Review Article | Open Access
Influence of Cleats-Surface Interaction on the Performance and Risk of Injury in Soccer: A Systematic Review
Objective. To review the influence of cleats-surface interaction on the performance and risk of injury in soccer athletes. Design. Systematic review. Data Sources. Scopus, Web of science, PubMed, and B-on. Eligibility Criteria. Full experimental and original papers, written in English that studied the influence of soccer cleats on sports performance and injury risk in artificial or natural grass. Results. Twenty-three articles were included in this review: nine related to performance and fourteen to injury risk. On artificial grass, the soft ground model on dry and wet conditions and the turf model in wet conditions are related to worse performance. Compared to rounded studs, bladed ones improve performance during changes of directions in both natural and synthetic grass. Cleat models presenting better traction on the stance leg improve ball velocity while those presenting a homogeneous pressure across the foot promote better kicking accuracy. Bladed studs can be considered less secure by increasing plantar pressure on lateral border. The turf model decrease peak plantar pressure compared to other studded models. Conclusion. The soft ground model provides lower performance especially on artificial grass, while the turf model provides a high protective effect in both fields.
Soccer is the most practiced and most popular sport worldwide . This sport is followed by millions of people around the globe, mobilizing people to the stadium, to watch games on TV/internet, and to listen via radio. Its popularity turned it into an industry where the sports scores and goals achieved are of the utmost importance . Therefore, the importance of this sport supports the need of looking for strategies to improve athletes’ performance, but also to prevent sports-related injuries. This will allow players to provide the best possible spectacle to his fans, while improve their carriers and clubs .
Several adaptations have been introduced in soccer along the years. The increasing use of artificial grass field [4, 5] and changes in format and materials used in soccer cleat are examples of this adaptation [6, 7]. These changes agree with the increased importance attributed to the cleat-surface interaction in both performance and the injury risk. The adequacy of soccer footwear to the kind of field seems to have a determinant role in both [7–10]. Several research studies have been developed regarding this area. However, there is no broad consensus as to the adequacy of the kind of the cleat to the respective field to fulfill the requirements of performance and injury risk. The different study methodologies and the funding from shoe or turf companies can possibly contribute to this divergence [11–18]. The lack of consensus in this topic has been recently demonstrated in a qualitative review . The authors did not conclude about the best cleat to reduce the injury risk and to improve performance. Inside of this, the authors have made several conclusions as to general aspects of shoe-surface interaction. This difficulty can be based on the large variability of sports modality englobed in the review . Because each modality has specific sports gestures that impose different demands on cleat-surface interaction, as well as different rules, each sports modality should be considered separately [3, 19, 20].
The cleats have been considered the most important soccer tool, playing a crucial role in the athletes’ performance [7, 10]. Its structure can be divided into two main parts, the upper portion, composed by leather or synthetic material, and the sole. The structure of the sole depends on the pitch and is adjusted to provide a good contact with the ground. The studs should provide enough traction to prevent slipping or sliding, which can result in overstretch or tear injuries, but should facilitate sudden change of directions . The distribution pattern and geometry of studs vary widely between models and manufacturers . Currently, there are basically five types of soles: turf (TF), artificial grass (AG), hard ground (HG), firm ground (FG), and soft ground (SG) [6, 16]. According to the manufacturers, the TF and AG models are suitable for artificial fields and HG model for hard, natural, or dirt soccer fields. The FG model is indicated for natural grass in good conditions, while the SG to very muddy or wet natural fields. The classification of these models depends on the size, number, distribution, and type of studs. Thus, the first model (TF) presents the highest number of studs, but also the smaller ones. The other models present a progressive decrease in the number of studs and an increase in its size . Normally, the SG model is characterized by rigid plastic soles and only six aluminum studs. In the TF model, the sole and studs are usually composed by rubber while the AG, HG, and FG models present rigid soles and studs, usually made of plastic . Another feature that varies constantly is the stud geometry (cylindrical, conical, prismatic, and bladed) , and for this reason, several studies have questioned if the increased traction promoted by bladed studs improves performance during sudden changes of direction or, on the contrary, could increase the risk of injury [11, 12, 14–16, 18, 21]. The cleats’ characteristics are summarized in Table 1.
