Chapter 15 — Athletics

What is Athletics?
Athletics is a group of events that test human movement qualities: speed, endurance, strength and skill. It is typically divided into track events (sprints, middle and long distances, hurdles and relays) and field events (jumps and throws). Athletes compete individually or as part of teams (relays) in organised meets from school to international levels.

Governing Structure and Levels
Competitions follow a tiered system. At school level meets are held between classes or schools; winners progress to district, state and national competitions. Each level follows standardised technical rules for event specifications, equipment, age categories and officiating procedures so performances are comparable and records reliable.

Age Groups and Eligibility
To ensure fair competition and appropriate training, athletics uses age categories—such as under-14, under-16, under-18 and senior—so athletes compete against peers with similar growth and maturity. Eligibility rules include verified birth records and sometimes weight or qualifying standards for higher events.

Roles in Organisation
A meet requires planning and many roles: meet director (overall management), technical delegate (ensures rules), referees and judges (decide results and fouls), starters and timekeepers (manage race starts and timing), and marshals (manage athletes). Field events need sector judges and measurement officials. Clear role definitions ensure smooth and fair conduct.

Facilities, Equipment and Standards
Tracks are standardised in length and lane markings; field sites (pits, circles and runways) follow measurement rules. Equipment — starting blocks, batons, implements and measuring tapes or electronic devices — must meet specification and be checked before use. Uniforms and spikes follow guidelines to ensure safety and fairness.

Competition Formats and Heats
Events may be run as direct finals or qualification heats leading to semis and finals. Heats use seeding and lane assignments to balance competition. Timed finals or timed-qualification systems select athletes by placing and times. Understanding format helps athletes plan effort and tactics.

Why Organisation Matters
Good organisation protects safety, ensures accurate measurement and fair competition, and supports athlete progression through graded competitions. For students, learning organisation helps in participating responsibly, volunteering as officials and planning training around competition calendars.

Nature of Sprint Events
Sprint events test maximal running speed and power over short distances. The 100m emphasises explosive start and top speed; the 200m adds curve running skill and speed endurance; the 400m is a one-lap race requiring a blend of speed, lactic tolerance and tactical pacing. All sprints depend on quick reaction, forceful ground contact and neuromuscular coordination.

Phases of a Sprint
Coaches commonly describe four sprint phases. The start phase includes reaction to the gun and block clearance — essential for gaining an early edge. The acceleration phase (approximately first 10–30m) is where the sprinter increases velocity using forward-leaning powerful steps. The maximal velocity phase is when the athlete attains top speed and must maintain relaxed mechanics and high turnover. The maintenance or deceleration phase follows; the goal is to delay loss of speed through technique and strength.

Starting Technique
Block starts require correct block placement and a balanced 'set' position. The first step should be powerful and forward-directed. Reaction drills, auditory response training and repeated block starts develop consistency. Coaches emphasise keeping the head low in the first steps and gradually rising to upright form.

Acceleration and Stride Development
Acceleration focuses on applying horizontal force into the ground. Early strides are shorter and more frequent, then lengthen as the athlete rises. Proper knee drive, ankle stiffness and coordinated arm swing increase propulsion. Work on resisted sprints (sleds, hills) and short maximal sprints (10–60m) develops acceleration power.

Maximal Velocity Mechanics
At top speed, the sprinter uses an upright posture with relaxed shoulders, fast leg turnover and minimal ground contact time. Training targets reaction time, neuromuscular quickness, and technique drills such as A/B skips and high-knee drills. Plyometrics and explosive lifts improve the power needed to reach and hold maximal velocity.

Speed Endurance and the 400m
The 400m requires distributing energy: a fast but controlled first 200m, maintaining posture on the back straight, and a final 100–120m where lactate tolerance and mental toughness determine finish. Interval training (e.g., 3×300m), tempo runs and anaerobic capacity sets prepare athletes for the unique demands of the 400m.

Training and Recovery
Quality matters: full recovery between maximal efforts preserves neuromuscular intensity. Strength training for posterior chain, hamstrings and glutes reduces injury risk and improves sprint force. Adequate sleep, nutrition and periodised rest are necessary to realise training gains.

Characteristics of Middle and Long Distance Events
Middle-distance races (800m and 1500m) combine speed, aerobic fitness and tactical ability; long-distance races (5000m and 10000m) demand high aerobic capacity, efficient running economy and race awareness. Physiology shifts from a significant anaerobic contribution in the 800m to predominantly aerobic energy for 5000m and beyond. Training must therefore balance intensity and volume.

Race Structure and Tactics
Races have phases: start and settling, mid-race positioning, tactical surges, and finishing sprint. Tactics are crucial: drafting behind a pacer saves energy, surging can break opponents, and a timed kick secures victory in tactical championships. Awareness of lap counts, positioning on the curve, and responding to opponents’ moves are essential skills.

Training Principles for Middle Distances
800m training emphasises speed, anaerobic capacity and lactate tolerance. Sessions include short intervals (8×200m), repeated 300–600m efforts at high intensity, and speed work for finishing speed. 1500m athletes use mixed intervals (e.g., 5×400m at target pace), tempo runs for threshold development, and long runs for aerobic base.

