All of these tissues influence the Lower Back and Hips:

• SI Joint Cartilage,
• Quadratus Lumborum,
• Ilio-Lumbar Ligament,
• Iliocostalis Lumborum and Thoracis,
• Multifidi,
• Rectus Abdominis,
• Psoas,
• Vastus Lateralis,
• Biceps Femoris,
• Gluteal muscles,
• Sacrotuberous/Sacroiliac Ligaments.

 

 

 

Do you remember how our bodies were once more efficient at self-healing? This analogy may help you understand.

Muscular skeletal homeostasis: The Bodies GPS.

Musculoskeletal homeostasis is simply the body's constant drive for balance and adaptation.

The Car's GPS:

• Goal-Oriented Navigation: GPS is designed to guide the car to a specific destination. If the route changes due to traffic, detours, or road closures, the GPS recalculates and adapts the path to stay on course.
• Constant Adjustments: The system continuously monitors the car's position and provides real-time corrections to ensure the car stays on track.
• Compensation for Errors: When the driver veers off the suggested path, the GPS compensates by recalculating, sometimes leading to longer, less efficient routes.

Musculoskeletal Homeostasis:

• Striving for Balance: The body uses its muscles, bones, and connective tissues to maintain equilibrium, ensuring that posture, movement, and internal processes support optimal function. Like the GPS, it continuously recalculates to achieve this balance. This is called the vestibular righting reflex.
• Constant Adaptation: Muscles, bones, and connective tissues adjust in response to external forces, habitual movements, injuries, or imbalances. These adaptations are the body's way of "re-routing" to maintain functionality.
• Compensation and Tension: Just as a GPS might take a more complicated route to avoid obstacles, the body compensates for structural or functional imbalances by recruiting different muscles or altering movement patterns. This can lead to muscular tension, overuse, and even chronic pain as the body tries to "correct" itself.

The Result:

While the car eventually reaches its destination, repeated recalculations can lead to inefficiencies in the journey. Similarly, the body's continuous adjustments to maintain homeostasis may result in muscular tension and compensation patterns. Over time, these compensatory patterns can disrupt the body's natural equilibrium, leading to discomfort or dysfunction.

This analogy underscores the importance of addressing root causes of imbalance in the musculoskeletal system, just as proactive driving and accurate GPS inputs prevent unnecessary detours.

The core principles of The Berry Method acknowledge, respect, and respond to how muscular adaptations and compensations create an underlying tension that impacts the entire body.

Until core muscular-skeletal balance and homeostasis are restored, the vestibular reflex remains activated. This interferes with various processes throughout the body.

This class focuses on reducing those core muscular adaptations and compensations.

Leg length and balance.

One common core compensation is presented when one leg is drawn up and appears shorter than the other, which may suggest unbalanced core muscle engagement.

Follow along...

The fluidity of your client's movement when lifting and extending their hips provides valuable insights into muscle tension and balance in the lower back and hips.

Assessing Balance in the Lower Back & Hips

When observing your client's movement, key indicators can help determine whether their lower back and hips are functioning in balance or if there are underlying imbalances affecting their mobility.

Controlled, Pain-Free Movement

• If your client can lift and extend their hips smoothly, without stiffness, discomfort, or compensatory movement, this suggests that their lumbar spine, pelvis, and hip muscles are working in harmony.

• If they struggle with pain, tension, or restricted motion, it may indicate tightness, weakness, or an imbalance in the surrounding musculature.

Even Engagement of Hip Extensors

• Ideally, your client's gluteus maximus, hamstrings, and core muscles should activate in a balanced way during movement.

• If their motion appears uneven or shaky, it could suggest muscle imbalances or strength deficits, where one group is compensating for another.

Stable Pelvic and Lumbar Alignment

• A well-balanced movement pattern means the pelvis and lower back remain stable throughout the motion.

• If you notice wobbling, arching, or excessive tilting, it may indicate weakness, tightness, or misalignment in the lumbar spine, hips, or surrounding stabilizers.

Adequate Hip Mobility and Flexibility

• Your client should be able to extend their hips without restriction, which requires flexible hip flexors (psoas, rectus femoris) and strong hip extensors (glutes, hamstrings).

• If they experience limited range of motion or anterior pelvic tilt, tight hip flexors may be restricting their movement, leading to compensations in the lower back.

Core Stability & Coordination

• A well-coordinated core (including the transverse abdominis, obliques, and multifidus) helps keep the lower back stable while allowing fluid hip movement.

• If their core stability is weak, you might notice excessive lumbar movement instead of isolated hip extension.

