正在加载视频...

视频加载失败

加载此视频时出现问题。这可能是由于临时网络问题，或视频可能不可用。

A hands-free wheelchair is now here! Powered by brain-computer interface (BCI) tech, this smart electric wheelchair from Guangzhou's IHNNK offers new mobility for those with limited hand function. Using a non-invasive BCI headband, it captures brain signals, eye, and head movements, letting users control movement, turns, and stops by... show more

Hi,GBA

85,008 subscribers

58,573 次观看 • 6 个月前 •via X (Twitter)

健康养生教育科学技术

Anya Rossi• Live Now

Private livecam show

0 条评论

暂无评论

原始帖子的评论将显示在这里

相关视频

I set the world record for cursor control with a brain computer interface using my Neuralink brain implant! #Neuralink #bci #fyp

I set the world record for cursor control with a brain computer interface using my Neuralink brain implant! #Neuralink #bci #fyp

Jake Schneider

11,932 次观看 • 11 个月前

1960s — first brain-computer interface experiments 1998 — first human BCI implant 2005 — paralyzed patient regains movement via BCI 2026 — furry tail, hands-free

1960s — first brain-computer interface experiments 1998 — first human BCI implant 2005 — paralyzed patient regains movement via BCI 2026 — furry tail, hands-free

Shitty Future

23,699 次观看 • 4 个月前

A paper in Nature Medicine presents an intracortical brain–computer interface (BCI) that enables long-term, independent speech-based communication and computer use in an individual with severe paralysis.

A paper in Nature Medicine presents an intracortical brain–computer interface (BCI) that enables long-term, independent speech-based communication and computer use in an individual with severe paralysis.

Nature Portfolio

20,842 次观看 • 24 天前

Apple Vision Pro will get support for brain-computer interface (BCI) devices later this year, starting with Synchron's Stentrode. Details here:

Apple Vision Pro will get support for brain-computer interface (BCI) devices later this year, starting with Synchron's Stentrode. Details here:

UploadVR

29,550 次观看 • 1 年前

This perspective will be more intuitive. Fourier is building a data acquisition and training platform that integrates non-invasive brain-computer interfaces and humanoid robots. This wealth of data will enhance the intelligence level of GR-3. The goal is for GR-3 to accurately identify the brain intention signals of stroke patients during future rehabilitation training and respond in real time to guide patients in performing rehabilitation movements. For example, lifting the left hand, picking up a block from the table, etc. Of course, GR-3 can also become a life assistant controlled by a human BCI. Imagine that people with mobility impairments could also issue commands to GR-3 via BCI to open the refrigerator and get a drink.

This perspective will be more intuitive. Fourier is building a data acquisition and training platform that integrates non-invasive brain-computer interfaces and humanoid robots. This wealth of data will enhance the intelligence level of GR-3. The goal is for GR-3 to accurately identify the brain intention signals of stroke patients during future rehabilitation training and respond in real time to guide patients in performing rehabilitation movements. For example, lifting the left hand, picking up a block from the table, etc. Of course, GR-3 can also become a life assistant controlled by a human BCI. Imagine that people with mobility impairments could also issue commands to GR-3 via BCI to open the refrigerator and get a drink.

CyberRobo

18,624 次观看 • 5 个月前

NEURALINK IS BUILDING TECH YOU CONTROL WITH YOUR MIND Neuralink’s PRIME Study is testing a fully implantable, wireless brain-computer interface to let people with quadriplegia control devices just by thinking. The implant, hidden under the skin, decodes brain activity to let users operate computers or smartphones with pure intention—no wires, no physical movement. This global study aims to enhance computer control for those with spinal cord injuries or ALS. Source: Neuralink

NEURALINK IS BUILDING TECH YOU CONTROL WITH YOUR MIND Neuralink’s PRIME Study is testing a fully implantable, wireless brain-computer interface to let people with quadriplegia control devices just by thinking. The implant, hidden under the skin, decodes brain activity to let users operate computers or smartphones with pure intention—no wires, no physical movement. This global study aims to enhance computer control for those with spinal cord injuries or ALS. Source: Neuralink

