Greyson, I., Kelly, S., Peyrebrune, M., & Furniss, B. (2010). Interpreting and implementing the long term athlete development model: English swimming coaches' views on the (swimming) LTAD in practice – A commentary. International Journal of Sports Science and Coaching, 5(3), 403-406.

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This article is a reply commentary by "swimming people" to the Lang and Light (2010) article that was largely critical of British Swimming's Long Term Athlete Development (LTAD) model, “The Swimmer Pathway”. In many respects, it illustrates the dogma that is rampant in the sport. Contentious issues are discussed briefly below.

The first belief is that swimmers can only progress completely if they leave a "smaller" club and go on to "a club that can provide more for them in the long term" (p. 403). Bigger is not necessarily better. Decisions on the best situation for a talented young swimmer should involve many more factors than club size. Perhaps the best argument against the belief expressed by these authors is to use the example of the Australian Institute of Sport, which over the years has recruited many talented swimmers only to have them progress little, if at all, at huge expense. The switching of clubs is a recent phenomenon in several western countries and does not always guarantee improvement in performances. Examples of eventual long-term success by staying with one's original coach/club (e.g., Kieren Perkins, Ian Thorpe, Grant Hackett) can be weighed against examples of those who succeeded by moving to "elite coaches" and academies (particularly in the Australian state of Queensland). On this belief, the anecdotal evidence is equivocal at best.

The belief that aerobic swimming is best for technique development is false. Slower than race-pace swimming (all aerobic-only swimming is slower than race-pace) develops techniques that are specific for slow swimming. Slow-swimming techniques are not transferred to fast-swimming to any appreciable degree. However, it is possible to structure interval training sets that are particularly aerobic while taxing some anaerobiosis that is recovered in rest intervals (known as "ultra-short" training and covered in depth in the Coaching Science Abstracts (Rushall, 2011)). As well, interval training promotes retention of stroke techniques better than does long or continuous training (Pelarigo et al., 2010). Usually, high-volume training has much swimming performed at irrelevant-for-competition paces. Technique work at slow paces will largely be irrelevant for competitive performances. There are other factors involved with slow swimming (e.g., it is disliked by many swimmers, particularly the younger performers). The slowest swimming speed that is tolerable in productive swimming training programs is that performed at the anaerobic threshold level (Weltman et al., 2005) for 15 minutes (McMaster, Stoddard, & Duncan, 1989), because it leads to the fastest clearance of excessive lactate from the blood.

A worthy statement was made concerning technique: "At age-group levels, every swim should be focused on technique enhancement whatever the speed or distance of the swim" (p 404). If technique is to be the major focus of swimming improvement, it needs to be presented according to sound pedagogical principles, something that is missing in the dialogues of the discussion about British Swimming's LTAD model. Unfortunately, many swimming coaches are not good teachers because they do not follow sound teaching practices. While coaches endeavor to coach technique with general instructions, occasional personal directives, and usually a marked absence of feedback, specific technique changes are unlikely.

Another notable weakness in this response article is the lack of understanding of human physiology. The LTAD gives the semblance of the basic principles of human physiology as being:

Some of the more important features of human physiology that should be considered when programming short and long term involvements in sport [swimming] are as follows:

To ignore the differing capacities, needs, and training requirements of the different stages of maturation and the genders is to coach incorrectly a large number of swimmers. It is unacceptable to make the "too difficult" claim when offering a professional service that is supposed to consider the welfare of young participants. The failure to recognize the different needs of swimmers to help them achieve their individual potentials is a shame.

Perhaps the misinformation patronized by the authors is best exampled in their own words (p. 404):

This shows a lack of understanding of the physiological aspects of [the] LTAD. To make solid the skills, aerobic swimming is a necessity and cannot be done anaerobically as the swimmers cannot maintain this level of swimming without the techniques becoming impaired.

It is the long-term interest of both the swimmer and the coach to maximize the aerobic development in this period as the diaphragm and the thorax are at their peak growth rate . . . To much anaerobic type training at this stage will result in a reduction of the swimmer's potential to be a successful senior swimmer.