Training Principles for Longer Distances
5000m and 10000m training builds aerobic capacity (VO2 max), lactate threshold and running economy. Long runs (comfortable pace), tempo runs (sustained effort near threshold), intervals to raise VO2 max (e.g., 6–10 × 800m) and recovery runs form the weekly mix. Progressive mileage increases are used cautiously to avoid overuse injuries.

Pacing and Session Examples
Pacing strategies vary: time-trial attempts use even pacing; championship races often have variable pacing with tactical surges. Example session for a 1500m runner: warm-up, 6×400m at race pace with 90s rest, drills, and cool-down. For a 5000m runner: 8–10km steady run, 5×1000m at threshold with 2–3 minutes rest, and strides for neuromuscular sharpness.

Technique and Injury Prevention
Efficient stride mechanics reduce energy cost. Strength training for core and hips improves economy; cadence and stride length adjustments are coached carefully. Monitor for common overuse injuries (shin splints, stress fractures) and manage load with recovery days and cross-training when needed.

Development for School Athletes
Adolescents require gradual increases in volume, attention to growth-related issues and variety to develop all motor qualities. Encourage balanced training that includes technical sessions, interval work and active recovery to build sustainable performance improvements.

Overview of Hurdle Events
Hurdle races blend sprinting with the technical skill of clearing fixed barriers while maintaining speed and rhythm. Short hurdles (110m for men, 100m for women) demand explosive power, quick clearance and precise stride patterns between hurdles. The 400m hurdles requires speed endurance, rhythm maintenance and strategic energy distribution across ten hurdles over one lap.

Phases of Hurdle Technique
Hurdling comprises approach to the first hurdle, the take-off step, clearance (flight) and landing into the stride pattern between hurdles. The goal is to minimise vertical motion and contact time so forward velocity is preserved. Efficient hurdlers lower their centre of mass during clearance and ensure trail leg recovery is fast to resume sprinting.

Lead and Trail Leg Mechanics
The lead leg should extend and snap down with a dorsiflexed foot, while the trail leg tucks and passes close to the hurdle, minimising air time. Arm action balances rotation: the opposite arm to the lead leg drives forward to stabilise the torso. For the 400m hurdles, athletes use longer strides between hurdles and adjust pattern as fatigue appears.

Stride Patterns and Rhythm
Elite short hurdlers often use three strides between hurdles; others may use four and change with race conditions. In the 400m hurdles, athletes typically use 13–15 strides between hurdles early, shifting to a higher count as lactic acid accumulates. Training emphasises consistent rhythm and the ability to change stride patterns without losing pace.

Drills and Training Methods
Drills include lead-leg and trail-leg specific exercises, walkovers on low hurdles to rehearse hip mobility, and rhythm runs over multiple hurdles at controlled speeds. Sprint work builds speed between hurdles; plyometrics and strength training develop the explosive power for take-off. Specific endurance training (repeat 300–500m runs) conditions athletes for the 400m hurdles’ metabolic demands.

Warm-up, Flexibility and Injury Prevention
Dynamic mobility, hip-opening drills and hamstring flexibility are vital to prevent strains. Progressive intensity in training avoids overload. Coaches must monitor technique under fatigue because poor form increases injury risk.

Competition Rules and Safety
Hurdles knocked down accidentally are not grounds for disqualification unless deliberate. Starting rules and lane discipline apply. Officials check hurdle heights and spacings before events. Safety includes spacing athletes properly and ensuring appropriate surface and footwear.

Nature and Importance of Relay Events
Relays are team track events where baton exchanges and teamwork are decisive. The 4×100m emphasises speed and precise non-visual baton passes carried out at high velocity; the 4×400m relies on sustained speed, efficient pacing and visual exchanges due to longer distance and staggered starts. A relay’s success depends on individual speed, practiced exchanges and mental coordination among teammates.

Baton Exchange Fundamentals
The baton exchange must occur within the marked exchange zone; failure to do so leads to disqualification. Two exchange techniques are common: blind (non-visual) exchanges in sprints where the outgoing runner does not look back and relies on practiced steps and verbal cues, and visual exchanges in longer relays where the outgoing runner looks and accepts the baton. Practicing both methods helps teams decide which suits their athletes.

Exchange Mechanics and Markers
Outgoing runners begin accelerating before the incoming runner arrives so the baton handover occurs at near top speed. Use fixed acceleration marks on the track so outgoing runners know when to start. The incoming runner must aim to extend the baton into the outgoing hand at a consistent height and rhythm. Hand position, open palm orientation and a smooth push or pull motion reduce the risk of drops.

Team Selection and Order Strategy
Order planning balances individual strengths: a quick starter on leg 1, strong curve runners on legs 2 and 3, and the best finisher (anchor) on leg 4. Coach assessments include start ability, curve running skill, composure under pressure and baton handling confidence. Practising the full order builds team chemistry and reliable exchanges.

Training Drills and Sessions
Drills progress from stationary pass practice to moving exchanges at submaximal and maximal speeds. Sessions include 30–60m flying runs into exchanges, repeated exchange zone practice, and full-lap relay simulations. Practice under fatigue and competition-like pressure helps teams maintain technique in meets.

