Abstract
The aim of this study was to assess the effect of
ovarian suspension to the round ipsilateral ligament with a
resorbable suture, performed during laparoscopic surgery for
endometrioma, on postoperative ovarian adhesion formation.
The tool used to assess this effect was not conventional
laparoscopy but outpatient transvaginal hydrolaparoscopy.
Fifty women with single ovarian endometrioma were divided
in two groups (group A, 24 and group B, 26). All patients
underwent laparoscopic ovarian cystectomy for endometri-
osis. In group A, the ovary was suspended to the ipsilateral
round ligament. In group B, ovarian suspension was not
performed. All patients underwent transvaginal outpatient
hydrolaparoscopy as follow-up. A significantly lower rate of
postsurgical ovarian adhesion in group A in comparison with
group B (33.3 vs 80.8 %—p=0.001) was observed. Operative
time and postoperative pain were similar in both groups.
Ovarian suspension to the ipsilateral round ligament with a
resorbable suture during surgery for endometrioma is associ-
ated with a lower rate of postoperative ovarian adhesion
formation.
Keywords
Endometrioma . Laparoscopy . Ovarian
suspension . Adhesion prevention . Transvaginal
hydrolaparoscopy
Background
Ovarian endometriomas are a form of ovarian endometriosis,
classified as cysts within the ovaries [1] accounts for 35 % of
benign ovarian cysts [ 2], and are present in 17 –44 % of
patients with endometriosis. Expectant management is not
an option for women with endometrioma because of severe
symptoms [1].
Operative laparoscopy is the first-line treatment option
available to the general consensus in the treatment of
endometriomas >3 cm. However, debate still continues on
the type of laparoscopic procedure. The main point of debate
is excision or ablation of the cyst capsule [ 3, 4]. Since the
ovarian endometrioma is a pseudocyst, excisional surgery
involves the removal of ovarian cortex with primordial folli-
cles, reducing the fertility potential of the affected ovary,
especially when extensive hemostasis irreversibly diminishes
or impairs the blood supply towards the affected ovary. Ovar-
ian cystectomy for endometriomas seems to cause significant
damage to ovarian reserve with up to 40 % fall in serum AMH
concentration [5, 6]. According to Donnez et al., cystectomy
may be destructive for the ovary, whereas ablation may be
incomplete with a greater risk of recurrence [ 7]. With the
combined technique (excision of a large part of endometrioma
wall with vaporization of the remaining 10 –20 % of
endometrioma wall close to the hilus), we achieve the benefits
of stripping on symptoms and recurrence, and a less harmful
effect of ablation on ovarian reserve.
Adhesions formation rate after laparoscopic endometriosis
surgery has been reported in more than 80 % cases [8–11]. The
most common site of postoperative adhesions formation is
between the ovary and the pelvic wall [ 12]. Notwithstanding
the advances in surgical techniques [13] and the use of surgical
M. Pellicano: P . Giampaolino: G. A. Tommaselli: U. Catena (*) :
C. Nappi : G. Bifulco
Department of Obstetrics and Gynaecology, University of Naples,
“Federico II”, Via Pansini 5, 80131 Naples, Italy
e-mail:
[email protected]
DOI 10.1007/s10397-014-0854-4
Gynecol Surg (2014) 11:261–266
/ Published online: 1 20147 July
anti-adhesive agents, the incidence of adhesion-related compli-
cations do not seem to have significantly declined [14].
The aim of this study was to assess the effect of ovarian
suspension to the round ipsilateral ligament with a resorbable
suture, during laparoscopic surgery for endometrioma in terms
of postoperative ovarian adhesions after surgical procedure
evaluated with office transvaginal hydrolaparoscopy.
