As a neurological physiotherapist working in people’s homes, I regularly meet patients and families who are concerned about falls. Balance training can help reduce falls risk, but many people want to know whether improvements from balance exercises and physiotherapy will carry over into everyday life.
One question I hear often is:
“Will balance training actually help me stay safer?”
The answer involves more than simply asking whether balance training improves a test score. We also need to consider whether those improvements carry over into everyday activities and help reduce falls risk.
Research gives us good news. Balance training can reduce the risk of falling. However, improvements on a balance test do not always translate directly into better balance during everyday life.
Understanding why this happens can help physiotherapists design more effective rehabilitation programmes.
Balance training can reduce falls risk
Research consistently demonstrates that balance training can reduce the risk of falling.
Multiple systematic reviews and meta-analyses confirm that structured balance interventions can decrease both falls rates and the number of people experiencing falls. This is particularly relevant for older adults and neurological populations.
However, the picture becomes more complicated when we look at how improvement is measured.
A person may improve on a specific balance test without seeing the same improvement in everyday activities. This is where the concept of carryover becomes important.
Why does balance training not always carry over?
To understand this, we need to consider neuroplasticity.
Neuroplasticity is the brain’s ability to reorganise itself by forming new neural connections. It is a foundation of rehabilitation.
However, neuroplasticity follows specific principles. One of the most important is specificity of learning.
The brain does not simply learn “balance” in general. It learns the specific balance task being practised, in the specific context where it is practised.
The neural pathways that strengthen during training are closely linked to the movements, environment and demands of that practice.
This helps explain why transference cannot be assumed.
Transference means that learning in one situation carries over to a different situation. The brain encodes more than the movement itself. It also responds to environmental cues, sensory information, cognitive demands and the emotional context surrounding the activity.
If these factors change significantly, the learned skill may not automatically transfer.
This does not mean that balance training does not work.
Instead, it means that the brain has learned balance in the specific way we have taught it. That may be different from the demands of everyday life.
Does practice really make perfect?
There is ongoing debate within physiotherapy about task-specific training and how well improvements generalise to other activities.
For example, if a patient practises standing on one leg and improves their single-leg stance time, does that improvement automatically transfer to walking on an uneven pavement?
Or does it help them reach safely for something on a high shelf?
Research suggests that balance training tends to be highly specific.
If you repeatedly practise a particular balance task, you will improve at that task. However, this does not guarantee automatic improvement in other balance activities or overall stability during daily life.
From a neuroplasticity perspective, this makes sense.
The brain has adapted to the specific demands of single-leg standing in a quiet, well-lit clinic room, with a stable surface underfoot.
Walking on an uneven pavement involves different sensory inputs, muscle activation patterns, visual processing and anticipatory adjustments. These demands require different neural pathways.
This creates a practical challenge for physiotherapists.
We cannot possibly train every balance situation a person might encounter. Instead, we need to think carefully about which tasks to prioritise and how to encourage broader skill development that promotes transference.
What do balance outcome measures actually tell us?
Physiotherapists use standardised outcome measures to track progress during balance training.
Common tools include:
- The Berg Balance Scale
- The Timed Up and Go test
- The Functional Reach Test
- Other standardised balance assessments
These measures provide valuable information and help physiotherapists track progress and justify treatment interventions.
However, an improved score does not automatically mean that a person’s falls risk has reduced in everyday life.
For example, a patient might achieve a higher Berg Balance Score but continue to experience falls at home.
Why can this happen?
Outcome measures usually assess balance in controlled and predictable environments.
Real-world falls, however, often happen during more complex situations.
A person may be:
- Carrying shopping while unlocking a door.
- Turning around to answer the phone.
- Walking through a cluttered hallway in dim lighting.
- Trying to manage more than one task at the same time.
From a neuroplasticity perspective, the brain may have learned to perform well on the assessment task without necessarily developing all the adaptations needed for the unpredictable and multifaceted challenges of daily life.
A case study: when the outcome measure doesn’t tell the whole story
Colin was a community-dwelling adult who was making significant progress in his rehabilitation following a brain injury and multiple orthopaedic injuries.
He was referred to physiotherapy following repeated ankle inversion injuries during walking.
These incidents had become so problematic that he had consented to surgical intervention and was on the waiting list.
Following assessment and discussion, Colin agreed to trial a six-week ankle-focused rehabilitation programme as an alternative to surgery.
The single-leg balance test was selected as the primary outcome measure to track his progress.
The results were surprising.
After six weeks of dedicated rehabilitation, Colin demonstrated virtually no improvement in his single-leg balance time.
By conventional outcome measure standards, the intervention appeared unsuccessful.
However, his real-world outcomes told a completely different story.
- Colin experienced no further ankle inversion injuries from the start of treatment.
- He withdrew his consent for surgery because he no longer felt it was necessary.
- His subjective feedback was overwhelmingly positive: “My ankle feels much better and I am more confident.”
This case illustrates the disconnect between standardised outcome measures and functional improvement.
Colin’s single-leg balance score suggested treatment failure. Yet he achieved his primary goal: preventing ankle injuries and avoiding surgery.
