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Hysteroscopic myomectomy using a mechanical approach

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Hysteroscopic myomectomy using a mechanical approach

Uterine fibroids are a common complaint in gynecology, with an incidence of approximately 30% in women aged 25 to 45 years and a cumulative incidence of 70% to 80% by age 50.1,2 They are more prevalent in women of African descent and are a leading indication for ­hysterectomy.

Although they can be asymptomatic, submucosal fibroids are frequently associated with:

 

  • abnormal uterine bleeding (AUB)
  • dysmenorrhea
  • expulsion of an intrauterine device (IUD)
  • leukorrhea
  • pelvic pain
  • urinary frequency
  • infertility
  • premature labor
  • reproductive wastage
  • bleeding during hormone replacement therapy.

In postmenopausal women, the risk of malignancy in a leiomyoma ranges from 0.2% to 0.5%.1 The risk is lower in premenopausal women.

In this article, I describe the technique for hysteroscopic myomectomy using a mechanical approach (Truclear Tissue Removal System, Smith & Nephew, Andover, MA), which offers hysteroscopic morcellation as well as quick resection and efficient fluid ­management. (Note: Unlike open intraperitoneal morcellation, hysteroscopic morcellation carries a low risk of tissue spread.)
 

 

FIGURE 1: Classification of uterine fibroids, ESGE systemAccording to the European Society of Gynaecological Endoscopy system, which considers intramural extension in its categorization, Type 0 myomas have no extension, Type I have less than 50%, and Type II have more than 50%.

Classification of fibroids
Preoperative classification of leiomyomas makes it possible to determine the best route for surgery. The most commonly used classification system was developed by the European Society of Gynaecological Endoscopy (ESGE) (FIGURE 1), which considers the extent of intramural extension. Each fibroid under that system is classified as:

 

  • Type 0 – no intramural extension
  • Type I – less than 50% extension
  • Type II – more than 50% extension.

A second classification system recently was devised to take into account additional features of the fibroid. The STEP-W ­classification considers size, topography, extension, penetration, and the lateral wall (FIGURE 2). In general, the lower the score, the less complex the procedure will be, with a lower risk of fluid intravasation, shorter ­operative time, and a greater likelihood of complete removal of the fibroid.

A multicenter, prospective study of 449 women who underwent hysteroscopic resection of their fibroids correlated the ESGE and STEP-W systems. All 320 fibroids (100%) with a score of 4 or below on the STEP-W classification system were completely removed, compared with 112 of 145 fibroids (77.2%) with a score greater than 4. All 33 cases of incomplete hysteroscopic resection (100%) had a STEP-W score above 4.3

In the same study, 85 of 86 cases (98.9%) with Type 0 fibroids under the ESGE system had complete resection, along with 278 of 298 Type I fibroids (93.3%), and 69 of 81 Type II fibroids (85.2%).3 Complete removal is a goal because it relieves symptoms and averts the need for additional procedures.
 

 

FIGURE 2: Classification of uterine fibroids, STEP-W systemA score of 4 or less is desired for low-complexity hysteroscopic myomectomy.


Patient selection
Proper patient selection for hysteroscopic myomectomy is extremely important. The most common indications are AUB, pelvic pain or discomfort, recurrent pregnancy loss, and infertility. In addition, the patient should have a strong wish for uterine preservation and desire a minimally invasive transcervical approach.

AAGL guidelines on the diagnosis and management of submucous fibroids note that, in general, submucous leiomyomas as large as 4 or 5 cm in diameter can be removed hysteroscopically by experienced surgeons.4

A hysteroscopic approach is not advised for women in whom hysteroscopic surgery is contraindicated, such as women with intrauterine pregnancy, active pelvic infection, active herpes infection, or cervical or uterine cancer. Women who have medical comorbidities such as coronary heart disease, significant renal disease, or bleeding diathesis may need perioperative clearance from anesthesia or hematology prior to hysteroscopic surgery and close fluid monitoring during the procedure.

Consider the leiomyoma
Penetration into the myometrium. Women who have a fibroid that penetrates more than 50% into the myometrium may benefit from hysteroscopic myomectomy, provided the surgeon is highly experienced. A skilled hysteroscopist can ensure complete enucleation of a penetrating fibroid in these cases.

If you are still in the learning process for hysteroscopy, however, start with easier cases—ie, polyps and Type 0 and Type I fibroids. Type II fibroids require longer operative time, are associated with increased fluid absorption and intravasation, carry an increased risk of perioperative complications, and may not always be completely resected.

Size of the fibroid also is relevant. As size increases, so does the volume of tissue needing to be removed, adding to overall operative time.

Presence of other fibroids. When a woman has an intracavitary fibroid as well as myomas in other locations, the surgeon should consider whether hysteroscopic removal of the intracavitary lesion alone can provide significant relief of all fibroid-related symptoms. In such cases, laparoscopic, robotic, or abdominal myomectomy may be preferable, especially if the volume of the additional myomas is considerable.

To determine the optimal surgical route, the physician must consider the symptoms present—is AUB the only symptom, or are other fibroid-related conditions present as well, such as bulk, pelvic pain, and other quality-of-life issues? If multiple symptoms exist, then other approaches may be better.

How fibroids affect fertility
Fibroids are present in 5% to 10% of women with infertility. In this population, fibroids are the only abnormal finding in 1.0% to 2.4% of cases.4

In a meta-analysis of 23 studies evaluating women with fibroids and infertility, Pritts and colleagues found nine studies involving submucosal fibroids.5 These studies included one randomized controlled trial, two prospective studies, and six retrospective analyses. They found that women who had fibroids with a submucosal component had lower pregnancy and implantation rates, compared with their infertile, myoma-free counterparts. Pritts and colleagues concluded that myomectomy is likely to improve fertility in these cases (TABLE).5

Instrumentation
Among the options are monopolar and bipolar resectoscopy and the mechanical approach using the Truclear System, which includes a morcellator. With conventional resectoscopy all chips must be removed, necessitating multiple insertions of the hysteroscope. Monopolar instrumentation, in particular, carries a risk of energy discharge to healthy tissue. The monopolar resectoscope also has a longer learning curve, ­compared with the mechanical approach.6

In contrast, the Truclear System requires fewer insertions, has a short learning curve, and omits the need for capture of individual chips, as the mechanical morcellator suctions and captures them throughout the procedure.7 In addition, because resection is performed mechanically, there is no risk of energy discharge to healthy tissue.

The Truclear system also is associated with a significantly shorter operative time, compared with resectoscopy, which may be advantageous for residents, fellows, and other physicians learning the procedure (­FIGURE 3).7 Shorter operative time also may result in lower fluid deficits. In addition, saline distension may reduce the risk of fluid absorption and hyponatremia. The tissue-capture feature allows evaluation of the entire pathologic specimen.

