The ability to analyze individual cells allows scientists to uncover a wealth of information hidden in the cellular heterogeneity of tissues, leading to breakthroughs in understanding diseases and developing targeted treatments. However, despite the critical importance of this research, traditional methods of single-cell analysis, particularly...
In the world of microfluidics, where controlling and monitoring the flow of liquids through channels no thicker than a human hair is critical, the development of an microfluidic pressure sensor marks an important advancement. This sensor, born from the collaborative effort of international research team...
Dry Eye Syndrome (DES) presents a significant challenge in ocular health, impacting millions globally with symptoms that reduce quality of life. Traditional research methods have fallen short in replicating the complex interplay at the corneal surface under DES conditions. A novel microfluidic study involving an...
Recent advancements in tissue engineering and organ-on-chip technology have led to the development of a novel microfluidic platform designed for the encapsulation and long-term culture of various types of cell aggregates with an emphasis on vascularization. This microfluidic chip represents a step forward in addressing...
In the fight against cancer, understanding the mechanics of metastasis—the process by which cancer spreads from one part of the body to another—is crucial. Cancer metastasis is a complex process that involves more than just the genetic and biochemical makeup of cancer cells; the physical...