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Part XIV
Conclusions
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Chapter 78
Research on Giftedness in the 21st Century
Albert Ziegler
Abstract First, the question of what giftedness re-
search is is briefly dealt with. Afterward, the issue of
whether present rationalizations for the existence of
this field of research can remain justified is discussed.
Particular attention is given to justifications concerning
the individual needs of the gifted and the needs of soci-
ety regarding specific contributions by gifted persons.
Following this the probability that giftedness research
will be displaced by one or both of its major rivals
is examined to determine whether possible synergies
with expertise research and innovation research can be
expected in the future. Although this question can be
positively answered from the perspective of giftedness
research, the accuracy of the answer is decisively de-
pendent on the degree to which the field is able to mas-
ter the major challenges of the 21st century. This point
is illustrated through the allegory of the Tower of Cre-
ativity. In conclusion a three-point summation of the
contribution is drawn up.
Keywords Tower of Creativity ·Giftedness research ·
Expertise research ·Innovation research ·Creativity
Introduction
The converse to scientific examinations of past events
is futurology. This branch of science investigates
possible, probable, and desirable developments in the
future. An investigative topic, prevalent in the field,
addresses future systems of raising and educating chil-
dren and the theoretical models associated with them
A. Ziegler (B)
University of Ulm, Ulm, Baden-W¨
urttemberg, Germany
(Kreibich, 2006). This chapter will therefore form
the counterpart to the contribution made by Stoeger
(in this book), which deals with the history of gifted
education. It also differs from the chapter composed
by Shaughnessy and Persson (in this volume), which
addresses trends in gifted education. Here, the main
concern is the future of giftedness research in the 21st
century.
Futurology is based on scientific methods (Fowles,
1978). The results they generate, and extrapolations on
these results, are reflections of existing trends as well
as the personal opinions of the researchers themselves.
In this chapter I will primarily draw on the comprehen-
sive prior works of the scientists contributing to this
book. Then, of course, the prognoses presented in this
chapter are also a reflection of my personal subjective
assessments of how giftedness research will evolve in
the 21st century.
What Is Giftedness Research?
If one would like to throw light on the future of
giftedness research, one must first clarify the question
of what exactly should be illuminated. In other words,
What is giftedness research? This poses an indeed
serious problem: There is no generally accepted
definition of giftedness research.1It is clear that it
lies on the intersection of various disciplines, among
them are educational science, psychology, sociology,
1In the following I will use the terms “gifted,” “gift,” and “gift-
edness” exclusively. The concept associated with these terms is
often also referred to with synonymously applied terms such as
“talents” or “abilities.”
L.V. Shavinina (ed.), International Handbook on Giftedness,1509
DOI 10.1007/978-1-4020-6162-2 78, c
Springer Science+Business Media B.V. 2009
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1510 A. Ziegler
anthropology, biology, and history. Its individual
character results from the object of its research,
which brings up even more problems. The ambiguity
concerning what is meant by giftedness research
is easily matched by that of its namesake gift (for
interesting and stimulating chapters on the nature
of giftedness, see Dai; Davidson; Ericsson; Gagn´
e;
Hertzog; Shavinina; Sayler; Silverman & Miller).
These problems are mirrored in the identification
and assessment of the gifted. Despite tremendous
progress over the last decades and promising new
approaches (see the excellent chapters on assessment
and identification of giftedness by Silverman; Lohman;
Brody; Shavinina) we are still far away from a con-
sensus on how to best identify the gifted. One reason
for this is that gifts are not to be considered among
the so-called natural concepts like the sun, trees, or
oxygen. Therefore, as an investigative object, it is not
simply given but is rather constructed by the researcher
him/herself. Naturally, considerable deviations are
found between one researcher and another. For ex-
ample, there is a huge dissent concerning the rather
elementary problem of determining how many gifted
persons are among us. According to Terman (1925)
this would be the top 1% of the population; according
to Robinson (2005) the top 1–3% percent; according
to Brody and Stanley (2005) the top 3%; according
to Freeman (2005) the top 5–10%; according to
Gagn´
e (2005) the top 10%; according to Gordon
and Bridglall (2005) the top 15%; and according to
Renzulli (2005) the top 15–20%. In comparing the
rather conservative percentage rates given by Terman
and Robinson with the more generous percentage
rates quoted by Gordon and Bridglall or Renzulli, one
finds that the latter estimates the proportion of gifted
persons to be more than 1,000% (sic!) greater than the
former. Since researchers do not formulate definitions
randomly, but rather with intent, one can assume that
these researchers are not referring to the same thing
when they are speaking of gifted persons or gifts.
As long as the object being examined by giftedness
research is not clear, and considerable deviations con-
tinue to exist, a standard definition along the lines of
“Giftedness research is a scientific discipline which de-
scribes and explains the organization, structure, con-
ditions for establishment, and influences of gifts” is
insufficient. This may, at first, come across as rather
sparse, but there is a way out. Giftedness is a rela-
tional concept, in other words gifted persons are gifted
at some specific thing (e.g., music, physics, academics,
chess). This allows us to identify the object, as is simi-
larly the case with objects in several other fields of sci-
ence (e.g., gravitation, energy), by means of its effects.2
Fortunately, there is a wide consensus among gifted-
ness researchers concerning the relational meaning of
gifts; that gifts are involved, in a non-trivial manner, in
the establishment of achievement excellence and inno-
vations. Non-trivial means that they can be considered
as causes. The definition of the investigative object of
giftedness research could therefore read
Giftedness research is a scientific discipline addressing
the organization, structure, conditions for the establish-
ment, and influences of the causes of achievement excel-
lence and innovations.
Applied giftedness research would accordingly be
the scientific discipline that addresses the application
of the results of giftedness research to encourage
achievement excellence and innovations.
