Volume 2 Issue 4, April 2019

Open collaboration based on shared facilities can accelerate the commercialization of microelectromechanical systems.

Error rates in silicon qubits can be improved by benchmarking and optimizing pulse engineering techniques.

Electronic components and interconnects can be simultaneously synthesized and integrated through the phase-patterned growth of two-dimensional molybdenum ditelluride.

This Review Article examines the development of self-healing electronic materials and devices, explores their potential applications and discusses the challenges that exist in delivering practical systems.

Pulse engineering techniques can be used to reduce the average Clifford gate error rates for silicon quantum dot spin qubits down to 0.043%, a factor of three improvement over state-of-the-art silicon devices.

A tunnel field-effect transistor with spin-dependent outputs that are voltage controllable and reversible can be created using a dual-gated graphene/CrI₃/graphene tunnel junction.

Electronic components made from two-dimensional MoTe₂ can be chemically synthesized and integrated in a single step, creating devices in which each component in the active layer is connected via covalent bonds.