Methods
This study was performed in the Infertility Clinic of our
Department. During the period from March 2010 to March
2012, 185 women affected by endometriosis were evaluated
for inclusion in the study. Inclusion criteria were: age between
1 8a n d4 0y e a r s ;h i s t o r yo fi nfertility >2 years; single
endometrioma cysts ≥4o r ≤7c m[ 15]o np r e o p e r a t i v eu l t r a -
sound screen. Patients with smaller endometriomas were ex-
cluded because treatment of endometriomas of 1 –3c mw a s
recommended only for the treatment of pain. When endome-
triosis is identified at laparoscopy, it is recommended to sur-
gically treat endometriosis, as this is effective for reducing
endometriosis-associated pain [ 16]. In these cases, we per-
formed drainage and coagulation of the endometrioma wall
because of the possible difficulty in the removal of very small
cysts, due to the absence of a clear surgical plane.
Exclusion criteria were: masses occupying the Douglas
pouch; previous surgery for endometriosis or additional con-
comitant surgical procedure planned during the laparoscopic
procedure; current pregnancy, including ectopic pregnancy;
serum glutamic-oxaloacetic transaminase (sgot), serum gluta-
mate pyruvate transaminase (sgpt), and/or bilirubin >20 %
above the upper limit of the normal range; azotemia and
creatinine >30 % above the upper limit of the normal range;
concurrent use of systemic corticosteroids, antineoplastic
agents, and/or radiation; and active pelvic or abdominal
infection.
The study was approved by the Institutional Review
Boards of our Institution and all patients gave informed con-
sent to participate in the study. Eighty-three patients matched
the inclusion criteria and agreed with the study protocol, 21
however refused to participate to the study. Sixty-two patients
were divided into two groups (group A, n=31; group B, n=
31). Patients in group A underwent ovarian suspension to
round ligament, while patients in group B did not undergo
additional procedures other than that indicating laparosocopy.
Both patients and surgeons performing THL were blinded
with regard to which cases had their ovaries suspended and
which cases did not.
The laparoscopic procedure was performed in the modified
dorso-lithotomic position under endotracheal general anesthe-
sia. After pneumoperitoneum induction with a V eress needle
and introduction of a 10-mm laparoscope (Karl Storz —
Tuttlingen, Germany) in the standard umbilical position, three
5-mm trocars were placed i n the following positions:
suprapubic, left iliac fossa, and right iliac fossa. After careful
exploration of the pelvic organs and upper abdomen, patients
with single endometrioma adherent to the ipsilateral fossa
were included, while patients with clinical evidence of cancer,
rectovaginal endometriosis or bilateral endometriosis were
excluded.
Light adhesions on the controlateral adnexa and/or small
subserousal uterine myomas observed at first surgery were not
considered as exclusion criteria. Ovarian endometriomas were
removed following the technique described by Donnez [ 7].
Briefly, the ovarian cyst was opened and its content drained,
the cleavage plane was found and the pseudo-capsule was
separated from the ovarian parenchyma by means of repeated
diverging traction applied with atraumatic forceps. Light co-
agulation with bipolar forceps was performed only if neces-
sary, exclusively inside the ovarian parenchyma, before clo-
sure of the ovary. The suture was performed using a single
running suture with an absorbable monofilament suture
(Vicryl Rapid 2.0, CT-1 needle, Sommerville, NJ, USA,
Ethicon) with intraovarian knots. Ovarian suture was per-
formed so that no coagulated tissue was detectable outside
as previously reported [ 13]. In group A, the ovary was
suspended to the ipsilateral round ligament using an absorb-
able monofilament suture (Vicryl Rapid 2.0, CT-1 needle,
Sommerville, NJ, USA, Ethicon). The suture was performed
approximately 1 cm from the inguinal canal, to separate the
ovary approximately 1.5–2 cm from the ovarian fossa (Fig.1).
In group B, ovarian suspension was not performed.
The operation time was calculated from the induction of
pneumoperitoneum to desufflation. Blood loss during surgery
was estimated by measuring the aspirated blood volume.
Surgery was performed with an indwelling Foley catheter in
situ that was removed as soon as the patient could indepen-
dently reach the toilet. Twenty-four hours after the procedure,
Fig. 1 Ovarian suspension to round ligament
262 Gynecol Surg (2014) 11:261–266
postoperative pain was evaluated using a pain visual
analogue scale (V AS) ranging from 0 (absence of pain)
to 10 (maximum pain). Per protocol, patients were
discharged from the hospital 2 days after the procedure
if no complication arose during the postoperative period.
