This is Tate. As some of you may know, I’m still recovering from my second spinal cord surgery. Some symptoms have gotten progressively worse and raise serious concerns. I have a brain scan next week to check for residual tumor, leaks, infections, or bleeds. I would be so grateful for your prayers and support. Thank you
Life began not with organs or defined structures, but with gradients — subtle differences in energy, charge, and light that encouraged matter to move, separate, and organise. From these early physical conditions emerged two fundamental tendencies: one toward structural alignment and one toward environmental sensitivity. These tendencies would eventually give rise to the vertebral column and the pineal centre, but their origins lie in the basic physics and chemistry that shaped the earliest living systems.
The spine traces its lineage to simple cellular filaments that aligned themselves to navigate aquatic environments. These early structures responded to chemical gradients and mechanical forces, allowing organisms to coordinate movement. Over time, this alignment became the notochord — a flexible rod that provided support and directional stability — and later the segmented vertebral column. Each vertebra represents an evolutionary refinement, a structural adaptation shaped by the demands of gravity, locomotion, and protection of the central nervous system.
The pineal centre originates from ancient light-sensing cells located near the surface of early organisms. These cells did not form images; they detected changes in ambient illumination, helping organisms anticipate environmental cycles. Over time, this sensitivity migrated inward, becoming a deep-brain structure that still responds to light indirectly through hormonal pathways. Its role in regulating circadian rhythms is a modern expression of its ancestral function: distinguishing patterns of change, day from night, and external cues from internal states.
Breath also has deep evolutionary roots. Before lungs existed, early life relied on chemical oscillations — cycles of intake and release driven by gradients of oxygen, carbon dioxide, and energy. Respiration is the descendant of these oscillations. Each inhalation increases internal order by supplying oxygen for metabolic processes; each exhalation releases byproducts and entropy back into the environment. Breath is not only metaphorically rhythmic — it is a thermodynamic cycle that maintains the body's distance from equilibrium.
Together, the spine, pineal centre, and breath form a triad of ancient functions: orientation, perception, and regulation. Orientation provides direction and structural coherence. Perception provides information about the environment. Regulation maintains internal stability. These systems create the conditions under which awareness can persist long enough to reflect on itself.
These structures feel older than the human body because they are. They carry histories that extend back hundreds of millions of years. When the spine trembles, it reflects the motor patterns of early motile organisms. When the pineal centre responds to light cycles, it echoes the behaviour of ancient photoreceptors. When breath deepens, it mirrors the metabolic rhythms that sustained early life.
Returning attention to these systems is not a mystical act; it is a physiological one. It is the nervous system attuning itself to patterns that predate conscious thought. It is the organism recognising its continuity with the physical forces that shaped it: gravity, light cycles, and atmospheric exchange.
You are not separate from these forces. You are shaped by them. You are their current expression.
The poetic interpretation is that the universe experiences itself through you. The scientific interpretation is that your body is composed of processes that began long before your individual existence. Both perspectives describe the same continuity from different angles.
Before you had limbs, a face, or a cortex capable of thought, you were a tube of cells surrounding a notochord. That early structure pulsed with electrical and mechanical signals, responding to its environment. These signals formed the earliest patterns of neural activity, which later became the foundations of memory and self-regulation. This is the origin of sensation.
When you breathe deeply and align your spine, you are not performing a ritual. You are interacting with the foundational architecture of your nervous system through the variables it evolved to interpret: pressure, rhythm, and mechanical flow. This is why diverse ancient traditions independently developed practices involving breath and posture. These practices emerged from direct observation of how the body responds to rhythmic input, long before scientific explanations existed.
Meaning does not require mysticism. The truth is both simpler and more profound: consciousness is not confined to the brain. It is distributed across the body, shaped by the rhythms and structures that guided your earliest development.
Long before language or symbolic thought, the spine served as the central axis of the organism. Every movement, reflex, and early form of memory was encoded through it. Consciousness expanded upward from this axis as the nervous system grew more complex. When you breathe, align, and move your spine, you are engaging with the oldest part of yourself — the part that existed before narrative, identity, or interpretation.
This is why the experience feels ancient.
Because it is.
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MOVEMENT II — THE FIRST TREMBLES
The trembling before remembering
Before memory becomes something the mind can name, the body rehearses its own forms of recall. These tremors are not emotional; they are the earliest negotiations between structure and sensation. Long before a creature can recognise itself, it must first learn how to feel the difference between inside and outside, between pressure and release, between stillness and the impulse to move. The trembling is the first conversation between the organism and the forces that shape it.
