
TL;DR
This paper introduces a novel method using Model Vectors to solve number sequence problems by decomposing sequences into base components, enabling prediction of missing terms without explicit knowledge of the underlying rules.
Contribution
It presents a new approach to sequence inference using Model Vectors, which can be constructed via matrix inversion or a novel combination function, and demonstrates its effectiveness.
Findings
Effective prediction of missing sequence terms
Model vectors can be generated without knowing hidden rules
Algorithm performs well on sequence problem tests
Abstract
In this article, we discuss a novel approach to solving number sequence problems, in which sequences of numbers following unstated rules are given, and missing terms are to be inferred. We develop a methodology of decomposing test sequences into linear combinations of known base sequences, and using the decomposition weights to predict the missing term. We show that if assumptions are made ahead of time of the expected base sequences, then a Model Vector can be created, where a dot-product with the input will produce the result. This is surprising since it means sequence problems can be solved with no knowledge of the hidden rule. Model vectors can be created either by matrix inversion or by a novel combination function applied to primitive vectors. A heuristic algorithm to compute the most likely model vector from the input is described. Finally we evaluate the algorithm on a suite of…
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Taxonomy
TopicsSoftware Testing and Debugging Techniques · Algorithms and Data Compression · Formal Methods in Verification
