SYSTEMATIC PHYSICAL PREPARATION AS A KEY FACTOR IN INJURY PREVENTION IN ELITE ALPINE SKIING

International Article: Alpine skiing

 

The Case of Žan Kranjec and Miha Hrobat

Assoc. Prof. ddr. Mit Bračič
Doctor of Physiotherapy
Doctor of Kinesiological Sciences
Strength and Conditioning Coach of Elite Alpine Skiers
Global Treatment Clinic, Ljubljana, Slovenia

“The greatest success of a strength and conditioning coach is not the medal itself. The greatest success is keeping the athlete healthy long enough to win it.”
— ddr. Mit Bračič

 

Abstract

Elite alpine skiing is one of the most biomechanically demanding Olympic sports. High speed, extreme ground reaction forces, icy surfaces, repetitive eccentric loading, jumps, vibrations, and dense competition calendars create an exceptionally high risk of acute and chronic musculoskeletal injuries. Epidemiological studies consistently identify the knee as the most frequently injured anatomical region, with anterior cruciate ligament (ACL) rupture representing one of the most severe and performance-limiting injuries in elite alpine ski racing.

The purpose of this expert article is to present a systematic, long-term model of physical preparation for elite alpine skiers, based on sports science, ski biomechanics, exercise physiology, longitudinal neuromuscular diagnostics, preventive physiotherapy, and multimodal regeneration. The model is presented through the practical examples of two Slovenian World Cup athletes: Žan Kranjec, the most successful Slovenian giant slalom skier in history, and Miha Hrobat, one of Slovenia’s leading speed-event specialists.

Despite the high injury burden in elite alpine skiing, both athletes have maintained long-term training and competition continuity without severe injuries or missed competitive seasons. Their approximately 95% completion rate of planned conditioning training represents a major competitive advantage in modern elite sport. This article argues that injury prevention should not be treated as an isolated intervention, but as the central foundation of long-term elite performance.

Keywords: alpine skiing, ACL injury prevention, elite sport, TMG diagnostics, sports biomechanics, strength and conditioning, preventive physiotherapy, return to performance, Olympic preparation

 

1. Introduction

Alpine skiing is among the most biomechanically demanding sports in the Olympic programme. Athletes are required to generate, absorb, and redirect extremely high forces at high speed while maintaining precise control of the trunk, pelvis, hips, knees, ankles, and skis. In speed events such as downhill and super-G, injury risk is further increased by higher velocities, jumps, longer exposure to loading, and greater ground reaction forces. In technical events, particularly giant slalom, the dominant challenge is repeated high eccentric loading of the quadriceps, hamstrings, and knee-stabilizing musculature during aggressive turns.

In modern elite sport, success no longer depends solely on maximal strength, explosive power, or aerobic capacity. A decisive performance factor is the athlete’s ability to remain healthy and available throughout the entire competitive season. Today, the greatest competitive advantage is not the heaviest back squat. It is athlete availability in January, February, and March—precisely when medals, crystal globes, and career-defining results are decided.

An elite alpine skier cannot be prepared only for optimal conditions. He must be prepared for ice, poor visibility, vibration, line errors, compressions, jumps, technically demanding turns, travel fatigue, cumulative neuromuscular stress, and the psychological pressure of major competitions. For this reason, physical preparation must be systematic, individualized, long-term, and guided by objective diagnostics.

2. Injury Epidemiology in Alpine Skiing

Contemporary epidemiological research confirms that alpine skiing is one of the sports with the highest risk of severe lower-limb injuries, particularly injuries of the knee joint. A clinical review by Tarka et al. (2019) reported injury rates of approximately 23.5–36.7 injuries per 100 athletes per season among World Cup alpine skiers. Nearly half of these injuries occur during competition, despite the fact that most skiing exposure takes place during training. This indicates that the competitive environment—defined by speed, risk-taking, psychological pressure, course setting, snow conditions, and tactical decision-making—places a unique load on the athlete.

The knee is the most commonly injured joint in adult alpine ski racers, and ACL rupture is the most frequent severe diagnosis. In speed disciplines, injuries are often associated with high velocity, jumps, prolonged run duration, and fatigue. In giant slalom and slalom, injury mechanisms are more often linked to high loads during turning, rapid changes of direction, and large rotational torques at the knee joint.