Rules, Fouls and Recovery from Drops
Dropping the baton is allowed if recovered without obstructing others, but athletes must follow correct retrieval procedures and remain within the exchange area. Impeding or obstructing other teams causes disqualification. Coaches rehearse contingency plans and emphasise calm recovery rather than panic during a drop.

Mental and Communication Skills
Clear verbal cues, trust, timing and calm under pressure underpin successful relays. Team meetings to review exchange signals and briefings before races help reduce errors. Success in relays encourages teamwork and collective responsibility in athletics programmes.

Overview of Horizontal Jumps
Long jump and triple jump test speed, take-off technique, mid-air control and landing efficiency. Success relies on a consistent approach run, an effective take-off that converts horizontal speed into vertical lift, and technical flight and landing strategies that maximise measurable distance.

Approach Run: Consistency and Speed
The approach run must be fast but controlled with an accurate stride pattern so the athlete hits the take-off board without fouling. Athletes typically practise marked approach rehearsals to ensure the last 8–12 strides align correctly. Speed produces horizontal velocity which is critical for distance; however, control to avoid overstepping is equally important.

Take-off Mechanics
At take-off the supporting leg exerts force against the ground, producing impulse that changes horizontal momentum into a vertical component. Effective take-off includes a stiff ankle, strong hip extension, a forward lean initially, and coordinated arm drive. The penultimate step often lowers the centre of mass to allow a more powerful final push — coaches emphasise timed penultimate and final steps to optimise launch angle and velocity.

Flight Techniques in Long Jump
Common flight styles are the hang, sail and hitch-kick. The hang keeps the body extended to delay forward rotation; the hitch-kick cycles the legs to counteract forward rotation and prepare for landing with extended feet. Choice depends on athlete comfort and ability to control body position in air. The objective is to land with feet forward and avoid backward fall that reduces measured distance.

Triple Jump: Hop-Step-Jump Phases
Triple jump comprises a hop (landing on same foot as take-off), step (landing on opposite foot), and jump (take-off from that foot into landing). Maintaining horizontal velocity across phases is key; rhythm, strength and technique in each phase prevent loss of speed. Athletes practise bounding, single-leg strength and phase-specific drills to keep sequence efficient.

Training Components
Training includes approach rehearsals, full attempts under competition conditions, plyometrics to enhance reactive strength, sprint work to build approach speed, and specific drills targeting take-off mechanics and phase transitions. Strength work for hip extensors, calves and glutes supports forceful take-offs and landings.

Measurement and Fouls
Distance is measured from the take-off line to the nearest mark in the landing pit. Fouls occur if the athlete oversteps the take-off board. Officials must inspect the pit condition, rake after each attempt, and verify board height and markings for fairness and safety.

Overview and Distinctions
High jump and pole vault are vertical events that test an athlete’s ability to clear a horizontal bar at height. The high jump relies on body technique, take-off from one foot and back-arching clearance (commonly the Fosbury flop). Pole vault uses a flexible pole to transform horizontal speed into vertical and rotational energy to clear greater heights. Both require speed, power, spatial body awareness and technical precision.

High Jump Technique: Approach and Flop
Modern high jumpers use a curved approach that creates centripetal force aiding rotation during clearance. The approach typically consists of 8–12 steps with an inward curve on the penultimate strides; the take-off foot plants slightly away from the bar line to create upward and lateral force. The Fosbury flop involves a back-first clearance where the athlete leaps head-first, arches the spine over the bar and lands on the shoulders/upper back in a deep foam mat. Key elements: controlled curved approach, strong single-leg drive, hip lift, head and shoulder lead, and a coordinated arching motion to allow the centre of mass to pass under the bar while the body clears it.

Pole Vault: Phases and Pole Use
Pole vault has distinct phases: approach sprint building speed, plant and take-off where the pole is placed in the box and begins to bend, swing and inversion where the athlete turns upside down to align with the pole, and extension and clearance as the pole straightens and the athlete releases over the bar. Pole selection (length and stiffness) is crucial and depends on athlete weight and speed. Progressive pole usage helps athletes adapt safely.

Drills and Physical Preparation
Both events require sprint training for approach speed and gym work for strength—particularly hip and core strength. High jump drills include approach rehearsals, take-off repetitions and penultimate step exercises. Pole vault drills progress from short plant-and-run to low crossbars and simulated inversions. Gymnastic skills assist in swing and inversion mechanics.

Safety, Equipment and Supervision
Safety is paramount: deep landing mats, correct pole boxes, inspected poles and trained supervision reduce risks. Athletes must be instructed on pole handling, safe carry and storage, and rescue procedures in case of failed attempts. Helmets may be used in early stages of learning or when appropriate.

Competition Rules and Strategy
Athletes are allowed a set number of attempts at each height; failures, pass attempts and countback rules determine final placings. Strategic passing of heights can conserve energy or attempt higher marks tactically. Coaches work with athletes to choose opening heights and progression increments that reflect form and competition goals.