Besides hysteroscopic myomectomy, the Truclear System is appropriate for visual dilatation and curettage (D&C), adhesiolysis, polypectomy, and evacuation of retained products of conception.
 

 

FIGURE: 3 Operative time, Truclear versus resectoscopyThe Truclear approach involved significantly shorter operative time for both polypectomy and myomectomy.

 

 

Preoperative evaluation
A complete history is vital to document which fibroid-related symptoms are present and how they affect quality of life.

Preoperative imaging also is imperative—using either 2D or 3D saline infusion sonography or a combination of diagnostic hysteroscopy and transvaginal ultrasound—to select patients for hysteroscopy, anticipate blood loss, and ensure that the proper instrumentation is available at the time of surgery. Magnetic resonance imaging, computed tomography, and hysterosalpingo­graphy are either prohibitively expensive or of limited value in the initial preoperative assessment of uterine fibroids.

Any woman who has AUB and a risk for endometrial hyperplasia or cancer should undergo endometrial assessment as well.

Use of preoperative medications
In most cases, prophylactic administration of antibiotics is not warranted to prevent infection or endocarditis.

Although some clinicians give gonadotropin-releasing hormone (GnRH) agonists to reduce the size of large fibroids, the drug complicates dissection of the fibroid from the surrounding capsule. For this reason, and because we lack data demonstrating that GnRH agonists decrease blood loss and limit absorption of distension media, I do not administer them to patients.8–12 Moreover, this drug can cause vasomotor symptoms, cervical stenosis, and vaginal hemorrhage (related to estrogen flare).

GnRH agonists may be of value to stimulate transient amenorrhea for several months preoperatively in order to correct iron-deficiency anemia. Intravenous iron also can be administered during this interval.

The risk of bleeding in hysteroscopic myomectomy is 2% to 3%.1 When the ­mechanical approach is used, rather than resectoscopy, continuous flow coupled with suctioning of the chips during the procedure keeps the image clear. Post-procedure contraction of the uterus stops most bleeding. Intrauterine pressure of the pump can be increased to help tamponade any oozing.

Misoprostol. Cervical stenosis is not ­uncommon in menopausal women. It can also pose a challenge in nulliparous women. Attempting hysteroscopy in the setting of ­cervical stenosis increases the risk of ­cervical laceration, creation of a false passage, and uterine perforation. For this reason, I prescribe oral or vaginal misoprostol 200 to 400 µg nightly for 1 to 2 days before the ­procedure.

Vasopressin can reduce blood loss during hysteroscopic myomectomy when it is injected into the cervical stroma preoperatively. It also reduces absorption of ­distension fluid and facilitates cervical ­dilation.

However, vasopressin must be injected with extreme care, with aspiration to confirm the absence of blood prior to each injection, as intravascular injection can lead to bradycardia, profound hypertension, and even death.13 Always notify the anesthesiologist prior to injection when vasopressin will be administered.

I routinely use vasopressin before hysteroscopic myomectomy (0.5 mg in 20 cc of saline or 20 U in 100 cc), injecting 5 cc of the solution at 3, 6, 9, and 12 o’clock positions.

Anesthesia during hysteroscopic myomectomy typically is “monitored anesthesia care,” or MAC, which consists of local anesthesia with sedation and analgesia. The need for regional or general anesthesia is rare. Consider adding a pericervical block or intravenous ketorolac (Toradol) to provide postoperative analgesia.

Surgical technique
Strict attention to fluid management is required throughout the procedure, preferably in accordance with AAGL guidelines on the management of hysteroscopic distending media.14 With the mechanical approach, because the distension fluid is isotonic (normal saline), it does not increase the risk of hyponatremia but can cause pulmonary edema or congestive heart failure. Intravasation usually is the result of excessive operative time, treatment of deeper myometrial fibroids (Type I or II), or high intrauterine pressure. I operate using intrauterine pressure in the range of 75 to 125 mm Hg.

The steps involved in the mechanical hysteroscopy ­approach are:

 

  • Insert the hysteroscope into the uterus under direct visualization. In general, the greater the number of insertions, the greater the risk of uterine perforation. Preoperative cervical ripening helps facilitate insertion (see “Misoprostol” above).
  • Distend the uterus with saline and inspect the uterine cavity, noting again the size and location of the fibroids and whether they are sessile or pedunculated.
  • Locate the fibroid or other pathology to be removed, and place the morcellator window against it to begin cutting. Use the tip of the morcellator to elevate the fibroid for easier cutting. Enucleation is accomplished largely by varying the intrauterine pressure, which permits uterine decompression and myometrial contraction and renders the fibroid capsule more visible. If necessary, the hysteroscope can be withdrawn to stimulate myometrial ­contraction, which also helps to delineate the fibroid capsule.
  • Reinspect the uterus to rule out perforation and remove any additional intrauterine pathology with a targeted view.
  • Once all designated fibroids have been removed, withdraw the morcellator and hysteroscope from the uterus.
  • Inspect the endocervical landscape to rule out injury and other pathology.

     

 

Best practices for hysteroscopic myomectomy

 

  • Careful preoperative evaluation is important, preferably using diagnostic hysteroscopy or saline infusion sonography, to choose the optimal route of myomectomy and plan the surgical approach.
  • During the myomectomy, pay close attention to fluid management and adhere strictly to predetermined limits.
  • Complete removal of the fibroid is essential to relieve symptoms and avert the need for additional procedures.


Postoperative care
A nonsteroidal anti-inflammatory drug or limited use of narcotics usually is sufficient to relieve any postoperative cramping or vaginal discomfort.

Advise the patient to notify you in the event of increasing pain, foul-smelling vaginal discharge, or fever.

Also counsel her that she can return to most normal activities within 24 to 48 hours. Sexual activity is permissible 1 week after surgery. Early and frequent ambulation is important.

Schedule a follow-up visit 4 to 6 weeks after the procedure.

Share your thoughts on this article! Send your Letter to the Editor to rbarbieri@frontlinemedcom.com. Please include your name and the city and state in which you practice.

References

 

1. Perez-Medina T, Font EC, eds. Diagnostic and Operative Hysteroscopy. Tunbridge Wells, Kent, UK: Anshan Publishing; 2007:13.

2. Management of uterine fibroids: an update of the evidence. Agency for Healthcare Research and Quality. http://archive.ahrq.gov/clinic/tp/uteruptp.htm. Published July 2007. Accessed January 14, 2015.

