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About AXIS: A practice for relearning how you move

About AXIS | SenseBody

SenseBody / AXIS

About AXIS

A practice for relearning how you move

This page offers a more detailed introduction to AXIS for those who would like to understand both the practice and the scientific fields that inform it.

Introduction
The scientific fields discussed here

AXIS draws on several areas of research as possible frameworks for understanding what is observed in practice.

Postural control
The study of how the body is supported in gravity and how information from vision, the vestibular system, and the somatosensory system contributes to the ongoing adjustment of body position and muscle activity.
Sensorimotor control
The study of the relationship between sensory information from the body and the movement that occurs in response to it.
Proprioception
The sense of the position and movement of different parts of the body, informed by receptors in muscles, tendons, joints, and related tissues.
Motor learning
The process through which movement changes with practice and experience, and through which those changes may be retained over time or transferred to other situations.
Biomechanics
The study of movement and the forces acting on the body, including the relationships among bones, joints, muscles, gravity, and ground-reaction forces.
Neurophysiology and cardiovascular physiology
The study of how sensory input, posture, muscle activity, and body position relate to the nervous system and to physiological functions such as breathing, heart rate, and blood pressure.

These are distinct fields, but each examines a different aspect of the same body. In lived movement, their functions do not operate in isolation.

For example, contact information from the soles of the feet contributes to postural control. A change in posture alters the distribution of muscle activity, while changes in body position and muscular contraction also interact with cardiovascular and respiratory function [1, 4–7, 12–14, 18].

AXIS does not set out to correct a single muscle or joint in isolation. Instead, it observes how the organization of sensation, movement, support, and posture changes under different environmental and movement conditions.

What can be observed externally, together with what the person perceives, forms the starting point. Existing research may offer clues for interpreting those observations, but it does not allow us to identify a cause or mechanism from an individual response.

The current AXIS process was not created by selecting a theory first and then fitting the body to it.

It developed through observing what happens in practice: when a change occurs, when the same movement produces no apparent change, when a small local movement is followed by changes elsewhere, when a new state gives way to an earlier pattern under different conditions, and when it remains available. Research has been consulted in an effort to understand these differences more precisely.

In AXIS, research does not guarantee an outcome. It is used as a resource for understanding observed phenomena and refining what is observed next.

1. What is AXIS?

AXIS is a movement-education practice for people exploring recurring back pain, persistent postural or movement patterns, or physical responses that arise in particular environments or interpersonal situations.

Many forms of exercise emphasize strength, flexibility, endurance, volume of activity, or the practice of a particular form.

AXIS begins from a different angle.

The movements are very small and the physical workload is low. AXIS is not intended as strength training or as exercise for calorie expenditure.

A session combines ordinary actions—such as standing, lying on the back, or gently bending and straightening the knees—with low-intensity movements involving a particular area of the body.

All movement is performed by the participant. The practitioner does not touch the participant during AXIS practice.

After each change in environmental conditions or each movement, the participant returns to standing. Posture, contact with the floor, the relationships among joints, and coordination through movement are then observed.

Responses and useful conditions vary from person to person. Rather than applying the same sequence of exercises to everyone, the session—and the home practice that follows—is shaped by the person’s current state and by what is observed after each step.

The aim of AXIS is not simply
to produce a temporary change during a session.

A temporary change or response is treated as information: it may tell us something about how that person’s body responds under a particular set of conditions.

The longer-term aim is for the person to become better able to distinguish these differences, select useful conditions or movements independently, and regain access to other movement options when an earlier pattern returns in daily life.

2. Who might find AXIS useful?

  • People who experience recurring back pain or other discomfort and suspect that postural or movement habits may play a part
  • People who repeatedly return to the same way of standing or moving
  • People with an ongoing sense of restriction or difficulty during movement
  • People whose physical tension changes noticeably with location, lighting, or interpersonal distance
  • People interested in developing what emerges in a session through ongoing practice at home

Here, “posture” does not mean an ideal appearance or a fixed correct shape. It includes how different parts of the body are supported in gravity and how the body responds as the environment or movement changes.

3. The basic structure of a session

The following is a typical example.

Not every movement is used in every session. The selection, order, and number of repetitions depend on the person’s state that day and on what is observed after each step.