Mario Nawfal

148,447 次观看 • 1 年前

NEW: This beanie lets you type with just your thoughts. Sabi just emerged from stealth with a brain-computer interface you wear like a beanie that turns internal speech into text on a screen. • Noninvasive interface worn as a cap or beanie • 70,000–100,000 sensors for high-density brain signal capture • Trained on 100,000+ hours of neural data • ~30 words per minute at launch, improves with use • Backed by Khosla, Accel, Initialized, and Kevin Weil Sabi feels like the first real attempt at a consumer BCI.

NEW: This beanie lets you type with just your thoughts. Sabi just emerged from stealth with a brain-computer interface you wear like a beanie that turns internal speech into text on a screen. • Noninvasive interface worn as a cap or beanie • 70,000–100,000 sensors for high-density brain signal capture • Trained on 100,000+ hours of neural data • ~30 words per minute at launch, improves with use • Backed by Khosla, Accel, Initialized, and Kevin Weil Sabi feels like the first real attempt at a consumer BCI.

Ritwik Pavan

57,343 次观看 • 2 个月前

China has approved the world's first invasive Brain-Computer Interface (BCI) medical device for market use, marking the start of clinical application for the emerging technology. #CoolChina

China has approved the world's first invasive Brain-Computer Interface (BCI) medical device for market use, marking the start of clinical application for the emerging technology. #CoolChina

CGTN

19,396 次观看 • 3 个月前

Brain chips don’t have to be dystopian or creepy. We’re building a minimally invasive BCI to treat severe depression - and it’s already changing lives for the better.

Brain chips don’t have to be dystopian or creepy. We’re building a minimally invasive BCI to treat severe depression - and it’s already changing lives for the better.

