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THE LIVING MATRIX - American Academy of Osteopathy

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<strong>THE</strong> <strong>LIVING</strong> <strong>MATRIX</strong><br />

R. Paul Lee, DO, FAAO, FCA<br />

Orlando, FL<br />

March 23, 2013


What I want to say today<br />

Describe a model for PRM in the<br />

extracellular matrix.<br />

Discuss the role <strong>of</strong> cells, water and<br />

connective tissue.


Connective Tissue<br />

Bones<br />

Joints<br />

Ligaments<br />

Muscles


Connective Tissue<br />

Fascia<br />

Extracellular Matrix<br />

Cytoskeleton


Extracellular Matrix<br />

• Also known as the Ground Substance or<br />

“Matrix”<br />

• Additional info:<br />

1. Lee, RP (2001). The primary respiratory<br />

mechanism beyond the craniospinal axis.<br />

AAOJ, 11(1):24-34.<br />

2. Lee, RP (2005). Interface: Mechanisms <strong>of</strong><br />

Spirit in <strong>Osteopathy</strong>. Stillness Press.


Histology <strong>of</strong> the Matrix<br />

• Enmeshed in matrix:<br />

– Cells<br />

– Capillaries<br />

– Nerves<br />

– Lymphatics


Histology <strong>of</strong> Matrix<br />

• Functions:<br />

– Delivery <strong>of</strong> nutrients.<br />

– Elimination <strong>of</strong> waste.<br />

– Communication among cells.<br />

– Intimate connection <strong>of</strong> all parts <strong>of</strong> the body.<br />

• Fibroblasts:<br />

– Manufacture matrix components.<br />

– Syncytium


Fibroblasts form<br />

syncytium


Matrix Behaves as a Primitive<br />

Nervous System


Matrix mediates functions for cells.<br />

• Nerves terminate in the matrix not on the<br />

cells.<br />

• Vessels excrete their nutrients into the<br />

matrix not into the cells.<br />

• Lymph originates in the fluid <strong>of</strong> the<br />

extracellular matrix.


Matrix Displays Immune Function<br />

• Mast cells reside in the matrix.<br />

• Macrophages, PMNs, and lymphocytes pass<br />

through the matrix.<br />

• Detoxification processes occur in the matrix.<br />

• Acidic products <strong>of</strong> cellular metabolism are<br />

neutralized in the alkaline matrix.


PROTEOGLYCAN<br />

1.Hyaluronan<br />

2.Proteoglycan<br />

a. Core protein<br />

b. Keratin sulfate<br />

c. Chondroitin<br />

sulfate


GAGs and Proteoglycans bind water<br />

forming a gel.


Gabarel and Roques’ theory <strong>of</strong> the<br />

generation <strong>of</strong> the PRM<br />

• Based on the amount <strong>of</strong> free water vs. bound<br />

water in the extracellular matrix.<br />

• When matrix is depolymerized by increased<br />

concentration <strong>of</strong> electrolytes, water is freed.<br />

• Concentration <strong>of</strong> electrolytes decreases with<br />

free- and increases with bound-water, creating<br />

oscillating feedback loop.


Phase Transitions<br />

• Most familiar – melting or freezing water.<br />

• Definition: a change in shape, size,<br />

permeability, hardness, chemical and/or<br />

electrical activity.<br />

• Stimuli: change in pH, temperature, salt,<br />

electric field, mechanical stress.


Phase Transitions in Matrix<br />

[Gabarel & Roques]<br />

• Gels are prone to phase transitions.<br />

• A change in viscosity (the state <strong>of</strong> free or<br />

bound water).


“Injury Potential”<br />

[Nordenström]<br />

• A measurable change in the electric<br />

potential <strong>of</strong> the tissue when injured.


“Energy Sink”<br />

• Robert Fulford, DO used this term to refer<br />

to areas <strong>of</strong> tissue that are palpably altered<br />

from trauma.<br />

• A palpatory confirmation <strong>of</strong> an injury<br />

potential, that is, a palpable mechanical<br />

change that corresponds with an electric<br />

change.


