- Review Article
- Open Access
The Training and Development of Elite Sprint Performance: an Integration of Scientific and Best Practice Literature
Sports Medicine - Open volume 5, Article number: 44 (2019)
Despite a voluminous body of research devoted to sprint training, our understanding of the training process leading to a world-class sprint performance is limited. The objective of this review is to integrate scientific and best practice literature regarding the training and development of elite sprint performance. Sprint performance is heavily dependent upon genetic traits, and the annual within-athlete performance differences are lower than the typical variation, the smallest worthwhile change, and the influence of external conditions such as wind, monitoring methodologies, etc. Still, key underlying determinants (e.g., power, technique, and sprint-specific endurance) are trainable. In this review, we describe how well-known training principles (progression, specificity, variation/periodization, and individualization) and varying training methods (e.g., sprinting/running, technical training, strength/power, plyometric training) are used in a sprint training context. Indeed, there is a considerable gap between science and best practice in how training principles and methods are applied. While the vast majority of sprint-related studies are performed on young team sport athletes and focus on brief sprints with maximal intensity and short recoveries, elite sprinters perform sprinting/running over a broad range of distances and with varying intensity and recovery periods. Within best practice, there is a stronger link between choice of training component (i.e., modality, duration, intensity, recovery, session rate) and the intended purpose of the training session compared with the “one-size-fits-all” approach in scientific literature. This review provides a point of departure for scientists and practitioners regarding the training and development of elite sprint performance and can serve as a position statement for outlining state-of-the-art sprint training recommendations and for generation of new hypotheses to be tested in future research.
There are considerable gaps between science and best practice in how training principles and training methods should be applied for elite sprint performance
This review serves as a position statement for outlining state-of-the-art sprint training recommendations
We provide a point of departure for discussion between scientists and practitioners regarding the training and development of sprint performance
The crowning of the 100-m sprint champion remains a hallmark of each Olympic Games, and the winners are “the world’s fastest humans.” The dramatic world record progression since the first modern Olympics has been driven by advancing training methodology and deliberate practice, combined with key improvements in running surfaces and footwear. Because sprint running is a core capacity that underlies performance in many sports, there is a voluminous body of scientific literature devoted to sprint training. The vast majority of sprint-related training interventions have reported positive effects on sprinting capabilities [1,2,3,4], leading to the assumption that sprinting performance is easily improved with a variety of methods. In contrast, observations of elite athletes over time show a very different reality, one where most annual within-athlete performance differences are lower than typical variation, the smallest worthwhile change, and the influence of external conditions (wind, temperature, altitude, timing methods/procedures, etc.) [5, 6]. Plausible explanations for this mismatch between published science and observed practice are (1) publication bias in favor of positive findings and (2) subject training status bias, with most experimental data coming from studies of untrained or moderately trained performers.
In contrast to the many descriptive studies of world-class endurance athletes (e.g., [7,8,9]), no studies of world-class sprinters to date have described the varying training components (modality, duration, intensity, resting periods, session rate, etc.) across the annual cycle. It is fair to say that positive developments in sprint training methods employed by world-class athletes have not been driven by sports scientists. Publicly available “recipe books” and training guides based upon the practical experience and intuition of world-leading sprint coaches, and also governing body documents from acknowledged athletics federations, have become important and popular sources of best practice training information and framework development for the international sprint community [10,11,12,13,14,15,16,17,18]. We believe combining data sources from available research evidence and results-proven practice provides a valid point of departure for outlining state-of-the-art sprint training recommendations and for generation of new hypotheses to be tested in future research. The objective of this review is therefore to integrate scientific and best practice literature regarding the training and development of elite sprint performance. Although the present review is anchored in athletics and competitive 100-m sprinting, most of the content is also relevant for other sports where linear sprints frequently occur.
Sprint Performance Determinants
The 100-m sprint has traditionally been categorized into three main phases: acceleration, maximal velocity, and deceleration [19, 20]. The acceleration phase can in turn be segregated into initial (start block and reaction), middle, and final subsections . Reaction time in world-class sprinters is typically 0.17–0.18 ± 0.03 s . The shape of the velocity curve is consistent across performance level, but the duration and quality of each phase vary from athlete to athlete. Overall, maximal velocity is highly correlated with 100-m sprint performance, and the best sprinters accelerate over a longer distance than their lower performing counterparts [23, 24]. Table 1 displays an overview of observed split times as a function of 100-m sprint performance level [25,26,27,28,29,30,31,32] and can be used to identify individual strengths and weaknesses across the varying phases.
Power, technique, and sprint-specific endurance are considered key underlying determinants of 100-m sprint performance [3, 11,12,13,14,15,16, 24, 33, 34]. A very strong relationship exists between maximal horizontal power output and sprint performance; the shorter the sprint distance is, the higher the association with maximal horizontal power output . Power output demand in sprinting increases exponentially with velocity [35, 36]. Slawinski et al.  reported that step averaged maximal horizontal power output in male and female world-class sprinters was 30.3 ± 2.5 and 24.5 ± 4.2 W kg− 1, respectively, typically reached after ~ 1 s of sprinting. The highest individual values for men and women were 36.1 and 29.3 W kg− 1 respectively, representing current upper limits in humans .
Although the basic principles of sprinting are relatively simple and governed by the laws of motion, the way an athlete solves the mechanical constraints and utilizes the degrees of freedom within these constraints is far more complex . A review of research literature shows that the following kinematic variables have received the most attention [38,39,40,41,42,43,44,45,46,47]:
Spatiotemporal variables (e.g., step length, step rate, contact time, flight/aerial time)
Segment configuration at touchdown and lift-off
Lower-limb segment velocities immediately prior to touchdown or during ground contact
Front- and back-side mechanics
Indeed, sprint mechanical variables are entangled, and no single variable is associated with better performance . Because kinetics and kinematics are entwined, athletes cannot apply sprinting mechanics that they are not adequately predisposed to. For more information regarding the sprint running technique, we refer to previously published biomechanical analyses (e.g., [20, 24, 33, 34, 38,39,40,41,42,43,44,45,46,47,48,49,50,51]).
Sprint-specific endurance refers to the deceleration phase of the sprint. The velocity decline is typically accompanied by a reduction in step rate . Sprint-related fatigue is attributed to disturbances in the central nervous system and peripheral factors within the skeletal muscles [52,53,54,55]. Available research indicates that leg stiffness, which influences elastic energy storage, is particularly crucial for sprint-specific endurance [56,57,58,59,60,61]. Sprint-specific endurance is also determined by instantaneous energy delivery . Estimated from accumulated oxygen deficit measures, the relative anaerobic energy system contribution (from stored adenosine triphosphate, stored phosphocreatine, and anaerobic glycolysis) is about 80% for 100-m sprint .
Sprint performance is heavily dependent upon genetic traits. Charlie Francis, an acknowledged sprint coach, stated that “sprinters are born, not made” . However, which genetic profiles make the greatest contribution has been the subject for much debate [63, 64], as genetic predispositions include not only anthropometric characteristics and muscle fiber-type proportions, but also the capacity to adapt to training [65, 66]. In general, elite performance appears polygenetic, with the contribution of numerous genetic variants being additive.
Sprint Performance Development
Sprint performance capacity evolves and devolves throughout life via growth, maturation, training, and aging [5, 67,68,69]. Age of peak performance in world-class sprinters is typically 25–26 years [5, 70, 71]. However, the concept of training age needs to be considered when assessing age of peak performance. Athletes who start with specialized training at a young age may also tend to reach their peak performance at an earlier age than their counterparts who specialize somewhat later.
Haugen et al.  reported that for world top 100 sprinters in their early 20s, mean annual improvements were in the range of only 0.1–0.2%. The very best athletes generally display greater improvement in the years just preceding age of peak performance compared with their lower performing counterparts [5, 72, 73]. For example, Haugen et al.  reported that the world’s all-time best male and female sprinters improved by an average of 8% from 18 years of age, while the corresponding improvement for Norwegian national-level competitive sprinters was 1.3–1.4%. The potential use of doping among some of the investigated athletes may have affected these results, but trainability variations across performance level may also be explained by other factors (e.g., training status, responsiveness to training, coaching quality, nutrition, etc.). Nevertheless, it becomes very challenging to enhance or even maintain sprint performance beyond the age of 30 [5, 70], most likely due to neural and/or hormonal factors and an age-related decrease in type II fiber distribution and/or cross-sectional area [74,75,76].
Identification and development of sprint talent are confounded by the observed variation in physical maturation rate and timing. Elite junior athletics is characterized by a combination of marked relative-age effects and high attrition rates. Many young athletes may be discouraged from continuing to senior level before realizing their full potential [77, 78]. Boccia et al.  observed that, within a group of talented young performers, athletic performance in the early teens is not a good predictor of senior performance in long and high jump. It is reasonable to assume that this is also true for sprinting.
