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Pitches that Wire Together Fire Together: Scale Degree Associations Across Time Predict Melodic Expectations
Niels J Verosky1, Emily Morgan2
1San Francisco, California.
Cognitive Science
|October 4, 2021
Summary
Listeners
Area of Science:
- Cognitive Science
- Music Cognition
- Computational Musicology
Background:
- Music listening relies on generating expectations.
- Previous research focused on transition probabilities and n-grams for statistical learning in melodies.
- Other statistical learning mechanisms, like temporal associations, may be underexplored.
Purpose of the Study:
- To investigate the role of temporal associations between scale degrees in melodic expectation.
- To compare the predictive power of expectation networks against established models (Markov models, music theory models).
- To assess how generalized scale degree associations influence melodic continuation predictions.
Main Methods:
- Utilized expectation networks to model temporal associations between scale degrees.
- Combined learned associations to predict melodic continuations.
- Tested predictions against listener responses in a musical cloze task, comparing with IDyOM and Temperley's model.
Main Results:
- Expectation networks, informed by adjacent and nonadjacent note relationships, significantly predicted melodic expectations.
- These networks explained unique variance in listener predictions beyond n-gram models.
- Coefficient estimates were highest for expectation networks, suggesting stronger predictive power.
Conclusions:
- Generalized scale degree associations are crucial for listeners' melodic predictions.
- Expectation networks offer a valuable computational approach to understanding musical expectation.
- Broader statistical learning processes beyond simple sequential patterns are vital for modeling music cognition.
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