Justification for Giftedness Research:
Individual and Social Perspectives
Almost all of the researchers contributing to this book
have explicitly or implicitly stated that giftedness re-
search will remain meaningful and significant in the
future. Of course, part of this optimism is owing to
the fact that one of its main objectives, gifted educa-
tion, is ubiquitously perceived as one of the most im-
portant challenges of the 21st century (see the chap-
ters on giftedness research and gifted education around
the world by de Alencar & Arancibia; Maree, Bester,
& van der Westhuizen; Matthews; M¨
onks & Chandler;
Noble & Childers; Subhi; Tsai et al.; Warwick), a point
which has brought some nations to make or to consider
deliberate societal adjustments to meet this challenge
(see, as examples, the chapters by Van Tassel-Baska on
gifted education policy; by Karnes & Stephens on legal
issues; and the chapter by Carroll, Crowe, Earle, Or-
land, Moon, Ross, & Subotnik on the development of
national strategic agendas). As giftedness research has,
in the past, made a tremendous contribution to the edu-
cation of the gifted (implementations in regular educa-
tional settings, constant improvement, evaluation, etc.),
2It is important to note that the effects allow for the identifica-
tion of gifts, but do not define them. They only point reliably to
the object of research.
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78 Research on Giftedness in the 21st Century 1511
it seems to be the natural ally of gifted education (see
the stimulating chapters on recent advances in gifted
education and how they are built on research findings
by Baldus, Assouline, Croft, & Colangelo; Colangelo
& Assouline; Cramond; Davis; Eyre; Ferrari; Heng &
Tam; Pyryt; Renzulli & Reis; Sriraman & Dahl; Van
Tassel-Baska; Wallace & Maker; and the two chapters
by Shavinina). However, many questions have yet to be
answered and many problems are not well understood
presently (see, for example, the chapters on individual
differences, personality, and gender by Friedman-Nimz
& Skyba; Piechowski, Jackson, & Frankfourth Moyle;
Reis & Sullivan; Se¸kowski, Sieka´
nska, & Klinkosz; see
also the chapters on metacognition by Shore, Irving, &
Redden; on gifted motivation by Gottfried & Gottfried;
on twice-exceptional gifted students by Lupart & Toy,
on the dropout problem by Matthews; and on suicidal
behavior of gifted students by Cross & Hyatt). How-
ever, the lack of research findings is, of course, a strong
argument for more, not for less, research.
A closer inspection of all the arguments in favor of
a flourishing future for giftedness research shows that
they can be broken down to two basic arguments. In
the first place, there is a strong emphasis on the right
each person has to reach his/her full potential. This
also applies to the gifted. To ensure and implement this
right, knowledge, i.e., research is needed (see, for ex-
ample, the introductory chapter by Shavinina as well as
the chapters by Gross; Friedman-Nimz & Skyba; Cross
& Hyatt; Van Tassel-Baska; Carroll, Crowe, Earle, Or-
land, Moon, Ross, & Subotnik; Karnes & Stephens). In
the second place, society has a well-justified, high de-
gree of interest in encouraging its cleverest and most
creative members in the best possible way. This is
shown plainly in all the chapters on domain-specific
and multiple giftedness in this book (see the chapters
by Shavinina on Nobel laureates; Phillipson & Calling-
ham on mathematics; Simonton on cinema; Schnur &
Marmor on reading and writing; Persson on music; van
Rossum on sport; Shavinina on entrepreneurial gifted-
ness; Heinzen & Picciano on information technology;
Porath on the gifted educator; Shavinina on managerial
talent; Root-Bernstein on polymaths; see also the chap-
ters by Bar-On & Maree on emotional and social gift-
edness; Rogers on leadership). Nations which have the
expertise to succeed in helping their talents to tap their
full potential in these domains insure not only prosper-
ity but also social, cultural, scientific as well as eco-
nomic progress (Heller & Ziegler, 2007).
Although the first argument should already suffice
that giftedness research will continue to play a signif-
icant role, one should avoid building hopes on illu-
sions. To put it bluntly, there is next to no doubt that
the amount of funds made available to giftedness re-
search during the 21st century will be decisively de-
pendent on how convincingly the second argument can
be defended by, and empirically confirmed through,
giftedness research. Findings, such as those by Simon-
ton (1988, 2004), that persons demonstrating achieve-
ment excellence proliferate innovations at a rate which
is widely overproportional, are helpful. However, the
fact that, over the course of about one century, gift-
edness research has not been able to identify one sin-
gle Nobel Prize winner or recipient of a Field Medal,
among the millions of children assessed, is harmful.
Even more damaging is that future Nobel Prize winners
have been excluded from samples of gifted children on
the basis of insufficient talent, as was the case for No-
bel Prize winners Shockley and Alvarez who were both
rejected by the Terman study (Terman & Oden, 1959).
I do not want to be misunderstood here. By no means
am I asserting that giftedness research is not capable of
justifying its own existence. What I would much rather
like to emphasize is that it has not yet been able to
achieve this. There is still, worldwide, no gifted pro-
gram or gifted school whose former students are con-
sistently admitted to National Academies of Sciences
or regularly compete for Nobel Prizes, Field Medals,
or prominent literature prizes, etc. Instead, giftedness
research has been characterized by two unpleasant de-
velopments.
First, at the current time, giftedness research
is hardly acknowledged by its parent disciplines.
This is no exaggeration when one considers that the
articles published in the three empirical journals on
giftedness with the highest citation impact (Gifted
Child Quarterly, High Ability Studies, Journal for the
Education of the Gifted) are hardly ever found in the
reference lists in the correspondent journals for the
fields of educational and developmental psychology,
educational science, sociology, etc. Furthermore, it is
disconcerting that the topic of giftedness barely plays
a role in the leading journals of these parent disci-
plines. Articles on talent are sought in vain in these
publications. Also alarming is that giftedness research
has, in the last two decades, not been able to supply
its parent disciplines with new investigative questions.
Giftedness research is largely receptive, even to the
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1512 A. Ziegler
point of being pushed into the sidelines. However,
despite this gloomy appraisal of the current situation,
I am personally convinced that giftedness research
is actually predestined to become the drosophila of
its parent disciplines in the 21st century: Its main
topics are successful learning processes and successful
development processes, which are a precondition for
excellence and innovation. The results of giftedness
research are, therefore, capable of offering excellent
models of effective learning, efficient child rearing,
and effective socialization for the design of optimally
stimulating learning environments, etc. In my view it
is mandatory for giftedness research to internalize this
self-perception as a scientific pacesetter, instead of
almost exclusively applying concepts derived from its
parent disciplines.
