Abstract
Objective: This study aims to compare the effects of three-dimensional (3D) laparoscopic ovarian cystectomy on ovarian reserve according to different
types of ovarian cysts.
Materials and methods
Participants who underwent surgical treatment for ovarian cysts between 2018 and 2020 were included in this study. Anti-
müllerian hormone (AMH) and follicle-stimulating hormone (FSH) levels were measured before surgery and six months postoperatively. All procedures
were performed under general anesthesia using 3D laparoscopy. Participants were classified into three groups based on histopathological findings:
group 1, endometriomas; group 2, mature cystic teratomas (dermoid cysts); and group 3, serous or mucinous cystadenomas.
Results
A total of 51 women were included in the study. No significant differences were observed between the groups in terms of perioperative variables
such as operation time, intraoperative blood loss, postoperative hemoglobin decrease, and maximum cyst diameter. There were also no significant differences
among the groups in preoperative AMH (p=0.97) and FSH (p=0.22) levels. Postoperative AMH levels were significantly lower than preoperative values in
both the endometrioma group (p<0.001) and the dermoid cyst group (p=0.004). The reduction in AMH levels was more pronounced in the endometrioma
group compared to the other groups. Postoperative FSH levels tended to increase in all groups compared to preoperative levels; however, this increase was
not statistically significant (p=0.092).
Conclusion
3D laparoscopic cystectomy for the removal of endometriomas and dermoid cysts significantly reduces ovarian reserve. In contrast, laparoscopic
cystectomy for serous or mucinous cysts appears to have no significant impact on ovarian reserve.
Keywords
3D laparoscopy, AMH, dermoid cyst, endometrioma ovarian cyst, ovarian reserve
Sabahattin Anıl Arı1, Çağdaş Şahin2, Ali Akdemir2, Ahmet Mete Ergenoğlu2, Ahmet Özgür Yeniel2,
Mustafa Coşan Terek2, İsmail Mete İtil2, Teksin Çırpan2
1İzmir Bakırçay University Faculty of Medicine, Department of Obstetrics and Gynecology, İzmir, Türkiye
2Ege University Faculty of Medicine, Department of Obstetrics and Gynecology, İzmir, Türkiye
DOI: 10.4274/tjod.galenos.2025.38259
Üç boyutlu laparoskopik kistektomi sonrası yumurtalık kisti
tiplerinin yumurtalık rezervi üzerindeki etkileri
Effects of ovarian cyst types on ovarian reserve after
three-dimensional laparoscopic cystectomy
Arı et al. Ovarian reserve post-3D cystectomy
Introduction
Ovarian cysts affect approximately 7% of women during their
lifetime and are particularly common during the reproductive
years(1). Given that ovarian cysts often become symptomatic
during the reproductive years, fertility preservation is a primary
concern in their management. For clinicians, this concern is
typically assessed through evaluation of ovarian reserve (OR).
While age remains the leading factor influencing OR, medical
interventions like surgery, radiation, and chemotherapy can
also have a negative impact on its status(2). Several biochemical
and ultrasonographic markers are used to assess OR. Among
these, anti-müllerian hormone (AMH) stands out as a reliable
and practical indicator(3). Moreover, AMH serves as a sensitive
marker for assessing iatrogenic damage to ovarian function (4).
In addition, the measurement of basal follicle-stimulating
hormone (FSH) levels is a well-established, straightforward,
and reliable method for assessing OR (5). FSH is a glycoprotein
polypeptide hormone produced by the gonadotropic cells of
the anterior pituitary gland(6).
Although simple functional cysts are typically managed
conservatively to preserve OR during reproductive age,
surgical intervention is often indicated for cyst types such
as endometriomas and mature cystic teratomas, which are
unlikely to resolve spontaneously, particularly in the presence
of suspicious ultrasonographic findings.
Laparoscopic ovarian cystectomy is the preferred surgical
Method
for ovarian cysts suspected to be benign. Although this
procedure is typically regarded as fertility-preserving, recent
concerns have arisen about its possible effects on OR. During
cyst enucleation, there is a risk of unintentionally removing
healthy ovarian tissue or causing mechanical or thermal damage
to the ovarian cortex(1). Literature presents conflicting evidence,
and no definitive conclusions have been reached regarding this
issue.
