Wavelet-Based Feature Extraction and Unsupervised Clustering for Parity Detection: A Feature Engineering Perspective
Ertugrul Mutlu

TL;DR
This paper demonstrates that wavelet-based feature extraction combined with unsupervised clustering can classify parity with about 70% accuracy, revealing structural differences in a novel, signal-processing-inspired approach.
Contribution
It introduces a wavelet-based feature engineering method for parity detection, showcasing how classical signal processing can be applied to symbolic data in an unsupervised manner.
Findings
Achieved approximately 69.67% accuracy in parity classification
Revealed structural differences between odd and even numbers in wavelet domain
Illustrated potential of feature engineering for symbolic reasoning tasks
Abstract
This paper explores a deliberately over-engineered approach to the classical problem of parity detection -- determining whether a number is odd or even -- by combining wavelet-based feature extraction with unsupervised clustering. Instead of relying on modular arithmetic, integers are transformed into wavelet-domain representations, from which multi-scale statistical features are extracted and clustered using the k-means algorithm. The resulting feature space reveals meaningful structural differences between odd and even numbers, achieving a classification accuracy of approximately 69.67% without any label supervision. These results suggest that classical signal-processing techniques, originally designed for continuous data, can uncover latent structure even in purely discrete symbolic domains. Beyond parity detection, the study provides an illustrative perspective on how feature…
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Taxonomy
TopicsFerroelectric and Negative Capacitance Devices · Neural Networks and Applications · Fractal and DNA sequence analysis