Spörri et al. (2026) emphasize that the prevalence of ACL injuries in competitive alpine skiing may reach 5–15% per season. In this context, an ACL injury is not merely a knee injury. For an elite alpine skier, it is often a career-threatening event associated with surgery, long rehabilitation, high reinjury risk, increased risk of osteoarthritis, and reduced competitive performance after return.

A particularly important finding is that although many alpine skiers are able to return to their previous competition level after ACL reconstruction, a substantially smaller proportion actually improves their world ranking after return. This supports the central principle of this article: injury prevention is far more valuable than injury treatment.

Norman et al. (2026), in a meta-analysis of ACL injury incidence across sports, further highlight that professional alpine skiing belongs among the highest-risk sporting environments for ACL injury. This makes long-term injury-free continuity among elite alpine skiers an exceptional achievement and a major indicator of the effectiveness of systematic physical preparation.

3. System Philosophy: Prevention Before Treatment

The fundamental principle of our preparation system is clear: injuries should not be addressed only after they occur. They should be prevented already at the stage when the first signs of muscular fatigue, asymmetry, altered tissue tone, or overload appear.

This requires continuous athlete monitoring and early identification of risk factors. The system includes regular assessment of muscular asymmetries, neuromuscular fatigue, contractile muscle properties through TMG diagnostics, body composition control, fascial tension assessment, and preventive soft-tissue physiotherapy.

Special emphasis is placed on the regeneration of muscles, tendons, the lumbar spine, the knee joint, the ankle, and the foot. Fatigued tissue is one of the strongest risk factors for injury. In alpine skiing, it is not enough for an athlete to be strong. He must also be elastic, symmetrical, neuromuscularly responsive, technically stable, and capable of repeatedly tolerating high loads without a progressive breakdown in movement quality.

Prevention in elite alpine skiing is therefore not a generic exercise programme performed twice per week. Prevention is a decision-making system. Every day, the central question is whether the athlete is capable of absorbing the next training or competition load without increasing injury risk. The answer must be based on objective data, clinical reasoning, communication with the coach, analysis of on-snow loading, and a deep understanding of the athlete’s individual history.

4. Sports Diagnostics: Not Only Muscle Mass, but Muscle Quality

In elite alpine skiing, monitoring increases in muscle mass alone is insufficient. Equally important—and often more important—is the quality of muscular contraction. Therefore, in addition to body composition, we systematically analyze contractile muscle properties, including contraction time (Tc), relaxation time (Tr), delay time (Td), maximal radial displacement (Dm), muscle tone, tissue elasticity, and functional symmetry between key lower-limb muscle groups.

We do not view a muscle as an isolated structure. We assess the entire kinetic chain: foot, ankle, knee, hip, pelvis, lumbar spine, and trunk. Alpine skiing is defined by intermuscular coordination between the lower limbs and the trunk. The athlete must transfer forces and joint torques from the trunk through the pelvis and hips to the knee joint, then through the ankle and foot, and finally through the ski to the snow surface. The reverse process is equally important: during turns, jumps, compressions, and changes of direction, the athlete must absorb and balance external forces coming from the snow through the ski back into the body.

This ability to efficiently transfer, absorb, and balance forces separates a well-trained skier from an elite performer. For this reason, conditioning training for alpine skiing must be closely linked to sports science, ski biomechanics, the physiology of effort in giant slalom and downhill, and the individual search for an optimal body constitution.

The goal is not simply to develop more muscle mass. The goal is to find the optimal relationship between body height, muscle mass, explosive strength, elasticity, stiffness, reactivity, technical efficiency, and discipline-specific performance on snow. For a downhill skier, greater absolute muscle mass can be a functional advantage if it is associated with explosive strength and the ability to absorb high forces. For a giant slalom skier, relative strength, rotational stability, force transfer speed, and technical precision are often more decisive.

Short-term projects between a strength and conditioning coach and an alpine skier rarely produce elite results. The development of a truly stable, resilient, and high-performing skier requires a long-term process. In most cases, the minimum time frame for world-class results is one to two Olympic cycles—four to eight years. Only over this period can the athlete’s body constitution be built, muscular asymmetries stabilized, neuromuscular responsiveness optimized, and a preventive system established that supports long-term competitive availability.

Figure 1. Longitudinal TMG diagnostics and neuromuscular symmetry monitoring (Tc)

    

*Representative examples of tensiomyography (TMG) diagnostics used for long-term monitoring of contractile muscle properties in elite alpine skiers. The assessment includes contraction time (Tc), delay time (Td), maximal radial displacement (Dm – muscle tone), neuromuscular fatigue, and functional symmetry between bilateral muscle groups. Early detection of asymmetries allows preventive intervention before injury occurrence.