Another unresolved question in the literature concerns the
comparative advantages of two-dimensional (2D) versus
three-dimensional (3D) laparoscopy. 3D laparoscopy offers
enhanced depth perception and spatial orientation compared
to conventional 2D laparoscopy, potentially enabling greater
surgical precision. This improved precision may enhance the
surgeon’s performance during laparoscopic ovarian procedures
and help mitigate the negative impact on OR. Several studies
have demonstrated the specific advantages of 3D laparoscopy,
particularly during the dissection and laparoscopic suturing
phases(7).
This study was designed to evaluate the impact of cystectomy
performed using 3D laparoscopy on OR across different cyst
types, with the aim of contributing to the clinical management
of such cases.
Materials and methods
Patients who presented to the Department of Obstetrics and
Gynecology at Ege University Faculty of Medicine between
2018 and 2020, and underwent surgical treatment for ovarian
cysts were evaluated for inclusion in this prospective cohort
study based on predefined inclusion and exclusion criteria.
All participants were informed about the study both verbally
and in writing, and written informed consent was obtained
prior to enrollment. The study protocol was approved by the
Ethics Committee of Ege University Faculty of Medicine on
April 29, 2016 (approval number: 16-4T/56). This research
was supported by the Ege University Scientific Research
Projects Coordination Unit under project number 17-TIP-056.
All procedures in this study were carried out in compliance
with the ethical guidelines established by the institutional
research committee, the 1964 Declaration of Helsinki, and its
subsequent revisions or equivalent ethical standards. The study
was registered at ClinicalTrials.gov (NCT05054946).
The inclusion criteria were defined as being between 18 and
40 years of age and having no history of prior ovarian surgery,
to standardize the cohort and eliminate potential iatrogenic
effects on OR. Exclusion criteria consisted of the presence of
endocrinological disorders, suspected malignancy based on
preoperative laboratory and ultrasonographic assessments, or
histopathological confirmation of malignancy, as these factors
could influence OR. The main outcome measure was serum
AMH levels, which were evaluated six months after surgery.
All participants underwent a preoperative evaluation of cyst size
and morphology using either transvaginal or transabdominal
ultrasonography (Voluson E8, GE Healthcare, Chicago, IL,
USA) employing a RAB 4-8D 4D transabdominal probe
and a multifrequency 5-7.5 MHz transvaginal probe. Cyst
size was calculated by averaging the maximum diameter
and the diameter perpendicular to it as measured during
ultrasonographic examination. Blood samples were collected
from all participants during the early follicular phase (days 1-5
of the menstrual cycle) following 8-10 hours of fasting. The
Bulgular: Çalışmaya toplam 51 kadın dahil edildi. Gruplar arasında ameliyat süresi, intraoperatif kan kaybı, postoperatif hemoglobin azalması ve maksimum
kist çapı gibi perioperatif bulgular açısından anlamlı bir fark bulunmadı. Gruplar arasında preoperatif AMH (p=0,97) ve preoperatif FSH (p=0,22) değerleri
açısından anlamlı bir fark yoktu. Endometrioma (p<0,001) ve dermoid kist (p=0,004) gruplarında postoperatif AMH değerleri preoperatif AMH değerlerine
kıyasla anlamlı derecede düşüktü. Preoperatif ve postoperatif AMH azalması endometriozis grubunda diğer gruplara göre daha belirgindi. Tüm gruplardaki
postoperatif FSH seviyeleri preoperatif seviyelere kıyasla artma eğilimindeydi, ancak artış anlamlı bir seviyeye ulaşmadı (p=0,092).
Sonuç: Endometrioma ve dermoid kistleri çıkarmak için yapılan 3D laparoskopik kistektomi over rezervini önemli ölçüde azaltır. Seröz-müsinöz kistler
için yapılan laparoskopik kistektomi over rezervi etkilemez.
Anahtar Kelimeler: 3D laparoskopi, AMH, dermoid kist, endometrioma, over kisti, over rezervi
Arı et al. Ovarian reserve post-3D cystectomy
same procedure was repeated for six months postoperatively.