Taken all findings together, sprinters who perform at a high junior level without excessive specialization are at the optimal point of departure for senior success. Excessive specialization and inappropriate training progression increase the odds of nonfunctional overreaching, overtraining, and performance stagnation [80, 81]. A widely held view is that elite performance requires ~ 10 years or 10,000 h of deliberate practice to acquire the necessary skills and experience to perform at an international level [82, 83]. Although the deliberate practice framework has gained popularity in sport science and in popular literature, its applicability to sprint running is very limited. The publicly available biography of Usain Bolt  exemplifies that extremely talented athletes can reach an international level within only 5–6 years of deliberate practice. Indeed, there is considerable variation among athletes and numerous routes to expertise under optimal conditions. As a foundation for long-term training strategy, coaches rely on well-established training principles to design programs and make educated decisions.
Long-term performance development is only achieved when athletes are exposed to a systematic increase in training load over time, while adequate recovery is ensured . Indeed, the capacity to perform and absorb large training loads is seen as both an adaptation over time and a talent in itself. Training load in sprint running is determined by a series of components such as training modality (e.g., sprinting/running, strength training, plyometric training), duration, intensity, resting periods, session rate, running surface, and footwear [10,11,12,13,14,15,16]. These components will be treated more in detail in a sprint-specific setting later in this review.
The principle of progressive overload is envisioned to reduce the risk of injury and overtraining while stimulating long-term training adaptations. Excessive and rapid increases in training loads are likely responsible for a large proportion of soft-tissue injuries [86, 87]. In sprinters, the training phase immediately following the off-season and the transition phase between the preparation period and competitive season are particularly vulnerable periods for injury. Haugen et al.  observed that two-thirds of all hamstring injuries in competitive sprinters occurred in the transition period between specific preparation and competition season. This period is ideally characterized by large reductions in training volume, increases in training intensity/sprint speed, and positive “bumps” in individual sprint performance development. Therefore, during the initial weeks of a sprint training program, there should be a gradual familiarization, both in terms of intensity and duration/repetitions. Moreover, it is crucial that sprinters gradually mobilize their maximal sprinting capacity as the competitive season approaches. When the difference between training speed and competition speed is too large, injury risk appears to increase, but aggregated data on this relationship in competitive sprinters are lacking.
Running surface and footwear are crucial and specific modifiers of training load for sprinting. It is generally assumed that the harder the surface is, the higher the neuromuscular load for the lower limbs [10, 11, 13,14,15]. Most elite sprinters perform high-intensive sprinting sessions with spike shoes on a rubberized track surface. Because such training is demanding for the central nervous system, empirical evidence suggests that intensive sprinting sessions require at least 48 h of recovery. Hence, sprinting on consecutive days rarely occurs among leading practitioners [10,11,12,13,14,15,16,17,18]. In contrast, recovery sessions or low-intensive intervals are typically performed with cushioned running shoes/trainers on grass or artificial turf. There is a long tradition for low-intensive interval training on grass in Jamaican sprinting .
Training adaptations are specific to the stimulus applied, encompassing movement patterns and force-velocity characteristics such as muscle actions and muscle groups used, speed of movement, range of motion, training load, and energy systems involved . Based on these considerations, it is not surprising that sprint running and high-velocity movements are paramount for sprint performance enhancement [4, 90]. According to Charlie Francis, the main stimulus is the number of sprinting meters at high intensity [13, 14]. However, there are also variations within specific conditions. For example, sprint running can be performed under assisted or resisted conditions. Other “less specific” training forms such as strength, power, and plyometric training are commonly performed to target the underlying components of sprint performance [10,11,12,13,14,15,16,17,18]. Although these training forms do not duplicate the holistic sprint running movement, they provide targeted stimuli of important components that limit sprint performance. The varying training methods for sprint performance enhancements are treated more in detail later in this review.
Variation and Periodization
The principle of variation builds on the notion that systematic variation in specific training variables is most effective for long-term adaptations [90,91,92]. According to the American College of Sports Medicine (ACSM), advanced athletes should perform training with higher relative loading in a periodized fashion. The higher the performance level, the more systematic variation is recommended . The most commonly investigated training theory involving planned training variation is periodization, an often misused term that today refers to any form of training plan, regardless of structure .
Matveyev was the first to write a book about training periodization in the 1960s . A key feature for the traditional periodization model was early emphasis on high training volume with low intensity, followed by a gradual transition to higher training intensity and reduced volume as the competition periods approached. Several leading sprint coaches are skeptical of the classic periodization model because (1) the initial high-volume/low-intensity training leads to inappropriate adaptations, (2) the high-intensity training closer to the competition season encompasses insufficient volume, and (3) the steep intensification of training at the end of the preparation period leads to an unnecessary increase in injury risk [11, 13, 14]. It should be noted, however, that many sprint coaches apply a form of traditional periodization, although with fewer fluctuations in intensity and volume than Matveyev’s original model.
Block training periodization was introduced by Verkhoshansky  in the 1980s and has been widely used by prominent coaches. The term “block training” has generally been understood to consist of training cycles of highly concentrated specialized workloads. The usefulness of block training has also been questioned by acknowledged sprint coaches, as the model prohibits developed skills to be maintained throughout the varying meso-cycles . Publicly available information indicates that alternative periodization models are used within elite sprinting communities [10,11,12,13,14,15,16]. Choice of periodization model seems to depend on sprint distance (100 m vs. 400 m), daily situation (high school/college/university level, professionals vs. semi-professionals or amateurs), and tradition. Some coaches classify the training year into one preparation phase and one competition period. Double periodization (i.e., two peaking phases) is more common, consisting of a preparation phase, an indoor season, a new preparation phase, and finally an outdoor competition season. Some of the very best athletes also split the outdoor season into early and late peaks in order to prepare for national trials and international championships. Classification of training into “heavy” and “easy” weeks within the preparation periods is another important aspect within periodization. Leading practitioners typically use a 2:1 or 3:1 periodization, that is, 2 or 3 weeks with relatively high training load are followed by an easier training week for recovery purposes [10, 11, 13, 14].
The “long-to-short” periodization model is typically applied by long-sprint specialists . This approach focuses on long distances in the early preparation period and progresses to short distances throughout the training year [11, 15, 16]. An even more popular periodization model for sprinters was introduced by Charlie Francis in the 1980s, termed “short to long” [13, 14]. Here, training periods are mainly differentiated by the relative emphasis on each phase of a sprint: acceleration, maximum velocity, and deceleration. The initial meso-cycles focus on short sprints and power training, culminating with the indoor season where 60 m is the main event. Maximal velocity is prioritized after the indoor season, while sprint-specific endurance becomes more prioritized when approaching the outdoor season. According to the model, it is easier to improve maximal velocity and then extend the duration that velocity can be maintained. The short-to-long periodization model ensures that developed skills are not lost. Maintaining key elements while adjusting the demand of a given skill is a vital principle. This short-to-long approach has been used by numerous leading practitioners in the last decades [10, 11, 13,14,15,16].
Another key feature within the short-to-long periodization model is the polarized training concept. More specifically, sprinting intensity should be either ≥ 95% or < 70% of maximal velocity to enhance performance or facilitate recovery, respectively [11, 13, 14]. It is assumed that mid-range intensities (~ 70–95%) are not beneficial either for performance or recovery and should be avoided. Dan Pfaff, the coach of Donovan Bailey (former 100-m world record holder and Olympic Champion), has for many years practiced a concurrent, polarized, and short-to-long model of thinking within the micro-cycle build approaching a competition season [11, 17]. Three-day training blocks are utilized: short accelerations are performed on Monday, maximal velocity sprinting on Wednesday, and sprint-specific endurance on Friday. We note that the polarized training organization performed in certain sprinting communities bears great resemblance with training intensity distribution in elite endurance athletes, which is typically organized after a polarized pattern (e.g., [7, 95, 96]). In sprint running, the polarized approach might resemble required training quality when training at the highest velocities, and at the same time sufficient volume of sprinting. Training in between these “zones/velocities” might be “a black hole”, where neither the quality nor the quantity for further development is achieved. Overall, the physiological mechanisms underlying the polarized training concept are far from understood, and future studies should pay more attention to this topic.
In conclusion, elite coaches plan the training of their athletes with significant detail. However, the underlying mechanisms for the superiority of specific periodization models in sprint running remain unclear, and there is no direct evidence enabling us to compare outcomes across the various periodization methodologies .
Individualization is a general training principle and refers to the idea that training must be prescribed according to individual performance capacity and predispositions such as anthropometric factors, training status/age, sex, recovery/injury status, and force-velocity profiles [10, 13, 14, 90, 97]. For example, the kinematics of sprinting varies according to performance level and anthropometric factors. This includes spatiotemporal variables, start block positioning, trunk angle during the early acceleration phase, and lower limb joint angles [20, 38, 40, 51]. Hence, coaches cannot implement sprinting mechanics that their athletes are not predisposed to by nature and prepared for through training. For example, a mediocre athlete will likely sprint slower when trying to adapt the step length of a world-class sprinter as the ground reaction forces typically become more vertically oriented.
Total training volume generally increases with training age, but as athletes approach their maximum potential at the end of their career, training volume may decrease to accommodate increased need for recovery time between high-intensity sessions [15, 16]. This coincides well with age-related changes in anabolic hormone concentration that play a crucial role in the body’s metabolic, tissue repair, and anabolic capabilities in response to training. For example, testosterone is positive for sprint performance . From the third decade, circulating testosterone levels decline gradually each year [74, 99]. There are also sex differences in endocrine response to training, as several strength training studies have revealed significant elevations in the recovery of testosterone and free testosterone in men through 30 min into recovery, while no or limited acute elevations have been observed in women . Within this context, it is interesting to note that Stephen Francis, an acknowledged Jamaican sprint coach, has argued that women should perform training sessions with 20% less volume than men . A counter argument would be that women are able to absorb higher training volumes, because their maximal velocity is ~ 10% lower than men (corresponding to substantially lower peak force and power loads on the neuromuscular apparatus). The scientific training literature provides very limited information regarding potential sex differentiation of training prescription, and future studies should devote more attention to this topic.