The second, and only at first sight more unpleasant
development, is that giftedness research is faced with
two powerful scientific rivals in the form of expertise
research and innovation research. Of course, gifted-
ness research since Terman (1925) has successfully ab-
sorbed a large number of theoretical advances. David-
son (in this volume) mentions, for example, the change
from models based purely on intelligence to models of
multiple talents. Here one can further differentiate be-
tween purely additive models (Renzulli, 1986; Stern-
berg, 2003) and stochastic models (e.g., Gagn´
e, 2004).
As this is subjected to more comprehensive review in
other chapters of this book (see the chapters by Dai,
Phillipson, Stoeger) I will not elaborate further. How-
ever, since expertise research and innovation research
will continue to have a strong and enduring influence
on further theoretical development in giftedness re-
search, I will go into greater detail here.
Giftedness Research and Its Most
Important Rivals
Giftedness Research and Expertise
Research
In the 1970s giftedness research obtained forceful
impulses from the expertise approach to giftedness
(Gruber & Ziegler, 1996; Ericsson, Nandagopal, &
Roring, 2005). In contrast to giftedness research,
which at the time focused primarily on the char-
acteristics and learning potentials of the gifted and
talented as prerequisites for exceptional performance,
expertise research generated its objectives from a fully
disparate direction. Experts, according to the widely
influential definition developed by Posner (1988),
are persons who exhibit durable, and not only sin-
gular, extraordinary achievements (see also Ericsson,
Charness, Feltovich, & Hoffman, 2006). Naturally,
this perspective was not alien to giftedness research.
For example, biographical analyses of the lives of
eminent persons are among their core competencies
(e.g., Gruber, 1981, 1998; Shavinina, 2004; Simon-
ton, 2004). However, what was new here was, first, the
radical rejection of a purely psychometric approach
and a strong accentuation on the cognitive–scientific
elements associated with it. In fact, it was now clear
that giftedness research had been overly concentrated
on traits for a long period of time (with certain
exceptions such as Kholodnaya (1993), Shavinina
and Kholodnaya (1996), Shore and Kanevsky (1993),
and Sternberg (1986), just to mention a few). For
example, Kholodnaya (1993) criticized the person-
ality trait approach in the psychology of giftedness
and insisted on the change in a research paradigm.
Vekker (1981) demonstrated that study of any psy-
chological phenomena is not productive if it based
on the study of its own traits. Crises in psychology
testify to it. Moreover, Shavinina (1995) specifically
criticized the trait approach and demonstrated that
traits of the gifted are results of their unique cog-
nitive experience. Without doubt, one of the major
weaknesses in the field was its neglect of cogni-
tive psychology and, above all, aspects of learning
(Sternberg, 1985; Ziegler, 2005). Again, exceptions
exist. For example, Kholodnaya (1993), Shavinina
and Kholodnaya (1996), Shore and Kanevsky (1993),
and Sternberg (1986), just to mention a few, studied
cognitive processes in the gifted. Also new was the
definition of the research objective through per-
formance and no longer through persons and their
traits.
Giftedness research accepted these stimulations
gratefully – despite isolated pockets of skepticism –
and developed them further. Elegant conceptions of
giftedness were proposed which united the benefits of
both approaches. For example, the Munich Model of
Giftedness developed by Heller (see Heller, Perleth,
& Lim, 2005) and in particular the very influential
DMGT by Gagn´
e (2004; see the chapter in this
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78 Research on Giftedness in the 21st Century 1513
book). The explanatory potential of these models
widely surpasses that of the giftedness conceptions
they displaced. Individually, these attempts at reform
were so wide reaching that even the most innate
concepts of giftedness research were reinterpreted to
better serve expertise research. Noteworthy among
them was Sternberg’s renowned hypothesis, in which
talents were redefined in terms of developing expertise
(Sternberg, 1999). As a giftedness researcher, one
may debate whether or not in such hypotheses the
relationship between giftedness and expertise research
has been able to find an optimal point of balance.
However, the innovative capacity of giftedness re-
search and its potential to solidify a fruitful synthesis
can, in retrospect, hardly be subjected to serious doubt.
For example, not only were learning aspects integrated
more deeply but also a developmental perspective sur-
faced, which led to a new sense of dynamism from the
perspective of giftedness research (see Gagn´
e, 2005;
M¨
onks, 1992; M¨
onks & Mason, 2000; Subotnik, 2003;
see also the chapters by Gross; Moltzen; Perleth &
Wilde).
Giftedness Research and Innovation
Research
For several years a new field of research has been de-
veloping which will be able to stimulate the field of
giftedness research to the same new heights that ex-
pertise research has been able to encourage: innovation
research. As a telling sign of the thriving nature of this
new branch of research, Shavinina published the In-
ternational Handbook on Innovation in 2003, wherein
several of the central figures in this investigative field
have been gathered (Shavinina, 2003).
A giftedness researcher who closely examines the
concepts and issues surrounding innovation research
cannot escape the impression that giftedness research
is standing at the threshold of another change in its
basic paradigm. We have previously mentioned that
giftedness research has long defined its research object
through persons and their characteristics, and expertise
research has focused primarily on achievements.
These achievements, however, have always been
accomplished by persons. Innovation research has
completely filtered persons out of the definition of
their research object. They pursue their investigations
by starting off with innovative products. As a conse-
quence, they are treading on ground very familiar to
the field of giftedness research. Researchers here have
investigated the innovations produced by exceptional
personalities such as Mozart or Edison, as well as
the conditions for the generation of inventions, mas-
terpieces, creative achievements (e.g., Gruber, 1998;
Shavinina, 2004). However, a brief glance through the
index of the handbook published by Shavinina would
be rather jolting for a giftedness researcher. Excluding
the 20-page chapter by giftedness researcher Renzulli,
which Shavinina refers to in the introduction as
“the chapter where an author was given an explicit
assignment,” the central terms in giftedness research
are blatantly absent from the subject index of the
volume! In the remaining 1092 pages of the handbook
the term “Giftedness” has only one single reference,
and the terms “Talent,” “Ability,” and “Intelligence”
are not referred to once. How can it be that the terms
central to the basic constructs of giftedness research
are virtually ignored in innovation research, although
the objects of these two branches of research should
be widely overlapping? In my opinion, this is due to
three tendencies in innovation research, all of which
are clearly portrayed in the handbook. I hope that the
first two will prove to inspire similar movements in
giftedness research; as to the third, I am personally
concerned that it is bound to provide detrimental
influences for giftedness research in the 21st century.
