While teaching a heel first contact style of footwork in fencing (also referred to as toe contribution avoidance) is in keeping with long-standing traditions, it is not conducive to today’s modern style of fast paced and explosive fencing. Equally, fencers towards the elite-end seem to be gradually adopting a more spring-based style, as their body progressively and organically transitions to “ball of the foot” based footwork, in order for them to fence competitively in the manner they have intuitively associated with success. Therefore, if from a young age fencers are taught to make full use of the stretch-shortening cycle via “bouncing” or simply by initiating movement via the ball of the foot, this will expedite the learning process. It will demonstrate to them how the stretch-shortening cycle can be used to move at greater speed, cover greater distances when advancing, retreating and lunging, and conserve the much-needed energy required to compete over daylong competitions. This paper details the mechanistic underpinnings of the stretch-shortening cycle and its application to the modern day fencer.
CohenR. By the sword. A history of gladiators, samurai, swashbucklers, and Olympic champions, Toronto: Randoms House of Canada Limited, 2002.
2.
GarretRKaidanovEPezzaG. Foil, saber and epee fencing. Skills, safety, operations and responsibilities, Pennsylvania: The Pennsylvania State University Press, 1994.
3.
EvangelistaN. The art and science of fencing, Chicago: Masters Press, 1996.
4.
GauglerW. The science of fencing: a comprehensive training manual for master and student: including lesson plans for foil, sabre and epee instruction, Maine: Laureate Press, 2004.
NadiA. The living sword. A fencer’s autobiography, Florida: Laureate Press, 1955.
8.
SimmondsAMortonE. Fencing to win, London: The Sportmans Press, 1997.
9.
HarmenbergJVäggöBSchmittAet al.Epee 2.5. The new fencing paradigm revised and expanded with new contributions from three world champions, New York: SKA SwordPlay Books, 2015.
10.
TurnerAJeffreysI. The stretch shortening cycle: proposed mechanisms and methods for enhancements. Strength Cond J2010; 32: 87–89.
11.
TurnerAJamesNDimitriouLet al.Determinants of olympic fencing performance and implications for strength and conditioning training. J Strength Cond Res2014; 28: 3001–3011.
12.
BoscoCMontanariGRibacchiRet al.Relationship between the efficiency of muscular work during jumping and the energetic of running. Eur J Appl Physiol1987; 56: 138–143.
13.
BobbertMCasiusL. Is the countermovement on jump height due to active state development?Med Sci Sports Exerc2005; 37: 440–446.
14.
AuraOViitasaloJ. Biomechanical characteristics of jumping. Int J Sports Biomech1989; 5: 89–97.
15.
BobbertM. Drop jumping as a training method for jumping ability. Sports Med1990; 9: 7–22.
16.
McBrideJMcCaulleyGCormieP. Influence of preactivity and eccentric muscle activity on concentric performance during vertical jumping. J Strength Cond Res2008; 23: 750–757.
BobbertMGerritsenKLitjensMet al.Why is countermovement jump height greater than squat jump height?Med Sci Sports Exerc1996; 28: 1402–1412.
19.
DalleauGBelliABourdinMet al.The spring-mass model and the energy cost of treadmill running. Eur J Appl Physiol Occup Physiol1998; 77: 257–263.
20.
VerkhoshanskyY. Quickness and velocity in sports movements. IAAF Q1996; 11: 29–37.
21.
VoigtMBojsen-MollerFSimonsenEet al.The influence of tendon Youngs modulus, dimensions and instantaneous moment arms on the efficiency of human movement. J Biomech1995; 28: 281–291.
22.
HobaraHKimuraKOmuroKet al.Determinants of difference in leg stiffness between endurance- and power-trained athletes. J Biomech2008; 41: 506–514.
23.
KuboKKawakamiYFukunagaT. Influence of elastic properties of tendon structures on jump performance in humans. J Appl Physiol1999; 87: 2090–2096.
24.
LichtwarkGWilsonA. Is Achilles tendon compliance optimised for maximum muscle efficiency during locomotion?J Biomech2007; 40: 1768–1775.
25.
ZatsiorskyVKraemerW. Science and practice of strength training, Champaign, IL, USA: Human Kinetics, 2006.
