Effectiveness of Task-Oriented Physiotherapy in Improving Balance and Gait
in Post-Stroke Patients
Abdullah A.
Alshalawi1*, Majed Jazi Alharbi2, Abdullah Aesh Sulaiman Alharbi3, Mansour Nijr
Alotaibi4, Eyed Ahmed Almalki5, Jehad Ahmad Almalki6,
Saleh Abdullah Alharbi7
1 Senior
Physiotherapist, at PSMMC, Riyadh, KSA
a.alshalawi@hotmail.com
2 Senior
Physiotherapist, PSMMC, Riyadh, KSA
3 Physiotherapist,
PSMMC, Riyadh, KSA
4 Physiotherapist, PSMMC,
Riyadh, KSA
5 Physiotherapist, PSMMC,
Riyadh, KSA
6 Radiology Technology
Specialist, PSMMC, Riyadh, KSA
7
Technician, PSMMC, Riyadh, KSA
Abstract: One
of the primary causes of long-term disability is stroke, which often results in
issues with gait and balance. Task-oriented physiotherapy, which emphasizes
functional, goal-directed activities, is one potential method of
rehabilitation. How much may task-oriented physical therapy aid stroke victims
in regaining their walk and balance? That was this study's main objective. A
narrative review was conducted using electronic databases, including PubMed,
Scopus, CINAHL, EMBASE, and Google Scholar, and included studies published in
English between May and June 2025. Keywords included "stroke,"
"post-stroke," "task-oriented physiotherapy,"
"balance," "gait," and "rehabilitation." Research
involving persons who had experienced a stroke, were receiving task-oriented
physical therapy, and had outcomes related to their gait or balance qualified
for inclusion. We succeeded in including seventeen studies. The study's design,
participant characteristics, treatments, outcome measures, and results were all
reported narratively. Throughout all 17 trials, task-oriented physiotherapy
continuously improved functional outcomes. Using the TUG test, there was an
improvement in gait speed in eight trials, walking endurance in nine, balance
in nine, and functional mobility in ten. High-intensity, progressive, and
functionally relevant task-oriented exercises had greater outcomes than
standard therapy. The majority of studies had moderate to outstanding research
quality. Task-oriented physical therapy may help stroke survivors improve their
functional mobility, gait, and balance. The therapeutic benefits are improved
when traditional stroke rehabilitation programs include task specificity,
repetition, and increasing complexity.
Keywords: Stroke,
Post-stroke rehabilitation, Task-oriented physiotherapy, Balance, Gait,
Functional mobility, Task-specific training, Neurorehabilitation.
INTRODUCTION
Having a
stroke, which is also the second most frequent cause of death, is one of the
primary reasons why individuals in Western countries are unable to work.
According to projections, the incidence of strokes in the Netherlands is
predicted to increase from an anticipated 1.8 per 1000 people in the year 2000
to 2.8 per 1000 people in the year 2020 [1]. The goal of rehabilitation after a
stroke is to enhance the possibility that a patient will be able to resume an
active lifestyle [2]. Rehabilitation is a conscious effort to achieve this
goal. Neuro-rehabilitation makes it possible to re-learn skills that have been
taught in the past in a different way [3]. This is accomplished via the use of
compensatory strategies or the adaptive recruitment of alternative neural
pathways. The primary objective of rehabilitation nursing is to assist people
who are coping with impairments or chronic diseases in reaching their full
functional potential, maintaining their health, and adjusting to new ways of
life [4].
The fact
that stroke is the major cause of disability does not change the reality that
there is no single method of rehabilitation that has been agreed upon by all of
the parties concerned. Neurodevelopmental treatment (NDT) and other traditional
approaches that focus on deficiencies and attempt to restore "normal"
movement patterns have not proven very successful [5]. Instead, they have
proved unsuccessful. Task-oriented training is one of the many innovative
rehabilitation techniques that have emerged as a viable answer as a result of
the remarkable discoveries that have been made in the field of neuroscience
over the course of the last twenty years. According to studies conducted using
neuroimaging techniques on both people and animals [6], many regions of the brain
that have been wounded exhibit distinct patterns of activity. In addition, it
has been shown that the lesioned hemisphere as well as the contralateral
hemisphere undergoes reconfiguration based on the mobility and experience of
the individual [7]. According to the research that is now available, functional
rehabilitation requires both the restoration of any functions that have been
damaged and the development of adaptive procedures that can compensate for any
impairment that have occurred.
