Network Spinal Analysis 2.0

The defining event of a Network Spinal Analysis session is what happens after the practitioner’s hand leaves. A contact of a second or less, matched to the tissue’s own resistance, lands near one end of the spine and is gone. Then the spine begins to move on its own. A breath-driven undulation climbs segment by segment from the sacrum, and weeks into care the segments themselves begin an involuntary rocking Epstein named the somatopsychic wave. The practitioner never produces either wave. The patient produces both, and the whole method, from its five-phase analysis to its levels of care, exists to develop them.

Network Spinal Analysis carried its name from 1994 until December 19, 2017

Network exists in three eras, and Network Spinal Analysis is the second. Epstein Technologies LLC filed for the mark NETWORK SPINAL ANALYSIS on September 17, 2015, under serial 86760352. The filing swore a first use in commerce of October 6, 1994. The name reached a peer-reviewed journal in August 1996. Epstein published Network Spinal Analysis: A System of Health Care Delivery Within the Subluxation-Based Chiropractic Model in volume 1, issue 1 of the Journal of Vertebral Subluxation Research.

Midway through the era came a declaration of independence. At the Certification Level Intensive of January 13 to 17, 2000, Epstein named 2000 the year Network Spinal Analysis launches as a unique profession, a discipline adapted for the scope of vertebral subluxation based chiropractic.

The era closed on a dated announcement of the evolution of “Network Spinal Analysis, Network 2.0, to Network Spinal, Network 3.0” in a release dated December 19, 2017. The same release marks 2017 as the thirtieth anniversary of the first public demonstration of the network wave, placing it in 1987. Twenty-three years separate the first commercial use of the name from its retirement.

Network Spinal Analysis defined itself as five elements applied in a dynamical systems model

The five elements run in a fixed order. First, the Epstein Model of Spinal and Neural Integrity. Second, the NSA Phasing System for identification and classification of spinal cord tension patterns. Third, the Levels of Care, involving emerging properties within the spine, nervous system, and cognitive self awareness. Fourth, a system of spinal low force applications consistent with the model. Fifth, outcome assessments by the practitioner alongside self reports from the practice member, the era’s word for the patient. Somato Respiratory Integration exercises may accompany the method.

The method’s own history compresses to one sentence. Network Spinal Analysis began as a subluxation classification analysis and a low force adjustment application, and evolved into a system for enhancing spinal and neural integrity through biologically entrained responses. Its six formal objectives open with promoting self awareness of spinal tension patterns and initiating the self-generated somatopsychic responses that dissipate stored energy. The rest name detecting spinal gateways, detecting adverse mechanical cord tension, administering low force applications, and evaluating the work against practice member self-ratings of wellness and quality of life. The objectives cite Panjabi’s 1992 stability model and Epstein’s own 1997 subsystem extensions by name.

The Epstein Model reads spinal integrity through coordination, coupling, and oscillation

Three concepts govern the whole model. Coordination, following the neuroscientist J. A. Scott Kelso, is the relationship between structure and function, and impaired coordination reads directly as reduced quality of life. Coupling is how subsystems link so that life processes no one subsystem could sustain alone become possible. Oscillation is the frequency behavior of every part of the living system, from atoms to vertebrae to brain activity. All three become increasingly visible as a person advances through the levels of care.

The model’s physics comes from named sources. Hermann Haken’s synergetics supplies the brain as a pattern-forming, self-organized system held at the edge of instability, staying far from equilibrium so it can create and extinguish patterns on demand. Ilya Prigogine’s Order Out of Chaos supplies the claim that a system fluctuating asynchronously can fall spontaneously into order. Kelso supplies the measurement: subjects oscillating their index fingers out of phase snap into synchrony as frequency rises, and never snap the other way. The era’s teaching drew on all three, alongside Panjabi, Holstege, Candace Pert, Selye, B.J. Palmer’s 1934 The Subluxation Specific, and Stephenson’s 1948 Chiropractic Text Book.

Epstein extends Panjabi’s three spinal subsystems twice, adding the meninges and an emotional subsystem

The model builds on Manohar Panjabi’s 1992 account of spinal stability as three interacting subsystems. The passive subsystem is the vertebrae, discs, and ligaments, which produce no motion but transduce position and load as signals. The active subsystem is the muscles and tendons that generate stabilizing force, with the tendons signaling its magnitude. The neural control subsystem receives those signals and directs the response. Epstein extends the architecture twice. He adds the meninges as a transducing component of the neural control subsystem, so that dural tension is itself a regulated signal rather than a passive consequence of position. And he proposes a fourth subsystem, the emotional subsystem, occupying the same anatomical space as the other three and most responsive exactly where the tissues can no longer dissipate the tension placed on them.

