Sport, Ethics and Philosophy
ISSN: 1751-1321 (Print) 1751-133X (Online) Journal homepage: http://www.tandfonline.com/loi/rsep20
On the Compatibility of Brain Enhancement and
the Internal Values of Sport
Alberto Carrio Sampedro & José Luis Pérez Triviño
To cite this article: Alberto Carrio Sampedro & José Luis Pérez Triviño (2017) On the
Compatibility of Brain Enhancement and the Internal Values of Sport, Sport, Ethics and Philosophy,
11:3, 307-322, DOI: 10.1080/17511321.2017.1320687
To link to this article: http://dx.doi.org/10.1080/17511321.2017.1320687
Published online: 26 May 2017.
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Date: 21 July 2017, At: 01:21
Sport, EthicS and philoSophy, 2017
Vol. 11, no. 3, 307–322
https://doi.org/10.1080/17511321.2017.1320687
On the Compatibility of Brain Enhancement and the Internal
Values of Sport
Alberto Carrio Sampedro
and José Luis Pérez Triviño
philosophy of law, pompeu Fabra University, Barcelona, Spain
ABSTRACT
KEYWORDS
Elite athletes are characterized by their high level of performance
in sport. Since the very beginnings of sport, it has been understood
that physical and physiological abilities inluence the performance
of athletes. Advances in scientiic knowledge, especially sport
psychology and neuroscience, seem to conirm this intuition and
consequently it is possible to characterize elite athletes as having
an extraordinary combination of physical and mental abilities.
Techniques and substances that contribute to enhancing physical
characteristics of athletes have also been well known for ages. But
it is now possible to make use of other techniques and substances
that not only enhance physical abilities but also cognitive capabilities,
which seem to require greater consideration given their direct impact
on the athlete’s brain. In this article, we examine two such techniques,
cognitive enhancers and transcranial stimulators, and highlight the
potential advantages and drawbacks that applying each one may
have on sport. Given the relative novelty of these enhancement
techniques and substances and the absence of conclusive evidence
regarding their short- and long-term efects, we deem that their use
ought to be strictly governed by cautionary principles. But due to that
same lack of evidence, we believe that the possibility of examining the
feasibility of applying these techniques to sport should not be denied.
Sport performance;
cognitive enhancement;
neuroenhancers; transcranial
stimulators; neurodoping;
theory of sport
1. Introduction
According to Hoberman, performance in sport can be deined as all the psychological or
physiological eforts that can be quantiied or assessed in physical or psychological terms
(Hoberman 64). Without a doubt, the efort put in by elite athletes and their level of control
in strenuous situations exemplify the epitome of sport performance. This almost inhuman
psychological and physiological performance ability embodies, to use McNamee’s ideas, the
genuine ideal of the athlete.1 It can be said, therefore, that the performance of elite athletes
is the result of an extraordinary conluence of physical and psychological abilities. We admire
athletes not only for their physical strength, their extraordinary ability to push through their
limits, their self-conidence and their ability to adapt to unpredictable situations, but also
for their psychological orientation towards success. All of these abilities are deining characteristics of what has been call the ‘athletic identity’ (AI).2
CONTACT alberto carrio Sampedro
alberto.carrio@upf.edu
© 2017 informa UK limited, trading as taylor & Francis Group
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A. CARRIO SAMPEDRO AND J. L. PÉREZ TRIVIÑO
In this article, we assume that cognitive abilities play a decisive role in sport performance,
and that, as a result, it is important to analyse the impact and viability of new cognitive
enhancement techniques such as neuroenhancers and transcranial stimulators as applied
to athlete performance. Thus, to provide a roadmap for this article, in Section 2, we analyse
the relationship among athletic identity (AI), training and technological enhancements
applied to sport. Next, in Section 3, we provide a general overview of cognitive enhancement
in sport. In Section 4, we deal with neuroenhancers and in (5) we turn to transcranial stimulators. In Section 6, we analyse some of the objections and normative problems related to
the use of these techniques in sport. We will then propose an interpretation that makes the
restricted use of these techniques compatible with the internal values of sport.
2. The athletic personality and technological, physical and psychological
enhancements
Physical abilities are a decisive factor in sport. When thinking of athletes training, it is likely
that the irst image that comes to mind is, as we have already mentioned, the great physical
efort made when they follow strict training regimes. Certainly athletes, and especially elite
athletes, go above and beyond the limits of healthy physical exercise as recommended by
the World Health Organization (WHO).3 Consider, for example, that in accordance with the
‘Nomenclature for performance achievement levels’ (NPAL), athletes who are Olympic gold
medal winners or world champions are classiied as ‘super elite’ while those who inish in
second place are characterized as ‘elite’.4 There is little doubt that any of the athletes who it
into these categories possess quite a rare combination of physical and psychological traits.
