SAS Sport and Remedial Massage

23/04/2026

Something I have experienced and had to have my left shoulder operated on as a result in 2021.

SHOULDER IMPINGEMENT SYNDROME: WHEN SPACE, CONTROL & TIMING FAIL

Shoulder impingement syndrome is not just a local tendon problem—it is a biomechanical failure of space management within the subacromial region. In a healthy shoulder, the humeral head glides smoothly beneath the acromion, maintaining an optimal subacromial space for the rotator cuff tendons and bursa. However, when this delicate balance is disturbed, repetitive compression begins to irritate the tissues, most commonly affecting the supraspinatus tendon and the long head of the biceps.

The key issue lies in poor humeral head control. The rotator cuff—especially supraspinatus, infraspinatus, teres minor, and subscapularis—acts as a dynamic stabilizer, keeping the humeral head centered in the glenoid. When these muscles become weak, delayed, or fatigued, the humeral head migrates superiorly during arm elevation. This upward translation reduces the subacromial space, causing mechanical compression against the acromion and coracoacromial arch.

Equally important is the role of scapular biomechanics. The scapula must upwardly rotate, posteriorly tilt, and externally rotate to maintain clearance during shoulder elevation. If there is scapular dyskinesis—often due to weakness of the lower trapezius and serratus anterior or tightness in the pectoralis minor—the scapula fails to create adequate space. This leads to a phenomenon where even normal arm movement becomes compressive rather than functional.

Another major contributor is soft tissue imbalance. Tight anterior structures, such as the pectoralis major/minor and anterior capsule, pull the shoulder into a protracted and internally rotated position. This alters the orientation of the acromion, effectively narrowing the subacromial space even before movement begins. At the same time, posterior shoulder stiffness can restrict humeral head glide, further increasing compressive forces.

Over time, this repeated mechanical irritation progresses from tendinitis to tendinosis and eventually partial or full-thickness tears if not addressed. The involvement of the long head of the biceps is also significant, as it shares the subacromial space and often becomes inflamed due to increased friction and altered shoulder kinematics.

From a functional perspective, impingement is best understood as a timing and coordination problem, not just a structural one. The shoulder relies on a precise rhythm between the glenohumeral joint and scapulothoracic motion. When this rhythm is disrupted, even simple activities like reaching overhead, lifting, or throwing become painful.

Clinically, this condition highlights the importance of restoring movement quality rather than just reducing pain. Addressing scapular control, improving rotator cuff activation, restoring thoracic mobility, and correcting postural alignment are all essential to re-establishing proper biomechanics. Without correcting these underlying factors, any symptomatic relief remains temporary.

Ultimately, shoulder impingement is a reminder that joint health depends on space, control, and coordination. When these elements are optimized, the shoulder functions as a highly efficient and mobile joint. When they are compromised, even normal movement can become a source of chronic pain and dysfunction

16/04/2026

Also applies to sitting at a desk. Regular breaks - ideally every 20 minutes can help..
Keep the Hip higher than the knee when sitting

PAIN WHEN DRIVING LONG HOURS 🛑

Do you feel pain in your lower back, hips, or legs after long drives? Does it get worse the longer you sit in the car?

Most people think it’s just sitting posture… but in many cases, the real issue is sustained hip flexion and nerve compression.

When you sit in a driving position for long periods, your hips stay in a fixed bent position. This increases pressure on the lower spine and can also compress the sciatic nerve in the glute area.

At the same time, your lower back muscles stay active to stabilize your body.

This creates:

Lower back pain after driving
Hip stiffness and discomfort
Tingling or radiating leg pain

It’s not just sitting… it’s prolonged compression in one position.

That’s why:

Pain increases with longer drives
Standing up brings relief
Symptoms may radiate down the leg

Adjusting seating position, taking breaks, and reducing continuous hip flexion can help reduce pressure and improve comfort during driving.

16/04/2026

Interesting and something I certainly get at the moment

The Achilles tendon is one of the strongest structures in your body…
but strength doesn’t mean invincible.

Every step you take adds load.
Every jump increases tension.
Every tight calf shifts more force down into the tendon.

