Cornell University is breaking ground on its geothermal energy efforts in order to be carbon-neutral by 2035 with a 2-mile borehole to determine feasibility.
Cornell researchers have developed an industrial robot capable of 3D printing large-scale structures that could make the construction industry more efficient and sustainable.
A Cornell-led research collaboration discovered an approach for making a lead-free antiferroelectric that performs as well as its toxic relatives.
Cornell University researchers have found improving 3D-printed metal by introducing more defects into the printing process results in a stronger, more ductile metal product.
A fiber-optic sensor that combines low-cost LEDs and dyes has been created by Cornell researchers, which results in a stretchable “skin” that detects deformations such as pressure, bending and strain.
Cornell researchers have created a soft robot muscle that can regulate its temperature through sweating, which can enable high-powered robots to operate for long periods of time without overheating.
Cornell University researchers are using optical lace to create a linked sensory network similar to a biological nervous system for robots to improve their actions.
Cornell researchers received a $2 million grant to study the combination of inorganic semiconductor nanoparticles and bacterial cells for more efficient bioenergy conversion.