Advanced Cell Models – Multimedia

Listen to this podcast to hear insights into some of the biggest successes and challenges scientists face when working with Body-on-a-Chip Technology.

This video was captured using a microscope that enables live imaging of 3D culture inside the incubator and shows a cerebral organoid growing on laminin over a week.

Download your whitepaper to learn more about modeling COVID-19 infection in organoids, how to combat COVID-19 variants as well as the future of organoid technology.

This installment of Teach Me in 10 features Dr Christopher Esk, a postdoctoral fellow at the Institute of Molecular Biotechnology in Vienna, Austria. In this episode Esk talks about the systematic analysis of human brain tissue development using cerebral organoids.

Complex 3D biological models such as organoids and patient-derived spheroids are gaining popularity in many biomedical research areas because they more closely recapitulate in vivo tissues.

Technological advances along with developments in molecular medicine and data science have fueled the exploration of personalized medicine, as a result, several fields are already benefiting. Download this eBook to learn more about the topic.

Download this listicle to learn more about the reasons to utilize advanced cell models, how these models are developed, their available formats and the application of such models.

While methods for generating organoids are still evolving, presently they are providing exciting and more accurate systems that are advancing our understanding of basic organ biology and tissue regeneration.

Studying tissue and organ biology is challenging, particularly in mammals, given sample accessibility and ethical concerns. However, the use of organoids alleviates these challenges, supporting researchers in exploring questions that previously could not have been investigated without them.

The use of organoids, self-organized three-dimensional (3D) assemblies of cells, as research tools has become more common due to their ability to better recapitulate human disease compared to more traditional models.