Meron Gribetz

56,531 次观看 • 1 年前

BRAIN COMPUTER INTERFACE NANOTECHNOLOGY THROUGH mRNA VACCINES. Since Moderna called their mRNA jabs an "operating system" designed to program humans, people were confused and nervous. And they should be. The type of tech that these pharmaceutical companies are developing along with other leading companies like the Pentagon's DARPA and many other leading researchers and tech innovators with self-assembling and other types of nanotechnology, developing sensors, electrodes, and BMI devices to enter the body through mRNA vaccines and other methods to have control, monitor, induce behavior, emotions, functions, even read and write to the brain, etc., are literally terrifying. This isn't something that's coming within the next 5 to 10 years. It's already here. Brain-Computer Interface (BCI), as a cutting-edge technology, refers to the establishment of a direct communication channel between the brain and peripheral electronic devices to realize the efficient information exchange between people and machines. It in a narrow sense refers to the establishment between the brain and the external environment does not depend on the peripheral nerve and muscle new communication and control channel, by measuring and collecting the central nervous system activity, and its directly translated can be recognized by external artificial equipment signal or instruction, so as to realize the direct communication and control of the brain and external equipment. Generalized brain computer interface includes input BCI, output BCI and interactive BCI, the input BCI is by external equipment or machine to the brain input electrical, magnetic, acoustic and optical stimulation of brain-computer interface system, output BCI is the signal of the brain into the external equipment control instructions, interactive BCI is by feedback nerve output and input link connected to form a closed loop brain computer interface system. Nanotechnology plays a key role in the innovative applications of neuroscience and brain computer interfaces. By taking advantage of the unique properties of ministerial, such as high conductivity, biocompatibility and regulation, scientists are able to design more sophisticated and efficient brain-computer interface devices. These devices can not only realize the precise recording and stimulation of nerve signals, but also promote the repair and regeneration of nerve tissue, providing new tools and means for neuroscience research and clinical application. Therefore, the innovative application of self-assembling, biodegradable, graphene, etc., nanotechnology in the interface between neuroscience and brain computer technology is gradually promoting the rapid development of this field, providing infinite possibilities for humans to explore the mysteries of the brain and improve the neural function. Brain-Computer Interfaces (BCIs) enable direct communication between the brain and external devices, but their performance heavily depends on the quality of the electrodes. Traditional materials, such as gold and platinum, offer high conductivity but often struggle with biocompatibility and can cause tissue damage due to their mechanical mismatch with neural tissue. While conductive polymers provide greater flexibility, they frequently fall short in electrical performance. Nanomaterials, including carbon nanotubes (CNTs) and graphene, are increasingly considered promising alternatives. These materials combine high conductivity with mechanical flexibility and offer potential improvements in biocompatibility, enhancing the capture and transmission of neural signals. Hybrid materials, which integrate conductive polymers with nanomaterials, have also shown potential by balancing flexibility and signal quality. This review examines recent advancements in nanomaterial-based BCI electrodes and focuses on how these new materials address the limitations of traditional electrodes. It also discusses emerging tools like metallic nanoparticles and nanowires, along with the ongoing challenges of biocompatibility, tissue integration, and ethical considerations. As nanotechnology continues to evolve, it has the potential to significantly enhance the functionality and longevity of BCIs, making them more effective in facilitating