Overview of Put and Discus Events
Shot put and discus are throwing events that require coordination, rotational or linear technique, explosive leg and hip drive, and precise release mechanics. The shot put involves launching a heavy sphere from the shoulder using either a glide or spin technique; the discus uses rotational momentum to create speed and a clean release. Both require strength, timing and technical efficiency to achieve distance.

Shot Put Techniques: Glide and Spin
The glide technique starts with the athlete facing backward, performing a linear slide across the circle and finishing with a strong leg drive, hip turn and arm extension to 'put' the shot. The rotational or spin technique uses a full-turn similar to discus, generating more angular momentum that can translate into higher release velocity if balanced. Key technical points include maintaining a low centre of gravity during entry, explosive extension through hips and knees, strong triceps and shoulder action, and releasing the shot at a slightly upward angle (commonly around 37–40 degrees depending on athlete build).

Discus Technique and Delivery
Discus throwers use a controlled wind-up and a one- to three-turn rotational sequence inside the circle to build angular momentum. At release, the athlete directs the discus with a coordinated hip-shoulder rotation and a quick wrist flick to impart spin and stability. Footwork stability, balance during turns and a clean release within the throwing sector are crucial to avoid fouls and maximise distance.

Training Components
Strength training focuses on lower-body power (squats, cleans), trunk rotational strength (medicine ball throws), and upper-body pushing strength. Plyometrics and explosive Olympic lift variations enhance rate of force development. Technical drills include standing throws, rhythm drills, partial-turn exercises for discus and power-position drills for shot put. Flexibility and shoulder mobility exercises reduce injury risk and help achieve optimal positions.

Rules, Measurement and Safety
Throws must land inside the designated sector; stepping outside the circle during or after delivery is a foul. Measurements are taken from the nearest mark in the sector to the inside edge of the stopboard (shot) or sector centre line (discus). Practise with nets or supervised open areas for discus, and ensure correct implement weight per competition category for safety and fairness.

Common Errors and Corrections
Typical faults include early opening of the hips, low release angle, poor footwork in turns and inconsistent entry positions. Video analysis and simple markers in the circle help athletes rehearse correct positions and timings. Gradual technical corrections combined with strength improvements yield the best progress.

Overview of Javelin and Hammer
Javelin and hammer are technical throwing events. Javelin uses a spear-like implement thrown after a run-up and block; hammer involves a metal ball on a wire swung in multiple rotations within a circle before release. Both require timing, rotational control, explosive strength and respect for safety protocols due to the implements used.

Javelin Technique: Run-up and Delivery
A javelin throw begins with a rhythmical run-up that builds speed while maintaining control. As the athlete approaches the foul line, they perform a controlled crossover and block with the front leg to convert horizontal speed into vertical and forward impulse. The throwing arm whips forward with a strong shoulder-elbow-wrist sequence; the grip and release angle (commonly around 30–40 degrees depending on wind conditions) influence flight. Coaches stress a firm front-leg block, torso rotation and follow-through to avoid shoulder injury.

Hammer Technique: Turns and Release
Hammer throwers start with swinging the hammer to gain momentum, then step into one to four rotations across the circle, using footwork and hip drive to accelerate the implement. The release requires precise timing to direct the hammer into the sector with maximal tangential velocity. Balance during turns and correct foot placements keep the thrower centred and legal within the circle boundaries.

Training and Strength Development
Both events demand explosive rotational power. Training includes Olympic lifts, rotational medicine-ball throws, core stability work, and event-specific drills with lighter implements to refine technique. Javelin training emphasises shoulder conditioning and mobility to prevent overuse injuries from repetitive overhead action. Hammer training develops footwork, balance and centrifugal strength.

Safety, Implements and Weather
Safety measures include secured throwing sectors, clear signage, nets for practice when available, and strict retrieval procedures. Implements must be inspected for damage. For javelin, wind direction affects flight—tail wind may increase distance while head wind requires altered release angles. Athletes must be coached to adapt to conditions.

Rules and Measurement
Throws must land within a defined sector; stepping out of the circle or runway during delivery is a foul. Officials measure from the nearest mark to the centre of the throwing circle or arc as specified by rules. Younger athletes use lighter implements to allow proper technique development while reducing injury risk.

Core Principles of Training
Effective athletic training follows core principles: specificity (train the physical and technical qualities needed for the event), progressive overload (gradually increase training stimulus), individualisation (adapt to the athlete’s abilities and maturation), reversibility (gains are lost without continued training) and variation (to prevent monotony and overuse). Recovery and rest are essential components for adaptation and injury prevention.

Structure of Periodisation
Periodisation organises training across time. A macrocycle typically covers a season or year. Mesocycles are blocks of weeks (e.g., 4–12 weeks) with specific focuses such as base building, strength, speed, competition prep and tapering. Microcycles are weekly plans containing individual sessions. Periodisation balances high-intensity and high-volume phases with recovery to peak for target competitions.