3. Lasmar RB, Zinmei Z, Indman PD, Celeste RK, Di Spiezo Sardo A. Feasibility of a new system of classification of submucous myomas: a multicenter study. Fertil Steril. 2011;95(6):2073–2077.

4. AAGL Practice Report: practice guidelines for the diagnosis and management of submucous leiomyomas. J Minim Invasive Gynecol. 2012;19(2):152–171.

5. Pritts EA, Parker WH, Olive DL. Fibroids and infertility: an updated systematic review of the evidence. Fertil Steril. 2009;91(4):1215–1223.

6. Van Dongen H, Emanuel MH, Wolterbeek R, Trimbos JB, Jansen FW. Hysteroscopic morcellator for removal of intrauterine polyps and myomas: a randomized controlled pilot study among residents in training. J Minim Invasive Gynecol. 2008;15(4):466–471.

7. Emanuel MH, Wamsteker K. The intra uterine morcellator: a new hysteroscopic operating technique to remove intrauterine polyps and myomas. J Minim Invasive Gynecol. 2005;12(1):62–66.

8. Emanuel MH, Hart A, Wamsteker K, Lammes F. An analysis of fluid loss during transcervical resection of submucous myomas. Fertil Steril. 1997;68(5):881–886.

9. Taskin O, Sadik S, Onoglu A, et al. Role of endometrial suppression on the frequency of intrauterine adhesions after resectoscopic surgery. J Am Assoc Gynecol Laparosc. 2000;7(3):351.

10. Propst AM, Liberman RF, Harlow BL, Ginsburg ES. Complications of hysteroscopic surgery: predicting patients at risk. Obstet Gynecol. 2000;96(4):517–520.

11. Perino A, Chianchiano N, Petronio M, Cittadini E. Role of leuprolide acetate depot in hysteroscopic surgery: a controlled study. Fertil Steril. 1993;59(3):507–510.

12. Mencaglia L, Tantini C. GnRH agonist analogs and hysteroscopic resection of myomas. Int J Gynaecol Obstet. 1993;43(3):285–288.

13. Hobo R, Netsu S, Koyasu Y, Tsutsumi O. Bradycardia and cardiac arrest caused by intramyometrial injection of vasopressin during a laparoscopically assisted myomectomy. Obstet Gynecol. 2009;113(2 Pt 2):484–486.

14. Munro MD, Storz K, Abbott JA, et al; AAGL. AAGL Practice Report: practice guidelines for the management of hysteroscopic distending media. J Minim Invasive Gynecol. 2013;20(2):137–148.

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Author and Disclosure Information

 

Linda D. Bradley, MD

Dr. Bradley is Professor of Surgery at the Cleveland Clinic College of Medicine, Case Western Reserve University School of Medicine. She also is Vice Chair of Obstetrics and Gynecology, Vice Chair of the Women’s Health Institute, and Director of the Center for Menstrual Disorders, Fibroids, and Hysteroscopic Services at the Cleveland Clinic in Cleveland, Ohio. In addition, she directs Hysteroscopic Education for the Residency Program at Cleveland Clinic Lerner College of Medicine. She is Past President of AAGL and serves on the OBG Management Board of Editors.

Dr. Bradley reports that she serves as a speaker for Bayer HealthCare and as a consultant to Allen ­Medical, BlueSpire, Boston Scientific, Hologic, and Smith & Nephew. She also served as principal investigator and contributor investigator for Bayer Research, is a reviewer for BlueSpire, serves on the Data Safety Monitoring Board of Gynesonics, and holds stock in ­EndoSee.

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Linda D. Bradley MD, hysteroscopic myomectomy, mechanical approach, resectoscopy, hysteroscope, uterine fibroids, minimally invasive gynecologic surgery, MIGS, hysterectomy, abnormal uterine bleeding, AUB, dysmenorrhea, intrauterine device, IUD, leukorrhea, pelvic pain, urinary frequency, infertility, premature labor, hormone replacement therapy, postmenopausal woman, leiomyoma, Truclear Tissue Removal System, Smith & Nephew, hysteroscopic morcellation, fluid management, European Society of Gynaecological Endoscopy, ESGE, classification of fibroids, STEP-W classification, fertility, dilatation and curettage, D&C, adhesiolysis, polypectomy, retained products of conception, 2D or 3D saline infusion sonography, transvaginal ultrasound, magnetic resonance imaging, MRI, computed tomography, CT, hysterosalpingography, antibiotics, gonadotropin-releasing hormone, GnRH, vasomotor symptoms, cervical stenosis, vaginal hemorrhage, anesthesiologist, vasopressin, misoprostol,
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Linda D. Bradley, MD

Dr. Bradley is Professor of Surgery at the Cleveland Clinic College of Medicine, Case Western Reserve University School of Medicine. She also is Vice Chair of Obstetrics and Gynecology, Vice Chair of the Women’s Health Institute, and Director of the Center for Menstrual Disorders, Fibroids, and Hysteroscopic Services at the Cleveland Clinic in Cleveland, Ohio. In addition, she directs Hysteroscopic Education for the Residency Program at Cleveland Clinic Lerner College of Medicine. She is Past President of AAGL and serves on the OBG Management Board of Editors.

Dr. Bradley reports that she serves as a speaker for Bayer HealthCare and as a consultant to Allen ­Medical, BlueSpire, Boston Scientific, Hologic, and Smith & Nephew. She also served as principal investigator and contributor investigator for Bayer Research, is a reviewer for BlueSpire, serves on the Data Safety Monitoring Board of Gynesonics, and holds stock in ­EndoSee.

Author and Disclosure Information

 

Linda D. Bradley, MD

Dr. Bradley is Professor of Surgery at the Cleveland Clinic College of Medicine, Case Western Reserve University School of Medicine. She also is Vice Chair of Obstetrics and Gynecology, Vice Chair of the Women’s Health Institute, and Director of the Center for Menstrual Disorders, Fibroids, and Hysteroscopic Services at the Cleveland Clinic in Cleveland, Ohio. In addition, she directs Hysteroscopic Education for the Residency Program at Cleveland Clinic Lerner College of Medicine. She is Past President of AAGL and serves on the OBG Management Board of Editors.

Dr. Bradley reports that she serves as a speaker for Bayer HealthCare and as a consultant to Allen ­Medical, BlueSpire, Boston Scientific, Hologic, and Smith & Nephew. She also served as principal investigator and contributor investigator for Bayer Research, is a reviewer for BlueSpire, serves on the Data Safety Monitoring Board of Gynesonics, and holds stock in ­EndoSee.

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Related Articles

Uterine fibroids are a common complaint in gynecology, with an incidence of approximately 30% in women aged 25 to 45 years and a cumulative incidence of 70% to 80% by age 50.1,2 They are more prevalent in women of African descent and are a leading indication for ­hysterectomy.

