ANMA Massage Academy

How Inflammation Affects the Lymphatic System: The Hidden Connection 🌿🔥

Inflammation is a buzzword in the health world, often linked to everything from arthritis to heart disease. But did you know that chronic inflammation can overload your lymphatic system and disrupt its ability to drain fluids, fight infections, and remove toxins?

Your lymphatic system is the body’s silent warrior, working 24/7 to clear out waste, support immunity, and maintain fluid balance. When inflammation strikes, this delicate system can become congested, sluggish, and overworked, leading to swelling, pain, and even long-term health issues.

Let’s break down how inflammation impacts the lymphatic system, the symptoms to watch for, and the best ways to keep your lymph flowing smoothly. 💧✨

🌿 The Lymphatic System: Your Body’s Detox Pathway

The lymphatic system is like a vast network of highways that carry a special fluid called lymph throughout your body. Unlike the blood, which is pumped by the heart ❤️, lymph moves only when you move—through exercise, deep breathing, and even massage.

✔️ Lymph vessels – These act as drainage pipes, collecting excess fluid, waste, and toxins from tissues.
✔️ Lymph nodes – These act as security checkpoints, filtering harmful bacteria, viruses, and toxins.
✔️ Lymphatic organs – The spleen, thymus, tonsils, and bone marrow all help regulate immune function.

When the lymphatic system is working properly, it keeps you energized, free from swelling, and resilient to infections. But when inflammation interferes, things slow down—leading to fluid buildup, toxin accumulation, and increased disease risk.

🔥 Inflammation & the Lymphatic System: What Happens?

Inflammation is your body’s natural response to injury or infection. It’s meant to be temporary—helping you heal before subsiding. But when inflammation becomes chronic (lasting weeks, months, or even years), it stresses the lymphatic system and creates widespread dysfunction.

🚨 What Happens When Infla

Manual Lymph Drainage History by Vodder Schools International

The original method of Manual Lymph Drainage was developed by Emil Vodder PhD and his wife, Estrid Vodder, ND in the 1930’s.

Emil Vodder was born in Copenhagen on February 20, 1896. At the University of Copenhagen he took biology, mineralogy and botany which is where he began studying medicine, cytology and microscopy. Early during his studies he also became interested in physical medicine.

Emil had to interrupt his medical studies near the end of the 8th semester because he contracted malaria. After recuperation he was no longer admitted to finishing his medical studies.

In 1928, the University of Brussels conferred upon Emil Vodder the title PhD, because of his thesis on Historical Art.

In 1933, Vodder and his wife moved to Paris where they continued their biological studies. They especially dedicated their time to the anatomy and physiology of the lymph vessel system. In a large anatomical atlas Vodder found a collection of wonderful copper engravings by the anatomist SAPPEY (Description et iconographie des vaisseaux lymphatique concideres chez l’homme et de les vertebres, Paris 1885). These engravings were the fundamental basis for a systematic and clear working method, which Emil Vodder elaborated by intuition and many practical treatments. A completely new manual technique was necessary which was performed with pumping, circling movements and a very light pressure in order to avoid hyperemia under all circumstances.

In 1936 Vodder presented his method to the world as MANUAL LYMPH DRAINAGE according to Dr. VODDER, during a congress in Paris.

It was not until the early 50’s that Vodder received invitations from European countries to teach his method. In the early 60’s a German general practitioner, Dr. Asdonk, heard of Vodder and became interested in this method. Therapists owe a lot to Dr. Asdonk. As a physician he recognized the importance of Vodder’s method and gave us the first list if indications. Lymphedemas– as we know and treat them today – were not an indication at that time.

MORE here: http://bit.ly/1kgNuVU

The Sciatic Nerve
The sciatic nerve is a large nerve that originates from the distal spinal cord and extends along nearly the entire length of the hind limb. In most vertebrates, it's the major branch of the sacral plexus, a complex mass comprised of neurons that exit the spinal column via spinal nerves L4 through S4. The sciatic nerve innervates most of the hind limb. As is the case with many of the large nerves of the vertebrate nervous system, the sciatic nerve is a mixed-function nerve, meaning it is made up of the axons of sensory and motor neurons.

The sciatic nerve gives rise to branches as it progresses distally along the hind limb. Some of these branches contain motor & sensory neurons involved in control of the muscle groups of the upper leg, and the lower leg (both flexors and extensors). In addition, sensory receptors in the skin of the entire lower leg and the posteriolateral surface of the upper leg transmit information to the brain via sciatic nerve neurons.

