The First AI Human Hybrid - Now We Are Closer Than Ever! - video Dailymotion

Nick Kouzos

An AI video from  UTUBE demonstrating human brain and AI intercom

Transcript

00:00Imagine a world where prosthetic limbs learn your habits,

00:05where paralyzed individuals control robots with their thoughts,

00:09where AI doesn't just live in code, it pulses through your veins,

00:14rewires your brain, and merges with your DNA.

00:19This AI-powered limb doesn't just move as it anticipates.

00:24Neuralink's brain chips, they're not sci-fi.

00:27They're decoding your neurons, turning minds into remote controls for reality.

00:33And China's new robot? It's alive.

00:37But here's the real question.

00:39When AI bleeds into your brain, who are you anymore?

00:44To start with, the University of Alberta's research team progresses with a significant

00:48leap forward in human augmentation with their development of the Bento Arm,

00:54an AI-powered prosthetic limb which smoothly converts the user's neural and muscular signals

01:00to create seamless and natural movements that are highly responsive.

01:05Harnessing a sophisticated network of high-resolution sensors, including electromyography,

01:10EMG sensors, inertial measurement units, IMUs, and tactile sensors, the Bento Arm senses even the most

01:18subtle signals from the limb, translating them into precise motor commands through advanced deep

01:23learning algorithms. These algorithms, trained on expansive data sets representing a wide range

01:29of natural human motions, not only predict intended movements with startling accuracy, but also adapt

01:36in real-time to the user and their varying environmental conditions.

01:41By 2031, the market for such algorithms is projected to reach 3.45 billion, and this is driven largely

01:48by AI and advanced analytics applications. Also, recent demonstrations at the 2024 Biomedical

01:55Engineering Conference showcase the device's capabilities in carrying out complex tasks, such as

02:01as delicately grasping fragile objects. It can also dynamically adjust grip strength based on

02:06continuous tactile feedback and transition flawlessly between activities from routine tasks like picking

02:13up a cup to more demanding tasks requiring fine motor control. Furthermore, repetitive updates to the

02:19machine learning models have enabled the Bento Arm to learn and recalibrate its responses over time.

02:25This leads to a more intuitive user experience that reduces the learning curve for new users.

02:31Collaborations with neuro-rehabilitation centers have also provided valuable insights into

02:36integrating the prosthetic with wearable smart devices, enhancing remote monitoring and performance

02:41tuning, thus paving the way for personalized prosthetic care. This groundbreaking innovation is not

02:48only a transformative step towards merging human physiology with advanced robotics, but also promises a future

02:54where enhanced prosthetics could restore lost body functions and drastically improve the quality of life

03:00for amputees worldwide. For context, traditional rehabilitation typically takes about 12 months to reach 85%

03:08proficiency, but with AI-enhanced prosthetics patients are reaching 95% proficiency in about six months. This

03:15acceleration comes from the system's ability to learn and adapt to each of the user's unique patterns and needs.

03:22In January 2025, scientists at the University of Cambridge announced groundbreaking developments in

03:27implantable muscle sensors, allowing paralyzed individuals to control prosthetic limbs flawlessly.

03:34This innovative technology harnesses AI-powered neural decoding to interpret muscle signals.

03:41Tiny sensors are implanted in the muscles to detect neural signals, which transmit to a processor that uses AI to

03:47to decode the signals and determine the intended movement. The decoded signals transmit to the

03:53prosthetic limb, which responds accordingly, and thereby allows individuals to control the limb with their

03:59thoughts. With real-time feedback and adjustment, individuals refine their control and dexterity, regaining

04:05motor function and independence. Additionally, Neuralink, a technology founded in 2016 by Elon Musk, attempts to create brain

04:13implants in humans. The company is working on effectively merging, integrating the human brain with AI,

04:20starting with the development of implantable brain machine interfaces, BMIs. Neuralink's brain implants

04:27feature tiny chips with 1024 electrodes that read neural signals and allow people to control devices with their thoughts.

04:35This enables humans to effectively merge with AI and adds to their cognitive abilities and sensory experiences.

04:42That means humans will be able to upload knowledge, skills, and even emotions directly into their brains,

04:48redefining the boundaries of human intelligence and capabilities with such technology. Neuralink's brain implants

04:54establish a direct, high-bandwidth communication link between the human brain and external computing devices.

05:00These implants then utilize ultra-thin, flexible electrode threads that are delicately inserted into

05:08the brain and capture thousands of neuronal signals with unmatched precision. Recent advancements focus

05:16on reducing the invasiveness of the implantation procedure. State-of-the-art robotic systems now ensure

05:21that these electrodes are placed with surgical accuracy, which in turn reduces trauma to neural tissue

05:27and enhances long-term biocompatibility. Recent preclinical studies show promising results of the

05:33implants by decoding complex neural activity patterns. As a result, users can control digital devices,

05:40restore motor functions in paralyzed individuals, and even compensate for cognitive impairments.

05:45Also, merging sophisticated AI algorithms helps to translate the neural data into commands that perform

05:52actions and paves the way for applications in neuro-rehabilitation and beyond.