Possible Imbalances to Watch For

• Uneven movement → May indicate muscle dominance (e.g., hamstrings working harder than the glutes).

• Excessive arching in the lower back → Could suggest weak glutes or tight hip flexors.

• Hip shifting to one side → Might indicate pelvic misalignment or strength imbalance.

By assessing these movement patterns, you can identify where your client may need increased mobility, stability, or strength, allowing you to create a targeted approach to restore balance and improve functional movement.

They also serve as progress measures.

Conclusion

Smooth hip lifting and extension typically indicate healthy balance and coordination in the the lower back and hips.

However, compensations, stiffness, or instability may signal underlying muscle imbalances or movement restrictions.

One common compensation occurs when one leg is drawn up and appears shorter than the other, which may suggest unbalanced muscle engagement.

 

Studying the anatomical significance and influences of the gluteal muscles can enhance our understanding of body mechanics and overall health.

Anatomical Importance

-Structure and Location

• The gluteal muscles form the bulk of the buttocks and are located on the posterior aspect of the pelvis, covering the hip joint.
• These muscles connect the pelvis to the femur, forming a key part of the hip's musculoskeletal system.

-Biomechanical Influence

1. Postural Support

• The gluteal muscles are critical for maintaining an upright posture, providing stability to the pelvis and lumbar spine.

2. Locomotion

• During walking and running, these muscles stabilize the hip joint and pelvis, ensuring efficient transfer of energy.
• The gluteus maximus generates force during the push-off phase of gait, while the gluteus medius and minimus maintain balance and alignment.

3. Force Production

• These muscles play a central role in explosive activities such as sprinting, squatting, and lifting heavy objects, where hip extension is vital.

-Injury Prevention

• Dysfunction in the gluteal muscles can lead to compensatory movement patterns, increasing imbalance and pain in the Lower back and Hips.
  • Knee instability or patellofemoral pain syndrome.
  • Hip joint dysfunction.

-Influence on Daily Activities and Athletic Performance

• In daily activities like sitting, standing, and walking, the gluteal muscles work to support body weight and facilitate movement.
• Athletes heavily rely on gluteal strength and endurance for sports requiring agility, jumping, and change of direction.

-Clinical Relevance

A. Weakness or Dysfunction

• Poor pelvic alignment and lumbar strain.
• Reduced athletic performance.

In summary, the gluteal muscles are indispensable for lower body function, contributing to movement efficiency, joint stability, and overall strength. Their proper function is crucial for both everyday activities and peak athletic performance.

Structure of Ilio-Sacral Cartilage in the Sacroiliac Joint

1. Cartilage Composition:

   - Hyaline Cartilage: Covers the surface of the sacrum within the SI joint. Hyaline cartilage is smooth and facilitates low-friction articulation, allowing slight but essential movements between the sacrum and ilium.

   - Fibrocartilage: Covers the iliac surface of the joint. Fibrocartilage is a dense, tough form of cartilage that provides strength and resists compression, making it particularly suited for the load-bearing demands of the SI joint.

2. Dual-Layer Arrangement:

   - The combination of hyaline and fibrocartilage creates a unique, dual-layer structure that supports stability while allowing minimal, controlled movement. This layered structure allows the SI joint to function efficiently under heavy loads, such as during standing, walking, or lifting.

3. Joint Capsule and Synovial Fluid:

   - The SI joint has a joint capsule filled with synovial fluid. This fluid lubricates the cartilage surfaces, reducing wear and helping the cartilage withstand long-term pressure and stress.

 Function of Ilio-Sacral Cartilage

1. Shock Absorption:

   - The cartilage within the SI joint acts as a shock absorber, distributing forces from the upper body to the pelvis and legs. Fibrocartilage on the iliac side, especially, is critical in absorbing the compressive forces encountered during daily activities, such as standing or running.

2. Stability and Force Transfer:

   - The cartilage within the SI joint, with its dual-layered structure, helps provide stability to the pelvis. It resists excessive motion, which is important because the SI joint is more about stability than mobility. This stability aids in the transfer of forces between the upper body and lower limbs, protecting both the spine and pelvis from overload.

The Ilio-Sacro-Lumbar ligaments (more accurately known as the Iliolumbar ligaments and Sacroiliac ligaments) are critical connective structures in the lower back, helping to stabilize the pelvis, spine, and sacrum. They play significant roles in posture, movement, and load transfer across the pelvis and spine.

