Multi-axis measurement protocol to protect quantum information

A method comprising:

• generating, by a processor of a transmitter, at least one input qubit data for transmission, wherein the at least one input qubit data comprises a state of at least one qubit;
• determining, by the processor of the transmitter, at least one appropriate qubit measurement operation to be performed on the at least one input qubit data, wherein the at least one appropriate qubit measurement operation comprises at least one orthogonal axis gate, wherein the at least one orthogonal axis gate comprises at least one arbitrary measurement operation;
• generating, by the processor of the transmitter, at least one entangled pair of qubits comprising at least one first set of qubits and at least one second set of qubits, wherein the at least one first set of qubits corresponds to the transmitter and the at least one second set of qubits corresponds to a receiver;
• creating, by the processor of the transmitter, at least one entangled data by entangling the at least one input qubit data with the at least one first set of qubits;
• performing, by the processor of the transmitter, the determined at least one appropriate qubit measurement operation on the created at least one entangled data to orientate a state of the created at least one entangled data before transmission;
• generating, by the processor of the transmitter, at least two classic bits for the created at least one entangled data based on the performed at least one appropriate qubit measurement operation;
• and
• transmitting, by the processor of the transmitter, the at least two classic bits from the transmitter to the receiver via a classic communication channel, wherein the processor of the transmitter is further configured to perform an anti-control encoding of a control operation on one or more of the at least two classic bits using two identical gates.

A non-transitory computer readable medium storing a processor-executable instructions that cause a processor to:

• generate at least one input qubit data for transmission, wherein the at least one input qubit data comprises a state of at least one qubit;
• determine at least one appropriate qubit measurement operation to be performed on the at least one input qubit data, wherein the at least one appropriate qubit measurement operation comprises at least one orthogonal axis gate, wherein the at least one orthogonal axis gate comprises at least one arbitrary measurement operation;
• generate at least one entangled pair of qubits comprising at least one first set of qubits and at least one second set of qubits, wherein the at least one first set of qubits corresponds to a transmitter and the at least one second set of qubits correspond to a receiver;
• create at least one entangled data by entangling the at least one input qubit data with the at least one first set of qubits;
• perform the determined at least one appropriate qubit measurement operation on the created at least one entangled data to orientate a state of the created at least one entangled data before transmission;
• generate at least two classic bits for the created at least one entangled data based on the performed at least one appropriate qubit measurement operation;
• and
• transmit the at least two classic bits from the transmitter to the receiver via a classic communication channel, wherein the processor is further caused to perform an anti-control encoding of a control operation on one or more of the at least two classic bits using two identical gates.