Search Results for author: J. M. Schwarz

Found 6 papers, 0 papers with code

Emergent learning in physical systems as feedback-based aging in a glassy landscape

no code implementations8 Sep 2023 Vidyesh Rao Anisetti, Ananth Kandala, J. M. Schwarz

This physical interpretation suggests that by encoding more detailed information into input and feedback boundary forces, the process of emergent learning can be rather ubiquitous and, thus, serve as a very early physical mechanism, from an evolutionary standpoint, for learning in biological systems.

How human-derived brain organoids are built differently from brain organoids derived of genetically-close relatives: A multi-scale hypothesis

no code implementations17 Apr 2023 Tao Zhang, Sarthak Gupta, Madeline A. Lancaster, J. M. Schwarz

We postulate that the enhancement of ZEB2 expression driving this intermediate state is potentially due to chromatin reorganization.

Frequency propagation: Multi-mechanism learning in nonlinear physical networks

no code implementations10 Aug 2022 Vidyesh Rao Anisetti, A. Kandala, B. Scellier, J. M. Schwarz

In a resistive electrical circuit with variable resistors, an activation current is applied at a set of input nodes at one frequency, and an error current is applied at a set of output nodes at another frequency.

Learning by non-interfering feedback chemical signaling in physical networks

no code implementations22 Mar 2022 Vidyesh Rao Anisetti, B. Scellier, J. M. Schwarz

Such efforts include equilibrium propagation (EP) and coupled learning (CL), which require storage of two different states-the free state and the perturbed state-during the learning process to retain information about gradients.

Dynamic nuclear structure emerges from chromatin crosslinks and motors

no code implementations17 Aug 2020 Kuang Liu, Alison E. Patteson, Edward J. Banigan, J. M. Schwarz

Experiments indicate that correlated chromosome dynamics and nuclear shape fluctuations arise from motor activity.

How does the extracellular matrix affect the rigidity of an embedded spheroid?

no code implementations29 Jun 2020 Amanda Parker, M. Cristina Marchetti, M. Lisa Manning, J. M. Schwarz

Cellularized tissue and polymer networks can both transition from floppy to rigid as a function of their control parameters, and, yet, the two systems often mechanically interact, which may affect their respective rigidities.

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