Fascial Anatomy & Layers
Fascial cells
Extracellular Matrix
Fascial Properties & States
Myofascial Lines
Palpation levels
Fascial Pioneers and Methods
Techniques & Effects
Dysfunction & Physiology
100

This layer of fascia, also called subcutaneous fascia, lies directly between the skin and muscle.

Superficial fascia

100

These are the primary cells responsible for creating and maintaining the extracellular matri

Fibroblasts

100

This gel-like component of the ECM contains water, nutrients, and proteoglycans, making up a large portion of intercellular fluids.

Ground substance

100

This property allows fascia to become more fluid and less viscous when subjected to stress,

Thixotropy

100

 This myofascial line includes the SCM, Rectus Abdominus, and Quadriceps.

Superficial front

100

This first level of palpation involves detecting variations in temperature (hot or cold)

Near touch

100

his biochemist pioneered Structural Integration, a bodywork style aimed at manipulating fascia to improve posture.

Ida Rolf

100

To be effective, most connective tissue techniques should be performed with this amount of lubricant.

Little or no

100

These are fibrous bands that form between tissues, causing them to stick together and restrict movement.

Adhesions

200

These diagonal sheaths of fascia surround muscles and provide structural organization. 

Deep fascia

200

Found mainly in the superficial fascia, these cells store energy and provide cushioning and insulation.

Adipocytes

200

These long-chain carbohydrates are hydrophilic, meaning they attract and bond to water to maintain tissue hydration.

Glycosaminoglycans or GAGs

200

This refers to the ability of fascia to generate an electrical charge in response to mechanical pressure or stretching.

Piezoelectricity

200

This line includes the hamstrings, gastrocnemius, and the erector spinae.

Superficial back

200

Level 2 palpation involves using light stroking to assess for dampness, color, or moles on this organ.

Skin

200

He authored the book Anatomy Trains and developed the system of mapping fascial meridians.

Tom Myers

200

Deep transverse friction is applied in this direction relative to the fibers of the tissue.

Against or across the grain

200

Activation of this division of the autonomic nervous system causes fascia to thicken into "armor" and contract.

Sympathetic nervous system

300

his specific layer of deep fascia covers the entire muscle and thickens at the ends to become a tendon.

Epimysium

300

These specialized contractile cells play a major role in wound healing and are an intermediate between fibroblasts and smooth muscle cells.

Myoflibroblasts

300

This fiber type provides fascia with its tensile strength and rigidity.

Collagen

300

This architectural principle describes how strain is distributed throughout a structure to increase stability and resilience.

Tensegrity

300

This line runs along the side of the body and is often focused on when treating IT band dysfunction.

Lateral 

300

By lifting and rolling tissue folds, massage practitioners can compare binding and density in this 3rd layer of palpation.

Superficial fascia

300

He is the developer of the deep transverse (cross-fiber) friction technique used for rehabilitation.

James Cyriax

300

Cyriax’s friction technique is used to break up adhesions by creating this controlled response.

Controlled inflammation

300

Fascia performs this function by distributing the force of impact throughout the body to protect joints.

Shock absorption

400

Planes for fascia include the cranial base, cervical thoracic, diaphragm, and lumbar and pelvic floor areas

Transverse

400

These immune cells are known for their ability to "eat" pathogens, dead cells, and debris within the tissue.

Macrophages

400

This is the most abundant GAG in fascia, crucial for improving lubrication and sliding between layers.

Hyaluronic acid or Hyaluronan

400

This is the hydrated, liquid state of fascia

Sol

400

This line connects the shoulder to the opposite gluteus maximus via the latissimus dorsi.

Functional back

400

This level of palpation is specifically used by practitioners to identify taut bands and trigger points.

5th-Muscle

400

A student of Ida Rolf, he developed the style known as Hellerwork.

Joseph Heller

400

This method, popularized by John Barnes, focuses on slow, sustained pressure to rehydrate tissues and increase glide.

Myofascial Release

400

This term describes the low-level, passive tension inherent in the body's connective tissue network while at rest.

Fascial tone

500

This type of fascia is found deep within the body, lying between the deep fascia and the membranes lining body cavities.

Subserous fascia

500

When activated by massage, these cells release histamine, which causes vasodilation.

Mast cells

500

These delicate fibers are made of type III collagen and form a fine mesh-like support structure.

Reticular fibers

500

This term refers to the gradual elongation of tissue over time when it is subjected to a slow, constant load.

Creep

500

This line wraps around the torso in a double-helix and includes the splenius capitis and the obliques.

Spiral

500

This level of palpation involves assessing both active and passive range of motion and "end-feel."

9th-joints

500

This individual is credited with developing Bindegewebmassage (connective tissue massage).

Elizabeth Dicke

500

Myofascial methods are focused most specifically on causing changes in this component of the ECM

Ground substance

500

Deep transverse friction is very effective for treating joints with this dysfunction

Bound tendons and ligaments