Discover published sets by community

These qubits blend different quantum systems to leverage their respective advantages, like combining superconducting qubits with spin qubits.

Ensembles of atoms are used where collective states of these atoms represent a single qubit, increasing the signal strength for detection.

These are qubits implemented using the quantum states of photons, such as polarization states. Examples include linear optical quantum computing (LOQC).

Qubits are the spin states of individual electrons in silicon-based devices, controllable with electric and magnetic fields.

Superconducting Quantum Interference Device is a loop with two Josephson junctions, used to readout superconducting qubits.

These qubits are based on Josephson junctions and exhibit quantized energy levels. Example implementations include transmon and Xmon qubits.

These qubits are electron spin states or charge states in nano-sized semiconductor particles. Examples include using materials like GaAs or Si.

Qubits are created by the different quantum magnetic flux states in a superconducting loop.

Qubits are based on the spin of electron holes in semiconductor materials, which can be manipulated with electric fields.

Qubits are the nuclear spin states of atoms in a molecule. Molecules like chloroform have been used in early demonstrations.

Qubits are the spin states of electrons in a magnetic field, often in materials like GaAs or Si/SiGe.

Qubits derived from quasiparticles called anyons, whose quantum information is stored in their braided paths. No practical example yet, but Majorana fermions are a candidate.

Atoms in high-energy Rydberg states serve as qubits, where their interactions are controlled using lasers.

Qubits are represented by the internal states of ions trapped in an electromagnetic field. Example implementations use ions like $^{40} ext{Ca}^+$ or $^{9} ext{Be}^+$.

The existence of Majorana fermions in topological superconductors could represent qubits, proposed to be highly fault-tolerant. Still hypothetical.

These are qubits based on the spin state of 'holes' in semiconductors, potentially offering faster operations than electron spins.

Nitrogen vacancy centers in diamond act as qubits, where the electronic state of a vacancy can be read and manipulated with light.

Individual magnetic molecules can act as qubits, utilizing the spins of molecular components.

In these systems, the presence or absence of an electron in a double quantum dot represents the qubit.