Axis-bliss and coherence intoxication
In danger, we lose grace first. We freeze into the flexor reflex.
Walking, reaching, maintaining balance—these “higher” functions shape our understanding of coordination and performance. This vertical primacy obscures the fundamental organizational principles upon which all differentiated movement is built: the axial patterns of the body.
Axial organizational patterns refer to forms of movement and coordination along the longitudinal axis of the body. They are evolutionarily ancient and can be traced back to early vertebrates whose locomotion was primarily organized as undulation. This form arises from the coordinated activity of segmental networks in the spinal cord. Such networks enable rhythmic, propagating activity along the axis—a neuronal wave that organized movement long before differentiated limb control even existed.
Although it appears fundamental, the flexor reflex is not the foundation but already a specialized response within an older system. Axial organization lies functionally beneath it. It provides the continuous, tonic, and rhythmic basis upon which the flexor reflex can unfold at all.
This hierarchical order was described in the 19th century by the neurologist John Hughlings Jackson. His observation that under stress or neurological damage the “higher” functions fail first while more robust patterns persist is known as Jacksonian dissolution. This dissolution points to a fundamental organization of the nervous system: newer abilities depend on older structures. When the base is disturbed, the functions built upon it lose coherence.
A central role is played by the reduction of demands typically associated with balance. The prone position reduces the need for anti-gravitational stabilization while simultaneously increasing sensory feedback through contact with the ground.
The pelvis gains particular importance. It functions both mechanically and neurologically as a central impulse generator. Momentum propagates along the spine, creating a wave-like organization of the body. Crucial here is the state of the autonomic nervous system. As protective reflexes and excessive tension diminish, axial transmission can emerge.
Movement is often understood as the result of voluntary control: a body applies force, overcomes resistance, reaches a goal. In this view, contraction stands at the center—muscle activation as the primary source of action. Yet this perspective only describes the surface of motor performance. Beneath it, a different principle prevails: movement as the result of global coordination along the axis.
Axial organization manifests as experiences of coherence. In the horizontal plane, the body can enter a state of normal-force saturation. The force exerted by the ground is absorbed globally throughout the body. Gravity is no longer perceived as a localized load but as a distributed condition. Once saturation is reached, load loses its fragmenting character.
In this state, the quality of organization changes. Local compensation recedes, and another pattern becomes available: axial transmission. Forces are no longer generated in isolation but propagated along the axis. The body begins to respond as an integrated system.
The nervous system is not only a control organ but also a response system to uncertainty. Under conditions of increased uncertainty, sympathetic background activity dominates—a kind of noise. This sympathetic noise cannot be completely switched off, but its dominance can be reduced. What matters is the attenuation of its structure-determining effect. When this attenuation succeeds, a space opens in which other forms of organization can emerge.
One of these is undulation: a wave-like, rhythmic distribution of tension based on continuous redistribution. Undulation is a form of dynamic stability in which tension remains mobile.
When sympathetic noise is dampened, the space beneath the flexor reflex opens. There, undulation appears as the primary dynamic state. Within this unlocked space, further organizational forms can emerge:
Tensegral expansion – A multidirectional tensioning arises. The body behaves like a pneumatic system. Any local load is immediately distributed across the entire network. There is no weak link because the structure responds as a global volume. This corresponds to the strongest experience of “Qi.”
Viscous glide – As protective tension recedes, the ability of tissue layers (fascia) to slide relative to one another becomes available. Movement no longer feels like levers and joints, but like the displacement of fluids under pressure. This is a kind of hydrological intelligence that absorbs shocks before they reach the axis.
Radial organization – While undulation travels along the axis, the damping of noise also allows force to spread from the center outward. The pelvis or spine radiates energy into the extremities without shoulders or hips acting as resistive zones (flexor reflex zones).
Reactive plasticity – The system becomes highly adaptable. Without the noise of uncertainty, the nervous system can respond within milliseconds to subtle changes in pressure. You no longer calculate load—you become the response to it.
All these variants share a common principle: negentropy—order emerging through permeability rather than rigidity.
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