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100 Core Skills

100 CORE SKILLS ACROSS ALL 3 CERTIFICATIONS

1. Coaching Science (NQF 5) — Sport & Performance Skills (1–35)

Athlete & Performance Understanding

Understanding human anatomy
Understanding exercise physiology
Biomechanics fundamentals
Motor skill development
Growth and development stages
Athlete assessment techniques
Performance analysis
Talent identification
Fitness testing protocols
Injury prevention principles

Coaching & Training Design

Session planning
Periodisation planning
Training programme design
Warm-up and cool-down design
Strength and conditioning basics
Sport-specific drills design
Technical skill instruction
Tactical coaching
Load management
Recovery planning

Practical Coaching Delivery

Demonstration skills
Observation and correction
Real-time feedback
Group coaching management
Individual coaching adaptation
Motivation techniques (athletes)
Discipline and structure
Coaching communication (directive)
Time management in sessions
Safety and risk management

Professional & Ethical Practice

Safeguarding athletes
Ethical coaching conduct
Working with parents/stakeholders
Basic sport psychology
Team culture building

2. COMENSA Coaching — Professional Coaching Skills (SA Context) (36–70)

Coaching Foundations

Understanding coaching vs mentoring
Contracting with clients
Setting coaching agreements
Establishing boundaries
Ethical decision-making
Confidentiality management
Professional presence
Cultural awareness (SA context)
Values-based coaching
Coaching mindset (non-judgment)

Communication & Relationship

Active listening
Reflective listening
Empathy development
Rapport building
Trust creation
Emotional intelligence
Powerful questioning
Clarifying language
Managing silence
Reading non-verbal cues

Coaching Process Skills

Goal setting (SMART & beyond)
Action planning
Accountability structures
Progress tracking
Feedback delivery
Challenging clients constructively
Identifying limiting beliefs
Reframing perspectives
Facilitating insight
Decision-making support

Personal Development & Business

Self-awareness as a coach
Reflective practice
Supervision readiness
Coaching practice hours tracking
Basic coaching business setup

3. ICF Coaching — Mastery-Level Coaching Skills (71–100)

ICF Core Competency Mastery

Embodying a coaching mindset
Ethical alignment (ICF standards)
Co-creating agreements
Maintaining presence
Deep active listening
Evoking awareness
Facilitating client growth
Coaching the whole person
Partnering (not directing)
Holding space without fixing

Advanced Coaching Techniques

Systems thinking
Identity-level coaching
Belief deconstruction
Transformational questioning
Pattern recognition
Working with emotions in real-time
Navigating resistance
Shadow awareness (blind spots)
Future self visualization
Values alignment work

High-Level Communication

Minimalist communication (less is more)
Laser-focused questioning
Intuition in coaching
Metaphor and storytelling use
Language precision
Interrupting patterns respectfully
Deep reflection mirroring
Silence as a tool
Energy awareness in sessions
Co-creating breakthroughs

Here’s a comprehensive list of 100 biomechanics fundamentals every sports coach should know, organized into key categories:

1. Basics of Biomechanics

Biomechanics is the study of movement in the human body.
It combines principles of physics, anatomy, and physiology.
Motion occurs due to forces acting on the body.
Kinematics studies motion without regard to forces.
Kinetics studies forces causing motion.
Linear motion occurs in a straight line.
Angular motion occurs around an axis.
General motion combines linear and angular motion.
Velocity = speed with direction.
Acceleration is the rate of change of velocity.

2. Forces & Mechanics

Force = mass × acceleration (Newton’s 2nd Law).
Every action has an equal and opposite reaction (Newton’s 3rd Law).
Torque is rotational force applied around an axis.
Moment of inertia resists changes in rotational motion.
Center of mass affects balance and stability.
Ground reaction forces influence performance.
Friction affects traction and movement efficiency.
Gravity constantly acts on the body.
Momentum = mass × velocity.
Impulse = force × time; important in jumping and throwing.

3. Human Movement

Flexion decreases joint angle.
Extension increases joint angle.
Abduction moves a limb away from the midline.
Adduction moves a limb toward the midline.
Rotation occurs around a longitudinal axis.
Supination = turning the palm upward.
Pronation = turning the palm downward.
Dorsiflexion = lifting the foot toward the shin.
Plantarflexion = pointing the foot downward.
Circumduction = circular movement at a joint.