To measure serum AMH concentrations, blood samples were
first centrifuged at 1600 g for 10 minutes. The separated serum
fractions were then preserved at -80 °C until the completion
of sample collection from all participants. Subsequently, AMH
levels were analyzed in batches using the AMH Gen II ELISA kit
provided by Beckman Coulter Inc. (Brea, CA, USA). For FSH
measurement, blood samples were collected in separator gel
tubes, centrifuged at 1400 g for 10 minutes, and analyzed using
the Beckman Coulter DXI 800 immunoassay system (Beckman
Coulter Inc., Brea, CA, USA).
Based on histopathological findings, the participants were
classified into three distinct groups: Group 1 included cases
of endometrioma, group 2 comprised mature cystic teratomas
(dermoid cysts), and group 3 encompassed serous or mucinous
cystadenomas. During surgery, the cyst wall was carefully
dissected and stripped from the adjacent normal ovarian tissue.
Hemostasis was achieved by applying bipolar coagulation at
bleeding sites. When required, ovarian reconstruction was
performed using a 4-0 absorbable suture (polyglycolic acid,
Vicryl Rapide™, Ethicon, Germany). To minimize the risk
of postoperative adhesion, the surgical field was irrigated
extensively with warm saline. All participants were discharged
on the first postoperative day following an uneventful recovery
period.
Statistical Analysis
Statistical analyses were performed using IBM SPSS Statistics
version 22.0 (IBM Corp., Armonk, NY, USA). The distribution of
variables was examined through the Kolmogorov-Smirnov test.
For continuous variables, descriptive statistics are presented as
mean ± standard deviation for normally distributed data and as
median (range) for non-normally distributed data. Categorical
variables are represented as frequencies and percentages [n
(%)]. The chi-square test or Fisher’s exact test was used for
comparing categorical variables, as appropriate. For continuous
variables, the Student’s t-test was applied when the data
followed a normal distribution, while the Mann-Whitney U test
was used for non-normally distributed data. A p-value of <0.05
was considered statistically significant.
Results
According to the inclusion criteria, 51 participants were
initially enrolled in the study. However, four participants with
hypothyroidism, three with malignancies identified through
frozen section and final histopathological evaluation, and one
who failed to attend the 6-month follow-up were subsequently
excluded. No participants declined to participate in the study.
Consequently, a total of 43 participants were included in the
final analysis.
The mean age of the participants was 28.19±6.14 years in the
endometrioma group (n=16), 28.38±6.70 years in the dermoid
cyst group, and 26.82±5.72 years in the serous or mucinous
cystadenoma group. No significant differences were observed
between the groups regarding age, gravidity, or parity (Table 1).
The mean operative times were 68.13±21.86 minutes in
the endometrioma group, 74.38±28.10 minutes in the
dermoid cyst group, and 77.73±25.53 minutes in the serous/
mucinous cyst group. There were no significant differences
between the groups (p=0.56) (Table 2). Intraoperative blood
loss and postoperative hemoglobin decrease were as follows:
83.75±95.57 mL and 1.55±0.78 g/dL in the endometrioma
group; 35.00±35.37 mL and 1.56±1.03 g/dL in the dermoid cyst
group; and 71.09±58.00 mL and 1.42±0.77 g/dL in the serous/
mucinous cyst group. There were no statistically significant
differences among the groups in terms of intraoperative blood
loss (p=0.054) or postoperative hemoglobin reduction (p=0.9)
(Table 2).
The mean maximum cyst diameters were 54.65±14.91 mm in
the endometrioma group, 51.68±16.16 mm in the dermoid cyst
group, and 56.09±8.75 mm in the serous/mucinous cyst group.
No significant differences were found between the groups
regarding cyst diameter (p=0.7) (Table 2).
Preoperative AMH levels we re 4.20±3.27 ng/mL in the
endometrioma group, 4.40±4.28 ng/mL in the dermoid cyst
group, and 4.14±3.06 ng/mL in the serous/mucinous cyst
group. The mean preoperative FSH levels were 6.56±2.58
mIU/mL, 6.51±2.46 mIU/mL, and 7.34±0.98 mIU/mL in
the endometrioma, dermoid cyst, and serous/mucinous cyst
groups, respectively. There were no significant differences
among the groups in terms of preoperative AMH (p=0.97) or
FSH levels (p=0.22) (Table 3).