Over time, that force doesn’t disappear — it accumulates.

And when a structure is exposed to constant pulling without enough recovery, it starts to change.

Not suddenly.
Not dramatically.
But slowly… like a cable being stretched beyond its natural range.

First comes stiffness.
Then discomfort.
Then pain during simple movements like walking or standing on your toes.

It’s not always a single injury moment.
It’s often a repeated stress pattern that the tendon can no longer fully absorb.

That’s why it feels like something is “tight” or “overstretched”…
when in reality, it’s a load management problem, not just a flexibility issue.

06/04/2026

One to consider and links in with the weak and shortened Psoas in a lot of individuals

Your “Lower Belly” Might Not Be Fat, It Could Be Anterior Pelvic Tilt 👇😯

👉 A lot of people blame belly fat when they notice this

Your lower stomach pushes outward
your lower back feels tight
and your posture looks slightly arched even when you are standing still

It can feel frustrating because the body may look “off” even when weight is not the real issue

Sometimes the problem is not fat at all

It is anterior pelvic tilt (APT)

This happens when the pelvis tips slightly forward, changing the natural alignment of the hips, core, and lower back

That forward tilt can make the lower belly appear more prominent and the lower back curve look exaggerated

👉 Why this happens is usually very relatable to modern life

Long sitting hours, weak movement habits, and not enough hip extension work can slowly create the perfect setup

The most common contributors are:

• tight hip flexors from too much sitting
• weak deep core muscles that cannot stabilize the pelvis
• underactive glutes that are not pulling the hips back into balance

When these three happen together, the pelvis stays tilted forward and the lower back starts taking extra tension

That is why people often feel:

• lower back tightness
• hip stiffness
• glutes not “firing” well
• belly sticking out even when lean
• poor standing posture

👉 The best stretch pattern is one that fixes all three together

Instead of stretching randomly, focus on a half-kneeling hip flexor stretch with a glute squeeze and gentle core brace

This works because it combines:

• hip flexor lengthening
• glute activation
• deep abdominal engagement

How to do it simply:

• kneel with one knee down
• tuck your pelvis slightly under
• squeeze the glute of the kneeling side
• gently brace your lower abs
• shift forward until the front of the hip stretches

The glute squeeze and slight pelvic tuck are the real secret

Without that, many people only arch the lower back more and miss the actual hip flexor

Sometimes posture changes are not about losing fat

They are about restoring muscle balance around the pelvis

Small alignment changes can completely change how the lower belly, hips, and back look and feel

Save this 📍
Someone chasing ab workouts may actually need to fix their pelvic position first

06/04/2026

Food for thought 🤔

“The Hidden Tendon That Quietly Changes Your Posture, Your Strength, And Even Your Appearance”

Most people focus on their back, their hips, or their neck when posture goes wrong…
but almost nobody pays attention to one of the first structures that sets the entire chain in motion:

the tendon of your anterior tibialis muscle, on the front of your shin

Here’s the real, simple, true version of why it matters:

When this tendon and muscle are weak, your feet stop supporting you properly
And when the feet collapse, the whole body has to compensate above it

A weak anterior tibialis can lead to:

• feet rolling inward
• lower leg rotating awkwardly
• knees and hips getting misaligned
• pelvis tilting forward
• extra tension in the back
• neck drifting forward

And yes, poor posture over time can change how your body looks:
your jaw position, airway openness, chest shape, and facial tension can all be influenced by the chain that starts from the feet

Not because the tendon “controls beauty,”
but because alignment affects breathing, muscle tone, and the way your face and body carry tension

The good news? It’s fixable

Strengthening the lower kinetic chain helps everything above it move better:

✔ barefoot walking (on safe surfaces)
✔ controlled tibialis raises
✔ balanced foot mechanics
✔ calf and ankle mobility
✔ hip and core stability work
✔ posture awareness during daily life

Small changes at the feet can create big changes throughout the body,
because your posture is a full-body system, not separate parts

Your feet are your foundation
Strong foundation → better movement → better posture → better appearance

06/04/2026

Huge Muscle and the Impact it has on the whole of the body

The one muscle that stores your stress, your fear, your tension… and your memories 🤔👇

If you’ve ever opened your hips in yoga or stretched deeply and suddenly felt emotional, shaky, or overwhelmed — you didn’t imagine it.
You touched your psoas, the deepest muscle in your core and one of the most sensitive parts of your entire nervous system.

