Search Results

You are looking at 1 - 10 of 31 items for :

  • "banned substances" x
Clear All
Restricted access

Amy B. Cadwallader and Bob Murray

Whenever athletes willfully or accidentally ingest performance-enhancing drugs or other banned substances (such as drugs of abuse), markers of those drugs can be detected in biological samples (e.g., biofluids: urine, saliva, blood); in the case of some drugs, that evidence can be apparent for many weeks following the last exposure to the drug. In addition to the willful use of prohibited drugs, athletes can accidentally ingest banned substances in contaminated dietary supplements or foods and inadvertently fail a drug test that could mean the end of an athletic career and the loss of a good reputation. The proliferation of performance-enhancing drugs and methods has required a corresponding increase in the analytical tools and methods required to identify the presence of banned substances in biofluids. Even though extraordinary steps have been taken by organizations such as the World Anti-Doping Agency to limit the use of prohibited substances and methods by athletes willing to cheat, it is apparent that some athletes continue to avoid detection by using alternative doping regimens or taking advantage of the limitations in testing methodologies. This article reviews the testing standards and analytical techniques underlying the procedures used to identify banned substances in biological samples, setting the stage for future summaries of the testing required to establish the use of steroids, stimulants, diuretics, and other prohibited substances.

Restricted access

Maria Kavussanu and Christopher Ring

likelihood (e.g., Kavussanu et al., 2016 ), as proxies for doping behavior. In line with previous research ( Kavussanu et al., 2016 ; Ring & Kavussanu, 2017 ), we asked participants to report their likelihood of doping in two hypothetical situations, in which they could use a banned substance to (a

Open access

Ina Garthe and Ronald J. Maughan

, but, without the necessary resources to do tests and follow-up, the effect will continue to be limited. The government systems of regulations and independent manufacturing quality programs do not include specific laboratory testing for banned substances according the World Anti-Doping Agency (WADA

Open access

Peter Peeling, Linda M. Castell, Wim Derave, Olivier de Hon and Louise M. Burke

either unaware that they are banned or are confused by technical/chemical names. For example, DMAA is a banned substance and has been included in supplements under a variety of other names including geranium oil/extract or geranamine; this no doubt contributed to many publicized and less well-known cases

Restricted access

Laurie B. Patterson, Susan H. Backhouse and Sergio Lara-Bercial

historical investigations because they had been involved in doping behaviours at a number of levels, from condoning and promoting to administering and supplying banned substances (e.g.,  Dubin, 1990 ; Ungerleider, 2001 ; Fainaru-Wada & Williams, 2006 ). To the present day, coaches continue to be implicated

Restricted access

Judy Liao and Pirkko Markula

In November 2010, the US media reported that basketball player Diana Taurasi tested positive for a banned substance while playing in Turkey. In this study, we explore the media coverage of Taurasi’s positive drug test from a Deleuzian perspective. We consider the media coverage as an assemblage (Deleuze & Guattari, 1987; Malins, 2004) to analyze how Taurasi’s drug using body is articulated with the elite female sporting body in the coverage of her doping incident (Markula, 2004; Wise, 2011). Our analysis demonstrates that Taurasi’s position as a professional basketball player in the US dominated the discussion to legitimize her exoneration of banned substance use. In addition, Turkey, its “amateur” sport and poor drug control procedure, was located to the periphery to normalize a certain type of professionalism, doping control, and body as the desirable elements of sporting practice.

