Stroke Rehabilitation.
What is a stroke?
A stroke is a serious medical condition that occurs when blood flow to the brain is disrupted, leading to damage to brain cells. There are two main types: ischaemic stroke, which occurs when a blood clot blocks an artery supplying blood to the brain, and haemorrhagic stroke, which occurs when a blood vessel in the brain ruptures, causing bleeding.
Stroke is Australia's second leading cause of death and the leading cause of adult disability. Approximately 56,000 Australians have a stroke each year — one every nine minutes — and there are currently around 475,000 Australians living with the effects of stroke. The impact varies enormously depending on which area of the brain is affected and the severity of the event, but stroke consistently disrupts the neural pathways that govern movement, sensation, language, cognition and emotion.
What are the effects of stroke?
Stroke can result in a wide range of physical, cognitive, and emotional problems including weakness or paralysis on one side of the body (hemiplegia or hemiparesis), difficulty walking and balance problems, muscle stiffness and spasticity, fatigue, speech and language difficulties (aphasia), cognitive changes affecting memory and concentration, visual problems, and emotional changes such as depression or anxiety.
The specific deficits depend on the location and size of the stroke. Left hemisphere strokes typically produce right-sided weakness and aphasia — language difficulties. Right hemisphere strokes typically produce left-sided weakness and visuospatial neglect — difficulty attending to the left side of the visual field and body. Cerebellar strokes produce ataxia — coordination and balance difficulties. Brainstem strokes produce complex deficits affecting eye movement, swallowing, breathing and bilateral limb function.
Neuroplasticity — the basis for stroke recovery
Modern stroke rehabilitation is grounded in the neuroscience of neuroplasticity — the brain's capacity to reorganise its neural connections in response to experience and practice. Brain cells that die in a stroke cannot regenerate, but the brain can recruit adjacent and alternative neural pathways to take over functions previously performed by the damaged area. This reorganisation is directly driven by repetitive, task-specific practice — the more a movement or function is practised in a meaningful context, the stronger and more efficient the alternative neural pathways become.
This principle has a critical implication: the intensity and specificity of rehabilitation practice is the single most important modifiable factor in stroke recovery. Higher doses of practice produce better outcomes. The traditional rehabilitation model of passive treatment delivered by therapists is being progressively replaced by active, high-repetition, task-specific practice models that harness neuroplasticity more effectively.
The principle of early intervention
After a stroke, it's important to begin rehabilitation as soon as possible to improve the chances of recovery. The acute post-stroke period — particularly the first one to three months — is the window of greatest neuroplastic potential, when the brain is most responsive to rehabilitation input. This does not mean that recovery is impossible after this window closes — meaningful recovery continues for years after stroke — but it does mean that maximising rehabilitation intensity in the early months produces the best long-term outcomes.
What does stroke rehabilitation involve?
Stroke rehabilitation addresses the specific impairments produced by the stroke through a targeted, progressive program that changes as recovery progresses.
Motor recovery and movement retraining is the primary rehabilitation focus for most stroke patients. Physiotherapy can work with stroke patients to improve strength, mobility and coordination through range-of-motion exercises to prevent muscle stiffness and joint contractures, strength training to improve muscle function and prevent atrophy, gait training to improve walking ability and balance, and neurological rehabilitation to improve coordination and motor control.
Task-specific practice — practising the actual functional movements that are impaired, such as reaching, grasping, standing, and walking — is more effective than non-specific exercise for promoting neuroplastic recovery. The movements that are practised most are the ones that recover best, which makes careful selection of rehabilitation priorities important.
Gait rehabilitation is a central goal for most stroke patients. Restoration of safe, functional walking requires both the strength and the coordinated motor patterns to control the affected limb through the stance and swing phases of the gait cycle. Gait retraining addresses the characteristic post-stroke gait compensations — circumduction of the affected leg, excessive forward trunk lean, reduced step length — that develop when normal motor control is compromised.
Spasticity management addresses the increased muscle tone that develops in many stroke patients — characteristically affecting the elbow flexors, wrist flexors and finger flexors in the arm, and the plantar flexors and toe flexors in the leg (producing the equinovarus foot posture). Stretching, positioning, splinting and progressive strengthening of the antagonist muscles all contribute to spasticity management alongside medical interventions such as botulinum toxin.