26.
HillA. The heat of shortening and the dynamic constants of muscle. Proc R Soc London Series B1938; 126: 136–195.
27.
TurnerABishopCCreeJet al.Do fencers require a weapon specific approach to strength and conditioning?J Strength Cond Res2017; 31: 1662–1668.
28.
LiebermanDVenkadesanMWerbelWet al.Foot strike patterns and collision forces in habitually barefoot versus shod runners. Nature2010; 463: 531–535.
29.
Milner C. Gait biomechanics and tibial stress fracture in runners. In: ISBS-conference proceedings archive, 2009, Limerick, Ireland, August 17-21.
30.
JonesBThackerSGilchristJet al.Prevention of lower extremity stress fractures in athletes and soldiers: a systematic review. Epidemiol Rev2002; 24: 228–247.
31.
MilgromCGiladiMSteinMet al.Stress fractures in military recruits. A prospective study showing an unusually high incidence. J Bone Joint Surg1985; 67: 732–735.
32.
JonesBShafferRSnedecorM. Injuries treated in out- patient clinics: surveys and research data. Mil Med1999; 164: 86–89.
33.
Shaffer R and Almeida S. Musculoskeletal injury project: Naval Health Research Center. In: 43rd annual meeting of the American College of Sports Medicine, Vol. 24, Cincinnati, Ohio, 1996, pp.228–247.
34.
FerrisDFarleyC. Interaction of leg stiffness and surface stiffness during human hopping. J Appl Physiol1997; 82: 15–22.
35.
KyrolainenHKomiPKimD. Effects of power training on neuromuscular performance and mechanical efficiency. Scand J Med Sci Sports1991; 1: 78–87.
36.
MyerGFordKBrentJet al.The effects of plyometric vs. dynamic stabilization and balance training on power, balance, and landing force in female athletes. J Strength Cond Res2006; 20: 345–353.
37.
PotteigerJLockwoodRHaubMet al.Muscle power and fiber characteristics following 8 weeks of plyometric training. J Strength Cond Res1999; 13: 275–279.
38.
RimmerESleivertG. Effects of a plyometrics intervention program on sprint performance. J Strength Cond Res2000; 14: 295–301.
39.
SchmidtbleicherDGollhoferAFrickUEffects of stretch shortening time training on the performance capability and innervation characteristics of leg extensor muscles. In: DeGrootGHollanderAHuijingPet al.(eds). Biomechanics XI-A1988; Vol. 7-A, Amsterdam: Free University Press, pp. 185–189.
40.
SpurrsRMurphyAWatsfordM. The effect of plyometric training on distance running performance. Eur J Appl Physiol2003; 89: 1–7.
41.
CoyleECostillDLesmesG. Leg extension power and muscle fiber composition. Med Sci Sports1979; 11: 12–15.
42.
KomiPStretch-shortening cycle. In: KomiP (ed). Strength and power in sport, 2nd ed. Oxford, UK: Blakwell Science, 2003, pp. 184–202.
43.
MiyaguchiKSugiuraHDemuraS. Possibility of stretch-shortening cycle movement training using a jump rope. J Strength Cond Res2014; 28: 700–705.
44.
FlanaganEComynsT. The use of contact time and the reactive strength index to optimise fast stretch-shortening cycle training. Strength Cond J2008; 30: 33–38.
45.
ArampatzisASchadeFWalshMet al.Influence of leg stiffness and its effect on myodynamic jumping performance. J Electromyogr Kinesiol2001; 11: 355–364.
46.
FarleyCBlickhanRSatoJet al.Hopping frequency in humans: a test of how springs set stride frequency in bouncing gaits. J Appl Physiol1991; 191: 2127–2132.
47.
FarleyCMorgenrothD. Leg stiffness primarily depends on ankle stiffness during human hopping. J Biomech1999; 32: 267–273.
48.
TurnerABishopCChavdaSet al.Physical characteristics underpinning lunging and change of direction speed in fencing. J Strength Cond Res2016; 30: 2235–2241.
49.
Turner A, Marshall G, Noto A, et al. Staying out of range: Increasing attacking distance in fencing. Int J Sports Physiol Perform, 12: 1319–1323.