neural communication. Nanotechnology, as the frontier field of the development of science and technology in the 21st century, is gradually penetrating into the research of neuroscience and brain-computer interface, injecting new vitality and possibilities into this interdisciplinary subject. With the deepening of human cognition of the brain, neuroscience and brain-computer interface technology has increasingly become a bridge connecting the biological world and the digital world, aiming to interpret the brain information and realize human-computer interaction through advanced technological means, and then promote the innovation of medical treatment, rehabilitation, intelligent control and other fields. The introduction of nanotechnology provides a different perspective and means to solve the technical problems in the field of neuroscience and brain-computer interface. Antimalarial, with their unique structural characteristics, excellent photoelectric properties and excellent mechanical properties, show great potential in the application of neural interfaces. In structure, the small size effect of ministerial enables them to combine more closely with nerve cells to reduce tissue damage during implantation. In terms of photoelectric properties, the high electrical conductivity and tunable optical properties of ministerial enable the accurate recording and stimulation of nerve signals. In mechanical properties, the toughness and elasticity of ministerial ensure their stability and reliability in the long-term implantation process. These improvements in properties not only significantly enhance the biocompatibility of neural interfaces and reduce the risk of immune response, but also greatly improve the transmission efficiency and accuracy of neural signals, laying a solid foundation for the further progress of neuroscience and brain-computer interface technology. The main nanomaterials in the brain-computer interface is classified according to the organic nanomaterials in the composition, such as carbon nanotubes, graphite and nanoseconds, play an important role in neuroscience and brain-computer interfaces with their superior biocompatibility, high conductivity and lightweight properties. They need to be able to enhance electrode flexibility, improve signal recording quality and stimulation efficiency. Semiconductor ministerial, such as organic electrochemical transistors, have excellent ionic and electron conduction properties and can serve as an interactive interface between biology and electronics to achieve highly sensitive signal detection. As a typical spongy and wet material, hydrogel is widely studied and used because of its unique mechanical properties, biocompatibility and ionic conductivity. It can provide a good carrier for a variety of inorganic ministerial and build composites with better performance. There are also magnetic antiparticle, quantum dots and up conversion antiparticle, which play an important role in advanced imaging technologies and can realize the visualization of specific pathological markers or cellular processes, contributing to the early diagnosis and monitoring of neurodegenerative diseases. Although these technologies are great for people with disabilities or illnesses, just like many other technologies, it's already being weaponized as developments are already in the process with innovations and numerous methods of control and the monetization of certain aspects throughout this technology. This is a government's dream weapon and privacy will cease to exists along with your own thoughts. This is the world that is sadly already here and in major development for our society. The part that should scare everyone is that this type of technology and nanomaterial is already in some mRNA vaccines, in our food supply, and being sprayed on us, animals, and our food from above. Sadly, how much they've been lying to us. Let's just say it wouldn't surprise me if a large amount of people around the globe have some kind of self-assembling, nanotechnology inside them already. Especially the people who took the jabs during covid. I suggest to really do your own research before considering taking any vaccines or shots in general. The writing is on the wall, complete control is the goal, and it's already here.

