A.-K., and P.W.; writing—review and editing, M.M.A.-K., S.W., M.Ö., T.H. and M.K.; visualization, S.Y., M.M.A.-K. and M.Ö.; supervision, M.K., T.H., P.W. and S.W.; project administration, S.Y., M.-L.A.-K., M.M.A.-K. and P.W.; funding acquisition. All authors have read and agreed to the published version of the manuscript.

Funding

We acknowledge support from the Open Access Publication Fund of the University of Muenster.

Institutional Review Board Statement

Not applicable.

Informed Consent Statement

Not applicable.

Data Availability Statement

All included data will be available on request to the corresponding author.

Acknowledgments

We thank the China Scholarship Council for supporting Siling Yang during her research at the University of Muenster. Marie-Luise Aitzetmüller-Klietz is is a recipient of a scholarship of the “Research Funding For Women” from the Westfälische-Wilhelm’s-University Münster.

Conflicts of Interest

The authors declare no conflict of interest.

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Figure 1. Timeline for Motiva technology and product update.
Figure 1. Timeline for Motiva technology and product update.
Jcm 12 01881 g001
Figure 2. Flow diagram of the literature search and selection (PRISMA compliant flow chart).
Figure 2. Flow diagram of the literature search and selection (PRISMA compliant flow chart).
Jcm 12 01881 g002
Figure 3. Country distribution of selected Motiva studies.
Figure 3. Country distribution of selected Motiva studies.
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Figure 4. Continent distribution of the patient enrolled in the selected Motiva studies.
Figure 4. Continent distribution of the patient enrolled in the selected Motiva studies.
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Figure 5. The total incidence of complications.
Figure 5. The total incidence of complications.
Jcm 12 01881 g005
Figure 6. Complication rate of each study in %.
Figure 6. Complication rate of each study in %.
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Table 1. The basic characteristics of the included literature and patients’ baseline information.
Table 1. The basic characteristics of the included literature and patients’ baseline information.
NOFirst AuthorYearJournalCountryTime PeriodNumber of PatientNumber of ImplantResearch DesignFU
(Month)
AgeHeight (cm)Weight (kg)BMIDisclosures Funding
1Giovanni Botti [12]2022ASJItaly04.2014–10.2018356712Retrospective35.934.1NANANADr. Botti is an educator in the MotivaEdge (Motiva, Houston, TX, USA)none
2Sanghyuk Han [13]2021MedicinaKorea01.2017–08.2021312624Retrospective12.68 ± 0.5834.19 ± 8.62163.58 ± 5.0952.29 ± 5.78NAnonenone
3Alexandre
Mendonça
Munhoz [14]
2021ASJBrazil06.2017–02.20194284Retrospective1834.6NANA18.8Dr.Munhoz serves as a consultant/board member for Establishment Labs, Holdings, Inc. (Alajuela, Costa Rica) and has shares of stocks in the companynone
4Dong Seung Moon [15]2021Journal of Plastic Surgery and Hand SurgeryKorea09.2017–04.201976152Retrospective4.2 ± 3.8835.84 ± 8.60163.67 ± 5.1252.45 ± 5.72NAnonenone
5Paolo
Montemurro
[16]
2021ASJSingapore07.2016–03.2019161322Retrospective24.330.8NANA20.36Dr. Montemurro served as an independent speaker for Motiva (Establishment Labs, Alajuela, Costa Rica) none
6Sangdal Lee [17]2021ASJ openKorea09.2017–12.202069138Retrospective9.75 ± 9.2134.2 ± 8.2163.5 ± 5.151.6 ± 5.519.3 ± 1.8Dr.Lee is an investigator, speaker, and consultant for Motiva Korea Ltd. none
7Pa Hong [19]2021APSKorea09.2016–08.20208731746Retrospective18.50 ± 5.8832.18 ± 6.88165.67 ± 15.2349.37 ± 4.16NAnonenone
8Seanhyuck Yoon [20]2020PRS openKorea01.2017–03.2018152304Retrospective7.17 ± 5.3636.67 ± 7.77161.75 ± 5.3750.58 ± 5.34NAnoneThis study was sponsored by the HansBiomed Co. Ltd.
9João
Maximiliano
[21]
2020ASJBrazil06.2017–04.20193060Prospective1833NANA21.1Dr Munhoz serves as a consultant/board member for Establishment Labs, Holdings, Inc; and has shares of stocks in the companynone
10Manuel Chacón
Quirós [22]
2019ASJCosta Rica09.2010–12.20103570Prospective7231.5NA55.821.9 Dr.Manuel Chacón Quirós and Dr.Manuel Chacón Bolaños are relatives of the CEO of Establishment Labs.this study was funded by Establishment Labs Holdings Inc. (New York, NY)
11Hyung-Bo Sim [23]2019ASJKorea06.2015–05.201876152Prospective1227.7165.253.419.5nonenone
12Georg M. Huemer [24]2018PRSGermany2014–2017100200Retrospectiveminimum of 632.8NANA20.6nonenone
13Marcos Sforza
[25]
2018ASJUK04.2013–04.201625025004Retrospective23.0328.2 ± 10.98NANANADr. Sforza serves as coordinator of the Medical Advisory Board, has a consulting agreement with Establishment Labs Holdings, IncThis article was supported by Establishment Labs (Alajuela, Costa Rica)
