Quantum computing platform with observer dependent measurement and visualization verification system

Abstract

The invention discloses a quantum computing platform with an observer dependent measurement and visualization verification system, and belongs to the technical field of quantum computing. Comprising an observer dependence measurement subsystem, a topology quantum bit processor, a cryptographic receipt generator, a geodesic path optimizer and a visual verification system. An observer depends on the measurement subsystem to realize internal collapsing to a point eigenstate eta B = 1 * 10 <-10 > and external collapsing to an expansion superposition state 1-eta B; the topological quantum bit processor is manufactured by adopting an InAs nanowire heterostructure and an Al superconductor through molecular beam epitaxy 10-11Torr, and the coherence time is gt; the time is 100 milliseconds. The cryptographic receipt generator is based on a Xilinx ZCU104 FPGA, generates a block chain compatible signature for 106 times per second, integrates 255-bit quantum states, 31-bit operation codes, 511-bit receipts and 223-bit CRYSTALS-Dillitium signatures through a VHDL architecture, and ensures that quantum operations are not tampered, traceable and verifiable.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of quantum computing, and particularly relates to a quantum computing platform with observer-dependent measurement and visualized verification system. BACKGROUND

[0002] The quantum computing market is expected to reach 125 billion US dollars in 2030. Existing systems face: - Measurement-induced dephasing limits fidelity <99% - Lack of verifiable quantum operations - No standardized visualized verification - Coherence time <100us. SUMMARY

[0003] The purpose of the present application is to provide a quantum computing platform with observer-dependent measurement and visualized verification system, which can solve the problem of lack of verifiable quantum operations in the prior art.

[0004] Technical scheme: In order to solve the above technical problems, according to one aspect of the present application, more specifically, a quantum computing platform with observer-dependent measurement and visualized verification system, comprising: an observer-dependent measurement quantum system, a topological quantum bit processor, a cryptography receipt generator, a geodesic path optimizer, and a visualized verification system. The observer-dependent measurement quantum system realizes internal collapse to a point eigenstate eta_B=1x10^-10 and external collapse to an extended superposition state 1-eta_B. The topological quantum bit processor uses InAs nanowire heterostructure and Al superconductor, is manufactured by molecular beam epitaxy 10^-11 Torr, and has a coherence time >100 milliseconds. The cryptography receipt generator is based on Xilinx ZCU104 FPGA, [500MHz, 504KLUT, 1728DSP], and generates 10^6 times / sec blockchain-compatible signatures. The geodesic path optimizer uses NVIDIA A100 GPU [312TFLOPS], and reduces quantum circuit depth by 40%. The visualized verification system generates 300DPI bilingual patent charts through Python matplotlib.

[0005] Furthermore, the topological quantum bit uses SF6 / O2 mixed gas through reactive ion etching RIE to achieve 5nm precision, and the Majorana zero mode energy gap is 100mu eV.

[0006] Further, the cryptography receipt generator implements a VHDL architecture comprising 255 qubits, 31 opcodes, 511 receipts, and 223 CRYSTALS-Dilithium signatures.

[0007] Further, the quantum computing platform with observer-dependent measurement and visualized verification system implements ABBA commutator protection [A,B]+[B,A]=0 and Čech cohomology error correction.

[0008] Further, the quantum computing platform with observer-dependent measurement and visualized verification system employs an Oxford Instruments Triton 500 dilution refrigerator with base temperature 10 mK, vibration isolation <1 nm RMS, and magnetic shielding >100 dB.

[0009] Further, the control electronics of the quantum computing platform with observer-dependent measurement and visualized verification system includes a Keysight M3202A A W G (1 GS / s, 14-bit) and a Spectrum M4i.4451 digitizer [500 MS / s, 16-bit, 4 GB].

[0010] Further, the real-time control of the quantum computing platform with observer-dependent measurement and visualized verification system employs an NXPLPC55S69 dual-core ARM Cortex-M33 running FreeRTOS with 100 Hz update rate.

[0011] Further, the visualized system generates graphs including 3D geodesic surfaces, toroidal braided paths, 58 mechanism networks, and radar performance plots.

[0012] Further, the quantum computing platform with observer-dependent measurement and visualized verification system implements integrated information theory (IIT) metrics to calculate Φ values for conscious-aware quantum processing.

[0013] Further, the observer-dependent quantum system, the topological qubit processor, the cryptography receipt generator, the geodesic path optimizer, and the visualized verification system share a unified drift equation dS / dt=-A·S+B·C, maintaining η_B coupling.

[0014] Advantages: High fidelity and long coherence time: By observing the measurement-induced collapse of the quantum system, the internal collapse to the point eigenstate (η_B=1×10^-10) and the external collapse to the extended superposition state (1-η_B) are effectively reduced, significantly improving the fidelity of quantum operations (more than 99%). The topological quantum bit processor uses InAs nanowire heterostructures and Al superconductors, manufactured under molecular beam epitaxy (10^-11 Torr) conditions, with a coherence time of more than 100 milliseconds, much higher than the existing technology of 100 microseconds, improving the stability of quantum computing.

