• Skip to primary navigation
  • Skip to content

Design Garden

Resources for Biomedical Engineering Device Design

  • Design Garden
  • Design Innovation Process
    • Global Health Capstone
    • Voice of the Customer
    • User Needs and Design Inputs
    • Intellectual Property
    • Ideation
    • Prototyping Resources
    • Regulatory Affairs
    • Market Assessment
  • Capstone Projects
    • Spring 2025 Capstone Expo Showcase
    • F24 Expo Project Showcase
    • S24 Expo Project Showcase
  • Capstone Testimonials
  • Sponsor a Project
  • STAT Credentialing
  • Contact Us

N.4 Amelioration of the risk for uterine perforation during entry into the uterine cavity at the time of hysteroscopy

S24 · January 7, 2024

N.4 Amelioration of the risk for uterine perforation during entry into the uterine cavity at the time of hysteroscopy 

Problem Description

Title: Amelioration of the risk for uterine perforation during entry into the uterine cavity at the time of hysteroscopy

 

Hysteroscopy is a commonly performed minimally invasive gynecological procedure. During hysteroscopy, a camera with an operating channel is inserted through the cervix and into the uterus in order to diagnose and treat a variety of uterine pathologies. Often, the most difficult portion of the procedure is successfully navigating the passageway within the cervix in order to access the uterus. This passageway is often narrow, stenotic or tortuous. Difficulty traversing the cervix can lead to several complications including the formation of “false passageways” which preclude performance of the scheduled procedure, or more dangerously, “uterine perforation” which can result in injury to the patient’s bowel or bladder or rectum. In 1879 Hagar dilators, rigid metal probes of increasing diameter, were invented to gain access to the uterine cavity. There have been several variations to the Hagar dilator but no real, successful, innovation within the field.

 

Thus, the clinical gap is lack of a uterine access/dilating device that solves several deficiencies in the existing devices used for hysteroscopy.

Filed Under: S24

Alessandra Luna

Alessandra is a fifth-year Ph.D. student in Biomedical Engineering at Georgia Tech and Emory University, developing ultrasound-based microfluidic sensors for intracranial pressure monitoring. She has been part of the BME Capstone Design program since 2022, previously serving as Head Graduate Teaching Assistant and currently as the New Partnerships Liaison. Passionate about education and mentorship, she aims to lead a Tier-1 academic lab focused on advancing biomedical innovation and improving access to medical care.

Reader Interactions

Copyright © 2025 · Maker Pro on Genesis Framework · WordPress · Log in