The
literature does not provide a single definition of task-oriented training that
is universally accepted; nonetheless, it does emphasize the significance of
movement as an interaction between several brain systems, with organization
based on a functional purpose and contextual restrictions [9]. There are a
variety of interventions that are included in this. Some of these interventions
include cycling programs, sit-to-stand exercises, circuit training, overground
walking, treadmill training, and reaching activities for equilibrium
enhancement. Mental imagery, object grasping, and constraint-induced movement
therapy (CIMT) are examples of some of the functional exercises that are often
used in the process of upper limb rehabilitation. To promote work that is
meaningful and goal-oriented, task-oriented physiotherapy places the focus not
on the therapist but on the patient and the activity at hand. This is done in
order to help patients achieve their goals.
In the
aftermath of a stroke, the question of how much medicine should be taken is
still being debated. Rather of taking into account the amount of time it would
take to become an expert in a certain talent, the duration of an exercise is
frequently decided based on pragmatic considerations [10]. Based on the
findings of systematic research [11], it was shown that an increase in
treatment input of at least sixteen hours per week had a positive impact on
activities of daily living. Nursing professionals, who give care that is both
continuing and coordinated, are of considerable assistance in the process of
relearning and functional rehabilitation. An effective stroke unit is dependent
on a rehabilitation program that is well-structured, covers a wide range of
disciplines, and should begin as soon as it is possible after the stroke [12].
Nurses play a vital role in stroke teams by assisting patients in accomplishing
their task-oriented rehabilitation goals [13]. Two of the ways in which nurses
provide this assistance are by coordinating care and bridging gaps between
different disciplines.
OBJECTIVES
1.
To assess how well
post-stroke patients' balance is improved by task-oriented physical therapy.
2.
To evaluate how
task-oriented physical therapy affects post-stroke patients' functional
mobility and gait.
METHODOLOGY
This narrative literature review was conducted with
the intention of determining whether or not task-oriented physiotherapy was
beneficial to stroke survivors in terms of their gait and balance. During the
months of May and June 2025, a comprehensive search was conducted across a
number of internet databases, including Google Scholar, PubMed, Scopus, CINAHL,
and EMBASE, among others. The search was restricted to publications written in
the English language. AND/OR operators were included into the search strategy,
which covered stroke, post-stroke, task-oriented physiotherapy, task-oriented
training, balance, gait, walking, and rehabilitation. All of these subjects
were included in the search. Through the process of manually searching the
reference lists of relevant journals, more papers were discovered.
Study Selection Criteria
The studies were chosen because of how relevant they
were to the review's subject. This study's inclusion criteria were:
Research including:
•
Adults recovering from
a stroke
•
Physiotherapy and training
geared toward particular tasks
•
Balance and gait
results
•
Clinical trials,
observational studies, and quasi-experimental designs
Exclusion
criteria included:
•
Articles that only
discuss pharmaceutical or surgical treatments
•
Conference abstracts, editorials,
letters to editors, and unpublished data
•
Studies that do not
include stroke survivors
•
And articles with
insufficient methodological or outcome information
For the objective of giving theoretical framework and
clinical evidence, both original research publications and review articles were
taken into consideration.
Data Extraction and Organization
Relevant information was culled by hand from chosen
research and arranged in a descriptive fashion. The data that was extracted
consisted of:
Using narrative summaries, we looked for patterns,
commonalities, and variations among the studies in the retrieved data.
Data Synthesis
We used a method of qualitative narrative synthesis.
The results were organized and analyzed according to predetermined themes,
including:
In light of the fact that the objective of this review
was not to estimate impact sizes but rather to describe and integrate the
existing data, statistical pooling and quantitative synthesis were not carried
out.
RESULT
Study Selection
There were a total of 1,111 entries that were retrieved from the electronic databases. After removing 529 duplicates and evaluating each item based on its title and abstract, the original pool of 583 articles was reduced to 46 full-text articles. This was accomplished by narrowing down the pool. It was determined that sixteen of these studies did not meet the criteria for inclusion because they were either case studies, abstracts only, used treatments that were not appropriate, utilized different outcome measures, or lacking control groups. As shown in Figure 1, a total of seventeen publications were finally selected for inclusion in this review.