One of the irst things that all athletes learn at the very beginning of their careers is that
winning requires hard work and the demonstrated ability to sufer through and adapt to
inherently adverse circumstances in all competitive situations. There are certainly many
restrictions that an athlete’s life is subject to: rigorous training sessions, strict diets, injuries
and concentration on the desired goal. The attitude and action of overcoming these obstacles
is called ‘resilience’.5 In the sport world, ‘resilience’ can be deined as a dynamic psychosocial
process which at the same time (i) implies interacting with others and reinforcing the values
of mutual support and friendship, particularly in team sports and (ii) is temporary and factually dependent, given that it varies depending on the competition schedule and factual
circumstances, such as injuries.6 It is obvious that the lifestyle of any of those athletes is not
exactly enviable.7 This is even more obvious given the fact that if the World Anti-Doping
Agency requirements for maintaining a ‘clean’ biological passport are taken into account,
athletes are in fact pressured to place the demands of their profession over taking care of
their own health.
To meet these demands, athletes tend to resort to applying technology to their training,
a trend that has been growing in recent years. The elaborate design of modern athletic
apparel and shoes, the machines that allow athletes to build up strength and endurance,
the wind tunnels used to rehearse body techniques to reduce air resistance, and many other
innovations are simply the most well-known examples.
But physical performance cannot be equated with raw performance. To produce best
results, physical performance must be accompanied by strict concentration and training for
competition. Said another way, the efort needed to take full advantage of an athlete’s
SPORT, ETHICS AND PHILOSOPHY
309
maximum potential must be rationalized. Thus, this is where AI plays an essential role.8 Let
us examine this concept in greater detail.
Athletes can be deined by the degree with which they identify with their activity.9 In this
way, those who possess a strong Athletic Identity are more willing to submit themselves to
the restrictions required by the practice of the sport. That is to say those who possess this
strong athletic personality are better psychologically prepared to deal with the rigours of
competition. As we will see further on, this characteristic is essential to success in highly
competitive sport.10
Thus, if AI lays the groundwork for the psychological motivation of the athlete, the ends
seems to be as important as the means employed to attain it. This raises the question of
whether the ends and means are completely incompatible, or if, on the contrary, to what
extent they are compatible.
The incompatibility thesis can be defended from diferent perspectives. But once the
importance of the ends is conceded—to increase the level of motivation of the athlete,
scientiic and technological advances to improve athlete motivation ofer great opportunity.
As we have just seen, this is what occurs with preparation and physical performance thanks
to the scientiic and technological advances that enhance muscle endurance or increase
aerodynamics. At the end of the day, all these means are human artefacts that fall into the
category of technology in sport.11 Thus, since ‘technology is a necessary condition for many
sports to arise at all’12; the question is which technology should be permissible to use in
sport to attain the very goals of sport?
Another perspective of incompatibility is the one that highlights that cognitive enhancement techniques put the continuity of internal values of sport at stake and they consequently
distort the nature of the practice.13 The question that follows is why we must be more averse
to the scientiic advances applied to enhancing athletes’ brains (and their cognitive functions), than to other kinds of enhancement. Such is the case of physical enhancement with
all the nuances that have emerged in discussions of doping.14
The compatibility thesis is not blind to the implications of cognitive enhancers in sport.
It only points out that there is little doubt that once the physiology of the brain is known
and the areas that inluence motivation and other cognitive abilities that afect athlete performance have been mapped,15 it is possible to stimulate them to enhance that performance.
The issue to which we alluded earlier, is which of these theses ofers a more promising
perspective on sport and, in any case, to what extent these means are compatible with the
ends and goals of sport.
The repercussions that psychological abilities have on sport performance have been well
known for quite some time (Hoberman). Among these abilities, it is worthwhile to diferentiate between moods—emotional abilities in the broad sense of the term and cognitive
abilities. One practical example with regard to the former is the possibility of treating certain
emotional states, like depression, extreme shyness or phobias, in order to better the quality
of life of those who sufer from these states. It seems obvious that applying these techniques
to the sport arena contributes to a better quality of life and improved performance of athletes. This use of psychological techniques would be included in what Loland has called
technology which can ‘prevent injury and protect against harm’.16
Yet another category would better integrate cognitive enhancements in the strict sense
of the term, i.e. those which aim to go beyond dealing with the above-mentioned treatment
cases and directly afect performance in sport. In other words, according to Loland, they
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constitute ‘performance-enhancing technology in sport’.17 The following table provides an
overview of the diferent types of intervention and their possible application to sport.
Abilities:
physical.
cognitive.
Therapy
1
3
Enhancement
2
4
As we mentioned above, this article focuses on the fourth case, i.e. on the enhancement
of cognitive abilities given that advances in the ield of sport psychology have opened up
new prospects for their treatment and enhancement. It is for this reason, as we also alluded
to above, that we will deal with the impact of two of the techniques currently used in sport
psychology on sport enhancement, the so-called cognitive enhancers and cranial
stimulators.
But before going on to scrutinize the challenges that these techniques present for sport,
perhaps it would be better to make a few basic assumptions explicit.
(1) The physical and psychological abilities of athletes, despite being sine qua non for
elite athletes, are not always the determining factor of success. There are cases in
which luck plays the key role.18
(2) It is necessary to consider that genetic and social factors are involved in the possession and development of these abilities.
(3) The impact of the natural lottery, social status and luck is uneven, depending on the
type of competition that is being dealt with.19
The analysis to be carried out focuses on the growing interest that the open debate in psychology and neuroscience has sparked in the sport arena with regard to the mind–body
duality,20 but given that it is not possible to deal with such a broad scope of issues, we will
restrict our focus to technical and scientiic innovations which are liable to be applied to
enhancement of sport performance.