4. Posture & Stability

Proper posture optimizes force application.
Base of support affects balance.
Wider base = more stability.
Center of gravity influences equilibrium.
Dynamic balance is important for agility.
Static balance is important for stance and control.
Postural alignment reduces injury risk.
Core stability enhances movement efficiency.
Proprioception improves balance and coordination.
Stability-mobility trade-off: too much mobility can reduce stability.

5. Muscle Mechanics

Muscles generate force via contraction.
Concentric contraction shortens muscle.
Eccentric contraction lengthens muscle.
Isometric contraction generates force without movement.
Force-length relationship affects power output.
Force-velocity relationship affects speed and strength.
Elastic energy in tendons enhances efficiency.
Stretch-shortening cycle improves explosive movements.
Muscle pennation angle affects force production.
Muscle lever arms influence mechanical advantage.

6. Biomechanics of Joints

Hinge joints (elbow, knee) allow flexion/extension.
Ball-and-socket joints (shoulder, hip) allow multi-directional movement.
Pivot joints (neck) allow rotation.
Saddle joints (thumb) allow opposition and mobility.
Condyloid joints allow flexion/extension and abduction/adduction.
Ligaments stabilize joints and limit excessive motion.
Synovial fluid lubricates joints.
Cartilage absorbs shock and reduces friction.
Joint angles affect torque and force application.
Joint range of motion varies between individuals.

7. Biomechanics of Gait

Gait cycle includes stance and swing phases.
Step length and stride length affect running efficiency.
Cadence = steps per minute.
Ground contact time affects speed and power.
Force application through the foot determines propulsion.
Pronation and supination affect running mechanics.
Knee and hip flexion absorb impact.
Arm swing contributes to balance and momentum.
Heel strike vs forefoot strike influences injury risk.
Sprint mechanics optimize force and frequency.

8. Biomechanics of Jumping

Vertical jump height depends on force production and timing.
Countermovement jump uses stretch-shortening cycle.
Arm swing adds momentum to vertical jumps.
Ground reaction forces determine take-off power.
Landing mechanics reduce injury risk.
Knee flexion absorbs landing forces.
Hip and ankle flexion also absorb impact.
Plyometric training enhances explosive power.
Rate of force development is crucial in jumping.
Force vector direction influences jump height and distance.

9. Biomechanics of Throwing & Striking

Kinetic chain transfers energy from legs to torso to arms.
Optimal sequencing improves power and accuracy.
Shoulder rotation generates torque in throwing.
Hip rotation initiates power in many strikes.
Elbow extension speed affects ball velocity.
Wrist action fine-tunes accuracy.
Follow-through reduces injury risk.
Grip strength affects control.
Ball release angle affects trajectory.
Ground reaction forces enhance force generation.

10. Biomechanics of Lifting & Strength

Correct lifting technique reduces injury risk.
Back posture is critical in lifting.
Hip hinge protects the spine.
Squat depth affects quadriceps and glute recruitment.
Lever mechanics affect mechanical advantage.
Bar path influences efficiency and safety.
Breathing and bracing enhance stability.
Load distribution affects joint stress.
Fatigue alters biomechanics and increases injury risk.
Understanding biomechanics allows coaches to design safer and more effective training programs.

Here’s a thorough list of 100 key points about performance analysis every sports coach should know, organized into clear categories. This covers methods, metrics, tools, and practical applications across all levels of coaching.

1. Understanding Performance Analysis

Definition of performance analysis
Difference between technical and tactical analysis
Difference between quantitative and qualitative analysis
The role of data in performance analysis
Importance of objective assessment
Linking performance analysis to coaching goals
Using performance analysis to inform training
Understanding athlete strengths and weaknesses
Setting key performance indicators (KPIs)
Translating data into actionable insights

2. Observation Techniques

Direct observation
Notational analysis
Live coding of events
Video recording for post-match analysis
Multi-angle video analysis
Use of drones for overhead tactical view
Performance checklists
Real-time statistical tracking
Peer observation
Self-assessment by athletes

3. Technical Analysis

Passing accuracy
Shooting accuracy
Dribbling success
Turnover rates
Set-piece execution
Skill execution under pressure
Technique consistency
Speed and power of movements
Biomechanics of key skills
Equipment interaction (e.g., grip, footwear)