Although they can be asymptomatic, submucosal fibroids are frequently associated with:

 

  • abnormal uterine bleeding (AUB)
  • dysmenorrhea
  • expulsion of an intrauterine device (IUD)
  • leukorrhea
  • pelvic pain
  • urinary frequency
  • infertility
  • premature labor
  • reproductive wastage
  • bleeding during hormone replacement therapy.

In postmenopausal women, the risk of malignancy in a leiomyoma ranges from 0.2% to 0.5%.1 The risk is lower in premenopausal women.

In this article, I describe the technique for hysteroscopic myomectomy using a mechanical approach (Truclear Tissue Removal System, Smith & Nephew, Andover, MA), which offers hysteroscopic morcellation as well as quick resection and efficient fluid ­management. (Note: Unlike open intraperitoneal morcellation, hysteroscopic morcellation carries a low risk of tissue spread.)
 

 

FIGURE 1: Classification of uterine fibroids, ESGE systemAccording to the European Society of Gynaecological Endoscopy system, which considers intramural extension in its categorization, Type 0 myomas have no extension, Type I have less than 50%, and Type II have more than 50%.

Classification of fibroids
Preoperative classification of leiomyomas makes it possible to determine the best route for surgery. The most commonly used classification system was developed by the European Society of Gynaecological Endoscopy (ESGE) (FIGURE 1), which considers the extent of intramural extension. Each fibroid under that system is classified as:

 

  • Type 0 – no intramural extension
  • Type I – less than 50% extension
  • Type II – more than 50% extension.

A second classification system recently was devised to take into account additional features of the fibroid. The STEP-W ­classification considers size, topography, extension, penetration, and the lateral wall (FIGURE 2). In general, the lower the score, the less complex the procedure will be, with a lower risk of fluid intravasation, shorter ­operative time, and a greater likelihood of complete removal of the fibroid.

A multicenter, prospective study of 449 women who underwent hysteroscopic resection of their fibroids correlated the ESGE and STEP-W systems. All 320 fibroids (100%) with a score of 4 or below on the STEP-W classification system were completely removed, compared with 112 of 145 fibroids (77.2%) with a score greater than 4. All 33 cases of incomplete hysteroscopic resection (100%) had a STEP-W score above 4.3

In the same study, 85 of 86 cases (98.9%) with Type 0 fibroids under the ESGE system had complete resection, along with 278 of 298 Type I fibroids (93.3%), and 69 of 81 Type II fibroids (85.2%).3 Complete removal is a goal because it relieves symptoms and averts the need for additional procedures.
 

 

FIGURE 2: Classification of uterine fibroids, STEP-W systemA score of 4 or less is desired for low-complexity hysteroscopic myomectomy.


Patient selection
Proper patient selection for hysteroscopic myomectomy is extremely important. The most common indications are AUB, pelvic pain or discomfort, recurrent pregnancy loss, and infertility. In addition, the patient should have a strong wish for uterine preservation and desire a minimally invasive transcervical approach.

AAGL guidelines on the diagnosis and management of submucous fibroids note that, in general, submucous leiomyomas as large as 4 or 5 cm in diameter can be removed hysteroscopically by experienced surgeons.4

A hysteroscopic approach is not advised for women in whom hysteroscopic surgery is contraindicated, such as women with intrauterine pregnancy, active pelvic infection, active herpes infection, or cervical or uterine cancer. Women who have medical comorbidities such as coronary heart disease, significant renal disease, or bleeding diathesis may need perioperative clearance from anesthesia or hematology prior to hysteroscopic surgery and close fluid monitoring during the procedure.

Consider the leiomyoma
Penetration into the myometrium. Women who have a fibroid that penetrates more than 50% into the myometrium may benefit from hysteroscopic myomectomy, provided the surgeon is highly experienced. A skilled hysteroscopist can ensure complete enucleation of a penetrating fibroid in these cases.

If you are still in the learning process for hysteroscopy, however, start with easier cases—ie, polyps and Type 0 and Type I fibroids. Type II fibroids require longer operative time, are associated with increased fluid absorption and intravasation, carry an increased risk of perioperative complications, and may not always be completely resected.

Size of the fibroid also is relevant. As size increases, so does the volume of tissue needing to be removed, adding to overall operative time.

Presence of other fibroids. When a woman has an intracavitary fibroid as well as myomas in other locations, the surgeon should consider whether hysteroscopic removal of the intracavitary lesion alone can provide significant relief of all fibroid-related symptoms. In such cases, laparoscopic, robotic, or abdominal myomectomy may be preferable, especially if the volume of the additional myomas is considerable.

To determine the optimal surgical route, the physician must consider the symptoms present—is AUB the only symptom, or are other fibroid-related conditions present as well, such as bulk, pelvic pain, and other quality-of-life issues? If multiple symptoms exist, then other approaches may be better.

How fibroids affect fertility
Fibroids are present in 5% to 10% of women with infertility. In this population, fibroids are the only abnormal finding in 1.0% to 2.4% of cases.4

In a meta-analysis of 23 studies evaluating women with fibroids and infertility, Pritts and colleagues found nine studies involving submucosal fibroids.5 These studies included one randomized controlled trial, two prospective studies, and six retrospective analyses. They found that women who had fibroids with a submucosal component had lower pregnancy and implantation rates, compared with their infertile, myoma-free counterparts. Pritts and colleagues concluded that myomectomy is likely to improve fertility in these cases (TABLE).5

Instrumentation
Among the options are monopolar and bipolar resectoscopy and the mechanical approach using the Truclear System, which includes a morcellator. With conventional resectoscopy all chips must be removed, necessitating multiple insertions of the hysteroscope. Monopolar instrumentation, in particular, carries a risk of energy discharge to healthy tissue. The monopolar resectoscope also has a longer learning curve, ­compared with the mechanical approach.6

In contrast, the Truclear System requires fewer insertions, has a short learning curve, and omits the need for capture of individual chips, as the mechanical morcellator suctions and captures them throughout the procedure.7 In addition, because resection is performed mechanically, there is no risk of energy discharge to healthy tissue.

The Truclear system also is associated with a significantly shorter operative time, compared with resectoscopy, which may be advantageous for residents, fellows, and other physicians learning the procedure (­FIGURE 3).7 Shorter operative time also may result in lower fluid deficits. In addition, saline distension may reduce the risk of fluid absorption and hyponatremia. The tissue-capture feature allows evaluation of the entire pathologic specimen.

Besides hysteroscopic myomectomy, the Truclear System is appropriate for visual dilatation and curettage (D&C), adhesiolysis, polypectomy, and evacuation of retained products of conception.
 