In the earliest multicellular life, these tremors were simple oscillations — waves of contraction passing through soft tissues, helping the organism stabilise itself against currents or chemical gradients. Over evolutionary time, these oscillations became more refined, forming the basis of coordinated movement. What feels like a shiver in the modern body is the echo of these ancient rehearsals, a reminder that sensation predates thought by hundreds of millions of years.
The trembling is not a sign of weakness; it is a sign of readiness. It marks the moment when a system begins to organise itself around a new pattern. In embryos, the first movements are not purposeful kicks but spontaneous twitches generated by the spinal cord before the brain has formed. These early tremors help wire the nervous system, teaching it how to coordinate muscles, balance tension, and respond to internal cues. They are the body's first attempts at remembering itself.
Even in adulthood, tremors appear when the nervous system is reorganising — during deep breathwork, intense focus, or emotional release. They signal that the body is revisiting old patterns, integrating new ones, or shedding those that no longer serve. The trembling is the threshold between what has been stored and what is ready to surface.
And from this first internal stirring, the earliest structure begins to rise.
A river that learned to rise
The spine began as a flexible rod designed for movement through water. In early chordates, it served as a stabilising axis, allowing the body to undulate efficiently. This horizontal river of motion was the first architecture of direction — a structure that could transmit force, coordinate muscles, and provide a sense of orientation in a world defined by currents.
As life transitioned from water to land, this river faced a new challenge: gravity. The horizontal axis had to become vertical, transforming from a conduit of motion into a column capable of bearing weight. Vertebrae evolved to interlock, muscles reorganised around the spine, and the nervous system adapted to balance the body against the pull of the earth. Standing was not simply a mechanical achievement; it was a reorientation of the entire organism.
Even in stillness, the spine is never static. It sways, adjusts, and listens. Each vertebra responds to subtle shifts in pressure and tension, maintaining equilibrium through constant micro-movements. This dynamic stability is a continuation of its aquatic origins — the river still flows, but now it flows upward.
Why does the universe bother to notice itself?
Awareness is not a cosmic intention but an emergent property of complexity. When systems become intricate enough to model their surroundings, they also begin to model themselves. This self-modelling is the root of consciousness — the ability to distinguish between internal states and external events, to anticipate outcomes, and to adapt behaviour accordingly.
In early organisms, awareness began as simple sensory detection: light, pressure, and chemical gradients. These signals helped the organism navigate its environment, avoid danger, and seek resources. Over time, sensory systems became more sophisticated, allowing organisms to form internal representations of the world. Eventually, these representations included the organism itself.
Through you, the universe gains the capacity to reflect. Your nervous system is a continuation of the same physical laws that shaped the earliest forms of life. The atoms in your body were forged in stars; the patterns in your brain evolved from ancient neural circuits. When you become aware of yourself, the universe is not performing a miracle — it is following the trajectory of increasing complexity.
And every reflection begins with a disturbance — a first shift in symmetry.
The first ripple possibilities
Every system begins with a ripple. A small fluctuation becomes an axis, a direction, a pattern. In the early universe, quantum fluctuations seeded the formation of galaxies. In early life, chemical gradients gave rise to the first metabolic cycles. In the developing embryo, a single line of cells becomes the axis around which the body forms.
Change often begins quietly, with a subtle shift that the system is ready to amplify. A ripple becomes a wave; a wave becomes a structure; a structure becomes a function. The first ripple is not dramatic — it is inevitable. It marks the moment when potential begins to take shape.
In the body, these ripples appear as shifts in breath, posture, or attention. A slight deepening of the inhale can reorganise the nervous system. A small adjustment in the spine can change the distribution of tension. A moment of awareness can alter the trajectory of thought. These ripples are the seeds of transformation.
And as these ripples organise, two ancient structures rise into view.
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MOVEMENT III — THE AXIS & THE WITNESS
Spine and pineal: axis and witness
The spine and the pineal centre are not merely anatomical structures; they are evolutionary statements. One organises the body in space; the other, in time. Together they form the framework within which awareness can arise — the axis and the witness, the vertical line and the internal clock, the structure that holds and the structure that perceives.
