brain to brain interface
Proof human movement can be non-invasively controlled
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In August 2013 Dr. Rajesh Rao and Dr. Andrea Stocco demonstrated the ability to communicate between two brains. This proof of concept showed that it is possible to control the movement of a human being from another's brain using non-invasive stimulation. Understand that this technology uses a TMS coil right next to the brain but the energy that stimulates the brain can be delivered from much further away and no headset is required. See the following patent US3951134A for proof that brain waves can be altered remotely. Classified neuroweapons also have the ability to control fine motor skill.
The following excerpt taken from a PLOS ONE research article describes the search procedure used to identify the part of the brain which controls the extensor carpi radialis that extends the wrist:
"The participant was asked to wear a tight-fitting swim cap, where the location of the inion and the vertex were identified using the 10–20 system procedure . A 4×4 grid of dots were marked on the upper left region of the vertex, each dot placed at a distance of 1 cm from its neighbors. Each dot location was then stimulated in sequence, using a single pulse delivered by a 90 mm MagStim circle coil connected to a Super Rapid2 magnetic stimulator (MagStim, UK). This search procedure continued until an ideal position was found to stimulate the motor region that controls the extensor carpi radialis. Notice that, because this muscle extends the wrist, it produces an upward movement of the hand." view patent
A diagram of the communication between the sender and receiver in the brain to brain interface.
Brain-to-Brain Interface: The Future of Communication and Collaboration
Introduction:
The rapid advancement in technology has led to the development of various devices and systems that can monitor, analyze, and manipulate human cognition. One such innovation is brain-to-brain interface (BBI), a groundbreaking technique that allows researchers and medical professionals to communicate directly with each other's thoughts without physically invading their body. This article will explore the concept behind BBI, its applications, benefits, and potential future developments in this field of research.
What is Brain-to-Brain Interface?
A brain-to-brain interface (BBI) refers to a non-invasive method for transmitting information directly between two or more individuals' brains without any physical contact with the subject's body. This technique uses advanced electromagnetic technology, such as functional magnetic resonance imaging (fMRI), electroencephalography (EEG), or magnetoencephalography (MEG) to monitor and record brain activity in real-time.
Applications of Brain-to-Brain Interface:
1. Medical Diagnosis: BBI can help diagnose neurological disorders, such as epilepsy, Alzheimer's disease, or traumatic brain injury by identifying abnormal patterns in the subject's brain activity. This information allows doctors to make accurate and timely interventions for treatment.
2. Brain-to-Brain Communication: BBI can be used to transmit thoughts directly between individuals, enabling communication without the need for spoken or written language. This opens up new possibilities in education, collaboration, and social interaction among people with diverse linguistic backgrounds.
3. Neurofeedback Therapy: BBI can be used to provide real-time feedback on a person's brain activity, allowing individuals to consciously modify and improve specific cognitive functions. This has been applied in various therapeutic settings, such as attention deficit hyperactivity disorder (ADHD) treatment or stress management programs.
4. Cognitive Enhancement: Researchers are exploring the potential of BBI for enhancing human cognition by stimulating specific brain regions with focused electromagnetic fields. This could lead to improvements in memory, learning, and attention capabilities.
5. Neuroimaging and Brain Mapping: BBI can help create detailed maps of a person's brain structure and function, providing valuable insights into the complex neural processes underlying human cognition.
Benefits of Brain-to-Brain Interface:
1. Non-invasive: Unlike traditional invasive techniques such as electrodes or implants, BBI does not require physical contact with the subject's body, reducing risks and discomfort associated with surgery or long-term device use.
2. Real-time communication: BBI allows for real-time transmission of thoughts between individuals, providing instant feedback on a person's cognitive state and enabling timely interventions in various therapeutic settings.
3. Enhanced privacy: As the technology does not require direct contact with the subject's body, it offers increased privacy protection compared to invasive techniques that involve implants or electrodes.
4. Scalable for large populations: BBI can be easily adapted and scaled up for transmitting information between multiple individuals simultaneously, making it a valuable tool in research settings and clinical practice.
Conclusion:
Brain-to-brain interface is an exciting field of study with the potential to revolutionize communication, collaboration, and cognitive enhancement. As technology continues to advance, we can expect further developments in BBI that will lead to even more powerful applications for improving human cognition and overall well-being