Training history appears to modulate recovery processes, but this interplay is not well appreciated in the research literature. In the American College of Sports Medicine position stand, the recommendations for rest period length and training frequency for power training are like those for novice, intermediate, and advanced athletes . In contrast, the guidelines outlined by the UK Athletics state that duration, number of repetitions, and recovery time in sprint-specific training sessions should be adjusted according to training status and performance level [15, 16]. For example, an underlying assumption in high-performance environments is that each sprint performed by an elite athlete is more demanding on the entire neuromuscular system than for their lower performing counterparts, and hence, more recovery time between each sprint is needed [15, 16]. Future research should aim to verify this claim.
It has recently been suggested that individualized sprint training should be based on force-velocity (Fv) profiles [97, 101, 102]. A possible avenue for such an approach is individual test comparison with group mean values, where athletes with velocity deficits should be prescribed more maximal velocity sprinting, while athletes with horizontal force deficits should prioritize more horizontal strength work . Although reference values have been outlined for athletes across sprint performance levels [23, 35, 38], it remains unclear if such an approach is effective . The logic of this approach builds on an assumed direct relationship between acceleration and peak velocity measurements for the runner and the underlying contractile characteristics of the muscle groups involved. However, the fascicle shortening velocities of active muscles do not necessarily change with increasing running velocity [104,105,106]. The relationship between changes in running velocity and muscle fascicle shortening velocity appears to be complicated by an increased contribution from elastic properties with increasing running velocity [104,105,106]. Running velocity is not a proxy for muscle contraction velocity, and for this reason, Helland et al.  have questioned the use of Fv profiling in this context. More research is required regarding how training should be evaluated and modified based on force-velocity assessments.
The vast majority of scientific studies investigating sprint training methods are performed on young team sport athletes where brief sprints with short recoveries are the norm [1,2,3,4]. Therefore, sprint training recommendations from the research literature have limited relevance to competitive sprinting, where elite 100-m athletes perform sprint-specific training over various distances. Practitioners classify sprint running either according to phase of interest or primary energy system used [11,12,13,14,15,16]. For the latter, sprint duration shorter than 6–7 s is considered alactic, while longer sprints are considered lactic [11,12,13,14,15,16]. In the following paragraphs, we present best practice guidelines for specific sprint training according to phase of interest. Total volume within these sessions is typically guided by the intensity and visual inspection of technique. That is, the session should be ended when drop-off in performance and/or technical deterioration is observed [11, 13,14,15,16]. Table 2 summarizes the best practice guidelines, while Table 3 shows examples of training weeks across varying meso-cycles.
When acceleration is the primary focus, leading practitioners recommend 10–50-m sprints from blocks, crouched or a three-point start position [10, 11, 13,14,15,16,17,18]. Block starts are considered more energetically costly than standing starts. The distances used will vary depending on athlete performance level, as better sprinters reach higher top speeds and accelerate longer than their lower performing counterparts. Full recovery is required between each sprint, allowing the athlete to perform each repetition without a drop-off in performance. According to the UK Athletics, longer recoveries are required for elite sprinters who are reaching higher absolute intensities than for younger developmental athletes . A typical acceleration session for a young and relatively untrained athlete might be runs over 20 m from a crouched start with 2-min recovery between each repetition, while an elite sprinter may perform sprints over 40 m from blocks with 7-min recovery in between .
Flying sprints are typically recommended when the focus is to develop maximal velocity [11, 13,14,15,16]. The aim is to reach the highest velocity possible and continue the sprint run for only as long as velocity does not decrease. Athletes are able to maintain maximal velocity for only around 10–30 m, depending on performance level and training status [31, 32]. Flying sprints are often performed from a rolling (jog in) start. Although the rate of acceleration is reduced, the athlete may be able to achieve a higher maximum velocity or reach the same velocity as after maximal acceleration but using less energy. The run-up distance typically ranges from 20 to 60 m, depending on the distance an athlete needs to reach the highest speeds. Young and relatively untrained athletes may use a 20-m build-up for 10-m flying sprints with ~ 4-min recovery in between. In contrast, elite competitors may use a 40-m build-up for 30-m flying sprints. Because their speeds may approach 12 m s− 1, the recovery interval may need to be ~ 15 min before they can reproduce the performance again [11, 13,14,15,16].
The aim of sprint-specific endurance training is to improve the ability to maintain sprint velocity for as long as possible. Such training is typified by runs lasting 7–15 s at 95–100% intensity, with full recovery used between repetitions and sets [11, 13,14,15,16,17,18]. A rule of thumb among practitioners is that 1–2-min recovery is required for every second spent on maximal sprinting [15, 16]. The higher the performance standard, the longer the recovery periods are required. While 2–3 × 100-m sprints with 10-min recovery may be an adequate sprint-specific endurance session for a relatively untrained junior, a well-trained elite competitor may perform 4–6 × 150-m sprints with 20–30-min recovery between repetitions [15, 16].
While most scientific studies recommend that sprinting repetitions should be performed with maximal velocity [1,2,3,4], acknowledged practitioners have over decades prescribed sprint training during the preparation phase with sub-maximal intensity. Pioneer sprint coach Carlo Vittori (founder of the European School in sprint training and coach of the former 200-m world record holder Pietro Mennea) introduced the “speed endurance” concept already in the mid-1970s . This consisted of series with repeated sprints over 60–80 m, interspersed with approximately 2- and 8-min recovery between sprints and series. The intensity began at 90% of maximal sprint velocity in the initial weeks and progressed to 95% throughout the preparation period. This was accompanied by a gradual increase in total volume from 6 to 800 m (e.g., 2 series of 5 × 60 m) and up to 1500–2000 m (e.g., 5 series of 5 × 60 m) during the preparation phase. However, as the competition season approached, the total volume decreased while the intensity gradually increased to maximal effort . Vittori’s speed endurance concept has later been adopted by other acknowledged sprint coaches [11, 13,14,15,16].
Available evidence in endurance and strength training also demonstrates that high but sub-maximal intensity loading effectively stimulates adaptation through the interaction between high intensity and larger accumulated work that can be achieved before the onset of fatigue, compared with maximal efforts [90, 108]. While most practitioners argue that 92–95% intensity is required [11, 13,14,15,16], the lowest effective sprinting intensity for stimulating adaptation is so far not established in the research literature. Given the exponential relationship between power and velocity, a reduction from maximal to ~ 95% of maximal velocity represents a substantial reduction in force and power load on the neuromuscular system. Most coaches tend to link speed endurance training to the deceleration phase of the sprint. Scientific studies of team sport athletes indicate that sub-maximal sprinting (i.e., ~ 90–95% of maximal velocity) is more effective for enhancing maximal velocity than for improving the acceleration phase [109,110,111].
Practitioners typically assess the athletes’ velocity during sprint training sessions for control and intensity regulation, and timing gates with 10–30-m intervals are typically used for this purpose. The intensity scale in Table 4, which is based on the velocity obtained during 10-, 20-, and 30-m splits (excluding the acceleration phase), can assist practitioners during sprint-specific training sessions.
Resisted sprinting is a commonly used method to overload specific capacities for sprinting acceleration performance, including uphill sprinting, sled sprints, or using motorized devices. Although sled sprints have been most investigated in the research literature , uphill sprinting has also been reported as an effective tool for sprint performance improvement, at least in team sport players [112, 113]. It has been suggested that resisted sprint training may be a more effective tool to improve horizontal force and power production during sprinting compared with, e.g., traditional strength and power training performed in the gym [2, 114]. It is hypothesized that better transfer to sprint performance can be achieved if the resistance training exercises mimic the motor pattern and contraction type of performance movement. Resisted sprints are typically categorized based on the performance time decrement induced by the resistance into light (< 10% velocity decrement), moderate (10–15%), heavy (15–30%), and very heavy (> 30%) loads . A limited number of studies have exceeded relatively light resistance loading in fear of constraints such as slower running velocity and/or altered running technique [2, 115]. However, acknowledged scientists have recently questioned this approach, as strength and power exercises with heavy weights might be replaced by moderate to very heavy resisted sprint loading [114, 116, 117]. According to Cross et al. , the optimal loading for maximizing power output during resisted sprinting is a resistance that reduces the maximal velocity by ~ 50%. Morin et al.  tested the use of very heavy resistance load in soccer players and observed a substantial, increased horizontal force production when compared with non-resisted sprinting. However, only trivial between-group differences were observed for power output and sprint performance. Because peak power output during a maximal sprint is reached after very few steps and falls substantially during the remaining part of the sprint [23, 38], it is reasonable to assume that the entire power output range should be targeted during the training process. What is beneficial for a small portion of the sprint is not necessarily beneficial for overall performance. Haugen et al.  proposed that heavy resisted sprinting is likely more appropriate for sports where the athletes are required to perform brief sprints while moving an external mass (e.g., bobsleigh). Overall, the literature is equivocal regarding the potential short-term effects of resisted sprinting when compared with sprinting under normal conditions [2, 3]. Still, specific adaptations are observed for resisted sprint training. That is, resisted sprint training improves resisted sprint performance more than sprint performance under normal conditions . Whether enhanced resisted sprint performance provides potential transfer effects to normal sprinting over time remains unknown.