5. Longitudinal Neuromuscular Diagnostics as Evidence of System Effectiveness

The greatest strength of our system is not a single diagnostic test, but long-term longitudinal monitoring of muscle contractile properties using TMG diagnostics. TMG allows objective monitoring of contraction time, delay time, maximal radial displacement, muscle stiffness, neuromuscular fatigue, functional symmetry, and potential injury risk.

In elite alpine skiing, early detection of change is more important than treating the consequence. If the symmetry of the hamstrings begins to deteriorate, if quadriceps responsiveness changes, or if the elasticity of the calf musculature decreases, this may represent an early warning signal that the tissue is no longer tolerating load optimally. At that point, training content can be adjusted, regeneration increased, strength work modified, or preventive physiotherapy added.

For Miha Hrobat, functional muscle diagnostics have been systematically performed since 2020. The monitoring includes key muscle groups such as the biceps femoris, rectus femoris, vastus lateralis, vastus medialis, gastrocnemius medialis, erector spinae, and tibialis anterior.

For Žan Kranjec, the longitudinal model extends back to 2013, providing a rare opportunity to analyze the career of an elite giant slalom skier across more than a decade and multiple Olympic cycles. This is a major added value, as long-term objective monitoring of the same elite athlete over such a period is uncommon in high-performance sport.

Figure 2. Thermography and functional postural analysis (Thermohuman.com)

  

* Infrared thermography and postural assessment used for identifying asymmetries, overload patterns, compensatory movement strategies, and early signs of tissue stress. These methods support clinical decision-making in preventive physiotherapy and training load optimization.

6. Miha Hrobat: Speed Events and Knee Protection

Miha Hrobat, as a downhill and super-G specialist, requires exceptional lower-limb strength, high knee-joint stability, and an optimal balance between explosiveness, muscular stiffness, and elasticity. In a downhill skier, any asymmetry in the hamstrings, quadriceps, or calf musculature may directly compromise knee control at high speed.

In the biceps femoris, contraction-time symmetry was markedly problematic in 2020, measuring 42%. By October 2025, this had stabilized at 99%, indicating almost complete functional symmetry of the hamstrings. This was not a random change. It was the result of several years of eccentric training, tone regulation, preventive physiotherapy, and systematic monitoring of muscular response.

Similarly, in the gastrocnemius medialis, Hrobat reached 100% contraction-time symmetry in August 2025, indicating an excellent state for force transmission, ankle stability, and knee protection in speed events. The calf musculature plays a crucial role in ankle control, vibration response, pressure regulation on the ski, and the transfer of forces between the foot and the knee joint.

The greatest functional improvement was achieved in knee stability, where functional symmetry improved from a critical range to above 90%. This represents an important indicator of reduced knee-injury risk under the high speeds and large ground reaction forces characteristic of downhill skiing.

Figure 3. Functional strength development and lower-limb force production

*Maximal strength and eccentric force development in lower-limb preparation for World Cup alpine skiing. Exercises such as heavy leg press, trap bar deadlift and resistance sprints are used to improve force production, load absorption capacity, knee stability, and resilience during high-speed skiing conditions.

 

7. FIS Results as Evidence of Functional Readiness: Miha Hrobat

The quality of a preparation system is not measured only in the laboratory. Ultimately, it must be confirmed on the racecourse.

In the 2024/25 season, Miha Hrobat made a major breakthrough among the world’s leading downhill skiers. At the opening World Cup downhill race in Beaver Creek, he finished third, achieving his first downhill World Cup podium. During the same season, he achieved further top results and podium finishes in the speed events, including Wengen and Kvitfjell. His performances confirm that high athlete availability, stable physical preparation, and the absence of severe injury allow continuity at the highest competitive level.

This is especially important in speed disciplines. A skier who is not physically prepared cannot ski with confidence at the limit of risk. Downhill does not allow compromise. If the body is not prepared, injury risk increases exponentially.

Figure 4. World Cup performance development by season – Competitive results as confirmation of functional readiness – Miha Hrobat.

https://www.fis-ski.com/DB/general/athlete-biography.html?sectorcode=AL&competitorid=163381&type=statistics

8. Žan Kranjec: Slovenia’s Most Successful Giant Slalom Skier and a Decade of Stability

Žan Kranjec is the most successful Slovenian giant slalom skier in history and one of the most successful Slovenian male alpine skiers of the modern era. His career is not the result of a single outstanding season, but of more than a decade of systematic work, stable physical preparation, and the absence of severe injuries that would have forced him to miss competitive seasons.