BRAIN COMPUTER INTERFACE NANOTECHNOLOGY THROUGH mRNA VACCINES. Since Moderna called their mRNA jabs an "operating system" designed to program humans, people were confused and nervous. And they should be. The type of tech that these pharmaceutical companies are developing along with other leading companies like the Pentagon's DARPA and many other leading researchers and tech innovators with self-assembling and other types of nanotechnology, developing sensors, electrodes, and BMI devices to enter the body through mRNA vaccines and other methods to have control, monitor, induce behavior, emotions, functions, even read and write to the brain, etc., are literally terrifying. This isn't something that's coming within the next 5 to 10 years. It's already here. Brain-Computer Interface (BCI), as a cutting-edge technology, refers to the establishment of a direct communication channel between the brain and peripheral electronic devices to realize the efficient information exchange between people and machines. It in a narrow sense refers to the establishment between the brain and the external environment does not depend on the peripheral nerve and muscle new communication and control channel, by measuring and collecting the central nervous system activity, and its directly translated can be recognized by external artificial equipment signal or instruction, so as to realize the direct communication and control of the brain and external equipment. Generalized brain computer interface includes input BCI, output BCI and interactive BCI, the input BCI is by external equipment or machine to the brain input electrical, magnetic, acoustic and optical stimulation of brain-computer interface system, output BCI is the signal of the brain into the external equipment control instructions, interactive BCI is by feedback nerve output and input link connected to form a closed loop brain computer interface system. Nanotechnology plays a key role in the innovative applications of neuroscience and brain computer interfaces. By taking advantage of the unique properties of ministerial, such as high conductivity, biocompatibility and regulation, scientists are able to design more sophisticated and efficient brain-computer interface devices. These devices can not only realize the precise recording and stimulation of nerve signals, but also promote the repair and regeneration of nerve tissue, providing new tools and means for neuroscience research and clinical application. Therefore, the innovative application of self-assembling, biodegradable, graphene, etc., nanotechnology in the interface between neuroscience and brain computer technology is gradually promoting the rapid development of this field, providing infinite possibilities for humans to explore the mysteries of the brain and improve the neural function. Brain-Computer Interfaces (BCIs) enable direct communication between the brain and external devices, but their performance heavily depends on the quality of the electrodes. Traditional materials, such as gold and platinum, offer high conductivity but often struggle with biocompatibility and can cause tissue damage due to their mechanical mismatch with neural tissue. While conductive polymers provide greater flexibility, they frequently fall short in electrical performance. Nanomaterials, including carbon nanotubes (CNTs) and graphene, are increasingly considered promising alternatives. These materials combine high conductivity with mechanical flexibility and offer potential improvements in biocompatibility, enhancing the capture and transmission of neural signals. Hybrid materials, which integrate conductive polymers with nanomaterials, have also shown potential by balancing flexibility and signal quality. This review examines recent advancements in nanomaterial-based BCI electrodes and focuses on how these new materials address the limitations of traditional electrodes. It also discusses emerging tools like metallic nanoparticles and nanowires, along with the ongoing challenges of biocompatibility, tissue integration, and ethical considerations. As nanotechnology continues to evolve, it has the potential to significantly enhance the functionality and longevity of BCIs, making them more effective in facilitating neural communication. Nanotechnology, as the frontier field of the development of science and technology in the 21st century, is gradually penetrating into the research of neuroscience and brain-computer interface, injecting new vitality and possibilities into this interdisciplinary subject. With the deepening of human cognition of the brain, neuroscience and brain-computer interface technology has increasingly become a bridge connecting the biological world and the digital world, aiming to interpret the brain information and realize human-computer interaction through advanced technological means, and then promote the innovation of medical treatment, rehabilitation, intelligent control and other fields. The introduction of nanotechnology provides a different perspective and means to solve the technical problems in the field of neuroscience and brain-computer interface. Antimalarial, with their unique structural characteristics, excellent photoelectric properties and excellent mechanical properties, show great potential in the application of neural interfaces. In structure, the small size effect of ministerial enables them to combine more closely with nerve cells to reduce tissue damage during implantation. In terms of photoelectric properties, the high electrical conductivity and tunable optical properties of ministerial enable the accurate recording and stimulation of nerve signals. In mechanical properties, the toughness and elasticity of ministerial ensure their stability and reliability in the long-term implantation process. These improvements in properties not only significantly enhance the biocompatibility of neural interfaces and reduce the risk of immune response, but also greatly improve the transmission efficiency and accuracy of neural signals, laying a solid foundation for the further progress of neuroscience and brain-computer interface technology. The main nanomaterials in the brain-computer interface is classified according to the organic nanomaterials in the composition, such as carbon nanotubes, graphite and nanoseconds, play an important role in neuroscience and brain-computer interfaces with their superior biocompatibility, high conductivity and lightweight properties. They need to be able to enhance electrode flexibility, improve signal recording quality and stimulation efficiency. Semiconductor ministerial, such as organic electrochemical transistors, have excellent ionic and electron conduction properties and can serve as an interactive interface between biology and electronics to achieve highly sensitive signal detection. As a typical spongy and wet material, hydrogel is widely studied and used because of its unique mechanical properties, biocompatibility and ionic conductivity. It can provide a good carrier for a variety of inorganic ministerial and build composites with better performance. There are also magnetic antiparticle, quantum dots and up conversion antiparticle, which play an important role in advanced imaging technologies and can realize the visualization of specific pathological markers or cellular processes, contributing to the early diagnosis and monitoring of neurodegenerative diseases. Although these technologies are great for people with disabilities or illnesses, just like many other technologies, it's already being weaponized as developments are already in the process with innovations and numerous methods of control and the monetization of certain aspects throughout this technology. This is a government's dream weapon and privacy will cease to exists along with your own thoughts. This is the world that is sadly already here and in major development for our society. The part that should scare everyone is that this type of technology and nanomaterial is already in some mRNA vaccines, in our food supply, and being sprayed on us, animals, and our food from above. Sadly, how much they've been lying to us. Let's just say it wouldn't surprise me if a large amount of people around the globe have some kind of self-assembling, nanotechnology inside them already. Especially the people who took the jabs during covid. I suggest to really do your own research before considering taking any vaccines or shots in general. The writing is on the wall, complete control is the goal, and it's already here.

