This article looks at the 7 ways that nanotechnology can help to combat and possibly stop climate change.

In the latest graphene-enabled innovation, a team of MIT engineers has potentially revolutionized the process of dialysis by creating a new membrane from this wonder material that is able to filter nanometer-sized molecules from solutions up to 10 times faster than current dialysis systems.

Researchers have found a way to create and clean tiny mechanical sensors in a scalable manner. They created these sensors by suspending a two-dimensional sheet of hexagonal boron nitride (h-BN), or ‘white graphene’ over small holes in a silicon substrate. This innovation could lead to extremely small gas and pressure sensors for future electronics.

Researchers from China have turned a sheet of graphene oxide into a material that bends when exposed to moisture, which they used to create a spider-like crawler and claw robot that move in response to changing humidity conditions without the need for any external power.

The need to make products faster, stronger, smaller and lighter is driving the development of new and enhanced materials with properties out of reach of prior generations. Goldman Sachs Research’s Craig Sainsbury discusses three of the most promising – graphene, nanotechnology and OLEDs – and their potential applications from cancer treatment to water filtration.

Researchers at the Indian Institute of Science Education and Research (IISER) Pune have used graphene oxideto develop a novel cancer drug delivery system.

Researchers have designed a novel cathode architecture for lithium-sulphide batteries that consists of crystalline di-lithium sulphide nanoparticles encapsulated in few-layer graphene.

Nanotechnologists from Rice University and China’s Tianjin University have used 3-D laser printing to fabricate centimeter-sized objects of atomically thin graphene.

Exeter researchers have recently reported a new method to use graphene to produce photodetectors, which they feel could revolutionize the manufacturing of vital safety equipment, such as radiation and smoke detection units.

Researchers have studied how light can be used to observe the quantum nature of an electronic material. They captured light in graphene and slowed it down to the speed of the material’s electrons. Then electrons and light started to move in concert, manifesting their quantum nature at such large scale that it could observed with a special type of microscope.