4. Tactical Analysis

Formation analysis
Team shape in attack and defense
Player positioning and movement
Off-the-ball runs
Decision-making patterns
Pressing and defensive organization
Transition from defense to attack
Exploiting space and gaps
Set-piece strategy effectiveness
Tactical adaptability during matches

5. Physical Performance Analysis

Heart rate monitoring
GPS tracking for distance and speed
Accelerometer data for movement intensity
Sprint counts and distances
High-intensity efforts per game
Work-to-rest ratios
Fatigue monitoring
Recovery assessment
Jump height and power output
Strength and conditioning tracking

6. Physiological Monitoring

Lactate threshold testing
VO2 max and aerobic capacity
Hydration monitoring
Body composition tracking
Sleep quality and recovery
Core temperature monitoring
Hormonal markers of stress
Injury risk assessment
Biomechanical efficiency analysis
Respiratory rate monitoring

7. Psychological Performance Analysis

Motivation assessment
Confidence levels
Mental resilience measurement
Stress and anxiety evaluation
Focus and concentration tracking
Goal-setting effectiveness
Team cohesion and communication
Leadership and decision-making under pressure
Visualization and mental rehearsal techniques
Pre- and post-match psychological state

8. Video & Technology Tools

Hudl / Dartfish / Nacsport software
Motion analysis software
Wearable technology integration
Automated tagging of events
Slow-motion review for technique correction
Video overlays for tactical patterns
Heat maps for movement tracking
3D modeling of player movement
AI-assisted pattern recognition
Cloud storage and collaboration for analysis

9. Data Collection & Management

Defining data points to track
Creating standard coding systems
Accuracy and reliability of data
Data cleaning and organization
Using spreadsheets for tracking
Dashboards for quick insights
Comparing current vs. historical performance
Benchmarking against opponents
Establishing norms for different positions
Confidentiality and ethical use of data

10. Reporting & Communication

Translating analysis into coaching points
Creating visual reports for athletes
Using graphs and charts to explain patterns
Communicating findings without overwhelming athletes
Feedback timing (immediate vs. delayed)
Goal-oriented feedback
Collaborative review sessions
Using data to motivate athletes
Highlighting strengths, not just weaknesses
Continuous evaluation and refinement of analysis methods

Here’s a detailed list of 100 things every sports talent scout should know about talent identification, organized into categories for clarity. This covers physical, technical, tactical, psychological, and environmental aspects.

1. Understanding Talent Identification

Definition of talent identification (TID)
Difference between talent identification and talent development
Importance of early identification
Identifying potential vs. current performance
Long-term athlete development (LTAD) models
Predicting future performance
Recognizing late bloomers
The role of genetics in talent
Considering growth and maturation
Multi-sport background benefits

2. Physical Attributes

Speed and acceleration
Agility and change of direction
Explosive power (vertical jump, sprint starts)
Endurance capacity
Strength relative to body weight
Flexibility and mobility
Balance and coordination
Reaction time
Body composition suitability
Anthropometric measurements (height, wingspan, limb ratios)

3. Technical Skills

Sport-specific technical proficiency
Ball handling and control (where relevant)
Passing accuracy
Shooting or scoring technique
Dribbling or maneuvering skills
Kicking or striking technique
Catching and fielding ability
Technique consistency under pressure
Adaptability of skills
Skill execution in different contexts

4. Tactical Understanding

Game sense or decision-making
Understanding positioning
Awareness of teammates and opponents
Reading the game in real-time
Understanding space and timing
Tactical adaptability
Anticipation of plays
Reaction to dynamic situations
Strategic thinking
Use of set plays or routines effectively

5. Psychological Attributes

Motivation and work ethic
Resilience under pressure
Mental toughness
Confidence levels
Focus and concentration
Competitive drive
Coachability and willingness to learn
Discipline and self-regulation
Handling failure and setbacks
Ability to thrive in team dynamics

6. Social and Leadership Skills

Teamwork and collaboration
Communication skills
Leadership potential
Peer influence on performance
Ability to mentor younger athletes
Attitude towards coaching
Emotional intelligence
Conflict resolution
Respect for rules and authority
Influence on team morale

