671 to 680 of 1,851 Results
Sep 9, 2025 -
Critical fluctuations of the exponential last passage percolation with thick boundaries
Wolfram Mathematica Code - 864 B -
MD5: 7839b60e7dd88adc093c6af00aed0dcb
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Sep 9, 2025 -
Critical fluctuations of the exponential last passage percolation with thick boundaries
Wolfram Mathematica Code - 245 B -
MD5: 7c4e62c3496642ea91fbca9e2c323caa
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Sep 9, 2025 -
Critical fluctuations of the exponential last passage percolation with thick boundaries
Wolfram Mathematica Code - 1.2 KB -
MD5: 2d445f21bbf9824696867e1e8a682780
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Sep 9, 2025 -
Critical fluctuations of the exponential last passage percolation with thick boundaries
Wolfram Mathematica Code - 918 B -
MD5: ff7de8ddafadb765d28f5e40804cf84a
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Sep 9, 2025 -
Critical fluctuations of the exponential last passage percolation with thick boundaries
Wolfram Mathematica Code - 335 B -
MD5: 0109f967da1b7b18e5140d01ef50d6ee
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Sep 4, 2025 - SFB1089
Mormann, Florian; Liebe, Stefanie; Niediek, Johannes; Reber, Thomas; Faber, Jennifer; Elger, Christian E.; Pals, Matthijs; Macke, Jakob H.; Boström, Jan, 2025, "Phase of firing does not reflect temporal order in sequence memory of humans and recurrent neural networks", https://doi.org/10.60507/FK2/KB2RN6, bonndata, V1
The temporal order of a sequence of events has been thought to be reflected in the ordered firing of neurons at different phases of theta oscillations. Here we assess this by measuring single neuron activity (1,420 neurons) and local field potentials (921 channels) in the medial temporal lobe of 16 patients with epilepsy performing a working-memory... |
Sep 4, 2025 -
Phase of firing does not reflect temporal order in sequence memory of humans and recurrent neural networks
ZIP Archive - 277.4 KB -
MD5: 2b0af4a85622332befc6c139debd7229
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Sep 3, 2025 - SFB1089
Gründemann, Jan; Hasegawa, Masashi; Huang, Ziyan; Paricio-Montesinos, Ricardo, 2025, "Network state changes in sensory thalamus represent learned outcomes", https://doi.org/10.60507/FK2/I2NSY2, bonndata, V1
Thalamic brain areas play an important role in adaptive behaviors. Nevertheless, the population dynamics of thalamic relays during learning across sensory modalities remain unknown. Using a cross-modal sensory reward-associative learning paradigm combined with deep brain two-photon calcium imaging of large populations of auditory thalamus (medial g... |
ZIP Archive - 341.5 KB -
MD5: 975231b34fe8f4eba16cf2d44127b67d
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Unknown - 2.0 KB -
MD5: 977217f06d2ef40b4c9941d9026a72bb
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