DEXA/RMR/VO2 Max/Across the North West
Journal

How Can You Improve Agility: A Practical UK Guide

17 October 2026

Hand-drawn athletes changing direction around the title How Can You Improve Agility

Agility is the ability to move, brake and change direction in response to what is happening around you. In sport, that response might be triggered by an opponent or a ball. In daily life, it might be a crowded pavement, a missed step or an object that suddenly shifts.

That makes agility broader than straight-line speed. A pre-planned cone drill mainly measures change-of-direction speed, while true sporting agility also involves perception and decision-making. Both can be trained, but they are not interchangeable.

The useful answer to how can you improve agility is therefore not simply to move your feet faster. Build enough strength and balance to control force, learn to decelerate before cutting harder, then add speed and unpredictable cues. The starting point must reflect current health, symptoms, training history and the demands of the activity.

This guide provides a practical framework, not an individual diagnosis or rehabilitation plan. New pain, swelling, repeated giving-way, fainting, chest pain, unusual breathlessness or a sudden loss of function needs appropriate assessment before harder training.

Table of Contents

Why Agility Slips Before Speed Does

There is no universal rule that agility declines before speed. Someone may retain straight-line pace but feel less certain when braking or reacting because the tasks place different demands on the body and brain. Another person may have the opposite pattern.

The distinction is especially important in sport. The UK Strength and Conditioning Association describes agility as changing direction in response to a sport-specific stimulus, using physical, technical, perceptual and decision-making skills. It describes pre-planned tests such as the T-test, pro-agility shuttle and 5-0-5 more precisely as change-of-direction tests (UKSCA agility guidance).

In practice, a person can therefore improve a timed cone drill without becoming equally good at reading an opponent. Equally, an experienced player may anticipate well while lacking the strength to brake cleanly at a sharper angle. Training should match the missing quality.

General physical activity remains the base rather than a substitute for specific practice. Current UK guidance asks adults to aim for at least 150 minutes of moderate-intensity activity or 75 minutes of vigorous-intensity activity each week, plus strengthening activity on at least two days. It also advises older adults to do balance activity on two days each week (UK physical activity guidelines for adults and older adults; full UK CMO physical activity guidelines). Any activity is better than none, and the guideline is a population target rather than a personalised agility prescription.

What usually fails first

Do not assume that one structure or muscle has failed. Instead, observe the phase in which quality changes:

  • Approach: does speed become too high for the planned turn?
  • Braking: can the person lower speed over several controlled steps?
  • Plant and turn: does foot placement remain stable and appropriate for the angle?
  • Exit: can the person reaccelerate without an extra stutter step?
  • Reaction: can the same movement be selected when the direction is not known in advance?

Research on change-of-direction biomechanics shows that the angle and approach speed alter braking demand, technique and knee loading. Faster and sharper cuts should therefore be treated as a higher demand, not merely as the same drill performed with more effort (angle and velocity review).

Practical rule: identify where control changes, then reduce speed, angle, complexity or fatigue until the movement is repeatable.

The Five Building Blocks of Agility

A five-part model is a useful coaching checklist, not a validated diagnostic system. The categories overlap, and different sports place different weight on each one.

  1. Strength and force capacity. The legs and hips need enough capacity to absorb force and push into the next movement.
  2. Braking and change-of-direction skill. Deceleration, foot placement, body position and the angle of the cut are learned skills.
  3. Balance and whole-body control. Single-leg control and the ability to organise the trunk and pelvis help the person manage a changing base of support.
  4. Perception and decision-making. Reactive agility depends on noticing a cue, choosing an action and executing it.
  5. Work capacity. Aerobic and sport-specific conditioning help a person repeat efforts, but cardiorespiratory fitness does not by itself prove good agility.

A systematic review of pro-agility shuttle training found that sprint, plyometric, resistance and combined programmes could improve the planned test in the studied groups. That does not make one method universally best, and improvement in a closed test should not automatically be called better reactive agility (pro-agility systematic review).

What each block looks like in training

Strength can begin with a sit-to-stand, squat, hinge, step-up or supported split squat. The appropriate variation is one that can be performed through a manageable range without a concerning symptom response. Progress might mean a little more load, range or control rather than a harder exercise every week.

Braking practice can begin with walking to a deliberate stop, progress to a gentle jog and stop, then add planned turns. Balance work might use a supported single-leg stance, step-down or controlled lateral step. A single-leg training resource gives examples of ways to scale unilateral work, while the functional movement patterns guide explains why an observation should not be turned into a diagnosis.