There are no published evidence-based refereed articles that support any of the implications of the above quotes [although inspiratory and expiratory respiratory muscle training appears to have some promise for improving performances in some individuals].

The 10,000 hour notion of being the requirement for attaining excellence in races is stated as being a "rule" (p. 404) despite there being no acceptable evidence supporting the concept. This is an example of elevating an idea to the status of a "rule" [law] without confirmation of truth. There are so many examples of world-best performers achieving well before and well after such a number that the postulation is best deemed to be false. When it is used to assert arguments in conjunction with other false premises, it should be easy to understand how the lore of swimming is expanding.

Belief-based postulations continue:

At a certain point, just training five evenings per week will not be enough to keep pace with rivals (p. 405).

The adherence to absolute values for every swimmer is dangerous because it contains much error in its generality. Adaptation to exercise stress is determined by the provision of overload and recovery (Rushall & Pyke, 1991). With the wide variation in individual capacities and abilities, only when work and rest are applied judiciously and individually will the needs of every swimmer be accommodated. It is highly likely that the "absolute value" approach to discussing training needs will harm as many swimmers as it will assist. Such an approach is both unconscionable (but overwhelmingly ignored) and unprofessional.

Toward the end of the article, there appears to be a contradiction to the tone of the generality of training factors described earlier. It is heartening to read:

Coaches are advised to treat the swimmers as individuals. This will increase the chances that the swimmer stays in the sport for [sic] longer (p. 405).


