Finite State Transducers for Text Disambiguation
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Solution Overview
Problem
Natural language processing technologies face challenges in accurately interpreting and disambiguating words with multiple meanings, leading to inefficient and inaccurate automated text analysis.
Innovation Solution
The use of finite state transducers (FST) and bi-machine transducers (BMT) is applied to language space data to disambiguate word meanings and enhance sentence structure interpretation, allowing for the generation of modified language space data that improves the accuracy and speed of automated text analysis.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Measurement precision
If conventional natural language processing algorithms are used to interpret text, then the system can process text at all, but the accuracy of word meaning disambiguation is poor and computational speed is slow
Solution Approach 1:
The patent applies finite state transducers and bi-machine transducers to pre-process language space data before full NLP analysis. By performing preliminary disambiguation and structural analysis using these specialized transducers, the system resolves word meanings earlier in the processing pipeline, reducing the computational burden and time required for subsequent analysis steps.
Solution Approach 2:
The patent introduces finite state transducers and bi-machine transducers as intermediary processing layers between raw text input and final NLP interpretation. These transducers act as mediators that transform and structure the language space data, enabling more accurate and efficient disambiguation of word meanings while maintaining processing speed.
2Reliability
If computationally intensive algorithms are used to decipher ambiguous text, then word meaning accuracy may improve, but processing speed decreases significantly
Solution Approach 1:
The patent segments the text processing task into distinct phases handled by different computational mechanisms. Finite state transducers handle specific disambiguation patterns, bi-machine transducers handle structural analysis, and conventional NLP algorithms handle remaining interpretation. This segmentation allows each component to operate efficiently on its designated subtask, maintaining high accuracy without requiring all algorithms to run at full computational intensity.
Solution Approach 2:
The patent changes the computational parameters by using finite state and bi-machine transducers that operate with different complexity characteristics than conventional NLP algorithms. These transducers use optimized state transitions and matching mechanisms that reduce computational overhead while maintaining or improving disambiguation accuracy, thereby increasing overall processing throughput.
3Productivity
If simple processing methods are used, then processing speed is fast, but the ability to correctly interpret words with multiple meanings is lost
Solution Approach 1:
The patent introduces finite state transducers and bi-machine transducers as intermediary processing layers between raw text input and final NLP interpretation. These transducers act as mediators that transform and structure the language space data, enabling more accurate and efficient disambiguation of word meanings while maintaining processing speed.
4Ease of operation
If conventional language processors are used, then text can be processed, but sentences requiring complex interpretation require excessive computational resources
Solution Approach 1:
The patent applies finite state transducers and bi-machine transducers to pre-process language space data before full NLP analysis. By performing preliminary disambiguation and structural analysis using these specialized transducers, the system resolves word meanings earlier in the processing pipeline, reducing the computational burden and time required for subsequent analysis steps.
Data Source
AI summary
Methods and apparatus for automated processing of natural language text is described. The text can be preprocessed to produce language-space data that includes descriptive data elements for words. Source code that includes linguistic expressions, and that may be written in a programming language that is user-friendly to linguists, can be compiled to produce finite-state transducers and bi-machine transducers that may be applied directly to the language-space data by a language-processing virtual machine. The language-processing virtual machine can select and execute code segments identified in the finite-state and/or bi-machine transducers to disambiguate meanings of words in the text.