With the increasing number of models available on the market, it becomes important to review the influence of cleat-surface interaction on athletes’ performance and injury risk to identify the cleat that better responds to the need of increased performance and reduced injury risk.
2.1. Research Question
The two main research questions in this study were as follows: (1)Which model of soccer cleats promotes a better performance in artificial and natural grass?(2)Which model of soccer decreases the risk of injury in artificial and natural grass?
2.2. Search Strategy
The literature search included only the period from 2000 until 2016 on the following databases: Scopus, Web of science, PubMed, and B-on (Table 2).
The following search term combinations were used in all databases: soccer shoes; soccer boots; soccer cleats; soccer studs; soccer footwear; shoe-surface interface, and shoe-surface interaction. The search terms were limited to titles and abstracts published in academic journals. The reference lists of all studies were also scanned to identify other potential eligible articles. The study was conducted using the systematic review method proposed by the Preferred Reporting Items for Systematic Reviews and Meta-Analysis—PRISMA . The articles included in this review were as follows: (i) experimental and original papers, written in English; (ii) studied soccer cleats’ influence on sports performance in artificial or natural grass; (iii) studied soccer cleats’ influence on injury risk in artificial or natural grass analysis; (iv) compared more than one cleat model in sport tasks; (v) analyzed young and adult soccer players or used mechanical devices; and (vi) studied soccer players of both genders and all competitive levels. Review articles and those that studied rugby or American football cleats were excluded because the technical gesture and the rules of this sport differ significantly from soccer.
2.3. Assessment of Methodologic Quality
The studies included in this systematic review were evaluated using a quality index proposed by Downs and Black  and the recommendations of Munn et al. . Studies meeting <60% criteria were considered low quality, 60%–74.9% moderate quality, and >75% high quality. Each author independently performed the quality assessment for each of the included studies. Consensus regarding the quality index score for each study was agreed upon by both authors.
2.4. Data Extraction
Data from the included studies was extracted by one reviewer and then checked by a second reviewer using a data extraction table which identified the following: author identification, year of publication, sample, ground and footwear conditions, methods and instruments, variables assessed, and main conclusions regarding the shoe-surface interaction on performance and injury risk.
The search strategy revealed 213 articles. After an initial review, 84 were rejected as copies of the same paper and 95 were excluded as they were clearly unrelated with the main theme or because the sport studied was not soccer. All remaining articles were then reviewed by two independent reviewers. Consensus was reached, and a total of 23 were included as shown in Figure 1. Nine of them were related to performance and fourteen with injury risk.
3.1. Study Design and Sample: Cleat-Surface Interaction on Performance
Most of the studies assessed the traction imposed by different cleat models during sprint or change of direction maneuvers [11, 13–15, 18, 25]. Some studies evaluated other sport performance components, such as kicking velocity  and accuracy  and the ability to handle a ball . With the exception of two studies that evaluated the cleats on natural and artificial fields [11, 13], the majority included artificial grass field in their set up [14, 15, 18, 25, 26, 28]. The authors that have evaluated the kicking accuracy did not provide information regarding the kind of field in which the tests were performed . Only one study based the results on mechanical simulations . All other studies obtained their results from experienced male soccer players. The sample size ranged from 12 to 52 athletes, with age ranging between 16 and 25 years, the body weight between 67 to 77.5 Kg, and height between 176 and 181 cm [11, 14, 15, 18, 25–28]. In Table 3 are synthetized main features of the studies described.
3.1.1. Synthesis of the Results: Cleat-Surface Interaction on Performance
The findings obtained in artificial grass showed that generally SG models decrease performance [11, 15]; however on wet ground, the TF provides the lowest performance . The results obtained with a specific cleat prototype for artificial grass englobing sole characteristics from the AG and FG models favored performance compared to all other commercialized models [11, 14].
