Low-Impact Agility Training for Older Adults
Adapted agility drills of stepping, turning and reacting to cues: one way to carry out what Morat 2021 (meta-analysis, 20 trials, 1632 participants) reports, large effects of multimodal agility training on strength, mobility and endurance in older adults compared with inactive controls.
Keep impact low and support available; progress speed gradually.
- Two or more falls in the past 12 months, or any fall with injury
- Dizziness, lightheadedness, or fainting during standing or movement
- New or worsening unsteadiness, neurological symptoms, or numbness in the feet
- Fear of falling severe enough to restrict daily activity
How to do it
- Multimodal agility-like training adapts athletic agility, quick stepping, turning, reacting to cues, into low-impact drills suitable for older adults.
- Movements stay controlled and supported, emphasizing quick direction changes and reaction stepping with a support within reach rather than high-impact cutting.
What the evidence says
This practice is one way to carry out what the sources on the concept entry (phys.neuromotor.concept-agility-cod) studied: agility, coordination and reactive training and their effects on physical performance and postural reflexes. Morat 2021 (meta-analysis, 20 trials, 1632 participants) reports large effects of multimodal agility training on strength (SMD 0.88), mobility (SMD 0.84) and endurance (SMD 1.82), moderate effects on balance (SMD 0.6) and small effects on gait (SMD 0.41) compared with inactive controls, and concludes that it may serve as a time-efficient training modality. Lichtenstein 2019 (randomised trial) reports that agility-based training seems at least as efficacious as traditional strength and balance training on selected performance indicators in community-dwelling healthy seniors, and Lichtenstein 2023 (randomised trial) reports small effects in favour of agility training for gait speed (4.3% to 6.4%) and lower limb power (6.9%), with no significant effects for maximum strength, dynamic balance, cardiovascular capacity or cognitive function. Phu 2022 (meta-analysis, 37 articles, 1257 participants) reports that muscle activation after unpredictable perturbations is delayed in older adults, that regular exercisers were faster than sedentary people, and that longer-term trials indicate postural reflexes are responsive to training. The full account, source by source, is on the concept entry this practice links to (phys.neuromotor.concept-agility-cod).
- 'Agility is only for the young' (adapted agility improves older-adult mobility)
- 'Quick movements have no place in training for seniors' (Lichtenstein 2023 reports small effects of agility training on gait speed and lower-limb power in older adults)
- Does not guarantee prevention of any fall or injury
- Not a substitute for medical evaluation of dizziness, syncope, or unexplained falls
- Agreement
- Direction recorded for 1 of 11 sources; not yet recorded for the rest.
- The claim's outcome
- Outcome not yet recorded
- Certainty
- No source states a certainty rating.
- Authors
- Sources share authors: Eric Lichtenstein (first author of 2 sources); L. Donath (senior author of 2 sources).
- How the sources were read
- Some sources are based on abstracts, not full texts.
What each source measured and concluded (11)
- What it measured
- Postural control (spontaneous sway and postural reactions), TUG, FRT
- How it measured it
- Laboratory tests (force transducing platform, tilting platform), validated clinical tests (TUG, FRT)
- Direction it states for the claim's outcome
- Improved
- How it was read
- read in full text
- What it measured
- Balance (Stork Stand Balance Test) and neuromuscular coordination (McDonald Soccer Test)
- How it was read
- based on the abstract, not the full text
- What it measured
- Muscle onset latency (postural reflexes) following unpredictable perturbations
- How it was read
- based on the abstract, not the full text
- What the review says it includes
- Systematic review and meta-analyses
- Studies and participants, as stated
- N=1257 across 37 articles
- What it measured
- Neuromuscular, cognitive, and cardiovascular performance measures.
- How it measured it
- Objective tests for strength, power, balance, gait speed, aerobic capacity, and cognitive performance.
- How it was read
- read in full text
- What it measured
- Physical performance (strength, gait, balance, mobility, endurance).
- How it measured it
- Standardized mean differences (SMD).
- How it was read
- read in full text
- What the review says it includes
- Meta-analysis of 20 trials
- Studies and participants, as stated
- N=1632 participants across 20 studies
- Heterogeneity, as stated
- High study heterogeneity.
- Heterogeneity, as stated
- Heterogeneous control conditions.
- What it measured
- Static and dynamic balance, lower limb and trunk strength and rate of torque development, endurance.
- How it measured it
- Single leg eyes open stand, Y-balance test, reactive balance, plantar flexion and dorsal extension strength, trunk flexion and extension strength, rate of torque development, six-minute walk test.
- How it was read
- read in full text
- What it measured
- Agility performance measured by movement time (MT).
- How it measured it
- Reactive agility test involving 180-degree body rotations followed by a 5-m linear sprint (objective).
- How it was read
- read in full text
- What it measured
- Center-of-pressure (COP) velocity change score after proprioceptive perturbation
- How it was read
- screened only, not extracted
- What it measured
- Postural tremor amplitude and upper limb muscle coactivation after 6-week training
- How it was read
- screened only, not extracted
- What it measured
- Stability of movement coordination (synchronize/syncopate finger movements) and muscle recruitment
- How it was read
- screened only, not extracted
- What it measured
- Sports performance and motor coordination
- How it was read
- screened only, not extracted
- What the review says it includes
- Systematic review and meta-analysis
- Studies and participants, as stated
- 11 studies
Each source below is shown with its study design and a link to the original study, or, where it is not a completed research paper, with what kind of record it is; those are not counted. This is the audit trail.
Why do some records show a record type instead of a study design?
A study design is shown for a completed, peer-reviewed paper. A registered protocol, a preprint, a conference abstract, a referee report or a book chapter has not been through peer review as a finished paper, so it is labelled for what it is, and it is counted in no source count. Where a record could not be confirmed as a completed paper at all, it says so rather than guessing. They all stay in the list, and their DOI still resolves, because the count of what was screened is part of the audit trail.
- Protocol / registration A registered plan for a review or trial, not its results.
- Preprint Posted by its authors before peer review.
- Conference abstract A conference summary rather than a peer-reviewed paper.
- Peer-review report A referee's report on a paper, not the paper itself.
- Guideline / position stand A recommendation derived from evidence, which is a step further from the data than the evidence itself.
- Book chapter A chapter in a scholarly book rather than a journal paper.
- Type not recorded Our record does not say what kind of publication this is, so it is counted in no source count. That is a gap in our data, not a judgement about the research.
“Abstract only” means the review read that paper’s abstract, not its full text; “screened only” means it was included at re-screening and not extracted. Both stay in the trail with their DOI, because how a source was read is part of the audit.