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Auteurs principaux: Willett, Francis R., Li, Jingyuan, Le, Trung, Fan, Chaofei, Chen, Mingfei, Shlizerman, Eli, Chen, Yue, Zheng, Xin, Okubo, Tatsuo S., Benster, Tyler, Lee, Hyun Dong, Kounga, Maxwell, Buchanan, E. Kelly, Zoltowski, David, Linderman, Scott W., Henderson, Jaimie M.
Format: Preprint
Publié: 2024
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Accès en ligne:https://arxiv.org/abs/2412.17227
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author Willett, Francis R.
Li, Jingyuan
Le, Trung
Fan, Chaofei
Chen, Mingfei
Shlizerman, Eli
Chen, Yue
Zheng, Xin
Okubo, Tatsuo S.
Benster, Tyler
Lee, Hyun Dong
Kounga, Maxwell
Buchanan, E. Kelly
Zoltowski, David
Linderman, Scott W.
Henderson, Jaimie M.
author_facet Willett, Francis R.
Li, Jingyuan
Le, Trung
Fan, Chaofei
Chen, Mingfei
Shlizerman, Eli
Chen, Yue
Zheng, Xin
Okubo, Tatsuo S.
Benster, Tyler
Lee, Hyun Dong
Kounga, Maxwell
Buchanan, E. Kelly
Zoltowski, David
Linderman, Scott W.
Henderson, Jaimie M.
contents Speech brain-computer interfaces aim to decipher what a person is trying to say from neural activity alone, restoring communication to people with paralysis who have lost the ability to speak intelligibly. The Brain-to-Text Benchmark '24 and associated competition was created to foster the advancement of decoding algorithms that convert neural activity to text. Here, we summarize the lessons learned from the competition ending on June 1, 2024 (the top 4 entrants also presented their experiences in a recorded webinar). The largest improvements in accuracy were achieved using an ensembling approach, where the output of multiple independent decoders was merged using a fine-tuned large language model (an approach used by all 3 top entrants). Performance gains were also found by improving how the baseline recurrent neural network (RNN) model was trained, including by optimizing learning rate scheduling and by using a diphone training objective. Improving upon the model architecture itself proved more difficult, however, with attempts to use deep state space models or transformers not yet appearing to offer a benefit over the RNN baseline. The benchmark will remain open indefinitely to support further work towards increasing the accuracy of brain-to-text algorithms.
format Preprint
id arxiv_https___arxiv_org_abs_2412_17227
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Brain-to-Text Benchmark '24: Lessons Learned
Willett, Francis R.
Li, Jingyuan
Le, Trung
Fan, Chaofei
Chen, Mingfei
Shlizerman, Eli
Chen, Yue
Zheng, Xin
Okubo, Tatsuo S.
Benster, Tyler
Lee, Hyun Dong
Kounga, Maxwell
Buchanan, E. Kelly
Zoltowski, David
Linderman, Scott W.
Henderson, Jaimie M.
Computation and Language
Machine Learning
Neurons and Cognition
Speech brain-computer interfaces aim to decipher what a person is trying to say from neural activity alone, restoring communication to people with paralysis who have lost the ability to speak intelligibly. The Brain-to-Text Benchmark '24 and associated competition was created to foster the advancement of decoding algorithms that convert neural activity to text. Here, we summarize the lessons learned from the competition ending on June 1, 2024 (the top 4 entrants also presented their experiences in a recorded webinar). The largest improvements in accuracy were achieved using an ensembling approach, where the output of multiple independent decoders was merged using a fine-tuned large language model (an approach used by all 3 top entrants). Performance gains were also found by improving how the baseline recurrent neural network (RNN) model was trained, including by optimizing learning rate scheduling and by using a diphone training objective. Improving upon the model architecture itself proved more difficult, however, with attempts to use deep state space models or transformers not yet appearing to offer a benefit over the RNN baseline. The benchmark will remain open indefinitely to support further work towards increasing the accuracy of brain-to-text algorithms.
title Brain-to-Text Benchmark '24: Lessons Learned
topic Computation and Language
Machine Learning
Neurons and Cognition
url https://arxiv.org/abs/2412.17227