Phases Explained
The preparatory (general) phase builds aerobic base, general strength and mobility. The specific preparatory phase targets event-specific qualities — speed for sprinters, aerobic threshold for distance runners, technical work for jumpers and throwers. The pre-competition phase sharpens race pace, technical consistency and tactical preparation. The competition phase aims to maintain form and manage fatigue through reduced volume and maintained intensity. The transition phase after the season provides active recovery and mental rest.

Planning Techniques and Load Management
Control training load by manipulating volume (distance, reps) and intensity (pace, weight). Use progressive steps to raise load, then include deload weeks with reduced volume to allow supercompensation. Monitor athlete responses using session RPE (rating of perceived exertion), mood, sleep and simple fitness tests. Adjust training for growth spurts in adolescents and for signs of overreaching or overtraining.

Tapering and Peaking
Tapering reduces volume while maintaining intensity for days to weeks before a key competition. Proper tapering maintains neuromuscular readiness while allowing physiological recovery, typically improving race performance. The taper length depends on event and athlete—sprinters may benefit from shorter tapers, endurance athletes may require longer tapers.

Practical Application for Students
School athletes should use simplified periodisation: base weeks for general fitness, focused weeks for event technique, pre-competition sharpening and a recovery week after meets. Weekly plans should balance technical sessions, strength work, conditioning and recovery. Emphasise gradual progression, appropriate load for age, and communication between athlete, coach and parents for wellbeing.

Role of Strength and Conditioning in Athletics
Strength and conditioning develop the muscular force production and power necessary for sprints, jumps and throws. Conditioning improves work capacity, recovery and injury resistance. For athletes, a balanced programme enhances performance and supports technique by enabling the body to apply greater forces efficiently.

Types of Strength Training
Maximal strength (heavy loads, low reps) increases absolute force; hypertrophy (moderate loads) builds muscle mass; power training (explosive lifts, Olympic weightlifting variations) converts strength into rapid force production; endurance strength (lighter loads, higher reps) supports repeated efforts. Event requirements determine emphasis: sprinters and jumpers prioritise power, throwers emphasise maximal and explosive strength, and distance runners require muscular endurance.

Plyometrics and the Stretch-Shortening Cycle
Plyometrics (hops, bounds, depth jumps) train the stretch-shortening cycle (SSC) so muscles store and release elastic energy quickly, increasing reactive strength and jump/sprint performance. Proper progression is critical: begin with low-intensity bounding, progress to higher-intensity depth jumps, and always ensure adequate strength base and technical supervision to reduce injury risk.

Programming Considerations
Combine weight training with plyometrics in the same week but schedule sessions to avoid excessive fatigue—heavy lifting days should not coincide with high-intensity plyometric sessions when performance quality would suffer. Periodise strength phases to build base strength first, then convert to power closer to competition. Include mobility, core stability and unilateral leg work to balance muscular development and reduce injury risk.

Testing and Monitoring Strength Gains
Tests like 1RM (one-rep max), vertical jump, broad jump and sprint times indicate strength and power progress. Use submaximal tests for adolescents to reduce injury risk and estimate 1RM where needed. Track load, volume, and athlete readiness to adapt programmes responsibly.

School-Level Practical Programmes
For school athletes, emphasise bodyweight exercises (push-ups, squats, lunges), medicine ball throws, and supervised light resistance work. Sessions of 30–60 minutes twice weekly with proper warm-up and technique focus are suitable. Educate athletes on safe lifting techniques and encourage recovery practices such as sleep and nutrition.

What is Biomechanics?
Biomechanics applies mechanical principles—forces, motion, leverage and energy transfer—to human movement. In athletics, biomechanical analysis explains how an athlete’s technique affects performance and how changes can improve efficiency and reduce injury risk. Simple biomechanical understanding helps coaches and students make practical technical adjustments.

Key Concepts and Their Application
Centre of mass (CoM) influences balance and flight path; base of support affects stability; impulse (force × time) determines changes in momentum important at take-off; torque influences joint rotations; angular momentum governs rotational movements in throws and vaults. For example, a higher impulse at take-off lengthens jump distance, while proper torque sequencing increases release speed in throws.

Running Mechanics
In sprinting, performance results from an optimal combination of stride length and stride frequency. Ground contact time should be short while producing high horizontal force. Foot strike, ankle stiffness, knee drive and arm action contribute to efficient force transfer. Coaches observe contact time, knee angles and torso posture to refine technique. For distance running, economy (energy cost at given pace) is key; small improvements in posture and cadence yield energy savings.

Jump and Throw Biomechanics
In jumping events, take-off velocity and angle determine projectile trajectory: horizontal speed and an optimal take-off angle yield maximal range. In throws, release velocity and angle (and to lesser extent height) determine range; technical sequencing (legs → hips → torso → arm) ensures maximal transfer of energy to the implement. Video analysis helps identify sequence breakdowns and timing faults.

Analysis Tools and Methods
At school level, slow-motion video and repeated observational checklists are practical. Coaches can measure split times, count steps, and use simple force indicators (e.g., contact time approximations). Where available, timing gates and force plates provide objective data. Effective analysis isolates one or two key variables to correct rather than overwhelming athletes with many changes.

