Inverting Cognitive Models With Neural Networks to Infer Preferences From Fixations

Inferring an individual's preferences from their observable behavior is a key step in the development of assistive decision-making technology. Although machine learning models such as neural networks could in principle be deployed toward this inference, a large amount of data is required to train such models. Here, we present an approach in which a cognitive model generates simulated data to augment limited human data. Using these data, we train a neural network to invert the model, making it possible to infer preferences from behavior. We show how this approach can be used to infer the value that people assign to food items from their eye movements when choosing between those items. We demonstrate first that neural networks can infer the latent preferences used by the model to generate simulated fixations, and second that simulated data can be beneficial in pretraining a network for predicting human-reported preferences from real fixations. Compared to inferring preferences from choice alone, this approach confers a slight improvement in predicting preferences and also allows prediction to take place prior to the choice being made. Overall, our results suggest that using a combination of neural networks and model-simulated training data is a promising approach for developing technology that infers human preferences.

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Publication Details

Journal
Cognitive Science
Published
2024-11-01
DOI
https://doi.org/10.1111/cogs.70015
Citations
1
Primary Topic
Cognitive Science and Mapping
Type
article
Field-Weighted Citation Impact
0.35
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article

Inverting Cognitive Models With Neural Networks to Infer Preferences From Fixations

Frederick Callaway, Evan M. Russek, Thomas L. Griffiths
1 citations
Cognitive Science
Cognitive Science and Mapping
0.35
article

Inverting Cognitive Models With Neural Networks to Infer Preferences From Fixations

Frederick Callaway, Evan M. Russek, Thomas L. Griffiths
article en
1 citations

Abstract

Inferring an individual's preferences from their observable behavior is a key step in the development of assistive decision-making technology. Although machine learning models such as neural networks could in principle be deployed toward this inference, a large amount of data is required to train such models. Here, we present an approach in which a cognitive model generates simulated data to augment limited human data. Using these data, we train a neural network to invert the model, making it possible to infer preferences from behavior. We show how this approach can be used to infer the value that people assign to food items from their eye movements when choosing between those items. We demonstrate first that neural networks can infer the latent preferences used by the model to generate simulated fixations, and second that simulated data can be beneficial in pretraining a network for predicting human-reported preferences from real fixations. Compared to inferring preferences from choice alone, this approach confers a slight improvement in predicting preferences and also allows prediction to take place prior to the choice being made. Overall, our results suggest that using a combination of neural networks and model-simulated training data is a promising approach for developing technology that infers human preferences.

Cognitive ScienceVol. 48(11)
Harvard University (US), Princeton University (US), New York University (US)
Openalex Percentile: Top 32%
Cognitive Science and Mapping
0.35
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