 

FIGURE: 3 Operative time, Truclear versus resectoscopyThe Truclear approach involved significantly shorter operative time for both polypectomy and myomectomy.

 

 

Preoperative evaluation
A complete history is vital to document which fibroid-related symptoms are present and how they affect quality of life.

Preoperative imaging also is imperative—using either 2D or 3D saline infusion sonography or a combination of diagnostic hysteroscopy and transvaginal ultrasound—to select patients for hysteroscopy, anticipate blood loss, and ensure that the proper instrumentation is available at the time of surgery. Magnetic resonance imaging, computed tomography, and hysterosalpingo­graphy are either prohibitively expensive or of limited value in the initial preoperative assessment of uterine fibroids.

Any woman who has AUB and a risk for endometrial hyperplasia or cancer should undergo endometrial assessment as well.

Use of preoperative medications
In most cases, prophylactic administration of antibiotics is not warranted to prevent infection or endocarditis.

Although some clinicians give gonadotropin-releasing hormone (GnRH) agonists to reduce the size of large fibroids, the drug complicates dissection of the fibroid from the surrounding capsule. For this reason, and because we lack data demonstrating that GnRH agonists decrease blood loss and limit absorption of distension media, I do not administer them to patients.8–12 Moreover, this drug can cause vasomotor symptoms, cervical stenosis, and vaginal hemorrhage (related to estrogen flare).

GnRH agonists may be of value to stimulate transient amenorrhea for several months preoperatively in order to correct iron-deficiency anemia. Intravenous iron also can be administered during this interval.

The risk of bleeding in hysteroscopic myomectomy is 2% to 3%.1 When the ­mechanical approach is used, rather than resectoscopy, continuous flow coupled with suctioning of the chips during the procedure keeps the image clear. Post-procedure contraction of the uterus stops most bleeding. Intrauterine pressure of the pump can be increased to help tamponade any oozing.

Misoprostol. Cervical stenosis is not ­uncommon in menopausal women. It can also pose a challenge in nulliparous women. Attempting hysteroscopy in the setting of ­cervical stenosis increases the risk of ­cervical laceration, creation of a false passage, and uterine perforation. For this reason, I prescribe oral or vaginal misoprostol 200 to 400 µg nightly for 1 to 2 days before the ­procedure.

Vasopressin can reduce blood loss during hysteroscopic myomectomy when it is injected into the cervical stroma preoperatively. It also reduces absorption of ­distension fluid and facilitates cervical ­dilation.

However, vasopressin must be injected with extreme care, with aspiration to confirm the absence of blood prior to each injection, as intravascular injection can lead to bradycardia, profound hypertension, and even death.13 Always notify the anesthesiologist prior to injection when vasopressin will be administered.

I routinely use vasopressin before hysteroscopic myomectomy (0.5 mg in 20 cc of saline or 20 U in 100 cc), injecting 5 cc of the solution at 3, 6, 9, and 12 o’clock positions.

Anesthesia during hysteroscopic myomectomy typically is “monitored anesthesia care,” or MAC, which consists of local anesthesia with sedation and analgesia. The need for regional or general anesthesia is rare. Consider adding a pericervical block or intravenous ketorolac (Toradol) to provide postoperative analgesia.

Surgical technique
Strict attention to fluid management is required throughout the procedure, preferably in accordance with AAGL guidelines on the management of hysteroscopic distending media.14 With the mechanical approach, because the distension fluid is isotonic (normal saline), it does not increase the risk of hyponatremia but can cause pulmonary edema or congestive heart failure. Intravasation usually is the result of excessive operative time, treatment of deeper myometrial fibroids (Type I or II), or high intrauterine pressure. I operate using intrauterine pressure in the range of 75 to 125 mm Hg.

The steps involved in the mechanical hysteroscopy ­approach are:

 

  • Insert the hysteroscope into the uterus under direct visualization. In general, the greater the number of insertions, the greater the risk of uterine perforation. Preoperative cervical ripening helps facilitate insertion (see “Misoprostol” above).
  • Distend the uterus with saline and inspect the uterine cavity, noting again the size and location of the fibroids and whether they are sessile or pedunculated.
  • Locate the fibroid or other pathology to be removed, and place the morcellator window against it to begin cutting. Use the tip of the morcellator to elevate the fibroid for easier cutting. Enucleation is accomplished largely by varying the intrauterine pressure, which permits uterine decompression and myometrial contraction and renders the fibroid capsule more visible. If necessary, the hysteroscope can be withdrawn to stimulate myometrial ­contraction, which also helps to delineate the fibroid capsule.
  • Reinspect the uterus to rule out perforation and remove any additional intrauterine pathology with a targeted view.
  • Once all designated fibroids have been removed, withdraw the morcellator and hysteroscope from the uterus.
  • Inspect the endocervical landscape to rule out injury and other pathology.

     

 

Best practices for hysteroscopic myomectomy

 

  • Careful preoperative evaluation is important, preferably using diagnostic hysteroscopy or saline infusion sonography, to choose the optimal route of myomectomy and plan the surgical approach.
  • During the myomectomy, pay close attention to fluid management and adhere strictly to predetermined limits.
  • Complete removal of the fibroid is essential to relieve symptoms and avert the need for additional procedures.


Postoperative care
A nonsteroidal anti-inflammatory drug or limited use of narcotics usually is sufficient to relieve any postoperative cramping or vaginal discomfort.

Advise the patient to notify you in the event of increasing pain, foul-smelling vaginal discharge, or fever.

Also counsel her that she can return to most normal activities within 24 to 48 hours. Sexual activity is permissible 1 week after surgery. Early and frequent ambulation is important.

Schedule a follow-up visit 4 to 6 weeks after the procedure.

Share your thoughts on this article! Send your Letter to the Editor to rbarbieri@frontlinemedcom.com. Please include your name and the city and state in which you practice.

Uterine fibroids are a common complaint in gynecology, with an incidence of approximately 30% in women aged 25 to 45 years and a cumulative incidence of 70% to 80% by age 50.1,2 They are more prevalent in women of African descent and are a leading indication for ­hysterectomy.

Although they can be asymptomatic, submucosal fibroids are frequently associated with:

 

  • abnormal uterine bleeding (AUB)
  • dysmenorrhea
  • expulsion of an intrauterine device (IUD)
  • leukorrhea
  • pelvic pain
  • urinary frequency
  • infertility
  • premature labor
  • reproductive wastage
  • bleeding during hormone replacement therapy.

In postmenopausal women, the risk of malignancy in a leiomyoma ranges from 0.2% to 0.5%.1 The risk is lower in premenopausal women.

