Microfluidic devices have emerged as an innovative tool for single-cell analysis applications, but their success depends on the ability to retain cells in the cultivation chamber. Cell loss during long-term cultivation has been a significant challenge for microfluidic chips, limiting the ability to perform reproducible...
Encapsulation of cells inside microfluidic droplets is an important step in several cellular analysis applications. However, the lack of full control of experimental variables and conditions in droplet microfluidics can make it difficult to achieve Poisson distribution, which is the theoretical expectation for encapsulation statistics....
Protein crystallization is a crucial step in determining the structure of proteins, which is essential for understanding their function and developing new drugs. However, the process of crystallization is notoriously difficult and can take a long time to achieve success. In recent years, researchers have...
In recent years, there has been a growing trend towards the miniaturization and automation of life science workflows. This trend has led to the development of novel technologies that can automate complex analytical protocols, making them less laborious and more time-efficient. One such technology is...
Microfluidic devices have emerged as powerful tools for studying biological processes with high precision and control. In cancer research, the incorporation of a functional vascular system is essential to accurately model the tumor microenvironment and evaluate potential anti-cancer therapeutics. To address this challenge, researchers have...