All patients were evaluated 60 –90 days after surgery
with transvaginal outpatie nt hydrolaparoscopy (THL).
THL was not performed before because patients may
not agree to undergo a second invasive procedure im-
mediately after the initial surgery.
Transvaginal hydrolaparoscopy was performed by three
surgeons: M.P . who performs approximately 100 procedures
per year; U.C. and P .G. who perform about 25 procedures per
year. Fertiloscopy was performed under local anesthesia with
the patient in the lithotomic position. A Collin’ss p e c u l u mw a s
placed in the vagina and a local anesthetic solution containing
mepivacaine hydrochloride 3 % was injected in the posterior
fornix, 1–2 cm below the cervix and on the posterior lip of the
cervix which was grasped. A specially designed needle dilat-
ing trocar system with a total diameter of 3.9 mm (reusable
system by Karl Storz Endoscopy—Tuttlingen, Germany) was
placed 10–20 mm below the insertion of the posterior vaginal
wall to the cervix. A 2.7-mm-diameter semi- rigid endoscope
was used with an optical angle of 30°. The correct intra-
abdominal trocar position was confirmed visually, and a slow
continuous infusion of warmed saline solution was started [17,
18]. To keep the bowel and tubo-ovarian structures afloat the
illumination was provided by a high-intensity cold-light
source via fiber-optic lead. The images were viewed on
high-resolution color monitor. The posterior wall of the uterus
was inspected. Subsequently, by rotation and deeper insertion
of the scope, the tubo-ovarian structures were visualized.
Success was defined as the absence of any adhesion between
the ovary and the ovarian fossa (Fig. 2). The vaginal fornix
was left to close spontaneously, and antibiotic prophylaxis
was prescribed.
The primary end-point was the proportion of women with-
out ovarian adhesions as evaluated by THL 60-90 days after
the primary surgical procedure. We hypothesized that women
underwent ovarian suspension would develop ovarian adhe-
sion in 30 % of cases as opposed to 70 % of women not
undergoing this procedure. Considering these proportions, we
calculated that we would need a sample size of 24 in group A
and 24 in group B to give 90 % power to detect a significant
difference between ovarian suspension and non ovarian sus-
pension procedures with a one-sided type 1 error of 5 %. To
account for loss to follow-up, we chose to enroll 31 patients in
group A and 31 in group B. Secondary end-points were
operative times, intra-operative blood loss, and intra- and
postoperative complication rate.
Statistical analysis was performed using the Statistical
Package for Social Science, version 15.0 (SPSS, Chicago,
IL, USA). Data distribution for continuous variables was
assessed with the Shapiro –Wilk’s test. Difference in propor-
tions between groups for the primary end-point was analyzed
using the χ2 test and the odds ratios were calculated. Student’s
t test for unpaired samples was used to compare parametric
variables between groups. The Mann-Whitney test was used
to analyze differences in non parametric parameters between
groups. Analysis was performed both per protocol and on an
intention-to-treat basis. Separate analysis was carried out con-
sidering all drop-outs as having formed adhesions (failures) or
not having formed adhesions (successes) between the ovary
and its fossa. Significance was set for a value of p<0.05 .
Findings
Characteristics of patients are listed in Table 1. No statistical
differences were observed in any variable between the two
groups. In group A, three patients were excluded intraopera-
tively from the study for the presence of contralateral ovarian
adhesions at laparoscopy and one patient for the presence of
Fig. 2 Transvaginal hydrolaparoscopy follow-up
Table 1 Characteristics of patients. V alue are given as mean±SD or
median [range], as appropriate p=NS for all comparisons
Group A
(n=31 )
Group B
(n=31 )
Age (years) 26.5±16.5 28.2±15.8
Weight (kg) 63.1±8.9 62.2±10.5
Height (cm) 170.3±35.6 172.2±28.2
BMI (cm) 25.2±3.5 23.2±2.9
Primary infertility 21 (67.7) 23 (74.2)
Endometrioma diameter (cm) 5.2±1.1 6.1±2.1
Hb (g/dl) 12.3±1.5 13.1±2.1
Hospital stay (days) 2.2±2[2 –4] 2.1±2 [2 –3]
Operative time (min) 65.6±9.8 62.1±8.5
263Gynecol Surg (2014) 11:261–266
two ovarian cysts; in group B three patients were excluded for
endometriosis stages III–IV (ASRM).