[0015] Verifiable quantum operations: The cryptography receipt generator is based on Xilinx ZCU104 FPGA, generating 10^6 blockchain-compatible signatures per second, integrating 255-bit quantum states, 31-bit operation codes, 511-bit receipts, and 223-bit CRYSTALS-Dilithium signatures through VHDL architecture, ensuring the non-tamperability, traceability, and verifiability of quantum operations, solving the problem of lack of verifiability in existing technology.

[0016] Efficient quantum circuit optimization: The geodesic path optimizer uses NVIDIA A100 GPU (312 TFLOPS) to optimize quantum circuit paths, reducing quantum circuit depth by 40%, significantly improving computing efficiency and resource utilization.

[0017] Standardized visualization verification: The visualization verification system generates 300 DPI bilingual patent charts through Python matplotlib, including 3D geodesic surface, ring weaving path, 58 mechanism network, and radar performance chart, providing intuitive and standardized verification means for users to monitor and analyze quantum system status.

[0018] Strong error correction and protection mechanism: ABBA exchange sub-protection ([A,B] + [B,A] = 0) and Čech cohomology correction are implemented to enhance the anti-interference ability and fault tolerance of the quantum system, improving the reliability of computing.

[0019] Excellent low-temperature environment control: Oxford Instruments Triton 500 dilution refrigerator is used, with a base temperature of 10mK, vibration isolation <1nm RMS, and magnetic shielding >100dB, providing a super-stable environment for topological quantum bits, reducing the impact of external noise.

[0020] Real-time control capability: The real-time control system uses NXP LPC55S69 dual-core ARM Cortex-M33 microcontroller running FreeRTOS, achieving 100Hz update rate real-time control, ensuring the accuracy and response speed of quantum operations.

[0021] Integrated Information Theory Application: Implementing Integrated Information Theory (IIT) metric, calculating Phi value for conscious perception quantum processing, expanding the application potential of quantum computing in cognitive science and artificial intelligence.

[0022] System Synergy: All subsystems share the unified drift equation dS / dt = -A·S + B·C, maintaining η_B coupling, ensuring overall system coordination and performance improvement. BRIEF DESCRIPTION OF DRAWINGS

[0023] Figure 1 is a quantum system architecture diagram; Figure 2 is a 3D geodesic curve surface; Figure 3 is a ring-shaped weaving path; Figure 4 is a 58 mechanism connection network; Figure 5 is a performance radar chart. DETAILED DESCRIPTION

[0024] To make the technical solutions of the present application clearer, the present application will be further described in detail below in combination with the drawings and specific embodiments.

[0025] EMBODIMENTS 1. Hardware setup Low temperature environment setting: Using Oxford Instruments Triton 500 dilution refrigerator, cooling the system to a base temperature of 10mK, and providing a vibration isolation (<1nm RMS) and magnetic shielding (>100dB) environment to minimize external interference.

[0026] Topological qubit preparation: The topological qubit processor uses InAs nanowire heterostructure and Al superconductor, manufactured by molecular beam epitaxy under the condition of 10^-11 Torr. By using SF6 / O2 mixed gas through reactive ion etching (RIE), a precision of 5nm is achieved, the Majorana zero mode energy gap reaches 100μeV, and the coherence time exceeds 100 milliseconds.

[0027] Control electronics configuration: Using Keysight M3202A arbitrary waveform generator (1GS / s sampling rate, 14-bit resolution) and Spectrum M4i.4451 digitizer (500MS / s sampling rate, 16-bit resolution, 4GB memory) for generating and collecting quantum signals.

[0028] Real-time control system: NXP LPC55S69 dual-core ARM Cortex-M33 microcontroller is used to run the FreeRTOS real-time operating system, achieving a 100Hz update rate for real-time control, ensuring the synchronization and accurate execution of quantum operations.

[0029] 2. Software configuration Cryptographic receipt generation: The cryptographic receipt generator is implemented based on the Xilinx ZCU104 FPGA (500MHz main frequency, 504KLUT, 1728 DSP), using the VHDL architecture to integrate 255-bit quantum states, 31-bit operation codes, 511-bit receipts, and 223-bit CRYSTALS-Dilithium signatures. This generator produces 10^6 blockchain-compatible signatures per second, which are used to record and verify quantum operations.

[0030] Quantum circuit optimization: The geodesic path optimizer uses the NVIDIA A100 GPU (312 TFLOPS) to run a customized optimization algorithm to optimize the path of the quantum circuit, reducing the circuit depth by 40% and improving computational efficiency.

[0031] Visual verification system: A visual interface is developed using Python and the matplotlib library to generate 300 DPI bilingual patent charts, including: 3D geodesic surface, showing the evolution path of quantum states; Ring weaving path, displaying the topological operation of quantum bits; 58 mechanism network, presenting the connection topology of the quantum system; Radar performance chart, comprehensive evaluation of system performance indicators.

[0032] 3. System integration and operation Observer-dependent measurement quantum system: Configured to achieve internal collapse to point eigenstates (η_B=1×10^-10) and external collapse to extended superposition states (1-η_B), reducing decoherence by dynamically adjusting the measurement process.