Electric Potentials<br />

in Organs<br />

[Nordenström]


Fluctuation <strong>of</strong> Polarity in Tissues<br />

[Nordenström]<br />

Fluctuation <strong>of</strong> polarity is created when an<br />

a. injury potential or<br />

b. physiological polarization<br />

is accompanied by an opposite reaction to<br />

balance the polarity.<br />

As entropy increases in this process,<br />

fluctuation is established.


Characteristics <strong>of</strong> Fluctuations<br />

[Nordenström]<br />

• Fluctuations occur in the vascular and interstitial<br />

fluids.<br />

• Healing results from ebb and flow <strong>of</strong> ions.<br />

• Fluctuations occur in injured and normal tissue<br />

and in morphogenesis.<br />

• Oxidation/Reduction reactions occur in the fluids<br />

next to fibrous membranes.


Fluids are Good Conductors<br />

[Nordenström]<br />

Electrical reactions from flows <strong>of</strong> ions and<br />

electrons occur readily in water because <strong>of</strong><br />

a. The characteristics <strong>of</strong> water itself.<br />

b. Dissolved electrolytes.<br />

c. Dissolved proteins.


“Ionars”<br />

[Nordenström]<br />

• Ionars are groups <strong>of</strong> ions.<br />

• Collect in the extracellular fluid because <strong>of</strong><br />

metabolic activities and local differences in<br />

a. capillary bed circulation<br />

b. matrix properties<br />

c. ionic size and mobility


“Ionars”<br />

[Nordenström]<br />

• Represent an electromotive force.<br />

• Participate in the fluctuation <strong>of</strong> charge.<br />

• Responsible for actual structural modifications.<br />

• Associated with movement <strong>of</strong> water.


Pischinger<br />

• Fundamental importance <strong>of</strong> the ground<br />

substance (matrix) in the extracellular<br />

space.<br />

• All cells, nerves, and vessels are imbedded<br />

in and functionally connected by matrix.


Matrix is Piezoelectric<br />

[Pischinger]<br />

• Vibrations stimulate electric activity and<br />

electric activity stimulates vibrations.<br />

• Vibrations (mechanical stimuli) travel at<br />

the speed <strong>of</strong> sound through the tissues.<br />

• Electric stimuli travel at the speed <strong>of</strong> light.


The matrix provides the milieu for<br />

the healthy function <strong>of</strong> cells.<br />

[Pischinger]<br />

• Disturbances in the matrix are the starting<br />

point <strong>of</strong> many diseases.<br />

• The matrix is involved in every disease<br />

and in its healing.<br />

• Fundamentally, the same concept as Dr.<br />

Still proposed.


Pischinger Expanded Virchow’s<br />

Hypothesis<br />

• Virchow declared that the cell is the basic unit <strong>of</strong><br />

life.<br />

• Pischinger included with the cell, the connective<br />

tissue (matrix), capillary bed, and lymphatics as<br />

the basic unit <strong>of</strong> life.<br />

• Dr. Still proposed same concept with his idea <strong>of</strong><br />

“biogen.”


Szent Gyorgyi<br />

Fibers and<br />

proteins are<br />

semiconductors


Shininess <strong>of</strong> connective tissue<br />

[Oschman]<br />

• Shininess <strong>of</strong> connective tissue at surgery<br />

indicates the health <strong>of</strong> the tissue and the<br />

amount <strong>of</strong> electrons in the matrix.<br />

• The amount <strong>of</strong> electrons correlates with<br />

the alkalinity <strong>of</strong> the tissue and its ability to<br />

quench acidic toxins.


Matrix is a storage compartment<br />

[Pischinger]<br />

• The matrix holds toxins until they can be<br />

disposed <strong>of</strong>.<br />

• At night when the body is at rest, the<br />

lymph and blood clear the matrix and<br />

deliver toxins to the liver for disposal.


Matrix is an open system<br />

[Pischinger]<br />

• Open systems are subject to energetic and<br />

material influences from outside.<br />

• Parenchymal cells, immune cells, nerve cells,<br />

and blood capillaries all influence the matrix<br />

driving an oscillatory mechanism.<br />

• GAGs and proteoglycans are changed in specific<br />

ways by all these influences.