The emotional subsystem is not a metaphor. Its closest parallel is the emotional motor system the neuroanatomist Gert Holstege described in 1992. That system projects from the prefrontal cortex and caudal brainstem into the spinal cord, drives sympathetic and parasympathetic activity, and triggers rhythmical spinal reflexes. Epstein pairs this with Candace Pert’s neuropeptide work: tension that alters the architecture of a cell’s surface membranes changes which neuropeptides can bind, and with them the experience of emotion. The claim is Epstein’s, made at full strength.

Stability fails when bound energy stops coupling with free energy

Loss of spinal stability gets a thermodynamic reading. Energy in a distorted region is bound, held within the system and unavailable. Energy in an adaptable region is free. Stability depends on effective thermodynamic coupling, the joining of bound-energy areas with free-energy areas so that tension keeps moving through the system instead of accumulating in it. NSA intervention is indicated, in the era’s own terms, when the stabilizing subsystems stop dissipating energy and begin heading toward equilibrium, because for a living system equilibrium is the direction of collapse. The waves are the dissipation made visible. Emerging properties are defined as properties that arise within a system and cannot be accounted for by its elements alone, and each wave is treated as exactly such a property.

The respiratory wave is the first wave Network Spinal Analysis develops, and it runs the length of the spine

Epstein defined the respiratory wave physically in October 1992, in the first issue of the Journal of the Association for Network Chiropractic. He described a nonlinear breathing pattern with large expansions in the trunk musculature, progressing into the shoulder girdle and cervical spine. He described it as two combined movements, one vertical and one horizontal, tied to the flexibility of craniosacral pumping. It is also called the breath wave. In Basic Care it is a smooth, rhythmic, undulating movement of the abdominal and thoracic regions coordinated with deep respiration, emanating from the sacral area and progressing cranially segment by segment. Where facilitation persists in the spine, a region left sensitized to fire at a lowered threshold, the wave is replaced by jerky shoulder-girdle movements uncoordinated with breathing.

The practitioner watches for a single traveling event, not deeper breathing, and the strategy is not complete until breath moves through the entire spine, to and including the occiput. Once both waves are integrated, Epstein wrote in 1992, a touch of about two to four ounces will usually start one.

What the practitioner watches for during a respiratory wave

The sacrum rides up first. Then the shoulders move, then the neck lifts, and breath reaches trunk regions that were still at the start. The prone leg check and Achilles heel tension are read before and after, and a drop in heel tension is treated as the sign that cord tension has changed. That heel tension test is the one part of the analysis with a published reliability study. Feeley reported it in Annals of Vertebral Subluxation Research in March 2017, with 21 subjects graded on both ankles by three experienced examiners at two timepoints. The timing of the resistance localizes the tension: resistance appearing early in the heel’s motion points to the occiput and cervical spine, and resistance appearing late points to the sacrum and coccyx.

The somatopsychic wave crosses the midline, and Network Spinal Analysis also calls it the network wave

Epstein’s 1992 definition makes the somatopsychic wave an automatic integration of body and mind, associated with vertically aligned undulations of the trunk and movement of the extremities. The later technical account describes a visible undulation and a specific rocking movement of spinal segments. It is elicited by gentle contacts made in a defined sequence at the areas where the meninges attach the cord to the vertebral column.

Its geometry separates it. The oscillation lives within the articulation itself, not across the spine. Each oscillating articulation carries a driver, one side leading the motion, and two oscillators are taught as two ball bearings, two areas of free energy communicating with each other, their drivers sitting on opposite sides. The second oscillator is developed between the spine’s two ends, occiput to sacrum and sacrum to occiput, and the era wanted two oscillators in every phase. In the 1998 engineering recording, oscillation began between the atlas and the axis on one side, transferred across, and started the second and third cervical joint on the other. Over weeks the coordinated motion closes into a figure eight.

