Symbol Transformer Circuits for Single-Chip Quantum Computing
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Solution Overview
Problem
Current quantum computers are unscalable, large, heavy, power-intensive, unreliable, sensitive to radiation, and operate slowly due to traditional elements and high-capacity memory devices, which limits their performance and scalability.
Innovation Solution
The use of a symbol transformer machine to create reversible, randomized, and quantum computing gates and circuits that integrate all necessary computing and memory functions on a single chip, reducing the number of constituent elements and complexity, and enabling mass production using mainstream processing technologies.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Productivity
If traditional elements and high-capacity memory devices are used in quantum computers, then computational functions can be performed, but the size, weight, and power consumption increase significantly
Solution Approach 1:
The patent merges quantum computing functions and memory functions into a single integrated circuit device. The symbol transformer circuit performs both computational operations (quantum gates) and memory storage functions within the same physical structure, eliminating the need for separate high-capacity memory devices and supporting apparatus, thereby dramatically reducing size and weight while maintaining computational capability
Solution Approach 2:
The symbol transformer circuit is designed to perform multiple functions: it acts as a quantum gate for computational operations, serves as memory storage, and provides interconnect functionality. This multi-functional design eliminates the need for dedicated separate components for each function, reducing overall system size and weight
2Productivity
If traditional elements are used in quantum computers, then computational operations can be performed, but power consumption becomes tremendous
Solution Approach 1:
By combining computational and memory functions in a single symbol transformer circuit, the patent eliminates the energy overhead associated with data transfer between separate computational units and memory devices. The integrated design reduces power consumption by keeping data processing and storage within the same circuit structure
Solution Approach 2:
The patent replaces traditional mechanical and electronic memory devices with a symbol transformer circuit that uses optical or electromagnetic field-based operations. This substitution eliminates the high power consumption associated with traditional memory access and data transfer mechanisms
3Productivity
If traditional elements are used in quantum computers, then computational tasks can be executed, but reliability decreases and sensitivity to radiation increases
Solution Approach 1:
The patent changes the operational parameters of the computing device by using symbol transformer circuits that operate with higher tolerance to environmental variations. The circuit design incorporates features that maintain reliable operation across broader temperature ranges and are less sensitive to radiation, thereby improving overall reliability while maintaining computational task execution capability
4Productivity
If traditional elements and high-capacity memory devices are used, then quantum computing functions can be supported, but the number of constituent elements and complexity increase
Solution Approach 1:
The patent merges quantum gate functionality and memory functionality into a single symbol transformer circuit unit. This integration dramatically reduces the number of constituent elements by eliminating the need for separate memory devices, interconnect structures, and supporting components, while maintaining full quantum computing capability
Solution Approach 2:
The symbol transformer circuit is designed as a universal component that performs multiple quantum computing functions including gate operations, memory storage, and data processing. This multi-functionality reduces the overall number of components needed in the system by having each unit perform multiple roles
5Productivity
If quantum computers are built with traditional supporting apparatus, then computational operations can be performed, but manufacturing scalability is limited and costs increase
Solution Approach 1:
By integrating computational and memory functions into a single symbol transformer circuit that can be fabricated using standard semiconductor manufacturing processes, the patent enables scalable production. The unified design simplifies the manufacturing process by reducing the number of assembly steps and components, thereby improving ease of manufacture and scalability while maintaining computational operation capability
Data Source
AI summary
Method for creating gates and circuits for computing apparatus with greatly improved characteristics of size, weight, power consumption, reliability, environmental tolerance, radiation hardiness, and operational speed at reduced costs by using symbol transformer, is provided. The symbol transformer having at least a first multiplicity of symbol ports coupled to a first variety of symbols, and a second multiplicity of symbol ports coupled to a second variety of symbols, associates an arbitrary one or plurality of the first multiplicity of symbol ports to and with any one or any plurality of the second or other multiplicities of symbol ports. The symbols represent static, dynamic, or both type of variables, and are used to operations of reversible, irreversible, randomized and quantum gates, circuits, and apparatus. Examples of code-controlled symbol transformer circuits embodiments demonstrate amenability for down scaling and manufacturing in silicon and other main-line processings.