3. Cognitive abilities in sport
The zeal to improve performance in sport has been a constant throughout the history of
sport. And given that sport performance, as we have just seen, is inluenced by both physical
and cognitive factors, it is not rash to claim that the interest in improving both has been
equal. But it has not been until modern times that sport has felt the reverberations of the
incursion of sport psychology as a powerful instrument to improve the performance of
athletes:
The irst physiologist discovered that scientiic studies must operate at this border where physiology and psychology overlap. (Hoberman 1992, 157)
In the evolution of sport psychology, we see at least two stages. In the irst, the fundamental concern was to balance the athlete’s emotional states in such a way that performance
would be improved. Hoberman conirms that ‘the idea of manipulating the mind—a popular
concern in our times’—occurs at the beginning of the twentieth century. (Hoberman 1992,
225). The research from abnormal psychology in this area focused on better management
of stress, burnout and end-of-career anxiety (Tamorri 2004, 5).
SPORT, ETHICS AND PHILOSOPHY
311
The second stage can be identiied by an overall expansion of sport psychology that
allowed a glimpse at the potential to optimize mental training and mood, which are highly
inluential in sport performance.
There are at least two relevant reasons to deal with the impact of cognitive improvement
on sport performance and, consequently, the structure of competition. This is because in
certain disciplines, the cognitive aspect has special relevance. An extreme example of this
is chess, but other sports are not far behind: these others require a high degree of interdependence between competitors to carry out complex strategies, as is the case in most of
team sports.
The second reason is more signiicant. It concerns the link between physical and cognitive
abilities on sport performance (Foddy 2011). Even if it is true that physical abilities are those
that can be quantiied in terms of sport performance, it is not less true, as Bennet Foddy
highlights that
all such variations (physical actions) are mediated, at least in part, by the actor’s brain, spinal
cord, and peripheral nervous system. Neurological systems play a role in determining how far
we throw a javelin, how deeply we breathe while swimming … and how long we can withstand
the pain of endurance cycling.
Cognition is understood as the process employed by an organism to organize information,
a process which includes the following abilities: (i) acquisition (perception); (ii) selection
(attention); (iii) interpretation (understanding) and (iv) retention (memory). In accordance
with this, cognitive enhancement can be deined as any increase in information-processing
abilities involved in the cognition process by any means or system, internal or external
(Sandberg 2011, 71). Given this characterization, it is not diicult to highlight the intimate
connection between these abilities and the functions that sportspersons carry out on a daily
basis in their athletic workouts. It is, therefore, unsurprising that the interest in cognitive
enhancement has done nothing but increase in the sport arena. There are even popular
sayings which imply that these abilities are the reason behind winning:
The diference between winning and losing is 99% psychological.
90% of sports is mental and the other half is in the head.
Although these claims may be exaggerated, it is clear that there have been diferent
psychological methods and techniques developed in recent decades that improve sport
performance.21 The advances in sport psychology (LeUnes, 2011, 201), cognitive sciences
and neuroscience thus seem to have elements that should be taken into account.
Just consider the spectacular development that has been seen in neuroscience and the
importance that its progress has had in promoting more accurate knowledge of brain function. The tools that it ofers allow the intuitions of sports psychologists to be explained with
a little more clarity, in this way linking motor functioning directly to the brain.22
There are even those who argue that advances in neuroscience entail revolutions similar
to those which were sparked by Galileo in physics or Darwin in biology. Taking all that into
account, sport cannot stand by the wayside in the face of those advances. But rather the
opposite is true: it should work together with them as they allow exploring unimaginable
possibilities (Tamorri 2004, 10).
Perhaps the main contribution of neuroscience to sport will be the possibility of establishing a greater degree of accuracy of the relationship between brain and motor functions
and their eventual enhancement.
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A. CARRIO SAMPEDRO AND J. L. PÉREZ TRIVIÑO
This is what is occurring with brain stimulation, whether it be visual, auditory or of the
video variety, to locate areas that process information. Once they have been located and
their complex functioning is understood, there is nothing to stand in the way of improving
it, to the best of our abilities. Tamorri, for example, argues that the structure of a champion
can be suitably identiied:
A champion is a blend of muscular reaction and biomechanics, developed through a delicate,
ine and complex process of information recovery, decoding and programming that is found in
his brain, in his biology, in his neurotransmitters and inally, in his cognitive processes, organic
capabilities but also the emotional, cultural and practical ones are the reasons behind one
response or another. (Tamorri 2004, 9)
According to this author, neuroscience lends to sport:
The knowledge of the molecular and neurochemical mechanisms at the base of motor memory
and tactical memory, the athlete’s ability to adapt to diverse situations by quickly resynchronizing biological rhythms after jet lag or the ability to take advantage of situations such as the
release of emotional states like happiness, pain, frustration, enthusiasm, disappointment, or
even the plasticity in the process that allows the nervous system after it inishes to form what
are likely new synapses that are located throughout a great number of in distinct associative
areas at that foundation of learning processes. All of this would justify in any case the meaning
of training. (Tamorri 2004, 10)
In addition to the detailed understanding of the complex interaction between biological
and emotional processes in the brain, N. Davis has recently suggested that the advances in
neuroscience would mean:
that the skills and abilities underpinning sports performance can be enhanced using technologies that change the activity of the brain. These factors may include motor learning, enhanced
muscular strength or reduced fatigue, or even changes to mental state or concentration. (Davis,
649)
Up to now, it seems evident that the knowledge ofered by neuroscience on factors intervening in cognitive processes is extremely valuable and can be applied in the sport arena.
