MIT chemists develop a wireless electronic lateral flow assay test for biosensing
Design from the Swager Lab uses electronic polymers, rather than colored lines, to indicate a positive response, enabling quantitative monitoring of biomarkers.
Design from the Swager Lab uses electronic polymers, rather than colored lines, to indicate a positive response, enabling quantitative monitoring of biomarkers.
An MIT-developed device with the appearance of a Wi-Fi router uses a neural network to discern the presence and severity of one of the fastest-growing neurological diseases in the world.
The device senses and wirelessly transmits signals related to pulse, sweat, and ultraviolet exposure, without bulky chips or batteries.
The advance may enable real-time imaging devices that are smaller, cheaper, and more robust than other systems.
MIT Haystack Observatory will be part of the new radio spectrum management and coordination center.
MIT professor is designing the next generation of smart wireless devices that will sit in the background, gathering and interpreting data, rather than being worn on the body.
Two research projects on the design of state-of-the-art hardware could one day power next-generation 5G and 6G mobile networks.
Wireless device captures sleep data without using cameras or body sensors; could aid patients with Parkinson’s disease, epilepsy, or bedsores.
An MIT system uses wireless signals to measure in-home appliance usage to better understand health tendencies.
Device for harnessing terahertz radiation might help power some portable electronics.
External system improves phones’ signal strength 1,000 percent, without requiring extra antennas.
Associate Professor Yury Polyanskiy is working to keep data flowing as the “internet of things” becomes a reality.
Device may enable “T-ray vision” and better wireless communication.
In-band full-duplex techniques applied to a phased-array antenna may provide a tenfold speedup in data transmit and receive rates while supporting a rapidly increasing number of wireless devices.
New method from MIT’s research enterprise in Singapore paves the way for improved optoelectronic and 5G devices.