Creating a Brainy Computer: Scientists Link 16 Mini Human Brains
In the world of technological innovation, Switzerland-based startup FinalSpark is making waves with its groundbreaking creation – a computer processor like no other. According to a report by Tom’s Hardware, FinalSpark has developed a unique processor composed of 16 miniature brains constructed from human brain tissue. This “Living computer” is being touted as a viable alternative to traditional silicon-based computing systems. The startup has opened up access to its biocomputer, known as the Neuroplatform, allowing researchers to delve into studies involving artificial intelligence, a field that typically demands substantial resources.
Ewelina Kurtys, a scientist and strategic advisor at FinalSpark, highlighted the key advantage of biological computing in a recent company blog post. She emphasized that neurons possess the remarkable ability to process information using significantly less energy compared to conventional digital computers. The energy efficiency of living neurons is estimated to be over 1 million times greater than that of current digital processors. This revelation underscores the immense potential of harnessing biological components for computational tasks, paving the way for more sustainable and efficient computing solutions.
The core of FinalSpark’s innovation lies in its utilization of brain organoids – minute human brain tissue samples cultivated from neural stem cells. These organoids are nurtured in a specialized environment that sustains their vitality. By connecting these mini brains to specialized electrodes, FinalSpark enables them to engage in computer processing and digital analog conversions, translating neural signals into digital data. This intricate fusion of biological and technological elements marks a significant leap forward in the realm of computing.
While the concept of living computers may seem futuristic, it has gradually gained traction in the scientific community. Notably, recent experiments involving the integration of neurons with electrical circuits resulted in a device capable of voice recognition. Such hybrid systems offer distinct advantages over conventional silicon-based counterparts, boasting a considerably reduced carbon footprint. Kurtys highlighted the potential environmental benefits of employing living neurons for computations, underscoring the prospect of curbing greenhouse gas emissions while advancing technological frontiers.
FinalSpark envisions a future where its Neuroplatform serves as a catalyst for further advancements in biocomputer research. By fostering collaboration with other institutions, the startup aims to propel the development of living computer technology while positioning it as the next evolutionary stride in AI computing. As the boundaries between biology and technology blur, the prospect of leveraging living neurons for computational tasks holds immense promise, heralding a new era of innovation and sustainability in the digital landscape.