When the iliolumbar and sacroiliac ligaments are in a state of excessive tension or stress, they often exhibit symptoms and signs due to strain, inflammation, or compensatory changes in surrounding structures. Here are key indicators that these ligaments may be under stress:

Tension in the iliolumbar and sacroiliac ligaments can present with a mix of localized pain, restricted mobility, referred discomfort, and compensatory muscle guarding. If these signs persist or interfere with function, it may be beneficial to address any underlying biomechanical issues and pursue therapeutic interventions like physical therapy, postural correction, and strengthening exercises tailored to the lumbopelvic region.

The Iliocostalis Lumborum is one of the deep back muscles, part of the erector spinae group, which also includes the longissimus and spinalis muscles. It plays a key role in stabilizing the spine, maintaining posture, and facilitating movements of the lower back.

When the iliocostalis lumborum muscle is under stressful tension, it can lead to discomfort and functional limitations, especially in the lower back and spine. Tension in this muscle can arise from prolonged static postures (like sitting or standing), overuse, muscular imbalances, or improper biomechanics.

Corrective Massage for the iliocostalis lumborum can be beneficial for back health, posture, and movement efficiency.

 

When the Iliocostalis Thoracis muscle is under stressful tension, it can lead to discomfort, limited mobility, and postural issues in the mid-back. This tension can arise from repetitive use, poor posture, prolonged sitting, or activities that involve excessive twisting or side-bending. Here are some common signs and symptoms that may indicate the iliocostalis thoracis muscle is in a state of stressful tension:

• Mid-Back Pain and Discomfort
• Restricted Thoracic Mobility
• Stiffness After Prolonged Postures
• Postural Imbalance

   Rounded Shoulders or Hunching: Prolonged tension in the iliocostalis thoracis can contribute to a rounded shoulder or kyphotic posture, where the upper back appears hunched forward.

• Difficulty with Deep Breathing
• Fatigue and Muscle Weakness
• Radiating Pain or Sensitivity
• Pain with Specific Movements

 The Multifidi.

The multifidus muscles (plural: multifidi) are part of the deep spinal stabilizers and are essential for maintaining stability and control of the vertebral column. These muscles, located along the spine, are small but crucial for fine-tuning posture and spinal alignment, providing stability through segmental control of the vertebrae.

Function of the Multifidi

The multifidi play key roles in spinal stability, control, and balanced posture. Here’s a breakdown of their functions:

Segmental Stability

Spinal Control: The multifidi stabilize individual vertebral segments, preventing excessive motion and protecting the spine from shearing or rotational forces.

Preventing Vertebral Slippage: By controlling movement at each spinal level, the multifidi help prevent misalignment and vertebral slippage, supporting spinal health and alignment.

Postural Support

Endurance-Based Activation: The high proportion of slow-twitch fibers allows the multifidi to sustain low-level contraction over extended periods, helping to maintain upright posture, especially during prolonged sitting or standing.

Fine-Tuning Movements: The multifidi play a critical role in small adjustments needed to maintain balance and correct posture, such as counteracting slight forward or backward sways.

 Clinical Relevance

The multifidi are particularly vulnerable to dysfunction or atrophy, especially in people with low back pain or sedentary lifestyles.

Summary

The multifidi are essential, deep spinal stabilizers that maintain segmental alignment, posture, and control. Through their fine-tuned, endurance-based contraction, they play a fundamental role in supporting the spine during all forms of movement, helping to prevent injury and manage load distribution across the vertebral column. Rehabilitation and strengthening of the multifidi are often prioritized in managing and preventing low back pain.

 

The psoas major muscle is a long, thick muscle that originates in the lower spine and travels down to join with the iliacus muscle before inserting on the femur. Its function is crucial in hip flexion and maintaining lumbar spine stability.

 Anatomy of the Psoas Major

Location: The psoas major is located deep within the abdomen and pelvis. It lies along the lumbar spine, extending from the lower vertebrae to the femur.

Origin: The psoas major originates from the transverse processes, bodies, and intervertebral discs of the T12 to L4 vertebrae.

Insertion: The muscle runs downward and forward, eventually joining the iliacus muscle to form the iliopsoas tendon, which inserts on the lesser trochanter of the femur.

 Physiology

Muscle Fiber Type: The psoas major consists predominantly of slow-twitch muscle fibers (Type I), which are suited for endurance and stability. It also has a mix of fast-twitch fibers, allowing it to provide powerful flexion when needed.

Function

The psoas major has several key roles:

Hip Flexion: The primary function of the psoas major is hip flexion. When the muscle contracts, it lifts the femur toward the torso, a movement essential in walking, running, and other leg movements.

