Overview of surgical techniques in gender-affirming genital surgery.

Gender related genitourinary surgeries are vitally important in the management of gender dysphoria. Vaginoplasty, metoidioplasty, phalloplasty and their associated surgeries help patients achieve their main goal of aligning their body and mind. These surgeries warrant careful adherence to reconstructive surgical principles as many patients can require corrective surgeries from complications that arise. Peri-operative assessment, the surgical techniques employed for vaginoplasty, phalloplasty, metoidioplasty, and their associated procedures are described. The general reconstructive principles for managing complications including urethroplasty to correct urethral bulging, vaginl stenosis, clitoroplasty and labiaplasty after primary vaginoplasty, and urethroplasty for strictures and fistulas, neophallus and neoscrotal reconstruction after phalloplasty are outlined as well.

Current Concepts in Feminizing Gender Surgery.

LEARNING OBJECTIVES: After reading this article and viewing the video, the participant should be able to: 1. Discuss appropriate treatment guidelines, including preoperative mental health and hormonal treatment before gender-affirmation surgery. 2. Name various surgical options for facial, chest, and genital feminization. 3. Recognize key steps and anatomy during facial feminization, feminizing mammaplasty, and vaginoplasty. 4. Discuss major risks and complications of vaginoplasty. SUMMARY: Transgender and gender-nonconforming individuals may experience conflict between their gender identity and their gender assigned at birth. With recent advances in health care and societal support, appropriate treatment has become newly accessible and has generated increased demand for gender-affirming care, which is globally guided by the World Professional Association for Transgender Health. This CME article reviews key terminology and standards of care, and provides an overview of various feminizing gender-affirming surgical procedures.

Current Concepts in Masculinizing Gender Surgery.

LEARNING OBJECTIVES: After reading this article and viewing the video, the participant should be able to: 1. Discuss appropriate treatment guidelines, including preoperative mental health and hormonal treatment before gender-affirmation surgery. 2. Name various surgical options for facial, chest, and genital masculinization. 3. Recognize key steps and anatomy during chest-wall contouring and phalloplasty reconstruction. 4. Discuss major risks and complications of chest-wall contouring and phalloplasty reconstruction. SUMMARY: Transgender and gender-nonconforming individuals may experience conflict between their gender identity and their gender assigned at birth. With recent advances in health care and societal support, appropriate treatment has become newly accessible and has generated increased demand for gender-affirming care, which is globally guided by the World Professional Association for Transgender Health. This CME article reviews key terminology and standards of care, and provides an overview of various masculinizing gender-affirming surgical procedures.

Comparison of flow rates in the antegrade and retrograde internal mammary vein for free flap breast reconstruction.

BACKGROUND: The internal mammary vein (IMV) is commonly used as a recipient vessel in the direction of antegrade flow for free flap breast reconstruction. Recent reports show that the distal IMV is valveless and can accommodate retrograde flow. We sought to quantify blood velocity and flow through the distal IMV following free tissue transfer. METHODS: Ten free flap breast reconstructions were performed. The larger vena comitans of the DIEA was anastomosed to the antegrade internal mammary vein (AIMV). The smaller vena comitans was anastomosed to the retrograde internal mammary vein (RIMV) in five free flaps, and the superficial inferior epigastric vein (SIEV) was anastomosed to the RIMV in five other free flaps. RESULTS: The mean diameter of the larger vena comitans (3.4 ± 0.5 mm) was significantly greater than that of the smaller vena comitans (2.4 ± 0.4 mm; P = 0.003). Mean velocity in the AIMV after anastomosis was 10.13 ± 5.21 mm/s compared with 7.01 ± 2.93 mm/s in the RIMV (P = 0.12). Mean blood flow in the AIMV and the RIMV was 81.33 ± 52.81 mm(3) /s and 57.84 ± 45.11 mm(3) /s, respectively (P = 0.30). Mean blood flow in the RIMV was not significantly affected by whether the donor vein was the smaller vena comitans (70.78 ± 61.43 mm(3) /s) or the SIEV (44.90 ± 19.70 mm(3) /s; P = 0.40). CONCLUSIONS: Blood flow in the RIMV was less but not significantly different from flow in the AIMV. The difference is likely due to the smaller-sized donor vein anastomosed to the RIMV. The RIMV is a reliable, useful option when the antegrade vein is not available, or when a second recipient vein is needed.

Beckwith-Wiedemann syndrome and juvenile fibroadenoma: a case report.

Beckwith-Wiedemann syndrome (BWS) is a complex overgrowth disorder usually recognized at birth. Children diagnosed with BWS, particularly those with hemihypertrophy, experience an increased risk of developing benign and malignant tumors. This case report presents a 12-year-old girl with BWS and hemihypertrophy who rapidly developed enlarging, asymmetric tumors of bilateral breasts. Few cases of patients with BWS and benign breast tumors exist in the literature. The differential diagnosis of breast tumors in the adolescent female is described. The treatment plan and reconstruction options particular to the developing young female are also discussed.