Interpreting and Implementing Changes
Make small, progressive technical changes and measure effects through tests or controlled trials. Combine biomechanical corrections with strength and conditioning adaptations since mechanical improvements require physical capacity to be sustained. Document changes and use feedback loops: observe → modify → test → refine.

Why Nutrition Matters
Athletic performance depends on appropriate energy intake and nutrient distribution. Carbohydrates are the primary fuel for high-intensity work; proteins support repair and adaptation; fats are essential for longer-duration energy and overall health. Micronutrients and hydration affect metabolism, recovery and immune function. For adolescent athletes, nutrition also supports growth and development.

Daily Macronutrient Guidelines
Daily needs vary by event and training load. Sprinters and jumpers prioritise adequate protein to support muscle repair and strength training, combined with carbohydrates for training intensity. Distance runners require higher carbohydrate availability for long sessions. A balanced plate with whole grains, lean proteins, healthy fats, fruits and vegetables meets most needs. Young athletes should aim for regular meals and snacks timed to support training demands.

Pre-Event and During-Event Nutrition
Pre-event meals (2–3 hours before) should be rich in easily digestible carbohydrates, moderate in protein, low in fat and fibre to avoid gastrointestinal distress. Examples include rice with lean protein or a banana with yoghurt. For long training or races, carbohydrate intake during exercise (sports drinks or gels) maintains blood glucose and delays fatigue for events lasting over an hour.

Post-Event Recovery Nutrition
Post-exercise nutrition within 30–60 minutes should include carbohydrates to replenish glycogen and proteins (20–30g) to assist muscle repair. A simple recovery meal could be milk with fruit and a sandwich. Hydration and electrolyte replacement should match sweat losses; weigh-ins before and after long sessions can guide fluid replacement needs.

Supplements and Anti-Doping Considerations
Whole foods are preferred. Some supplements (vitamin D, iron for deficient athletes, creatine for power athletes) have roles but require medical or sports-nutrition guidance. Athletes must be aware of anti-doping rules and the risk of contaminated supplements; always consult certified resources before taking anything. Therapeutic Use Exemptions (TUEs) exist for legitimate medical needs under supervision.

Recovery Strategies Beyond Nutrition
Sleep is critical for recovery and adaptation—aim for adequate nightly sleep and naps when training loads increase. Active recovery (easy jogging, mobility work), massage, foam rolling and cold-water immersion can reduce soreness and speed recovery if used appropriately. Periodised rest days and monitoring for signs of overtraining (persistent fatigue, performance dips) protect athlete health.

Practical Tips for School Athletes
Pack simple snacks for training days, focus on balanced school meals, hydrate regularly, avoid high-sugar junk foods near training, and consult coaches or school health staff for dietary questions. Education helps form lifelong healthy eating habits supportive of performance and growth.

Common Injuries in Athletics
Athletics commonly involves muscle strains (hamstrings, calves), tendonitis (Achilles, patellar), sprains (ankle), stress fractures, and overuse problems such as iliotibial band syndrome. Throwers may develop shoulder or elbow issues, and jumpers can experience knee and ankle injuries. Early recognition and appropriate response reduce the risk of chronic problems.

Principles of Injury Prevention
Key preventive measures include progressive training loads, proper warm-up and cool-down, event-specific strength and flexibility programmes, and correct technique instruction. Footwear appropriate to the event and well-maintained surfaces reduce acute risks. Periodisation ensures alternating high and low intensity loads to allow tissue adaptation, and cross-training can maintain fitness while reducing repetitive stress.

Warm-up and Cool-down Routines
A comprehensive warm-up includes light aerobic activity, dynamic mobility exercises, activation of key muscle groups (glutes, core), and event-specific drills to prime neuromuscular pathways. Cool-down should involve light aerobic work, static stretching where appropriate, and hydration and nutrition to begin recovery. These routines reduce injury risk and prepare athletes for high-intensity efforts.

First Aid Basics: Immediate Care
For acute soft tissue injuries, apply RICE: Rest, Ice (15–20 minutes), Compression and Elevation. Control bleeding, immobilise suspected fractures and seek medical assessment for severe pain or deformity. For cramps, gentle stretching, hydration and electrolyte replacement help relieve symptoms. Concussion protocol requires immediate removal from play and medical clearance before return.

Rehabilitation and Return-to-Play Criteria
Rehab is progressive and criterion-based: restore pain-free range of motion, adequate strength (compared to the uninjured side), normal gait or event-specific movement, and successful completion of sport-specific drills at intensity before full return. Clearance should be given by qualified medical or physiotherapy professionals. Avoid premature return which raises reinjury risk.

Education and Environment
Coaches and physical education teachers should be trained in basic first aid, have readily accessible first-aid kits and know emergency referral pathways. Maintain safe equipment, mark hazards and ensure supervision during technical activities like javelin or pole vault. Students should be educated on listening to their bodies and reporting persistent pain early.

Purpose of Officiating
Officiating ensures safety, fairness and accurate recording of results. Officials enforce rules, measure performances and adjudicate fouls. Clear, consistent officiating gives athletes confidence that competitions are reliable and comparable across venues and levels.