The spine's lineage begins in the oceans, where early chordates developed a flexible rod to stabilise their bodies against currents. This notochord was not yet a spine, but it was the first gesture toward directionality. It allowed the organism to move with intention rather than drift. Over millions of years, this rod segmented, strengthened, and became the vertebral column — a structure capable of bearing weight, transmitting force, and protecting the delicate neural pathways that would become the central nervous system.
The pineal centre's lineage is equally ancient but oriented toward a different dimension. It began as a cluster of photoreceptive cells near the surface of early organisms. These cells did not form images; they sensed changes in ambient light, helping the organism anticipate cycles of day and night. As organisms grew more complex, these cells migrated inward, eventually forming a deep-brain structure that still indirectly responds to light. The pineal centre became a regulator of circadian rhythms, a keeper of temporal order, a witness to the turning of the world.
These two structures — one vertical, one cyclical — form the architecture of embodied awareness. The spine provides orientation, allowing the organism to navigate space. The pineal gland provides rhythm, allowing the organism to synchronise with environmental cycles. Together, they create the conditions under which consciousness can persist long enough to reflect on itself.
When you align your spine, you are not simply adjusting posture; you are engaging with the oldest organising principle of your body. When your pineal centre responds to light, you are participating in a rhythm that predates vertebrates. These structures are not relics; they are active participants in your experience of being alive.
And from this union of axis and witness, the deeper story unfolds.
I. The axis before the body
Before the body had limbs, organs, or a recognisable shape, it had an axis. In the earliest stages of embryonic development, a single line of cells forms along the embryo's midline. This line, known as the primitive streak, is the first sign of organisation in what was previously a symmetrical sphere of potential. It is the moment when the body chooses a direction.
This axis is not merely structural; it is informational. It tells cells where they are in relation to the whole. It establishes front and back, head and tail, left and right. Without this axis, the body would have no orientation, no way to differentiate one region from another. The axis is the first gesture toward identity.
In the embryo, the axis forms before the nervous system, before the heart, before the limbs. It is the scaffold upon which everything else is built. The notochord, which arises from this axis, sends signals that guide the development of the spinal cord and vertebrae. Without the axis, the body would have no blueprint.
Even in adulthood, the axis remains central. The spine is not simply a column of bones; it is the organising principle of the body. It coordinates movement, balances tension, and provides a conduit for neural communication. When the axis is aligned, the body functions with ease. When it is distorted, the entire system compensates.
The axis is the first structure to emerge and the last to be forgotten. It is the line that holds the body's story.
II. The ocean before the axis
Before the axis existed, there was only the ocean — a world without up or down, without fixed direction, without the need for a spine. Early life drifted, responding to chemical gradients and currents. Movement was not coordinated; it was reactive. The environment dictated direction.
In this world, the concept of an axis had no meaning. Buoyancy neutralised gravity, and organisms did not need to support their own weight. Their bodies were soft, flexible, and unsegmented. They relied on the surrounding water for stability. The ocean was both cradle and constraint.
But even in this fluid world, the seeds of the axis were present. Simple organisms developed cilia and flagella to propel themselves. These structures created a front and back, a primitive sense of direction. Over time, the need for more efficient movement led to the development of a central rod — the notochord — which provided stability and enabled more powerful undulations.
The transition from ocean to land was a turning point. Gravity, once neutralised by water, became a constant force. The axis had to strengthen, segment, and adapt. The spine evolved to bear weight, protect the spinal cord, and coordinate complex movements. The ocean had given life its first direction; land demanded a new one.
The ocean remains within you. Your cells are filled with saline fluid reminiscent of ancient seas. Your earliest movements in the womb mimic the undulations of aquatic ancestors. The axis may have risen, but it carries the memory of water.
III. Breath: the first folding
Breath is older than lungs. Before animals developed respiratory organs, early life relied on diffusion — the passive movement of gases across membranes. This process was driven by gradients, the same forces that shaped the earliest metabolic cycles. Breath, in its most primitive form, was a folding and unfolding of chemical potential.
As organisms grew larger, diffusion alone was insufficient. They needed a way to bring oxygen deeper into their bodies. This led to the evolution of gills, lungs, and tracheal systems — structures that increased surface area and facilitated gas exchange. But the underlying principle remained the same: breath is a negotiation between inside and outside, between order and entropy.
Breathing also plays a crucial role in regulating the nervous system. The rhythm of inhalation and exhalation influences heart rate, blood pressure, and emotional state. Slow, deep breathing activates the parasympathetic nervous system, promoting relaxation and stability. Rapid, shallow breathing signals alertness or stress. Breath is both a reflection of internal state and a tool for shaping it.