(1) In innovation research, innovations are clearly
understood as cooperative efforts among persons, in
other words as the result of a team. And is it not true
that current major discoveries are primarily being made
by effective research groups? The extension of this per-
spective away from the individual and to the group is
particularly well illustrated by Cooper’s (2003) work
on product innovations. According to his assessment
of the field’s research objective, the introduction of
a new product results from cooperative efforts span-
ning a number of different functional areas: Market re-
search, research and design, marketing and sales, etc.
Although it is quite apparent that the specific talents of
an individual employee can be established as a trace
element of the entire success of an innovative product,
this contribution cannot expect to be particularly potent
in consideration of the number of persons involved in
the entire process. Furthermore, one must also keep in
mind that the end users, or consumers, always have a
say in the ultimate establishment of an innovation. This
in itself certainly does not justify a general neglect of
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1514 A. Ziegler
the central constructs of giftedness research, however
incomprehensible this may be from the perspective of
innovation research.
(2) The accent which is placed on interdisciplinary
orientation in innovation research is remarkable. This
can be detected on three levels. First, the profes-
sional background of these researchers is varied and
stretches from economics over historical research and
psychology to neurophysiology. Of course, giftedness
research has caught up in recent years and these
sciences are also well represented in giftedness re-
search (see for example the exciting chapters about the
neuropsychology of giftedness by Geake; Kalbfleisch;
Vandervert & Liu). Nevertheless, the interdisciplinary
nature of innovation research is not only reflected by
the opportunity for a meeting of the minds among
researchers stemming from the most disparate of areas.
It is also evident in the fact that in single studies, quite
deliberately, methods of different scientific disciplines
are ingeniously combined. This was particularly well
expressed in the work done by Weisberg (2003). He
employed historical analyses to isolate the indicators
of the psychological thought processes upon which
innovations are based. Such approaches are rather rare
in giftedness research. Indeed, most talent models
do not include the analysis of cognitive processes
(with some exceptions: Gross, this volume; Kholod-
naya (1993), Shavinina and Kholodnaya (1996), Shore
and Kanevsky (1993), and Sternberg (1986)), so it
is no surprise that they were not used as explanatory
constructs. Actually, it must be nothing less than
shocking for giftedness researchers to hear that Weis-
berg was able to summarize the results of his analyses
with the simple formula “common thought processes,
uncommon products.” Heinzen and Vail (2003) arrive
at a completely analogous result when they sum-
marize that “Ordinary personalities in extraordinary
circumstances will innovate.” Such assessments are a
stern condemnation of giftedness research, resulting,
not in the least, from a lack of familiarity with their
potential explanatory contributions. The third level
of interdisciplinarity is a consequence of the domain
being investigated, which habitually crosses traditional
borders among and between fields of study. In our
modern society, innovations occur primarily in acutely
branched and highly specialized domains situated
on the interface of several scientific disciplines. It
is next to impossible to define them in terms of
common scholastic subjects or classify them into
the achievement areas given preference in giftedness
research. What particular talent does a person have at
their disposal when he/she can innovatively improve
chat dungeons? By the same token, due to the stormy
modernization of newer and newer domains with
blurred borders, it is becoming increasingly difficult
to recognize the physical contours of special gifts at
an early stage, those which will lead to achievement
excellence in these new domains in the future.
(3) The third noteworthy trend in innovation re-
search results from the definition of their research ob-
jective. While giftedness research deals chiefly with the
generation of new ideas, products, masterpieces, etc.,
the authors of the handbook are, in addition, also ex-
plicitly concerned with the acceptance and realization
of such innovations. Nevertheless, acceptance and re-
alization take place under strong competitive pressure.
This is dramatically formulated in a quote taken from
the final chapter by Vandervert (2003) who summarizes
“The vision and energy of innovation is all about kick-
ing some competitor’s butt!” Aside from the fact that
this orientation is, in my opinion, rather callous, I con-
sider it to be a scientific misstep to include a random
component in a definition of the investigative object of
a branch of research. And chance market niches, un-
predictable fashion currents, or quickly varying taste
predilections are definitively random. At this point I am
involuntarily reminded of the words of an unknown au-
thor: “Innovation is when the market shouts ‘Hurrah!”’
In my opinion, giftedness research would be poorly ad-
vised to assume similar orientations. Essential fields
of research such as underachievement would fall com-
pletely to the wayside – for this reason we define the
objects of our research differently.
The three trends depicted here will have, as already
pointed out, massive consequences on talent research
in the 21st century andmust lead to a paradigm change.
As the number of extraordinary achievements by teams
increases, the amount of explanatory power associated
with talent theories focusing on the individual will de-
crease. Therefore, the development of talent models
that also include groups will be a necessary conse-
quence. In addition, giftedness research will have to
increasingly seek out dialogues with social psychol-
ogists, organizational psychologists, and sociologists
and integrate their work with meta-theories such as
system theories. Giftedness research will, in my opin-
ion, increasingly have to take new domains into con-
sideration, those in which major innovations are to be
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78 Research on Giftedness in the 21st Century 1515
expected – otherwise funding for research and pro-
motion will start to dry up in the foreseeable future.
Tightly structured academic subject boundaries and tal-
ent concepts based on scholastic success models will,
presumably, soon have to give way to much more flex-
ible concepts which are more domain specific and less
trait oriented. It is up to us, as giftedness researchers,
to improve the viability of our concepts and to transfer
them into the field of innovation research, a field that
will be under increasing demand in the future and one
which is still ignoring us today.
The Challenge of the 21st Century
It is a steadfast fact that everything changes, noth-
ing stays the same, and structures come to pass:
Mountains erode, buildings go to ruin, machines rust,
paintings turn yellow, and organisms die. Therefore,
many of our actions are directed toward stemming
entropy. We plant foliage on precipitous slopes to
keep avalanches from forming, mend the roofs of
buildings, coat machines with layers of protective
paint to keep them from rusting, restore paintings,
and visit doctors in the case of illness. Quite topical
in the media are discussions of assorted measures
under consideration to reduce the results of the climate
change. Possible sea level increases, for instance,
entail the danger that many coastal towns or even
entire countries, like the Netherlands, must engage
in various preventative measures to insure existing
structures.