05:57Although Neuralink navigates through regulatory hurdles and ethical debates,

06:01the constant hardware and software improvements signal a future where the boundary between biological

06:07and artificial intelligence is increasingly blurred. It also opens up new transformative possibilities

06:13for medical treatments and human enhancement. Furthermore, Synchron's Stentrode device represents

06:20a groundbreaking advancement in neural intelligence because it offers a minimally invasive alternative to the

06:25to the typical brain implants. Using a catheter to get through the vascular system,

06:30the Stentrode is guided to a blood vessel next to the brain's motor cortex, and its mesh-like electrode

06:36array expands to closely contact neural tissue. It's innovatively designed to allow the device to capture and

06:43interpret the brain's electrical signals without needing open brain surgery. For instance, a patient of a recent

06:50clinical trial with severe paralysis successfully used the Stentrode to control digital interfaces

06:56and interact with assistive technologies. This demonstrates its ability to restore lost functions,

07:02significantly improving life quality. Since the Stentrode eliminates the risks associated with

07:08craniotomy and leverages advanced data processing techniques, it paves the way for more intuitive, safer,

07:15and accessible brain machine communication systems. Aside from its unique implantation method,

07:21advancements in the Stentrode focus on improving both biocompatibility and signal quality. Enhanced

07:27materials and design modifications reduce the risk of inflammation and blood clot formation, which are

07:32common concerns with vascular implants. Additionally, the device features wireless data transmission

07:38capabilities which allows continuous and seamless monitoring of neural signals without the need for

07:43external wiring. Integrating bi-directional communication is also in the works, where future

07:48improvements of the Stentrode record brain activity and also deliver targeted electrical stimulation.

07:55Engineered Art's creation of Amica, a humanoid robot, was designed as a platform for AI research and

08:01human interaction applications. Launched in January 2022, Amica focuses on human-like expressions and facial

08:08movements. It distinguishes itself with its very human-like facial expressions and fluid

08:13body movements and it tests the boundaries of what is possible in social robotics. Amica's versatile

08:21platform for AI research and human-robot interaction applications continues to amaze the tech world.

08:27Utilizing cutting-edge motion control and actuation systems, Amica displays subtle, context-aware

08:33expressions mimicking human emotions as well as creating an engaging and intuitive interface for users.

08:40Its open architecture further enables the integration of custom AI modules by researchers

08:44and developers and experimentation with innovative interaction paradigms. Exploring a wide array of

08:50applications from customer service and education to healthcare and entertainment, demonstrations

08:55highlight Amica's ability to interpret and respond to complex human gestures and dialogue. It showcases

09:02not only its technical prowess but also its redefinition of the future of human-robot collaboration.

09:08So far we've talked about AI-human hybrids, but what about AI-insects? Robots powered by insect brains

09:16could be used on Mars in the near future. These insect-brained robots represent an innovative

09:21leap in robotics by emulating the compact yet highly efficient neural architectures found in insects.

09:28Researchers are inspired by the way these tiny creatures process sensory information and make rapid

09:34decisions with minimal computational power, qualities that are crucial for exploring challenging

09:39environments like Mars. The concept involves designing robotic systems with decentralized control and

09:46energy-efficient processing enabling them to quickly adapt to unpredictable terrains and adverse

09:52conditions. For instance, these robots could work in coordinated swarms, each unit contributing to a

09:58collective intelligence that enhances overall performance in navigation, obstacle avoidance, and data

10:03collection. Their minimal power requirements and robust design make them ideal for the harsh

10:09Martian landscape, where extreme temperatures, dust storms, and radiation pose significant challenges.

10:16By leveraging biomimetic principles, insect-brained robots could transform extraterrestrial exploration,

10:22offering a scalable and resilient alternative to traditional energy-intensive rovers and opening up new

10:29new possibilities for in-depth scientific research on Mars. In a similar fashion, China

10:34stuns with their new AI robot bringing a new take to the AI humanoids with their

10:40brain-on-a-chip research. Instead of building the average robot with a silicon brain, they manufactured a

10:46brain made from actual living cells, thus crossing a line once believed to be uncrossable with a partially

10:53biological brain, essentially redefining the very essence of artificial intelligence. To paint a

10:59clearer picture, the robot brain-on-a-chip relies on traditional computing circuits. These researchers grow

11:06extremely tiny brain cells from stem cells attempting to mimic the design of human brain. They then

11:12transplant such cells into a machine, thereby creating a robot that learns and adapts like a living

11:18creature. The robot experiences things and evolves based on what it learns, making it closer to how

11:24human brains work than any other humanoid AI seen before. Besides the advancements in prosthetics and

11:31direct motor control, a new path in the race for the first AI-human hybrid emerges in the realm of

11:36cognitive augmentation. A promising approach involves the development of a digital exocortex, a wearable or

11:44implantable device that functions as an extension of the human brain. Leveraging non-invasive neuroimaging

11:50techniques and state-of-the-art machine learning algorithms, these systems decode neural activity related to

11:55memory, decision-making, and creative problem solving. Besides, preliminary studies show that subjects using

12:02exocortex prototypes display measurable improvements in complex task performance, which suggest that AI

12:08effectively supplements natural neural functions and enhances cognitive capabilities. In parallel,

12:15investigations into technologies like neural dust are underway to establish seamless live dialogue

12:22between the brain and external AI systems. Neural dust consists of ultra-miniaturized wireless

12:28sensors that are implanted near neural tissue to capture high-fidelity electrical signals. These signals

12:34enable a constant feedback loop that personalizes cognitive enhancement. This integration of biological

12:41and artificial intelligence opens up the possibility of a hybrid system where the brain's in-depth functions

12:47are aided by continuous AI-driven support, potentially revolutionizing fields such as education, mental health,

12:55and beyond. These technologies mark a significant step toward blurring the line between human cognition

13:02and artificial augmentation. Stay skeptical. Stay curious. And remember, the future doesn't just happen. We build it.

The First AI Human Hybrid - Now We Are Closer Than Ever!

Category

Transcript

Be the first to comment

Recommended