How the two waves differ under the hand

The respiratory wave is breath-driven and longitudinal. It travels the axis of the spine, arrives first, and is developed at the first level of care. The somatopsychic wave is involuntary and segmental. It crosses the midline, it engages the extremities, and it appears once the respiratory wave runs the full length unimpeded. The engineers who recorded it in 1998 noted that amplitude and frequency were common across participants. They also noted that the movement was involuntary yet could be stopped at will, and that stopping it produced dissipation rather than modification. Development of the network wave in one person may take several weeks to several months.

The second wave is graded by depth as care advances through Level Two’s sub-stages. At 2A it moves the superficial back muscles. At 2B it engages the articulations and the intrinsic muscles. At 2C it is taught as reaching the middle of the cord itself, and at Level Three it moves anterior toward the heart. Epstein also set the wave in its place: the wave is a byproduct of the change being produced, not the thing producing the change. A practitioner who saw the wave without a change in breath was taught to secure the breath that same visit, because awareness of the wave without breath was a rush rather than a deepening.

Network Spinal Analysis holds the network wave is a central pattern generator embedded in the spine

A central pattern generator is a neuronal network in which interconnected excitatory and inhibitory neurons produce rhythmic output without sensory feedback, and Network Spinal Analysis claims one for the spine’s two anchored ends. The best described examples are respiration, walking, swimming, and flight. Walking runs on circuits at the thoracolumbar junction, and rhythmic arm movement on circuits at the cervicothoracic junction. Network Spinal Analysis places its own circuit at the upper cervical spine and the sacrum, where the cord anchors.

The claim is stated at full strength in Senzon, Epstein and Lemberger, Journal of Alternative and Complementary Medicine, July 2016, volume 22, issue 7, pages 544 to 556. The network wave is the first known segmental oscillatory central pattern generator in humans unrelated to locomotion or arm movement. A second claim comes from autopoiesis. Central pattern generators alter neurophysiological patterns in response to environmental sensation, so activating one is held to stimulate adaptation rather than to relax a muscle. The claim predates the 2016 paper by a decade and a half. The University of Southern California’s engineering department was studying the somatopsychic wave by the turn of the millennium. Its chaotic modeling of surface EMG found a nonlinear signal whose organization increases with advancement through the levels of care.

What the surface EMG research actually recorded

The flagship measurement is Jonckheere, Lohsoonthorn, Musuvathy, Mahajan and Stefanovic, Biomedical Signal Processing and Control, 2010, volume 5, issue 4, pages 336 to 347. Two subjects were recorded. One was a control, a woman in her early thirties. The other was a man in his thirties with a C5 cord injury from a swimming pool dive, whose fifth cervical vertebra had been replaced with a titanium plate running from C4 to C6.

Four ungelled tripolar surface electrode patches were placed at C2 to C3, T4 to T6, L3, and S2 to S4, with the amplifier snaps aligned to the paraspinal muscle fibers. Signals were collected across a bandwidth of 10 to 500 Hz and sampled at 4,000 samples per second. The correlation analysis ran on records of 1 minute 20 seconds for the control and 50 seconds for the injured subject. A Daubechies DB3 wavelet decomposed each signal to eight levels, and the eighth subband carried the phenomenon. Inside each burst the researchers found a fundamental oscillation near 13.5 Hz and a coherence of about 0.3 across roughly one meter of spine. The work was approved by the University of Southern California institutional review board and funded by the Association for Network Care Research Corporation and the Global Gateway Foundation.

Network Spinal Analysis reads the spine as a bounded medium and the standing wave as coherence

Network Spinal Analysis taught wave interference long before its 2016 capstone called the network wave a soliton, a wave that survives collision with its shape and energy intact. Two oscillators at different and opposing frequencies block each other’s signal so the brain cannot find either, and the fifth phase is opposing wavelengths flattening what exists. Coupled segments can oscillate in phase or in anti-phase. The soliton description in Senzon, Epstein and Lemberger answers a specific mechanical question. Waves traveling headward and waves traveling footward meet, and in the developed spine they neither cancel nor scatter. They pass through the collision intact, sustain their energy and information, then split into regionally located oscillations.

The collisions happen because the spine is bounded at both ends. The cord’s attachments at the upper cervical spine and the sacrum reflect the wave rather than letting it run off, so the medium behaves like a string fixed at two points. The headward wave is described as reflecting off the sphenoid, the most cephalad attachment of the dura, and returning caudally. The end state is a standing wave in which neck movement is coordinated with pelvic movement. Coherence between the two ends measured 0.3 in the 2010 recordings, present in the healthy spine and absent in the injured one.