Trunk work can help someone maintain a useful body position, but the word “core” should not become a promise that one exercise prevents pain or injury. This commercial guide on core training contains exercise examples, but it is not clinical evidence and its claims should not be used to diagnose the cause of back pain.

Reactive work begins only after the basic movement can be performed predictably. A partner can point left or right, roll a ball or move into space. Sport-specific cues are usually more relevant than random lights because the athlete must learn what information matters in the activity.

Aerobic conditioning supports repeated practice and recovery between efforts. A VO2 Max Test measures cardiorespiratory fitness during graded exercise; it does not measure agility, balance or cutting technique. It may be useful when aerobic capacity or training zones are the actual question. Anyone with relevant cardiovascular, pulmonary or metabolic disease, concerning symptoms or clinician-directed restrictions should obtain appropriate clearance before maximal testing or vigorous exercise.

Quick self-check

Use these observations to select a starting point, not to label a medical problem:

  • A supported split squat or step-down is difficult: begin with a more stable strength variation and a smaller range.
  • Single-leg stance is uncertain: use support and practise balance before adding speed.
  • A planned turn is untidy: reduce approach speed or turn angle and rehearse the braking steps.
  • A planned drill is good but a live cue causes hesitation: add simple decision-making without increasing speed at the same time.
  • Quality falls quickly across repetitions: extend recovery, reduce volume and develop general conditioning.

Change one demand at a time. Increasing speed, angle, unpredictability and fatigue together makes it difficult to know what the person can actually control.

Movement Screening and Mobility Fundamentals

A movement screen records what happened in a task. It cannot, by itself, identify a damaged structure, diagnose weakness in one muscle or predict an injury.

Useful starting observations include a comfortable squat or sit-to-stand, a supported single-leg stance, a step-down, a low-speed stop and an easy planned turn. Record pain, confidence, use of support and whether performance changes substantially between sides. Limb symmetry alone is not proof of readiness because both sides may be detrained.

The ankle, knee, hip and trunk contribute to a turn, but there is no single ideal shape for everybody. A heel lifting in a squat, a knee moving inwards or the trunk leaning can have several explanations, including task setup, body proportions, load, confidence, fatigue, mobility and habit. The next step is to adjust the task and ask a better question, not to make a diagnosis from appearance.

A gradual warm-up can move from easy whole-body activity to the patterns and speeds required in the session. For example:

  1. Walk or cycle gently until movement feels comfortable.
  2. Rehearse ankle, hip and trunk movements through a manageable range.
  3. Perform easy squats, split stances and lateral steps.
  4. Add walk-to-stop or jog-to-stop repetitions.
  5. Practise the intended turn at low speed before faster work.

Systematic-review evidence suggests that appropriately implemented neuromuscular warm-ups and progressive loading may support performance and reduce injury risk in athletes, but programmes and study populations vary considerably (warm-up and training review). A warm-up reduces uncertainty; it does not guarantee protection from injury.

Persistent or worsening pain, substantial swelling, repeated joint giving-way, unexplained weakness or numbness, or a marked loss of function warrants appropriate clinical review. Stop exercise for chest pain, fainting, dizziness, uncomfortable breathlessness or a new irregular heartbeat and seek appropriate medical help. NHS cardiac rehabilitation safety guidance lists these as reasons to stop rather than push through (NHS exercise safety guidance).

Strength and Single-Leg Stability Foundations

Strength training can improve the capacity used during braking and reacceleration, but exercise selection should match the person. A supported split squat may be a better starting point than a deep rear-foot-elevated split squat. A low step may be more useful than an unstable surface. Stability is not made better simply by making an exercise wobblier.

Choose two or three lower-body patterns that cover a knee-dominant movement, a hip-dominant movement and calf or ankle work. Add a carry or trunk exercise if it serves the goal. A set should finish while the person can still control the range and position. Pain, technique changes and the next-day response help determine whether the dose was appropriate.

UK guidance recommends strengthening the major muscle groups on at least two days each week. That is a public-health target rather than a rule that every agility programme needs exactly two gym sessions. Training age, sport practice, recovery and health conditions change the right dose.