Five patients (three from group A and two from group B)
dropped out of the study: one patient was pregnant to follow-
up, two patients refused to undergo THL, and in two patients
THL was not possible to perform for poor compliance (pain in
the positioning of speculum or trocar in the posterior fornix).
Thus, a total of 24 women in group A and 26 women in
group B were available for the analysis. In all the 50 proce-
dures, it was possible to enter the pelvic cavity and visualize
the pouch of Douglas.
At the THL control, a significant higher proportion of
patients for group A were free of adhesions in comparison
with patients from group B (Table 2; p=0.001). Analyses
considering all patients as failures (i.e., with adhesions forma-
tion between the ovary and its fossa) or success (i.e., non
adhesions formation) confirmed that ovarian suspension leads
to a significantly higher proportion of patients who did not
develop adhesions (Table 2).
We did not observe any difference in terms of postoperative
pelvic pain between the two groups, according to V AS scale
(4.78±1.48 in group A vs 4.05±1.67 in group B; p<0.16 ).
The operating time was similar between group A and group
B( p=0.11). No major complications (rectum perforation)
were reported in both groups. At follow-up, no ovary was still
suspended to the round ligament; in all patients from group A,
the ovary was found in its anatomical location.
Discussion
Endometriosis is a complex and heterogeneous condition
characterized by a continuous state of inflammation that
causes symptoms of pelvic pain and infertility. In this condi-
tion, fibrosis and adhesions are common. Some authors sup-
port that the inflammatory response may be the first cause of
adhesion formation [19]. It leads to an upregulation of tissue
factors by peritoneal cells and local macrophages. This causes
activation of the extrinsic pathway of the coagulation cascade
and the formation of an exudate rich in fibrin [19]. Adhesions
can lead to infertility, dyspareunia, chronic pelvic pain, and
complications at repeated surgery [ 20, 21]. Adhesions may
produce disruption of the normal anatomy, thus altering nor-
mal tubal performance. Thus, follicular growth, pick-up of the
oocyte after ovulation and spermatozoa or embryo transport
m a yb ei m p a i r e d[20]. Several women develop postoperative
adhesions after laparoscopy surgery. The most common site of
postoperative adhesions formation is the ovary [ 12, 22]. Al-
though several surgical measures and systemic pharmacologic
treatments for adhesions prevention have been proposed, the
rate of periovarian adhesion formation was not significantly
reduced [ 13, 20–22]. The high incidence of postoperative
adhesions in endometriosis patients and their clinical signifi-
cance underline the importance of modifying surgical tech-
nique in order to reduce potential adhesion formation.
Adhesions may develop in locations previously unaffected
(de novo) or in locations where adhesiolysis was performed
(recurrence). The process of adhesions formation begins dur-
ing surgery; the possible development of adhesions is deter-
mined within the first 7 days of the injury. In the injured area, a
gel matrix of fibrin will form and macrophages recruit new
mesothelial cells over the damaged surface which reaches the
reconstruction of the mesothelial lining within 5–7 days. The
adhesions will take place if the surfaces damaged remain in
contact [ 23, 24]. This finding supports the idea of an
ovariopexy.
