You are here: HomeAfrica2020 02 11Article 863035

Africa News of Tuesday, 11 February 2020

Source: 3dprint.com

South African doctor conducts first successful deafness middle ear transplant

The surgery was led by Mashudu Tshifularo, The surgery was led by Mashudu Tshifularo,

Mashudu Tshifularo, a South African doctor, and his medical team became the first in the world to claim to cure a 35-year-old patient’s deafness by using 3D printing technology. Tshifularo, who is also a professor at the University of Pretoria Faculty of Health Sciences, was able to replace the damaged bones of the patient’s ear by recreating the anvil, hammer, stirrup, and ossicles, which make up the inner ear, with similarly-shaped titanium pieces produced on a 3D printer.

The University of Pretoria believes that the procedure “may be the answer to conductive hearing loss, a middle ear problem caused by congenital birth defects, infection, trauma or metabolic diseases.”

The groundbreaking surgery was performed at Steve Biko Academic Hospital, where the patient, who had lost his hearing due to a car accident, unfortunately damaged the inside of his ear. However, thanks to the surgeons, the surgery that took less than two hours, and the team purports to have restored his hearing successfully.

“By replacing only the ossicles that aren’t functioning properly, the procedure carries significantly less risk than known prostheses and their associated surgical procedures. We will use titanium for this procedure, which is biocompatible. We use an endoscope to do the replacement, so the transplant is expected to be quick, with minimal scarring,” Tshifularo explained.

Tshifularo believes that this innovative technique will be the answer to all of those patients suffering from hearing loss regardless of their age.

“The patients will get their hearing back immediately but since they will be wrapped in bandages, only after two weeks, when they are removed, will they be able to tell the difference,” Tshifularo added.

According to the South African Hearing Institute, hearing naturally declines from age 30 or 40. Hearing loss could be attributed to many factors: ageing, diseases, infections, or one can inherit the condition or can ruin their hearing after physical damage to the ears or head.

The University of Pretoria and Tshifularo are looking for partners and funding to standardize the procedure of 3D printed middle ear transplants.

As Tshifularo said: “3D technology is allowing us to do things we never thought we could, but I need sponsors and funding for this invention to take off the ground.”

Tshifularo grew up as a herdsman in the village of Mbahela outside Thohoyandou, in Venda, and has faced many financial challenges in furthering his education, but that didn’t stop him from reaching his dream. Although he has been spending the last ten years studying conductive hearing loss and he is now busy with his second PhD degree at the University of Pretoria, in the last two years he started looking into the use of 3D printing technology.

Tshifularo passed all his degrees within five years because, as he stated, he was focused.

“People like me never arrive. After climbing one mountain we want to climb another one. If I was easily satisfied I would have never achieved all the breakthroughs in my life,” Tshifularo added.

A similar groundbreaking procedure was performed in 1967 when South Africa claimed to be the first to perform a heart transplant thanks to Dr. Christiaan Barnard. Today, they are the first to perform an ear transplant by using 3D technology thanks to Professor Mashudu Tshifularo.

3D printers have proved to be extremely useful and needed in the medical industry. In Australia, for example, a 3D bioprinter called 3D Alek was developed to create replicas of the human ear for reconstructive surgery, especially for patients who suffer microtia.

On the other side of the world, in the United States, a company named Organovo has been using their NovoGen Bioprinter to develop liver tissues to delay or reduce the need for a transplant. Organovo’s goal is to be able to build living human tissues that are proven to function like native tissues, “with reproducible 3D tissues that accurately represent human biology.”