Grad Student @UConnEngineer ๐พ - Computational Auditory Neuro - How do we ๐ง (and machines๐ค) encode and perceive natural sounds? ๐๐- he/him
Check out our new preprint! We investigate how spectrum & modulation in natural sounds can help/hinder human speech recognition๐๐ฌ
Further- we explore the bottom-up acoustic invariances driving this effect with a midbrain inspired, interpretable model๐ง
https://t.co/SyWrKenCg0
Temporal integration throughout the human auditory cortex is predominantly locked to absolute time and does not vary with the duration of speech structures such as phonemes or words
@SamNormanH, @URNeuroscience, @UofR
https://t.co/jqneGu5bJS
From @UConn Today - @UConnEngineer Sophomores are doing amazing work with our community members. So proud of this special group!
https://t.co/rYnuHTJNJg
1/ ๐งต๐
What should count as a good model of intelligence?
AI is advancing rapidly, but how do we know if it captures intelligence in a scientifically meaningful way?
We propose the *NeuroAI Turing Test*โa benchmark that evaluates models based on both behavior and internal representations.
๐The key principle: given a metric, models should be *at least as good as brains are to each other*:
Are you Interested in:
- the role of oscillations in visual and auditory processing?
- blending computational and experimental neuroscience?
- research with clinical implications?
If yes, then maybe you'd like a postdoc with us.
DM/email me for more details.
RTs appreciated
New paper from our lab, by Mark Saddler, using machine learning to test the role of temporal coding in hearing. Here is a quick summary. (1/n)
https://t.co/QFXTdDXd7J
@mitbcs@mcgovernmit@MIT_CBMM@ScienceMIT
New paper from our lab, by Jarrod Hicks. Shows that people use the statistical properties of background noise to hear concurrent โforegroundโ sounds. Read on for highlights (1).
https://t.co/W3e1nH3SX9
@ScienceMIT@mitbrainandcog@mcgovernmit@MIT_CBMM
Our paper on suppression of onset responses during speech production in auditory cortex (and lack thereof in the insula!) is now out in @SfNJournals ! Onset responses may provide an important cue for externally generated sounds! Thread below with info. https://t.co/PxbUgiExjQ
When you canโt avoid loud sounds, wear hearing protectors, such as earplugs or protective earmuffs. Learn about the importance of protecting your hearing and the types of available hearing protectors: https://t.co/LCN9WYqTxZ #NPYHM#NIDCDinfo
We just wrote a primer on how the physics of sound constrains auditory perception:
https://t.co/NLgb4Q1ixj
Covers sound propagation and object interactions, and touches on their relevance to music and film.
I enjoyed working on this with @vin_agarwal and James Traer.
While I donโt agree with everything, the paper raises an important issue about linear predictivity's limitations. Another paper highlights an empirical flaw: its inability to distinguish trained from untrained models, despite clear functional differences: https://t.co/b4Id1wJyzR
This nicely summarizes some misconceptions in the recent position paper about measures of brain-model comparison.
One additional point: While I agree with the idea in the original paper that we shouldn't *just* focus on regression, many other measures have been proposed! 1/4
Nice quick read with an important point: even if a model predicts brain data well it doesn't mean the model uses the same mechanism the brain does. More expressive models generally do better than less expressive models regardless of mechanism.
A few days left to apply for a postdoc position(s) in our group.
If you are interested in brains, speech, language, oscillations, computational modeling, multisensory integration, predictive perception, please see the ad below and apply soon.
RTs appreciated.
BREAKING NEWS
The Royal Swedish Academy of Sciences has decided to award the 2024 #NobelPrize in Chemistry with one half to David Baker โfor computational protein designโ and the other half jointly to Demis Hassabis and John M. Jumper โfor protein structure prediction.โ
2024 physics laureate Geoffrey Hinton used a network developed by his co-laureate John Hopfield as the foundation for a new network: the Boltzmann machine. This can learn to recognise characteristic elements in a given type of data.
The Boltzmann machine can be used to classify images or create new examples of the type of pattern on which it was trained. Hinton has built upon this work, helping initiate the current explosive development of machine learning.
#NobelPrize