  1. Observe the current state in standing
  2. If relevant, change one environmental condition, such as lighting, sound, or whether a door is open or closed
  3. Return to standing and observe again
  4. Perform one small movement, either lying on the back or standing
  5. Return to standing and observe again
  6. Gently bend and straighten the knees to observe whole-body coordination under load
  7. Proceed to another condition or movement only when appropriate
  8. Select a practice the person can reproduce at home
  9. At the next session, review both the starting state and what occurred between sessions

What is observed in standing

Standing is not assessed only as a static shape. It is observed as a continuous process of small adjustments—ongoing, subtle movement in relation to gravity.

Observations may include weight distribution, contact through the feet, the relationships among the knees, hip joints, pelvis, rib cage, and head, and the flexion, rotation, position, and movement of different parts of the body [1].

AXIS does not ordinarily use electromyography or force plates. For this reason, externally observable relationships, the person’s own perception, and changes in movement are treated as distinct kinds of information.

Changing one environmental condition at a time

When relevant, lighting, sound, whether a door is open or closed, body position, or location within the room may be changed.

The result may sometimes be a quieter environment, but quietness is not itself the objective. The emphasis is on distinguishing what happens when one condition changes and on helping the person recognize that difference.

Returning to standing after each change

After one environmental change or movement, the participant returns to standing.

This makes it possible to observe the organization of the whole body once it is again supporting itself under gravity.

A local change—for example, an increase in range of motion after one movement—is therefore not, by itself, the basis for deciding whether to repeat that movement or what to do next.

Standing observation is often followed by a small knee bend (demi-plié) to observe how the feet, lower legs, femurs, pelvis, trunk, and head coordinate under load.

This is not strength training or the practice of ballet form.

In considering the mechanics of the foot, knee, hip, and pelvis during this action, AXIS draws on Irene Dowd’s “Standing on Two Legs, or Even One” in Taking Root to Fly [8, pp. 30–36].

AXIS places less emphasis on doing more than on being able to distinguish what followed a single change in conditions.

Conditions are changed one at a time because changing several at once makes it more difficult to identify which condition may have been associated with which response.

4. A movement example
A small movement of the ankle and foot

In AXIS, a single change in conditions—such as an environmental adjustment or a small movement—is sometimes referred to as an “input.”

Here, input does not mean applying something to the body in order to produce a predetermined result. It simply names one discrete change in conditions, after which the body’s state can be observed.

PRACTICE EXAMPLE

One example is a very small movement of the ankle and foot performed while standing.

Drawing on Irene Dowd’s “In Honor of the Foot” in Taking Root to Fly [8, pp. 37–44], the movement takes into account the relationships and movement among the bones of the foot, including the cuboid.

Sensory information from the foot is not used only by the foot itself.

The sole is supplied by afferent fibers from mechanoreceptors that convey information about contact and load [12]. Studies also report that manipulating or stimulating plantar sensation can affect postural adjustments in standing [13, 14].

Ivanenko and Gurfinkel likewise discuss the relationship between small local deformations of the foot and whole-body postural responses [1].

In AXIS sessions, a small movement of the ankle and foot is sometimes followed by observable changes not only at the foot but also in pelvic or head position, or in the range through which the person can turn the head.

These are observations from current AXIS practice, not findings from controlled studies of AXIS. At present, it is also not known which receptors, neural pathways, or patterns of muscle activity account for the changes observed.

5. Home practice and repetition

From the conditions or movements associated with a change during the session, a small number are selected for home practice. They must be reproducible by the person independently and without excessive effort.

In motor-learning research, a temporary change during practice is distinguished from retention over time and transfer to other conditions.

Experimental tasks have shown that postural responses can change with repetition and that some changes may be retained over time [2, 3].

Research also suggests that when a task is introduced gradually, learning can still be retained and transferred [15].

AXIS therefore looks beyond what happens within a session to what follows at home and in daily life.

There is not yet an established optimal frequency, number of repetitions, or duration for each AXIS practice.

Home practice is presented as a learning process: the person observes the state they are in that day, chooses an appropriate condition or movement and how to approach it, and then observes again afterward.

