Digital Engineering 24/7

Helping design and engineering professionals discover, evaluate and specify technologies and processes that shorten the design cycle and enable success.

Scotland Researchers Make Bioprinting Breakthrough

Scotland Researchers Make Bioprinting Breakthrough
Bioprinting with stem cells could lead to quicker turnaround times on drug testing. Courtesy of Nissim Benvenisty.

Latest Additive Manufacturing News

Latest Additive Manufacturing Resources

  • Digital Engineering April 2026

    In the latest issue of Digital Engineering, we take a look at the latest innovations in design for additive manufacturing, including the use of natural language inputs, social media cosplayers, and AI integration. The issue also includes a feature…

  • January Special Focus Issue: Design for Additive

    In this Special Focus Issue of Digital Engineering, learn about the latest advancements in design for additive manufacturing, including new software tools, additive in automotive, custom medical devices, and more.

  • More Resources

By John Newman  

February 5, 2013

Bioprinting is a rapidly growing field that shows plenty of promise for improving the lives of people around the world. As such, it is a subject we’ve covered before. Just like with other additive manufacturing (AM) processes, however, bioprinting has a plethora of uses. All those smart people in lab coats keep coming up with new ideas.

A team of researchers in Scotland have made a breakthrough in bioprinting by discovering a method of printing human embryonic stem cells (hESCs). This advance could enable 3D tissues and other organic structures to be built, allowing for faster drug testing, among other possible applications.

Stem Cells

The study, which has been published under the title “Development of a valve-based cell printer for the formation of human embryonic stem cell spheroid aggregates” in Biofabrication, was conducted at Heriot-Watt University in partnership with Roslin Cellab, a stem cell technology company. The researchers used a valve-printing process that was specifically designed to account for the delicate nature of hESCs.

"Using this valve-based method, the printed cells are driven by pneumatic pressure and controlled by the opening and closing of a microvalve. The amount of cells dispensed can be precisely controlled by changing the nozzle diameter, the inlet air pressure or the opening time of the valve," said co-author, Dr. Will Wenmiao Shu.

"We found that the valve-based printing is gentle enough to maintain high stem cell viability, accurate enough to produce spheroids of uniform size, and, most importantly, the printed hESCs maintained their pluripotency — the ability to be differentiated into any other cell type," added Shu.

If approved, this particular breakthrough should thrill PETA, by eventually making animal testing obsolete. Other applications for hESC bioprinting include building new organs for needy patients from their own biological material. This has the potential to nearly eliminate the medical field’s current dependency on organ donors, as well as reduce the need for immune suppression, and would overcome transplant rejection.

Below you’ll find an interesting video that talks about stem cells.


Source: EurekaAlert

 

Latest in Bioprinting

About John Newman

John Newman

John Newman is a Digital Engineering contributor who focuses on 3D printing. Contact him via [email protected] and read his posts on Rapid Ready Technology.

Follow DE
on Facebook
on Linkedin

Related Topics

Additive Manufacturing   3D Printing   Resources   Rapid Ready Tech   Bioprinting   Heriot-Watt University   Roslin Cellab   All topics
 

Subscribe

Subscribe to our FREE magazine, FREE email newsletters or both!

Join over 90,000 engineering professionals who get fresh engineering news as soon as it is published.

Subscribe today

 
 

From our Sponsors

Meltio Takes Metal Additive to the Next Level
Meltio's DED technology enables industries to tailor and customize their solutions to create & repair metal parts.
Easing the Transition from ETO to CTO with Configuration Lifecycle Management
Manufacturers are discovering that the Configure-to-Order (CTO) model provides significant benefits when it comes to customization.
Siemens + Altair = The Next Chapter in Design and Simulation
With its acquisition of Altair, Siemens creates a unified simulation portfolio combining generative design with high-performance computing and AI workflows.