Finding solutions, and the just as important opti-
mization of defensive processes that are directed pri-
marily toward preservation, is one side of the chal-
lenge we must be in a position to face. However, we
are also aware of processes by which the order is in-
creased. New, more complex life forms come into be-
ing with novel opportunities to engage their energies
for the preservation and further evolution of structures.
However, with these evolutions we also see how the
systems that are poorest at conforming are replaced by
systems that are more effective at resisting decay. It has
been long intuitive that systems have to keep develop-
ing if they do not want to collapse. Standstill is not
possible. Indeed, the 21st century is marked by rapidly
expanding globalization and worldwide competition,
which will only increase in intensity. Products, ideas,
and scientific theories have ever shorter half-lives, i.e.,
they become obsolete faster and faster. Fifty years ago
they were about 400% longer than they are today (for
details see Shavinina, 2003). The resulting gigantic
demand for innovation can, and should, become one
of the central catalysts of giftedness research for the
third millennium. However, in my opinion, the field
is poorly prepared to meet these challenges. Accord-
ing to current viewpoints, the key driving force behind
innovations is creative persons. Nevertheless, a brief
glance through one’s history book shows how percep-
tions which focus completely on the creativity of in-
dividuals are far too simplistic. If giftedness research
would like to make a substantial contribution to this,
our conceptions of giftedness must be revised in sev-
eral regards.
A Limited Perception of Creativity
It has long been accepted that there are limitations
on a purely individualized view of creativity and
giftedness (e.g., Csikszentmihalyi, 1996; Moenks &
Mason, 2000; see also the chapters on giftedness,
society, and economy by Ambrose, Reichenberg &
Landau; Shavinina; Simonton). This perspective does
not, for example, permit a realistic analysis of the
Golden Ages. How is it possible that, in the Florence
of the Medici’s, the work of unforgettable genii like
Leonardo da Vinci, Sandro Botticelli, Pietro Perugino,
Andrea del Verrocchio, Giorgio Vasari, Michelangelo,
and Raphael could be concentrated within a time span
of 50 years? In the German language area, within a
good 100 years, several of the greatest composers of
all time were born: Johann Sebastian Bach, Georg
Friedrich H¨
andel, Ludwig van Beethoven, Joseph
Haydn, Wolfgang Amadeus Mozart, Franz Schubert,
Robert Schumann. However, there are also contem-
porary parallels. For instance, no less than 11 pupils
and colleagues of the Nobel Prize recipient Ernest
Rutherford were also awarded Nobel Prizes. This
impressive figure is even more astounding when
one considers that over the course of the entire 20th
century, only five women received a Nobel Prize in
the natural science disciplines of physics, chemistry,
and medicine. Nevertheless, differences between boys
and girls, or men and women concerning creativity, as
described by creativity researchers with the aid of tests
and other standardized methods, have yet to surface.
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1516 A. Ziegler
In addition, Rutherford’s own teacher, Sir Joseph John
Thomson, was also bestowed with a Nobel Prize, as
was his son George Paget Thomson. A rather obvious
assumption would be that Sir Joseph John Thomson
was in possession of a great deal of the qualities
needed to encourage and sponsor scholars and that
Rutherford seems to have learned a great deal about
this from him.
A perspective based purely on individuals would
obviously be insufficient to explain what is depicted in
the previous examples. Rutherford was, with a proba-
bility bordering on certainty, not the best creativity and
giftedness diagnostician of all time and merely gath-
ered the best available talent around him. One must,
at the very least, also take into consideration cultural
and social contexts as well as material and (research)
equipment availability. A more effective treatment of
the topics of creativity and giftedness, therefore, calls
for a modification of our individual-based perspective.
It also necessitates consideration of another issue.
Suppose you visit a kindergarten for the gifted. You
observe a child asking one of the kindergarten teach-
ers: “Why is the Nile so long?” The answer amazes
you: “Because of the Niles length.” A minute later you
observe another child asking the same kindergarten
teacher: “Why is a wrestler so strong?” To your an-
noyance he answers “Because of his strength.” Again
one minute later you observe a third child asking this
kindergarten teacher: “Why is the tallest man of the
world so tall?” And surely, the child gets the answer
“Because of his tallness.” However, before you can
say anything to the kindergarten teacher he approaches
you beaming with joy and full of pride: “Did you
hear the children? They are always so curious. Their
questions are so creative! By the way, do you happen
to know in your capacity as a giftedness researcher
why these kids are so creative?” I have to warn my
readers. Those who are tempted to answer “Because of
their creativity” are behaving just like the kindergarten
teacher, and committing a fallacy called reification
– the act of representing an abstraction, a theoretical
construct as a real thing.
A New Take on the Innovation Problem in
the 21st Century
Life without development – and this refers to innova-
tions of the most different kind – is not a continuous
alternative. This allegation applies on various levels:
species, actions, groups, individuals and their tools,
ideas. The concept of evolution, the replacement
of older, less-appropriate systems with new, more
appropriately configured systems, is a highly recog-
nizable characteristic of thought in the 19th century.
Darwin used it in conceptualizing the evolution of
species, Marx for the evolution of economic systems,
and Comte for the evolution of modes of thinking.
The Darwin example is particularly practical for
demonstrating that the process of finding newer,
more creative solutions is by no means an idea which
originated in the deliberations of Homo sapiens.Itis
as old as the necessity of species to be able to change
and adapt in order to insure their survival.
The foundation for the following consideration is an
idealization suggested by the philosopher Daniel Den-
nett, who introduced it while investigating the role of
language in intelligence (Dennett, 1994). I will greatly
expand on the basic framework, adapting it to make it
apply to, and work for, the issue of creativity. In ad-
dition, I will introduce an allegory which I refer to as
the Tower of Creativity (see Fig. 78.1). Its six floors are
inhabited by different types of creatures.
Floor 1: Darwinian Creatures
The bottom floor of the Tower of Creativity is occupied
by Darwinian creatures. The actions they take in their
habitats are not random. Their activities are rooted in
the information that is available to them. However,
this information is stored in their DNA. Their habitats
are subject to change, and when such changes occur,
the information they have access to may no longer be
useful. In these situations it is vital that they adapt
to the new habitat (Mayr, 2001). This necessitates
innovation.