In this article, I describe the technique for hysteroscopic myomectomy using a mechanical approach (Truclear Tissue Removal System, Smith & Nephew, Andover, MA), which offers hysteroscopic morcellation as well as quick resection and efficient fluid ­management. (Note: Unlike open intraperitoneal morcellation, hysteroscopic morcellation carries a low risk of tissue spread.)
 

 

FIGURE 1: Classification of uterine fibroids, ESGE systemAccording to the European Society of Gynaecological Endoscopy system, which considers intramural extension in its categorization, Type 0 myomas have no extension, Type I have less than 50%, and Type II have more than 50%.

Classification of fibroids
Preoperative classification of leiomyomas makes it possible to determine the best route for surgery. The most commonly used classification system was developed by the European Society of Gynaecological Endoscopy (ESGE) (FIGURE 1), which considers the extent of intramural extension. Each fibroid under that system is classified as:

 

  • Type 0 – no intramural extension
  • Type I – less than 50% extension
  • Type II – more than 50% extension.

A second classification system recently was devised to take into account additional features of the fibroid. The STEP-W ­classification considers size, topography, extension, penetration, and the lateral wall (FIGURE 2). In general, the lower the score, the less complex the procedure will be, with a lower risk of fluid intravasation, shorter ­operative time, and a greater likelihood of complete removal of the fibroid.

A multicenter, prospective study of 449 women who underwent hysteroscopic resection of their fibroids correlated the ESGE and STEP-W systems. All 320 fibroids (100%) with a score of 4 or below on the STEP-W classification system were completely removed, compared with 112 of 145 fibroids (77.2%) with a score greater than 4. All 33 cases of incomplete hysteroscopic resection (100%) had a STEP-W score above 4.3

In the same study, 85 of 86 cases (98.9%) with Type 0 fibroids under the ESGE system had complete resection, along with 278 of 298 Type I fibroids (93.3%), and 69 of 81 Type II fibroids (85.2%).3 Complete removal is a goal because it relieves symptoms and averts the need for additional procedures.
 

 

FIGURE 2: Classification of uterine fibroids, STEP-W systemA score of 4 or less is desired for low-complexity hysteroscopic myomectomy.


Patient selection
Proper patient selection for hysteroscopic myomectomy is extremely important. The most common indications are AUB, pelvic pain or discomfort, recurrent pregnancy loss, and infertility. In addition, the patient should have a strong wish for uterine preservation and desire a minimally invasive transcervical approach.

AAGL guidelines on the diagnosis and management of submucous fibroids note that, in general, submucous leiomyomas as large as 4 or 5 cm in diameter can be removed hysteroscopically by experienced surgeons.4

A hysteroscopic approach is not advised for women in whom hysteroscopic surgery is contraindicated, such as women with intrauterine pregnancy, active pelvic infection, active herpes infection, or cervical or uterine cancer. Women who have medical comorbidities such as coronary heart disease, significant renal disease, or bleeding diathesis may need perioperative clearance from anesthesia or hematology prior to hysteroscopic surgery and close fluid monitoring during the procedure.

Consider the leiomyoma
Penetration into the myometrium. Women who have a fibroid that penetrates more than 50% into the myometrium may benefit from hysteroscopic myomectomy, provided the surgeon is highly experienced. A skilled hysteroscopist can ensure complete enucleation of a penetrating fibroid in these cases.

If you are still in the learning process for hysteroscopy, however, start with easier cases—ie, polyps and Type 0 and Type I fibroids. Type II fibroids require longer operative time, are associated with increased fluid absorption and intravasation, carry an increased risk of perioperative complications, and may not always be completely resected.

Size of the fibroid also is relevant. As size increases, so does the volume of tissue needing to be removed, adding to overall operative time.

Presence of other fibroids. When a woman has an intracavitary fibroid as well as myomas in other locations, the surgeon should consider whether hysteroscopic removal of the intracavitary lesion alone can provide significant relief of all fibroid-related symptoms. In such cases, laparoscopic, robotic, or abdominal myomectomy may be preferable, especially if the volume of the additional myomas is considerable.

To determine the optimal surgical route, the physician must consider the symptoms present—is AUB the only symptom, or are other fibroid-related conditions present as well, such as bulk, pelvic pain, and other quality-of-life issues? If multiple symptoms exist, then other approaches may be better.

How fibroids affect fertility
Fibroids are present in 5% to 10% of women with infertility. In this population, fibroids are the only abnormal finding in 1.0% to 2.4% of cases.4

In a meta-analysis of 23 studies evaluating women with fibroids and infertility, Pritts and colleagues found nine studies involving submucosal fibroids.5 These studies included one randomized controlled trial, two prospective studies, and six retrospective analyses. They found that women who had fibroids with a submucosal component had lower pregnancy and implantation rates, compared with their infertile, myoma-free counterparts. Pritts and colleagues concluded that myomectomy is likely to improve fertility in these cases (TABLE).5

Instrumentation
Among the options are monopolar and bipolar resectoscopy and the mechanical approach using the Truclear System, which includes a morcellator. With conventional resectoscopy all chips must be removed, necessitating multiple insertions of the hysteroscope. Monopolar instrumentation, in particular, carries a risk of energy discharge to healthy tissue. The monopolar resectoscope also has a longer learning curve, ­compared with the mechanical approach.6

In contrast, the Truclear System requires fewer insertions, has a short learning curve, and omits the need for capture of individual chips, as the mechanical morcellator suctions and captures them throughout the procedure.7 In addition, because resection is performed mechanically, there is no risk of energy discharge to healthy tissue.

The Truclear system also is associated with a significantly shorter operative time, compared with resectoscopy, which may be advantageous for residents, fellows, and other physicians learning the procedure (­FIGURE 3).7 Shorter operative time also may result in lower fluid deficits. In addition, saline distension may reduce the risk of fluid absorption and hyponatremia. The tissue-capture feature allows evaluation of the entire pathologic specimen.

Besides hysteroscopic myomectomy, the Truclear System is appropriate for visual dilatation and curettage (D&C), adhesiolysis, polypectomy, and evacuation of retained products of conception.
 

 

FIGURE: 3 Operative time, Truclear versus resectoscopyThe Truclear approach involved significantly shorter operative time for both polypectomy and myomectomy.

 

 

Preoperative evaluation
A complete history is vital to document which fibroid-related symptoms are present and how they affect quality of life.

Preoperative imaging also is imperative—using either 2D or 3D saline infusion sonography or a combination of diagnostic hysteroscopy and transvaginal ultrasound—to select patients for hysteroscopy, anticipate blood loss, and ensure that the proper instrumentation is available at the time of surgery. Magnetic resonance imaging, computed tomography, and hysterosalpingo­graphy are either prohibitively expensive or of limited value in the initial preoperative assessment of uterine fibroids.

