“The reason for the excitement is the extraordinary range of applications that borophene looks good for. Electrochemists think borophene could become the anode material in a new generation of more powerful lithium-ion batteries. Chemists are entranced by its catalytic capabilities. And physicists are testing its abilities as a sensor to detect numerous kinds of atoms and molecules.”
Source: MIT Technology ReviewMonolayer borophene has a high charge capacity, mechanical strength, and low diffusion barrier, but it's not stable enough for practical use
They successfully created bilayer borophene, expanding the family of boron nanomaterials.
They studied a type of borophene called hydrogenated β12 borophene, which is more resistant to oxidation.
Borophene has metallic behavior and exceptional properties that make it suitable for use in sensors.
Researchers are developing a new material called borophene hybrid foam (CMB-foam) to create high-performance multifunctional materials
Researchers are delving into borophene, a highly promising material among the Xenes family
Toxic gases emitted by industries and vehicles cause environmental pollution and pose significant health risks which are becoming increasingly dangerous
Two-dimensional (2D) borophene materials are predicted to be ideal catalytic materials due to their structural analogy to graphene.
Boron shows a variety of properties, determining a chemistry rich and complementary to that of carbon
Researchers are studying a phenomenon called crossed Andreev reflection (CAR) in a special structure made with borophene
This material has excellent electrical conductivity and strength.
Researchers are working on improving a type of battery called a Li–O2 battery by adding a special component called a photoelectrode to its design.
Researchers are exploring a new material called α′-borophene nanoribbon (α′-BNR), which has remarkable properties making it highly efficient for use in thermoelectric devices.
Toxic gases emitted by industries and vehicles cause environmental pollution and pose significant health risks which are becoming increasingly dangerous
Two-dimensional (2D) borophene materials are predicted to be ideal catalytic materials due to their structural analogy to graphene.