Quantum Technology Circuit

Simple SummaryContent extracted from patent full text and abstract with AI.

This invention describes a quantum circuit that autonomously and efficiently tunes the quantum state of qubits through locally integrated components. The circuit includes a qubit module, a bias control, a read-out unit, and an adjustment unit that uses an iterative algorithm to automatically reach a desired quantum state without relying on external computers or complex wiring. All these components are physically assembled together, optimizing both performance and scalability.

Use CasesContent extracted from patent full text and abstract with AI.

• Quantum computing hardware, to automate and stabilize the tuning of qubits within quantum processors
• Research and development of scalable quantum chips that require precise and efficient qubit state control
• Cryogenic quantum circuits operating at very low temperatures, where wiring minimization is critical
• High-throughput production of quantum devices by enabling automated calibration of many qubits simultaneously
• Quantum sensors or measurement systems requiring fast, reliable quantum state initialization or monitoring

BenefitsContent extracted from patent full text and abstract with AI.

• Significantly reduces the time and effort needed for manual qubit tuning, improving efficiency in quantum chip setup
• Enhances scalability by eliminating the need for massive external wiring and centralized data processing, enabling integration of many qubits on a single chip
• Improves performance and reliability by localizing data acquisition and processing, which minimizes noise and delays
• Supports operation in cryogenic environments as all necessary components can be made cryo-compatible and integrated onto a single substrate
• Compatible with standard semiconductor (CMOS) technologies, facilitating manufacturability and wider adoption of quantum devices

Technical Classifications (CPCs)

Inventors & Applicants

Patent Abstract

The invention relates to a quantum circuit (1) comprising the following circuit components (3, 4, 5, 6, 7, 8) that are locally associated with one another: a qubit circuit (3) with quantum states that can be adjusted according to a bias signal; a bias circuit (4) for applying an output bias signal (11), encoded by an input signal (10) of the bias circuit (4), to the qubit circuit (3); a read-out circuit (5), communicatively connected to the qubit circuit (3), for reading out a quantum state adjusting in response to the applied output bias signal (11) and for outputting a read-out signal (13) encoding the read-out quantum state; and an adjusting circuit (6), communicatively connected to the bias circuit (4) and the read-out circuit (5), for executing an iterative algorithm which applies iterative values for the input signal (10) to the bias circuit (4), starting with an initial value, and continues the iteration, according to the respective responsively output read-out signal (13) of the read-out circuit (5), until the output read-out signal (13) corresponds to the adjustment of a desired quantum state.