The studies that have addressed specific cleat characteristics demonstrated the following: (i) bladed studs improved performance compared with the elliptical ones [11, 28]; (ii) increased stud height seems to improve performance , since the studs can fully penetrate ; (iii) models that allowed a more homogeneous pressure across the foot during ball contacts promoted a better accuracy of kicking ; (iv) the cleat weight or heel comfort seem to not interfere with performance ; and (v) the maximum ball velocity was achieved with cleats that promoted a better traction in the standing limb . However, players can adjust the sport gesture to maintain the desired level of traction in sport tasks .
3.2. Study Design and Sample: Cleat-Surface Interaction on Injury Risk
Most of the studies stated their conclusion based on dynamic tasks like straight running [21, 29, 30], slalom , cutting, and turning maneuvers [16, 31–35]. Only the three most recent studies have incorporated jump  or landing tasks with changes of direction [35, 37]. Four studies based their conclusions on peak torque and the translation or rotational stiffness assessed from mechanical simulations [12, 17, 33, 38]. The other studies based their conclusions on plantar pressures [16, 21, 29], the ankle or knee range of movement [29, 34–37], the ground reaction forces [30–32, 34–37], and neuromuscular variables [32, 37] collected from soccer players. Nine articles analyzed the cleats on artificial grass [16, 21, 31–37], one on natural grass , three on both fields [12, 17, 38], and one did not provide this information . This last study was the only that assessed young players. The majority of the studies relied on experienced male [21, 30–35, 37] and both gender [16, 36] soccer players. The sample size ranged from 6 to 36 athletes, with age ranging between 8 and 26 years, the body weight between 64 to 85 Kg, and height between 168 and 183 cm. In Table 4 are compiled main features of the studies described.
3.2.1. Synthesis of the Results: Cleat-Surface Interaction on Injury Risk
In artificial grass, the TF model seems to be the best choice to prevent injuries related to repetitive impacts, when compared to FG and HG , and probably to reduce the risk of ankle and knee injury in turning movements, when compared to FG and SG models . The increased risk of injury with FG and SG models seem to be explained by an increased and unsuitable traction promoted by these cleats . On another hand and surprisingly, the lower peak of medial ground reaction force demonstrated in SG model when compared with artificial grass studs seem to favor the use of this model . Furthermore, when more specific related injury risk variables were studied (ankle sprain), no differences were observed between different models of cleats (TF, HG, and FG), even after an evertor-oriented fatigue protocol .
The studies that have addressed specific cleat characteristics demonstrated the following: (i) the use of cleats without studs (similar to TF model) when compared to cleats with studs could decrease the incidence of calcaneal apophysitis  and (ii) bladed studs revealed an increased risk of injury related to higher pressure on the lateral border of the foot when compared to rounded studs  and impaired female reception mechanism after a jump , but no differences were observed in knee loading [31–33] or in peak torque measured by a mechanical device .
Once again, in natural grass fields, the TF model revealed as the best choice when compared to SG model to prevent injuries related to repetitive impacts . Lastly, like it was stated for the performance, the kind of field has an important role in injury risk. When natural and artificial grass was compared, the last one showed a higher peak torque , rotational traction , and stiffness  evaluated by a mechanical testing device.
4.1. Research Question 1: How Cleat-Surface Interaction Affects the Performance?
Since 2008, Sterzing and coworkers evaluated various cleat models in two different fields (natural and artificial grass) during different functional tasks like slalom and short straight line acceleration [11, 14, 15, 18, 25], kicking [26, 27], passing, or handling a ball .