The SCIF

25,975 次观看 • 1 年前

THIS IS FUCKING INSANE🤯😳 Israel is developing one of the most advanced brain-controlled exoskeletons in the world, allowing paralyzed people, including wounded soldiers, to walk again using only their thoughts. Israeli researchers at Tel Aviv University and neurotech teams have created a system combining a next-generation robotic exoskeleton with a non-invasive brain-computer interface (BCI). Some of the largest and most high profile robotics, technology, semiconductor and AI companies from Israel and the United States are involved in this research and project. The patient wears a lightweight EEG headset that reads brain signals in real time and translates them instantly into natural leg, arm and hand movements. No crutches, no buttons, just thought-controlled walking, standing, and stair climbing with AI adaptation. Early trials are showing patients regaining voluntary control and more natural gait. Human trials are advancing rapidly. This isn’t science fiction anymore. It’s Israeli innovation giving hope and independence back to those who sacrificed so much. Proud every single day. 🇮🇱 #BrainComputerInterface #ThoughtControlledExoskeleton #IsraelInnovation #IDF #StartupNation

Mor Edge Insight

66,747 次观看 • 1 个月前

Your data isn’t just valuable… “It’s priceless.” Brandy Smith, Chair of Brain Computer Interfaces, says brain-computer tech is mapping the human terrain to control how we feel and behave, and Amazon is already using it on employees. EP. 30 WIRED FOR CONTROL ⬇️ Watch Going Rogue with Lara Logan Below. #LaraLogan #SurveillanceState #Transhumanism #DataOwnership

Your data isn’t just valuable… “It’s priceless.” Brandy Smith, Chair of Brain Computer Interfaces, says brain-computer tech is mapping the human terrain to control how we feel and behave, and Amazon is already using it on employees. EP. 30 WIRED FOR CONTROL ⬇️ Watch Going Rogue with Lara Logan Below. #LaraLogan #SurveillanceState #Transhumanism #DataOwnership

Lara Logan

55,100 次观看 • 11 个月前

ALS took P8•N1CK s arm mobility. With his Neuralink device, he regained a level of independence he thought he'd lost forever. His BCI (Brain-Computer Interface) connects his brain to a robotic arm that allows him to gesture, microwave food, and grab a cup of water again.

ALS took P8•N1CK s arm mobility. With his Neuralink device, he regained a level of independence he thought he'd lost forever. His BCI (Brain-Computer Interface) connects his brain to a robotic arm that allows him to gesture, microwave food, and grab a cup of water again.

Synapticure

1,441,041 次观看 • 6 个月前

A startup called Sabi just came out of stealth with a beanie that reads your thoughts. 70,000 to 100,000 miniature EEG sensors woven into the fabric. You put it on like a winter hat and type by imagining the words. Sabi's bet is that if you throw enough sensors at the skull, you don't need to open it. They've already logged 100,000 hours of brain data from 100 volunteers to train a "brain foundation model." First product ships by the end of 2026. A baseball cap version is next. Backed by Vinod Khosla, who also wrote an early check to OpenAI. Khosla: "The biggest and baddest application of BCI is if you can talk to your computer by thinking about it. If you're going to have a billion people use BCI for access to their computers every day, it can't be invasive." The first consumer BCI won't look like a medical device, but instead like something you already own.

A startup called Sabi just came out of stealth with a beanie that reads your thoughts. 70,000 to 100,000 miniature EEG sensors woven into the fabric. You put it on like a winter hat and type by imagining the words. Sabi's bet is that if you throw enough sensors at the skull, you don't need to open it. They've already logged 100,000 hours of brain data from 100 volunteers to train a "brain foundation model." First product ships by the end of 2026. A baseball cap version is next. Backed by Vinod Khosla, who also wrote an early check to OpenAI. Khosla: "The biggest and baddest application of BCI is if you can talk to your computer by thinking about it. If you're going to have a billion people use BCI for access to their computers every day, it can't be invasive." The first consumer BCI won't look like a medical device, but instead like something you already own.

The Rundown AI

52,929 次观看 • 2 个月前

A bionic hand that can “read” brain signals and move independently of the body is opening new possibilities for people with disabilities. ✨ #BrainTech #China

A bionic hand that can “read” brain signals and move independently of the body is opening new possibilities for people with disabilities. ✨ #BrainTech #China

China Perspective

1,255,882 次观看 • 9 个月前

Twitch streamer Perri is now using her brain to kill people in Halo... Her head is a gyro for movement, she uses an eye tracker for aiming, and an EEG uses her brain activity to shoot

Twitch streamer Perri is now using her brain to kill people in Halo... Her head is a gyro for movement, she uses an eye tracker for aiming, and an EEG uses her brain activity to shoot

Jake Lucky

3,778,197 次观看 • 2 年前

Honda developed a hands-free wheelchair named UNI-ONE that glides as users tilt their bodies in the direction they want to move. The chair design lets people with mobility problems use their hands while moving, for example in sports [📹 SupercarBlondie]

Honda developed a hands-free wheelchair named UNI-ONE that glides as users tilt their bodies in the direction they want to move. The chair design lets people with mobility problems use their hands while moving, for example in sports [📹 SupercarBlondie]

Massimo

5,547,330 次观看 • 2 年前