π§ Wireless Nano-Antennas Supercharge Brain Signals by 250x
Researchers at the University of WisconsinβMadison have developed a breakthrough tool for brain research: nano-antennas the size of individual brain cells.
These golden, mushroom-shaped devices attach directly to neurons and amplify their tiny magnetic signals more than 250 times β all without needing wires or penetrating the skull. For the first time, scientists may be able to wirelessly monitor the activity of single brain cells in real time.
Until now, researchers had to choose between invasive electrodes or low-resolution external techniques like EEG. This innovation bridges the gap, offering a detailed, minimally invasive way to observe brain function.
The team has already simulated the system and is preparing to test it in cell cultures, followed by animal models. If successful, this could revolutionize neuroimaging and brain-computer interfaces.
#Nanotechnology #Neuroscience #BrainTech #Neuroengineering #FutureOfMedicine #Sceince
@Science
Researchers at the University of WisconsinβMadison have developed a breakthrough tool for brain research: nano-antennas the size of individual brain cells.
These golden, mushroom-shaped devices attach directly to neurons and amplify their tiny magnetic signals more than 250 times β all without needing wires or penetrating the skull. For the first time, scientists may be able to wirelessly monitor the activity of single brain cells in real time.
Until now, researchers had to choose between invasive electrodes or low-resolution external techniques like EEG. This innovation bridges the gap, offering a detailed, minimally invasive way to observe brain function.
The team has already simulated the system and is preparing to test it in cell cultures, followed by animal models. If successful, this could revolutionize neuroimaging and brain-computer interfaces.
#Nanotechnology #Neuroscience #BrainTech #Neuroengineering #FutureOfMedicine #Sceince
@Science
College of Engineering - University of Wisconsin-Madison
Wireless nano antennas amp up brain sensing - College of Engineering - University of Wisconsin-Madison
To record brain activity, neuroscientists and physicians must choose between electrodes that require wires running through the skull or noninvasive options like electroencephalography (EEG) or magnetoencephalography (MEG) that track signals from the scalp.β¦
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Invisibility Cloaks and Super Lenses? Enter Metamaterials
Imagine a material that can bend light around an object, making it invisible β or a lens that sees details smaller than the wavelength of light. Sounds like science fiction? Itβs real science.
π¬ Metamaterials are artificially engineered materials with properties nature never dreamed of. Their magic doesnβt come from chemistry but from structure β designed on a scale smaller than the wavelength of light, sound, or vibrations they manipulate.
They can bend electromagnetic waves in impossible ways, absorb sound like a black hole, or even become stronger under pressure instead of breaking.
These materials open doors to futuristic technologies β from cloaking devices to earthquake-proof buildings.
Read more in our article:
π What Are Metamaterials?
#physics #materials #innovation #nanotechnology #futuretech #science
Imagine a material that can bend light around an object, making it invisible β or a lens that sees details smaller than the wavelength of light. Sounds like science fiction? Itβs real science.
π¬ Metamaterials are artificially engineered materials with properties nature never dreamed of. Their magic doesnβt come from chemistry but from structure β designed on a scale smaller than the wavelength of light, sound, or vibrations they manipulate.
They can bend electromagnetic waves in impossible ways, absorb sound like a black hole, or even become stronger under pressure instead of breaking.
These materials open doors to futuristic technologies β from cloaking devices to earthquake-proof buildings.
Read more in our article:
π What Are Metamaterials?
#physics #materials #innovation #nanotechnology #futuretech #science
Telegraph
What Are Metamaterials?
Imagine a material that can render an object invisible, a lens that can resolve features smaller than the wavelength of light, or a structure that grows stronger under compression rather than breaking apart. Sounds like science fiction? In fact, these areβ¦
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