7. Growth and Maturation Considerations

Biological age vs chronological age
Peak height velocity tracking
Muscle and bone development
Flexibility changes with growth
Late physical maturation considerations
Gender-specific development rates
Puberty timing impact on performance
Injury risk related to growth spurts
Anthropometric progression over years
Monitoring training adaptation safely

8. Physical Testing for Talent Identification

Sprint tests (10m, 20m, 40m)
Agility tests (T-test, Illinois test)
Vertical jump / standing broad jump
Strength tests (bench, squat, grip)
Endurance tests (Yo-Yo, beep test, Cooper run)
Speed endurance tests (repeat sprints)
Balance and stability tests
Reaction time drills
Functional movement screen (FMS)
Sport-specific fitness circuits

9. Observational Techniques

Watching live games and training
Video analysis of performance
Multi-angle observation
Tracking decision-making under pressure
Notational analysis of actions
Peer comparison within age group
Event coding for skill frequency
Contextual analysis (opposition, conditions)
Monitoring adaptation to new challenges
Observation under fatigue

10. Environmental and Lifestyle Factors

Access to facilities and coaching
Family support and encouragement
Nutrition and recovery habits
School and education balance
Community sports programs
Socioeconomic influences on development
Exposure to competition levels
Training consistency and commitment
Travel and tournament experience
Athlete’s lifestyle choices affecting longevity

Perfect—if we focus on Olympic-level athletes, the approach changes: tests need to be highly precise, sport-specific, and performance-predictive. I’ll give you 100 fitness testing protocols for Olympic athletes, grouped by category, emphasizing advanced, elite-level assessments used in top-tier sport science.

1. Speed & Acceleration

10m sprint (track & field)
20m sprint with timing gates
30m flying sprint
40m sprint with split times
Reaction start sprint test
Acceleration from crouch start
Sprint with weighted sled
Sprint with resistance parachute
Sprint on track vs treadmill
Olympic lifting sprint simulation

2. Agility & Change of Direction

T-test (elite timing gates)
Illinois agility test (with electronic timing)
5-10-5 pro-agility shuttle
505 change of direction test
Reactive agility with light stimulus
Sport-specific agility course
Lateral shuffle with load
Multi-direction sprint test
Zig-zag agility sprint
Decision-making agility drills

3. Strength Tests

One-rep max (bench press)
One-rep max (back squat)
One-rep max (deadlift)
Olympic lifts: clean & jerk max
Snatch 1RM test
Isometric mid-thigh pull
Max pull-up/push-up test
Leg press 1RM
Medicine ball overhead throw (strength-power link)
Grip strength dynamometer (precision monitoring)

4. Power & Explosiveness

Vertical jump with force plate
Countermovement jump (CMJ)
Squat jump with force plate
Drop jump / depth jump (plyometric assessment)
Standing long jump
Triple hop test
Medicine ball slam
Rotational medicine ball throw
Wingate anaerobic cycle test
Peak power output on cycle ergometer

5. Aerobic Endurance

VO2 max treadmill test
VO2 max cycle ergometer test
Lactate threshold treadmill/cycle test
Cooper 12-minute run (sport-specific adaptation)
Yo-Yo Intermittent Recovery Test
Incremental shuttle run
Step test with heart rate monitoring
Field-based 2km time trial
6-minute rowing ergometer test
Maximal aerobic speed (MAS) testing

6. Anaerobic & Speed-Endurance

Repeated sprint ability (RSA) test
Sprint interval treadmill test
Running-based anaerobic sprint test (RAST)
30-second Wingate anaerobic test
60-second all-out sprint
Sprint-fatigue index calculation
High-intensity interval sprint test
Shuttle sprint endurance
Lactate accumulation & clearance test
Anaerobic threshold testing

7. Flexibility & Mobility

Sit-and-reach (advanced version)
Functional movement screen (FMS)
Shoulder mobility test
Hip flexor Thomas test
Hamstring active straight leg raise
Ankle dorsiflexion test
Overhead squat assessment
Dynamic mobility drills assessment
Spine rotation & thoracic mobility
Sport-specific joint range assessment

8. Balance & Stability

Stork balance test with eyes closed
Y-balance test (with reach distances)
Star excursion balance test
Single-leg hop landing mechanics
Tandem walking with load
Dynamic balance on unstable surfaces
Functional reach test
Force plate balance assessment
Core stability plank endurance
Proprioceptive reaction drills