In general, the model defined by the manufacturers as indicated for artificial grass has been demonstrated to favor performance in this kind of field compared to design model for natural grass (SG) and this is perceived by athletes [11, 15]. The same studies revealed that SG cleats decrease performance in dry or wet artificial grass comparing to the other models probably because this model seems unable to fully penetrate into this ground, causing instability mechanisms [14, 15]. Globally, the athletes’ performance seems to be worsened when the stud height is reduced on dry conditions , but also on wet conditions, due to a lack of traction . The studs’ geometry seems to be an influent factor in performance between different models of cleats. Bladed studs allowed better performance compared with the elliptical in slalom tests  and dribbling . The bladed shape of these studs and his orientation to the front may lead to increased traction in mediolateral maneuvers, and this could explain these results. It has also been demonstrated that studs with larger cross section area (not fully penetrated) provide decreased traction, and because of that, it could provide decreased performance . Finally, a prototype cleats’ sole, similar to a regular FG outsole at the rearfoot, but with multiple double cylindrical thermoplastic polyurethane elastomers stud elements (DuoCell Techonology) at the forefoot, was demonstrated to be more suitable for artificial fields, compared to three already commercialized models to natural fields . In terms of performance, this prototype enabled the manufacturers to reflect about the ideal model for this type of field.
Studies performed on natural grass revealed that despite not being perceived by the athletes, bladed studs are associated to increased performance compared to the elliptical ones in dry or ice and snow conditions . In this kind of field, the heel contour comfort and weight do not seem to interfere with the performance, at least in short performance tests [11, 26]. However, we do not know if these two characteristics interfere with the performance in real game conditions. In this sense, further studies are required on this topic. Later studies have concluded that in natural grass, only cylindrical and highest studs not fully penetrate the field, which may explain the lack of traction. For this purpose, the conical studs provide better results . Having a lower cross-sectional area, this last stud geometry could have a major role in the degree of cleat penetration on natural grass.
Other performance tests regarding kicking tasks revealed that cleats that promote a good traction on the support leg appear to enhance the speed of the shot, while outsole stiffness does not contribute to increased kick velocity . The stability of the support leg should be highlighted, since it seems to be a key point to improve the performance of the shot. Also, pass assertiveness can be positively influenced by the cleat presenting a more homogeneous pressure distribution between the upper shoe part and the ball . Furthermore, the dribbling capacity and velocity appears to be enhanced by FG bladed model compared to FG round model  maybe because the slalom velocity inherent to this task is improved by bladed studs compared to the rounded ones .
Artificial grass features numerous characteristics, such as infill particle size, level of compaction, and fiber type; however, only few characteristics have been considered in most of the papers [11-13]. Some of these characteristics have been demonstrated to influence the athletes’ performance . McGhie and Ettema  evaluated three models of cleats in three artificial grass conditions and have concluded that the pitch with smaller size of artificial grass and less rubber fill imposes more traction than the others. The dry or wet state of the artificial grass is another feature that influences performance. In wet conditions, the running time was increased with the TF model in relation to AG and FG models. The smaller studs founded in the TF model decreases their traction and therefore their performance . The research about this theme has increased along time, especially in artificial grass supporting the growing incentive by FIFA for the use of this type of ground [4, 5].
Despite the high ability of athletes to compensate the different mechanical traction imposed by different cleats during a dynamic task, the findings obtained by the previously mentioned studies (Table 3) demonstrate that the cleat characteristics, together with the kind of field, can determine the effort required for a given performance . In fact, the studies mentioned in this review indicate that SG cleats impair performance, especially on artificial grounds. This model presents high studs, and it does not always allow their full penetration in the field, making traction difficult and worsening the execution of functional speed tests [11, 13–15]. Concerning the studs’ geometry, the bladed models could improve performance, compared with the round studs, in slalom movements, whether in dry ground or with ice/snow. This particular model seems to increase the medial-lateral traction facilitating this type of changes of direction . Also, no differences seem to exist between the TF, HG, and FG models in terms of performance [11, 14, 15, 18], unless the artificial grass is wet, which imposes decreased shuttle run test performance with the TF model . However, these results should be considered with caution, since performance was evaluated only in healthy subjects through velocity in sprints, diverging just in the direction, straight or with direction shifts to 45°, 90°, and 180°, as well as slalom sprint [11, 14, 15, 18, 25]. None of the studies adopted functional tests more close to sport modality, like jumps with sprints that can be influenced by the type of footwear and ground . It should be noted that most of the studies have included male and young adult athletes from lower divisions, or amateurs [11, 14, 15, 18, 25, 27]. Given the increasing popularity of this sport among women, it makes sense to extend this kind of studies also to this population.
