Human Neurons Power Remote Biocomputing Platform

The world of biocomputing is on the brink of a groundbreaking transformation with the advent of a cutting-edge platform that offers unprecedented access to human brain organoids. These organoids, developed from stem cells, represent a significant leap forward in the quest to create the world's first living processor for biocomputing. With 16 brain organoids available for around-the-clock research, the potential for unlocking the brain's processing capabilities is immense.

Unlike traditional digital processors, these bioprocessors, made up of living neurons, have the remarkable ability to learn and process information while consuming a fraction of the power. This not only promises a more sustainable approach to computing but also opens up new possibilities for advancing technology in an environmentally conscious manner.

The response to this innovative platform has been overwhelmingly positive, with a growing number of universities expressing keen interest in leveraging the power of brain organoids for research purposes. FinalSpark, the company behind the neuroplatform, has already granted free access to nine institutions for Research Use Only, paving the way for collaborative efforts in the pursuit of groundbreaking discoveries.

Dr. Fred Jordan, co-founder of FinalSpark, emphasizes the importance of international collaboration in achieving the ambitious goal of building the world's first living processor. With a shared vision driving their efforts, the team at FinalSpark is prepared to scale up operations to meet the increasing demand for access to the neuroplatform, setting the stage for a new era of biocomputing.

Through the Neuroplatform, companies now have the opportunity to conduct remote research on neuronal tissues placed on Microelectrode Arrays (MEAs), facilitating a wide range of electrophysiological experiments. The longevity of the three-dimensional neuronal structures allows for experiments to run over extended periods, enabling researchers to delve deeper into the complexities of brain function and behavior.