Darwinian creatures are not able to plan innovation.
They rather rely on the more or less random processes
of gene recombination and mutation. Therefore, Dar-
winian creatures need to test an immense number of
variations before one turns out to be useful. It is often
the case that such variations lead to the demise of the
creature. The adjustment process occurs over genera-
tions, and is therefore extremely time consuming.
In actuality, the history of life on our planet is
marked by the development of innovative, creative so-
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78 Research on Giftedness in the 21st Century 1517
Fig. 78.1 The Tower of Creativity
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1518 A. Ziegler
lutions such as photosynthesis, the sense of smell, and
flight. This process is driven by the mechanisms of
the Darwinian evolution of species, namely variation,
replication, natural selection, and mate choice. The
pressure to adapt is, however, extremely high and inno-
vations are not always feasible. In terms of time spent
roaming this planet, the average duration of a species
only comprises about 200,000 years (Miller, 2000).
One can then understand the life cycle of a species as a
constant history of innovations to improve its capacity
to adapt, to the eventual point where adaptation is no
longer possible and the species becomes extinct
Floor 2: Skinnerian Creatures
One of the most decisive and exciting events of evolu-
tion was the emergence of creatures which we, along
with Dennett, will designate Skinnerian creatures.
Skinner was the scientist who most clearly detected
the parallels between Darwinian evolution and operant
learning as well as the vast power of operant learning
processes: “Where inherited behavior leaves off, the
inherited modifiability of the process of conditioning
takes over” (Skinner, 1953, p. 83). The development
of a species was no longer only driven by variation
and field testing with genes. Organisms also have
the opportunity to develop variations on actions and
can then select the most successful of the bunch. In
another context I have referred to this process as the
“survival of the fittest action” (Ziegler, 2005, see also
Hull, Langman, & Glenn, 2001).
Skinnerian creatures raised the tempo of innova-
tion dramatically. Instead of several generations, inno-
vations can now arise within the life span of an indi-
vidual. However, they are reliant on the, more or less,
random production of several other action alternatives,
among which one is proven to be the most successful.
This type of creativity is evident among children who,
through trial and error, often arrive at the most surpris-
ing solutions. Several scientific discoveries can also be
seen as products of chance, having come about through
indirect action variations.
Skinnerian creatures suffer a grave disadvantage.
The process of trying things out can be dangerous. For
instance, someone using the trial and error method to
determine whether a specific plant has medicinal value
could very easily wind up with a poisonous plant. It
is interesting to note here that in some African cul-
tures, the term “gifted” is equivalent to the term used to
describe someone with the ability to heal themselves.
In order to prevent having to try things out blindly, an
ability is needed which is first detected among the crea-
tures on the next floor up.
Floor 3: Popperian Creatures
The philosopher Karl Raimund Popper divided the
world into three areas: (1) a physical world; (2) a
world of individual perceptions and consciousnesses;
and (3) a world of human knowledge and culture,
ideas, concepts, etc. (Popper, 1959). According to
Popper, this third world has its own set of conditions
for existence as well as its own prerequisites. In a
process similar to selection, the ideas which prevail
are those which are closest to the truth. An infamous
example used by Popper here is numbers.
Popperian creatures can move freely through
this third world. Thus, they obtain the capacities to
formulate their own models of the real world and to
manipulate these models mentally (see also Johnson-
Laird, 1983). Among the prototypical representatives
of these creatures, many giftedness researchers would
include Vincent van Gogh, the incomparable and long
underestimated genius Isaac Newton, who during his
own lifetime had already taken on mythic proportions,
and the exceptional talent, still cloaked in mystery,
Wolfgang Amadeus Mozart. They have all been
credited with visionary work. Empowering their own
spirit in their respective fields, they were able to see,
in a certain way, things that no one else was able to
perceive and could clearly recognize things that were
unclear or hazy to others.
Creativity research has also investigated individ-
uals who did not become famous. Typical here are
studies on activities in the so-called creative fields,
for example, painting, music, or writing (see the
chapters by Geake; Kaufman, Kaufman, Beghetto &
Burghess; Kim; Root-Bernstein; Saunders Wickes
& Ward). In most cases, the investigations involved
children or young adolescents who had a wide va-
riety of capabilities (such as originality, a powerful
imagination, fantasy, courage) and were able use
these skills to mentally manipulate their realities.
Such capabilities signify a formidable advancement in
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78 Research on Giftedness in the 21st Century 1519
human capacity. In contrast to Skinnerian creatures,
in testing out new action alternatives, the Popperian
creatures did not have to risk life and limb. They
did not even have to execute the action in question,
for instance in determining the medicinal value of
a plant. In many cases this could be accomplished
through contemplation. In a certain sense, ideas expire
when they are found to be invalid, not the persons
who had the ideas (Popper, 1959). While Skinnerian
creatures survive through luck, Popperian creatures
survive because they are – in the conventional sense –
intelligent and creative.
The opportunities opened up by mental manipula-
tions of reality are enormous. Dennett (1994) accu-
rately pointed out that each and every one of us is to-
day in the position to understand ideas that would have
been inconceivable for our grandparents. We can sur-
pass the boundaries of our imaginations and compre-
hend concepts like subatomic particles and black holes.
We, like Albert Einstein, are able to envision riding on
a beam of light through the universe and, on the basis
of this visionary power, can unravel the most difficult
of problems. The fantastic opportunities that Popperian
creatures can take advantage of through their access to
the third world are very likely the reason why many
giftedness researchers investigate creativity almost ex-
clusively with these creatures. However, they would
only have climbed halfway up the Tower of Creativity.
Floor 4: Spencerian Creatures
In going up another flight, one runs into the Spence-
rian creatures. In a certain sense, they draw their intel-
ligence and creativity from the societies and cultures
in which they subsist. They owe their name to the En-
glish philosopher and sociologist Herbert Spencer. He
made the ideas of evolution and adaptation productive
for the analysis of the development of social groups.
He (and not Darwin!) coined the term the “survival of
the fittest.” This expression is actually somewhat de-
ceptive, as it seems to imply that only one society – the
fittest – will survive. In fact, Spencer was of the opinion
that at a particular point in time several different types
of societies can exist, and that all could have adapted
(Barker, 1997).