Key Official Roles
Common roles include starter (manages starts and false-start decisions), timekeepers (record race times), referees (oversee rule compliance), track judges (monitor lane infringements), field judges (verify measurements and fouls), and technical delegates (ensure equipment and facilities meet standards). Marshals and lap counters assist logistical flow during longer races.

Timing and Measurement Methods
Timing can be manual (stopwatch) or fully automatic timing (FAT) using photo-finish cameras triggered by the gun for high precision. Field events use tape measures or electronic distance measuring devices; the official measures from the take-off line or circle to the nearest mark in the landing area. Consistent measurement procedures and calibration of devices are essential for record accuracy.

Common Rules and Fouls
Typical track fouls include false starts, lane infringements and obstruction. Field fouls include overstepping the take-off board in jumps, stepping outside the throwing circle, and implements landing outside the sector. Relay fouls include exchanges outside the zone. Fouls result in invalid attempts or disqualification per event rules.

Result Recording and Protest Procedures
Officials maintain accurate results sheets, noting attempts and fouls. Protests must be lodged within specified timeframes and often require a deposit. Technical delegates and appeals panels review evidence, including photo or video where available. Transparent record-keeping and clear communication of rulings maintain trust in the process.

Developing Officiating Skills in Schools
Students can learn basic officiating tasks—measuring, timing, raking pits—under supervision. Teaching impartiality, attention to detail and knowledge of primary rules develops useful skills and provides pathways for volunteering at meets. Simple checklists and role rotations help schools run meets effectively with limited staff.

Physical and Logistical Preparation
Preparing for competition requires more than physical training; it demands careful planning and attention to the small details that can affect performance. Athletes should create a checklist in advance: confirm event entry, check call-room times, arrange transport, inspect equipment (spikes, implements, tape measures), and review the competition timetable. Proper sleep and a reduced training load in the days before a key event aid recovery and sharpen readiness. Tapering is planned to reduce volume but keep intensity so neuromuscular systems remain primed.

Warm-up and Routine Practice
Warm-up routines must be rehearsed so they become automatic under pressure. A structured warm-up combines general aerobic activity, dynamic mobility, activation drills for key muscles, technical drills specific to the event and short high-intensity efforts or strides before competition. Athletes should practise the exact sequence they intend to use on competition day so timings, clothing and nutrition fit the routine and reduce pre-event anxiety.

Mental Skills and Psychological Strategies
Psychological preparation complements the physical plan. Goal setting should include process goals (technique focus) and outcome goals (performance targets). Imagery or visualisation helps athletes mentally rehearse the event: seeing a successful execution, feeling the rhythm and experiencing calm under pressure improves confidence. Breath control and simple relaxation techniques reduce arousal; cue words or short pre-performance rituals help attention shift to the task at hand. Coaches teach athletes to focus on controllable factors—technique, timing and effort—rather than outcomes they cannot directly control.

Handling Competitive Stress and Arousal
Every athlete experiences nerves; the skill is to use optimal arousal for performance. Techniques include progressive muscle relaxation, controlled breathing, and refocusing checklists. Simulated competitive drills in training build exposure to stress—mock starts, judged practice attempts and pressure repetitions—so athletes learn to perform under similar conditions. Dealing with setbacks during competition (a foul, a missed baton exchange) requires short, structured recovery routines: deep breath, refocus cue, and immediate progressive step back into the task.

Team Communication and Leadership
In team events, clear communication and leadership reduce confusion. Pre-race briefings, confirmed orders, and simple verbal signals for relays stabilise performance. Team captains and coaches foster a positive environment where mistakes are treated as learning moments rather than crises.

Post-Event Reflection and Learning
After the event, structured reflection helps athletes learn. Debrief should focus on facts (what happened), analysis (why), and actions (what to change). Use video review for objective feedback. Encourage athletes to record one or two concrete practice tasks to address in the following week, maintaining balance between critique and positive reinforcement. This cycle of prepare → perform → reflect → adjust builds resilient, improving athletes.

Purpose of Testing and Assessment
Testing measures physical qualities, tracks progress and informs training. It assesses speed, power, endurance, flexibility and technical skill. Regular, standardised testing helps set goals, monitor adaptations and identify areas needing targeted work. For talent identification, tests help spot athletes with potential in specific events.

Common Test Batteries
Velocity and power tests: 30m/60m sprints, standing broad jump and vertical jump. Strength tests: 1RM or submaximal estimates for key lifts. Endurance tests: Cooper 12-minute run or 3000m time trials and VO2-related interval sets. Technical assessments involve coach-rated skill drills such as hurdle clearance efficiency or take-off mechanics in jumps. A balanced battery gives a profile of athletic strengths and weaknesses.

Standardisation and Reliability
Tests should be administered with consistent warm-up, instructions, timing methods and environmental conditions to ensure reliability. Use the same equipment and testers where possible. Periodic retesting (e.g., every 6–8 weeks) shows training response. Document tests carefully and compare relative improvements rather than single absolute values to account for maturation in adolescents.