The rehabilitation had clearly improved his ankle stability, proprioception or movement strategies during walking, even though these gains were not captured by the chosen outcome measure.
From a neuroplasticity perspective, Colin’s brain had developed the specific neural adaptations needed for safe walking. These included improved proprioceptive processing, better anticipatory ankle control and enhanced reactive strategies during gait.
These adaptations were highly specific to the functional task that mattered to him.
The static single-leg balance test simply was not measuring the right neural adaptations.
This raises important questions:
Were we measuring the right thing?
Should we have included functional outcome measures that were more specific to his walking difficulties?
Could dual-task assessments or community walking tests have better captured his improvement?
Colin’s case reminds us that standardised outcome measures provide valuable data, but they cannot replace listening to patients and assessing real-world functional changes.
Balance Training and Falls Risk: What Affects Carryover?
The question of carryover is important in balance rehabilitation.
We want improvements in measured balance abilities to translate into better function and, ultimately, reduced falls risk.
Several factors can influence whether this happens.
The environment matters
Training in varied, realistic environments can produce better carryover than exercises performed only in clinical settings.
This is one reason why home-based physiotherapy offers unique advantages.
A physiotherapist can address the actual environmental challenges a patient faces every day.
Cognitive demands matter
Balance in real life often requires us to pay attention to more than one thing at once.
For example, we might need to walk while talking, carrying something or thinking about where we are going.
Dual-task training combines balance activities with cognitive challenges. This may produce better functional carryover than isolated balance exercises.
Confidence and fear of falling matter
Physical balance is only part of the picture.
Even when balance capabilities improve, psychological factors such as fear of falling can limit functional carryover.
Addressing these concerns is therefore essential for meaningful progress.
Variety can improve transference
Introducing variability into practice can encourage the brain to develop more flexible and adaptable solutions.
This might involve changing:
- Surfaces
- Speeds
- Directions
- The level of challenge
Rather than developing a rigid response to one specific situation, variable practice encourages the development of skills that may transfer better to new situations.
What does this mean for neurological physiotherapy?
Understanding neuroplasticity can help physiotherapists maximise the effectiveness of balance training.
1. Include variety in balance training
Rather than repeatedly practising exactly the same task, introduce variations that challenge different balance systems and contexts.
This encourages the brain to develop more generalisable solutions and may improve transference.
2. Focus on meaningful activities
Work with patients to identify the activities they want or need to accomplish.
Training becomes more relevant when it directly addresses personal goals.
The brain learns best when practice is meaningful and contextually relevant.
3. Use objective measures alongside patient feedback
Standardised tests provide important information.
However, physiotherapists should also ask patients about:
- Their confidence
- Their activity levels
- Any falls
- Any near-falls
- Changes they notice in everyday activities
This broader perspective can provide a more complete picture of progress and may identify changes that formal assessments do not capture.
4. Include dual-task training
Where appropriate, incorporate cognitive challenges, conversation or secondary motor tasks into balance activities.
This can better replicate the demands of everyday life and promote neural integration across multiple brain systems.
5. Address the home environment
Home-visiting physiotherapists have an invaluable opportunity to assess and modify actual living spaces.
They can identify specific hazards and train patients in the environments where falls are most likely to occur.
This context-specific training can maximise neuroplastic adaptation to the situations that matter most.
A balanced approach to balance training
Understanding that balance training and falls risk do not always have a straightforward relationship does not diminish the value of balance training.
The evidence for falls reduction remains strong.
Instead, it encourages us to think beyond test scores and consider how we can promote meaningful transference.
The goal is not simply to improve numbers on an assessment form.
The goal is to enhance a person’s real-world stability, confidence and ability to take part safely in meaningful activities.
Achieving this requires thoughtful intervention design, varied practice opportunities and attention to the gap between clinical measurement and lived experience.
Conclusion
Balance training can reduce falls risk, making it an important component of neurological physiotherapy.
However, improvements in specific balance tasks and outcome measures do not automatically guarantee broader functional gains.
By understanding the neuroplasticity principles of specificity and transference, and recognising the limits of task-specific training, physiotherapists can design interventions that are more effective and relevant to their patients’ needs.
The most successful balance training programmes combine evidence-based exercises with functional practice, environmental modification, variable practice conditions and attention to psychological factors.
When we address balance holistically, design interventions that promote transference and focus on meaningful real-world outcomes rather than improved test scores alone, we provide the best opportunity for meaningful, lasting neuroplastic change.
Ready to improve your balance and reduce your falls risk?
At SP Therapy Services, our specialist neurological physiotherapists provide personalised balance training in your own home.
We can address your specific challenges in the environment that matters most: your everyday life.
Contact us today to discuss how we can support your safety and independence.
Tel: 0161 764 3799
Email: info@sptherapyservices.co.uk
About the author
Rob Butterworth, based in Blackburn, Lancashire
BSc (Hons) Physiotherapy Studies, UCLAN, 2009
Registered with the Health & Care Professions Council (HCPC).
Member of the Chartered Society of Physiotherapy (CSP).
Read Rob’s full profile here.
Serving Blackburn and surrounding areas
Rob provides home visits across Blackburn, Darwen, Burnley, Chorley, Preston and Bolton.
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