Abstract This Technical Review collects values of selected performance characteristics of
semiconductor spin qubits defined in electrically controlled nanostructures. The …

The efficient control of a large number of qubits is one of the most challenging aspects for
practical quantum computing. Current approaches in solid-state quantum technology are …

Current semiconductor qubits rely either on the spin or on the charge degree of freedom to
encode quantum information. By contrast, in bilayer graphene the valley degree of freedom …

Van der Waals heterostructures provide a versatile platform for tailoring electronic properties
through the integration of two-dimensional materials. Among these combinations, the …

Bilayer graphene is a promising platform for electrically controllable qubits in a two-
dimensional material. Of particular interest is the ability to encode quantum information in …

We argue that spin-and valley-polarized metallic phases recently observed in graphene
bilayers and trilayers support chiral edge modes that allow spin waves to propagate …

We measure telegraph noise of current fluctuations in an electrostatically defined quantum
dot in bilayer graphene by real-time detection of single electron tunneling with a capacitively …

We demonstrate a switchable electron shell structure in a bilayer graphene quantum dot by
manipulating the trigonal war** effect upon electrical gating. Under a small perpendicular …

The coherent dynamics of a quantum mechanical two-level system passing through an anti-
crossing of two energy levels can give rise to Landau-Zener-Stückelberg-Majorana (LZSM) …

Graphene, a Dirac semimetal, exhibits the simplest lattice configuration and band structure
in the world of two-dimensional materials. Due to its remarkable brevity and tunability …