Trunk Flexion: When the legs are fixed, such as when lying down, the psoas major can help flex the trunk forward, assisting in movements like sitting up from a supine position.

Lumbar Spine Stabilization: The psoas major plays a vital role in stabilizing the lumbar spine, especially during movement and postural adjustments. Its position and attachments allow it to help control the curvature and integrity of the lumbar region.

 Clinical Relevance

The psoas major is involved in various postural and mobility functions, and tightness or weakness in this muscle can lead to low back pain, hip dysfunction, or postural imbalances.

The Gluteal muscles.

The gluteal muscles include three muscles: the gluteus maximus, gluteus medius, and gluteus minimus. Together, they play essential roles in stabilizing the pelvis, supporting posture, and enabling movements of the hip and thigh, such as walking, running, and climbing. Here’s a breakdown of their anatomy, physiology, and function:

Function: 

- Primary Functions: Abduction and internal rotation of the hip, assisting in pelvic stability.

- Activities Supported: Walking, running, single-leg stability, and hip stabilization.

 Collective Function of the Gluteal Muscles

The gluteal muscles work together to:

- Stabilize the Pelvis: Particularly during gait, preventing excessive tilt and helping balance the body on one leg as the other leg swings forward.

- Support Hip Movement: Allowing for a range of hip motions, such as extension, abduction, and rotation, critical for many daily activities and athletic movements.

- Maintain Posture and Balance: Assisting in the maintenance of an upright posture, particularly through the gluteus maximus, which prevents forward or backward tipping of the pelvis.

 Clinical Importance

Weakness or imbalance in the gluteal muscles can lead to:

- Lower back pain

- Knee pain (due to altered hip mechanics affecting knee alignment)

- Poor athletic performance

 

The Rectus Abdominis can enter a state of stressful tension due to factors like poor posture, repetitive strain, or prolonged periods of stress or anxiety. Recognizing the signs of this muscle being tense or overactive can help prevent further discomfort and guide appropriate treatment.

Indicators of stressful tension:

• Lower Back Pain
• Abdominal Pain and Tenderness
• Postural Imbalance and Rounded Shoulders
• Difficulty in Breathing Deeply
• Decreased Flexibility in the Torso
• Difficulty Performing Core Exercises
• Muscle Spasms or Cramping in the Abdominal Area
• Digestive Discomfort

The rectus abdominis is located near several digestive organs. Excessive tension in this muscle can increase abdominal pressure, potentially affecting digestion and causing symptoms like bloating or discomfort, especially after meals.

Excessive tension in the QL can cause a condition known as 'Quadratus Lumborum Syndrome', resulting in localized lower back pain that may radiate into the pelvis, sacrum, and even the lateral thigh. Overuse, poor posture, prolonged sitting, or heavy lifting can strain the QL, leading to pain and stiffness.
Indications of Quadratus Lumborum Muscle Tension:

• Lower Back Pain (One or Both Sides).
• Hip Pain and Tightness.
• Pain During Breathing.
     - Since the QL assists with rib stabilization and can influence breathing, excessive tension in this muscle can make deep breathing uncomfortable or painful.
  
• Pelvic Imbalance or "Hiking" of One Hip.
     - A tense QL can pull the hip up on the affected side, causing an uneven pelvis, often called a "hiked" hip.
• Referred Pain Patterns.
     - Tight QL muscles can create trigger points that refer pain to other areas, often causing discomfort in the hip, buttocks, groin, or outer thigh. This pain can sometimes be mistaken for sciatica, even though it originates from the QL.

This is where we incorporate the fascial component to help reduce core tensions. The primary focus is on adhesion techniques, which involve direct skin contact.

Please wear appropriate clothing for hands-on work.

Balance and Ease.

Healthy movement and muscular balance refer to the body's ability to move efficiently, smoothly, and without discomfort or compensation. When muscles are balanced, they work together in harmony, distributing effort evenly across joints and reducing unnecessary strain. This balance allows for fluid, controlled movements, proper alignment, and optimal force generation, all of which contribute to stability, strength, and mobility.

AKA: 'A state of Balance and Ease.'

In contrast, muscle imbalances, often due to repetitive stress, excessive tension, and adhesions, can lead to restricted motion, poor posture, and an increased risk of pain or injury.

Healthy movement is characterized by ease, coordination, and stability, indicating that muscles are functioning in their proper roles, supporting the body without excessive tension or effort.

AKA: 'A state of Balance and Ease.'

Taum's classes offer techniques and understanding to support muscular balance for enhancing overall physical performance and well-being.

