Morgan Donat Massage Therapist, RMT

04/15/2026

04/13/2026

My NEW LOCATION!!!

https://maps.apple.com/place?address=67%20Lake%20Rd%20No%204,%20Pine%20Grove%20NS%20B4V%208E9,%20Canada&coordinate=44.418776,-64.487268&name=67%20Lake%20Rd%20No%204&map=h

67 Lake rd 4
Pine Grove, NS

No signage yet and some decorating to do

Online Booking
https://morganmassage.resurva.com
(902) 212-2089
mdmassage@hotmail.ca

04/08/2026

I am giving blood on April 15 at 6:10pm at the Days Inn Bridgewater. Who will join me? Click the link to book an appointment.

Experience what you get when you give. Join Canada's Lifeline today.

04/06/2026

April 7 I start taking clients at my new location

67 Lake Rd 4, Pine Grove, NS

902-212-2089

https://morganmassage.resurva.com/book

04/04/2026

The Fake Carpal Tunnel: Why Your Numb Fingers Are Actually a Neck Problem 🖐️⚡️

Do you wake up in the middle of the night with your hand completely "dead" or asleep? Do your fingers tingle, burn, or feel weak when you type on a keyboard, drive a car, or lift your arms above your head?

Most people immediately assume this is Carpal Tunnel Syndrome. They buy a rigid wrist brace, take painkillers, or even schedule wrist surgery. But if the symptoms persist, or the numbness affects your entire hand and arm, the true entrapment site might be much higher up. Welcome to the structural blockade of Thoracic Outlet Syndrome (TOS). Let’s analyze the 3D medical map above to see how bad posture is physically crushing your neurological cables.

[Getty Images: Illustration showing the Brachial Plexus nerve bundle originating in the neck and traveling down the arm to the fingers]

The Anatomy: The Neurological Highway
The Brachial Plexus is a massive, complex bundle of nerves (shown in bright yellow) that originates in your cervical spine (neck). These nerves weave down through a very tight anatomical doorway called the Thoracic Outlet—passing between your Scalene muscles (in your neck), underneath your collarbone, and beneath your Pectoralis Minor (upper chest muscle)—before traveling all the way down to power your fingertips.

The Biomechanics of the Crush
This intricate neurological pathway requires perfect skeletal alignment to remain open and safe. When you slump forward at a computer, your shoulders round heavily inward, and your head drifts forward (Tech Neck).

[Shutterstock: Close-up showing the chest and neck muscles physically shortening and clamping down]

This chronic slouched posture physically shortens and tightens the Scalene muscles in your neck and the Pec Minor in your chest. The anatomical doorway collapses entirely.

The Consequence: The Neurological Chokehold
The tightened muscles act exactly like scissors. They mechanically clamp down on the Brachial Plexus nerve bundle (the glowing red/white pressure points in the image) and compress the major blood vessels traveling to your arm.
Because the nerves are being violently choked at the root, the sensory signals misfire down the entire length of the cable. Your brain interprets this compression in your neck as a tingling, numb, or burning sensation in your fingers (the green arrow). You treat the wrist, but the fire is actually burning in your neck!

How to Break the Cycle

Open the Chest: You must physically stretch the Pectoralis Minor to open the pathway under the collarbone. Use a doorway stretch, keeping your elbow high to target the upper chest fibers.

Release the Scalenes: Gently stretch the side of your neck by tilting your ear to your shoulder to take the muscular pressure off the upper nerve roots.

Strengthen the Mid-Back: You must rebuild the muscles between your shoulder blades (Rhomboids) to permanently pull your shoulders back and keep the Thoracic Outlet wide open.

Stop bracing your wrist if the problem is your posture. Save this for your next anatomy study, and tag a desk worker! 👇

03/31/2026

Good Friday
OPEN

Easter Monday
CLOSED

03/23/2026

I had a client with Low back discomfort and hip tightness. The hip flexor called the Psoas attaches to the anterior lumbar spine and the hip so I palpated the Psoas and found them to be tight. I decided to check the core muscles first because they can compensate for any muscle. With Neurokinetic Therapy testing we discovered the Tranverse Abdominus (TVA) was underworking and the left and right Psoas were overworking. Released the Psoas and activated the TVA.
After several reps of the protocol the Psoas relaxed and and the TVA felt stronger.

03/22/2026

https://www.spine-health.com/blog/3-simple-stretches-sciatica-pain-relief?fbclid=IwdGRjcAQsqaZleHRuA2FlbQIxMQBzcnRjBmFwcF9pZAo2NjI4NTY4Mzc5AAEeKfLVAspq7Qurx7DFq-ErkbOECcgjONTMPqKpkL0YDDD9r03-FIUDFnmIwZg_aem_rZ1IkBgoTkPTiV2mMIgi8A

Relieve sciatica pain and prevent future flare-ups by stretching and strengthening your lower back, abdominal, and thigh muscles with these 3 simple exercises.