4.2. Research Question 2: How Cleat-Surface Interaction Affects the Injury Risk?
Various cleat models have been evaluated since 2002 in both natural and artificial fields during different functional tasks (straight running, slalom, cutting and turning maneuvers, and landing after jumps). Unlike in the previous research question, this interaction was investigated not only in male athletes [16, 21, 30–37] but also in female adults [16, 36] and young athletes . On the other hand, to answer the present research question, some articles used mechanical instruments [12, 17, 33, 38].
For a better understanding, the results will be discussed considering the variables/instruments used to measure the injury risk of the different cleat models. First of all, it is important to highlight that most of authors used more than one instrument, combining, frequently, the use of motion cameras systems and force platforms [31–37]. Whether on natural or on artificial fields, it has been demonstrated that adult players using aluminum studs (SG) present an increased vertical ground reaction forces which could be associated with injuries caused by repeated impacts [30, 34]. These findings seem not support the use of SG in hard grounds. The TF model presenting increased compliance  seems to be more indicated to prevent this kind of injuries . Furthermore, cleats with removed studs increase the risk of slipping whereas the SG sole configuration with aluminum studs induce high loads on the player . However, surprisingly, during 180° cut movements in artificial grass, aluminum studs seem to produce the lowest peak medial ground reaction forces compared to artificial grass studs and nonstudded running shoe . These findings could be related to the insufficient penetration showed by this model in artificial grass that could have induced a feeling of instability [13, 15] and led players to perform the task slowly. Apparently, there are no major differences between the TF, HG, and FG models regarding kinetic (loading rate of ground reaction forces) and kinematic data (eversion/inversion range of movement, COP displacement, and velocity) following jump with changes of direction. This is true even when the players were under a fatigue protocol for the main lateral ankle stabilizers. This conclusion must be considered carefully, since the fatigue protocol was applied to a small and specific muscle group of the ankle and the sample was composed by healthy athletes (without ankle sprain history). The nonexistence of differences could be due to the great capacity of healthy athletes to compensate small differences between models . Additionally, during running and cutting maneuvers, no differences in ankle  and knee [31, 32] joint moments between FG (rounded and bladed) and SG (rounded and bladed) models were showed. Nevertheless, the rounded FG model when compared with the bladed FG appears to potentiate the quadriceps femoris activation, which can be associated with an increased internal load on the anterior cruciate ligament . This finding should be interpreted with caution because of the small sample size. Lastly, it should be noted that the only study that assessed a pure jump task showed that more rigid shoes (bladed cleats compared to the running shoes or TF model) seem to impair the landing mechanism both in male and female players. Special attention should be given to this finding since female players present increased risk of lower limb injury . A study involving young soccer population demonstrated that cleats with studs lead to a significant increase in dorsiflexion during the middle phase of support while running and a consequent increased pressure on the growth center of the calcaneus. Therefore, the high incidence of calcaneal apophysitis and the use of shoes with studs in young populations might be related . This article has a great importance because it encourages the young soccer players to make the best choices regarding the choice of footwear for different fields. In the education process of the athletes, it makes sense to start with the youngest.
Plantar pressure distribution and neuromuscular variables could give important insights regarding the risk of injury. However, few studies have addressed these variables. The TF model appears to be the only cleat that decreases the force and pressure beneath the metatarsal heads and, for that reason, could possibly minimize metatarsal injury risk . The bladed studs imposes increased plantar pressure on the lateral border of the shoe, while the model with rounded studs can be considered more secure since it leads to pressure distributions that mimic the normal plantar pressure profile . Neuromuscular variables, such as activation time, were addressed in one study only. Despite its importance for the risk of injury assessment, no differences were observed in the peroneal activation time between TF, HG, and FG models, even under fatigue. These results should be considered with caution since it can be questioned if the isolated fatigue of the peroneal muscles could be sufficient to impair the postural control mechanisms .