  1. Bonifazi, M., Martelli, G., Marugo, L., Sardella, F., & Carli, G. (1993). Blood lactate accumulation in top level swimmers following competition. The Journal of Sports Medicine and Physical Fitness, 33, 13-18.
  2. Borms, J. (1986). The child and exercise: an overview. Journal of Sports Sciences, 4, 3-20.
  3. Braum, B., Butterfield, G. E., Mawson, J. T., Muza, S., Dominick, B. S., Rock, P. B., & Moore, L. G. (1997). Women at altitude: Substrate oxidation during steady-state exercise at sea level and after acclimatization to 4300 meters elevation. Medicine and Science in Sports and Exercise, 29(5), Supplement abstract 784.
  4. Costill, D. L., Thomas, R., Robergs, R. A., Pascoe, D., Lambert, C., Barr, S., & Fink, W. J. (1991). Adaptations to swimming training: influence of training volume. Medicine and Science in Sports and Exercise, 23, 371-377.
  5. Esbjornsson, M., Bodin, K., & Jansson, E. (1995). Muscle metabolism during a 30-s sprint test (Wingate Test) in females and males. Medicine and Science in Sports and Exercise, 27(5), Supplement abstract 448.
  6. Fulco, C. S., Rock, P. B., Muza, S. R., Lammi, E., Moore, L. G., Beidleman, B. A., Lewis, S. G., & Cymerman, A. (1997). Adductor pollicis muscle fatigue in women during acute altitude exposure. Medicine and Science in Sports and Exercise, 29(5), Supplement abstract 776.
  7. Gravelle, B. L., & Blessing, D. L. (1995). Physiological adaptation in women concurrently training for strength and endurance. Medicine and Science in Sports and Exercise, 27(5), Supplement abstract 1098.
  8. Hawley, J. A., & Williams, M. M. (1991). Relationship between upper body anaerobic power and freestyle swimming performance. International Journal of Sports Medicine, 12, 1-5.
  9. Hewett, T. E., Myer, G. D., & Ford, K. R. (2002). The influence of growth and pubertal maturation on neuromuscular performance in high-risk female athletes. Medicine and Science in Sports and Exercise, 34(5), Supplement abstract 1384.
  10. Jarvis, A. T., Felix, S. D., Sims, S., Coughlin, M., Jones, M. T., & Headley, S. A. (1997). The effect of carbohydrate feeding on the sprint performance of female cyclists following 50 minutes of high intensity exercise. Medicine and Science in Sports and Exercise, 29(5), Supplement abstract 723.
  11. McMaster, W. C., Stoddard, T., & Duncan, W. (1989). Enhancement of blood lactate clearance following maximal swimming. The American Journal of Sports Medicine, 17, 472-476.
  12. Mero, A., Jaakkola, L., & Komi, P. V. (1991). Relationships between muscle fiber characteristics and physical performance capacity in trained athletic boys. Journal of Sports Sciences, 9, 161-171.
  13. Muller, J., Engel, F., & Ferrauti, A. (2009). Children tolerate intensive intermittent exercise better than adults. A paper presented at the 14th Annual Congress of the European College of Sport Science, Oslo, Norway, June 24-27.
  14. Paradisis, G., Zacharogiannis, E., & Psycharakis, S. (2008). Anaerobic power and capacity in competitive swimmers. ACSM 55th Annual Meeting Indianapolis, Presentation Number, 2118.
  15. Pelarigo, J. G., Denadai, B. S., Fernandes, B. D., Santiago, D. R., César, T. E., Barbosa, L. F., & Greco, C. C. (2010). Effect of time and exercise mode on metabolic, stroking parameters, and stroke phase responses in continuous and intermittent exercises. A paper presented at the XIth International Symposium for Biomechanics and Medicine in Swimming, Oslo, June 16–19, 2010.
  16. Prasad, N., Coutts, K. D., Jesperson, D., Wolski, L., Cooper, T., Sheel, W., Lama, I., & McKenzie, D. C. (1995). Relationship between aerobic and anaerobic exercise capacities in pre-pubertal children. Medicine and Science in Sports and Exercise, 27(5), Supplement abstract 640.
  17. Robergs, R. A., Quintana, R., Parker, D., & Frankel, C. C. (1997). Gender specific decrement in VO2max with increasing hypobaric hypoxia. Medicine and Science in Sports and Exercise, 29(5), Supplement abstract 777.
  18. Rushall, B. S. (1994). Some psychological considerations for US National Swimming Teams. American Swimming, February-March, 8-12.
  19. Rushall, B. S. (2009). Foundational and programming principles of conditioning baseball pitchers. Spring Valley, CA: Sports Science Associates [Electronic book].
  20. Rushall, B. S. (2011). Coaching Science Abstracts. San Diego, CA; San Diego State University. [http://coachsci.sdsu.edu/index.htem].
  21. Rushall, B. S., Jamieson, J., & Talbot, D. (1976). Psychological characteristics of Canadian Olympic Games Swimmers. The Canadian Amateur Swimming Association, Ottawa.
  22. Siders, W. A., Lukaski, H. C., & Bolonchuk, W. W. (1993). Relationships among swimming performance, body composition and somatotype in competitive collegiate swimmers. The Journal of Sports Medicine and Physical Fitness, 33, 166-171.
  23. Sperlich, B., Haegele, M., Achtzehn, S., De Marees, M., & Mester, J. (2009). High intensity exercise in children: Results from different disciplines. A paper presented at the 14th Annual Congress of the European College of Sport Science, Oslo, Norway, June 24-27.
  24. Sperlich, B., Haegele, M., Heilemann, I., Zinner, C., De Marees, M., Achtzen, S., & Mester, J. (2009). Weeks of high intensity vs. volume training in 9-12 year-old swimmers. ACSM 56th Annual Meeting, Seattle, Washington. Presentation number 959.
  25. Simmons, S. E., Tanner, D. A., & Stager, J. M. (2000). Different determinants of sprint swim performance in male and female competitive swimmers. Medicine and Science in Sports and Exercise, 32(5), Supplement abstract 1692.
  26. Weltman, A. L., Greenwood, J. D., Moses, E. Bernardino, M., & Gaesser, G. A. (2005). Effects of exercise recovery intensity on blood lactate disappearance and subsequent swimming performance. Medicine and Science in Sports and Exercise, 37(5), Supplement abstract 447.

Return to Table of Contents for Training for Swimming.

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