Diagnosis of Ehlers-Danlos syndrome is frequently delayed for years because symptoms span multiple bodily systems. Evaluated individually, these issues are often labeled as isolated conditions such as fibromyalgia, anxiety, or irritable bowel syndrome. Standard resting imaging can miss dynamic joint instability, while protective muscle guarding can create stiffness that disguises underlying hypermobility. Dr. Siefferman outlines an evaluation that connects whole-body symptom patterns, incorporates thorough physical examinations, and includes dynamic imaging alongside genetic testing to identify the core connective tissue disorder.
Dr. Jason W. Siefferman explains that hypermobility involves connective tissue laxity that extends beyond joint flexibility. When ligaments fail to support the skeleton securely, surrounding muscles step in to stabilize the joints, leading to muscle guarding, fatigue, and nerve irritation in the limbs, neck, and pelvis. Connective tissue weakness also affects blood vessels and internal organs, frequently overlapping with dysautonomia, POTS, and mast cell activation. Manhattan Pain Medicine evaluates these interconnected systemic patterns to identify the specific drivers behind chronic symptoms.
In this article, Dr. Siefferman explains why hip and groin pain frequently originates outside the hip joint itself. He describes how the lumbar spine, sacroiliac joints, hidden hernias, and pelvic nerves can refer pain to the outer hip or groin area. Irritated L4 or L5 nerve roots, SI joint instability, or tight psoas muscle guarding can mimic trochanteric bursitis or labral tears. A thorough evaluation of the full lumbopelvic system helps identify the primary driver of symptoms so treatment targets the true source rather than downstream discomfort.
Sacroiliac joint dysfunction often mimics herniated discs, piriformis syndrome, or pelvic floor tension because instability in the sacroiliac ligaments refers pain across the lumbopelvic region. Standard imaging performed while lying still frequently fails to reveal dynamic mechanical shifting that occurs during sitting or walking. Dr. Jason W. Siefferman explains that a complete evaluation requires movement assessments and physical examination of the entire lumbopelvic system. Identifying structural instability allows care to target underlying ligament laxity rather than focusing solely on secondary muscle guarding or localized inflammation.
Lumbar spinal stenosis often causes leg pain and heaviness during standing or walking, which resolves when sitting or bending forward. This posture-dependent pattern occurs because spinal extension narrows the spinal canal and compresses nerve roots. Tight hip flexors can aggravate this compression by pulling the pelvis into an anterior tilt, while dynamic instability may cause vertebrae to shift during movement. In this article, Dr. Siefferman explains how combining flexion and extension imaging with physical examination helps identify whether pain stems from nerve crowding, mechanical stress, or shifting vertebrae.
Dr. Jason W. Siefferman explains why MRI findings do not always match a patient's pain level in cases of herniated discs and nerve irritation. Static imaging captured while lying down can miss inflammatory disc changes, nerve tension, and structural stress that occurs during movement. Symptoms may arise from direct mechanical compression, chemical inflammation, or secondary tension downstream along the nerve path. A thorough evaluation connects imaging results with physical examination findings, movement patterns, and localized nerve testing to pinpoint the true source of pain.
Radiating leg pain is commonly attributed to either lumbar sciatica or piriformis muscle tightness, but these labels do not always identify the underlying mechanical issue. Spinal disc herniations at L4-L5 or L5-S1 can compress nerve roots, while a tight piriformis muscle can compress the sciatic nerve directly in the buttock. However, muscle guarding in the piriformis is frequently a protective reaction to an unstable sacroiliac joint, a hypermobile hip, or an irritated spinal nerve. Some patients present with a double-crush pattern where compression occurs at multiple points, requiring a comprehensive evaluation across the lumbopelvic region.
Dr. Siefferman discusses how radiating leg pain, often labeled as sciatica, can originate from multiple distinct sites beyond a lumbar disc herniation. Lumbar nerve root irritation may present distally as foot or calf pain, leading to misdiagnoses such as plantar fasciitis or tendonitis. In addition, pelvic mechanics, piriformis muscle spasms, and double crush nerve compressions can mimic or aggravate spinal radiculopathy. Evaluating the entire lumbopelvic region helps trace whether the pain stems from spine structural issues, joint instability, nerve compression, or a combination of mechanical factors.
Dr. Siefferman explains that recurrent low back pain often stems from unaddressed biomechanical drivers rather than treatment failure. Pain in the lumbar spine may be driven by distant mechanical issues, including tight hip flexors, pelvic ring instability, or anatomical variants like Bertolotti syndrome. Because static magnetic resonance imaging can miss dynamic movement under load, a complete evaluation requires mapping pain patterns, conducting a detailed physical exam, and taking motion imaging. Targeted diagnostic blocks can further help clarify which specific structure generates the patient's symptoms.
Dr. Siefferman outlines the role of lumbar epidural steroid injections in managing sciatica and low back nerve pain caused by disc herniation or spinal stenosis. Nerve irritation can arise from chemical inflammation or mechanical factors such as disc pressure, scar tissue, or nerve tethering. The procedure uses fluoroscopic imaging to deliver medication precisely to the affected environment, offering immediate diagnostic insight through local anesthetics and progressive anti-inflammatory action from corticosteroids over days to weeks. Reducing pain restores movement and allows patients to address underlying mechanics.
