Diagnosing thoracic spine somatic dysfunction
Diagnosing thoracic spine somatic dysfunction
Chronic Week 1
Chronic Week 1
Down syndrome (Trisomy 21)
Galactosemia
Tay-Sachs disease (NORD)
Mucopolysaccharide storage disease type 1 (Hurler syndrome) (NORD)
Phenylketonuria (NORD)
Phenylketonuria (NORD): Year of the Zebra
Classical homocystinuria (NORD)
Homocystinuria
Glycogen storage disease type II (NORD)
Hypertrophic cardiomyopathy
Abnormal heart sounds
Normal heart sounds
Development of the cardiovascular system
Fetal circulation
Aortic valve disease
Mitral valve disease
Pulmonary valve disease
Tricuspid valve disease
Valvular heart disease: Pathology review
Cyanotic congenital heart defects: Pathology review
Acyanotic congenital heart defects: Pathology review
Atrial septal defect
Ventricular septal defect
Patent ductus arteriosus
Coarctation of the aorta
Cardiomyopathies: Pathology review
Approach to cyanosis (newborn): Clinical sciences
Aortic dissections and aneurysms: Pathology review
Peripheral artery disease
Peripheral artery disease: Pathology review
Vasculitis
Vasculitis: Pathology review
Deep vein thrombosis and pulmonary embolism: Pathology review
Raynaud phenomenon
Fryette laws
Diagnosing cervical somatic dysfunction
Spurling test
Cervical spine counterstrain
Cervical spine facilitated positional release
Cervical spine HVLA
Cervical muscle energy treatment
Cervical spine myofascial release
Other cervical spine treatments
Diagnosing lower limb somatic dysfunction
Special tests for the lower limb
Lower limb counterstrain
Lower limb HVLA
Lower limb muscle energy treatment
Lower limb myofascial release
Other lower limb treatments
Diagnosing lumbar spine somatic dysfunction
Lumbar muscle energy treatment
Lumbar spine counterstrain
Lumbar spine facilitated positional release
Lumbar spine HVLA
Lumbar spine myofascial release
Other lumbar spine treatments
Cranial osteopathy: Cranial nerves
Primary respiratory mechanism
Diagnosing cranial somatic dysfunction
Cranial treatments
Diagnosing pelvis somatic dysfunction
Pelvis counterstrain
Pelvis muscle energy treatment
Other pelvis treatments
Diagnosing rib somatic dysfunction
Rib counterstrain
Rib HVLA
Muscle energy for rib somatic dysfunction
Other rib treatments
Diagnosing sacral somatic dysfunction
Sacrum counterstrain
Sacrum muscle energy treatment
Sacrum myofascial release
Diagnosing thoracic spine somatic dysfunction
Thoracic spine counterstrain
Thoracic spine facilitated positional release
Thoracic spine HVLA
Thoracic muscle energy treatment
Thoracic spine myofascial release
Other thoracic spine treatments
Diagnosing upper limb somatic dysfunction
Special tests for the upper limb
Upper limb counterstrain
Upper limb HVLA
Upper limb muscle energy treatment
Upper limb myofascial release
Other upper limb treatments
Angina pectoris
Stable angina
Coronary artery disease: Clinical sciences
Coronary artery disease: Pathology review
Heart failure
Heart failure: Pathology review
Congestive heart failure: Clinical sciences
Dilated cardiomyopathy
Restrictive cardiomyopathy
ACE inhibitors, ARBs and direct renin inhibitors
Adrenergic antagonists: Beta blockers
Calcium channel blockers
Thiazide and thiazide-like diuretics
Loop diuretics
Potassium sparing diuretics
cGMP mediated smooth muscle vasodilators
Lipid-lowering medications: Statins
Cardiac conduction velocity
Cardiac conduction system
ECG basics
ECG normal sinus rhythm
ECG intervals
ECG QRS transition
ECG axis
ECG rate and rhythm
ECG cardiac infarction and ischemia
ECG cardiac hypertrophy and enlargement
Notes
Thoracic spine
Diagnosing thoracic and lumbar spine somatic dysfunction
RULE OF THREES - THORACIC SPINE
- T1–T3: spinous processes are at the same level as transverse processes of same vertebra
- T4–T6: spinous processes are ½ level inferior to transverse processes of same vertebra
- T7–T9: spinous processes are one level inferior to transverse processes of same vertebra
- T10: spinous process is one level inferior to transverse processes of same vertebra
- T11: spinous process is ½ level inferior to transverse processes of same vertebra
- T12: spinous process is at the same level as transverse processes of same vertebra
DIAGNOSING THORACIC AND LUMBAR SPINE
Diagnosing somatic dysfunction in the thoracic and lumbar spine begins with assessing the transverse processes. On palpation, when transverse processes are found to be more posterior (prominent) on one side, this indicates that these vertebrae are rotated to that side. The more posterior transverse process may also be described as “resisting posterior-anterior (PA) pressure.”
Since testing side bending is difficult in the thoracic and lumbar spine, we use Fryette laws to assume the side bending based on the rotation. If a group of vertebrae is rotated right, we assume that group is side bent left (type I mechanics). If a single vertebra is rotated right, we assume it is side bent right (type II mechanics). For type II somatic dysfunctions, we also ask the patient to flex and extend at that area while we palpate the transverse processes to assess for restoration of symmetry (ease of motion).
Since testing side bending is difficult in the thoracic and lumbar spine, we use Fryette laws to assume the side bending based on the rotation. If a group of vertebrae is rotated right, we assume that group is side bent left (type I mechanics). If a single vertebra is rotated right, we assume it is side bent right (type II mechanics). For type II somatic dysfunctions, we also ask the patient to flex and extend at that area while we palpate the transverse processes to assess for restoration of symmetry (ease of motion).
DIAGNOSING THORACIC AND LUMBAR SPINE SOMATIC DYSFUNCTION | |||||||||
| TYPE OF DYSFUNCTION | SYMMETRY RESTORATION | TRANSVERSE PROCESSES | EXAMPLE | ||||||
I | Transverse processes most symmetric in neutral position | More posterior (prominent) on left, resists PA pressure on left | N SRRL | ||||||
I | Transverse processes most symmetric in neutral position | More posterior (prominent) on right, resists PA pressure on right | N SLRR | ||||||
II | Transverse processes more symmetric in flexion, less in extension | More posterior (prominent) on right, resists PA pressure on right | F SRRR | ||||||
II | Transverse processes more symmetric in flexion, less in extension | More posterior (prominent) on left, resists PA pressure on left | F SLRL | ||||||
| II | Transverse processes more symmetric in extension, less in flexion | More posterior (prominent) on right, resists PA pressure on right | E SRRR | ||||||
| II | Transverse processes more symmetric in extension, less in flexion | More posterior (prominent) on left, resists PA pressure on left | E SLRL | ||||||
Author: Arman Israelyan, OMS-III
Editor: Matt Lipinski, DO
Editor: Robyn Hughes, MScBMC