03/18/2026

Shoulder Biomechanics: The Balance of Forces at the Glenohumeral Joint

The shoulder is one of the most mobile joints in the human body, and its stability depends not on bony constraints but on a finely tuned balance of muscular forces. The image represents the glenohumeral joint force vectors, showing how multiple muscles pull in different directions to keep the humeral head centered within the glenoid.

At rest and during movement, the humeral head is subjected to various translational forces. Larger muscles such as the deltoid generate strong upward shear forces during arm elevation. If unopposed, this would cause the humeral head to migrate superiorly, reducing subacromial space and potentially leading to impingement.

This is where the rotator cuff muscles play a critical stabilizing role. Muscles like the supraspinatus, infraspinatus, teres minor, and subscapularis create a compressive force vector, pulling the humeral head into the glenoid fossa. At the same time, they generate inferior and posterior glide components that counterbalance the superior pull of the deltoid.

Biomechanically, this interaction is known as force coupling. Instead of muscles working in isolation, they coordinate to produce both movement and joint stability. As the arm elevates, the rotator cuff ensures that the humeral head remains centered, allowing smooth rotation without excessive translation.

The arrows in the image illustrate how forces act in multiple directions simultaneously. Some vectors represent compression and stabilization, while others represent movement-producing forces. The net result is a controlled motion where mobility does not compromise joint integrity.

This balance is also influenced by the scapula, which provides a stable base for humeral movement. Proper scapular positioning ensures optimal alignment of the glenoid, allowing efficient force distribution across the joint.

When this delicate balance is disrupted—due to muscle weakness, poor coordination, or fatigue—the humeral head may shift excessively. This can lead to conditions such as shoulder impingement, instability, or rotator cuff dysfunction.

From a biomechanical perspective, the shoulder demonstrates a key principle of human movement:
👉 Stability is achieved through dynamic muscular balance, not rigid structure.

Maintaining this balance requires not only strength but also neuromuscular control and coordinated activation of all contributing muscles.

03/14/2026

It’s March break but I’m staying put this year, so I have normal hours. Click link for online booking

-------MORGAN DONAT MASSAGE THERAPIST------- 902-212-2089; mdmassage@hotmail.ca https://mdmassage2.wixsite.com/morgan

03/05/2026

Tomorrow afternoon (March 6) appointments just became available. Click link for online booking or call 902-212-2089

-------MORGAN DONAT MASSAGE THERAPIST------- 902-212-2089; mdmassage@hotmail.ca https://mdmassage2.wixsite.com/morgan

03/05/2026

🔗 THE POSTERIOR CHAIN CONNECTION
Why Foot, Calf, Hamstrings & Spine Work as One Biomechanical System

The human body is not a collection of isolated muscles but a continuous kinetic chain, where tension, movement, and load are transferred through interconnected tissues. The structures shown in this image highlight the relationship between the foot, Achilles tendon, gastrocnemius–soleus complex, hamstrings, and the spinal extensor muscles. Together, these tissues form a major part of the body’s posterior chain, responsible for propulsion, posture, and load distribution during movement.

At the base of this chain lies the foot and Achilles tendon, which play a crucial role in absorbing and transmitting ground reaction forces during walking, running, and jumping. The Achilles tendon connects the gastrocnemius and soleus muscles to the calcaneus, allowing the ankle to generate plantarflexion and forward propulsion. Because the Achilles tendon is one of the strongest tendons in the body, it acts as a powerful energy storage and release structure during dynamic activities.

However, the Achilles does not function independently. The gastrocnemius muscle crosses both the ankle and knee joints, linking ankle mechanics with knee and hamstring function. When this muscle tightens or becomes overloaded, it can influence tension further up the chain. Excessive strain on the calf complex may increase tension through the hamstrings and the fascial structures of the posterior thigh.

The hamstrings then connect the lower limb to the pelvis. These muscles control hip extension and knee flexion while also helping stabilize the pelvis during walking or running. When the hamstrings are tight or fatigued, they can alter pelvic positioning, which in turn affects the lumbar spine. This is why tight hamstrings are often associated with altered pelvic tilt and lower back discomfort.

Continuing upward, the thoracolumbar fascia and spinal extensor muscles form the next link in the chain. These structures stabilize the spine and assist in transferring force between the upper and lower body. When the lower segments of the chain—such as the foot or Achilles tendon—experience dysfunction or inflammation, compensatory tension may travel upward through these fascial and muscular connections.

This interconnected system explains why problems in the foot or Achilles tendon can sometimes lead to symptoms in the calf, hamstrings, hips, or even the lower back. The body distributes mechanical stress across multiple tissues, so dysfunction in one area often influences movement patterns elsewhere.

From a biomechanical perspective, maintaining proper mobility and strength throughout the entire posterior chain is essential for efficient movement. Balanced calf flexibility, strong hamstrings and gluteal muscles, and stable spinal extensors allow forces to move smoothly through the body without overloading a single structure.

The key principle is simple: the body functions as an integrated system. When one link of the chain becomes restricted, weak, or overloaded, the entire movement pattern adapts. Restoring balance across the posterior chain helps maintain efficient biomechanics and reduces unnecessary strain on the musculoskeletal system.