Memory in Context (Kickoff Session)
The topic of this year's NABI symposium, we explore how hippocampal circuits reveal the principles behind flexible, context-dependent memory.
About NABI
NABI is a research group which aims to translate clinical experience into insights through computational neuroscience. We also aim to leverage real-life data to advance our understanding of the human brain. Ultimately, we aim to develop computational models that can be leveraged in clinical or other real-life applications.
We analyze papers and implement code on the latest topics from prominent journals and conferences in deep learning, computational neuroscience, and reinforcement learning.
Students from various fields, including medicine, biology, and computer science, come together to develop interdisciplinary skills. We hold an end-of-year symposium and a presentation at Seoul National University Hospital so various members can present their research and hold discussions with peers from various fields.
Research Highlights
Groundbreaking studies at the intersection of neuroscience and artificial intelligence
Neuroscience techniques, when applied to a microprocessor demonstrate even human-designed systems may be difficult to understand.
The hypothesis that the OFC (orbitofrontal cortex) plays a role in meta-reinforcement learning is proposed, and two distinct algorithms with distinct timescales are proposed.
Based on NMDAR nonlinearity, a circuit model of memory consolidation is proposed, establishing a link between the hippocampus and the transformer architecture.
The prefrontal cortex operates as a flexible free-standing system through a process of meta-reinforcement learning.
By identifying the signatures of system-wide neuromodulatory integration, we advance our knowledge the functional organization of the human brain.
A novel AI-driven social planner dynamically reshapes human interaction networks to promote cooperation by welcoming defectors into collaborative groups rather than isolating them.
A recurrent neural network model demonstrates how the prefrontal cortex orchestrates planning by sampling imagined action sequences, termed rollouts.
Whole-brain calcium imaging and probabilistic modeling is used to map how distinct neuron classes in C. elegans encode behavior across various states and timescales.
A biologically-constrained artificial neural network modeled after cerebellar circuity demonstrates a single recurrent circuit can perform word prediction and syntactic structure recognition
Research notes from our monthly meetings
The topic of this year's NABI symposium, we explore how hippocampal circuits reveal the principles behind flexible, context-dependent memory.
Computational psychiatry is still 'symptomology'—but just with more elegant equations.
A look at CogFunSearch, a new method using LLMs to automatically discover symbolic cognitive models from human and animal behavior.
Poisson compressed sensing for rapid inference of olfactory information (NeurIPS, 2023)