Damage to, or irritation of, the sciatic nerve at any point can result in a number of symptoms, some of them potentially serious. The malady we call sciatica is the result of inflammation of the sciatic nerve, usually caused by chronic irritation of one or more of the spinal nerves L4 – S4. The usual causes are trauma to the intervertebral discs associated with the roots of spinal nerves L4 _ S4, but a number of other causes, including improperly administered hypodermic injections into the gluteal muscle, have been documented. Whatever the cause, sciatica is characterized by pain along the course of the sciatic nerve through the hip and down the back of the leg.

Pressure, either chronic or acute, applied to the sciatic nerve's dorsal and/or ventral roots can result in a number of symptoms in addition to pain. Impaired function of the motor neurons can result in weakness in the lower leg muscles. In extreme cases, inability of the lower leg muscles to control the ankle and foot can result in impaired gait due to foot drop (inability to dorsiflex the foot upward when stepping forward). Similarly, interference with normal function of the afferent fibers results in sensory disturbances such as paresthesia (a tingling or "pins and needles" sensation) or hyperthesia (increased or extreme sensitivity of receptors, particularly touch, temperature, and pain receptors). Severe sciatica can even result in wasting of the muscles of the lower leg as a result of a loss of normal stimulatory input to the muscle fibers.

Categories of Sciatic Nerve Neurons
As with other nerves in the vertebrate body, the sciatic nerve is comprised of the axons of hundreds of neurons. These axons vary greatly in diameter, from < 1 to 20 mm. Because conduction velocity is proportional to axon diameter, the conduction velocity of the sciatic nerve neurons also varies widely, from 0.2 to 150 m sec-1.

Neurons are often categroized on the basis of their morphology and/or function (e. g., sensory or motor). However, neurophysiologists often employ an alternate approach that groups neurons (often referred to as "fibers" in this context) according to their axon diameter and degree of myelination. So-called Type A fibers, have large diameters, thick myelin sheaths and correspondingly high conduction velocities (30 _ 150 m sec-1). These neurons are mostly motor (efferent) neurons that control activity of skeletal muscles, or sensory (afferent) neurons that convey information from receptors in the muscles, joints, and epidermal tissues to the spinal cord. Type B fibers have less well developed myelin sheaths and conduction velocities in the range of about 3 _ 15 m sec-1. Most of these fibers are part of the autonomic nervous system's efferent pathways that innervate internal organs and blood vessels and provide for regulation of their activties. The smallest diameter fibers, termed Type C fibers, lack myelin sheaths and have correspondingly low conduction velocities (< 2 m sec-1). Many of the Type C fibers are efferent neurons of the sympathetic nervous system and afferent pain neurons.

Info from University of New Mexico
Found here: http://bit.ly/19id1Zm

Image from Gray's Anatomy

CTTO

Cupping Therapy for ITB Syndrome 🏃‍♀️

The Iliotibial Band (ITB), extending from the hip to the knee, stabilizes the knee during physical activities like running and cycling. ITB Syndrome, manifesting as pain and inflammation of this band, primarily affects athletes, influencing their performance and mobility. Cupping therapy is recognized for its ability to enhance blood flow, diminish tightness, and aid in the ITB's healing, proving to be a promising treatment for this condition.

Key Insights into ITB Syndrome:

- Causes sharp, burning knee pain, intensifying with activity.
- Triggered by repetitive use, leading to inflammation.

Anatomy and Function of the ITB:

- Connects hip to knee, stabilizing the leg.
- Key in lateral leg stability during movement.

Cupping's Relief Mechanism:

- Increases blood flow, accelerating ITB healing.
- Reduces ITB and surrounding muscle tension.

Symptoms of ITB Syndrome:

- Pain worsens with running, particularly downhill.
- Outer knee tenderness and swelling evident.

Risk Factors:

- Common in activities with frequent knee flexion.
- Linked to poor training techniques and biomechanics.

Preventative and Treatment Approaches:

- Regular lateral thigh and knee cupping to alleviate symptoms.
- ITB-specific stretching and strengthening advised.

Cupping Techniques for ITB Syndrome:

- Dynamic cupping along ITB enhances flexibility.
- Static cupping on pain areas offers targeted relief.

For detailed instructions on cupping therapy application for ITB Syndrome, visit our blog. 👇

https://nielasher.com/blogs/video-blog/cupping-therapy-for-itb-dr-joi-edwards-dpt

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