Table 1. Patients’ characteristics
Endometrioma (n=16) Dermoid cyst (n=16) Serous or mucinous cystadenoma
(n=11)
p
Mean SD Median
(Min-Max) Mean SD Median
(Min-Max) Mean SD Median
(Min-Max)
Age (year) 28.19±6.14 27 (19-39) 28.38±6.70 29 (18-40) 26.82±5.72 25 (20-37) 0.79
Gravida 0.44±1.0 0 (0-4) 0.94±1.28 0 (0-4) 0.45±0.93 0 (0-3) 0.37
Parity 0.38±0.80 0 (0-3) 0.50±0.73 0 (0-2) 0.36±0.67 0 (0-2) 0.73
SD: Standard deviation, Min: Minimum, Max: Maximum
Arı et al. Ovarian reserve post-3D cystectomy
Group-wise analysis revealed a significant postoperative
decline in AMH levels compared to preoperative values in
both the endometrioma group (p<0.001) and the dermoid
cyst group (p=0.004). In contrast, the serous/mucinous cyst
group did not exhibit a statistically significant change in AMH
levels postoperatively (p=0.297). The reduction in AMH was
more pronounced in the endometrioma and dermoid cyst
groups compared to the serous/mucinous cyst group (Figure
1). However, no significant difference was found between the
endometrioma and dermoid cyst groups in terms of AMH
reduction.
Comparison of preoperative and postoperative FSH levels
showed a trend toward increased postoperative FSH values
across all three groups; however, this increase did not reach
statistical significance (p=0.092) (Figure 2).
No significant differences were observed among the three
groups regarding postoperative AMH (p=0.14) and FSH
(p=0.15) levels.
Table 2. Peri-operative findings
Endometrioma (n=16) Dermoid cyst (n=16) Serous or mucinous cystadenoma
(n=11)
p
Mean SD Median
(Min-Max) Mean SD Median
(Min-Max) Mean SD Median
(Min-Max)
Surgery time (min) 68.13±21.86 61 (45-110) 74.38±28.10 70 (35-130) 77.73±25.53 70 (40-120) 0.56
Blood loss (mL) 83.75±95.57 52.50 (10-400) 35.00±35.37 22.50 (2-110) 71.09±58.00 50 (10-190) 0.054
Hb change 1.55±0.78 1.45 (0.60-3.10) 1.56±1.03 1.30 (0.50-4.20) 1.42±0.77 1.20 (0.50-2.50) 0.9
Max cyst diameter
(mm) 54.65±14.91 51 (34-81) 51.68±16.16 52.75 (23.5-74) 56.09±8.75 55 (40-75.5) 0.70
SD: Standard deviation, Min: Minimum, Max: Maximum, Hb: Hemoglobin, min: Minutes
Table 3. Ovarian reserve markers
Endometrioma (n=16) Dermoid cyst (n=16) Serous or mucinous
cystadenoma (n=11)
p
Mean SD Median
(Min-Max) Mean SD Median
(Min-Max) Mean SD Median
(Min-Max)
Preop AMH
(ng/mL) 4.20±3.27 2.76 (0.67-10.94) 4.40±4.28 2.52 (0.81-16.12) 4.14±3.06 4.09 (0.67-9.42) 0.97
Postop AMH
(ng/mL) 2.14±2.24 1.59 (0.15-7.84) 3.16±2.88 2.27 (0.50-11.8) 3.63±3.24 2.49 (0.92-11.81) 0.14
Preop FSH
(mlU/mL) 6.56±2.58 7.14 (0.30-10.09) 6.51±2.46 6.56 (1.68-10.77) 7.34±0.98 7.08 (6.31-9.89) 0.22
Postop FSH
(mlU/mL) 7.67±3.51 6.78 (2.94-16.66) 7.12±3.43 7.30 (1.45-16.41) 8.33±1.31 8.13 (5.65-10.4) 0.15
SD: Standard deviation, Min: Minimum, Max: Maximum, AMH: Anti-müllerian hormone, FSH: Follicle-stimulating hormone, Preop: Preoperative, Postop: Postoperative
Figure 2. xx
Figure 1. xx
Arı et al. Ovarian reserve post-3D cystectomy
Discussion
In this prospective cohort study, the impact of 3D laparoscopic
ovarian cystectomy on OR was evaluated with respect to varying
types of ovarian cysts. The analysis demonstrated no statistically
significant differences in preoperative AMH (p=0.97) or FSH
(p=0.22) levels among the groups, suggesting that the presence
of endometriomas, dermoid cysts, or serous/mucinous cysts
does not independently influence baseline OR. However, by the
end of the study, surgical intervention for endometriomas and
dermoid cysts was associated with a significant decline in OR,
whereas no such impact was observed in patients with serous
or mucinous cysts.