The belief that entire societies can be creative, or
have the potential to become creative, has already been
broached above in reference to the Golden Ages. I
would like to elaborate this idea further with the help
of an arresting study by Qin and Simon (1990). The
objective here was to replicate a celebrated scientific
discovery. The eminent 17th century mathematician
Johannes Kepler had access, as did his fellow as-
tronomers, to a set of data which defined the distance
of each planet in the solar system to the sun as well
as their solar periods or the time they needed to
complete one rotational orbit around the sun. First
he discovered, for the five planets closest to the sun,
that the periods increased with the squares of the
distances. However, he was never really satisfied with
his publication of this finding, since the fit was not
good. For 10 long years he was not able to come up
with a better solution, until he finally realized that the
square of the orbital periods are proportional to the
cube of their distances from the sun. This law is valid
to this day, and is known to us as Kepler’s third law.
If there had been a Nobel Prize at that time, Kepler
most certainly would have received it. Qin and Simon
provided college sophomores with the data set used by
Kepler. These sophomores were, up to this point, not
known to possess any special talents. However, some
of the students were actually capable of recognizing,
in less than an hour, the mathematical relationships in
this data set for which Kepler had needed 10 years to
verify.
Why were these otherwise rather unexceptional stu-
dents capable of quickly realizing creative achieve-
ments for which a recognized genius like Kepler had
needed 10 years? And would Kepler also need 10 years
to make this discovery if he were working today, or
would this be a much quicker process for him too?
The answers here are, of course, highly speculative.
But it is plausible to assume that Kepler, in the 21st
century, would be capable of making his discoveries
much faster. In the first place, at that point in time, his
basic mathematical knowledge was equivalent to that
amassed by a good student by the end of the 11th grade
today. This knowledge is sufficient to make this discov-
ery and is now much more familiar to students. There is
another even more significant point. The belief that the
physical world could be explained mathematically was
only first instituted during the 17th century, and this
is one of the central convictions of modern scientific
conceptions of the world (Cohen, 1994; Kuhn, 1970).
Academics like Kepler and Galileo were the first to ac-
tively experiment with this approach in the quest for
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1520 A. Ziegler
knowledge. The students participating in the investiga-
tion with Qin and Simon (1990) can therefore be un-
derstood as Spencerian creatures who, in the course
of their individual socialization, adapted themselves
to a scientific/epistemic world, which has command
over methodological and mathematical abilities that
are completely different from those which were ac-
cepted by the world in the 17th century. This mathe-
matical and methodological background, made avail-
able through their social community, enables them to
make discoveries for which – in this example – Pop-
perian creatures Kepler and the best of his contempo-
rary astronomers, despite possibly superior individual
learning capacities, would only be capable of making
after an extremely long period of time, if at all.
We should be able to agree on the fact that all per-
sons have the capacities to understand several types
of ideas and appreciate artistic developments which
were inconceivable by the geniuses in our grandpar-
ents’ generation. Just like the students in the investiga-
tion by Qin and Simon (1990), we are nowadays all ca-
pable of discoveries which persons living in previous
centuries would have been generally considered bril-
liant. It would be presumptuous to accord these dis-
coveries to ourselves.
As scientists, today more than ever, we are much
more akin to Spencerian creatures in yet another sense.
Brief glances through the tables of contents in the best
scientific journals prove that publications are mostly
the result of teamwork. Also, Nobel Prizes are often
bestowed for cooperative achievements – achieve-
ments which could only have been accomplished
jointly. Spencerian creatures are, from this perspective,
extremely social. They are able to realize that several
innovations, creative achievements, etc., can no longer
be produced by individuals alone, rather only though
the collective accomplishments of several individuals.
Floor 5: Gregorian Creatures
If we ascend yet another floor in the Tower of Cre-
ativity, we find Gregorian creatures. Their creative
prospects are much more far reaching than those of the
Spencerian creatures. They were named after Richard
Gregory, an emeritus professor of neuropsychology at
the University of Bristol. In his work he systematically
pursued an idea, one which anthropologists have long
recognized in a rather indirect form: By introducing
tools we greatly expand both our intelligence and our
creative potential. The telescope enabled Galileo to
assess the Copernican geocentric system. With the
help of radio telescopes, Penzias and Wilson were
able to peer into the deep recesses of the universe,
all the way back to its origins, and were able to
discover cosmic microwave background radiation. The
discoveries made by Leeuwenhoek, who invented the
microscope, characterized the so-called century of the
Animalcula, the world of the miniscule. Among the
sensations of the era were the discoveries of red blood
corpuscles in 1668 and microorganisms in 1675.
Leeuwenhoek’s invention is also a fitting example
of how Gregorian creatures are capable of surmounting
the chromosomal limitations under which Darwinian
creatures collapse. It is astounding that H. sapiens were
able to exist for more than 100,000 years without being
aware of the presence of microorganisms, which com-
pose no less than 60% of the entire biological mass
on our planet and encompass a diversity of species
amounting to ca. 3,000,000,000 varieties. This is sev-
eral times the number of species visible to us. In terms
of our own bodies, this comes to ca. 10 microorganisms
for each cell. Only in the guise of a Gregorian creature
were H. sapiens able to discover this.
In the same way technical equipment was able to
augment the creative capabilities of scientists, auxil-
iary resources can encourage advances in achievement
in all fields of human activity. The tennis/table tennis
players who were at the top of the game in the mid-
dle of the last century would not stand a chance against
modern players, since contemporary racquets/paddles
allow players to make hit balls in ways that were un-
thinkable with the materials used in earlier equipment.