Table 2. The characteristics of implants.
Table 2. The characteristics of implants.
NOFirst AuthorImplantGenerationVolume (CC)ProfileProjection
≤245CC250–295CC300–345CC350–395CC≥400CCUltrahighHighMediumLowCorséFullDemiMini
1Giovanni Botti [12]Motiva Ergonomix®3mean = 240ccNANA
2Sanghyuk Han [13]Motiva Ergonomix®3632543430360192720NA
3Alexandre
Mendonça
Munhoz [14]
Motiva Ergonomix®3mean = 255ccNA08400
4Dong Seung Moon [15]Motiva Ergonomix®36315536240130220NA
5Paolo
Montemurro
[16]
Motiva Ergonomix®/Motiva SilkSurface PLUS®(Round)2 or 3mean = 341.82ccNANA
6Sangdal Lee [17]Motiva Ergonomix®33554622120124140NA
7Pa Hong [19]Motiva Ergonomix®33022897242096NANA
8Seanhyuck Yoon [20]Motiva Ergonomix®3299116222NANA
9João
Maximiliano
[21]
Motiva Ergonomix®3mean = 265cc0600006000
10Manuel Chacón
Quirós [22]
Motiva SilkSurface®1mean = 326.70NANA
11Hyung-Bo Sim [23]Motiva Ergonomix®329814020NA031427
12Georg M. Huemer [24]Motiva Ergonomix®3mean = 368ccNA2130680
13Marcos Sforza
[25]
Motiva SilkSurface PLUS®2NANANA
Table 3. The surgical techniques of included studies.
Table 3. The surgical techniques of included studies.
NOFirst AuthorBA typeIncisionPocketNumber of SurgeonsPocket IrrigationOthers
PrimarySecondaryAxillaryIMFPeri-AreolarOthersSub-
Pectoral
Sub-
Glandular
Sub-FascialDual-planeOthers
1Giovanni Botti [12]2827454196107028003280NA×
2Sanghyuk Han [13]312026828160253590004H2O2 solution, betadinemontelukast sodium was used
3Alexandre
Mendonça
Munhoz [14]
2319420000042001antibiotic solutionAFG
4Dong Seung Moon [15]NANA657400007601H2O2 solution, betadinemontelukast sodium was used
5Paolo
Montemurro [16]
1610016100013014801antibiotic solution
6Sangdal Lee [17]69068010690000NAH2O2 solution, betadine
7Pa Hong [19]87300873000008730NABetadine Triple Antibiotic solution
8Seanhyuck Yoon [20]1302201474100015202NA
9João
Maximiliano [21]
300255000030001NAAFG
10Manuel Chacón
Quirós [22]
35013400245510NA×
11Hyung-Bo Sim [23]76076000007600NApovidone-iodine, gentamicin, 10% tranexamic acid, and normal salineAFG
12Georg M. Huemer [24]100001000000010001NA
13Marcos Sforza [25]21263760mostNANANANA0mostNA16×
Table 4. The complications and reoperation of included studies.
Table 4. The complications and reoperation of included studies.
NOFirst AuthorNO of PatientReoperationsReoperation RateComplicationsIncidenceComplications
Early HematomaEarly SeromaRuptureCCRipplingShape DeformationInfectionDisplacementAsymmetryIncision ProblemOthers
1Giovanni Botti [12]356NANA61.69%30020001000
2Sanghyuk Han [13]312NANA4012.82%420000120000Stretch deformities with skin excess: 4
3Alexandre
Mendonça
Munhoz [14]
4212.38%716.67%1001000002subcutaneous banding in the axilla: 3
4Dong Seung Moon [15]76NANA1215.79%1400040100thickened capsule:1,others:1
5Paolo
Montemurro
[16]
161NANA148.70%000200012000
6Sangdal Lee [17]69NANA68.70%0201020000foreign body sensation:1
7Pa Hong [19]873NANA11112.71%1824018306090Dissatisfaction with shape:17,Dissatisfaction with size:16
8Seanhyuck Yoon [20]152NANA117.24%0102101310Dissatisfaction with size:1,Psychological distress:1
9João
Maximiliano
[21]
3013.33%310.00%0000000001subcutaneous banding in the axilla: 2
10Manuel Chacón
Quirós [22]
3538.57%2468.57%0000000000Changes in nipple sensitivity:3,Pain:2,Ptosis:17,Twinges:2
11Hyung-Bo Sim [23]7600.00%22.63%0000000000Contour visibility:2
12Georg M. Huemer [24]10077.00%77.00%1010000400Dissatisfaction with size:1
13Marcos Sforza
[25]
2502NANA80.32%01000010060
Total 4784————2515.25%285212641882110974
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Aitzetmüller-Klietz, M.-L.; Yang, S.; Wiebringhaus, P.; Wellenbrock, S.; Öztürk, M.; Kückelhaus, M.; Hirsch, T.; Aitzetmüller-Klietz, M.M. Complication Rates after Breast Surgery with the Motiva Smooth Silk Surface Silicone Gel Implants—A Systematic Review and Meta-Analysis. J. Clin. Med. 2023, 12, 1881. https://doi.org/10.3390/jcm12051881

AMA Style

Aitzetmüller-Klietz M-L, Yang S, Wiebringhaus P, Wellenbrock S, Öztürk M, Kückelhaus M, Hirsch T, Aitzetmüller-Klietz MM. Complication Rates after Breast Surgery with the Motiva Smooth Silk Surface Silicone Gel Implants—A Systematic Review and Meta-Analysis. Journal of Clinical Medicine. 2023; 12(5):1881. https://doi.org/10.3390/jcm12051881

Chicago/Turabian Style

Aitzetmüller-Klietz, Marie-Luise, Siling Yang, Philipp Wiebringhaus, Sascha Wellenbrock, Mahmut Öztürk, Maximilian Kückelhaus, Tobias Hirsch, and Matthias Michael Aitzetmüller-Klietz. 2023. "Complication Rates after Breast Surgery with the Motiva Smooth Silk Surface Silicone Gel Implants—A Systematic Review and Meta-Analysis" Journal of Clinical Medicine 12, no. 5: 1881. https://doi.org/10.3390/jcm12051881

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