Title of Abstract
Developing Microfluidic Devices for Assisted Reproductive Technologies
Poster Number
115
Session Title
Physical Sciences, Math, and Computer Science
College
College of Arts and Sciences
Department
Chemistry, Physics, Geology, & the Environment
Faculty Mentor
Alireza Abbaspourrad, Ph.D., and Amir Mokhtare, B.S., Cornell University
Abstract
The gaining popularity of Assisted Reproductive Technologies (ART) such as In Vitro Fertilization (IVF) and Intracytoplasmic Sperm Injection (ICSI) calls for the introduction of more affordable and less tedious processes rather than the typical manual operations. In order for ICSI to occur, the Cumulus Oocyte Complexes (COCs) retrieved from the ovaries must be processed in order to remove the tightly-packed cumulus cells surrounding them. As of yet, this tedious and unstandardized process is being done manually by skilled embryologists, which results in variability and unavailability. The focus of this project is to develop microfluidic devices to denude the COCs for ICSI, in order to reduce the tyranny of manual operations and push toward automated, reproducible operations. These microfluidic devices are fabricated through conventional PDMS microfluidic processes and tested using automated magnetic pumps controlled by a microcontroller. To date, actual microfluidic devices have been developed and successfully tested using particles similar to COCs.
Start Date
24-4-2020 12:00 AM
Developing Microfluidic Devices for Assisted Reproductive Technologies
The gaining popularity of Assisted Reproductive Technologies (ART) such as In Vitro Fertilization (IVF) and Intracytoplasmic Sperm Injection (ICSI) calls for the introduction of more affordable and less tedious processes rather than the typical manual operations. In order for ICSI to occur, the Cumulus Oocyte Complexes (COCs) retrieved from the ovaries must be processed in order to remove the tightly-packed cumulus cells surrounding them. As of yet, this tedious and unstandardized process is being done manually by skilled embryologists, which results in variability and unavailability. The focus of this project is to develop microfluidic devices to denude the COCs for ICSI, in order to reduce the tyranny of manual operations and push toward automated, reproducible operations. These microfluidic devices are fabricated through conventional PDMS microfluidic processes and tested using automated magnetic pumps controlled by a microcontroller. To date, actual microfluidic devices have been developed and successfully tested using particles similar to COCs.
