Most people have never had their walking assessed
Yet the way you walk is the single most repeated mechanical input your body receives every day. Here's what a proper gait assessment looks at, what it consistently finds, and why it changes everything about how chronic pain and injury get treated.
If you've been to a running shoe store and had someone watch you jog on a treadmill for thirty seconds before recommending a stability shoe, you've had something marketed as gait analysis.
That is not gait analysis.
A proper gait assessment is a systematic examination of how the entire body moves through the walking and running cycle, looking at the coordinated function of the hips, pelvis, thoracic spine, arms, feet, and ankles as an integrated mechanical system. It takes time. It reveals things. And what it consistently reveals explains why so many people have been in pain for years without ever getting a satisfactory answer.
Why gait is the starting point for everything
The average person takes between eight thousand and twelve thousand steps per day before a single training session. Each of those steps loads the body. Force travels from the foot through the ankle, up the leg, through the hip and pelvis, into the spine, and through the shoulder and arm. The direction and quality of that force is determined entirely by the mechanics of the gait pattern.
When gait mechanics are correct, force distributes efficiently across the system. No single structure absorbs disproportionate load. The body adapts positively to the mechanical input of daily movement.
When gait mechanics are dysfunctional, force accumulates in structures that weren't designed to carry it. Ten thousand steps per day of dysfunctional gait is ten thousand repetitions of a mechanical error, applied to the same structures, loading the same tissues in the wrong direction, day after day.
This is the origin of most chronic lower body and spinal pain. Not a training injury. Not a structural failure. A movement pattern that has been silently accumulating damage in specific structures across years of daily repetition.
Treating those structures without assessing the gait pattern that's loading them is treating the consequence while the cause continues to operate.
What we actually look at in a gait assessment at FP Brisbane
A gait assessment at FP Brisbane is not a treadmill observation. It is a systematic analysis of the entire movement system across multiple planes and multiple phases of the gait cycle. Here is specifically what we assess and why each element matters.
Hip extension through the push-off phase
This is the single most important mechanical variable in gait assessment and the one most consistently restricted in people with chronic lower body and spinal pain.
During the push-off phase of each stride, the hip of the trailing leg must extend fully to drive the body forward. When this extension is restricted, which it is in the majority of people who spend significant time sitting, the body compensates. The lower back extends instead of the hip. The pelvis tilts anteriorly to simulate the extension that isn't happening at the joint. The hamstrings and calf are recruited excessively to compensate for the hip's failure to drive.
The consequences of this single restriction travel upward through the entire system. Lower back pain. Anterior pelvic tilt. Hamstring tightness that stretching never resolves because the tightness is compensatory, not primary. Calf tension that produces plantar fasciitis. IT band overloading that produces lateral knee pain.
Every one of these presentations has at its root the same finding: insufficient hip extension in the push-off phase of gait. It is visible in a proper assessment. It is entirely missed in a thirty-second treadmill observation.
Pelvic behaviour through the stride cycle
The pelvis is the mechanical hub of gait. How it rotates, tilts, and shifts laterally through each stride determines how load is distributed above and below it throughout the entire system.
We assess anterior and posterior pelvic tilt through the stride cycle, lateral pelvic drop during the stance phase, and rotational symmetry between the left and right sides of the pelvis as they move through the gait cycle.
Lateral pelvic drop during stance, where the pelvis drops on the swing side because the stance-side hip abductors are not controlling it adequately, is one of the most consistent findings in people with IT band syndrome, lateral knee pain, hip pain, and lower back pain. It is almost never identified in standard musculoskeletal assessment because standard assessment doesn't look at the pelvis in motion.
Rotational asymmetry between the two sides of the pelvis is the finding that explains unilateral injury patterns. When one side of the pelvis is rotating differently to the other through the gait cycle, one side of the body is loading asymmetrically with every step. This produces injury that keeps recurring on the same side, or injury that alternates between sides, never fully resolving because the pattern driving it is never identified.
Thoracic rotation and arm swing
The thoracic spine should counter-rotate relative to the pelvis through each stride. As the right hip comes forward, the left shoulder comes forward and the thoracic spine rotates left. This counter-rotation dissipates rotational force through the spine and drives efficient arm swing.
When the thoracic spine is stiff, which is almost universal in people who spend significant time at a desk, this counter-rotation is reduced or absent. The rotational force that should be dissipated through the thoracic spine goes somewhere else. Usually into the lumbar spine. Sometimes into the cervical spine. Always into the shoulder girdle.
We assess the amplitude and symmetry of thoracic rotation through the stride cycle and the corresponding arm swing pattern. Reduced arm swing on one side is almost always a thoracic rotation restriction on that side. Absent arm swing bilaterally is almost always a global thoracic stiffness pattern that is loading the lumbar spine rotationally with every step.
This is the finding that explains upper back pain, neck pain, shoulder dysfunction, and many presentations of lumbar pain that have no obvious lower body cause. The thoracic spine stopped rotating. Everything above and below it absorbed the consequence.
Foot strike and loading pattern
How the foot strikes the ground and how it loads through the stance phase determines the quality of force that travels up the entire kinetic chain above it.
We assess foot strike position relative to the body's centre of mass. Overstriding, where the foot strikes well in front of the hip, creates a braking force that loads the tibial shaft, the knee, and the hip with every stride. This is one of the most common findings in runners with shin splints, knee pain, and hip pain.
We assess arch behaviour through the loading phase. Excessive pronation, where the arch collapses inward under load, internally rotates the tibia, increases IT band tension, and transfers load to the medial structures of the knee and lower leg. This is not a foot problem. It is a consequence of restricted ankle dorsiflexion and insufficient hip control upstream.