Restricted access

Angela L. Spence, Marc Sim, Grant Landers and Peter Peeling

Both caffeine (CAF) and pseudoephedrine (PSE) are proposed to be central nervous system stimulants. However, during competition, CAF is a permitted substance, whereas PSE is a banned substance at urinary levels >150 μg·ml−1. As a result, this study aimed to compare the effect of CAF versus PSE use on cycling time trial (TT) performance to explore whether the legal stimulant was any less ergogenic than the banned substance. Here, 10 well-trained male cyclists or triathletes were recruited for participation. All athletes were required to attend the laboratory on four separate occasions—including a familiarization trial and three experimental trials, which required participants to complete a simulated 40 km (1,200 kJ) cycling TT after the ingestion of either 200 mg CAF, 180 mg PSE or a nonnutritive placebo (PLA). The results showed that the total time taken and the mean power produced during each TT was not significantly different (p > .05) between trials, despite a 1.3% faster overall time (~57 s) after CAF consumption. Interestingly, the time taken to complete the second half of the TT was significantly faster (p < .05) in CAF as compared with PSE (by 99 s), with magnitude based inferences suggesting a 91% beneficial effect of CAF during the second half of the TT. This investigation further confirms the ergogenic benefits of CAF use during TT performances and further suggests this legal CNS stimulant has a better influence than a supra-therapeutic dose of PSE.

Restricted access

Caroline Berry and Dale R. Wagner


Pseudoephedrine (PSE) is an over-the-counter decongestant that might have ergogenic effects. The World Anti-Doping Agency has prohibited large doses (>150 μg/mL) of PSE, while the National College Athletic Association (NCAA) does not include it on their banned-substance list.


This study examined the effect of body-weight dosing of PSE on 800-m-run times of NCAA female runners.


Fifteen NCAA female track athletes volunteered to participate in the randomized, double-blind, crossover design. Participants were given 2.5 mg/kg PSE or placebo in trials separated by a week. Ninety minutes postingestion, participants completed an 800-m individual time trial on an indoor track. Finishing time was recorded with an automated video timing device. Heart rate and anxiety state scores were recorded immediately after each trial.


Fourteen runners completed both trials, and 1 was an outlier: N = 13. Despite the dose being well above normal therapeutic levels (144 ± 17 mg), there was no significant difference (P = .92) in 800-m times between PSE (2:39.447 ± 9.584) and placebo (2:39.372 ± 9.636) trials, in postexercise heart rate (P = .635; PSE = 177.9 ± 14.5 beats/min, placebo = 178.4 ± 18.5 beats/min), or in anxiety-state levels (P = .650; PSE = 38.4 ± 11.6, placebo = 38.1 ± 8.8).


A 2.5-mg/kg dose of PSE had no effect on 800-m performance for female NCAA runners. More research is needed to determine if PSE should be a specified banned substance.

Restricted access

Danny P. Goel, Jonathan D. Geiger, Jacqueline J. Shan, Dean Kriellaars and Grant N. Pierce

Nutraceuticals may induce doping infractions through contamination of the product itself or their ingestion might be metabolized within the body to create a positive doping control test. We tested this possibility using a commercially available, proprietary ginseng root extract (Cold-FX®, CV Technologies Inc., Edmonton, AB). After athletes ingested Cold-FX© for 28 d at 400 mg/d, urine samples were collected and processed under strict IOC doping control guidelines and then analyzed for a full screen of IOC banned/restricted substances by an IOC-approved laboratory. There were no positive tests for any banned substances in any of the subjects. Our study demonstrates that ingestion of Cold-FX® for 28 d at 400 mg/d does not represent a doping concern for athletes. Carefully controlled clinical studies like this one are necessary to provide the athlete, the nutraceutical industry and IOC regulatory bodies with information to avoid inadvertent exposure to banned/restricted or potentially unhealthy substances.

Restricted access

Lawrence L. Spriet

Caffeine ingestion (3-9 mg/kg body weight) prior to exercise increases performance during prolonged endurance exercise and short-term intense exercise lasting ~5 min in the laboratory. These results are generally reported in well-trained elite or recreational subjects. However, there is a lack of well-controlled field studies to determine the applicability of laboratory results to the athletic world. Caffeine does not appear to enhance performance during incremental exercise tests lasting 8-20 min and during sprinting lasting less than 90 s, although research examining sprinting is rare. In addition, the mechanisms responsible for any improvement in endurance and short-term exercise have not been clearly established. The ergogenic effects of caffeine are present with urinary caffeine levels that are below the limit of 12 µg/ml allowed by the International Olympic Committee, which raises serious ethical issues regarding the use of caffeine to improve athletic performance. One solution would be to add caffeine to the list of banned substances, thereby requiring athletes to abstain from caffeine ingestion 48-72 hr prior to competition.