6. Where AXIS overlaps with—and differs from—other approaches

Field or approachAreas of overlapWhat differs, or receives particular emphasis, in AXIS
Clinical Somatics / Hanna Somatic EducationSmall voluntary movements, pandiculation, attention to chronic muscular contraction and learned movement patterns, and home practiceAXIS is not organized solely around pandiculation. Environmental conditions and input through the feet can be placed in the same observational sequence. After each condition or movement, the participant returns to standing and to a small knee bend to observe support through the whole body.
Feldenkrais MethodSmall exploratory movements, sensory discrimination, developing alternatives to learned habits, and an educational orientationAXIS separates inputs one at a time and follows changes in standing and their reproducibility over time. Standing and a small knee bend serve as common observational conditions.
PilatesBreathing, alignment, whole-body coordination, and motor learning through repetitionIn its initial stages, AXIS does not primarily aim to build strength or endurance, increase exercise volume, or teach a precise form. Stability under greater movement demands is addressed in AXIS Integration.
Motor control exercise in physical therapy and rehabilitationAttention to movement patterns, postural control, repeated practice, and relationships between symptoms and movementAXIS does not diagnose or treat and does not center on activating or strengthening particular muscles. Local input, environmental conditions, the person’s perception, and changes in standing are observed within the same sequence.
Proprioceptive / sensorimotor trainingSomatosensory input, perception of joint position and load, sensorimotor coordination, and repeated learningAXIS is not presented as synonymous with proprioceptive training. It includes visual conditions and contact with oneself and the floor, and it is not a standardized program designed to measure or train one particular proprioceptive function.
Muscle Energy Technique in osteopathyLimited use of principles involving voluntary muscular contraction and resistanceWhen appropriate, these principles are adapted only as low-intensity self-movement performed by the participant. The practitioner does not touch the participant.

Clinical Somatics uses pandiculation to address learned muscular contraction and postural or movement patterns [9, 10]. Physical-therapy guidelines include movement control exercise among the options appropriate for certain presentations [11]. The Feldenkrais Method identifies itself as learning through movement [16], while Pilates also shares an emphasis on whole-body coordination and learning through repetition [17].

Although AXIS overlaps with these approaches in certain respects, it is not presented as another name for an existing modality.

References

  1. Ivanenko Y, Gurfinkel VS. Human Postural Control. Front Neurosci. 2018;12:171.
  2. Van Ooteghem K, Frank JS, Horak FB. Practice-related improvements in posture control differ between young and older adults exposed to continuous, variable amplitude oscillations of the support surface. Exp Brain Res. 2009;199:185–193.
  3. Van Ooteghem K, Frank JS, Allard F, Horak FB. Aging does not affect generalized postural motor learning in response to variable amplitude oscillations of the support surface. Exp Brain Res. 2010.
  4. Watanabe N, et al. Effects of body position on autonomic regulation. 2007.
  5. Olufsen MS, et al. Blood pressure and blood flow variation during postural change from sitting to standing. 2005.
  6. Wang H, et al. Effects of trunk posture on cardiovascular and autonomic responses. 2022.
  7. Fois M, et al. Cardiovascular Response to Posture Changes. 2022.
  8. Dowd I. Taking Root to Fly: Articles on Functional Anatomy. 3rd revised ed. 1995. “Standing on Two Legs, or Even One,” pp.30–36; “In Honor of the Foot,” pp.37–44.
  9. Association for Hanna Somatic Education. Pandiculation / Hanna Somatic Education.
  10. Huang Q, et al. Hanna Somatic Education for low back and neck pain. 2022.
  11. George SZ, et al. Interventions for the Management of Acute and Chronic Low Back Pain: Revision 2021. J Orthop Sports Phys Ther. 2021.
  12. Strzalkowski NDJ, et al. Cutaneous afferent innervation of the human foot sole. 2018.
  13. Viseux F. The sensory role of the sole of the foot: review and update on clinical perspectives. 2019.
  14. Meyer PF, et al. The role of plantar cutaneous sensation in unperturbed stance. 2004.
  15. Sawers A, Hahn ME. Gradual training reduces practice difficulty while preserving motor learning of a novel locomotor task. Human Movement Science. 2013;32(4):605–617.
  16. Feldenkrais Guild of North America. About the Feldenkrais Method.
  17. National Pilates Certification Program. About Pilates.
  18. Wieling W, et al. Autonomic neuropathy: heart rate changes in response to orthostatic and static muscle contraction. 1983.

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