This being the case, the question that follows is whether this practice is justiied.
We will not rush to give a hurried answer to this question, but rather in what follows we
will examine some cognitive enhancement techniques and their application to sport
performance.
4. Cognitive enhancers
Related to the advances which have just been mentioned, pharmaceutical laboratories have
recently developed a variety of substances which can improve cognitive abilities, the
so-called cognitive enhancers. These cognitive enhancers were initially designed to treat
neurodegenerative diseases that arise in the aging process. But these products are also
efective at improving cognitive abilities of healthy individuals. The advantages that these
cognitive enhances ofer are, among others, increased wakefulness and the ability to maintain high levels of attention and concentration under stressful mental conditions as well as
the improvement of memory (Eronia 2012, 7). But there are also those who question their
efectiveness:
Many authors who are interested in direct brain intervention are happy to conidently assert that
methylphenidate and modainil are efective cognitive enhancers. Even when authors do not
explicitly state that stimulants improve cognition, they frequently appear to assume that they
SPORT, ETHICS AND PHILOSOPHY
313
do. However, the evidence that either drug might provide any useful form of cognitive enhancement is scant […] Even the positive inding about improvement of memory is a little diicult to
translate into a real world scenario. The type of statistical analysis used was chosen because it
allowed markedly diferent studies to be drawn together, however, the various methods used
to assess memory difered markedly from study to study. (Dubljević and Ryan 2015, 26–27)
It is likely that the most well-known cognitive enhancing substances are methylphenidate
(Ritalin23) and modainil (Provigil); among their various efects are stronger memory and
concentration abilities. Thus, they have been classiied as cognitive enhancing substances
(Dubljević and Ryan, 2015, 25).
The former blocks the re-uptake of dopamine, a neurotransmitter in the synapses. It can
also increase the release of dopamine and noradrenalin (norepinephrine). While the connection between methylphenidate and cognitive enhancement may take place in a variety
of ways, it is currently not known how the actual mechanism used by this drug works.
Methylphenidate is associated with a series of adverse side efects including nervousness,
drowsiness and insomnia as well as being contraindicated during pregnancy (Dubljević and
Ryan, 2015, 26).
In contrast, modainil involves short-term risks; however, its relatively recent appearance
on the market prevents the long-term efects from being evaluated at this time. Despite
being a weak dopamine reuptake inhibitor, modainil’s concentration after being taken orally
is high enough to substantially afect dopamine reuptake, which could explain the rare
in-stances of psychosis and mania related to its use.
The irst trials with these substances were carried out with airline pilots and soldiers given
that these drugs allowed them to improve their concentration and withstand fatigue. But
with time their use has spread. Currently, it is calculated that between 5 and 15% of students
in the United States have taken one of these substances with the goal of improving their
academic performance. In any case, it is not just students who have tried these substances
but also executives at many companies have used them with a view to mitigating fatigue,
alleviating concentration deicits and avoiding burnout. Little time was needed to prove the
impact that these drugs can have on special subjects, particularly those that sufer from
ADHD.24
It was unavoidable that these substances would also impact sport. Inasmuch as they act
on neurotransmitters, they improve the transmission of information and optimize physiological performance. For certain sports, these abilities are quite important and can even
decisively increase sport performance; consider, for example, the efects of improvement in
attention for a javelin thrower, a golfer or an archer. Nonetheless, there is insuicient research
to support the claim that selective androgen receptor modulators, antiestrogens, are in fact
performance enhancing. In other words, there is little data to back up their efectiveness for
such a purpose.25 In any case, there are legitimate uses of these kinds of drugs. For example,
although Major League Baseball banned amphetamines in 2006, there has been a dramatic
rise in the number of therapeutic use exemptions issued to players for attention-deicit
disorder diagnoses, for which drugs like Ritalin and Adderall can be legitimately prescribed.
In 2006, 28 players applied for the exemption, while a year later there were 103. There is
growing suspicion that many of these ADD diagnoses are just excuses to get the pills.26
Still, scientiic warnings about possible undesirable side efects, such as dependence,
cannot be ignored. In all likelihood, it is for this reason that they have been included on
WADA’s banned listed, just as other stimulants are27; this is also the case for amphetamines
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A. CARRIO SAMPEDRO AND J. L. PÉREZ TRIVIÑO
and cocaine and was the case for cafeine in the past. At the end of the day, in all of these
cases the availability of neurotransmitters in the brain is increased, inciting them to function
more quickly.28
But in addition to these substances, there are also certain neurotechniques which are
capable of improving brain functioning. There are three main types of physiological interventions on the brain (Merkel et al. 2007, 119): genetic, electromagnetic and surgical. This
last one can be further diferentiated into its diferent techniques: (a) implants or neuroprosthetics, including computer (bionic) interfaces, (b) intracranial insertion or implantation of
cells to repair tissues, or cells that administer certain bioactive compounds to certain areas
and (c) intracranial gene transfer techniques for heightening or diminishing the action of
healing proteins.