Resisted sprinting is commonly used in the preparatory training phase among successful sprint groups [10,11,12,13,14,15,16]. However, the resistance loading varies across groups and individuals. While the UK Athletics argues that only light loads should be used to ensure proper running mechanics [15, 16], some of the very best Jamaican sprinters (e.g., Asafa Powell) have applied heavy resistance loads during sled sprints . However, resisted sprinting is not prioritized during the competition season in either of these elite sprinting groups.
Assisted sprinting (e.g., downhill running, being pulled by an elastic cord or motorized devices) has occasionally been used by scientists and practitioners as a tool for maximal velocity improvement. Athletes are typically advised to focus on high step rate when approaching their maximal velocity during assisted sprints [103, 119, 120]. That is, supramaximal velocity should be a result of higher step rate, shorter ground contact times, and higher hip angle velocities. Clark et al.  observed that towing force magnitude influences the kinematics of supramaximal running. Potentially negative training effects may arise (e.g., increased foot touchdown distance relative to center of mass), and towing force should be individualized to avoid poorer sprint mechanics. Due to the lack of studies investigating assisted sprinting and differences in methodology, it is difficult to draw conclusions from the research literature. Practitioners are generally reluctant to use assisted sprinting devices due to injury risk [10, 11, 13,14,15,16], although tail wind sprinting is typically preferred on windy days. Some athletes include assisted sprinting as a part of the warm-up routines prior to competitions. To the best of our knowledge, no studies or practitioners to date have applied assisted sprints for energy preservation purposes. Athletes may be able to perform higher volumes of sub-maximal sprinting (e.g., ~ 95% intensity) during assisted conditions as each sprint is performed with less perceived effort compared to sprinting under normal conditions. This approach remains to be tested.
Although research literature has emphasized the importance of technique on sprint running performance [20, 24, 33, 38, 40, 49, 51], very few sprint-related studies are devoted to how optimal mechanics can be achieved. The concept of competency-based progression is particularly emphasized in motor learning literature. That is, athletes should not progress to more challenging aspects of training until they master the underpinning principles . Childhood is clearly the most opportune time for fundamental movement skill mastery [123, 124], and acknowledged practitioners have experienced that running movements become more challenging to modify when approaching senior age [10, 11, 15, 16]. Improving a sprinter’s mechanics can be considered a career-long pursuit.
Although sprint training “always” involves technical aspects, sprint drills are commonly used by practitioners to reinforce the technical work, for proprioception, and to isolate specific movement features [10,11,12,13,14,15,16,17,18]. These include hurdle drills, walking high knees, running high knees, skips, and straight leg bounding, with focus on posture, high hips, front-foot landing, configuration at touchdown and lift-off, etc. Drills are low-speed exercises that are easier to control than high-speed running, typically performed as a part of warm-up routine. Motor learning research tells us that for positive reinforcement of the technique to occur, the biomechanics used in practice must closely resemble those used in competition [89, 122]. Hence, sprint drills must target key technical elements, ensuring crossover effects to normal sprinting over time. Such exercises must be prescribed individually to target the athlete’s limiting factor and provide each athlete a feeling of proper sprinting mechanics [11, 15, 16].
Well-developed coaching skills are a necessity for the practitioner to effectively interact with athletes of all levels . Indeed, coaching communication, feedback, and specific verbal instructions play an integral role in the skill development of sprinting [10, 11, 13, 14]. Although external focus (i.e., on the desired movement effect) has been highlighted in the research literature for enhancing motor performance and skill learning [125,126,127], most novice coaches use verbal cues during practice that promote an internal focus of attention (i.e., on body movements) . The very best coaches provide allegorical/metaphorical feedback where attention is called upon the athlete’s feeling while executing the practices . For example, the cue “trim the grass with your toes” can be used when the aim is to reduce the flight time during the very first steps of the acceleration phase . Here, art and science do seem to merge, given the interrelation between word choices during instruction, interpreted motor pattern change by athlete, and resulting force and power production. According to Glen Mills, the coach of Usain Bolt, focused athletes with well-developed proprioceptive senses are paramount for coaching to be successful .
Strength and Power Training
Strength and power training has received considerable research attention over the years, and training recommendations for hypertrophy, maximal strength, and power are outlined for novice, intermediate, and advanced athletes [90, 129]. Ballistic exercises with loading up to ~ 60% of one repetition maximum appear to be a highly potent loading stimulus for improving maximal power [90, 130, 131]. However, heavier loading might be necessary to increase the force component of the power equation. Although there is a fundamental relationship between strength and power [130, 132, 133], improvements in sprinting performance do not necessarily occur immediately after a period of strength training . In fact, heavy strength training may induce negative short-term effects on sprint performance . As an athlete gets heavier, the energy cost of accelerating that mass also increases, as does the aerodynamic drag associated with pushing a wider frontal area through the air. “Bigger” is not necessarily better for sprinting, likely explaining why male and female elite sprinters have a body mass of “only” 77 ± 7 and 58 ± 5 kg, respectively . Haugen et al.  observed that volleyball/beach volleyball players were among the best sports in terms of horizontal force production during accelerated running, while weight-/powerlifters produced clearly lower values despite no substantial group mean differences in body mass. Vertically oriented and heavy strength training of the lower limbs does not automatically translate to higher horizontal force production during accelerated sprinting , but the probability of positive effects increases when strength and sprint training are combined [90, 138, 139].
Strength and power training is crucial parts of the overall training strategy among leading sprint practitioners, and such training is typically performed 2–3 times per week during the preparation period [10, 11, 13, 14, 18]. Exercise selection typically varies from general (e.g., squat, snatch, clean and jerk) to more “sprint specific” (e.g., split squats, single-leg deadlifts, lunges, step-ups, and one-legged squats). Sequencing of sessions differs among coaches, but the majority schedule strength training the day after sprint-specific training to avoid sore muscles when sprinting. Strength and power training is typically structured as consecutive 4–6-week cycles where emphasis is first put on hypertrophy, then maximal strength, and finally explosive strength/power/plyometric training [11, 13, 14, 138]. The goal of this model is to “transform” maximum strength in weight room exercises into functional power on the track. These periods of heavy strength training are often combined with high volumes of sprint training at sub-maximal intensity. The closer to the competition season is, the more emphasis on maximal velocity sprinting, explosive strength, and ballistic exercises [11, 13, 14, 18]. Overall, no major discrepancies in sprint-related strength and power training recommendations can be observed between science and best practice when comparing these literature sources.
Plyometric exercises are characterized by rapid stretch-shortening cycle muscle actions and include a range of unilateral and bilateral bounding, hopping, jumping, and medicine ball throw variations . Plyometric training is normally performed with little or no external resistance and has been shown to significantly improve maximal power output during sport-specific movements [130, 141]. As a rule, the more specific a plyometric exercise is to stretch rate and load characteristics of the sport movement, the greater the transfer of the training effect to performance. Sprinters are encouraged to use different types of high-intensive bounding, jumping, and skipping exercises to ensure that power production is exerted in the horizontal plane [130, 141]. The underlying mechanisms are theorized to elicit specific adaptations in neural drive, rate of neural activation, and intermuscular control, which result in an improved rate of force development .
The reutilization of stored energy as a strategy for sprint performance has recently been questioned by Haugen et al. , as storage and release of elastic energy take time. Human tendons stretch under load, and sprinters should likely minimize the downside of having these elastic connectors. Adding to the argument, world-class performers sprint with considerably higher leg stiffness than their lower performing counterparts . Based on these considerations, sprinters should focus on leg stiffness (e.g., short ground contact time) during plyometric exercises. Interestingly, this approach was utilized with seeming success by coach Carlo Vittori and the Italian School of sprint training already in the 1970s. The best athlete, Pietro Mennea, performed horizontal jumps and skipping exercises with a weight belt, and ground contact time during these exercises never exceeded 100 ms . This contact time is very similar to those obtained by elite sprinters at maximal velocity . Mennea also performed assisted sprints while equipped with a weight belt (weight vests serve the same purpose). Although these training methods offer strong leg stiffness stimulations, they are demanding and probably increase injury risk, particularly for the Achilles tendon. This may explain why most practitioners perform more traditional plyometric drills as bilateral obstacle (hurdle) jumps, multi jump circuits, medicine ball throws, and unilateral bounding exercises [10,11,12,13,14,15,16,17,18]. Although the highest volumes are accomplished during the preparation phase, some plyometric training is performed during the competition season [10, 11, 15, 16].
