Quantum sensing on a chip
Researchers integrate diamond-based sensing components onto a chip to enable low-cost, high-performance quantum hardware.
Researchers integrate diamond-based sensing components onto a chip to enable low-cost, high-performance quantum hardware.
Filaments with embedded circuitry can be used to print complex shapes for biomedical and robotic devices.
New approach harnesses the same fabrication processes used for silicon chips, offers key advance toward next-generation computers.
Low-cost “piezoelectric” films produce voltage, could be used for flexible electronic components and more.
Simulations suggest photonic chip could run optical neural networks 10 million times more efficiently than its electrical counterparts.
Basic research advance leads to production of more than 250,000 chips embedded within fibers in less than a year.
New dual-cavity design emits more single photons that can carry quantum information at room temperature.
Novel batteries are the first to use water-splitting technology at their core.
Facility modernization plan includes a new compound semiconductor laboratory and microsystem integration facility that will enable modern innovation.
Sensor can monitor wiring in a building or ship, and signal when repairs are needed.
Annual student-led conference connects MIT researchers and industry partners.
Coating graphene with wax makes for a less contaminated surface during device manufacturing.
Growing material directly onto substrates and recycling chip patterns should enable faster, simpler manufacturing.
Robot’s lightweight, high-power design is the perfect platform to share and play, developers say.
Efficient chip enables low-power devices to run today’s toughest quantum encryption schemes.