This muscle is not just a hip flexor
It’s a fight or flight responder

---

Why this muscle holds so much tension

When you feel stress, fear, shock, or pressure, your brain triggers a protective reflex:
curl in, guard the organs, get ready to run.

That reflex contracts the psoas every single time.

In modern life:

• stress piles up
• we sit for long hours
• the body never gets to run, shake, or release the tension

So the psoas stays tight, shortened, and tired.

A tense psoas can contribute to:

• lower back discomfort
• tight hips
• shallow breathing
• restlessness
• increased stress response
• difficulty relaxing

Not because it “stores trauma” in a mystical way, but because it is deeply wired into the nervous system pathway responsible for safety, alertness, and survival.

---

The gentle release that works (no forcing, no deep stretching)

The psoas doesn’t like aggressive stretching.
It releases when the nervous system feels safe.

Try this simple, evidence-supported position:

Constructive Rest Pose

1. Lie on your back

2. Knees bent, feet flat on the floor

3. Let your knees fall inward so they rest against each other

4. Hands on your lower belly

5. Stay for 10–15 minutes

This position allows:

• the pelvis to settle
• the spine to decompress
• the psoas to soften naturally

You may feel warmth, tingling, or gentle shakes — all normal signs of relaxation.

---

Why this works

Your psoas sits beside:

• the diaphragm (breathing)
• the lumbar spine (stability)
• major nerves
• blood vessels

So when it relaxes, you breathe deeper, your nervous system calms, and the whole body feels safer

---

The truth in one sentence

Your psoas is not a storage locker for emotions — it’s the messenger between your stress and your body
When it finally relaxes, the whole system exhale

Save this, try it tonight, and see what shifts

26/03/2026

Last few appointments left In April,. especially before the London Marathon, these are
Monday 20th April - 11am
Thursday 23rd April - 8.30am
Cancellations could become available.
Post London I have got - Monday 27th April - 11am
Wednesday 29th April - 11am, 7.45pm.
Happy Training ☺️

14/03/2026

Worth Understanding 😃

The Posterior Oblique System: A Key Player in Functional Core Stability

The human body does not function as isolated muscles working independently. Instead, movement and stability are produced through integrated myofascial systems that connect muscles across different regions of the body. One of the most important of these systems is the Posterior Oblique System (POS), which plays a major role in core stability, force transfer, and efficient movement.

The Posterior Oblique System primarily consists of the gluteus maximus, the contralateral latissimus dorsi, and the thoracolumbar fascia (TLF). These structures form a diagonal sling across the back of the body, connecting the upper and lower extremities through the trunk.

Biomechanically, this sling system works during movements such as walking, running, lifting, and rotational activities. When the gluteus maximus on one side contracts, it creates tension in the thoracolumbar fascia, which simultaneously engages the latissimus dorsi on the opposite side. This cross-body activation forms a powerful stabilizing mechanism that helps control movement of the lumbar spine and sacroiliac (SI) joint.

The thoracolumbar fascia acts like a tension-transmitting sheet that links these muscles together. When both the gluteus maximus and latissimus dorsi contract, they tighten the fascia, creating a force closure mechanism around the sacroiliac joint. This increased tension improves pelvic stability and allows efficient force transfer between the lower limbs and upper body.

This system becomes especially important during gait mechanics. As one leg pushes off the ground, the opposite arm swings forward. The Posterior Oblique System coordinates this cross-body movement, ensuring that rotational forces are stabilized while the body moves forward efficiently.

When this system functions properly, it helps maintain lumbar spine stability, pelvic control, and optimal load distribution through the trunk. However, weakness in the gluteus maximus, poor activation of the latissimus dorsi, or dysfunction in the thoracolumbar fascia can disrupt this sling system. This may contribute to lower back pain, sacroiliac joint instability, and inefficient movement patterns.