 

The sarcomere is the basic functional unit of a muscle fiber and is responsible for muscle contraction. It consists of alternating thick and thin filaments that slide past each other to produce contraction.

 

Soft tissue adhesions refer to abnormal connections or fibrous bands that form between adjacent tissues or organs in the body. These adhesions can develop after surgery, trauma, or inflammation, and they can lead to complications such as pain, restricted movement, and dysfunction of the affected tissues.

Soft tissue adhesions can often significantly interfere with healthy movement.

 

Enthesis is the connective tissue where tendons, ligaments, or joint capsules attach to bone. It is a crucial anatomical structure that facilitates the transmission of mechanical forces between soft tissues and the skeletal system.

Function of Enthesis:

The primary function of an enthesis is to anchor tendons or ligaments to bones, allowing for efficient transmission of tensile forces.

It plays a vital role in maintaining the stability of joints and the integrity of the musculoskeletal system during movement and load-bearing activities.

 

 

The periosteum is a dense layer of vascular connective tissue that envelops the bones, except at the surfaces of the joints. It plays several crucial roles in bone health and function.

The Golgi Tendon Organ (GTO) is a proprioceptive sensory receptor organ that is located at the junctions where muscle fibers meet tendons. It plays a critical role in monitoring and regulating muscle tension to prevent muscle damage and maintain optimal muscle function.

 

 

Taum's approach to manual therapy is primarily influenced by the work of Lauren Berry Sr, Registered Physical Therapist and Structural Engineer.

 Structural engineering is a sub-discipline of civil engineering. Structural engineers design the 'bones and muscles' that create the form, shape, and function of structures.

They also work with and understand the plumbing systems within those structures.

One of Lauren's many unique gifts to the manual therapy world was the concept of soft-tissue balance and distortion.

This is so appropriate:-)

Click here for more information on Lauren.

 A Holistic approach.

It serves to remember that we, as therapists, do not heal anything. We simply recognize, respect, and support the body's 'built-in' healing ability.

I hope this information serves you and those you serve.

*Muscles, tendons, ligaments, membranes, and viscera.

Terminology

Entheses: Locations of stress concentration where tendons and ligaments attach to bone.

Origin: The beginning site, the more fixed attachment of the muscle. Can be considered as the anchoring point.

Insertion: The movable attachment of the distal end of the muscle.

Semi: Latin for "half" or "partial." It is commonly used to describe structures that are partially or incompletely formed or that exist in a half state.

Superior: Toward the upper part of the structure.

Supra: Indicates a position that is above or over another structure.

Inferior: Toward the lower part of the structure.

Anterior: Nearer to the front of the body.

Posterior: Nearer to or at the back of the body.

Medial: Near the midline of the body.

Lateral: Farther from the midline of the body.

Proximal: Near the point of attachment, center of the body.

Distal: Away from the trunk, from the center.

External: Towards the surface of the body.

Internal: Away from the surface of and within the body.

Plantar: Refers to the bottom of the foot.

Dorsal: Refers to the top of the foot.

Unilaterally: Contracting on one side.

Bilaterally: Contracting on both sides.

Inversion: To turn inward.

Eversion: To turn outward.

Synergist: Cooperating and supporting.

Antagonist: That which counteracts, opposes.

Agonist: The muscle directly engaged in contraction.

Proprioceptors: Proprioceptors are specialized sensory receptors that are responsible for providing information about the position, movement, and tension loads of muscles and joints.

For more information: Proprioceptors

Periosteum: The periosteum is a dense highly innervated membrane composed of fibrous connective tissue that closely wraps (invests) all bone, except that of the articulating surfaces in joints which are covered by a synovial membrane.

The periosteum is the most densely innervated, followed by bone marrow and cortex. It is important to recognize and respect the sensitivity of this membrane. It may well be the most sensitive component in the body.

For more information: Sensory Innervation of Human Bone

 "Peri-" is a prefix borrowed from the Greek meaning "around or about" and "-osteum" also comes from the Greek, from "osteon" meaning "bone", so periosteum literally means "around the bone."

Golgi Tendon Organ (GTO): A spindle-shaped structure near the muscular/tendinous junction. This structure is thought to function as a feedback system that monitors muscle tension, inhibits muscle contraction of the agonist, and facilitates contraction of the antagonistic muscle. The purpose of this mechanism is to prevent overuse and damage to the muscle and involved joint.

https://geekymedics.com/anatomical-terms/

 

https://www.footmaxx.com/component/content/category?id=24&Itemid=1123

 

https://www.orthonorcal.com/blog/a-patients-guide-to-foot-anatomy-21481.html