A device that can be reprogrammed to perform any given function and bring quantum information programming closer is being developed at the University of Bristol . The new generation silicon chip can control two qubits of information simultaneously. However, adding a second qubit and thus enabling quantum entanglement, a critical step for quantum computing, escalates problems dramatically. Currently, operations needing more than 200 unit of information (a qubit) can be completed precisely but adding a second qubit creates multiple problems. A team at the University of Bristol ’s the University of Bristol has created a quantum processor chip with more than 200 photonic components using metal-oxide-semiconductors which has completed 98 98 -qubit operations at 93% efficiency.
A device that can be reprogrammed to perform any given function and bring quantum information programming closer is being developed at the University of Bristol . The new generation silicon chip can control two qubits of information simultaneously. Currently, operations needing more than 200 unit of information (a qubit) can be completed precisely but adding a second qubit creates multiple problems. A team at the University of Bristol ’s the University of Bristol has created a quantum processor chip with more than 200 photonic components using metal-oxide-semiconductors which has completed 98 98 -qubit operations at 93% efficiency.