3D Printing
News Videos Newsletter Contact us
Home / News / McGill Spinout Uses 3D Bioprinting to Create Tumors for Smarter Cancer Treatments
qidi

McGill Spinout Uses 3D Bioprinting to Create Tumors for Smarter Cancer Treatments

July 8, 2025

TissueTinker, a McGill University spinout company, has developed 3D bioprinting technology to create miniaturized tumor models for cancer drug testing. The company recently received funding from the McGill Innovation Fund (MIF) Develop award program. Their approach uses bioink to print complex tissue models that replicate both healthy and diseased tissues side by side.

McGill Spinout Uses 3D Bioprinting to Create Tumors for Smarter Cancer Treatments
McGill Innovation Fund team TissueTinker is reimagining how we test cancer therapies with customizable, human-relevant 3D bio-printed tumour models that replicate human tissue. (Credit: McGill)

The technology addresses a significant challenge in cancer drug development, where more than 90% of cancer treatments that pass preclinical tests in animals fail during human trials. Current testing methods rely primarily on animal testing and 2D cell cultures, which don’t accurately replicate the complexity of human tumors. The U.S. Food and Drug Administration has announced plans to replace animal testing with more human-relevant models to improve drug safety and reduce development costs.

TissueTinker’s bioprinted models measure as small as 300 microns and can be customized based on specific research requirements. “This is the sweet spot size,” co-founder Benjamin Ringler explained. “It’s large enough that it’s still valuable for testing purposes, but small enough to minimize resources.” The models allow researchers to analyze specific properties like hypoxic cores, which are low-oxygen areas within tumors.

The company was founded by Benjamin Ringler, Madison Santos, and Isabelle Dummer, who have backgrounds in biomedical engineering, cellular and gene therapy, and medtech development. They plan to expand their tumor library this year and develop a suite of models that can be licensed to different companies. Clinical development costs can reach $1-2 billion per drug, with 67% of those costs concentrated in clinical trial stages, making early-stage predictive tools financially important for the pharmaceutical industry.

Source: healthenews.mcgill.ca

Share:
WhatsApp Twitter Facebook LinkedIn Buffer Reddit E-mail
Join our newsletter

Our newsletter is free & you can unsubscribe any time.

Latest posts

Farsoon and Stark Future Complete KLINGA Project, Producing Over 1,000 Titanium Parts

Farsoon Europe GmbH and Stark Future have completed the KLINGA Project, a collaborative engineering initiative that produced more than 1,000 titanium parts using... read more »

3D Printing Metal
Farsoon and Stark Future Complete KLINGA Project, Producing Over 1,000 Titanium Parts

Swiss Steel Group’s Ugitech Introduces Custom Wire for 3D Metal Printing

Swiss Steel Group and its French subsidiary Ugitech have launched UGIWAM wire, a new product designed for wire arc additive manufacturing (WAAM). The... read more »

3D Printing Metal
Swiss Steel Group's Ugitech Introduces Custom Wire for 3D Metal Printing

QIDI Launches Q2 3D Printer for Home Users with Industrial-Grade Features

QIDI Tech has introduced the QIDI Q2, a compact, beginner-friendly desktop 3D printer engineered to bring professional-grade capabilities into the home. Designed as... read more »

3D Printers
QIDI Launches Q2 3D Printer for Home Users with Industrial-Grade Features

Purdue University Partners with Thermwood to Integrate Simulation with Large-Scale 3D Printing

Purdue University's Composites Manufacturing and Simulation Center has partnered with Thermwood to combine predictive simulation technology with large-scale 3D printing for composite parts... read more »

News
Purdue University Partners with Thermwood to Integrate Simulation with Large-Scale 3D Printing

University of Wyoming Researcher Receives NSF Grant to Study 3D Printing of Soft Materials

Daniel Rau, an assistant professor of mechanical engineering at the University of Wyoming, has received a $198,932 grant from the National Science Foundation... read more »