Network Spinal Analysis works two structures: adverse mechanical cord tension and oscillating fields of influence

Basic Care works the first structure, reducing adverse mechanical cord tension. From the middle of Level Two the focus shifts to the second, the oscillating fields of influence, in which entrained oscillators let Phases Two through Five resolve spontaneously. Epstein set the major goal above tension relief: a nervous system able to observe itself and develop new emerging properties, with awareness of the tension taught before its dissipation.

Epstein rewrote Breig’s definition around oscillation

The neurosurgeon Alf Breig named the condition in Adverse Mechanical Tension in the Central Nervous System, published by Almqvist and Wiksell in Stockholm and John Wiley in New York in 1978. He defined it as tension set up in the brain, cord, and nerve roots by a pathological structure or lesion. Epstein rewrote the definition for his own analysis. In his version, adverse mechanical cord tension is a condition of the cord and its soft tissues, produced by factors that traction, elongate, or compress the cord. The tension interferes with the cord’s function and its oscillation. It predisposes the central nervous system to a state of facilitation, and the facilitation feeds the tension in turn. The addition of oscillation to Breig’s mechanics is the era’s signature move. Breig’s paradigm has anchored Epstein’s teaching since 1985, and B.J. Palmer reached for a similar idea in his model of multiple cord pressures.

The process is nonlinear, multi-directional, and simultaneous. A small deviation in tension can produce a large, global, immediate effect on the person, and a large deviation can produce almost none. The era’s dural account lists attachments at the occiput and sacrum, at the transverse processes of the lower cervicals citing Sunderland’s 1974 anatomy, and at the coccyx. The Phasing System anchors its phases at the occiput, sacrum, C1 through C6, and coccyx. Strips of dura pass through the ring of the atlas and insert into both the axis and the occiput, so minimal cord distortion at C1-occiput and C1-C2 carries global consequences. The era also drew on Hack’s 1995 Spine paper describing the myodural bridge, the rectus capitis posterior minor muscle’s attachment to the dura. Jonckheere and colleagues later used those attachments to propose a feedback path running directly from the paraspinal muscles to the spinal neurons, in addition to the classic spindle reflex loop. Sacro-Occipital Technique carries the dural anatomy in full detail.

Aggregated dural tension lands at a distant segment, the facilitated focus

Dural tension is additive and transmissible. Tension created in the cervical and thoracic spine transmits to the lumbar region because the dura is anchored at its caudal end, and aggregate tension from several levels can amplify at one distant segment. That distant, loaded region acquires a name in this analysis, the facilitated focus, and the whole architecture of the technique turns on refusing to touch it. The subluxation is defined at the level of the whole person rather than the segment: a diminished state of being, comprising reduced coherence, altered biomechanical function, altered neurological function, and altered adaptability.

The Phasing System maps five phases of cord tension onto the spine’s dural anchors

The Phasing System is the analysis half of Network Spinal Analysis, and Epstein created it in 1996. He taught it from a string. Change the tension of a guitar string and the note changes. Change where the finger presses the string and the note changes again. The five phases are five characteristic patterns of cord tension. Each is composed of two elements, a particular site of dural-vertebral mechanical tension and an alteration in the oscillatory state of the neural tissues there. Every phase site sits at or within two segments of a dural attachment.

Phase One is the sacrum or the occiput, carrying flexion-extension cord tension. Phase Two is C1 or C5, carrying flexion-extension with lateral bending. Phase Three is a laterally swayed pelvis or sacrum, the one purely lateral-bending phase. Phase Four is C2 or C3, carrying complex combinations, and Epstein proposed it as the single greatest vertebral contributor to chronic cord tension. Phase Five holds both ends of the spine at once, C2 with the sacrum in a lateral pattern or C5 with the coccyx in a flexion-extension pattern. Each phase carries the character of a frequency: Phase One rings like an OM tone, the longest and most enduring, and Phase Five carries the high energy of a screech. Entrainment moves the system toward the Phase One frequency, because the lowest phases are the most efficient rhythms.