Figure 1. PRISMA Flow Diagram
Table 1. General
Characteristics of Included Studies
|
Study (Year) |
Age (Mean ± SD) |
Sample Size (M/F) |
Stroke Phase |
Intervention |
Control |
Outcome Measures |
References |
|
Gao et al., 2024 |
67.9 ± 7.0 / 65.5 ± 6.4 |
53/53 |
Subacute |
Task-Oriented Biomechanical Perception & Balance
Training |
Conventional Rehab |
BBS, FMA |
[14] |
|
Ali et al., 2020 |
60.81 ± 5.0 |
11/11 |
Subacute |
Group Task-Specific Training |
Individual Task-Specific Training |
BBS, TUG, 10MWT |
[15] |
|
Kim et al., 2016 |
50 ± 9.3 / 54 ± 7.1 |
15/15 |
Chronic |
Group Task-Oriented Circuit Training |
Individual Task-Oriented Circuit Training |
BBS, TUG, 6MWT |
[16] |
|
Cha & Oh, 2016 |
60 ± 3.2 / 58.6 ± 4.1 |
10/10 |
Chronic |
Task-Oriented Exercise Program with Mirror |
Task-Oriented Exercise Program |
BBS, TUG |
[17] |
|
Kuberan et al., 2017 |
58.8 ± 9.1 / 60.1 ± 7.6 |
13/13 |
Chronic |
Task-Oriented Training with Sensory Input |
Conventional Physiotherapy |
TUG |
[18] |
|
Kwon et al., 2015 |
50.7 ± 15.2 / 47.1 ± 18.6 |
20/20 |
Chronic |
Task-Oriented Treadmill Walking Training |
Conventional Treadmill Training |
TUG, 6MWT |
[19] |
|
Tsaih et al., 2018 |
48.6 ± 12.6 / 55.5 ± 12.4 |
24/23 |
Chronic |
Variable- and Constant-Practice EMGBFB + PT |
Upper Extremity Exercise + PT |
Gait Speed, TUG, 6MWT |
[20] |
|
Knox et al., 2018 |
51 ± 15 / 48 ± 14 |
51/48 |
Subacute |
Task Intervention |
Stroke Management |
Gait Speed, BBS, TUG, 6MWT |
[21] |
|
Verma et al., 2011 |
53.3 ± 8.5 / 55.1 ± 6.8 |
15/15 |
Acute |
Motor Imagery + Task-Oriented Circuit Class |
Lower Extremity Rehab |
Gait Speed, 6MWT |
[22] |
|
Yang et al., 2006 |
56.8 ± 10.2 / 60 ± 10.4 |
24/24 |
Chronic |
Task-Oriented Progressive Resistance |
No Rehab |
Gait Speed, 6MWT, TUG |
[23] |
|
Malik et al., 2021 |
40–70 |
26/26 |
Subacute |
Task-Oriented Training + Exercise Gaming |
Task-Oriented Training |
TUG, BBS |
[24] |
|
Kim et al., 2015 |
58.53 ± 11.83 / 61.24 ± 8.73 |
10/10 |
Subacute |
Routine Therapy + Tilted Table + Task-Oriented Training |
Routine Therapy + Tilted Table |
Gait Speed |
[25] |
|
Atif & Afzal, 2023 |
– |
15/15 |
Subacute |
Task-Oriented Walking |
Conventional Therapy |
BBS |
[26] |
|
Choi & Kang, 2015 |
61.5 ± 7.2 / 66.4 ± 9.3 |
10/10 |
Chronic |
Task-Oriented Training |
General Physical Therapy |
BBS |
[27] |
|
Mendoza et al., 2021 |
47.2 ± 8.8 / 49 ± 11.2 |
9/9 |
Chronic |
Task-Oriented Circuit Class Training |
Impairment-Focused Circuit |
Gait Speed, 6MWT |
[28] |
|
Van et al., 2012 |
56 ± 10 / 58 ± 10 |
126/124 |
Subacute |
Task-Oriented Circuit Training |
Outpatient Physiotherapy |
Gait Speed, 6MWT, TUG |
[29] |
|
Outermans et al., 2010 |
56.8 ± 8.6 / 56.3 ± 8.6 |
23/21 |
Subacute |
High-Intensity Task-Oriented Training |
Low-Intensity Physiotherapy |
6MWT, 10MWT, BBS |
[30] |
Notes: BBS – Berg Balance Scale, TUG – Timed Up and Go, 6MWT – Six-Minute Walk Test, 10MWT – Ten-Meter Walk Test, FMA – Fugl-Meyer Assessment.