Materials
University of Wyoming Researcher Receives NSF Grant to Study 3D Printing of Soft Materials

Researchers Develop Real-Time Control System for 3D Printing of Thermosetting Polymers

Researchers led by Mejia et al. have developed a real-time monitoring and control system for direct ink write (DIW) 3D printing of thermosetting... read more »

Materials
Researchers Develop Real-Time Control System for 3D Printing of Thermosetting Polymers

Central Saint Martins Graduate Creates 3D Printed Tennis Balls

Central Saint Martins graduate Noé Chouraqui has developed Point, a 3D-printed tennis ball made from bio-based, recyclable filament. The balls maintain the traditional... read more »

News
Central Saint Martins Graduate Creates 3D Printed Tennis Balls

ETH Zurich Develops 3D Printed Heart Patch That Integrates with Cardiac Tissue

Researchers at ETH Zurich and the University Hospital of Zurich have developed a new type of cardiac patch designed to both seal and... read more »

Medical
ETH Zurich Develops 3D Printed Heart Patch That Integrates with Cardiac Tissue

RAF Installs First In-House 3D Printed Component on Operational Typhoon Fighter Jet

The Royal Air Force has installed its first internally manufactured 3D printed component on an operational Typhoon fighter jet at RAF Coningsby this... read more »

Aerospace
RAF Installs First In-House 3D Printed Component on Operational Typhoon Fighter Jet

Researchers Study Mollusk Teeth Formation to Advance 3D Printing Materials

Researchers from the University of California, Irvine and Japan's Okayama and Toho universities have published findings about how chitons develop their exceptionally hard... read more »

Materials
Researchers Study Mollusk Teeth Formation to Advance 3D Printing Materials

Social

  • Facebook Facebook 3D Printing
  • Linkedin Linkedin 3D Printing
Join our newsletter

Our newsletter is free & you can unsubscribe any time.

Featured Industries

  • Automotive
  • Aerospace
  • Construction
  • Dental
  • Environmental
  • Electronics
  • Fashion
  • Medical
  • Military
  • QIDI Tech Q1 Pro

    • - Print size: 245 x 245 x 245 mm
    • - 600mm/s max speed
    More details »
    $449.00 QIDI Store
    Buy Now
  • QIDI Tech X-Max 3

    • - Print size: 325 x 325 x 315 mm
    • - fully enclosed
    More details »
    $799.00 QIDI Store
    Buy Now
  • QIDI Plus4

    • - Print size: 305 x 305 x 280 mm
    • - print temperature of 370°C
    More details »
    $799.00 QIDI Store
    Buy Now
  • Snapmaker Artisan Premium 3-in-1

    • - Print size: 400 x 400 x 400 mm
    • - comes with enclosure
    More details »
    $2,999.00 Snapmaker
    Buy Now

Company Information

  • What is 3D Printing?
  • Contact us
  • Join our mailing list
  • Advertise with us
  • Media Kit
  • Nederland 3D Printing

Blog

  • Latest News
  • Use Cases
  • Reviews
  • 3D Printers
  • 3D Printing Metal

Featured Reviews

  • Anycubic Photon Mono M5s
  • Creality Ender 5 S1
  • The Mole 3D Scanner
  • Flashforge Creator 3 Pro

Featured Industries

  • Automotive
  • Aerospace
  • Construction
  • Dental
  • Environmental
  • Electronics
  • Medical
  • Military
  • Fashion
  • Art
2025 — Strikwerda en Dehue
  • Home
  • Join our mailing list
  • Contact us
Blog
  • Latest News
  • Use Cases
  • Reviews
  • 3D Printers
  • 3D Printing Metal
Featured Industries
  • Automotive
  • Aerospace
  • Construction
  • Dental
  • Environmental
  • Electronics
  • Medical
  • Military
  • Fashion
  • Art
Company Information
  • What is 3D Printing?
  • Contact us
  • Join our mailing list
  • Advertise with us
  • Media Kit
  • Nederland 3D Printing