Giant slalom requires exceptional rotational stability of the hip, knee, and trunk, together with the ability to transfer force explosively within very short time windows. In May 2025, biceps femoris testing showed a clear risk marker, with contraction-time symmetry at 49%. Following targeted correction, this improved to 79% by August 2025, while delay-time symmetry reached 96%, indicating successful neuromuscular reorganization.

The vastus medialis has shown exceptional stability over time. In August 2025, both delay-time symmetry and contraction-time symmetry were 99%, representing one of the key reasons for his knee-joint stability in aggressive giant slalom turns.

It is especially important that Kranjec has remained competitive long term in a discipline that requires repeated eccentric strength, precise movement control, dominance over the outside ski, and stability at extreme edge angles. This injury-free continuity is one of the strongest indicators of the validity of the systematic approach.

Figure 5. Giant slalom specific strength and neuromuscular control

9. FIS Results as Evidence of Continuity: Žan Kranjec

Žan Kranjec spent nine seasons in the first starting group of the World Cup giant slalom, meaning that for almost a decade he belonged to the absolute elite of world giant slalom. Such consistency is rare in alpine skiing and represents direct evidence of stable performance capacity, technical quality, and physical readiness.

At the Beijing 2022 Olympic Winter Games, Kranjec won the silver medal in giant slalom and became Olympic vice-champion. The official Olympic results were: Marco Odermatt 2:09.35, Žan Kranjec 2:09.54, and Mathieu Faivre 2:10.69. After the first run, Kranjec was eighth; in the second run, he set the fastest time and won one of the most important medals in Slovenian men’s alpine skiing history.

In addition to his Olympic medal, Kranjec has achieved 15 World Cup podiums and two World Cup victories, both in giant slalom. His FIS results confirm an exceptionally long presence at the top of the sport, with regular top-level results in giant slalom.

In the 2022/23 season, he finished as the third-ranked giant slalom skier in the world, one of the highest achievements by a Slovenian technical skier in the modern World Cup era. In later seasons, he remained among the world’s best giant slalom skiers, confirming exceptional competitive longevity at the highest level.

This continuity is the strongest evidence of the effectiveness of the preparation system. We are not speaking only about individual medals, but about more than a decade of world-class results without severe injuries, without missed seasons, and with an exceptionally high completion rate of planned training.

Figure 6. World Cup performance development by season – Žan Kranjec.

https://www.fis-ski.com/DB/general/athlete-biography.html?sectorcode=AL&competitorid=137306&type=statistics

10. After Injury, Strength Does Not Necessarily Mean Readiness

Trachsel et al. (2025) highlight a crucial point: after severe lower-limb injury, maximal strength often returns faster than explosive power. This means that an athlete may appear ready in traditional maximal-strength tests, while still not being fully prepared for the specific demands of alpine skiing.

Explosive power with an eccentric component, often assessed through countermovement jump testing, is among the slowest qualities to recover. This is highly relevant for alpine skiing. In a turn, during a jump, or at landing, the skier does not need maximal force alone. He needs the ability to produce force rapidly, absorb force efficiently, and reactivate explosively under high mechanical stress.

For this reason, our system does not monitor only muscle mass and maximal strength. It focuses on the quality of muscular response, functional symmetry, explosive capacity, elasticity, stiffness, and the ability to tolerate load across the entire kinetic chain.

This is also why return to sport is not the same as return to performance. An athlete may return to training, but that does not necessarily mean he is ready to win. The goal of an elite performance system is not simply to return the athlete to sport, but to return him to the highest level of competitive effectiveness.

Figure 7. Measurement of take-off power.

11. Psychophysical Stability of the Athlete

Injuries often do not occur only because of insufficient strength. They may also occur because of central nervous system fatigue, reduced concentration, impaired proprioception, psychological fatigue, and poorer decision-making in high-speed situations.

Mogedano-Cruz et al. (2025) emphasize that psychological factors may also predict injury risk in elite skiers, including psychological inflexibility, depressive symptoms, neuroticism, and impaired stress regulation. Therefore, a modern preparation system must also include monitoring of the athlete’s psychophysical state.