While all of these techniques raise important issues to sport philosophy and ethics, given
the limited scope/length of this article, in the following section, we will focus exclusively on
electromagnetic techniques on the brain.
5. Brain stimulation techniques
In spite of the initial scepticism with which brain stimulation techniques were initially met,
they have gained rather widespread acceptance in the ield of sports (Goodall 2012, 7), and
recent advances in neuroscience suggest that the abilities and capacities which underpin
sport performance can be enhanced thanks to the use of technology that modiies brain
activity. These factors may include motor learning, improved muscle strength, reduction in
fatigue or even changes in mental state or concentration. As Davis puts it:
modulating the activity of the brain during training or during sport will lead to beneits comparable to those of using drugs. The devices needed to generate these efects are already available,
and are currently in use in laboratories or clinics to produce short- or long-term changes in
performance. (Davis 2013, 649)
Another possible advantage to using brain stimulation is that the risks associated are relatively low as long as the technique is not abused. However, it is true that the information
needed to set limits on brain stimulation or to know the long-term efects that it may have
on athletes is in fact currently lacking.
The main brain stimulation techniques that are currently available are as follows:
(1) Transcranial magnetic stimulation (TMS) provokes the depolarization or hyperpolarization of neurons in the brain. TMS utilizes electromagnetic induction to induce
weak electric currents in a rapidly changing magnetic ield. Thus, certain activity is
generated in speciic or general parts of the brain, allowing brain functioning as
well as the interconnections established within it to be studied. These efects take
place in the stimulation phase for several dozen minutes and make the long-term
reorganization of brain activity possible if stimulation is applied at regular intervals
(Davis 2013, 649–650).
(2) Transcranial current brain stimulation (TCS) is a technique within which two variants
can be distinguished; however, here we will focus on transcranial direct current
brain stimulation (tDCS), which is characterized by a neural stimulation method
that utilizes a constant low current, directly applied via small electrodes to the area
of interest in the brain. The magnetic ield’s magnitude and polarity on the brain’s
SPORT, ETHICS AND PHILOSOPHY
315
surface close to the electrodes determines its efect: the cells in the anode area
increase in excitability through this process which involves modulating the resting
cellular membrane potential. Initially developed as a therapy for patients with brain
injuries, it has been shown to increase cognitive abilities in diferent ways depending
on which part of the brain is stimulated (Kanai et al. 2008, 1839).
According to Davis, the most notable diference between the two techniques is that the
former focuses on connected areas of the brain while the latter’s efects are spread across
the whole brain. Nevertheless, TCS ofers the advantage of being more afordable and more
portable. In fact, wireless TCS stimulators are already commercially available and there are
websites that give instructions for home-made varieties of this device.
For this reason, Davis argues that brain stimulation will become the key technology in
the future of sport and of sport medicine. There are two efects, according to this author,
that neurodoping will have on sport performance. The irst has to do with temporary performance. For a 20- to 60-min period following treatment, there was improved response
time and time-to-fatigue as well as suppression of tremor. After a period of time, the efects
declined but the usefulness this technique may have on athletic competition is irrefutable;
take, for example, the usefulness of their efects on tests of speed or jumping.
The second use of this neuroenhancement is in the acquisition of skills:
Skills learned in the context of anodal tDCS are acquired more rapidly, and reproduced more
accurately, than those learned without. Sports performance at the highest levels require[s] good
technique and good timing. These are skills learned during training, so enhancing the eiciency
of learning during the training phase will be of greater beneit at competition time. I suggest
that an athlete could use these techniques to make training more eicient and thereby gain an
advantage. (Davis 2013, 652)
It is not diicult to predict, therefore, that neuroscience’s application to training and enhancement in sport is only just beginning given that this powerful instrument is already in the
hands of coaches and training staf. Both kinds of brain stimulation can have a great efect,
for example, on archery by reducing tremor. They can also greatly impact tennis since the
possibility of success is closely related to repeatedly winning the serve.29 These are all trainable skills that can also be improved using these techniques. In any case, due to the great
diversity of athletic competition, the acceptance and usefulness of these brain stimulation
techniques may also be quite diverse; thus, any decision that is taken with regard to them
ought to take the speciic type of sport into account.
Nonetheless, transcranial stimulators are not exempt from problems or drawbacks. In the
following, some of the most evident ones will be examined.
6. Some criticisms of cognitive enhancement and theories of sport
The irst critical observation that must be made is that the efectiveness of these techniques
has not been tested under real competitive sport conditions or for speciic actions. In addition, as Davis points out, the tests have not been carried out on athletes but rather on normal
people, that is, non-athletes. As a result, Davis is sceptical about applying them to elite sports.
A second objection would be that with neuroenhancement the athlete would not need
to strive to make an efort or a sacriice to obtain results. The acquisition of physical power,
or other relevant skills for the sport would make the physical sacriice of the sportsman
irrelevant to obtaining the sport victory. But the impact of neurodoping in sport practice
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A. CARRIO SAMPEDRO AND J. L. PÉREZ TRIVIÑO
will likely not afect equality to such an extent. Neurodoping, at least in its current state,
does not ofer such miraculous efects that the athlete will obtain stratospheric results. The
athlete still needs to train and make sacriices to ensure top performance. In the end, neurodoping simply ofers a small diference in the results; if an athlete were to rely on the
miraculous efects of a pill or an electromagnetic session and stop training, it is highly unlikely
that he would be in the elite of his ield.
