Zenith Grant Awardee
Aviva Berkovich-Ohana
University of Haifa
Project Title
Studying the boundaries of self-consciousness using a unique MEG-neurophenomenology setup
Project Summary
One approach for tackling the hard problem of consciousness starts with experience and then asks how can physical systems, such as brains, generate it. While rarely implemented, rigorous mapping of subjective experience, i.e. phenomenology, is a pre-condition for cognitive and neural models of it. Leveraging the highly-trained abilities of long-term meditators for examining and manipulating inner experience, we have provided proof-of-concept neural and phenomenological evidence that the boundaries of self-consciousness can be non-chemically and volitionally manipulated to the point of dissolution in laboratory settings. These findings open possibilities for addressing foundational questions of what are the boundaries of the self? Can self-boundaries be volitionally dissolved, expanded or enhanced? Is it possible to specify cognitive models linking experiential parameters to neurocognitive processes? And does flexibility in self-boundaries impact other mental qualities such as existential resilience, well-being and prosociality? Using a unique MEG-neurophenomenology setup, a multidisciplinary team and in collaboration with 50 meditators and matched controls, the proposed project employs neural, behavioral, self-report and phenomenological measures for an in-depth study of the nature and boundaries of human self-consciousness. Anticipated outcomes have topical implications beyond cognitive neuroscience, potentially providing new data on whether states of consciousness devoid of a sense-of-self are even possible.
Technical Abstract
One approach for tackling the hard problem of consciousness starts with experience and then asks how can physical systems, such as brains, generate it. While rarely implemented, rigorous mapping of subjective experience, i.e. phenomenology, is a pre-condition for cognitive and neural models of it. Leveraging the highly-trained abilities of long-term meditators for examining and manipulating inner experience, we have provided proof-of-concept neural and phenomenological evidence that the boundaries of self-consciousness can be non-chemically and volitionally manipulated to the point of dissolution in laboratory settings. These findings open possibilities for addressing foundational questions of what are the boundaries of the self? Can self-boundaries be volitionally dissolved, expanded or enhanced? Is it possible to specify cognitive models linking experiential parameters to neurocognitive processes? And does flexibility in self-boundaries impact other mental qualities such as existential resilience, well-being and prosociality? Using a unique MEG-neurophenomenology setup, a multidisciplinary team and in collaboration with 50 meditators and matched controls, the proposed project employs neural, behavioral, self-report and phenomenological measures for an in-depth study of the nature and boundaries of human self-consciousness. Anticipated outcomes have topical implications beyond cognitive neuroscience, potentially providing new data on whether states of consciousness devoid of a sense-of-self are even possible.
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PressRelease: Shining a light on the roots of plant “intelligence”
All living organisms emit a low level of light radiation, but the origin and function of these ‘biophotons’ are not yet fully understood. An international team of physicists, funded by the Foundational Questions Institute, FQxI, has proposed a new approach for investigating this phenomenon based on statistical analyses of this emission. Their aim is to test whether biophotons can play a role in the transport of information within and between living organisms, and whether monitoring biophotons could contribute to the development of medical techniques for the early diagnosis of various diseases. Their analyses of the measurements of the faint glow emitted by lentil seeds support models for the emergence of a kind of plant ‘intelligence,’ in which the biophotonic emission carries information and may thus be used by plants as a means to communicate. The team reported this and reviewed the history of biophotons in an article in the journal Applied Sciences in June 2024.