Endometrioma is defined as the presence of ectopic endometrial
tissue within the ovary. Surgical treatment is often indicated to
alleviate pelvic pain, prevent complications such as cyst rupture
or ovarian torsion, exclude malignancy, and address infertility.
Among its potential complications are ovarian torsion and
spontaneous rupture. In subfertile patients, surgical removal of
endometriomas has been associated with improved pregnancy
rates(8). While surgical treatment of endometriomas has been
shown to increase spontaneous pregnancy rates, it does not
appear to significantly influence the outcomes of in vitro
fertilization(8). Whether endometriomas impair ovarian function
remains a subject of ongoing debate. In a study evaluating 1,199
cycles in 244 women with unilateral endometrioma, ovulation
was found to occur at similar rates in both the affected and
unaffected ovaries(9). In contrast, a meta-analysis encompassing
eight studies demonstrated that endometrioma excision led to
an average reduction of 38% in serum AMH levels, suggesting
a potentially detrimental effect on OR (10). OR loss is higher
in recurrent surgeries compared to one definitive surgery (11).
Therefore, repetitive ovarian endometrioma surgeries should
be avoided as much as possible. The recurrence rate of
endometriomas is up to 25% (12). Postoperative hormonal
suppression options should be considered to avoid repetitive
surgeries.
Ovarian germ cell tumors arise from ovarian primordial germ
cells and constitute 20-25% of ovarian neoplasms. Malignancies
are detected in only 5% of these neoplasms (13). These tumors
usually affect females between the ages of 10 to 30. Benign
cystic mature teratomas, also known as dermoid cysts, are the
most frequently encountered ovarian germ cell tumors. Almost
all are benign (14). Surgery is recommended for confirmation
of diagnosis, exclusion of malignancy, preservation of OR,
prevention of complications such as torsion and rupture, and
relieving symptoms, if any. The abdomen should be washed
with plenty of water to avoid chemical peritonitis at the end of
the surgery.
Serous and mucinous cystadenomas are the most common
benign ovarian neoplasms. These cysts may be thin-walled,
unilocular, or multilocular, and typically range in size from 5 to
20 cm. Mucinous cysts are less common than serous cysts and
are more frequently multilocular. Histologically, the inner lining
of serous cysts resembles tubal epithelium, whereas mucinous
cysts are usually lined with endocervical or gastrointestinal-
type epithelium. Most serous and mucinous cystadenomas
are asymptomatic and are often detected incidentally during
ultrasound examinations.
According to current literature, surgical excision of
endometriomas is generally associated with a more substantial
decline in OR compared to other cyst types. The impact of
dermoid cyst removal on OR remains controversial. One study
investigating the early postoperative effects of laparoscopic
unilateral ovarian cystectomy reported comparable reductions
in AMH levels in both the endometrioma and dermoid cyst
groups, with significantly smaller decreases observed in the
simple cyst group (15). Although our study focuses on longer-
term outcomes, these findings align with our observations.
Cyst size also plays a role in OR outcomes. Henes et al. (16)
demonstrated a significant AMH decrease post-surgery only in
women with cysts ≥5 cm. Conversely, Lind et al. (1) reported
that factors such as cyst size, patient age, timing of surgery,
and intraoperative blood loss did not significantly influence
OR. In their study, which included 75 women undergoing
ovarian surgery, AMH levels were measured preoperatively and
at six months postoperatively. A significant reduction in AMH
levels was observed in patients with endometriomas when
compared to those with dermoid cysts. While a postoperative
decrease in AMH was also noted in the functional cyst group,
it did not reach statistical significance. Interestingly, the study
revealed that patients with elevated baseline AMH levels (AMH
>4 ng/mL) experienced a more substantial decrease in AMH
six months after surgery compared to those with normal or
low baseline AMH levels (1). Our findings are consistent with
previous research, demonstrating a greater decline in OR in
the endometrioma group compared to the dermoid cyst group.