From a biomechanical perspective, the Posterior Oblique System highlights the importance of integrated movement rather than isolated muscle training. Exercises that combine hip extension, trunk stability, and upper-body engagement—such as deadlifts, rotational movements, and functional pulling patterns—help strengthen this sling system.

Understanding the Posterior Oblique System reinforces a fundamental principle of human biomechanics: true core stability comes from coordinated muscle chains that connect the entire body, not just the abdominal muscles alone.

14/03/2026

A personal experience recently and I can vouch how painful this can be. Cupping, Needling and Manual Therapy can help. All these methods I incorporate in my treatments.

When Muscle Knots Refuse to Relax, This Technique Is Sometimes Used 🤔👇🏻

Many people live with stubborn muscle pain

That tight knot in the neck after long hours on a laptop

The painful spot in the shoulder that hurts when you lift your arm
Or the lower back stiffness that never fully disappears

Often these problems come from trigger points, small areas inside a muscle that stay constantly tight and irritated.

One technique physiotherapists sometimes use to release these knots is called dry needling.

It involves inserting a very thin sterile needle directly into the tight trigger point. This can help the muscle relax, improve blood flow, and reduce pain so normal movement becomes easier again.

Physiotherapists commonly use it for problems like:

• chronic neck or shoulder tightness
• sports injuries
• stubborn back pain
• muscle spasms that don’t respond to stretching or massage

It’s important to know that dry needling should only be performed by trained professionals who understand anatomy and sterile technique.

For many people, combining the treatment with stretching, strengthening exercises, and posture correction helps the muscle recover faster and prevents the knot from coming back.

Muscle pain is not always just “tightness”
Sometimes the muscle is simply asking for the right kind of release.

14/03/2026

Why GMed and GMin are key in stabilisation

PELVIC DROP & HIP ABDUCTOR WEAKNESS

This image demonstrates a frontal-plane pelvic drop during single-leg stance, a hallmark of hip abductor insufficiency commonly associated with a Trendelenburg pattern. To understand its patho-biomechanics, we must first examine normal load transfer during gait.

During single-leg stance, nearly the entire body weight acts medial to the hip joint center, creating an external adduction moment. The gluteus medius and gluteus minimus generate an internal abduction torque to counterbalance this force. Under optimal conditions, this force couple maintains a level pelvis, keeps the femoral head concentrically positioned within the acetabulum, and ensures efficient load distribution across the joint surface.

When the hip abductors fail to generate sufficient torque—due to weakness, pain inhibition, tendon pathology, or neuromuscular delay—the external adduction moment dominates. The pelvis drops on the contralateral side, and the stance hip moves into excessive adduction. This shifts joint reaction forces superolaterally within the acetabulum, increasing compressive stress on the superior articular cartilage while simultaneously increasing tensile strain along the lateral hip structures, including the gluteal tendons.

From a joint mechanics perspective, excessive femoral adduction often couples with internal rotation. This combination alters femoroacetabular alignment and may increase anterior hip joint stress. Repeated exposure to this altered vector can predispose individuals to gluteal tendinopathy, greater trochanteric pain syndrome, and even early degenerative changes due to abnormal cartilage loading.

The pathomechanics extend distally. Increased femoral adduction and internal rotation promote dynamic knee valgus. This elevates lateral patellofemoral joint stress, increases medial collateral ligament strain, and may amplify tibiofemoral compressive asymmetry. Over time, this can contribute to patellofemoral pain syndrome or medial knee overload conditions.

At the ankle and foot, compensatory pronation may develop to maintain balance as the center of mass shifts laterally. This alters subtalar joint mechanics and can increase strain on the plantar fascia and tibialis posterior.

Proximally, individuals often compensate with ipsilateral trunk lean toward the stance limb. While this reduces the hip abductor moment arm and temporarily decreases muscular demand, it increases compressive loading through the lumbar spine and may contribute to chronic low back discomfort.

Neuromuscular timing also plays a critical role. Delayed activation of the gluteus medius during initial contact reduces frontal-plane stability at a critical loading phase. Over time, the central nervous system may adopt maladaptive movement strategies that reinforce faulty mechanics, making the dysfunction persistent even after strength improves.