Table 1 presents the features of the seventeen studies
that were included in the evaluation. These characteristics are shown in the
table. The complete sample consisted of both males and females, and the ages of
the participants ranged from forty to seventy, with the average age being
somewhere around fifty-six. The ages of the participants varied from small to
large research. As part of the study, patients who were in different stages of
recovery after stroke were involved. This was done so that the advantages of
task-oriented physiotherapy could be evaluated across many stages of recovery.
At the time of the research, there were nine patients in the chronic phase,
seven patients in the subacute phase, and nine patients in the acute phase.
Some of the participants in the intervention groups were given exercise games,
motor imagery, progressive resistance exercises, treadmill walking, or circuit
training. On the other hand, some of the participants in the control groups
were given conventional physiotherapy, outpatient rehabilitation, or no
intervention at all. The Berg Balance Scale, the Timed Up and Go test, the
Six-Minute Walk Test, and the Fugl-Meyer Assessment were the instruments that
were used in the majority of the research in order to analyze the results. Gait
speed and functional mobility were two more assessments that were performed.
Based on the information shown in the table, task-oriented treatments were used
regardless of the patient group, the stage of the stroke, or the functional
outcome measure.
Table 2. Outcomes
Characteristics
|
Outcome
Measure |
No. of Studies |
Summary of
Findings |
|
Gait
Speed |
8 |
Task-oriented
physiotherapy consistently improved gait speed in both subacute and chronic
stroke patients. |
|
Walking
Endurance (6MWT) |
9 |
Participants in task-oriented
programs showed greater walking distance and endurance compared to
conventional therapy. |
|
Balance
(BBS) |
9 |
Improvement in
balance was observed, particularly with progressive and functional
task-oriented exercises. |
|
Functional
Mobility (TUG) |
10 |
Reduction in TUG
time was noted, indicating enhanced functional mobility and postural control. |
The functional findings and the effects of
task-oriented physiotherapy were summarized in Table 2 of the studies that were
included in the review. Throughout the course of eight studies, patients who
had suffered from both short-term and long-term strokes shown consistent
improvements in gait speed. There were nine studies that measured walking
endurance using the Six-Minute Walk Test, and all of them demonstrated
statistically significant gains as compared to the conventional therapy. Nine
different research came to the conclusion that people's balance, as measured by
the Berg Balance Scale, shown a considerable improvement, particularly when
they participated in functional or progressive task-oriented exercises.
Functional mobility, as judged by the Timed Up and Go test in ten different
trials, also improved as a consequence of enhanced postural control and
increased self-assurance in movement. Task-oriented physiotherapy has been
shown to increase functional mobility, balance, and gait in a consistent
manner, according to empirical evidence.
Table 3. Quality Assessment
|
Study (Year) |
PEDro Score |
Quality |
|
Gao et al., 2024 |
6 |
High |
|
Ali et al., 2020 |
5 |
Moderate |
|
Kim et al., 2016 |
3 |
Low |
|
Cha & Oh,
2016 |
5 |
Moderate |
|
Kuberan et al.,
2017 |
7 |
High |
|
Kwon et al., 2015 |
5 |
Moderate |
|
Tsaih et al.,
2018 |
7 |
High |
|
Knox et al., 2018 |
8 |
High |
|
Verma et al.,
2011 |
9 |
High |
|
Yang et al., 2006 |
8 |
High |
|
Malik et al.,
2021 |
6 |
High |
|
Kim et al., 2015 |
5 |
Moderate |
|
Atif & Afzal,
2023 |
5 |
Moderate |
|
Choi & Kang,
2015 |
6 |
High |
|
Mendoza et al.,
2021 |
8 |
High |
|
Van et al., 2012 |
6 |
High |
|
Outermans et al.,
2010 |
6 |
High |
Notes: PEDro scores: Low ≤3, Moderate 4–5, High 6–10. Most studies were moderate to high quality.
