The world of technology has been forever changed with the launch of a biological computer that merges living human brain cells with traditional silicon hardware. This is no longer the realm of science fiction, but a very real, tangible piece of technology that is now available on the market.
Cortical Labs, a cutting-edge research company, has unveiled the CL1 — a living computer that learns faster than any artificial intelligence (AI) chip currently available. The most mind-blowing part? You can buy one.
In this blog post, we’ll dive into the details of this synthetic biological intelligence (SBI), its functionalities, potential applications, and the ethical questions it raises.
What is the CL1 and How Does It Work?
The CL1 is a new type of computer that combines living human neurons with silicon hardware. This concept of biological computing might sound like something out of a futuristic science fiction novel, but it’s real, and it’s available today.
The Technology Behind the CL1
In simple terms, the CL1 is built on the premise of creating a symbiotic relationship between living human brain cells and traditional silicon. The neurons in the CL1 are grown in the lab from induced pluripotent stem cells (iPSCs), which can transform into various types of cells. These brain cells are then placed on a silicon chip equipped with 59 electrodes, forming a network that allows them to grow and connect. This setup forms what is known as synthetic biological intelligence (SBI).

The Components of the CL1 System
Component | Description |
---|---|
Living Neurons | Human neurons grown in a lab from iPSCs. These neurons form connections to create a living network. |
Electrode Array | A grid of 59 electrodes placed on a silicon chip to help read and write signals to the neurons. |
Body in a Box | A life support system to keep the neurons alive, including filtration, temperature control, and gas mixing. |
Software Interface | Software to send signals to the neurons and read their responses in real time. |
Cloud Connectivity | The ability to connect to biological computers remotely via cloud-based services. |
The neurons thrive on predictable signals, which they use to find energy-efficient ways to respond. By rewarding them for correct actions and punishing them for errors, the system mimics the process of learning, just like a human brain.
The Evolution of the Technology
Cortical Labs’ earlier work, dubbed Dish Brain, demonstrated how living neurons could be taught to play games like Pong. This marked the first step towards building a self-learning living network on a chip. The CL1 takes this a step further, offering more stability, energy efficiency, and programmability. With improved technology, the CL1 can learn faster and is much more versatile.
How Energy Efficient is the CL1?
One of the standout features of the CL1 is its remarkable energy efficiency. Traditional AI models, such as those that power large language models like ChatGPT, require massive computing power and consume significant amounts of energy. In contrast, the CL1 operates using living neurons, which are inherently more energy-efficient than traditional computing systems.
- A single CL1 box draws only around 850 to 1,000 watts of power, which is about the same energy as running a small microwave.
- In comparison, the energy required to run large-scale AI systems and data centers is far greater.
This efficiency is partly due to how the human brain operates — it only uses about 20 watts to keep you functioning. This efficiency in energy usage can revolutionize the way we build and operate AI systems and robotic technologies.
Key Applications of the CL1
Drug Discovery and Disease Modeling
One of the most promising applications of the CL1 is in the realm of drug discovery and disease modeling. Traditional models for studying neurological diseases like epilepsy and Alzheimer’s either rely on animal testing or 2D cell cultures. However, these methods are limited and often lead to failed drug trials. The CL1, on the other hand, allows for the study of neurological diseases using living neural networks, providing a more dynamic and realistic model for testing potential drugs.
In addition to drug testing, the CL1 could enable the development of personalized medicine. By growing neurons from a patient’s own cells, researchers can observe how the patient’s unique brain cells react to certain treatments, potentially improving the success rate of therapies.
Robotic Intelligence
The CL1 can also be integrated into robotic systems to enhance their learning capabilities. Instead of relying solely on traditional coding or feeding vast amounts of data into machines, robots powered by SBI can learn in ways that mimic human brain processes. This biological brain allows robots to adapt to new situations more naturally and efficiently, just like how humans learn from experience.
Energy Efficiency in AI and Robotics
The CL1 could pave the way for more energy-efficient AI systems. Traditional AI systems rely on large-scale hardware setups that consume huge amounts of energy. The CL1 model, with its biological components, is incredibly efficient, enabling smarter AI systems without the need for massive amounts of power.
Comparison | Traditional AI Models | CL1 (Synthetic Biological Intelligence) |
---|---|---|
Energy Consumption | High (large data centers and GPUs) | Low (approx. 1 kilowatt for 30 units) |
Learning Process | Depends on data and algorithms | Mimics human brain learning via neurons |
Flexibility | Less adaptable to new tasks | More flexible and adaptable in real-time |
Ethical Considerations: Is It Conscious?
As exciting as the CL1 is, it also raises significant ethical questions. Given that the technology involves living human brain cells, many wonder if the system could ever achieve consciousness. According to Cortical Labs, the CL1 is not conscious and doesn’t have self-awareness. The neurons are grown in a carefully controlled environment, designed specifically to harness their computational power, but they do not form full brains or exhibit consciousness.
- The neurons used in the CL1 are induced pluripotent stem cells (iPSCs), which can develop into various cell types but are not capable of forming a full brain with consciousness.
- Cortical Labs is transparent about these ethical concerns and assures that they are following proper regulations set by health agencies and bioethics committees.
The Future of Synthetic Biological Intelligence
The CL1 and SBI technology represent a bold step forward in the convergence of biology and computing. Cortical Labs is already looking to scale up the production of this technology. By the end of 2025, they plan to have biological neural network servers operational, which will allow researchers to rent computing power from the cloud and perform experiments without owning or maintaining the hardware.
This Wetware as a Service model could revolutionize how research is conducted, offering affordable, energy-efficient, and biologically advanced computing power to labs worldwide.
What’s Next for SBI?
The future of SBI is incredibly promising. Cortical Labs is working toward creating systems that can tackle even more complex tasks, from simulating the human brain to innovating in robotics and artificial intelligence. The ultimate goal is to create systems that learn and adapt in ways that more closely resemble human cognition.
Conclusion: A New Frontier in Technology
The launch of the CL1 marks the beginning of a new era in computing, where biology and silicon merge to create a form of intelligence that could outperform current AI systems in terms of learning speed and energy efficiency. While it may seem like a far-off concept, the CL1 is here today and is set to revolutionize fields like drug discovery, robotics, and AI.
The potential for synthetic biological intelligence is immense, and we are just beginning to scratch the surface of what these systems can achieve. The ethical implications, while important, do not overshadow the remarkable advancements being made in biological computing.
As researchers continue to push the boundaries of what’s possible, we might soon witness the next leap in computing technology. Will we see SBI become a cornerstone of the next wave of AI? Only time will tell, but it’s clear that the future is both mind-blowing and full of potential.
What do you think? Is this technology revolutionary, or does it raise too many questions for comfort? Leave your thoughts in the comments below!
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