Search

Sensory nerve transfers are performed as part of phalloplasty surgery. Despite this, sensory re-education to rehabilitate these nerve transfers has not been employed. Additionally, little attention has been paid to the role of the central nervous system in experienced sensation following phalloplasty. The purpose of this article is to report on the development of a targeted rehabilitation protocol to integrate and optimize peripheral and central contributions to sensation following phalloplasty., Methods: This neurosensory re-education protocol was constructed over four phases by a multi-disciplinary team (phalloplasty/peripheral nerve surgeon, reconstructive urologist, pelvic floor physiotherapists, nerve therapist, sex therapist, sexual medicine physician) and individuals with lived phalloplasty experience. The final protocol was approved by all team members and is supported here by qualitative narratives from people with lived phalloplasty experience., Results: The protocol is built to follow each stage of phalloplasty surgery. In each stage, exercises are grouped into three core themes: visualization, tactile stimulation, and sexual/erogenous stimulation. Visualization exercises progress from static to dynamic. Tactile exercises start at simple touch and progress toward targeted sensory stimulation. Sexual stimulation focuses on developing erogenous sensation in the phallus that is separate from erogenous sensation in the natal clitoral tissue. By recommendation of individuals with phalloplasty, the protocol is now integrated into our center's phalloplasty care pathway for all individuals undergoing phalloplasty surgery., Conclusion: We introduce a novel protocol targeting peripheral and central contributions to sensation to provide a tool to help optimize experienced sensation for transmasculine individuals undergoing phalloplasty., (Copyright © 2022 The Authors. Published by Wolters Kluwer Health, Inc. on behalf of The American Society of Plastic Surgeons.)

A new method for catalyst deposition on the inner walls of capillary microreactors is proposed which allows exact control of the coating thickness, pore size of the support, metal particle size, and metal loading. The wall-coated microreactors have been tested in a selective hydrogenation reaction. Activity and selectivity reach values close to those obtained with a homogeneous Pd catalyst. The catalyst activity was stable for a period of 1000 h time-on-stream.