Force Guided Kidney Cell Organization

An image featuring World Kidney Day graphics with colorful kidney-shaped designs on the left, and the slogan 'Kidney Health For All' below. On the right, there's a close-up of a Piuma nanoindenter device poised above a petri dish, ready to measure tissue stiffness and cell organization.
Celebrating World Kidney Day 2024 with a focus on how kidney cell organization and stiffness in their surroundings could revolutionize regenerative treatments. Written by Dr Fabiany Da Costa Gonçalves & illustrated by Yashjit Gangopadhyay.

What if the future of regenerative medicine hinges on our ability to manipulate surface stiffness, unlocking novel possibilities for engineering kidney tissues?

Eindhoven University of Technology and University Medical Center Utrecht scientists explored a novel approach to support regenerative medicine, particularly in designing artificial kidneys or engineering kidney tissues. They investigated how mechanical guidance, such as controlling surface stiffness, can influence the organization of kidney cells.

Microenvironment stiffness affects cell organization

As the kidney develops, cell arrangement is crucial to tube formation and overall organ function. This organization is initiated by cells attaching to their surroundings through adhesion proteins. Studies have suggested that the stiffness of the surroundings affects this process, opening the possibility of using material stiffness to guide cell organization.

The researchers tested this idea by studying kidney cells grown on surfaces with different stiffness levels. The stiffness was quantified using Optics11 Life Piuma. They found that softer surfaces promoted canine kidney cell orientation, while stiffer surfaces prevented it. Also, blocking protein-mediated adhesion to stiff surfaces allowed cells to organize appropriately. However, when they tested human kidney cells in a 2D environment (flat surfaces), the cells did not arrange as expected, despite their ability to organize in 3D environments.

The findings show that organizing kidney cells into a specific structure is a complex process influenced by surface stiffness. Using Piuma’s technology, the study facilitates the development of artificial kidneys and kidney tissue engineering strategies.


References

Hagelaars, M. J., Yengej, F. a. Y., Verhaar, M. C., Rookmaaker, M. B., Loerakker, S., & Carlijn Bouten (2022). Substrate stiffness determines the establishment of Apical-Basal polarization in renal epithelial cells but not in Tubuloid-Derived cells. Frontiers in Bioengineering and Biotechnology, 10. https://doi.org/10.3389/fbioe.2022.820930

Interested in mechanobiology?

Discover latest

Application Notes

Revolutionizing Muscle Research: Measure the Contraction Kinetics of 3D-Engineered Muscle with Cuore

Download file
Case Study

Boehringer Ingelheim | New target discovery

Read case study
Application Notes

Measuring the Mechanical Properties of Matrigel®

Download file

PLATFORMS THAT ACCELERATE TRANSLATIONAL RESEARCH

Whether your focus lies on mechanical measurements and characterization at the cell scale, or you work with muscle tissues, our platforms offer you precise, fast, and accurate outcomes. Discover more about how our products can help you accelerate and achieve your research goals. 

WHO WE ARE

We are a growing team of 60+ passionate people, headquartered in Amsterdam, the Netherlands. Learn more about our journey so far, meet our team of professionals, and our career opportunities. 

SERVICE & SUPPORT

From initial interest to full-scale implementation, and throughout the entire lifecycle of our instruments, we offer our customers a dedicated and customized experience. We focus on optimizing the functionality and operation of our instruments, to ensure peak efficiency, enhancing their research productivity.

Resources

Contact

Quote Form

Get THE latest insights

Product Inquiry