Matrix and Cell Membrane<br />

[Pischinger]


Glycocalyx and Cytoskeleton<br />

[Pischinger]<br />

• Glycocalyx transfers<br />

input from the<br />

extracellular matrix<br />

into the mechanisms<br />

<strong>of</strong> the cell even down<br />

to the genes.<br />

• Matrix influences cell<br />

growth, cell division,<br />

and cell movement.


Water carries information<br />

[Pischinger]


“Fluids, Matter in Motion”<br />

• Lee (2002), Fluids, Matter in Motion,<br />

Cranial Letter, volumes 55 and 56.


Biodynamics<br />

[Pischinger]<br />

• Biodynamics: Transformation between<br />

energy and mass.<br />

• A clear example <strong>of</strong> biodynamics is the<br />

energy flow between the sugar<br />

biopolymers (GAGs and proteoglycans)<br />

and water in the matrix.


Biodynamics<br />

[Pischinger]<br />

• Spontaneously generating patterns that<br />

spread themselves through the matrix are<br />

an expression <strong>of</strong> life-retaining interactions<br />

between matter and energy.


Etheric Body<br />

[Pischinger]<br />

• Matrix is physical aspect <strong>of</strong> etheric body, the<br />

energetic aspect <strong>of</strong> which provides pattern to<br />

form physical body.<br />

• The matrix is the interface <strong>of</strong> the material and<br />

etheric bodies – biodynamics.<br />

• Dr. Fulford emphasized working with the etheric<br />

body.


Summary <strong>of</strong> three books<br />

• Matrix is where the action is.<br />

• It is both changeable and stable.<br />

• Influences from cells, nerves, vessels and lymph all<br />

mingle.<br />

• Matrix gives direction to cell’s functioning.<br />

• Redox reactions occur routinely along fibrous and<br />

cellular membranes in the fluids.


Summary <strong>of</strong> books<br />

• Matrix is naturally a gel blocking the passage <strong>of</strong><br />

substances unless its viscosity is reduced.<br />

• Alterations <strong>of</strong> viscosity occur from changes in<br />

pH, temperature, electric fields, mechanical<br />

stress, and electrolyte concentration.<br />

• Matrix is characterized by varying viscosity,<br />

changing charges, and fluxes <strong>of</strong> fluids and ions.


Summary <strong>of</strong> books<br />

• Information is carried in the matrix<br />

by the structure <strong>of</strong> water<br />

by patterns <strong>of</strong> sugar polymers<br />

by patterns <strong>of</strong> dissolved substances.<br />

• Information is transmitted instantaneously<br />

• Matrix integrates entire system.


Summary<br />

• Injury to tissue changes the electro-mechanical<br />

quality <strong>of</strong> the matrix.<br />

• Flows <strong>of</strong> ions and water are the means by which<br />

healing occurs.<br />

• Biodynamic transformations between energy and<br />

matter occur with changing patterns in sugar<br />

polymers and water.


Summary<br />

• Matrix represents the etheric body in the<br />

physical form.


Matrix is Osteopathic<br />

• Matrix expresses unity (unifies whole body and<br />

represents the etheric body).<br />

• Its structure and function are reciprocally interrelated.<br />

(As viscosity changes so does function.)<br />

• Its substance contains all the necessary resources for<br />

maintenance and healing. (Acts as a nervous, immune,<br />

detox, and storage system. Delivers information from<br />

chemicals, nerves, water, patterns <strong>of</strong> GAGs, etc.)<br />

• Treating the matrix is osteopathic.


Yuri Moskalenko, D.Sc.<br />

• Bioimpedence measures fluctuating fluids<br />

<strong>of</strong> the brain tissue.<br />

• Dopplerography measures changes in<br />

arterial blood flow.<br />

• These both show obvious fluctuations in<br />

cranium.


Boris Vern, MD, PhD<br />

• Measured oscillations <strong>of</strong> oxidative<br />

metabolism in the brain cortex.<br />

• Neurons that have increased oxidative<br />

metabolism are actively working.<br />

• Same cells have increased cellular volume.