The performance capacity of an athlete depends on an optimal balance between training and recovery. While sleep and nutrition are fundamental for the restoration of daily life and the recovery process following physical exercise [142,143,144], several recovery strategies have been explored to improve recovery in athletes. Within leading sprinting communities, so-called tempo runs (100–300 m running with brief recoveries and intensity 60–70% of maximal sprint velocity) are commonly used between days of high-intensive training to loosen up stiff muscles and improve cardiovascular fitness [10, 11, 13,14,15,16,17,18]. (Note that tempo runs in a sprint training setting are different to those in endurance training settings). Total volume per training session is typically ~ 2000 m during the preparation period and ~ 1000 m during the competition period [13,14,15,16]. Although the scientific evidence for post-exercise recovery purposes is limited [145,146,147,148], tempo runs contribute to a total training volume that may increase the athletes’ trainability and durability in the long term.
A number of passive recovery modalities have also been applied by practitioners over the years, including massage, stretching, compression garments, cold water or contrast water immersion, cryotherapy, hyperbaric oxygen therapy, and electromyostimulation [11, 13, 14]. While there may be some subjective benefits for post-exercise recovery, there is currently no convincing evidence to justify the widespread use of such strategies in competitive athletes [142, 146, 149,150,151,152,153,154,155,156,157,158,159,160,161,162]. Placebo effects may be beneficial, and at the individual level, certain recovery modalities may elicit reproducible acceleration of recovery processes. Future studies of experimental models designed to reflect the circumstances of elite athletes are needed to gain further insights regarding the efficacy of various recovery modalities on sprint performance.
Tapering refers to the marked reduction of total training load in the final days before an important competition. Tapering strategies consist of a short-term balancing act, reducing the cumulative effects of fatigue, but maintaining fitness [163, 164]. Because tapering strategies and outcomes are heavily dependent on the preceding training load, it is often challenging to separate tapering from periodization and training programming in general. According to several authors, a realistic performance goal for the final taper should be a competition performance improvement of about 2–3%. However, these estimates are mainly based on well-trained athletes in endurance- (swimming, running, cycling) or strength-related sports [163,164,165,166,167,168]. Based on individual performance variation data in elite sprinters [5, 69], it is reasonable to expect smaller relative tapering effects for sprinting athletes.
The general scientific guidelines for a likely effective taper in strength- and power-related sports are a 2- to 3-week period incorporating 40–60% reduction in training volume following a progressive non-linear format, while training intensity and frequency are maintained or only slightly reduced [169,170,171]. The strategies employed by successful track and field are generally consistent with research . The 10-day taper program developed by Charlie Francis has received considerable attention within the sprinting community [13, 14] (Table 5). Here, provided that the preceding workout the last 6–8 weeks has been performed according to plan (no injuries or disease), the last extensive and high-intensive sprint session is performed 10 days prior to the most important competition of the year, then followed by easy sprint training sessions (low volume at 95% velocity) 8, 6, 4, and 2 days before competition. Stephen Francis argues for a slightly different approach, mainly decreasing the volume by 30% over the last 10 days before a major competition . His most successful athlete, Asafa Powell, achieved world record performances in June as well as September.
Given that there are several roads to Rome in terms of tapering, it is generally accepted that the training during this period should be highly specific. That is, only exercises that directly assist sports performance should remain, while accessory work and assistance exercises should be removed from the training prescription [169, 171, 172]. Moreover, the number of technical inputs should be kept to a minimum to prepare the athletes mentally and build confidence. Successful coaches adapt a holistic strategy where physiological, technical, and mental aspects are integrated into the tapering process . The individualized approach is consistent with discussions of coaching, reinforcing that not all athletes are the same, nor are circumstances and contexts, and hence, a “one-size-fits-all” approach is rarely appropriate.
This review has contrasted scientific and best practice literature. Although the scientific literature provides useful and general information regarding the development of sprint performance and underlying determinants, there is a considerable gap between science and best practice in how training principles and methods are applied (these gaps are summarized in Table 6). Possible explanations for these discrepancies may be that scientific studies mainly examine isolated variables under standardized conditions, while best practice is concerned about external validity and apply a more holistic approach. In order to close this gap between science and practice, future investigations should observe and assess elite sprinters throughout the training year, aiming to establish mechanistic connections between training content, changes in performance, and underlying mechanical and physiological determinants. The conclusions drawn in this review may serve as a position statement and provide a point of departure for forthcoming studies regarding sprint training of elite athletic contestants.
Availability of Data and Materials
Bishop D, Girard O, Mendez-Villanueva A. Repeated-sprint ability - part II: recommendations for training. Sports Med. 2011;41(9):741–56.
Petrakos G, Morin JB, Egan B. Resisted sled sprint training to improve sprint performance: a systematic review. Sports Med. 2016;46(3):381–400.
Rumpf MC, Lockie RG, Cronin JB, Jalilvand F. Effect of different sprint training methods on sprint performance over various distances: a brief review. J Strength Cond Res. 2016;30(6):1767–85.
Haugen T, Tønnessen E, Hisdal J, Seiler S. The role and development of sprinting speed in soccer. Int J Sports Physiol Perform. 2014;9(3):432–41.
Haugen T, Solberg PA, Morán-Navarro R, Breitschädel F, Hopkins W, Foster C. Peak age and performance progression in world-class track-and-field athletes. Int J Sports Physiol Perform. 2018;13(9):1122–9.
Haugen T, Buchheit M. Sprint running performance monitoring: methodological and practical considerations. Sports Med. 2016;46(5):641–56.
Tønnessen E, Sylta Ø, Haugen T, Hem E, Svendsen I, Seiler S. The road to gold: training and peaking characteristics in the year prior to a gold medal endurance performance. PLoS One. 2014;9:e101796.
Tønnessen E, Svendsen I, Rønnestad B, Hisdal J, Haugen T, Seiler S. The annual training periodization of 8 world champions in orienteering. Int J Sports Physiol Perform. 2015;10(1):29–38.
Solli GS, Tønnessen E, Sandbakk Ø. The training characteristics of the world’s most successful female cross-country skier. Front Physiol. 2017;8:1069.
Lee J. Insights to Jamaican sprinting success. Stephen Francis & Glen Mills training philosophy. http://riggberger.dinstudio.se/files/Jamaican_Sprint_Secrets.pdf. Assessed 15 July 2019.
Banta R. The sprinter’s compendium: Vervante; 2017.
Carlo Vittori and training of Pietro Mennea. https://www.runnerprogram.com/product/carlo-vittori-training-pietro-mennea/. Assessed 15 July 2019.
Francis C. Structure of training for speed (ebook). https://www.amazon.com/Structure-Training-Charlie-Francis-Concepts-ebook/dp/B00BG9F8UG. Assessed 15 July 2019.
Francis C. The Charlie Francis training system (ebook). https://www.amazon.com/Charlie-Francis-Training-System-ebook/dp/B008ZK0WR8. Assessed 15 July 2019.
United Kingdom Athletics: classifying sprint training methods (written by Khmel M & Lester T). http://ucoach.com/assets/uploads/files/Classifying_Sprint_Training_Methods_FINAL.pdf. Assessed 15 July 2019.
United Kingdom Athletics. Sprints and hurdles ADM V1.0. http://ucoach.com/assets/uploads/files/SH_UKA_ADM_V1.1_FINAL.pdf. Assessed 15 July 2019.
Dan Pfaff. Donovan Bailey training program. https://www.runnerprogram.com/product/donovan-bailey-training-dan-pfaff/. Assessed 15 July 2019.
Loren Seagrave. Planning and periodization: preparing for Moscow 2013. http://ucoach.com/assets/uploads/files/ESHC12_Loren_Seagrave.pdf. Assessed 15 July 2019.
Volkov NI, Lapin VI. Analysis of the velocity curve in sprint running. Med Sci Sports. 1979;11(4):332–7.
Mero A, Komi PV, Gregor RJ. Biomechanics of sprint running. A Rev Sports Med. 1992;13(6):376–92.
Nagahara R, Matsubayashi T, Matsuo A, Zushi K. Kinematics of transition during human accelerated sprinting. Biol Open. 2014;3(8):689–99.
Tønnessen E, Haugen T, Shalfawi SA. Reaction time aspects of elite sprinters in athletic world championships. J Strength Cond Res. 2013;27(4):885–92.
Slawinski J, Termoz N, Rabita G, Guilhem G, Dorel S, Morin JB, et al. How 100-m event analyses improve our understanding of world-class men’s and women’s sprint performance. Scand J Med Sci Sports. 2017;27(1):45–54.
Haugen T, McGhie D, Ettema G. Sprint running: from fundamental mechanics to practice – a review. Eur J Appl Physiol. 2019;119(6):1273–87.
Scientific report on the second IAAF World Championships in athletics, Rome 1987. https://www.iaaf.org/about-iaaf/documents/research. Assessed 15 July 2019.
Bruggemann G, Glad B. Time analysis of the sprint events. Scientific research project at the games of the XXXIV Olympiad Seoul 1988, IAAF supplement 1990.
Ae M, Ito A, Suzuki M. The men’s 100 meters. Scientific research project at the III World Championship in athletics, Tokyo 1991. New Stud Athl. 1992;7(1):47–52.
Kersting U. Biomechanical analysis of the sprinting events. In: Brüggemann G, editor. Biomechanical research project Athens 1997 final report: Meyer & Meyer Sport Ldt; 1999.