However, this difference did not reach statistical significance.
In another prospective observational study involving 71
women undergoing their first unilateral ovarian cystectomy via
laparoscopy, investigators assessed antral follicle count, ovarian
volume, resistance index, and OR at six months postoperatively.
The aim was to evaluate the impact of different cyst types on OR
by comparing the operated ovary with the contralateral one. The
study concluded that surgical intervention led to a reduction in
OR, regardless of cyst type (17). This study is inconsistent with
many studies in the literature and our study.
A retrospective evaluation of 97 patients revealed that
postoperative AMH levels declined more markedly in
individuals with endometrioma than in those with other types
of benign ovarian cysts. Furthermore, an inverse correlation
was identified between cyst size and preoperative AMH
concentrations(18).
The reduction in OR following endometrioma excision is
primarily attributed to the unintentional removal of healthy
Arı et al. Ovarian reserve post-3D cystectomy
ovarian tissue, which may occur due to the invaginating nature
of the cyst into the ovarian cortex (19). While the reduction in
OR following endometrioma excision can be explained by
the mechanisms described above; the decline associated with
dermoid cyst removal is thought to result from the cyst’s firm
adhesion to the ovarian tissue and the hemostatic techniques
employed during surgery (1). Conversely, the reduction in
OR during dermoid cyst removal is often attributed to cyst
adherence and the hemostatic methods employed.
3D laparoscopy has been reported to provide significant benefits
in complex surgical procedures, including improved image
quality, reduced operative time, and decreased intraoperative
blood loss. Despite these advancements, particularly enhanced
depth perception and greater surgical precision, our study
demonstrated that the use of 3D laparoscopy in ovarian surgery
did not prevent the decline in OR associated with different cyst
types(20,21). While we observed significant postoperative AMH
reductions in the endometrioma and dermoid cyst groups, FSH
levels did not show a similar pattern, possibly due to differing
kinetics during the menstrual cycle compared to AMH. The
findings of our study are further substantiated by the recent
systematic reviews and meta-analyses conducted by Moreno-
Sepulveda et al. (22) and Samartzis et al. (23), both of which
emphasize the limited efficacy of current surgical techniques in
preserving OR during endometrioma surgery. Their conclusions
resonate with our observations, reinforcing the notion that
despite advancements in surgical approaches, the preservation
of ovarian function remains a significant clinical challenge.
Study Limitations
Our study’s strengths include its prospective design, robust
sample size across various cyst types, and standardized surgical
protocols by experienced minimally invasive surgeons at
a tertiary university hospital. Future studies could explore
additional factors influencing OR outcomes post-ovarian
cystectomy, including long-term hormonal assessments and
fertility outcomes.
Conclusion
This study demonstrates that 3D laparoscopic cystectomy for
endometriomas and dermoid cysts is associated with a significant
reduction in OR, whereas cystectomy for serous and mucinous
cysts does not appear to have a significant impact. Preoperative
assessment of OR and appropriate patient counseling regarding
potential fertility implications are particularly important for
reproductive-aged women undergoing ovarian cyst surgery.
Ethics
Ethics Committee Approval: The study protocol was approved
by the Ethics Committee of Ege University Faculty of Medicine
on April 29, 2016 (approval number: 16-4T/56).
Informed Consent: Written informed consent was obtained
prior to enrollment.
Footnotes
Authorship Contributions
Surgical and Medical Practices: A.Ö.Y., T.Ç., Concept: S.A.A.,
A.M.E., M.C.T., İ.M.İ., Design: S.A.A., A.M.E., M.C.T., İ.M.İ.,
Data Collection or Processing: Ç.Ş., Analysis or Interpretation:
Ç.Ş., A.A., Literature Search: S.A.A., T.Ç., Writing: S.A.A.,
M.C.T., İ.M.İ.
Conflict of Interest: No conflict of interest was declared by
the authors.
Financial Disclosure: This work was supported by the Ege
University Scientific Research Projects (grant number: 17-TIP-
056).
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