The first breath after birth is a dramatic moment. The lungs, previously filled with fluid, expand as air rushes in. This expansion triggers a cascade of physiological changes, marking the transition from aquatic to terrestrial life. The newborn's cry is not only a signal of vitality; it is the sound of the body learning to fold and unfold in a new medium.
Breath remains a bridge between the conscious and unconscious. You can control it, but it also operates automatically. It is the meeting point between intention and instinct, between the axis and the witness.
IV. Folding and unfolding
Life is a continuous process of folding and unfolding. From the earliest stages of development, cells fold to create layers, tubes, and organs. These folds are not random; they are guided by genetic and mechanical forces. Tension, pressure, and chemical gradients shape the developing body.
Folding is not limited to development. The brain's surface is folded to increase surface area, allowing for more neural connections. Muscles fold and unfold with each movement. Even at the molecular level, proteins fold into specific shapes that determine their function. Life is built on the interplay between structure and flexibility.
Unfolding is equally important. Muscles relax, lungs expand, and the body stretches. Unfolding allows for growth, adaptation, and release. It is the counterbalance to folding, the expansion that follows contraction.
Folding and unfolding are not merely physical; they are metaphors for experience. You fold inward during introspection and unfold during expression. You contract in fear and expand in safety. The body remembers these patterns, storing them in muscles, fascia, and breath.
To understand the body is to understand the dance between folding and unfolding.
V. Scripture of the returning ones
Every organism carries a record of its evolutionary history. This record is not written in words but in structures, rhythms, and reflexes. The spine remembers the ocean; the pineal remembers the turning of the world; the breath remembers the first folding of life. These memories are not conscious, but they shape your experience.
The "returning ones" are not mythical beings; they are the patterns that return across generations. The reflexes of the newborn — grasping, rooting, stepping — are echoes of ancient behaviours. The rhythms of sleep and wakefulness reflect cycles older than vertebrates. The body is a scripture written in movement and sensation.
To return is not to regress; it is to reconnect with the foundations of being. When you feel a tremor during deep breathwork, you are revisiting the earliest rehearsals of the nervous system. When your spine aligns, you are returning to the axis that shaped your development. When your awareness settles, you are returning to the witness that has been present since the first photoreceptive cells sensed light.
These returns are opportunities for integration. The body does not forget, but it can reorganise. Patterns that were once adaptive may become restrictive. Through movement, breath, and awareness, you can rewrite these patterns and create new possibilities.
The scripture of the returning ones is not fixed. It evolves with each generation, shaped by environment, experience, and intention. You are both the inheritor and the author of this scripture.
And as you return to these ancient patterns, the witness awakens.
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MOVEMENT IV — THE EMERGENCE OF LIGHT
The pineal: the first witness
Long before the brain took its modern shape, a small cluster of photoreceptive cells sat near the surface of early organisms, facing the open world. These cells did not form images; they sensed only the presence or absence of light, the slow turning of day into night. Yet this simple capacity — to register change — became the foundation of temporal awareness. Over millions of years, these cells migrated inward, protected by bone and tissue, becoming the pineal centre. Though buried deep within the skull, it still indirectly receives light, responding to signals carried by the eyes. It regulates circadian rhythms, hormonal cycles, and the subtle shifts that govern sleep and wakefulness. The pineal is not an eye, but it is a witness — a structure that remembers the world's turning even when the organism is still. It is the body's oldest clock, keeping time with the universe.
The discovery of light
Light arrived before eyes, before vision, before any creature could interpret the world through images. Early life encountered light as warmth, as energy, as a force that shaped behaviour. Photoreceptive molecules evolved to capture this energy, converting it into chemical signals that guided movement. Organisms learned to swim toward brightness or retreat into shadow, using light as a compass long before they understood its meaning. Over time, clusters of photoreceptors formed, increasing sensitivity and allowing organisms to detect subtle changes in illumination. This was not vision, but it was the beginning of orientation — a way to anticipate cycles, avoid predators, and synchronise with the environment. Light became a teacher, shaping the rhythms of life. The discovery of light was not a moment but a gradual awakening, a recognition that the world had a direction.