Some authors encouraged the study of cleat-surface interaction using sporting gestures performed in place of practice/game ; however, some interesting findings were obtained with mechanical simulations [12, 17, 33, 38]. Galbusera et al.  revealed no differences on rotational stiffness between the bladed and other two shoe models with rounded studs. Thus, could be exaggerated to suggest that athletes must reject the bladed models, since they do not seem to increase the risk of noncontact injury . However, because the material(s) used to construct the upper part of the shoe may influence rotational stiffness, future studies should explore this hypothesis .
Like in performance, the kind of grass also influences the risk of injury. When peak torque and the rotational stiffness was assessed by a mechanical instrument in different fields, the lowest peak torque was related to natural fields compared to four different artificial fields . In addition, it has been argued that the grounds seem to be more important than the cleats in traction, linking again, the artificial grass to a higher risk of injury [8, 12].
In the future, it will be important to assess functional tasks and variables related to specific injuries in populations with higher risk, such as athletes with chronic ankle instability. Future studies involving jump strategies associated with different clinical conditions, like chronical ankle instability, are required, since the landing mechanism is a moment where a lot of injuries happen . If possible, the fatigue protocols imposed to athletes should be closer to the reality of the game . The methodological quality of studies in this area should also continue to be improved.
Globally, the mentioned studies highlight the TF as a protective model and the SG as a potentially harmful model for repetitive impact lesions, mainly in artificial fields. This is valid both in young  and adult players [16, 30]. When comparing the studs’ geometry of the round aluminum studs and the bladed ones, the second model seems to boost the injury risk from the lateral border of the plantar surface . It is still important to note that when comparing two fields (natural vs artificial), the second appears to potentiate injuries due to their rigidity [12, 38].
Cleat-surface interaction is an important and current topic, not only because it interferes with one of the soccer players’ concerns (performance) but also with the injury risk and absenteeism from sport practice. Literature reveals a decreased sports performance with the SG model, a protective feature of the TF model cleat, and an increased risk of injury in the artificial grass. However, the health promotion literature continues to be slightly specific. The study of this interaction in healthy subjects under fatigue is essential, but very little has been studied so far. Also, because soccer player present a high prevalence of ankle sprains, the cleat-surface interaction should be evaluated in athletes with increased risk of ankle sprain, such those with chronic ankle instability. Finally, another important factor is the introduction of dynamic and unpredictable test protocols for the detection of differences in the cleat-surface interaction. The study of this interaction in the injury risk is an exciting field, but there is still much to explore. The results obtained about this topic will help sports health professionals to work more efficiently on injury prevention with the sports community.
Key Points. (i) On artificial grass, the soft ground model is related to a decreased athlete’s performance. (ii) On wet conditions, the turf model is related to decreased performance. (iii) The turf model provides higher protection against the risk of injury.
Conflicts of Interest
The authors declare that there is no conflict of interest regarding the publication of this paper.
- H. Kunz, “Big count - 265 million playing football,” FIFA Magazine, pp. 10–15, 2007.
- D. Unlucan, “Jersey sponsors in football/soccer: the industry classification of main jersey sponsors of 1147 football/soccer clubs in top leagues of 79 countries,” Soccer & Society, vol. 16, no. 1, pp. 42–62, 2014.
- A. Lees and L. Nolan, “The biomechanics of soccer: a review,” Journal of Sports Sciences, vol. 16, no. 3, pp. 211–234, 1998.
- FIFA, FIFA Quallity Concept for Football Turf, 2012, http://www.fifa.com.
- FIFA, FIFA - Quality Concept for Football Turf, 2009, http://www.fifa.com.