Ferro A, Riveral A, Pagola I, Ferreruela M, Martin A, Rocandio V. A kinematic study of the sprint events at the 1999 World Championships in athletics in Sevilla. In: 20th International Symposium on Biomechanics in Sports; 2002.
Biomechanics research project in the IAAF World Championships Daegu 2011. https://www.jaaf.or.jp/pdf/about/resist/t-f/Daegu2011.pdf. Assessed 15 July 2019.
Graubner R, Nixdorf E. Biomechanical analysis of the sprint and hurdles events at the 2009 IAAF World Championships in athletics. New Stud Athl. 2011;26:19–53.
Bissas A, Walker J, Tucker C, Paradisis G, Merlino S. Biomechanical report for the IAAF World Championships in London, 2017. https://www.iaaf.org/about-iaaf/documents/research#collapse2017-iaaf-world-championships-biomechanics-st. Assessed 15 July 2019.
Morin JB, Edouard P, Samozino P. Technical ability of force application as a determinant factor of sprint performance. Med Sci Sports Exerc. 2011;43(9):1680–8.
Morin JB, Bourdin M, Edouard P, Peyrot N, Samozino P, Lacour JR. Mechanical determinants of 100-m sprint running performance. Eur J Appl Physiol. 2012;112(11):3921–30.
Haugen T, Breitschädel F, Seiler S. Sprint mechanical variables in elite athletes: are force-velocity profiles sport specific or individual? PLoS One. 2019;14(7):e0215551.
Seiler S, De Koning JJ, Foster C. The fall and rise of the gender difference in elite anaerobic performance 1952-2006. Med Sci Sports Exerc. 2007;39(3):534–40.
Haugen T, Paulsen G, Seiler S, Sandbakk O. New records in human power. Int J Sports Physiol Perform. 2018;13(6):678–86.
Rabita G, Dorel S, Slawinski J, Sàez-de-Villarreal E, Couturier A, Samozino P, et al. Sprint mechanics in world-class athletes: a new insight into the limits of human locomotion. Scand J Med Sci Sports. 2015;25(5):583–94.
Ettema G, McGhie D, Danielsen J, Sandbakk Ø, Haugen T. On the existence of step-to-step breakpoint transitions in accelerated sprinting. PLoS One. 2016;11(7):e0159701.
Haugen T, Danielsen J, Alnes LO, McGhie D, Sandbakk O, Ettema G. On the importance of “front-side mechanics” in athletics sprinting. Int J Sports Physiol Perform. 2018;13(4):420–7.
Nagahara R, Naito H, Morin JB, Zushi K. Association of acceleration with spatiotemporal variables in maximal sprinting. Int J Sports Med. 2014;35(9):755–61.
Nagahara R, Zushi K. Development of maximal speed sprinting performance with changes in vertical, leg and joint stiffness. J Sports Med Phys Fitness. 2017;57(12):1572–8.
Kunz H, Kaufmann DA. Biomechanical analysis of sprinting: decathletes versus champions. Br J Sports Med. 1981;15(3):177–81.
Mann R, Herman J. Kinematic analysis of Olympic sprint performance: men’s 200 meters. Int J Sport Biomech. 1985;1(2):151–62.
Hunter JP, Marshall RN, McNair PJ. Segment-interaction analysis of the stance limb in sprint running. J Biomech. 2004;37(9):1439–46.
Hunter JP, Marshall RN, McNair PJ. Relationships between ground reaction force impulse and kinematics of sprint-running acceleration. J Appl Biomech. 2005;21(1):31–43.
Kugler F, Janshen L. Body position determines propulsive forces in accelerated running. J Biomech. 2010;43(2):343–8.
Colyer SL, Nagahara R, Salo AIT. Kinetic demands of sprinting shift across the acceleration phase: novel analysis of entire force waveforms. Scand J Med Sci Sports. 2018;28(7):1784–92.
Colyer SL, Nagahara R, Takai Y, Salo AIT. How sprinters accelerate beyond the velocity plateau of soccer players: waveform analysis of ground reaction forces. Scand J Med Sci Sports. 2018;28(12):2527–35.
Nagahara R, Mizutani M, Matsuo A, Kanehisa H, Fukunaga T. Association of sprint performance with ground reaction forces during acceleration and maximal speed phases in a single sprint. J Appl Biomech. 2018;34(2):104–10.
Bezodis NE, Willwacher, Salo AIT. The biomechanics of the track and field sprint start: a narrative review. Sports Med. 2019; [Epub ahead of print].
Ross A, Leveritt M, Riek S. Neural influences on sprint running: training adaptations and acute responses. Sports Med. 2001;31(6):409–25.
Fitts RH. Cellular mechanisms of muscle fatigue. Physiol Rev. 1994;74(1):49–94.
Glaister M. Multiple sprint work: physiological responses, mechanisms of fatigue and the influence of aerobic fitness. Sports Med. 2005;35(9):757–77.
Girard O, Mendez-Villanueva A, Bishop D. Repeated-sprint ability - part I: factors contributing to fatigue. Sports Med. 2011;41(8):673–94.
Brocherie F, Millet GP, Morin JB, Girard O. Mechanical alterations to repeated treadmill sprints in normobaric hypoxia. Med Sci Sports Exerc. 2016;48(8):1570–9.
Chelly SM, Denis C. Leg power and hopping stiffness: relationship with sprint running performance. Med Sci Sports Exerc. 2001;33(2):326–33.
Girard O, Micallef JP, Millet GP. Changes in spring-mass model characteristics during repeated running sprints. Eur J Appl Physiol. 2011;111(1):125–34.
Girard O, Brocherie F, Morin JB, Millet GP. Running mechanical alterations during repeated treadmill sprints in hot versus hypoxic environments. A pilot study. J Sports Sci. 2016;34(12):1190–8.
Girard O, Brocherie F, Tomazin K, Farooq A, Morin JB. Changes in running mechanics over 100-m, 200-m and 400-m treadmill sprints. J Biomech. 2016;49(9):1490–7.
Morin JB, Jeannin T, Chevallier B, Belli A. Spring-mass model characteristics during sprint running: correlation with performance and fatigue-induced changes. Int J Sports Med. 2006;27(2):158–65.
Duffield R, Dawson B, Goodman C. Energy system contribution to 100-m and 200-m track running events. J Sci Med Sport. 2004;7(3):302–13.
Tucker R, Santos-Concejero J, Collins M. The genetic basis for elite running performance. Br J Sports Med. 2013;47(9):545–9.
Lucia A, Oliván J, Gómez-Gallego F, Santiago C, Montil M, Foster C. Citius and longius (faster and longer) with no alpha-actinin-3 in skeletal muscles? Br J Sports Med. 2007;41(9):616–7.
Smith DJ. A framework for understanding the training process leading to elite performance. Sports Med. 2003;33(15):1103–26.
Del Coso J, Hiam D, Houweling P, Pérez LM, Eynon N, Lucía A. More than a ‘speed gene’: ACTN3 R577X genotype, trainability, muscle damage, and the risk for injuries. Eur J Appl Physiol. 2019;119(1):49–60.
Malina RM, Bouchard C, Beunen G. Human growth: selected aspects of current research on well-nourished children. Annu Rev Anthropol. 1988;17:187–219.
Malina RM, Bouchard C, Bar-Or O. Growth, maturation and physical activity. 2nd ed. Champaign: Human Kinetics; 2004.
Tønnessen E, Svendsen I, Olsen IC, Guttormsen A, Haugen T. Performance development in adolescent track and field athletes according to age, sex and sport discipline. PLoS One. 2015;10:e0129014.
Hollings SC, Hopkins WG, Hume PA. Age at peak performance of successful track and field athletes. Int J Sports Sci Coach. 2014;9(4):651–62.
Allen SV, Hopkins WG. Age of peak competitive performance of elite athletes: a systematic review. Sports Med. 2015;45(10):1431–41.
Haugen T, Tønnessen E, Seiler S. 9.58 and 10.49: nearing the citius end for 100-m? Invited commentary. Int J Sports Physiol Perform. 2015;10(2):269–72.
Boccia G, Moisè P, Franceschi A, Trova F, Panero D, La Torre A, et al. Career performance trajectories in track and field jumping events from youth to senior success: the importance of learning and development. PLoS One. 2017;12:e0170744.
Harman SM, Metter EJ, Tobin JD, Pearson J, Blackman MR. Longitudinal effects of aging on serum total and free testosterone levels in healthy men. Baltimore Longitudinal Study of Aging. J Clin Endocrinol Metab 2001;86(2):724–731.
Korhonen MT, Cristea A, Alen M, Hakkinen K, Sipila S, Mero A, et al. Aging, muscle fiber type, and contractile function in sprint-trained athletes. J Appl Physiol. 2006;101(3):906–17.
Hunter SK, Pereira HM, Keenan KG. The aging neuromuscular system and motor performance. J Appl Physiol. 2016;121(4):982–95.
Hollings SC, Hume PA, Hopkins WG. Relative-age effect on competition outcomes at the World Youth and World unior Athletics Championships. Eur J Sport Sci. 2014;14(1):456–61.
Hollings SC, Mallett CJ, Hume PA. The transition from elite junior track-and-field athlete to successful senior athlete: why some do, why others don’t. Int J Sports Sci Coach. 2014;9(3):457–71.