Effective rehabilitation must therefore go beyond isolated strengthening. It should address eccentric frontal-plane control, dynamic single-leg stability, neuromuscular retraining during gait, and integration into functional tasks such as stair climbing and running. Restoring pelvic control restores joint alignment, optimizes load distribution, and protects the entire lower kinetic chain.

Pelvic stability is not just a local hip issue. It is a biomechanical cornerstone that determines how forces travel from the ground to the spine. When the abductors fail, the chain compensates—and compensation, over time, becomes pathology.

09/03/2026

Worth doing regularly

A Simple Tennis Ball Can Relieve Foot and Back Pain
And Most People Already Have the Tool at Home

Many people live with tight feet and lower back discomfort without realizing how connected those two areas are.

You wake up and your heel hurts when you step down.
Your arches feel tight after a long day.
Your lower back feels stiff after sitting too long.

What many people don’t know is that the fascia in your feet is part of a larger chain that runs through your legs and into your back.

This connective tissue system helps transfer tension and movement throughout the body.

When the tissue under your feet becomes tight, it can affect how your legs and lower back move.

That’s where a simple tennis ball can help

Rolling your foot over a tennis ball creates a gentle form of self-myofascial release, a technique used in physiotherapy and sports recovery.

Here’s what happens when you do it

The pressure from the ball stimulates the muscles and fascia in the sole of the foot.
This can help loosen tight areas and increase local blood flow.

As the tissue relaxes, many people notice:

• reduced tightness in the arch
• less heel discomfort
• improved foot mobility
• relief from stiffness after long periods of standing or sitting

For people dealing with plantar fascia tightness, gently rolling under the arch and heel can sometimes ease tension in that tissue.

It may also indirectly help the lower back because relaxed feet can improve the way the body distributes pressure while standing and walking.

The method is simple

Sit comfortably
Place a tennis ball under your foot
Roll it slowly from the heel to the toes

Adjust the pressure so it feels firm but not painful
Spend a few minutes on each foot

It’s not a cure for every cause of foot or back pain, but many people find it a helpful daily habit for relieving tension and improving comfort.

Sometimes the most effective recovery tools aren’t complicated at all

Sometimes they’re already sitting in your house

09/03/2026

Excellent exercise for Strength and Mobility to the Hips, Spine and Pelvis..

GLUTE BRIDGE STRETCH
Activating & Lengthening the Anterior Chain

The Glute Bridge is often viewed purely as a strengthening exercise, but biomechanically it also provides an effective stretch to the anterior hip structures. In this position, the hips move into extension while the spine transitions toward neutral or slight extension, creating a lengthening effect across the hip flexors and anterior thigh.

When the pelvis lifts off the ground, the hip joint extends against gravity. This action stretches the iliopsoas and re**us femoris, especially in individuals who spend prolonged hours in sitting. Since sustained hip flexion shortens these muscles, the bridge position serves as a counter-postural reset by restoring hip extension range.

At the same time, active contraction of the gluteus maximus creates reciprocal inhibition of the hip flexors. This neuromuscular mechanism allows a deeper and safer stretch of the anterior chain without forcing passive end range. The posterior pelvic tilt often encouraged during the bridge further enhances lumbar stability and prevents excessive compressive stress on the lower back.

The thoracic region also benefits. As the chest gently opens, there is mild extension through the thoracic spine, helping counteract rounded-shoulder posture. If the hands are clasped under the body, anterior shoulder structures and the pectoral muscles experience a subtle stretch as well.

From a fascial perspective, the bridge integrates the posterior chain—linking the gluteals, thoracolumbar fascia, and spinal extensors—while simultaneously lengthening the anterior myofascial line. This coordinated engagement and stretch improves lumbopelvic control and overall movement efficiency.

Practiced with controlled breathing, the Glute Bridge becomes more than an exercise; it becomes a mobility and activation drill that restores hip extension, improves pelvic alignment, and reduces strain on the lumbar spine.

Mobility without stability creates vulnerability. Stability without mobility creates restriction. The bridge trains both.