Any woman who has AUB and a risk for endometrial hyperplasia or cancer should undergo endometrial assessment as well.

Use of preoperative medications
In most cases, prophylactic administration of antibiotics is not warranted to prevent infection or endocarditis.

Although some clinicians give gonadotropin-releasing hormone (GnRH) agonists to reduce the size of large fibroids, the drug complicates dissection of the fibroid from the surrounding capsule. For this reason, and because we lack data demonstrating that GnRH agonists decrease blood loss and limit absorption of distension media, I do not administer them to patients.8–12 Moreover, this drug can cause vasomotor symptoms, cervical stenosis, and vaginal hemorrhage (related to estrogen flare).

GnRH agonists may be of value to stimulate transient amenorrhea for several months preoperatively in order to correct iron-deficiency anemia. Intravenous iron also can be administered during this interval.

The risk of bleeding in hysteroscopic myomectomy is 2% to 3%.1 When the ­mechanical approach is used, rather than resectoscopy, continuous flow coupled with suctioning of the chips during the procedure keeps the image clear. Post-procedure contraction of the uterus stops most bleeding. Intrauterine pressure of the pump can be increased to help tamponade any oozing.

Misoprostol. Cervical stenosis is not ­uncommon in menopausal women. It can also pose a challenge in nulliparous women. Attempting hysteroscopy in the setting of ­cervical stenosis increases the risk of ­cervical laceration, creation of a false passage, and uterine perforation. For this reason, I prescribe oral or vaginal misoprostol 200 to 400 µg nightly for 1 to 2 days before the ­procedure.

Vasopressin can reduce blood loss during hysteroscopic myomectomy when it is injected into the cervical stroma preoperatively. It also reduces absorption of ­distension fluid and facilitates cervical ­dilation.

However, vasopressin must be injected with extreme care, with aspiration to confirm the absence of blood prior to each injection, as intravascular injection can lead to bradycardia, profound hypertension, and even death.13 Always notify the anesthesiologist prior to injection when vasopressin will be administered.

I routinely use vasopressin before hysteroscopic myomectomy (0.5 mg in 20 cc of saline or 20 U in 100 cc), injecting 5 cc of the solution at 3, 6, 9, and 12 o’clock positions.

Anesthesia during hysteroscopic myomectomy typically is “monitored anesthesia care,” or MAC, which consists of local anesthesia with sedation and analgesia. The need for regional or general anesthesia is rare. Consider adding a pericervical block or intravenous ketorolac (Toradol) to provide postoperative analgesia.

Surgical technique
Strict attention to fluid management is required throughout the procedure, preferably in accordance with AAGL guidelines on the management of hysteroscopic distending media.14 With the mechanical approach, because the distension fluid is isotonic (normal saline), it does not increase the risk of hyponatremia but can cause pulmonary edema or congestive heart failure. Intravasation usually is the result of excessive operative time, treatment of deeper myometrial fibroids (Type I or II), or high intrauterine pressure. I operate using intrauterine pressure in the range of 75 to 125 mm Hg.

The steps involved in the mechanical hysteroscopy ­approach are:

 

  • Insert the hysteroscope into the uterus under direct visualization. In general, the greater the number of insertions, the greater the risk of uterine perforation. Preoperative cervical ripening helps facilitate insertion (see “Misoprostol” above).
  • Distend the uterus with saline and inspect the uterine cavity, noting again the size and location of the fibroids and whether they are sessile or pedunculated.
  • Locate the fibroid or other pathology to be removed, and place the morcellator window against it to begin cutting. Use the tip of the morcellator to elevate the fibroid for easier cutting. Enucleation is accomplished largely by varying the intrauterine pressure, which permits uterine decompression and myometrial contraction and renders the fibroid capsule more visible. If necessary, the hysteroscope can be withdrawn to stimulate myometrial ­contraction, which also helps to delineate the fibroid capsule.
  • Reinspect the uterus to rule out perforation and remove any additional intrauterine pathology with a targeted view.
  • Once all designated fibroids have been removed, withdraw the morcellator and hysteroscope from the uterus.
  • Inspect the endocervical landscape to rule out injury and other pathology.

     

 

Best practices for hysteroscopic myomectomy

 

  • Careful preoperative evaluation is important, preferably using diagnostic hysteroscopy or saline infusion sonography, to choose the optimal route of myomectomy and plan the surgical approach.
  • During the myomectomy, pay close attention to fluid management and adhere strictly to predetermined limits.
  • Complete removal of the fibroid is essential to relieve symptoms and avert the need for additional procedures.


Postoperative care
A nonsteroidal anti-inflammatory drug or limited use of narcotics usually is sufficient to relieve any postoperative cramping or vaginal discomfort.

Advise the patient to notify you in the event of increasing pain, foul-smelling vaginal discharge, or fever.

Also counsel her that she can return to most normal activities within 24 to 48 hours. Sexual activity is permissible 1 week after surgery. Early and frequent ambulation is important.

Schedule a follow-up visit 4 to 6 weeks after the procedure.

Share your thoughts on this article! Send your Letter to the Editor to rbarbieri@frontlinemedcom.com. Please include your name and the city and state in which you practice.

References

 

1. Perez-Medina T, Font EC, eds. Diagnostic and Operative Hysteroscopy. Tunbridge Wells, Kent, UK: Anshan Publishing; 2007:13.

2. Management of uterine fibroids: an update of the evidence. Agency for Healthcare Research and Quality. http://archive.ahrq.gov/clinic/tp/uteruptp.htm. Published July 2007. Accessed January 14, 2015.

3. Lasmar RB, Zinmei Z, Indman PD, Celeste RK, Di Spiezo Sardo A. Feasibility of a new system of classification of submucous myomas: a multicenter study. Fertil Steril. 2011;95(6):2073–2077.

4. AAGL Practice Report: practice guidelines for the diagnosis and management of submucous leiomyomas. J Minim Invasive Gynecol. 2012;19(2):152–171.

5. Pritts EA, Parker WH, Olive DL. Fibroids and infertility: an updated systematic review of the evidence. Fertil Steril. 2009;91(4):1215–1223.

6. Van Dongen H, Emanuel MH, Wolterbeek R, Trimbos JB, Jansen FW. Hysteroscopic morcellator for removal of intrauterine polyps and myomas: a randomized controlled pilot study among residents in training. J Minim Invasive Gynecol. 2008;15(4):466–471.