Boccia G, Brustio PR, Moisè P, Franceschi A, La Torre A, Schena F, et al. Elite national athletes reach their peak performance later than non-elite in sprints and throwing events. J Sci Med Sport. 2019;22(3):342–7.
Lloyd RS, Oliver JL, Faigenbaum AD, Howard R, De Ste Croix MB, Williams CA, et al. Long-term athletic development, part 2: barriers to success and potential solutions. J Strength Cond Res. 2015;29(5):1451–64.
Lloyd RS, Oliver JL, Faigenbaum AD, Howard R, De Ste Croix MB, Williams CA, et al. Long-term athletic development- part 1: a pathway for all youth. J Strength Cond Res. 2015;29(5):1439–50.
Helsen WF, Starkes JL, Hodges NJ. Team sports and the theory of deliberate practice. J Sport Exerc Psychol. 1998;20(1):12–34.
Ericson KA, Krampe RT, Tesch-Romer C. The role of deliberate practice in the acquisition of expert performance. Physiol Rec. 1993;100(3):363–406.
Usain Bolt biography. https://www.biography.com/athlete/usain-bolt. Assessed 10 Oct 2019.
Delorme TL, Watkins AL. Techniques of progressive resistance exercise. Arch Phys Med. 1948;29(5):263–73.
Gabbett TJ. The training-injury prevention paradox: should athletes be training smarter and harder? Br J Sports Med. 2016;50(5):273–80.
Windt J, Gabbett TJ. How do training and competition workloads relate to injury? The workload-injury aetiology model. Br J Sports Med. 2017;51(5):428–35.
Haugen T, Danielsen J, McGhie D, Sandbakk Ø, Ettema G. Kinematic asymmetry in the stride cycle is not associated with performance and injuries in athletic sprinters. Scand J Med Sci Sports. 2018;28(3):1001–8.
Sale D, MacDougall D. Specificity in strength training: a review for the coach and athlete. Can J Appl Sport Sci. 1981;6(2):87–92.
Kraemer WJ, Adams K, Cafarelli E, Dudley GA, Dooly C, Feigenbaum MS, et al. American College of Sports Medicine position stand. Progression models in resistance training for healthy adults. Med Sci Sports Exerc. 2002;34(2):364–80.
Stone MH, Potteiger JA, Pierce KC, Proulx CM, O'Bryant HS, Johnson RL, et al. Comparison of the effects of three different weight-training programs on the one repetition maximum squat. J Strength Cond Res. 2000;14(3):332–7.
Kiely J. Periodization paradigms in the 21st century: evidence-led or tradition-driven? Int J Sports Physiol Perform. 2012;7(3):242–50.
Matveyev LP. Periodisierung des sportlichen trainings. 2nd ed. Berlin: Bartels & Wernitz; 1975.
Verkhoshansky Y. Programming and organization of training. Livonia: Sportivny Press; 1988.
Seiler KS, Kjerland GØ. Quantifying training intensity distribution in elite endurance athletes: is there evidence for an “optimal” distribution? Scand J Med Sci Sports. 2006;16(1):49–56.
Seiler KS. What is best practice for training intensity and duration distribution in endurance athletes? Int J Sports Physiol Perform. 2010;5(3):276–91.
Morin JB, Samozino P. Interpreting power-force-velocity profiles for individualised and specific training. Int J Sports Physiol Perform. 2016;11(2):267–72.
Bosco C, Tihanyi J, Viru A. Relationships between field fitness test and basal serum testosterone and cortisol levels in soccer players. Clin Physiol. 1996;16(3):317–22.
Epstein RH. Aroused: a history of hormones and how they control just about everything. 1st ed: WW Norton & Company; 2018.
Kraemer WJ, Ratamess NA, Nindl BC. Recovery responses of testosterone, growth hormone, and IGF-1 after resistance exercise. J Appl Physiol. 2017;122(3):549–58.
Samozino P, Rabita G, Dorel S, Slawinski J, Peyrot N, Saez de Villarreal E, et al. A simple method for measuring power, force, velocity properties, and mechanical effectiveness in sprint running. Scand J Med Sci Sports. 2016;26(6):648–58.
Cross MR, Brughelli M, Samozino P, Morin JB. Methods of power-force-velocity profiling during sprint running: a narrative review. Sports Med. 2017;47(7):1255–69.
Rakovic E, Paulsen G, Helland C, Eriksrud O, Haugen T. The effect of individualised sprint training in elite female team sport athletes: a pilot study. J Sports Sci. 2018;36(24):2802–8.
Lai A, Schache AG, Brown NA, Pandy MG. Human ankle plantar flexor muscle-tendon mechanics and energetics during maximum acceleration sprinting. J R Soc Interface. 2016;13(121).
Miller RH, Umberger BR, Caldwell GE. Sensitivity of maximum sprinting speed to characteristic parameters of the muscle force-velocity relationship. J Biomech. 2012;45(8):1406–13.
Weyand PG, Sandell RF, Prime DN, Bundle MW. The biological limits to running speed are imposed from the ground up. J Appl Physiol. 2010;108(4):950–61.
Helland C, Haugen T, Rakovic E, Eriksrud O, Seynnes O, Mero AA, et al. Force-velocity profiling of sprinting athletes: single-run vs. multiple-run methods. Eur J Appl Physiol. 2019;119(2):465–73.
Seiler S, Jøranson K, Olesen BV, Hetlelid KJ. Adaptations to aerobic interval training: interactive effects of exercise intensity and total work duration. Scand J Med Sci Sports. 2013;23(1):74–83.
Tønnessen E, Shalfawi S, Haugen T, Enoksen E. The effect of 40-m repeated sprint training on maximum sprinting speed, repeated sprint endurance, vertical jump and aerobic capacity in young elite male soccer players. J Strength Cond Res. 2011;25(9):2364–70.
Haugen T, Tønnessen E, Leirstein S, Hem E, Seiler S. Not quite so fast: effect of training at 90% sprint speed on maximal and repeated sprint ability in soccer players. J Sports Sci. 2014;32(20):1979–86.
Haugen T, Tønnessen E, Øksenholt Ø, Haugen FL, Paulsen G, Enoksen E, Seiler S. Sprint conditioning of soccer players: effects of training intensity and technique supervision. PLoS One. 2015;10:e0121827.
Jakeman JR, McMullan J, Babraj JA. Efficacy of a four-week uphill sprint training intervention in field hockey players. J Strength Cond Res. 2016;30(10):2761–6.
Kavaliauskas M, Kilvington R, Babraj J. Effects of in-season uphill sprinting on physical characteristics in semi-professional soccer players. J Sports Med Phys Fitness. 2017;57(3):165–70.
Cross MR, Lahti J, Brown SR, Chedati M, Jimenez-Reyes P, Samozino P, et al. Training at maximal power in resisted sprinting: optimal load determination methodology and pilot results in team sport athletes. PLoS One. 2018;13(4):e0195477.
Lockie RG, Murphy AJ, Spinks CD. Effects of resisted sled towing on sprint kinematics in field-sport athletes. J Strength Cond Res. 2003;17(4):760–7.
Cross MR, Brughelli M, Samozino P, Brown SR, Morin JB. Optimal loading for maximizing power during sled-resisted sprinting. Int J Sports Physiol Perform. 2017;12(8):1069–77.
Morin JB, Petrakos G, Jiménez-Reyes P, Brown SR, Samozino P, Cross MR. Very-heavy sled training for improving horizontal-force output in soccer players. Int J Sports Physiol Perform. 2017;12(6):840–4.
Kristensen GO, van den Tillaar R, Ettema GJ. Velocity specificity in early-phase sprint training. J Strength Cond Res. 2006;20(4):833–7.
Cissik JM. Means and methods of speed training, part II. Strength Cond J. 2005;27(1):18–25.
Mero A, Komi PV. Force-, EMG-, and elasticity-velocity relationships at submaximal, maximal and supramaximal running speeds in sprinters. Eur J Appl Physiol. 1986;55(5):553–61.
Clark DA, Sabick MB, Pfeiffer RP, Kuhlman SM, Knigge NA, Shea KG. Influence of towing force magnitude on the kinematics of supramaximal sprinting. J Strength Cond Res. 2009;23(4):1162–8.
Schmidt RA, Wrisberg CA. Motor learning and performance: a situation based learning approach. 4th ed: Human Kinetics; 2008.
Stodden DF, Gao Z, Goodway JD, Langendorfer SJ. Dynamic relationships between motor skill competence and health-related fitness in youth. Pediatr Exerc Sci. 2014;26(3):231–41.
Stodden DF, Goodway JD, Langendorfer SJ, Roberton MA, Rudisill ME, Garcia C, et al. A developmental perspective on the role of motor skill competence in physical activity: an emergent relationship. Quest. 2008;60(2):290–306.
Porter JM, Wu WF, Crossley RM, Knopp SW, Campbell OC. Adopting an external focus of attention improves sprinting performance in low-skilled sprinters. J Strength Cond Res. 2015;29(4):947–53.
Wulf G. Attentional focus and motor learning: a review of 15 year. Int Rev Sport Exerc Psychol. 2013;6(1):77–104.
Winkelman NC, Clark KP, Ryan LJ. Experience level influences the effect of attentional focus on sprint performance. Hum Mov Sci. 2017;52:84–95.