Berridge & Rapp<br />

• Among many cellular oscillations cited,<br />

oscillations <strong>of</strong> the concentration <strong>of</strong><br />

secondary messengers – cyclic AMP and<br />

calcium ions – occur at rates that are<br />

compatible with the Tide.<br />

(Berridge & Rapp, A comparative survey <strong>of</strong> the function, mechanism<br />

and control <strong>of</strong> cellular oscillators. J Exp Biol, 81:221-224.)


Calcium Waves<br />

• Overwhelming number <strong>of</strong> references in the<br />

scientific literature about calcium ion fluxes.<br />

• Multiple rates <strong>of</strong> calcium waves stimulate<br />

intracellular functions.<br />

• An extracellular flux <strong>of</strong> calcium ions occurs at a<br />

rate consistent with the PRM.


Calcium and the Matrix<br />

• As calcium ion concentration increases in the<br />

matrix with the calcium wave, the proteoglycans’<br />

bonds with hyaluronan break.<br />

• Bound water is freed to flow as the matrix<br />

depolymerizes.<br />

• This fits Gabarel & Roques’ model, what<br />

Nordenström implied, and what Pischinger<br />

predicted.


Calcium Wave


Counterions<br />

• Movement <strong>of</strong> calcium ions is accompanied by a<br />

balancing movement <strong>of</strong> opposite charge –<br />

electrons – in the proteins.<br />

• Proteins are semiconductors and share electrons<br />

that are free to move.<br />

• Ions flow in water; electrons flow in proteins.


Tensegrity<br />

• Tissue tensegrity system is composed <strong>of</strong> the<br />

extracellular matrix, integrins, and cytoskeleton.<br />

• Mechanical (vibrational) information, transferred<br />

via the integrins from the matrix to the<br />

cytoskeleton, changes the cell’s shape and<br />

influences the expression <strong>of</strong> DNA.<br />

(Pienta & C<strong>of</strong>fey (1991). Cellular harmonic information transfer<br />

through a tissue tensegrity-matrix system. Med Hypoth, 34:88-95.)


Tensegrity<br />

• Magnets attached to integrins showed that<br />

twisting them altered cytoskeletal<br />

arrangement and metabolism.<br />

(Wang, Butler, & Ingber (1993). Mechanotransduction across the<br />

cell surface and through the cytoskeleton. Science, 260:1124-1127.)


Mechanotransduction<br />

• Expression <strong>of</strong> enzyme systems can be<br />

altered by mechanically approximating<br />

enzyme chains attached to microtubules in<br />

the cytoskeleton.


Cell Contraction<br />

• Calcium ion binds to integrins (membrane<br />

receptor) and causes cell contraction.<br />

• Integrins cause contraction <strong>of</strong><br />

micr<strong>of</strong>ilaments (actin).


Terminal lymph channel


Theoretic Model – Lymphatics<br />

• Micr<strong>of</strong>ilaments outside the cell support the lymphatic capillary<br />

endothelial cells.<br />

• With the calcium wave, micr<strong>of</strong>ilaments contract, thus opening the<br />

fenestrations between the endothelial cells allowing free water to<br />

enter.<br />

• After the calcium wave, the fenestrations close, thus trapping water<br />

inside the terminal lymphatic channel.<br />

• With the next calcium wave, more water enters the terminal<br />

capillary forcing the previous water to move proximally along the<br />

lymph channel.


Theoretic Model – Blood Vessels<br />

• The gel phase <strong>of</strong> the matrix osmotically<br />

draws more water from the capillary bed<br />

to resupply the matrix.


Model – Summary<br />

• Thus, we have a theoretical model for<br />

fluctuations in the tissues involving:<br />

– Extracellular matrix<br />

– Parenchymal cells<br />

– Capillary bed<br />

– Lymphatics


Model – Summary<br />

• Nutrients and waste products must cross<br />

the no-man’s land <strong>of</strong> the normally<br />

gelatinous matrix.<br />

• Only the forces for life can permit this<br />

through two emissaries, calcium and<br />

water.


Summary <strong>of</strong> Model

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