An example week for a currently healthy adult might look like this:

DayMain focusExample workQuality check
MondayStrengthSquat or split squat, hinge, calf work, trunk controlLeave repetitions in reserve and keep the final rep controlled
WednesdayBalance and techniqueSupported single-leg work, step-downs, gentle brakingUse support and reduce range if confidence falls
FridayStrength and planned turnsStep-up, lateral strength, carries, low-speed change of directionStop before alignment or symptoms deteriorate
WeekendAerobic baseBrisk walking, cycling or another suitable steady activityWork at a sustainable intensity appropriate to current capacity

This is a template, not a prescription. Sport sessions, rehabilitation, physically demanding work and existing training all contribute to the weekly load.

Plyometrics and Change-of-Direction Progression

Plyometrics use rapid stretch-shortening actions such as hopping, jumping and bounding. They can help develop force quickly, but they are not the first requirement for everyone who wants to move more confidently.

Start by controlling landing and braking at an appropriate speed. Then progress the demand in a clear sequence:

  1. Low-speed deceleration: walk or jog to a balanced stop.
  2. Planned direction change: use a known route and a comfortable angle.
  3. Low-level elastic work where suitable: small hops, skips or step-and-stick landings.
  4. Faster or sharper planned cuts: increase one variable while preserving control.
  5. Reactive work: respond to a relevant visual, verbal, ball or opponent cue.

The exact order can change. Some people may use low-level hopping before harder cutting, while others should avoid impact and build strength, balance and walking speed first. Faster and sharper changes increase braking and knee-loading demands, which is why speed and angle should be progressed deliberately rather than together.

The older-adult evidence should also be described carefully. A systematic review found 12 studies involving 289 participants, with mean ages from 58.4 to 79.4 years. None of the included studies reported an increased occurrence of injuries or other adverse events related to the plyometric programmes. That small, selected and generally supervised evidence base suggests plyometrics can be feasible for some older adults; it does not prove that unsupervised jumping is safe for everyone (older-adult plyometric review).

For younger players, this commercial agility guide for young athletes illustrates ladder, cone and ball drills. Treat it as a source of drill ideas, not proof of effectiveness. Ladder work can practise foot placement, but a predetermined pattern does not reproduce the force, perception and decision demands of live play.

Progress only when the current task is repeatable, symptoms are acceptable and recovery is adequate. A previously injured athlete should integrate change-of-direction work with the treating clinician or rehabilitation professional. A commercial clinic’s sports injury rehabilitation guidance also describes staged return, but it is not a substitute for diagnosis, local clinical care or evidence-based rehabilitation.

Testing Agility Without Fooling Yourself

The test must match the question. The 5-0-5, T-test and pro-agility shuttle are repeatable planned tasks, so they are useful measures of change-of-direction speed. They do not recreate an opponent’s movement or prove better decision-making.

A practical battery can therefore include:

  • one planned test with a fixed distance and turn angle;
  • one simple reactive task using a relevant cue;
  • movement notes about braking, foot placement and confidence;
  • a record of pain or other symptoms during and after the session.

Keep the warm-up, surface, footwear, course, cue and timing method as consistent as practical. Do not compare hand timing in one session with electronic timing in another. Avoid testing after a very different training load and do not interpret a single unusually fast or slow attempt as a durable change.

Testing every week may measure familiarity, fatigue and motivation more than adaptation. A planned review after a meaningful training block is usually more useful. If the result will not change training, the test is probably unnecessary.

A lightweight tracking template

  • Date and context: surface, footwear, recent training and recovery.
  • Planned result: course, timing method and best technically acceptable effort.
  • Reactive task: cue, distance and whether the response was correct.
  • Movement notes: braking steps, turn angle, balance and confidence.
  • Symptoms: during the session and later that day or the next morning.
  • Decision: progress one variable, repeat the same dose or make the task easier.

A faster time with less control or more pain is not an automatic improvement.

Functional Agility for the 40-Plus Reader

Forty is not a clinical threshold. Training history, current capacity, medical conditions, previous injury, balance confidence and goals matter more than a birthday. Some people in midlife can begin with demanding sport-specific work, while others need a supported balance and strength programme.

The term functional agility can be useful when the goal is everyday movement rather than competition. Turning in a small space, recovering from a trip, stepping down from a kerb and changing pace on stairs combine balance, coordination, strength and decision-making. They should still be trained progressively.