Another type of objection stems from dangers of potential generalized use, as well uncontrolled use by fans who are also athletes. The efects of doping in the gyms and athletic
facilities of sport aicionados are well known, making it highly likely that the use of cognitive
enhancers and cranial stimulators may also become widespread. Clearly this could bring
about pressing public health concerns resulting from irreversible harm to the brain that
could be caused by improper use.
A more general objection refers to cognitive enhancement. Certainly, any attempt to
intervene in the brain can raise hotly debated issues such as authenticity and practical relevance when it comes time to judge the actions of an individual. There are others, such as
McNamee and Loland, who believe that the imposition of paternalistic measures is in fact
justiied in that they keep sport from becoming the ield for experiments in which athletes
are used as human guinea pigs.
The irst objection is that a possible side efect of this kind of enhancements is the creation
of inauthentic personalities. The second objection argues that enhancers would change our
mind in such a way that it will be diicult for us to attribute moral accountability. There are
two possible answers to both criticisms. Firstly, it is unclear why the enhanced self is evaluated
as inauthentic, especially if the enhancement is ongoing rather than momentary. The sport
person who has inferior memory skills could negate these traits as the inauthentic by-product
of a biological weakness. The authentic person is the one who ights against their imposed
weak nature.30
Regarding the second objection, Kahane (2011) ofers an interesting defence of enhancers
as authentically coherent insofar as one tries to conform to one’s own desires, preferences
or values.31 For these points of view, these techniques represent no more than advances
over traditionally used techniques in education.
Such discussion warns of the possible consequences of enhancement for sporting purposes. Under the current anti-doping policy, athletes have the capacity to make informed
choices about the use of enhancers in terms of their short- and long-term impacts: the
possible enhancement (or not) of sport performance relative to a potentially reduced (or
higher) level of welfare in future life.
Finally, what remains to be made known is the position taken by the World Anti-Doping
Agency. Whether these substances should be included on the agency’s famous list of prohibited substances is not a simple issue. Certainly, as we have just seen, the efects of these
techniques on athlete performance are as of yet unknown; thus it would be risky to venture
an opinion on that matter. But given their characteristics, these stimulation techniques still
may receive identical treatment to hyperbaric or cryogenic chambers, whose efects are
similar to those included on the WADA list although these treatments are not included in it.
In any case, transcranial techniques would avoid the objections to technological unfair play
given that their afordability would increase athletes’ equal access opportunities.
It can be clearly seen that all of these matters are intertwined. It is also obvious that
whatever decision is inally adopted by WADA regarding the use of these techniques must
SPORT, ETHICS AND PHILOSOPHY
317
be based on some criteria that lend robustness to the argument. That is, the criteria should
be morally based. Perhaps for that reason, it is advisable to inalize this article by turning to
what Loland deems acceptable uses of technology, unacceptable uses of technology and
uses that are of value to technology in sport.32
From our point of view, cognitive enhancement techniques open up an interesting ield
in terms of sport performance, an arena which demands close examination. In the irst place,
the lack of conclusive evidence regarding their eicacy under actual competitive conditions
leads us to recommend not taking hasty decisions regarding their use. That is to say, they
may or may not end up being of value to sport, but in order to know this, it is necessary to
explore the possibilities.
Do not misunderstand: we are not defending a genuinely instrumentalist vision of sport.33
Our position is somewhere between what Loland calls ‘narrow and wide ideal-typical theories
of sport’.34 It is our opinion that sport should be open to the advances of scientiic and technological knowledge. Among other things, this is because with them new frontiers to sport
performance are opened up for exploration. And the Olympic motto, citius, altius, fortius,
that is, progression in performance, seems to be an intrinsic part of modern sport. That does
not mean that performance should be the true normative standard of sport. In reality, reliable
evaluation of athletic performance can only be aptly understood when other intrinsic values
of sport are also taken into account. In addition, it is not necessary to launch into a prolonged
discussion regarding what these values are and what interpretations should be made based
on them. Be what they may, they are not totally separate from sport performance, as claimed
by the wide theory of sport that Loland defends and we partially endorse. Rather the opposite
is true. Sport performance is a deining characteristic in highly competitive sport. It has been
this way since the beginning and continues to be so in current times. Whatever the appropriate uses may be for technology, in order to attain them, it goes without saying that there
is ample room for disagreement in this area. Whatever the disagreement, however broad it
may be, to be adequately understood, it must be founded on some common ground, which
in this case is none other than the link between the ends and the means. That is to say, the
compatibility thesis.
7. Conclusions
As was seen at the beginning of this article, elite athletes are characterized by their pushing
of the limits of physical and psychological performance. In fact, the exquisite combination
of both is what is said by some authors to characterize the athletic identity or sport personality. But it is equally true that competitive sport has always made use of technology to
constantly improve performance and in this way make good on the Olympic motto.
