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Movement analysis laboratory

Measuring instead of guessing: movement analysis, performance diagnostics and the imaging we work with.

Optimising performance through science

Modern sports medicine uses scientific findings to improve athletic performance systematically and measurably.

Biomechanical analysis

3D movement analysis to optimise the technique and efficiency of athletic movement.

Applications:

  • Technique analysis and optimisation
  • Muscle function testing
  • Compensation mechanisms

Benefits:

  • Injury prevention
  • Improved performance
  • More efficient movement

Evidence-based training management

Scientifically grounded load planning based on individual performance data.

Measurement methods:

  • Heart rate variability
  • Lactate measurement
  • Strength testing

Training components:

  • Endurance training
  • Strength training
  • Coordination training

Optimising recovery

Strategies to speed up recovery between training sessions and competitions.

Active recovery:

  • Light jogging
  • Stretching and mobility
  • Water-based therapy

Passive recovery:

  • Massage and osteopathy
  • Cryotherapy
  • Compression therapy

Mental strength and sports psychology

Psychological techniques for better concentration, motivation and competitive performance.

Mental techniques:

  • Visualisation
  • Breathing techniques
  • Self-talk

Areas of use:

  • Competition preparation
  • Stress management
  • Coming back after injury

Sport-specific nutrition strategies

Optimised nutrition for training, competition and recovery.

Macronutrients:

  • Carbohydrate timing
  • Optimising protein intake
  • Healthy fats

By phase:

  • Pre-workout nutrition
  • Competition nutrition
  • Post-workout recovery

Sleep optimisation for athletes

Improving sleep quality as the foundation for performance and recovery.

Sleep hygiene:

  • Regular sleeping hours
  • An optimal sleep environment
  • A digital detox before bed

Effects on performance:

  • Improved reaction time
  • Better concentration
  • Faster recovery

Modern diagnostic methods in sports medicine

Precise diagnosis is the foundation of every successful treatment. Modern imaging and functional testing allow an exact assessment.

MRI (magnetic resonance imaging)

Detailed imaging of soft tissue, cartilage, ligaments and tendons without radiation exposure.

Particularly suitable for:

  • Cartilage damage and meniscus tears
  • Cruciate and collateral ligament injuries
  • Muscle and tendon injuries
  • Soft tissue tumours

Benefit: No radiation exposure, very detailed

Ultrasound (sonography)

Dynamic examination of muscles, tendons and ligaments in real time.

Areas of use:

  • Tendon inflammation and tears
  • Muscle injuries and haematomas
  • Joint effusions
  • Functional assessment during movement

Benefit: Immediately available, inexpensive, dynamic

X-ray and CT

Precise imaging of bone structures and complex fractures.

Used for:

  • Fractures and hairline cracks
  • Osteoarthritis and joint wear
  • Bone deformities
  • Loose bodies within the joint

Benefit: Fast bone diagnostics, 3D imaging (CT)

Arthroscopy

Minimally invasive joint inspection for diagnosis and treatment in one procedure.

Possibilities:

  • Direct inspection of the joint
  • Meniscus trimming or repair
  • Cartilage treatment
  • Cruciate ligament reconstruction

Benefit: Diagnosis and treatment in a single procedure

3D movement analysis

3D analysis of movement patterns to identify dysfunction.

Parameters analysed:

  • Joint angles and velocities
  • Force distribution and pressure points
  • Coordination and balance
  • Asymmetries and compensations

Benefit: Objective assessment of movement

Sports medical performance testing

Objective measurement of strength, endurance, coordination and mobility.

Test procedures:

  • Incremental lactate test (endurance)
  • Isokinetic strength measurement
  • Jump performance testing
  • Balance and coordination tests

Benefit: Individual training recommendations

Artificial intelligence in diagnostics

Artificial intelligence is increasingly being used to support the evaluation of imaging and movement analysis. AI algorithms can help to detect subtle changes and to predict injury risks that the human eye might miss.