We assess ankle dorsiflexion under load because restricted dorsiflexion forces foot compensation that travels upward through every structure above it. This is the finding most consistently associated with plantar fasciitis, shin splints, IT band syndrome, and anterior knee pain, and the one most consistently absent from the assessments people have had before they come to us.
Rotational symmetry across the whole system
We assess the body's overall rotational symmetry from foot to shoulder. Does the left side load and rotate the same way as the right? Where are the asymmetries and what are they compensating for?
Rotational asymmetry in gait is the finding that explains injury patterns that don't fit any neat anatomical category. The person who keeps injuring their left shoulder has a rotational asymmetry that traces back to an old right ankle sprain. The person with right-sided lower back pain has a pelvic rotation asymmetry that traces to a left hip restriction. The spiral and lateral myofascial chains transmit these asymmetries across the body in patterns that make complete anatomical sense once you're looking at the whole system.
Standard assessment looks at the painful structure. Gait assessment looks at the system that's loading it.
What we consistently find
Across every presentation we assess at FP Brisbane, certain findings appear with a consistency that tells you something important about the relationship between how people move in 2026 and why so many of them are in chronic pain.
Restricted hip extension in gait is the most universal finding. It is present in almost every person we assess regardless of their presenting complaint. Years of sitting, combined with the anterior-chain dominant training that fills most gym programs, produces a population whose hips are not extending properly in the most fundamental movement pattern the body performs.
Thoracic stiffness is the second most universal finding. The person who sits at a screen for eight hours and then does a gym session has usually done nothing to restore the thoracic rotation that sitting eliminates. The rotational demand of gait is being absorbed by the lumbar spine and the cervical spine in almost everyone we assess.
Rotational asymmetry is present in the majority of people with a history of lower limb injury. An old ankle sprain from years ago is consistently producing a gait asymmetry that is loading one side of the body differently to the other. The injury is long forgotten. The pattern it created is still running.
These findings are not rare or complex. They are the predictable mechanical consequences of how most people move through modern life. They are consistent, they are identifiable, and they are correctable when the assessment is designed to find them.
Why this changes the treatment
When you know what the gait pattern is doing, treatment stops being a process of managing painful structures and becomes a process of correcting mechanical inputs.
The lower back doesn't need more strengthening. It needs the hip to start extending so the lower back stops compensating. The IT band doesn't need foam rolling. The lateral pelvic drop that's tensioning it needs to be corrected in gait. The plantar fascia doesn't need stretching. The ankle dorsiflexion restriction that's collapsing the arch needs to be restored in loaded movement.
At FP Brisbane, the gait assessment findings drive the corrective program directly. We correct what the assessment finds, in the sequence the body can adapt to, at the load the tissue can handle at that stage of the process. Nothing is prescribed that isn't driven by a specific finding.
Client result: "I'd had lower back pain, right knee pain, and recurring calf tightness for three years. Three different practitioners had treated three different things. At FP Brisbane the gait assessment showed restricted hip extension on the right side, a right thoracic rotation restriction, and an overstride pattern that was loading my right leg excessively on every step. Everything I'd been treated for was the same pattern expressing in different places. Six months of corrective work addressing the gait pattern and all three issues have resolved." Brisbane client
What this looks like at Functional Patterns Brisbane
A gait assessment at FP Brisbane is the starting point for every client regardless of their presenting complaint. It is not a prerequisite that adds time before treatment begins. It is the treatment foundation that makes everything that follows precise rather than generic.
We assess in the movements that actually matter, walking and loaded functional patterns, not in static positions on a table. We look at the whole system across the whole stride cycle, not at individual structures in isolation. And we use what we find to build a corrective program that addresses the mechanical input, not the painful output.
If you have chronic or recurring pain that hasn't responded to treatment focused on the painful area, you haven't had your gait assessed properly yet.
That is the starting point.
Frequently Asked Questions — Gait Analysis at FP Brisbane
What does a gait assessment at FP Brisbane involve?
A gait assessment at FP Brisbane systematically evaluates hip extension through the push-off phase, pelvic behaviour through the stride cycle including lateral drop and rotational symmetry, thoracic rotation and arm swing, foot strike and loading pattern, and ankle dorsiflexion under load. We assess in actual walking and running patterns rather than in static positions, looking at the whole body as an integrated mechanical system across the complete stride cycle.
How is FP Brisbane gait analysis different from what a podiatrist or physio does?
Standard podiatric gait assessment focuses primarily on the foot and ankle and often concludes with an orthotic prescription. Standard physiotherapy gait observation typically looks at one or two variables in isolation. At FP Brisbane we assess the complete mechanical system from foot to thoracic spine, looking at how the whole body is loading and rotating through gait and identifying the chain of compensations producing the presenting complaint. The goal is to correct the movement pattern, not to prescribe a device that manages it.
Do I need a referral for a gait assessment at FP Brisbane?
No referral is required. You can contact us directly to book an initial assessment. The assessment covers gait analysis and a full movement evaluation, and produces a corrective program specific to what we find.
Can gait analysis help with pain that isn't in my legs or feet?
Yes. Gait mechanics influence the loading of the entire body including the lumbar spine, thoracic spine, cervical spine, and shoulder girdle. Neck pain, upper back pain, shoulder dysfunction, and many presentations of lower back pain that have no obvious lower limb cause have consistent gait pattern findings that explain them. Restricted thoracic rotation in gait is one of the most consistent drivers of upper body pain that we find, and it is one of the least assessed variables in standard musculoskeletal practice.