Porter JM, Wu WFW, Partridge JA. Focus of attention and verbal instructions: strategies of elite track and field coaches and athletes. Sport Sci Rev. 2010;19(3):199–211.
Benz A, Winkelman N, Porter J, Nimphius S. Coaching instructions and cues for enhancing sprint performance. Strength Cond J. 2016;38(1):1–11.
Cormie P, McGuigan MR, Newton RU. Developing maximal neuromuscular power: part 2 - training considerations for improving maximal power production. Sports Med. 2011;41(2):125–46.
Helland C, Hole E, Iversen E, Olsson MC, Seynnes O, Solberg PA, Paulsen G. Training strategies to improve muscle power: is Olympic-style weightlifting relevant? Med Sci Sports Exerc. 2017;49(4):736–45.
Seitz LB, Reyes A, Tran TT, Saez de Villarreal E, Haff GG. Increases in lower-body strength transfer positively to sprint performance: a systematic review with meta-analysis. Sports Med. 2014;44(12):1693–702.
Harries SK, Lubans DR, Callister R. Resistance training to improve power and sports performance in adolescent athletes: a systematic review and meta-analysis. J Sci Med Sport. 2012;15(6):532–40.
Moir G, Sanders R, Button C, Glaister M. The effect of periodized resistance training on accelerative sprint performance. Sports Biomech. 2007;6(3):285–300.
Comyns TM, Harrison AJ, Hennessy LK. Effect of squatting on sprinting performance and repeated exposure to complex training in male rugby players. J Strength Cond Res. 2010;24(3):610–8.
Uth N. Anthropometric comparison of world-class sprinters and normal populations. J Sports Sci Med. 2005;4(4):608–16.
Loturco I, Contreras B, Kobal R, Fernandes V, Moura N, Siqueira F, et al. Vertically and horizontally directed muscle power exercises: relationships with top-level sprint performance. PLoS One. 2018;13(7):e0201475.
Delecluse C, Coppenolle HV, Willems E, Van Leemputte M, Diels R, Goris M. Influence of high-resistance and high velocity training on sprint performance. Med Sci Sports Exerc. 1995;27(8):1203–9.
Young WB. Transfer of strength and power training to sports performance. Int J Sports Physiol Perform. 2006;1(2):74–83.
Wathen D. Position statement: explosive/plyometric exercises. NSCA J. 1993;15(3):16–9.
Sáez de Villarreal E, Requena B, Cronin JB. The effects of plyometric training on sprint performance: a meta-analysis. J Strength Cond Res. 2012;26(2):575–84.
Nédélec M, Halson S, Delecroix B, Abaidia AE, Ahmaidi S, Dupont G. Sleep hygiene and recovery strategies in elite soccer players. Sports Med. 2015;45(11):1547–59.
Gupta L, Morgan K, Gilchrist S. Does elite sport degrade sleep quality? A systematic review. Sports Med. 2017;47(7):1317–33.
Thomas DT, Erdman KA, Burke LM. American College of Sports Medicine joint position statement. Nutrition and athletic performance. Med Sci Sports Exerc. 2016;48(3):543–68.
Nédélec M, McCall A, Carling C, Legall F, Berthoin S, Dupont G. Recovery in soccer: part ii-recovery strategies. Sports Med. 2013;43(1):9–22.
Barnett A. Using recovery modalities between training sessions in elite athletes: does it help? Sports Med. 2006;36(9):781–96.
Ortiz RO Jr, Sinclair Elder AJ, Elder CL, Dawes JJ. A systematic review on the effectiveness of active recovery interventions on athletic performance of professional-, collegiate-, and competitive-level adult athletes. J Strength Cond Res. 2018; [Epub ahead of print].
Van Hooren B, Peake JM. Do we need a cool-down after exercise? A narrative review of the psychophysiological effects and the effects on performance, injuries and the long-term adaptive response. Sports Med. 2018;48(7):1575–95.
Opplert J, Babault N. Acute effects of dynamic stretching on muscle flexibility and performance: an analysis of the current literature. Sports Med. 2018;48(2):299–325.
Winchester JB, Nelson AG, Landin D, Young MA, Schexnayder IC. Static stretching impairs sprint performance in collegiate track and field athletes. J Strength Cond Res. 2008;22(1):13–9.
Blazevich AJ, Gill ND, Kvorning T, Kay AD, Goh AG, Hilton B, et al. No effect of muscle stretching within a full, dynamic warm-up on athletic performance. Med Sci Sports Exerc. 2018;50(6):1258–66.
Dupuy O, Douzi W, Theurot D, Bosquet L, Dugué B. An evidence-based approach for choosing post-exercise recovery techniques to reduce markers of muscle damage, soreness, fatigue, and inflammation: a systematic review with meta-analysis. Front Physiol. 2018;9:403.
Poppendieck W, Wegmann M, Ferrauti A, Kellmann M, Pfeiffer M, Meyer T. Massage and performance recovery: a meta-analytical review. Sports Med. 2016;46(2):183–204.
Mine K, Lei D, Nakayama T. Is pre-performance massage effective to improve maximal muscle strength and functional performance? A systematic review. Int J Sports Phys Ther. 2018;13(5):789–99.
Engel FA, Holmberg HC, Sperlich B. Is there evidence that runners can benefit from wearing compression clothing? Sports Med. 2016;46(12):1939–52.
Marqués-Jiménez D, Calleja-González J, Arratibel I, Delextrat A, Terrados N. Are compression garments effective for the recovery of exercise-induced muscle damage? A systematic review with meta-analysis. Physiol Behav. 2016;153:133–48.
Leeder JD, van Someren KA, Bell PG, Spence JR, Jewell AP, Gaze D, Howatson G. Effects of seated and standing cold water immersion on recovery from repeated sprinting. J Sports Sci. 2015;33(15):1544–52.
Leeder J, Gissane C, van Someren K, Gregson W, Howatson G. Cold water immersion and recovery from strenuous exercise: a meta-analysis. Br J Sports Med. 2012;46(4):233–40.
Bieuzen F, Bleakley CM, Costello JT. Contrast water therapy and exercise induced muscle damage: a systematic review and meta-analysis. PLoS One. 2013;8(4):e62356.
Roberts LA, Raastad T, Markworth JF, Figueiredo VC, Egner IM, Shield A, et al. Post-exercise cold water immersion attenuates acute anabolic signalling and long-term adaptations in muscle to strength training. J Physiol. 2015;593(18):4285–301.
Malone JK, Blake C, Caulfield BM. Neuromuscular electrical stimulation during recovery from exercise: a systematic review. J Strength Cond Res. 2014;28(9):2478–506.
Weerapong P, Hume PA, Kolt GS. The mechanisms of massage and effects on performance, muscle recovery and injury prevention. Sports Med. 2005;35(3):235–56.
Mujika I, Padilla S. Scientific bases for precompetition tapering strategies. Med Sci Sports Exerc. 2003;35(7):1182–7.
Pyne DB, Mujika I, Reilly T. Peaking for optimal performance: research limitations and future directions. J Sports Sci. 2009;27(3):195–202.
Mujika I. The influence of training characteristics and tapering on the adaptation in highly trained individuals: a review. Int J Sports Med. 1998;19(7):439–46.
Mujika I. Intense training: the key to optimal performance before and during the taper. Scand J Med Sci Sports. 2010;20(2):24–31.
Zaras ND, Stasinaki AN, Krase AA, Methenitis SK, Karampatsos GP, Georgiadis GV, et al. Effects of tapering with light vs. heavy loads on track and field throwing performance. J Strength Cond Res. 2014;28(12):3484–95.
Bosquet L, Montpetit J, Arvisais D, Mujika I. Effects of tapering on performance: a meta-analysis. Med Sci Sports Exerc. 2007;39(8):1358–65.
Pritchard HJ, Tod DA, Barnes MJ, Keogh JW, McGuigan MR. Tapering practices of New Zealand’s elite raw powerlifters. J Strength Cond Res. 2016;30(7):1796–804.
Pritchard HJ, Barnes MJ, Stewart RJ, Keogh JW, McGuigan MR. Higher- versus lower-intensity strength-training taper: effects on neuromuscular performance. Int J Sports Physiol Perform. 2019;14(4):458–63.
Grgic J, Mikulic P. Tapering practices of Croatian open-class powerlifting champions. J Strength Cond Res. 2017;31(9):2371–8.
Ritchie D, Allen JB, Kirkland A. Where science meets practice: Olympic coaches' crafting of the tapering process. J Sports Sci. 2018;36(10):1145–54.
The authors want to thank elite sprint coach Håkan Andersson for his valuable inputs during the process.
No sources of funding were used to assist in the preparation of this article.
Ethics Approval and Consent to Participate
Consent for Publication
The authors, Thomas Haugen, Stephen Seiler, Øyvind Sandbakk, and Espen Tønnessen, declare that they have no competing interests.
Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.
About this article
Cite this article
Haugen, T., Seiler, S., Sandbakk, Ø. et al. The Training and Development of Elite Sprint Performance: an Integration of Scientific and Best Practice Literature. Sports Med - Open 5, 44 (2019). https://doi.org/10.1186/s40798-019-0221-0
- Sprint conditioning
- Training guidelines
- Training volume
- Maximal velocity