It is important to monitor sleep quality, subjective fatigue, heart-rate variability, central nervous system readiness, stress level, motivation, psychological stability, and concentration capacity. An elite alpine skier must be prepared not only muscularly, but also neurologically and psychologically.

Boraxbekk, Supej, and Holmberg (2026) further emphasize the importance of cognitive neuroscience in alpine skiing. Alpine skiing is a sport in which the athlete must continuously update information from the environment at high speed, adjust motor programmes, and make decisions under pressure. The future of sports medicine and performance preparation in alpine skiing will therefore not be based only on muscles and joints, but also on understanding the brain as the central organ of athletic performance.

Figure 8. Spiroergometry and return-to-performance diagnostics

 

*Metabolic and physiological testing through spiroergometry and performance diagnostics. These assessments provide objective data regarding aerobic capacity, anaerobic thresholds, recovery efficiency, and return-to-performance readiness following intensive training periods.

12. Multimodal Regeneration as Part of the Preparation System

Elite alpine ski preparation does not include only strength, power, stabilization, and endurance training. It also requires systematic tissue regeneration. In this process, I combine sports science with physiotherapy science, upgrading standard recovery procedures with modern sports physiotherapy.

In practice, this means a multimodal approach in which different physiotherapeutic methods are applied according to the athlete’s condition, on-snow load, and diagnostic results. These methods are used to regenerate muscles, tendons, fascia, joints, and deep tissues. The modalities include ESWT and RSWT shockwave therapy (Storz Medical), HILT laser therapy (Klaser Speciale), HiToP electrostimulation, and EMMT Magnetolith (Storz Medical)

therapy for deep tissues.

The purpose of these methods is not to replace training, but to support regeneration and prepare the tissues for the next high load. In elite alpine skiing, the margin between optimal adaptation and overload is extremely narrow. Regeneration must therefore be planned with the same precision as training.

This combination of sports kinesiology, biomechanics, exercise physiology, and sports physiotherapy represents a modern multimodal model of elite-athlete preparation. I develop and implement this approach at Global Treatment Clinic in Ljubljana, where conditioning training, diagnostics, preventive physiotherapy, and regeneration are integrated into a single system for long-term health, athlete availability, and elite performance.

Figure 9. Integrated preventive physiotherapy and regeneration model

*Preventive physiotherapy and multimodal regeneration integrated into the conditioning process. Soft tissue treatment, neuromuscular recovery, fascial release, and deep tissue therapies (ESWT, RSWT, HILT, HiToP, EMMT) are systematically used to reduce overload risk and maintain athlete availability throughout the season.

13. Why In-Season Training Is Decisive

One of the major mistakes in many preparation systems is that high-quality physical training is emphasized only during the preparatory period. In elite alpine skiing, systematic training must continue throughout the winter.

This requires precise coordination of on-snow training, number of runs, skiing intensity, course difficulty, terrain demands, travel fatigue, regeneration, and conditioning training. The question is not whether to train during the season, but how much, when, and how.

If on-snow training is highly intense, the terrain is icy, and the number of runs is high, conditioning training must become more regenerative and stabilization-oriented. If on-snow volume is lower, more strength work, eccentric control, trunk training, and preventive content can be added. This continuous adjustment prevents overtraining, tissue fatigue, and injury.

Only a healthy athlete can achieve elite results. An injured athlete cannot win.

14. The Olympic Value of the System

In an Olympic cycle, the most important objective is for the athlete to arrive at the peak of the season healthy, fresh, and neuromuscularly stable. An Olympic medal is not the result of the final three weeks of preparation. It is the outcome of a multi-year system in which training load, regeneration, muscular asymmetries, nutrition, sleep, psychological stability, and technical-tactical readiness are monitored every day.

Žan Kranjec and Miha Hrobat demonstrate that even in a sport with an exceptionally high injury risk, it is possible to maintain long-term competitive stability. Their examples show that systematic physical preparation is not an addition to ski training. It is its foundation.

Elite performance is not the product of one method, one exercise, or one test. It is the result of integration: training, diagnostics, physiotherapy, regeneration, biomechanics, psychology, nutrition, sleep, and long-term communication between the athlete, coach, and expert team.

Figure 10. Integrated Olympic performance system with elite World Cup athletes

*Application of the complete performance system with World Cup athletes Žan Kranjec and Miha Hrobat. The model combines diagnostics, conditioning, physiotherapy, regeneration, and long-term injury prevention into one integrated elite performance framework designed for Olympic-level competition.

