Neurotechnology Research

Researchers used a virtual reality game and functional MRI to uncover how children's brains with ADHD respond differently during active tasks. Unlike traditional brain scans taken during rest, this immersive approach revealed distinct patterns of neural communication in ADHD, especially in deeper brain structures.
Scientists have developed e-Taste, a novel technology that digitally replicates taste in virtual environments. Using chemical sensors and wireless dispensers, the system captures and transmits taste data remotely, enabling users to experience sweet, sour, salty, bitter, and umami flavors.
The FDA has approved adaptive deep brain stimulation (aDBS), a breakthrough therapy that adjusts in real time to Parkinson’s disease symptoms. Unlike traditional DBS, which delivers constant stimulation, aDBS monitors brain activity and responds with precise electric pulses to prevent stiffness and involuntary movements.

Brain Computer Interface news involves science using BCI, neural interfaces, brain implant technologies, EEG control of robotics, neurobotics and more.

Researchers enabled a silent person to produce speech using thought alone. Depth electrodes in the participant's brain transmitted electrical signals to a computer, which then vocalized imagined syllables. This technology offers hope for paralyzed individuals to regain speech. The study marks a significant step towards brain-computer interfaces for voluntary communication.
Researchers are trialing a novel brain-computer interface (BCI) with the potential to transform neurosurgical procedures and patient care. The Layer 7 Cortical Interface, boasting 1,024 electrodes for unparalleled brain activity mapping, promises new insights into neurological and psychiatric conditions.
Elon Musk announces the first human has been successfully implanted with Neuralink's brain chip, named Telepathy, aiming to allow severe physically disabled individuals to control devices via thought. The FDA-approved trial focuses on the implant's potential for movement control, with the patient reportedly recovering well and showing promising initial results.
Researchers achieved a breakthrough in converting brain signals to audible speech with up to 100% accuracy. The team used brain implants and artificial intelligence to directly map brain activity to speech in patients with epilepsy.
In a pioneering study, researchers designed a wireless brain-spine interface enabling a paralyzed man to walk naturally again. The 'digital bridge' comprises two electronic implants — one on the brain and another on the spinal cord — that decode brain signals and stimulate the spinal cord to activate leg muscles.

The latest science news involving neural prosthetics, arm and leg prostheses, bionics, biomechanical engineering, BCIs, robotics, EEG control of prosthetics, visual aids, auditory aids for hearing and more is here. You can also

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This shows a woman laying under a red light.
Exposure to long-wavelength red light significantly reduced blood clot formation in both mice and human studies. Red light was associated with lower inflammation, reduced immune system activation, and fewer clot-promoting mechanisms, such as neutrophil extracellular traps (NETs) and platelet activation. Unlike blue or white light, red light influenced clotting through optic pathways, suggesting its effects are mediated by neural mechanisms rather than direct blood exposure.
This shows RNA.
Researchers have developed lipid nanoparticles (LNPs) that cross the blood-brain barrier (BBB) and precisely target brain cells, a major step toward treating neurological diseases like Alzheimer’s. By attaching short peptides to LNPs, scientists achieved targeted mRNA delivery to neurons and endothelial cells, avoiding invasive procedures. Peptides are smaller, more stable, and easier to use than antibodies, making them ideal for LNP-based therapies.
This shows the researcher holding the robot.
Researchers have developed the smallest walking robots, measuring just 2 to 5 microns, capable of interacting with visible light for imaging and force measurement. These magnetically controlled robots can inch forward or swim through fluids while serving as diffraction elements, enabling super-resolution microscopy at scales previously unattainable.