An Age UK Derby and Derbyshire campaign page reported that 54% of adults aged 50 to 65 in its cited national analysis underestimated the weekly activity recommendation by at least 20%. It also listed fear of injury in 13% among reported barriers to activity. These are campaign polling figures about knowledge and barriers, not evidence that agility training prevents injury or that every adult in this age group is inactive (Age UK Derby and Derbyshire).

For people aged 50 and over who are at higher risk of falling, NICE recommends that falls-prevention exercise is progressive, tailored to the person’s needs, preferences, goals and abilities, delivered by appropriately trained professionals and focused on relevant components such as balance, coordination, strength and power (NICE NG249 recommendations). That is more specific than telling every person over 40 to perform the same cone circuit.

The internal fall risk assessment resource explains why recurrent falls, gait or balance impairment, medicines, vision, cardiovascular factors and the home environment may all need attention. Agility drills do not replace a falls assessment when one is indicated.

Readiness markers that actually matter

Before increasing speed or unpredictability, look for:

  • a pain-free or clinically acceptable response to the current exercise;
  • controlled stopping at the current approach speed;
  • the ability to repeat the task without rapid loss of technique;
  • confidence rather than freezing or protective movement;
  • recovery that allows the next session to be completed as planned.

Bone-density or body-composition testing is not an agility test. In the UK, non-medical DEXA for sports performance, general body-composition analysis or fitness profiling is currently prohibited. A DEXA body-composition scan at Telomyx is considered only within a medically governed pathway: every request uses a medical questionnaire, requires a referral and must be individually justified by an entitled practitioner. Initial interest may relate to body composition, weight management, fitness or sport, but that interest is not the clinical justification and does not guarantee a scan. Pregnancy and other suitability factors are screened, and Telomyx does not refer or scan someone when the exposure is unsuitable or cannot be medically justified (UK government DEXA position; IR(ME)R guidance).

DEXA results also need the correct clinical context. T-scores are preferred for postmenopausal women and men aged 50 or older, while Z-scores are preferred before menopause and in men younger than 50. The skeletal site and wider fracture risk matter, so a whole-body value should not be used alone to diagnose osteoporosis or decide whether high-impact training is appropriate (ISCD adult positions).

A simple 12-week integration week

Twelve weeks is a convenient planning block, not a biological promise. Progress depends on the starting point, consistency, sport demands and response to training.

Weeks 1 to 4: build control

  • Use suitable strength exercises twice weekly if that fits the wider programme.
  • Practise supported balance and controlled step-downs.
  • Learn low-speed stopping and planned turns.
  • Build or maintain a suitable aerobic base.

Weeks 5 to 8: add direction and force

  • Progress one strength variable at a time.
  • Add lateral strength and moderate planned changes of direction.
  • Introduce low-level hopping or landing only where impact is appropriate.
  • Keep reactive cues simple and the approach speed modest.

Weeks 9 to 12: add speed and decisions

  • Increase speed or angle, not both at once.
  • Use more relevant reactive cues and sport-specific tasks.
  • Practise repeated efforts with enough recovery to preserve quality.
  • Retest the same planned and reactive tasks under comparable conditions.

An example integration week might contain two strength sessions, one short balance and low-speed technique session, one faster change-of-direction session, suitable aerobic activity and at least one easier day. The sessions may be combined or reduced when sport practice, work or rehabilitation already supplies the load.

Review each week using three questions:

  1. Did symptoms remain acceptable during and after training?
  2. Did movement quality stay stable across the planned volume?
  3. Is there a clear reason to progress the next variable?

If the answer is no, hold or regress the programme rather than forcing the calendar. If the answer is consistently yes, increase one element and observe the response.

Telomyx provides mobile physiological testing in the North West, but testing should answer a defined question. VO2 max can characterise aerobic capacity, while medically justified DEXA can answer selected clinical body-composition or bone-health questions. Neither test measures agility or replaces coaching, rehabilitation or clinical assessment. The current service context is available from Telomyx.

Improving agility is ultimately a progression from capacity to control, then from control to speed and decision-making. Keep the task specific, measure what matters and make the next step small enough to own.

The content in this article is for educational purposes only and does not constitute medical or dietary advice. If you have an underlying health condition, are taking medication, or are considering significant changes to your diet or exercise regimen, consult a qualified healthcare professional before making any adjustments.

Profile photo of Dr Alex Trevatt, Telomyx Clinical Lead
Reviewed and written by

Telomyx Clinical Lead. Medical and scientific review, evidence checks and Telomyx service accuracy.

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