- R. M. Conenello, “Soccer,” in Athletic Footwear and Orthoses in Sports Medicine, M. B. Werd and E. L. Knight, Eds., pp. 239–246, Springer, New York, 2010.
- T. Sterzing, “Soccer boots and playing surfaces,” in Soccer science, T. Strudwick, Ed., pp. 179–202, Human Kinetics, Champaign, IL, USA, 2016.
- E. M. Hennig, “The influence of soccer shoe design on player performance and injuries,” Research in Sports Medicine, vol. 19, no. 3, pp. 186–201, 2011.
- D. J. Kulessa, A. Gollhofer, and D. Gehring, “The influence of football shoe characteristics on athletic performance and injury risk – a review,” Footwear Science, vol. 9, no. 1, pp. 49–63, 2017.
- T. G. McPoil, “Athletic footwear: design, performance and selection issues,” Journal of Science and Medicine in Sport, vol. 3, no. 3, pp. 260–267, 2000.
- T. Sterzing, C. Müller, E. M. Hennig, and T. L. Milani, “Actual and perceived running performance in soccer shoes: a series of eight studies,” Footwear Science, vol. 1, no. 1, pp. 5–17, 2009.
- M. R. Villwock, E. G. Meyer, J. W. Powell, A. J. Fouty, and R. C. Haut, “Football playing surface and shoe design affect rotational traction,” The American Journal of Sports Medicine, vol. 37, no. 3, pp. 518–525, 2009.
- J. D. Clarke and M. J. Carré, “Improving the performance of soccer boots on artificial and natural soccer surfaces,” Procedia Engineering, vol. 2, no. 2, pp. 2775–2781, 2010.
- T. Sterzing, C. Müller, and T. L. Milani, “Traction on artificial turf: development of a soccer shoe outsole,” Footwear Science, vol. 2, no. 1, pp. 37–49, 2010.
- C. Muller, T. Sterzing, J. Lange, and T. L. Milani, “Comprehensive evaluation of player-surface interaction on artificial soccer turf,” Sports Biomechanics, vol. 9, no. 3, pp. 193–205, 2010.
- R. M. Queen, B. L. Charnock, W. E. Garrett Jr, W. M. Hardaker, E. L. Sims, and C. T. Moorman 3rd, “A comparison of cleat types during two football-specific tasks on FieldTurf,” British Journal of Sports Medicine, vol. 42, no. 4, pp. 278–284, 2008, discussion 284.
- F. Galbusera, D. Z. Tornese, F. Anasetti et al., “Does soccer cleat design influence the rotational interaction with the playing surface?” Sports Biomechanics, vol. 12, no. 3, pp. 293–301, 2013.
- D. McGhie and G. Ettema, “Biomechanical analysis of traction at the shoe-surface interface on third-generation artificial turf,” Sports Engineering, vol. 16, no. 2, pp. 71–80, 2013.
- L. W. Hogarth, B. J. Burkett, and M. R. McKean, “Match demands of professional rugby football codes: a review from 2008 to 2015,” International Journal of Sports Science & Coaching, vol. 11, no. 3, pp. 451–463, 2016.
- T. J. Gabbett, “Science of rugby league football: a review,” Journal of Sports Sciences, vol. 23, no. 9, pp. 961–976, 2005.
- J. A. Bentley, A. K. Ramanathan, G. P. Arnold, W. Wang, and R. J. Abboud, “Harmful cleats of football boots: a biomechanical evaluation,” Foot and Ankle Surgery, vol. 17, no. 3, pp. 140–144, 2011.
- D. Moher, A. Liberati, J. Tetzlaff, D. G. Altman, and PRISMA Group, “Preferred reporting items for systematic reviews and meta-anályses: the PRISMA statement,” Annals of Internal Medicine, vol. 151, no. 4, pp. 264–269, 2009.
- S. H. Downs and N. Black, “The feasibility of creating a checklist for the assessment of the methodological quality both of randomised and non-randomised studies of health care interventions,” Journal of Epidemiology and Community Health, vol. 52, no. 6, pp. 377–384, 1998.
