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Hyeong-Dong Park

2 papers in the library · 9 citations · publishing 2019-2024

Papers

Changes in spatial self-consciousness elicit grid cell-like representation in the entorhinal cortex.

Proceedings of the National Academy of Sciences of the United States of America March 19, 2024 Hyuk-June Moon, Louis Albert, Emanuela De Falco et al. 9 citations

Grid cells in the entorhinal cortex, which encode location in space using environmental and bodily cues, also respond to illusory shifts in self-location caused by multisensory bodily stimulation, even without actual movement or visual navigation. In this fMRI study, participants experienced controlled illusory forward drifts in self-location through visuo-tactile stimulation while their visual viewpoint remained fixed. The entorhinal cortex showed grid cell-like representations that correlated with the magnitude of the perceived self-location and had the same grid orientation as during conventional virtual navigation. This indicates that the same neural representation is recruited for navigation based on environmental cues and for self-location changes driven by bodily signals.

Coupling Inner and Outer Body for Self-Consciousness.

Trends in Cognitive Sciences May 1, 2019 Hyeong-Dong Park, O. Blanke

Recent research on self-consciousness has separately examined bodily signals from outside the body (exteroception) and from internal organs (interoception), with little integration between these approaches. This review synthesizes evidence on interoceptive bodily processing and its combination with exteroceptive signals for self-consciousness. The authors propose an integrated neural system that reconciles these two perspectives and explains fundamental aspects of self-consciousness, including self-identification, self-location, and the experienced global unity and temporal continuity of the self.