7. Emanuel MH, Wamsteker K. The intra uterine morcellator: a new hysteroscopic operating technique to remove intrauterine polyps and myomas. J Minim Invasive Gynecol. 2005;12(1):62–66.

8. Emanuel MH, Hart A, Wamsteker K, Lammes F. An analysis of fluid loss during transcervical resection of submucous myomas. Fertil Steril. 1997;68(5):881–886.

9. Taskin O, Sadik S, Onoglu A, et al. Role of endometrial suppression on the frequency of intrauterine adhesions after resectoscopic surgery. J Am Assoc Gynecol Laparosc. 2000;7(3):351.

10. Propst AM, Liberman RF, Harlow BL, Ginsburg ES. Complications of hysteroscopic surgery: predicting patients at risk. Obstet Gynecol. 2000;96(4):517–520.

11. Perino A, Chianchiano N, Petronio M, Cittadini E. Role of leuprolide acetate depot in hysteroscopic surgery: a controlled study. Fertil Steril. 1993;59(3):507–510.

12. Mencaglia L, Tantini C. GnRH agonist analogs and hysteroscopic resection of myomas. Int J Gynaecol Obstet. 1993;43(3):285–288.

13. Hobo R, Netsu S, Koyasu Y, Tsutsumi O. Bradycardia and cardiac arrest caused by intramyometrial injection of vasopressin during a laparoscopically assisted myomectomy. Obstet Gynecol. 2009;113(2 Pt 2):484–486.

14. Munro MD, Storz K, Abbott JA, et al; AAGL. AAGL Practice Report: practice guidelines for the management of hysteroscopic distending media. J Minim Invasive Gynecol. 2013;20(2):137–148.

References

 

1. Perez-Medina T, Font EC, eds. Diagnostic and Operative Hysteroscopy. Tunbridge Wells, Kent, UK: Anshan Publishing; 2007:13.

2. Management of uterine fibroids: an update of the evidence. Agency for Healthcare Research and Quality. http://archive.ahrq.gov/clinic/tp/uteruptp.htm. Published July 2007. Accessed January 14, 2015.

3. Lasmar RB, Zinmei Z, Indman PD, Celeste RK, Di Spiezo Sardo A. Feasibility of a new system of classification of submucous myomas: a multicenter study. Fertil Steril. 2011;95(6):2073–2077.

4. AAGL Practice Report: practice guidelines for the diagnosis and management of submucous leiomyomas. J Minim Invasive Gynecol. 2012;19(2):152–171.

5. Pritts EA, Parker WH, Olive DL. Fibroids and infertility: an updated systematic review of the evidence. Fertil Steril. 2009;91(4):1215–1223.

6. Van Dongen H, Emanuel MH, Wolterbeek R, Trimbos JB, Jansen FW. Hysteroscopic morcellator for removal of intrauterine polyps and myomas: a randomized controlled pilot study among residents in training. J Minim Invasive Gynecol. 2008;15(4):466–471.

7. Emanuel MH, Wamsteker K. The intra uterine morcellator: a new hysteroscopic operating technique to remove intrauterine polyps and myomas. J Minim Invasive Gynecol. 2005;12(1):62–66.

8. Emanuel MH, Hart A, Wamsteker K, Lammes F. An analysis of fluid loss during transcervical resection of submucous myomas. Fertil Steril. 1997;68(5):881–886.

9. Taskin O, Sadik S, Onoglu A, et al. Role of endometrial suppression on the frequency of intrauterine adhesions after resectoscopic surgery. J Am Assoc Gynecol Laparosc. 2000;7(3):351.

10. Propst AM, Liberman RF, Harlow BL, Ginsburg ES. Complications of hysteroscopic surgery: predicting patients at risk. Obstet Gynecol. 2000;96(4):517–520.

11. Perino A, Chianchiano N, Petronio M, Cittadini E. Role of leuprolide acetate depot in hysteroscopic surgery: a controlled study. Fertil Steril. 1993;59(3):507–510.

12. Mencaglia L, Tantini C. GnRH agonist analogs and hysteroscopic resection of myomas. Int J Gynaecol Obstet. 1993;43(3):285–288.

13. Hobo R, Netsu S, Koyasu Y, Tsutsumi O. Bradycardia and cardiac arrest caused by intramyometrial injection of vasopressin during a laparoscopically assisted myomectomy. Obstet Gynecol. 2009;113(2 Pt 2):484–486.

14. Munro MD, Storz K, Abbott JA, et al; AAGL. AAGL Practice Report: practice guidelines for the management of hysteroscopic distending media. J Minim Invasive Gynecol. 2013;20(2):137–148.

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Linda D. Bradley MD, hysteroscopic myomectomy, mechanical approach, resectoscopy, hysteroscope, uterine fibroids, minimally invasive gynecologic surgery, MIGS, hysterectomy, abnormal uterine bleeding, AUB, dysmenorrhea, intrauterine device, IUD, leukorrhea, pelvic pain, urinary frequency, infertility, premature labor, hormone replacement therapy, postmenopausal woman, leiomyoma, Truclear Tissue Removal System, Smith & Nephew, hysteroscopic morcellation, fluid management, European Society of Gynaecological Endoscopy, ESGE, classification of fibroids, STEP-W classification, fertility, dilatation and curettage, D&C, adhesiolysis, polypectomy, retained products of conception, 2D or 3D saline infusion sonography, transvaginal ultrasound, magnetic resonance imaging, MRI, computed tomography, CT, hysterosalpingography, antibiotics, gonadotropin-releasing hormone, GnRH, vasomotor symptoms, cervical stenosis, vaginal hemorrhage, anesthesiologist, vasopressin, misoprostol,
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Linda D. Bradley MD, hysteroscopic myomectomy, mechanical approach, resectoscopy, hysteroscope, uterine fibroids, minimally invasive gynecologic surgery, MIGS, hysterectomy, abnormal uterine bleeding, AUB, dysmenorrhea, intrauterine device, IUD, leukorrhea, pelvic pain, urinary frequency, infertility, premature labor, hormone replacement therapy, postmenopausal woman, leiomyoma, Truclear Tissue Removal System, Smith & Nephew, hysteroscopic morcellation, fluid management, European Society of Gynaecological Endoscopy, ESGE, classification of fibroids, STEP-W classification, fertility, dilatation and curettage, D&C, adhesiolysis, polypectomy, retained products of conception, 2D or 3D saline infusion sonography, transvaginal ultrasound, magnetic resonance imaging, MRI, computed tomography, CT, hysterosalpingography, antibiotics, gonadotropin-releasing hormone, GnRH, vasomotor symptoms, cervical stenosis, vaginal hemorrhage, anesthesiologist, vasopressin, misoprostol,
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