Balance rehabilitation restores postural stability that is frequently impaired after stroke — both from the direct motor and sensory deficits and from the compensatory strategies that develop in response. Progressive balance challenges, standing practice and dual-task training are the primary interventions.
Upper limb rehabilitation — restoring hand and arm function — is one of the most challenging and most important aspects of stroke rehabilitation. Constraint-induced movement therapy (CIMT) — where the unaffected arm is restrained to force intensive use of the affected arm — has the strongest evidence base for upper limb recovery. Mirror therapy, mental imagery and repetitive task training are other evidence-based upper limb interventions.
Falls prevention is a critical safety goal throughout stroke rehabilitation. The combination of motor weakness, sensory deficit, balance impairment and fatigue creates significantly elevated fall risk, and falls during rehabilitation are both common and potentially catastrophic.
Our Balance and Bones exercise classes provide ongoing supervised exercise maintenance for stroke patients in the community rehabilitation phase.
How can Clinical Pilates help?
Clinical Pilates can be a valuable tool for stroke rehabilitation, helping to improve core stability and strength to support movement, enhance body awareness and coordination, improve balance and postural control, maintain range of motion and flexibility, and provide breathing exercises to improve lung function and reduce stress.
Clinical Pilates is adapted for stroke rehabilitation by our physiotherapists — equipment-based exercises on the reformer and other apparatus provide supported, controlled movement environments that allow meaningful active practice of affected limb movements in positions and ranges that are not yet possible in unsupported contexts.
NDIS and Chronic Disease Management Plans
Stroke rehabilitation physiotherapy is claimable under NDIS therapeutic supports for eligible participants. See our NDIS physiotherapy page for more detail. Both physiotherapy and exercise physiology for stroke patients managing chronic conditions and deconditioning is accessible through a Medicare GPCCMP (previously CDMP or EPC) with GP referral.
Our physiotherapists Yulia Khasyanova and Bethany Kippen and Exercise Physiologist Ash O'Regan all have experience in neurological conditions and are members of the Australian Physiotherapy Association.
To book or find out more, call us on 07 3706 3407 or book online below. We see patients from across Brisbane's southside including Tarragindi, Coorparoo, Holland Park, Greenslopes and Mt Gravatt.
A stroke is a serious medical condition that occurs when blood flow to the brain is disrupted, leading to damage to brain cells. There are two main types: ischaemic stroke, which occurs when a blood clot blocks an artery supplying blood to the brain, and haemorrhagic stroke, which occurs when a blood vessel in the brain ruptures, causing bleeding.
Stroke is Australia's second leading cause of death and the leading cause of adult disability. Approximately 56,000 Australians have a stroke each year — one every nine minutes — and there are currently around 475,000 Australians living with the effects of stroke. The impact varies enormously depending on which area of the brain is affected and the severity of the event, but stroke consistently disrupts the neural pathways that govern movement, sensation, language, cognition and emotion.
What are the effects of stroke?
Stroke can result in a wide range of physical, cognitive, and emotional problems including weakness or paralysis on one side of the body (hemiplegia or hemiparesis), difficulty walking and balance problems, muscle stiffness and spasticity, fatigue, speech and language difficulties (aphasia), cognitive changes affecting memory and concentration, visual problems, and emotional changes such as depression or anxiety.
The specific deficits depend on the location and size of the stroke. Left hemisphere strokes typically produce right-sided weakness and aphasia — language difficulties. Right hemisphere strokes typically produce left-sided weakness and visuospatial neglect — difficulty attending to the left side of the visual field and body. Cerebellar strokes produce ataxia — coordination and balance difficulties. Brainstem strokes produce complex deficits affecting eye movement, swallowing, breathing and bilateral limb function.
Neuroplasticity — the basis for stroke recovery
Modern stroke rehabilitation is grounded in the neuroscience of neuroplasticity — the brain's capacity to reorganise its neural connections in response to experience and practice. Brain cells that die in a stroke cannot regenerate, but the brain can recruit adjacent and alternative neural pathways to take over functions previously performed by the damaged area. This reorganisation is directly driven by repetitive, task-specific practice — the more a movement or function is practised in a meaningful context, the stronger and more efficient the alternative neural pathways become.