[0033] Unified drift equation: All subsystems (observer-dependent measurement, topological quantum bit processor, cryptographic receipt generator, geodesic path optimizer, visual verification system) share the unified drift equation dS / dt = -A·S + B·C to maintain η_B coupling and ensure system collaboration.

[0034] Error correction and protection mechanism: ABBA exchange sub-protection ([A,B] + [B,A] = 0) and Čech cohomology error correction are implemented to automatically detect and correct errors in quantum operations.

[0035] Integrated Information Theory Application: Run the Integrated Information Theory (IIT) algorithm to calculate the Φ value, which assesses the "consciousness perception" ability of quantum systems, expanding the application scenarios of quantum processing.

[0036] 4. Verification Test Performance Test: Run Shor's algorithm or Grover's search algorithm, and verify the correctness and efficiency of quantum operations by visualizing real-time charts generated by the system. Measure the coherence time of the topological qubits and confirm that it exceeds 100 milliseconds.

[0037] Verifiability Test: Use a cryptographic receipt generator to record each quantum operation, generate a digital receipt, and upload it to a blockchain network to ensure traceability and tamper resistance of the operation.

[0038] Optimization Effect Evaluation: Compare the depth of quantum circuits before and after optimization, confirm that the circuit depth is reduced by 40% by the geodesic path optimizer, and significantly improve the calculation speed.

[0039] The above-described embodiments only express several embodiments of the present application, and the description is more specific and detailed, but it should not be understood as limiting the scope of the present patent. It should be noted that for ordinary skilled persons in the art, without departing from the concept of the present application, a number of modifications and improvements can be made, which are within the scope of protection of the present application. Therefore, the scope of protection of the present patent should be subject to the appended claims.

Claims

1. A quantum computing platform with observer-dependent measurement and visualized verification system, characterized in that, Comprise: Observer-dependent measurement subsystem, topological qubit processor, cryptography receipt generator, geodesic path optimizer, visual verification system; Observer-dependent measurement subsystem, collapse to internal point eigenstate η_B=1×10^-10 and external collapse to extended superposition state 1-η_B; Topological qubit processor, InAs nanowire heterostructure and Al superconductor, fabricated by molecular beam epitaxy 10^-11 Torr, coherence time >100 milliseconds; Cryptography receipt generator, based on Xilinx ZCU104 FPGA, [500MHz, 504KLUT, 1728DSP], generates 10^6 blockchain-compatible signatures per second; Geodesic path optimizer, NVIDIA A100 GPU [312TFLOPS], reduces quantum circuit depth by 40%; Visual verification system, 300DPI bilingual patent chart generated by Python matplotlib.

2. The quantum computing platform with observer-dependent measurement and visualization verification system of claim 1, wherein: The topological qubit is realized by reactive ion etching RIE using SF6 / O2 mixed gas, with a precision of 5nm and a Majorana zero mode energy gap of 100μeV.

3. The quantum computing platform with observer-dependent measurement and visualization verification system of claim 1, wherein: The cryptography receipt generator realizes a VHDL architecture, including 255-bit quantum states, 31-bit operation codes, 511-bit receipts, and 223-bit CRYSTALS-Dilithium signatures.

4. The quantum computing platform with observer-dependent measurement and visualization verification system of claim 1, wherein: The quantum computing platform with observer-dependent measurement and visual verification system realizes ABBA commutator protection [A,B]+[B,A]=0 and Čech cohomology correction.

5. The quantum computing platform with observer-dependent measurement and visualization verification system of claim 1, wherein: The quantum computing platform with observer-dependent measurement and visual verification system uses Oxford Instruments Triton500 dilution refrigerator, with a base temperature of 10mK, vibration isolation <1nm RMS, and magnetic shielding >100dB.

6. The quantum computing platform with observer-dependent measurement and visualization verification system of claim 1, wherein: The control electronics of the quantum computing platform with observer-dependent measurement and visual verification system includes Keysight M3202A AWF (1GS / s, 14-bit) and Spectrum M4i.4451 digitizer [500MS / s, 16-bit, 4GB].

7. The quantum computing platform with observer-dependent measurement and visualization verification system of claim 1, wherein: The real-time control of the quantum computing platform with observer-dependent measurement and visual verification system uses NXPLPC55S69 dual-core ARM Cortex-M33 running FreeRTOS with a 100Hz update rate.

8. The quantum computing platform with observer-dependent measurement and visualization verification system of claim 1, wherein: The visualization system generates charts including 3D geodesic surface, toroidal braiding path, 58 mechanism network, and radar performance chart.

9. The quantum computing platform with observer-dependent measurement and visualization verification system of claim 1, wherein: The quantum computing platform with observer-dependent measurement and visual verification system realizes integrated information theory IIT metric, calculating Φ value for conscious perception quantum processing.

10. The quantum computing platform with observer-dependent measurement and visualization verification system of claim 1, wherein: The observer-dependent measurement subsystem, the topological qubit processor, the cryptography receipt generator, the geodesic path optimizer, and the visual verification system share a unified drift equation dS / dt=-A·S+B·C, maintaining η_B coupling.

Images