All of this leads to a recurring debate regarding the legitimacy of using enhancement
techniques and substances in sport. In all likelihood, this debate has gone hand in hand with
the evolution of sport itself. After all, the diference between the usage of natural substances
with enhancement efects in the past and the current techniques of present times lies in the
how and not the what. Consequently, it is unsurprising to catch glimpses of a near future in
which there is increasing interest in biotechnological enhancements since these enhancements are likely to ofer more potent and safer possibilities.
In current times, available techniques and substances not only allow improved physical
abilities. The scientiic evidence regarding the connection between the brain (cognitive and
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A. CARRIO SAMPEDRO AND J. L. PÉREZ TRIVIÑO
emotional factors) and the rest of the human body on sport performance requires that
attention be paid to the enhancement of psychological abilities, and with them athletic
performance, which is part of the scientiic research agenda.
The second part of the article focused on the importance that cognitive abilities have on
sport performance and in what way the extraordinary advances in knowledge about the
brains can afect not only better comprehension but also better manipulation of the athlete’s
brain in order to improve their athletic performance. For this reason, the growing importance
of neuroscience and its techniques as applied to the world of sport can be easily
understood.
To get a general overview of these neuroscience techniques, we have analyzed the impact
of two cognitive enhancers (modainil and methylphenidate) and of transcranial stimulators
on sport performance. As we have seen, transcranial stimulators allow neurons to be excited,
directly inluencing sport performance and thus improving time to fatigue or the ability of
athletes to acquire new skills.
Next, we turned to the objections to using these sport performance enhancing techniques
and their eventual inclusion on WADA’s prohibited substance list. Furthermore, we echoed
the potential danger that the widespread usage of these stimulators would have on athletes,
given the fact that they are economically accessible. All of this does nothing but highlight
the fact that this is an interesting and necessary debate that must be confronted by sport
theory.
To conclude this article, we have highlighted some of the normative problems spawned
by the use of these techniques in sport. We pointed out that given the lack of conclusive
evidence for their eicacy in actual competitive situations, it would not be prudent to adopt
deinitive decisions with regard to them. We also maintained that, as occurs with any other
brain intervention, they must be governed by meticulous respect for the principle of precaution in order to maintain the absence of undesirable harm to the primary organ of the
human being. Lastly, we attempted to balance the arguments in favour of the advantages
provided by easy access with those that warn against the possible risks to public health
generated by inappropriate usage of the same.
In any case, all of these objections can explain and justify the adoption of restrictive
measures in sport, but we must not forget that all of them refer to the technique, and as
such, this objection will be surpassed by advances in the area. What will not vary is the
normative question regarding compatibility with values of sport. Our position in this regard
is moderately positive, or if you will, close to what Loland calls the ‘narrow theory’. That is,
we consider the compatibility thesis to be more hopeful because it allows high levels of
performance to be attained without betraying the internal values of sport.
All said, given that this is a recurring debate in sport theory which has enormous practical
relevance for athletes, it would be itting to pay attention to scientiic evidence and not
hastily or contradictorily conclude, as the WADA list seems to do, that it is justiied to ban
some of these techniques while permitting others, such as hyperbaric chambers or cryogenics, which have identical efects.
Notes
1.
2.
3.
McNamee (2008, 37).
Druzheyskaya et al. (2008).
http://whqlibdoc.who.int/publications/2010/9789241599979_eng.pdf.
SPORT, ETHICS AND PHILOSOPHY
4.
5.
6.
7.
8.
9.
10.
11.
12.
13.
14.
15.
16.
17.
18.
19.
20.
21.
22.
23.
319
Druzheyskaya et al. (2008).
Luthar et al. (2000, 435).
Morgan et al. (2013, 552).
Carrio (2015) Clearly, it is diicult to understand that individuals whose physical and
psychological performance exceeds habitual norms of performance, but who are subject to
accidents or illnesses just as any other person, may be extremely restricted in their ability to
use of certain therapeutic substances. This restriction may virtually nullify the extraordinary
characteristics of the individual’s physiology.
Gafney (2015).
Brewer et al. (1993)
Danish (1983)
‘Sport technology, then, are human-made means to reach human interests and goals in or
related to sport’ Loland (2009, 153).
Ibid.
Particularly what has been called ‘technology administered by experts’; Loland (2009, 155)
Sceptics can always object that there is an ongoing debate in neuroscience regarding the
mind-body duality. But it should be noted that the techniques of interest here, such as neuron
stimulation, operate on the body part in this debate, i.e. the brain. As a result, the debate is
becoming inconsequential in this regard.
Although we cannot detain ourselves on this point, it is worth diferentiating between brain
interventions that afect cognitive abilities from those that inluence moods or emotional states.
Loland (2009, 153)
Ibid.
The case of the Australian skier, gold medallist in the winter Salt Lake Olympic Games,
perfectly exempliies the role of luck in competition. Certainly Bradbury qualiied thanks to
the disqualiication of one of the favourites, Canadian Marc Gagnon. In the last turn of inals, the
irst four who all led Bradbury by more than 15 metres all fell, allowing Bradbury to be named
the winner. It was the irst Olympic metal won by a competitor from the southern hemisphere.
In some way, the distinction between diferent types of athletic competition is interesting
because doping does not uniformly afect all sports. This is what S. Loland calls the ‘thesis of
vulnerability’, which suggests that the essence of certain sports would be more greatly afected
by doping than others. As we will see further on, something similar occurs with emotional
doping.