Several authors previously proposed ovarian suspension
techniques [25–30]( T a b l e3). The technique most frequently
described has been temporary ovarian suspension to anterior
abdominal wall [25–28]. This technique showed only limited
results, with success rates ranging from 80 to 40 %. Moreover,
this technique carries potential risks of infection due to the
proximity of the ovary to the external abdominal wall. Only
one author reported [ 26] an ovarian suspension to the round
ligament, showing no dense adhesion of the ovary to the
pelvic sidewall after definitive ovarian suspension to the
round ligament. These results are in accordance with our
Ta bl e 2 Rate of postsurgical ad-
hesions between patients treated
with ovarian suspension (group
A) and patients treated without
ovarian suspension (group B)
Group A Group B OR (95 %CI) p
Analysis per protocol n=24 n=26 0.119 (0.03 –0.55) 0.001
Postoperative ovarian adhesion formation 8 (33.3 %) 21 (80.8 %)
No postoperative ovarian adhesion 16 (66.7 %) 5 (19.2 %)
Considering all drop-outs as failures n=27 n=28 0. 14 9 (0.04 –0.60) 0.002
Postoperative ovarian adhesion formation 11 (40.7 %) 23 (82.1 %)
No postoperative ovarian adhesion 16 (59.3 %) 5 (17.9 %)
Considering all drop-outs as successes n=27 n=28 0. 14 0 (0.04 –0.53) 0.001
Postoperative ovarian adhesion formation 8 (29.6 %) 21 (75 %)
No postoperative ovarian adhesion 19 (70.4 %) 7 (25 %)
264 Gynecol Surg (2014) 11:261–266
findings. The main drawback of previous analysis was the
significant loss to follow-up. Indeed, in all previous studies,
second-look surgery was performed only in a small number of
patients (Table 3), since systematic laparoscopic second-look
may be frequently refuted by patients. In this study, we used
an office-based procedure performed under local anesthesia
that should increase the compliance of patients in undergoing
follow-up second-look.
Indeed, only five patients refused to undergoing second-
look with THL, supporting this hypothesis. This is to our
knowledge, the first study using V ycril Rapid to suspend the
ovary to the round ligament. Because development of adhe-
sion is determined within the first 5 –7 days after surgery, we
prefer to use Vicryl Rapid 2.0 suture for its characteristics loss
of tensile strength in 5 –7 days and fast reabsorption process.
The ovary so remains separated from the peritoneum of the
ovarian dimple for about 7 days, the time necessary for adhe-
sions formation. In the present study, no significant difference
was observed in terms of operative time.
Moreover, we did not observe a difference in terms of
postoperative pain evaluated according to V AS scale. We
believe that no difference in postoperative pain between the
two groups is linked to the ovarian suspension technique used.
We suspend the ovary approximately 1.5 cm from ovarian
fossa with tension-free suture.
This study has several advantages. It can rely on effec-
tive blinding of the surgeon performing THL, so that a
bias in determining adhesion formation is unlikely. More-
over, it was correctly powered to detect significant differ-
ences between the two groups. Finally, sensitivity analysis
was performed to address differences in losses to follow-
up in the two arms. A potential limitation of the study
may be the nonrandomized design of the study that may
lead to an allocation bias. Nevertheless, the population
selected for the study was homogeneous, so that differ-
ences in the two groups are unlikely. Another potential
Limitation
is the low external validity due to strict inclu-
sion criteria. These criteria were chosen in order to eval-
uate the net effect of the proposed technique on adhesion
formation rate due to the suturing of the ovary, avoiding
interference of other factors.
Prospective comparative studies including more patients
should be conducted to confirm our preliminary results.
In conclusion, this study seems to indicate that ovarian
suspension to the round ligament with short-term resorbable
suture may be a simple and effective surgical technique for the
prevention of periovarian adhesion formation and could be
included into the routine surgical procedure for single
endometrioma. Moreover, THL can be considered to be a
simple and minimally invasive technique with a good com-
pliance for the postoperative follow-up, to evaluate adhesion
formation.
Conflict of interest Massimiliano Pellicano, Pierluigi Giampaolino,
Giovanni Tommaselli, Ursula Catena, Carmine Nappi and Giuseppe
Bifulco declare that they have no conflict of interest.
Ethical standards All procedures followed were in accordance with
the ethical standards of the responsible committee on human experimen-
tation (institutional and national) and with the Helsinki Declaration of
1975, as revised in 2000. Informed consent was obtained from all patients
for being included in the study.
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