Eleven indicators tie each phase to findings at the legs and spine

The analysis reads the spine largely from the legs, pairing eleven findings with the tension patterns they implicate. A short leg implicates unilateral cord tension. The cervical syndrome test, a leg-length change produced by rotating the prone patient’s head, implicates cervical tension, and the examiner waits at least two seconds in rotation so the lower cervicals can answer. Prone leg crossover with a short leg implicates the laterally flexed sacrum or pelvis, and crossover with even legs implicates the lateral Phase Five. Ankle eversion stress reads lateral flexion anywhere in the spine. Heel tension reads flexion-extension tension. Adduction stress points to Phase Four, abduction stress to the C5-coccyx Phase Five, and the Z-flick, an ankle flicking as the prone patient’s head rotates, to lateral bending at C2 or C3. Palpation and the sacro-tuberous ligament tension test complete the set. Phase Five carries its own clinical picture: a torso flexed at the lower thoracics when seated, an elevated shoulder and hip when prone, and visible respiration absent through T7 to T12.

The contact goes to the point of critical tension, never into the facilitated focus

The analysis separates two addresses that every other consideration serves. The point of critical tension is a focal point, located within a spinal gateway, where a low force application can produce a nonlinear, specific change in meningeal and cord tension. The point is not associated with localized muscular tension at that location. The facilitated focus is the opposite address, braced into defense posture and sensitized to a lower threshold of excitability. This is precisely the area most adjusting traditions would thrust into, and Network Spinal Analysis makes intervention there a contraindication. A force into the facilitated focus temporarily increases stress physiology and spinal facilitation, and can nullify the emerging strategies for that visit or several visits. The image is mechanical: fibers pull from the point of critical tension, which holds almost no tension itself, toward the facilitated focus, which holds all of it.

Lower phases take priority, because a lower phase can entrain the ones above

Phase One is never evaluated alone. A secondary distortion in another phase must be present, so the practitioner assesses Phases Two through Five and then tests whether they can be corrected from a Phase One contact at the sacrum or occiput. The guidelines run eleven deep for Phase One alone. The contact is taken on the short-leg side unless the legs are balanced, and the occiput is only addressed with a short leg present. Medial contacts influence the cervical phases, lateral contacts the pelvic phase, and an alternating contact addresses the double-ended fifth. Phase Five is not contacted until Phases Three and Four have been attempted if they are showing, since either may clear a Phase Five on its own. A Phase One contact may eliminate the need for Phases Three, Four, or Five altogether.

The Network Spinal Analysis adjustment is called a spinal entrainment, and it lands where the tension is not

The tradition defines entrainment as the rhythmic vibration of one tone causing another to fall gradually into synchrony with it. Epstein sharpened it. Entrainment is the surrender of one rhythm to another, and biologically the movement is always toward the more efficient rhythm. The contact is not that rhythm. Epstein taught that the contact did not make the correction. It brought the brain’s attention to the area so the brain could change it, and the system entrains toward its own Phase One frequency. The entrained rhythm is the body’s own, never a foreign rhythm imposed from outside, and because the vertebral oscillators do the work, the adjustment is renamed a spinal entrainment. Entrainment develops through three stages: system initiation, a learning phase in which input is still required, and a free-running phase in which the system corrects itself.

Contacts are made at spinal gateways. The spinal gateway is defined as a pathway to the higher neural centers, promoting awareness between the cortical and subcortical brain and the soma, and developing self-regulation of the spinal integrity subsystems. Epstein brought the gateway into the written protocol just after 2000, and detecting spinal gateways became a formal objective of the work. In practice a gateway announces itself through rapport, the era’s word for a segment that yields to the touch toward greater ease. When an articulation shows more rapport than the bony prominence, the contact moves to the articulation, and correction of the misalignment is not an objective. It may be an outcome. Epstein’s governing instruction is that the contact goes to the place of ease rather than the place of pain, because a region already braced against load tightens further when pushed.

Epstein stated plainly what the work had overturned. Repositioning a vertebra toward better alignment slows the oscillators, and traditional subluxation protocol, he concluded, is in direct conflict with the development of entrainment. By 2000, Epstein taught that Class A and B assessment, the earlier Network classification of vertebrae for adjustment, was no longer an objective of the work. A thrust is applied only to a segment already moving, in the direction of its movement, to bring the brain’s awareness to it. The cavitation teaching makes the same point from the other side: an osseous pop releases energy and feels like ease, and should not be assumed to represent correction of anything.