Talent Identification Principles
Talent ID looks for physical attributes (speed, power, endurance), technical aptitude, coordination and psychological traits such as motivation and trainability. Early identification should avoid premature specialisation; encourage multi-event participation to develop broad motor skills and reduce burnout risk. Track growth and maturation since adolescents develop at different rates.

Ethical and Practical Considerations
Testing of minors requires informed consent, age-appropriate protocols and attention to wellbeing. Use results to support development, not just selection. Provide constructive feedback and training plans tailored to individual profiles. Ensure tests do not place excessive load on growing bodies and include medical clearance where needed.

School Implementation
Schools can run simple test batteries during term blocks to identify promising athletes and design targeted training. Use approachable formats and clear communication of results to students and parents, and link talented students to local clubs for further development when appropriate.

Why Ethics Matter in Athletics
Ethics form the foundation of sport. In athletics they protect fairness, athlete health and the credibility of performance results. Teaching ethics early helps athletes understand that winning is not the sole aim; how you win and the means used are equally important. Ethical awareness includes respect for opponents and officials, honesty in reporting injuries or results, and adherence to rules including anti-doping regulations.

Anti-Doping Principles for School Athletes
Anti-doping education should be clear and practical. Explain that some substances and methods are banned because they give unfair advantage or harm health. Teach students to check any medication or supplement before use, ideally through a coach, school medical officer or recognised anti-doping resource. Emphasise that supplements can be contaminated and that even unintentional ingestion can lead to penalties. If a student has a medical condition requiring medication, encourage proper documentation and a Therapeutic Use Exemption (TUE) route under guidance.

Common Prohibited Categories and Risks
Explain prohibited categories simply: stimulants (affect alertness), anabolic agents (increase muscle mass), hormones and growth factors (alter physiology), and masking agents (hide use). Discuss health risks such as cardiac strain, hormonal imbalance and long-term organ damage. Link the moral argument (fairness) to practical consequences (disqualification, bans, damaged reputation) so students appreciate both ethical and pragmatic reasons to stay clean.

Practical School-Level Policies
Schools should adopt clear policies: educate athletes and parents, prohibit supplying or encouraging banned substances, and require coaches to model clean behaviour. Provide a simple checklist for students: always consult a qualified person before taking supplements; carry prescriptions when travelling; keep a record of medications; and report any pressure to use banned substances to a trusted adult. Regular workshops and inclusion of anti-doping topics in the curriculum help normalise safe choices.

Fair Play and Sporting Behaviour
Fair play goes beyond doping. It includes helping injured competitors, accepting officials’ decisions respectfully, and competing honestly. Encourage team charters that list expectations—punctuality, respect, no verbal abuse—and recognise acts of sportsmanship publicly. This builds culture where ethical conduct is celebrated as much as performance.

Reporting, Governance and Education
Make reporting channels known so students can safely raise concerns. Schools should cooperate with local sports bodies on education and testing where appropriate. Use case studies to teach decision-making: discuss scenarios where athletes face pressure or are offered substances and role-play appropriate refusals and reporting steps.

Parental and Community Role
Parents influence values strongly. Engage them in education sessions so they understand anti-doping risks and how to support clean sport. Local clubs and medical staff should be partners in promoting ethical behaviour and providing guidance on supplements, medications and legal performance support such as nutrition and recovery protocols.

Overview of School Event Planning
Delivering athletics programmes in schools requires planning for facilities, equipment, staff roles, safety and scheduling. Events can be organised as one-day sports meets, seasonal competitions focusing on particular event groups, or integrated into PE lessons with progressive skill development. Careful planning ensures participation, fairness and educational value.

Facilities and Equipment Management
Maintain tracks, marking equipment, sand pits, throwing circles, landing mats and implements. Regular inspection for wear, proper storage and repair prevents accidents. Simple repairs and routine checks—raking pits, checking take-off boards, validating implement weights—should be part of pre-event checklists. Schools must ensure available space and guidelines for safe practice areas for throws and vaults, including clear sectors and supervision protocols.

Scheduling and Timetabling
Plan event order to manage athlete workload—combine sprints and field events in different halves of the day so athletes competing in multiple events can recover. Allow time for warm-ups, call rooms and equipment checks. Provide alternative activities for non-competitors to maintain engagement. Timetables should include contingency time for delays due to weather or incidents.

Curriculum Integration and Progressive Teaching
Integrate athletics into PE curriculum using progressive skill sequences: foundational movement skills, event-specific drills, technical coaching and competition simulation. Combine practical lessons with classroom sessions on rules, nutrition, injury prevention and ethics. Assessment tasks can include skill demonstrations, written tests on rules, and designing basic training plans to develop critical thinking and ownership of learning.

Inclusive and Adapted Events
Design competitions that include different ability levels: use modified distances, lighter implements or adapted rules to ensure participation. Offer roles like officiating, timekeeping or event management for students less interested in competing. Inclusive events encourage wider participation and social development while providing leadership opportunities for older students.

Coaching, Volunteering and Community Links
Encourage teacher training in basic athletics coaching and officiating; involve senior students as assistant coaches or officials to build school capacity. Partner with local clubs and sports bodies to create pathways for talented students. Involve parents and local volunteers in event organisation and support to strengthen community ties and resources.