15. Conclusion

Elite performance is not the result of talent alone, but of a system. Talent allows entry into elite sport; the system allows the athlete to remain there.

Systematic physical preparation based on sports science, biomechanics, longitudinal diagnostics, preventive physiotherapy, and precise load management enables long-term sporting success without severe injury.

The cases of Žan Kranjec and Miha Hrobat clearly demonstrate that even in a sport with an exceptionally high injury burden, it is possible to keep athletes healthy, competitive, and consistently present at the highest level.

The greatest indicator of success is not only medals. The greatest indicator of success is that the athlete does not miss seasons, does not suffer severe injuries, completes the majority of planned training, maintains stable seasonal form, and remains available throughout the competitive year.

The greatest success of a strength and conditioning coach is not the medal itself. The greatest success is keeping the athlete healthy long enough to win it.

This is not coincidence.

It is the result of science, discipline, and systematic daily work.

References

1. Tarka, M. C., Davey, A., Lonza, G. C., O’Brien, C. M., Delaney, J. P., & Endres, N. K. (2019). Alpine Ski Racing Injuries. Sports Health, 11(3), 265–271.
2. Spörri, J., Müller, P. O., Fink, C., Alhammoud, M., Scherr, J., Gokeler, A., Seiler, J., Roten, J., Raich, M., Jordan, M. J., & Holmberg, H. C. (2026). Returning to Performance After ACL Injury in Competitive Alpine Skiing: A Scoping Review and Evidence- and Expert-Informed Practice Recommendations. Scandinavian Journal of Medicine & Science in Sports, 36, e70246.
3. Kékesi, M., Annar, D., Ambrus, M., Uhlár, Á., Tállay, A., & Lacza, Z. (2026). Physical and Ski Technical Factors Associated with ACL Injury Susceptibility in Elite and Recreational Alpine Skiers. Journal of Functional Morphology and Kinesiology, 11, 76.
4. Trachsel, S., Gross, M., Bruhin, B., Baur, H., & Hübner, K. (2025). Maximal and Explosive Strength of High-Level Alpine Skiers After Severe Lower Extremity Injury: A Retrospective Comparison with Non-Injured Skiers. Sports, 13, 450.
5. Norman, D., Terrian, L., Novosel, J., Guzman, A., Montalvo, A. M., Myer, G. D., & Petushek, E. (2026). Anterior Cruciate Ligament Injury Incidence Across Sex, Sport, and Competition Level: A Systematic Review and Meta-Analysis. Journal of Athletic Training, 61(3), 205–222.
6. Mogedano-Cruz, S., Clemente-Suárez, V. J., Jácome-López, R., García-Sanz, F., González-Fernández, L., González-de-la-Flor, Á., & Romero-Morales, C. (2025). Psychological Predictors of Sports Injuries in Elite Ski Athletes: A Multidimensional Analysis of Personality, Anxiety, Depression and Inflexibility. Frontiers in Psychology, 16, 1698313.
7. Boraxbekk, C. J., Supej, M., & Holmberg, H. C. (2026). Cognitive Neuroscience in Alpine Skiing: Introducing Computational Sports Medicine for Performance Optimization. Scandinavian Journal of Medicine & Science in Sports, 36, e70188.
8. International Ski and Snowboard Federation. Athlete Biography and Statistics: Žan Kranjec. FIS Database.
9. International Ski and Snowboard Federation. Athlete Biography and Statistics: Miha Hrobat. FIS Database.
10. International Olympic Committee. Beijing 2022 Olympic Winter Games: Men’s Giant Slalom Results.

 

About the Author

Assoc. Prof. ddr. Mit Bračič is a Doctor of Physiotherapy and a Doctor of Kinesiological Sciences specializing in elite sports performance, injury prevention, neuromuscular diagnostics, and return-to-performance systems in high-performance sport.

He works as a strength and conditioning coach for elite alpine skiers and other professional athletes competing at World Cup, Olympic, and international championship levels. His professional focus integrates sports science, biomechanics, TMG diagnostics, preventive physiotherapy, performance testing, and multimodal regeneration into long-term athlete development systems.

Through his work at Global Treatment Clinic, Ljubljana, he develops and implements individualized high-performance models designed to maximize athlete availability, reduce injury risk, and support sustainable elite results across multiple Olympic cycles.

His work is based on one central principle:

The greatest success of a strength and conditioning coach is not the medal itself. The greatest success is keeping the athlete healthy long enough to win it.