What the hands do in a Network Spinal Analysis entrainment

The person lies prone and fully clothed, often in an open room with several tables running at once, and practitioners were coached to refine each visit toward five minutes as proficiency grew. Basic Care is worked prone with a finger or a stylus. Its contacts are brief, one second or less, at a force equal to the tissue’s own resistance. Toggle recoil, impact instruments, drop pieces, and vectoring stay out at this level. The upper levels change position and duration: 2A holds sustained contacts of one to three minutes, 2B adds side posture and seated work, and 2C and Level Three are worked supine. Matching the force is the craft. Less than matching force induces respiration, and more than matching force induces the somatopsychic wave. Sacral contacts follow the border of the sacrum in an arc, held lateral to medial with a gentle anterior scoop, and the more vertical lift a segment needs, the greater the scoop. Occipital contacts hug the ridge with precise medial-to-lateral placement.

The wave is then built, not forced. Early in care the wave dissipates before it reaches the neck. After enough entrainment it arrives at the cervical spine and sets the neck oscillating on its own. Each oscillating segment has a driver, the side leading the motion, and its feel is taught precisely: a ball bearing rotating in a socket with a sense of free energy. A contact on the driver always outperforms a contact on the spinous, and if both respond equally the driver has not been found. Follow-through carries its own geometry, crossing the midline for lateral bending work and never crossing it for flexion-extension work. Position coaching is gated by sub-stage: no repositioning at 1A, coaching begins once 1B is achieved, and positioning proper belongs to 1C and 2A. When it arrives, it is concrete: tuck the chin, drop the shoulders, cross the short leg over the long one, breathe into one named region. Higher levels earn stronger inputs, and the era used them. Toggle recoil at a gateway advances a practice member into 2C, and a structural adjustment goes to a driver already in motion, with a slight impulse along its path. Analysis precedes the touch. The instruction was to complete the assessment first and bring nothing analytical into the contact itself. A patient who stops responding is not given more contacts. The instruction was to increase safety, because the shift the touch asks for runs from defense toward safety and growth.

Network Spinal Analysis organized care into three levels, and each level entrains a more complex wave

Care proceeds sequentially through three levels, with a fourth under development, and each level is defined by clinical outcomes paired with the practice member’s own report. The names belong to this era: Level One is Basic Care, Level Two Intermediate Care. Level One entrains respiratory motion with spinal motion, reduces the parameters of adverse spinal cord tension, releases tension from the spinal stability subsystems, and develops the body’s ability to self-regulate that tension. Level Two stretches the areas of spinal tension, resolves dominant spinal defense patterns, and develops the network wave by entraining two vertebral oscillators in time and in space. Level Three develops a second standing wave, this one between the front and the back of the body, and adds a third oscillator at the thoracic and heart area. That third oscillator becomes the lead: Level Three is not fully engaged until the chest oscillator leads and the cervical and sacral oscillators answer it. The fourth level, then still in development, was taught as a further heart entrainment, a change as large as the one from Level One to Level Three.

Level Two was rebuilt from measurement. Surface EMG showed the bursting activity quieting at Level Two, so the protocol was revised to create a transient instability by stretching specific spinal segments. Tension stored in the connective tissue around the joint releases, and that energy shows up as more visible segmental movement once the stretch ends.

Each level divides into sub-stages with criteria of their own

Level One progresses through three sub-stages read by how far breath travels. 1A carries it to the mid thoracics and 1B to C3. 1C is not granted until breath reaches the occiput, however much the segments rock. Level Two progresses by what oscillates. 2A shows large, imprecise reciprocal rocking under sustained holds. 2B begins when two engaged oscillators share the spine with coordinated timing, and it holds as long as they do. 2C is confirmed by transfer: a force at any area should move through the others, so the practitioner knocks at the pelvis and watches the neck. Basic Care runs at roughly three visits a week, with its strategies often developed within one to three months and a re-examination at no more than eight weeks. Within that arc, each individual new strategy is expected within five or six adjustments. In practice Level One runs near four weeks, 2B near six weeks, 2C within three to five visits, and Level Three across two to five months. A new practice member already showing Level Two on the first visits is held in Level One anyway, three visits a week for two weeks, to watch what develops.

Network Spinal Analysis measured itself, on the table and in the practice member’s own report

Outcome assessment is the fifth element of Network Spinal Analysis’s own definition, and the method makes the patient a participant rather than a subject. From the first visit the practice member tracks six things. They are responses to the contacts, changes in the spinal musculature between visits, ease of movement, changes in respiration, changes in posture, and regions of perceived tension. The practitioner’s own battery runs from static and active subsystem evaluation through respiratory quality to the release of facilitated focus. The era documented physiological change with the Insight 7000 for dynamic spinal readings, spirometry for vital capacity, EKG, nerve conduction velocity, and muscle strength testing.