The outcomes
of the PEDro scale, which was used to assess the level of methodological
quality of the research that were included, are shown in Table 3. There was a
total of seventeen studies, eleven of which were categorized as good quality
(PEDro ratings ranging from six to ten), five as moderate quality (scores
ranging from four to five), and one as low quality (scoring < three). Due to
the fact that high-quality studies often make use of acceptable procedures for
evaluating outcomes, such as randomization and allocation concealment, the
results may be relied upon with a greater degree of confidence. Research that
adheres to rigorous methodology lends credence to the findings of this study,
as seen by the majority of papers that range from moderate to high quality.
Table 4. Effectiveness of
Task-Oriented Physiotherapy
|
Outcome |
Effectiveness |
Key
Observation |
|
Gait Speed |
Improved in 8
studies |
Especially in
subacute and chronic patients; comfortable and maximal walking speeds
increased. |
|
6MWT |
Improved in 9 studies |
Walking endurance
significantly increased compared to conventional therapy. |
|
BBS |
Improved in 9
studies |
Balance improved
across subacute and chronic patients; high-intensity or progressive training
yielded better results. |
|
TUG |
Improved in 10
studies |
Functional
mobility improved; reductions in time were small to moderate but clinically
meaningful. |
Detailed information about the effectiveness of
task-oriented physical therapy on significant functional outcomes may be found
in Table 4. Over the course of eight trials, the gait speeds of the
participants rose, with improvements being seen in both their comfortable and
maximal walking speeds. This was particularly the case with those who were
suffering from subacute and chronic diseases. The results of nine trials that
demonstrated increases in walking endurance (as measured by the Six-Minute Walk
Test) demonstrated increased stamina as well as increased distances traveled
than before. The Berg Balance Scale was used to evaluate the effectiveness of
high-intensity or progressive task-oriented exercises on improving balance. The
results of nine different trials indicated no significant difference. In ten
separate trials, it was discovered that functional mobility, as determined by
the Timed Up and Go test, had improved. The reduced completion times indicated
that there were considerable improvements in both mobility and postural
control. Task-oriented physiotherapy is a kind of physical treatment that has
been shown to effectively improve gait, balance, and functional mobility in
stroke patients. Crucial components of this type of therapy are task
specificity, repetition, and functional relevance.
DISCUSSION
The results of this study shed light on the major role
that task-oriented physiotherapy plays in the rehabilitation process after a
stroke, specifically with regard to the enhancement of functional mobility,
balance, and gait functions. By doing functionally related workouts on a
regular basis, a person may be able to increase their cardiovascular endurance,
postural control, neuromuscular coordination, and gait speed. In a similar
vein, better scores in BBS and TUG indicate increased functional mobility in
day-to-day activities, as well as improved static and dynamic balance. This
goes hand in hand with the prior statement.
The results are the same for those who have had an
acute, subacute, or chronic stroke; however, those who have residual
neuroplastic potential and the capacity to carry out activities that are
repeated seem to enjoy the greatest benefits with regard to the outcomes. There
are a number of crucial aspects that need to be taken into consideration in
order to get the best possible results. These aspects include the task
specificity, the functional relevance, and the intensity of the therapy. There
have been a variety of therapies that have demonstrated positive outcomes,
including task-based gaming, progressive resistance workouts, treadmill walking,
and circuit training, amongst others.
Task-oriented therapies include exercises that are
organized, goal-directed, and intended to imitate real-life tasks. The purpose
of these exercises is to improve motor learning and functional recovery. The goal
of these workouts is to develop the athlete's motor abilities. To put this into
perspective, this is in contrast to the traditional approach to physiotherapy.
It is likely that we have a higher level of confidence in these results as a
result of the fact that the high-quality studies that were included in the
evaluation used acceptable randomization and outcome assessments. This review
has a limitation in that it was impossible to do a meta-analysis due to the
heterogeneity that occurred in the intervention techniques, sample sizes, and
outcome measures. This is a negative.
CONCLUSION
It is task-oriented physiotherapy that truly shines
when it comes to assisting stroke patients in regaining their balance, gait,
and functional mobility. A number of important aspects that contribute to
success include the specificity of the task, the frequency of practice, the
growing difficulty, and the practical application. It is recommended that
physicians include task-oriented training into stroke rehabilitation programs
in order to optimize the recovery of patients and raise their level of
independence in doing day-to-day activities. The use of standardized
methodologies and long-term follow-up should be investigated in further
research in order to further validate the effectiveness and durability of the
findings.
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