9. Body Composition & Anthropometry

DEXA scan for body fat & bone density
Skinfold calipers (precision)
Bioelectrical impedance (BIA)
Underwater weighing
Height, weight, and limb lengths
Somatotype classification (ecto/meso/endo)
Waist-to-hip ratio
Muscle girth measurements
Lean mass vs fat mass tracking
Bone mineral density assessment

10. Sport-Specific Performance Testing

Swim velocity & stroke efficiency (swimming)
Rowing ergometer power test (rowing)
Jump height & take-off angle (basketball/volleyball)
Tackle & sprint test (rugby)
Dribbling speed & control (soccer/basketball)
Bat swing speed & accuracy (baseball/softball)
Serve velocity & precision (tennis/volleyball)
Reaction time to visual cues
Sport-specific energy system simulation (match replication)
High-intensity competition simulation (integrated test)

Here’s a comprehensive list of 100 injury prevention principles every sports coach should know, organized by category. This covers training, biomechanics, recovery, monitoring, environment, and psychology.

1. Understanding Injury Prevention

Definition of injury prevention
Difference between acute and overuse injuries
Importance of proactive prevention vs reactive treatment
Risk factors for injury (intrinsic vs extrinsic)
Injury epidemiology in your sport
Periodization and injury risk management
Role of strength and conditioning in prevention
Injury surveillance and tracking
Recognizing early signs of injury
Educating athletes on self-monitoring

2. Physical Conditioning

Gradual progression of training loads
Sport-specific conditioning
Strength training for joint stability
Core strength development
Eccentric muscle training
Plyometric training with proper technique
Balance and proprioception exercises
Agility and coordination drills
Flexibility training
Endurance training for fatigue resistance

3. Warm-Up & Cool-Down

Dynamic warm-ups
Sport-specific movement drills
Neuromuscular activation
Mobility exercises before training
Gradual intensity increase
Cool-down routines to aid recovery
Stretching after activity
Foam rolling and self-myofascial release
Breathing and relaxation techniques
Activation of key muscle groups

4. Biomechanics & Technique

Proper running mechanics
Jumping and landing mechanics
Throwing or striking technique
Lifting mechanics for strength training
Sport-specific skill technique
Avoiding high-risk movements
Correct posture and alignment
Foot strike analysis
Kinematic chain awareness
Video feedback for technical correction

5. Load Management

Monitoring training volume
Tracking intensity with heart rate or RPE
Periodization of workloads
Avoiding sudden increases in load
Using acute:chronic workload ratio
Recovery days between high-intensity sessions
Cross-training to reduce overload
Alternating hard and easy sessions
Adjusting for environmental stress
Monitoring competition load

6. Injury Screening & Testing

Pre-participation screening
Functional movement screen (FMS)
Y-balance test for lower limb risk
Single-leg squat assessment
Joint range-of-motion tests
Muscle strength imbalance testing
Core stability assessments
Biomechanical analysis
Flexibility and mobility testing
Previous injury history assessment

7. Protective Equipment & Environment

Proper footwear selection
Protective padding and gear
Mouthguards for contact sports
Helmets and head protection
Field or court surface checks
Environmental risk assessment (wet, uneven, slippery)
Adequate lighting for visibility
Safe training equipment setup
Correct weightlifting equipment usage
Emergency equipment availability

8. Recovery & Regeneration

Adequate sleep and rest
Active recovery sessions
Hydration strategies
Nutrition for recovery and tissue repair
Ice, heat, or contrast therapy
Massage therapy
Self-myofascial release
Compression garments
Monitoring soreness and fatigue
Avoiding overtraining

9. Injury-Specific Prevention

ACL injury prevention programs
Hamstring injury prevention (eccentric training)
Shoulder injury prevention (rotator cuff strengthening)
Lower back injury prevention
Ankle sprain prevention (proprioception & bracing)
Knee injury screening
Concussion risk awareness
Tendinopathy prevention
Stress fracture risk reduction
Overuse injury management

10. Psychological & Behavioral Principles

Athlete education on injury risks
Encouraging open communication about pain
Stress and fatigue management
Avoiding risky behaviors
Mental preparation and focus
Goal-setting for safe progression
Coaching attentiveness during training
Encouraging recovery adherence
Building resilience without overloading
Monitoring motivation and willingness to train safely

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