Mapping The Internal Coordinate System Of Human Attention: An Engineer's Empirical Observations On Somatic Spatial Awareness (N-of-1)

Traditional neuroscience often utilises passive subjects monitored via external instruments like fMRI and EEG, which map anatomical regions but rarely capture real-time, conscious, first-person operational data—written from the combined perspective of a long-term concentration yoga practitioner and active self-experimenter. This paper maps the internal coordinate mechanics of human spatial attention. Through rigorous, decades-long self-experimentation, the author documents four key empirical findings: (1) the postural gravity shift where the mind's perceived seat of consciousness physically migrates in coordination with hemisphere weight and vestibular telemetry; (2) the fundamental directional asymmetry (anisotropy) and hardwired resistance of the rear attentional vector; (3) structural limits in frontoparietal bandwidth that mandate a fast sequential "multiplexing" scan cycle rather than a static 360-degree awareness sphere; and (4) the vital necessity of systematic "visual scaffolding" using open geometric angles to calm autonomic neural pathways before initiating closed-eye practices. By bridging empirical somatic awareness with neurophysiological systems, this text provides a mechanical framework for studying the mind as a calibrated, internally observable sensory instrument. These are my direct observations from treating my own body and mind as an empirical laboratory, paired with neurological analysis to explain the underlying biology.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-11-04
DOI
https://doi.org/10.5281/zenodo.23944037
Primary Topic
Philosophy and Theoretical Science
Type
preprint
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preprint

Mapping The Internal Coordinate System Of Human Attention: An Engineer's Empirical Observations On Somatic Spatial Awareness (N-of-1)

G K Agrawal
Zenodo (CERN European Organization for Nuclear Research)
Philosophy and Theoretical Science
preprint

Mapping The Internal Coordinate System Of Human Attention: An Engineer's Empirical Observations On Somatic Spatial Awareness (N-of-1)

G K Agrawal
preprint en

Abstract

Traditional neuroscience often utilises passive subjects monitored via external instruments like fMRI and EEG, which map anatomical regions but rarely capture real-time, conscious, first-person operational data—written from the combined perspective of a long-term concentration yoga practitioner and active self-experimenter. This paper maps the internal coordinate mechanics of human spatial attention. Through rigorous, decades-long self-experimentation, the author documents four key empirical findings: (1) the postural gravity shift where the mind's perceived seat of consciousness physically migrates in coordination with hemisphere weight and vestibular telemetry; (2) the fundamental directional asymmetry (anisotropy) and hardwired resistance of the rear attentional vector; (3) structural limits in frontoparietal bandwidth that mandate a fast sequential "multiplexing" scan cycle rather than a static 360-degree awareness sphere; and (4) the vital necessity of systematic "visual scaffolding" using open geometric angles to calm autonomic neural pathways before initiating closed-eye practices. By bridging empirical somatic awareness with neurophysiological systems, this text provides a mechanical framework for studying the mind as a calibrated, internally observable sensory instrument. These are my direct observations from treating my own body and mind as an empirical laboratory, paired with neurological analysis to explain the underlying biology.

Zenodo (CERN European Organization for Nuclear Research)
Bharat Heavy Electricals (India) (IN)
Philosophy and Theoretical Science
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