What Basic Care watched for first was awareness before understanding. Precognitive awareness comes first: the patient spontaneously repositions shoulders or neck on the table with no idea why. Cognitive awareness follows, the ability to say that tension was building in one area and moving released it. The outcome frame ties to the era’s largest study. The three predictors of wellness taught from the Blanks retrospective were duration of care, awareness of respiration, and awareness of the somatopsychic wave.

Somato Respiratory Integration accompanied Network Spinal Analysis from inside the era

Somato Respiratory Integration belongs to the era. The exercises are used in conjunction with NSA to enhance entrainment of somatic and respiratory rhythms and develop somatic awareness, and they draw on Epstein’s The 12 Stages of Healing, published in 1994. Basic Care folds them into a self-educational program that also teaches the spinal subsystems, mechanical tension, and the growing awareness of one’s own spine. Their working role compresses to one phrase: safety with one’s own hands. A practice member who could not connect with her own hands could not connect with the practitioner’s. Practitioners were taught to use the exercises themselves, finding their own rhythms before working with anyone else’s.

Most of the published research on Network belongs to the Network Spinal Analysis era

The Network Spinal Analysis corpus is concentrated, and it divides into a survey line, an engineering line, and a scatter of small instrumented studies. The first two opened within a year of each other, in 1997 and 1998.

The Blanks retrospective is the largest survey in the Network corpus

Blanks, Schuster and Dobson published A Retrospective Assessment of Network Care Using a Survey of Self-Rated Health, Wellness and Quality of Life in 1997. It ran in the Journal of Vertebral Subluxation Research, volume 1, issue 4, pages 15 to 31. Data came from 156 Network offices, a 49 percent practitioner participation rate, and 2,818 respondents at a response rate of 67 to 71 percent, across the United States, Canada, Australia, and Puerto Rico. The paper also developed and initially validated the survey instrument it used. Respondents rated four domains, physical state, mental and emotional state, stress evaluation, and life enjoyment, plus overall quality of life. Each domain was rated twice, once for the present and once retrospectively for before care, and respondents were grouped by care duration from 1 to 3 months out to over three years.

The 2004 modeling study drew on the same 156 offices

Schuster, Dobson, Jauregui and Blanks published Wellness Lifestyles II in the Journal of Alternative and Complementary Medicine in 2004, volume 10, issue 2, pages 357 to 367. It is a cross-sectional survey of 2,596 patients drawn from the same 156 offices, at a response rate near 69 percent, analyzed with structural equation modeling across the same four domains. Its companion paper, Wellness Lifestyles I, sets out the framework at pages 349 to 356 of the same issue.

The engineering line ran from 1998 to 2017

Bohacek and Jonckheere opened it in the Journal of Vertebral Subluxation Research in December 1998, volume 2, issue 4, pages 188 to 195. They recorded a single subject with electrodes at C1 to C2, T6, L5 and S2, then ran a nonlinear canonical correlation using alternating conditional expectation. Jonckheere, Lohsoonthorn and Mahajan described the electrode array itself in Studies in Health Technology and Informatics in 2005, volume 111, pages 234 to 236. Martin del Campo and Jonckheere returned to the recordings in Biomedical Signal Processing and Control in 2017, volume 32, pages 57 to 68. They compared two experiments run a decade apart, using different amplifiers and different sacral electrode positions.

Smaller instrumented studies tracked temperature, attention, and heart rate variability

Miller recorded digital skin temperature, surface EMG, and electrodermal activity in 20 subjects, 5 of them controls. The protocol ran a 4.5 minute baseline followed by five 2.5 minute intervals, and it appeared in the Journal of Vertebral Subluxation Research in June 1998, volume 2, issue 2, pages 87 to 95. Pauli ran a case series of 9 adults aged 22 to 58 in the same journal in August 2007, using the Test of Variables of Attention at baseline and at two months. Knowles, Knowles and Kotur reviewed heart rate variability records for 46 patients aged 18 to 87 at baseline and at 90 days, in Annals of Vertebral Subluxation Research in November 2017.

Where Network Spinal Analysis meets the Unified Model of Tone

The Unified Model of Tone holds that tone is the integrated organization of the body’s many interacting processes at a given moment, and that this organization is carried by coupled oscillation at every scale. Network Spinal Analysis names coordination, coupling, and oscillation as the three concepts governing spinal integrity, and those are the model’s own terms for how tone is carried and read.