- J. Munn, S. J. Sullivan, and A. G. Schneiders, “Evidence of sensorimotor deficits in functional ankle instability: a systematic review with meta-analysis,” Journal of Science and Medicine in Sport, vol. 13, no. 1, pp. 2–12, 2010.
- D. De Clercq, G. Debuyck, J. Gerlo, S. Rambour, V. Segers, and I. Van Caekenberghe, “Cutting performance wearing different studded soccer shoes on dry and wet artificial turf,” Footwear Science, vol. 6, no. 2, pp. 81–87, 2014.
- T. Sterzing and E. M. Hennig, “The influence of soccer shoes on kicking velocity in full-instep kicks,” Exercise and Sport Sciences Reviews, vol. 36, no. 2, pp. 91–97, 2008.
- E. M. Hennig, K. Althoff, and A. K. Hoemme, “Soccer footwear and ball kicking accuracy,” Footwear Science, vol. 1, Supplement 1, pp. 85–87, 2009.
- T. Sterzing, C. Müller, T. Wächtler, and T. L. Milani, “Shoe influence on actual and perceived ball handling performance in soccer,” Footwear Science, vol. 3, no. 2, pp. 97–105, 2011.
- J. H. Walter and G. K. Ng, “The evaluation of cleated shoes with the adolescent athlete in soccer,” The Foot, vol. 12, no. 3, pp. 158–165, 2002.
- N. Smith, R. Dyson, and L. Janaway, “Ground reaction force measures when running in soccer boots and soccer training shoes on natural turf surface,” Sports Engineering, vol. 7, no. 3, pp. 159–167, 2004.
- R. Kaila, “Influence of modern studded and bladed soccer boots and sidestep cutting on knee loading during match play conditions,” The American Journal of Sports Medicine, vol. 35, no. 9, pp. 1528–1536, 2007.
- D. Gehring, F. Rott, B. Stapelfeldt, and A. Gollhofer, “Effect of soccer shoe cleats on knee joint loads,” International Journal of Sports Medicine, vol. 28, no. 12, pp. 1030–1034, 2007.
- D. J. Stefanyshyn, J.-S. Lee, and S.-K. Park, “The influence of soccer cleat design on resultant joint moments,” Footwear Science, vol. 2, no. 1, pp. 13–19, 2010.
- C. Müller, T. Sterzing, M. Lake, and T. L. Milani, “Different stud configurations cause movement adaptations during a soccer turning movement,” Footwear Science, vol. 2, no. 1, pp. 21–28, 2010.
- E. Brock, S. Zhang, C. Milner, X. Liu, J. T. Brosnan, and J. C. Sorochan, “Effects of two football stud configurations on biomechanical characteristics of single-leg landing and cutting movements on infilled synthetic turf,” Sports Biomechanics, vol. 13, no. 4, pp. 362–379, 2014.
- R. J. Butler, M. E. Russell, and R. Queen, “Effect of soccer footwear on landing mechanics,” Scandinavian Journal of Medicine & Science in Sports, vol. 24, no. 1, pp. 129–135, 2014.
- D. C. F. Silva, R. Santos, J. P. Vilas-Boas, R. Macedo, A. Montes, and A. S. Sousa, “The influence of different soccer cleat type on kinetic, kinematic and neuromuscular ankle variables in artificial turf,” Footwear Science, vol. 9, no. 1, pp. 21–31, 2017.
- G. A. Livesay, D. R. Reda, and E. A. Nauman, “Peak torque and rotational stiffness developed at the shoe-surface interface: the effect of shoe type and playing surface,” The American Journal of Sports Medicine, vol. 34, no. 3, pp. 415–422, 2006.
- M. J. Lake, “Determining the protective function of sports footwear,” Ergonomics, vol. 43, no. 10, pp. 1610–1621, 2000.
Copyright © 2017 Diogo C. F. Silva et al. This is an open access article distributed under the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited.