Brain Kinematics: Strain, Memory, and Consciousness Continuity

The provided documents outline and refine the Brain Kinematics Model (BKM), a theoretical framework positing that cognitive, neural, and emotional processes arise from the dynamic transformation of strain phase waves within the brain. The BKM defines core concepts such as residual strain packages (RSPs) that function as particle-like memory units, fractality (the recursive structural organization of motifs), and plasticity (the dynamic ability of strain pathways to reshape). The sources comprehensively integrate these concepts, establishing a gradient for memory types (working, short-term, long-term) and mapping consciousness as a continuum governed by strain amplitude, frequency, and spin precision. Crucially, the sources propose a mathematical continuity axis and a balance equation—analogous to Schrödinger’s wave function—to describe the conservation and flow of strain energy during thought, emotion regulation, and dreaming, which is presented as a nightly reorganization of RSPs to restore cortical balance. Finally, the text provides a detailed experimental suite with measurable variables and hypotheses, transforming the BKM into a testable science using neurophysiological measures like EEG/MEG phase-gradient directionality and fractal analysis.