This principle has a critical implication: the intensity and specificity of rehabilitation practice is the single most important modifiable factor in stroke recovery. Higher doses of practice produce better outcomes. The traditional rehabilitation model of passive treatment delivered by therapists is being progressively replaced by active, high-repetition, task-specific practice models that harness neuroplasticity more effectively.
The principle of early intervention
After a stroke, it's important to begin rehabilitation as soon as possible to improve the chances of recovery. The acute post-stroke period — particularly the first one to three months — is the window of greatest neuroplastic potential, when the brain is most responsive to rehabilitation input. This does not mean that recovery is impossible after this window closes — meaningful recovery continues for years after stroke — but it does mean that maximising rehabilitation intensity in the early months produces the best long-term outcomes.
What does stroke rehabilitation involve?
Stroke rehabilitation addresses the specific impairments produced by the stroke through a targeted, progressive program that changes as recovery progresses.
Motor recovery and movement retraining is the primary rehabilitation focus for most stroke patients. Physiotherapy can work with stroke patients to improve strength, mobility and coordination through range-of-motion exercises to prevent muscle stiffness and joint contractures, strength training to improve muscle function and prevent atrophy, gait training to improve walking ability and balance, and neurological rehabilitation to improve coordination and motor control.
Task-specific practice — practising the actual functional movements that are impaired, such as reaching, grasping, standing, and walking — is more effective than non-specific exercise for promoting neuroplastic recovery. The movements that are practised most are the ones that recover best, which makes careful selection of rehabilitation priorities important.
Gait rehabilitation is a central goal for most stroke patients. Restoration of safe, functional walking requires both the strength and the coordinated motor patterns to control the affected limb through the stance and swing phases of the gait cycle. Gait retraining addresses the characteristic post-stroke gait compensations — circumduction of the affected leg, excessive forward trunk lean, reduced step length — that develop when normal motor control is compromised.
Spasticity management addresses the increased muscle tone that develops in many stroke patients — characteristically affecting the elbow flexors, wrist flexors and finger flexors in the arm, and the plantar flexors and toe flexors in the leg (producing the equinovarus foot posture). Stretching, positioning, splinting and progressive strengthening of the antagonist muscles all contribute to spasticity management alongside medical interventions such as botulinum toxin.
Balance rehabilitation restores postural stability that is frequently impaired after stroke — both from the direct motor and sensory deficits and from the compensatory strategies that develop in response. Progressive balance challenges, standing practice and dual-task training are the primary interventions.
Upper limb rehabilitation — restoring hand and arm function — is one of the most challenging and most important aspects of stroke rehabilitation. Constraint-induced movement therapy (CIMT) — where the unaffected arm is restrained to force intensive use of the affected arm — has the strongest evidence base for upper limb recovery. Mirror therapy, mental imagery and repetitive task training are other evidence-based upper limb interventions.
Falls prevention is a critical safety goal throughout stroke rehabilitation. The combination of motor weakness, sensory deficit, balance impairment and fatigue creates significantly elevated fall risk, and falls during rehabilitation are both common and potentially catastrophic.
Our Balance and Bones exercise classes provide ongoing supervised exercise maintenance for stroke patients in the community rehabilitation phase.
How can Clinical Pilates help?
Clinical Pilates can be a valuable tool for stroke rehabilitation, helping to improve core stability and strength to support movement, enhance body awareness and coordination, improve balance and postural control, maintain range of motion and flexibility, and provide breathing exercises to improve lung function and reduce stress.
Clinical Pilates is adapted for stroke rehabilitation by our physiotherapists — equipment-based exercises on the reformer and other apparatus provide supported, controlled movement environments that allow meaningful active practice of affected limb movements in positions and ranges that are not yet possible in unsupported contexts.
NDIS and Chronic Disease Management Plans
Stroke rehabilitation physiotherapy is claimable under NDIS therapeutic supports for eligible participants. See our NDIS physiotherapy page for more detail. Both physiotherapy and exercise physiology for stroke patients managing chronic conditions and deconditioning is accessible through a Medicare GPCCMP (previously CDMP or EPC) with GP referral.
Our physiotherapists Yulia Khasyanova and Bethany Kippen and Exercise Physiologist Ash O'Regan all have experience in neurological conditions and are members of the Australian Physiotherapy Association.
To book or find out more, call us on 07 3706 3407 or book online below. We see patients from across Brisbane's southside including Tarragindi, Coorparoo, Holland Park, Greenslopes and Mt Gravatt.
