How wires and microchips blend with blood vessels and nerves to alter the course of human evolution and open new horizons for human capabilities through technologies such as smart Neuralink chips.
Article contents:
- Introduction
- Modern prosthetics
- Enhancing human capabilities with external devices
- Brain-computer interfaces
- Leading companies and their innovations
- Neuralink and artificial intelligence
- Touch technology in prosthetics
- Genetic engineering and future horizons
- The Chinese experiment
- The first cyborg
- Conclusion
Our world today is witnessing an irreversible technological transformation. With each passing year, cyber technologies and artificial intelligence creep into various aspects of life, eventually affecting our very bodies. Smartphones have become a natural extension of our hands, and the prospects of implanting robotic limbs or using micro-robots (“nanobots”) to support the immune system loom on the horizon. But what drives us to allow technology to penetrate our human physiology? One of the most important motivations is restoring a lost function or correcting a congenital deficiency, such as replacing limbs through prosthetics that help individuals regain movement and control. At the forefront of these developments are smart Neuralink chips, which may change our perception of the limits of human capabilities.
Modern prosthetics
Since the early 19th century, mechanical devices mimicking the action of missing limbs have appeared. Today, some of the most advanced prosthetics in the world integrate nervous system signals, allowing the user to control the prosthetic limb simply by thinking about movement. Known as myoelectric prosthetics, this technology relies on electrodes inside the socket touching the skin on the residual part of the limb. When the user contracts specific muscles to perform a certain movement—such as closing fingers, bending the elbow, or rotating the wrist—the device recognizes that electrical signal and responds, achieving a high degree of motor freedom. These technologies pave the way for integrating smart Neuralink chips with limbs for more precise and natural responses.
Enhancing human capabilities with external devices
The matter is no longer limited to compensation alone, but extends to enhancing human potential to potentially superhuman capabilities. For example, there are exoskeletons worn as an external body frame. Active exoskeletons powered by machine learning motors, such as the Apogee Ultra developed by German Bionics, work to increase human lifting capacity. The Apogee Ultra provides support for lifting loads up to 36 kilograms, in addition to walking assistance, making a 6-mile walk feel like just 5 miles. In contrast, there are passive exoskeletons like the HeroWear Apex 2, which use a system of elastic straps to relieve body fatigue during lifting and movement, then assist the person in returning to a standing position.
Brain-computer interfaces
Brain-computer interfaces are a rapidly advancing new field in the domain of enhancing human capabilities. Brain waves are read and sent to a computer via electrodes placed on the head or implanted inside the brain. These electrodes capture electrical signals generated by billions of neurons, and each signal can be translated into a specific action. For example, the signals generated when thinking about moving a cursor on the screen are recognized and then actually executed on the computer. This technology is used to help those with debilitating movement or speech disorders, enabling them to browse the internet or turn their thoughts into written text. Smart Neuralink chips are among the most prominent examples of these advanced interfaces.
Leading companies and their innovations
Among the leading companies driving this field are Paradromics and Synchron. Paradromics has developed a device called the Connexus Direct Data Interface (DDI) to help people with motor disabilities regain speech capability via computer. This device relies on hundreds of “ultra-fine wires” that penetrate the cerebral cortex a little more than a millimeter to gather the strongest signals. The data is then transmitted wirelessly to be converted into commands controlling speech software on the computer. As for Synchron, it has created a device known as the Stentrode, which performs almost the same task, but relies on inserting an electrical stent inside the blood vessels in the brain to pick up neural signals.
Neuralink and artificial intelligence
The most controversial project is Elon Musk’s Neuralink N1, designed to translate human brain activity into digital commands. This coin-sized chip is implanted beneath the skull, capturing neural signals to execute hands-free computer commands, such as browsing the internet or playing video games. It is said that integrating smart Neuralink chips with artificial intelligence could be a step toward a boundless future, where answers and knowledge can theoretically be obtained simply by thinking about them. Musk hinted at the 2017 World Government Summit in Dubai that the merger between biological intelligence and digital intelligence will increase over time.
Touch technology in prosthetics
Most brain-computer interfaces are still dedicated to interacting with screens, but recently researchers at the University of Chicago achieved an exciting breakthrough in January 2025, succeeding in making users feel the texture of objects picked up by a prosthetic limb. This is done by placing electrodes on both sides of the head: one side to control limb movement, and the other for touch sensation. Sensors in the prosthetic arm then send electrical pulses to the electrodes responsible for touch, giving the brain a sensation similar to actual feeling. This technology represents an important development that can be combined with smart Neuralink chips to achieve a more complete sensory experience.
Genetic engineering and future horizons
Human evolution in the future may reach the modification of genetic makeup itself. Using CRISPR-Cas9 technology, scientists can “cut” unwanted genes and “paste” desired genes in their place. This technology is mainly used in agricultural and pharmaceutical products, such as increasing pigment production in pineapples or enabling corn to produce its own insecticides. But the idea of applying it to humans is not out of reach. Although editing human embryos is banned in most countries around the world, it is not without controversial experiments. The door may later open to combining these technologies with smart Neuralink chips to create genetically and technologically enhanced capabilities.
The Chinese experiment
In 2018, Chinese researcher He Jiankui caused global uproar by announcing that he had edited the genome of twin girls by removing a gene called CCR5 associated with increased risk of HIV infection, in the hope of protecting them in the future. Although this violated Chinese law, he stated in 2024 to the Japanese newspaper The Mainichi that the twins are healthy and do not suffer from any developmental problems. These experiments raise ethical questions similar to those related to the development of smart Neuralink chips and their impact on the future of humanity.
The first cyborg
Since 2004, artist Neil Harbisson has worn an antenna in his head. Harbisson was born with color blindness, but wanted to experience the full spectrum of colors in the world. A sensor is mounted at the tip of the antenna that receives light waves, and data is transmitted to a computer chip attached to the back of his skull. The chip converts this data into vibrations transmitted through the skull bones toward the eardrum, which Harbisson hears as different sounds representing colors. Over two decades, he learned to distinguish colors by “hearing” them, thus becoming one of the first to be described as a “cyborg.” Harbisson’s experience represents an early beginning of what smart Neuralink chips can achieve in a more advanced and integrated manner with the human body.
Whether we are talking about prosthetic limbs that respond directly to our thoughts, smart Neuralink chips that connect to a computer, or even modifying our genetic code, the future of human evolution is open to endless possibilities. With every new innovation, we come a step closer to a world where the boundaries between the technological and the biological blur, raising major ethical questions about our human nature and our rights to alter ourselves. The coming years will be crucial in determining whether this mix of technologies will lead us to a new golden age of human evolution, or place us before unprecedented challenges.