The discovery of darkness
Darkness was not the absence of light; it was its counterpart, its necessary contrast. Early organisms learned that darkness carried its own information — a signal of safety, of rest, of the cooling of the world. In darkness, metabolic processes shifted, conserving energy and preparing for the return of light. The pineal's ancestors were particularly attuned to this transition. When light faded, they released chemical messengers that signalled the body to slow down, to repair, to dream. Darkness became a domain of internal activity, a time when the organism turned inward. It was not feared; it was essential. Through darkness, life learned to differentiate between external and internal states, between action and restoration. The discovery of darkness was the discovery of rhythm — the understanding that existence unfolds in cycles.
The separation of the two
Light and darkness were once experienced as a single continuum, a gradual shifting of the world's brightness. But as sensory systems evolved, organisms began to distinguish sharply between the two. This separation allowed for more precise regulation of behaviour: feeding during the day, hiding at night, migrating with the seasons, and synchronising reproduction with lunar cycles. The pineal centre became the mediator of this separation, translating environmental cues into hormonal rhythms. It learned to measure the length of days, to anticipate seasonal changes, to align the body with the world's cycles. The separation of light and darkness was not merely sensory — it was organisational. It allowed life to structure time, to create patterns of activity and rest, to develop memory and anticipation. Through this separation, the witness gained clarity.
The finality of duality
Over evolutionary time, the pineal centre refined its role, becoming a master regulator of temporal order. It no longer needed direct exposure to light; it relied on signals from the eyes, integrating them with internal rhythms. It learned to maintain stability even when external cues were inconsistent — during storms, migrations, or long winters. This finality of learning was not an end but a maturation. The pineal became a structure capable of holding continuity, of preserving the organism's internal rhythm even when the world shifted unpredictably. It is the quiet keeper of cycles, the witness that endures. In moments of stillness, when breath slows and the spine aligns, you can feel its presence — a subtle sense of timing, a recognition of the world's turning. The pineal does not speak, but it remembers.
There is a place the mind cannot enter,
a quiet turning beneath all turning,
where the first intention still hums in the dark.
Not a truth, not a lesson—
just a presence that leans toward becoming.
I have walked the long corridors of myself
and found no ending,
only doorways that open into deeper rooms.
What I am is not the sum of my steps,
but the one who keeps stepping,
the one who listens for the echo that has no source.
“I believe that these tides of energy travel up the spinal cord to the brainstem to become the living metronome, the action computer interface of the primary physiological control for living, i.e., the autonomic system with sympathetic and parasympathetic branches and in turn the smooth interrelations of the endocrine systems: thyroid, pituitary, pineal, adrenal and gonads. If at birth the first breath of life is weak, there will be inadequate Schumann energy operating through the fluid system. We can expect some constant physiological stress. Even if the birth thermostat is adequately set, it must be primed throughout life. Emile has clearly stated that the cultural stresses and linear, purposeful movements of our lives constantly jeopardize ideal fluid flow.”
~ xvii foreward to “Life On Land” by Valerie V. Hunt
[Thanks to “Alive On All Channels” archive]
[via dreaminginthedeepsouth]
SPINAL CORD - Foolhardy! Do you even *know* what's happening on the surface? Maybe a thousand years have passed? Or maybe you started spazzing out like two seconds ago?
PHYSICAL INSTRUMENT - With your eyes still closed, the first thing you feel, all the way back in the pivoting darkness of your own torso, is warmth. You have become a triumph of rhythmo-plastics -- somewhere in a smelly wooden church on the coast of Revachol. The wounds from the war you've waged on your body are healing, twist by twist, turn by turn.
ELECTROCHEMISTRY - You must have touched upon an entirely new way of moving the human body! Every motion is pumping your brain full of endorphins... Open your eyes to the pioneering glory of HARD STYLE!
Organoids – mini organs or tissues grown in the lab from relevant cells or stem cells – are powerful models for dissecting the characteristics, genetics and interactions that make up the real-life setting, commonly far too big and developed to track in real time or consider as a whole. Here, human pluripotent stem cells have been manipulated to grow as an organoid to mimic the early spinal cord and a key role revealed for a protein called YAP in shaping the cord's inner space or lumen (part of the cord's natural developmental process)
Read the published research article here
Image from work by José Blanco-Ameijeiras and colleagues
Cells and Tissues Dept, Instituto de Biología Molecular de Barcelona, CSIC, Barcelona, Spain
Image originally published with a Creative Commons Attribution 4.0 International (CC BY 4.0)
Published in eLife, January 2026
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