Oscillation is the carrier, and the network wave is that carrier made visible

The model treats the body as a nested set of rhythms held in phase with one another. The set runs from the roughly one-per-second cardiac cycle through the respiratory cycle to the day-long circadian cycle. Oscillation is the medium tone is written in, and coupling is what holds the rhythms together. Dysregulation, in the model’s terms, is the uncoupling of those nested rhythms. Network Spinal Analysis induces a rhythm in the paraspinal musculature, follows it the length of the spine, and measures coherence between its two ends. The 13.5 Hz figure recorded in the eighth wavelet subband sits inside the band of resting skeletal muscle oscillation, which runs roughly 11 to 20 cycles per second.

The model carries Epstein’s subsystem architecture inside its own account of the spine

The Unified Model of Tone takes Panjabi’s three subsystems whole. It takes the meninges as a transducing component whose tension state is itself a regulated variable, and the emotional subsystem occupying the same anatomical space as the other three. Where the model goes further is in what the four subsystems are. It reads them as one multilayered architecture seen from four vantage points, each subsystem being tone observed at a different stratum. The era’s thermodynamic language translates the same way. Bound energy that cannot couple with free energy is, in the model’s terms, stored load the system can no longer dissipate. The era’s rule that intervention is indicated when the subsystems stop dissipating energy is a statement about tone regulation in earlier vocabulary.

The place of ease is the model’s leverage point, and the sore spot is its compensation

The model separates the leverage point from the compensation. The era had already named both addresses. Its point of critical tension is the model’s leverage point, a focal, high-influence location near a connective tissue anchor where a small matched input starts system-wide change. Its facilitated focus is the model’s compensation, the downstream region of accumulated tension already at the limit of what it can dissipate, where added force reads as further demand and deepens the defense. The era made touching the second a contraindication. The model supplies the reason in its own terms: a light touch matched to the tissue at an anchor carries more information than a large force at the sore segment. On the model’s own anatomy, the dura anchors at the foramen magnum, at the bodies of the second and third cervical vertebrae where it blends with the posterior longitudinal ligament, and at the sacrum. Specificity, in the model, is correspondence between the input and the pattern, not magnitude.

What the Unified Model of Tone predicts from here

Three predictions follow, and they belong to the model rather than to Epstein. First, the model predicts that spinal coherence measured between the cervical and sacral electrodes will covary with other readings of tone taken at the same session, including heart rate variability and paraspinal muscle stiffness. If those measures move together in the same session, the unification claim is confirmed.

Second, the model predicts a bidirectional signature. Track autonomic regulation before and after a course of entrainments in a group that starts spread across the range. People who begin with excessive sympathetic drive should come down, people who begin with blunted arousal should come up, and the spread across the group should narrow toward each person’s own midpoint. A measure that shifts everyone in one direction identifies an intervention that masks rather than one that restores.

Third, the model predicts that better-regulated tone yields a system that registers its own state more accurately and adapts more efficiently. Made testable, the prediction is that the interval between a mechanical perturbation and the return to baseline autonomic state shortens as the wave develops through the levels. The subject is regulation, and the instrument is a recording of state before and after a measured load.

How this page relates to the rest of the library

Network Chiropractic 1.0 is the first era of Epstein’s work and NetworkSpinal 3.0 is the third. His biography sits at Donald Epstein. Sacro-Occipital Technique carries the dural anatomy these contacts depend on, and De Jarnette’s sacrum-to-occiput reasoning is the older statement of the two-anchor idea. The era’s sacro-tuberous ligament test and its ceiling and line-of-drive vocabulary come directly from Logan Basic, credited by name. Network Spinal Analysis read H.I.O. as an oscillatory technique, the upper cervical adjustment producing an oscillatory change that reduces multiple cord tensions at once. The five phases are a direct ancestor of the five tones in Tonal Chiropractic, which re-anchors the phase taxonomy of Epstein and Holder at both ends of the dura. Bio-Geometric Integration is Sue Brown’s own technique, built on its own terms after she practiced Network, and it is not a descendant of Network. Torque Release Technique draws on Epstein’s work among its sources and delivers its light input through an instrument. The stress physiology the waves are said to dissipate is taught in current terms on stress and physical symptoms, and the variable underneath all of it is set out in tone.