Platonic and Cartesian dualism have been the dominant conceptions of the mind and body
in sport, establishing the comparison between body and machine. Recently there has been
noteworthy attention paid to the relation between both of these factors in sport performance.
See Kretchmar (2013) and Illundáin (2013).
Some of these practices are imagery training and cognitive restructuring.
Imagery training is the ‘symbolic repetition of a physical activity in the absence of any large
muscle movement.’ The athlete methodically, consciously, and repeatedly imagines a sport
action without actually physically executing it at the same time. The objectives of imagery
training are: (a) facilitating motor skills to enhance practical execution; (b) controlling attention
and concentration; and (c) accelerating recovery from injury.
Cognitive restructuring is a ‘set of techniques which intend to directly change the athletes’
thoughts to better face the demands of competition’. The aim of this is to: (a) improve athletes’
self-conidence; (b) strengthen motor activities; and (c) control attention and concentration.
Vid. Sánchez and Lejeune (1999), 23.
To give an approximation of the term, neuroscience consists of the study of brain mechanisms
which form the basis for an individual’s essential cognitive functions: the ability to remember,
argue, decide, etc. These functions can be observed through powerful instruments such as
functional magnetic resolution imaging (fMRI), positron emission tomography (PET) and
electroencephalography, which monitors the electrodynamic low of neurons.
At the outset, it was used in medicine to treat attention deicit and hyperactivity disorder.
Nevertheless, there is current widespread perception that it can have similar efects on people
who do not sufer from hyperactivity or attention deicit. The consequence has been its spread
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A. CARRIO SAMPEDRO AND J. L. PÉREZ TRIVIÑO
24.
25.
26.
27.
28.
29.
30.
31.
32.
33.
34.
to university and secondary school students who have discovered that stimulants improve
concentration. In this way they are being used not only for improvement in studies but also to
improve exam performance. They have been shown to be used among university professors
and researchers. Methylphenidate and modainil are currently on the list of banned substances.
Presidential resolution of 20 December 2013 Supreme Council for Sport, by which substances
and methods are prohibited in sport. Dubljević and Ryan, 2015 ‘Cognitive enhancement with
methylphenidate and modainil: conceptual advances and societal implications’, Neuroscience
and Neuroeconomics: 4.
According to data published by NDCHealth, Adderall XR is on the list of the 200 mostsold medications in the United States. Speciically, it is number 69 and generated 730
million dollars in revenue for the last year. It is immediately followed by another stimulant
Concerta (extended release methylphenidate) with sales of 270 million. Provigil (modainil)
generated 420 million in income, just below another drug that intuitively seems much more
popular than the stimulants: luoxetine (an antidepressant popularized in the 1990s under
the trade name Prozac; available today generically) with sales of 450 million. Wikipedia:
http://es.wikipedi-a.org/wiki/Estimulante. Last accessed 30/12/2013.
Reardon and Creado 2014, 98.
Peterson (2008).
According to the standard characterization, stimulants are drugs which increase levels of motor
and cognitive activity, reinforce wakefulness, and the state of alertness and attention. The
US Anti-Doping Agency deines a stimulant as ‘An agent, especially a chemical agent such as
cafeine, that temporarily arouses or accelerates physiological or organic activity’.
However, its inclusion on the list of prohibited substances is questionable to the extent that
its enhancement efect is within ‘normal’ (not transhuman) limits and the risks it presents to
health are not signiicant. It should be then asked whether its inclusion on the list of banned
substances is justiied.
Adjusting how the ball is struck and addressing it to a speciic area of the tennis court.
This argument is a personal version of Foddy argument against the critics to mood enhancement
based on inauthenticity:
It seems highly plausible that an athlete would repudiate his tremor, or his nausea, or
his perspiration in this manner. To tell him that his tremulous, sweaty, and nauseated
self is his true self seems no more reasonable than telling dieters that it would be more
authentic for them to remain overweight.
‘If authenticity involves being true to oneself, or to one’s values, then there is a sense in which
… when one uses mood enhancers, one is at most conforming to one’s values.’ (Kahane, 170).
Loland (2009, 156).
Russell (2005).
According to Loland there are three Ideal-typical theories of sport that express alternative
normative interpretations of sport, namely, the ‘relativist’, the ‘narrow’ and the ‘wide’ theories.
The narrow one embraces some technological optimism. Even if it could be, as Loland says,
‘politically incorrect’, the alternative understanding of the values of sport that it supports is
‘clear and consistent’ as Loland (2009, 156–157) himself recognizes. On the other hand, the
wide theory is not blind to developments and innovations in sports. Even if it is critical to
performance-enhancing expert- ad-ministrated technology, ‘there are varying opinions among
wide theorists about the justiication of harmless variants such hypoxic tents’ (Loland 2009, 158).
Acknowledgement
We thank the anonymous reviewers from Sport, Ethics and Philosophy for their careful reading of the
article that help us to improve it.
SPORT, ETHICS AND PHILOSOPHY
321
Disclosure statement
No potential conlict of interest was reported by the authors.
ORCID
Alberto Carrio Sampedro
http://orcid.org/0000-0002-8482-0190
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