Further examples from the field of sports include the
introduction of tartan lanes in short distance sprinting
competitions and the use of sophisticated water com-
positions in swimming competitions. Both of these ac-
complishments triggered a flood of world records in
their respective disciplines. A wide variety of exam-
ples can be found in the arts as well. The introduction
of electronic instruments enriched the acoustic spec-
trum of music. The year 1856 was a milestone in the
history of painting. Henry William Perkins discovered,
at the age of 18 years, the first aniline dye (aniline
purple, known as mauve or mauveine). Its primary ap-
plication was as a textile colorant. The first synthetic
pigments launched a true revolution in the field of
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78 Research on Giftedness in the 21st Century 1521
painting, which drastically enhanced the opportunities
artists had to work with color for decades to come,
and enabled the establishment of modern painting as
we know it today (Garfield, 2000). However, not only
were new pigments discovered, but the properties of
paint were also revolutionized. Who has not heard
about the infamous artistic rivalry between Leonardo
da Vinci and Michelangelo? Leonardo was commis-
sioned to eternalize the victorious battle of Anghiari on
the wall of a meeting chamber in Florence’s city hall.
He experimented with a special type of finishing for
this work of art. However, through this rather ineffec-
tual drying method, using burning coals, the artwork
was destroyed. To a minor degree, the effort was actu-
ally successful, but the heat was only effective for the
bottom half of the chamber, and the paint used for the
upper half of the mural melted away. Were this rivalry
between Leonardo and Michelangelo to take place to-
day, questions concerning the durability of the paint
would play, at most, a subordinate role, and the out-
come of this competition in creativity would be decided
on the basis of entirely different qualities.
Popperian creatures, who have been favored in cre-
ativity research, only have the prospect of using mental
manipulation to incite their internal mental worlds to
reach new levels of expertise. Gregorian creatures blast
past these barriers. They design portions of their exter-
nal environment in order to substantially broaden the
scope of their creativity.
Floor 6: Blue Brain Creatures
As impressive as the creative capabilities of Grego-
rian creatures may be, they are easily eclipsed by the,
historically speaking, youngest creatures, those which
occupy the uppermost floor of the Tower of Creativ-
ity. Blue Brain creatures are no longer singular indi-
viduals, they rather exist in the form of cognitive net-
works, teams that utilize tools. Their name is derived
from Blue Brain, a project inaugurated in May 2005. It
is a collaboration between IBM and Henry Markram’s
Brain and Mind Institute at the ´
Ecole Polytechnique in
Lausanne, Switzerland. The goal of the project is the
first computer simulation of the entire human brain.
Projects like Blue Brain can no longer be conducted
by a single creative person; this means that Popperian
creatures are doomed to fail at such projects. In or-
der to bring them to completion one needs (1) several
scientists, engineers, programmers, etc. This aspect is
very familiar to us through Spencerian creatures: Cer-
tain discoveries cannot be made by individuals, and
rather necessitate cooperation among several individ-
uals, in some cases calling for large, international re-
search teams. But this is not all. (2) In addition to
the activities of the research team, IBM supplied the
project with immense stores of computer capacities.
However, the utilization of tools was already recog-
nized among Gregorian creatures. What is then so new
about Blue Brain creatures? (3) Blue Brain has had two
deficits from the start. In the first place, the simulation
of the brain requires capacities to calculation which no
computer in the world was capable of. In the second
place, they need theoretical knowledge from the field
of neurobiology, which is not yet available. Blue Brain
is therefore a project, which requires its staff and its
tools to be evolving beings. Research centers, which
educate their own scientific offspring with specific tal-
ents and specifically develop research instruments to
insure the evolution of the field itself, are perfect exam-
ples of Blue Brain creatures. They are entities which, as
a team, have realized their own need for learning and
the need to continually develop the tools at their dis-
posal and actively pursue these goals in addition to de-
veloping the actual innovations they are charged with.
A defining characteristic is that they have, as a solid
goal, the evolution of themselves and their tools in or-
der to attain their creative objectives.
Of What Service Is the Allegory of the
Tower of Creativity?
The benefit offered by the allegory of the Tower of Cre-
ativity is that it facilitates more sophisticated and, pre-
sumably, better responses to the central challenges fac-
ing giftedness research in the 21st century. In a rapidly
and ever changing world, with quickly developing mar-
kets and an immense pressure for innovation, routine
solutions are no longer adequate. There is a restriction
on the number of new solutions Popperian creatures are
capable of coming up with, which also concur with the
paradigmatic normal case of giftedness research (cf.
Heller, M¨
onks, Sternberg, & Subotnik, 2000). In this
light, their potential contribution to meeting the central
challenges of the 21st century seems to be essentially
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1522 A. Ziegler
limited. In order to remain sustainable in the future,
giftedness research has to expand its own perspectives.
The allegory of the Tower of Creativity suggests
that, in the future, giftedness research will be assessed
by how well it can conceive of Spencerian creatures,
Gregorian creatures, and above all Blue Brain creatures
as the architects of innovations. Practically speaking, it
will be assessed on whether or not it can provide effec-
tive programs to promote these creatures. Otherwise,
and in all probability, expertise and innovation research
will overtake it.
Conclusions
Giftedness research will remain in demand in the fore-
seeable future and, according to the opinions of sev-
eral of the authors contributing to this handbook, this
demand will even increase in intensity. I share this op-
timism. The fact that this exceptional book, with con-
tributions from researchers from all parts of the world,
can be published is a clear expression of justification
for such optimism.
Without a doubt, in many countries a great deal of
hope will be placed on giftedness research and applied
giftedness research to afford them opportunities to in-
sure advances in prosperity, cultural enrichment, and
sustainability. However, as giftedness researchers, we
must also pose the question of how long this trend can
be maintained and what we ourselves can, or in better
terms, must be doing to extend it, perhaps even how to
bolster it. In drawing a summary of this contribution,
I would like to refer to three points which we should
essentially be keeping in mind.
We have to be capable of self-criticism. Research
is a never ending process that is constantly produc-
ing preliminary results. It is massively dependent on a
permanent willingness to continue intentionally evolv-
ing its own methods and models. Two developments
characterize the maturity of a branch of science. The
first is that it is cognizant of its own transformation,
in other words, its history. This has been established
in giftedness research for several decades. An entire
chapter of this book has been dedicated to this history,
and several other chapters also take it into consider-
ation. The second discernible milestone is whether a
branch of science is open to a meta-theoretical perspec-
tive. This does not only offer, as in historical considera-
tions, the opportunity to make temporal comparisons of
research findings, a meta-theoretical perspective also
offers opportunities for theoretical and methodological
optimization. Quality standards can be discussed, in-
troduced, and made compulsory. For example, Ziegler
and Heller (2000) developed a list of quality standards
to be applied to scientific definitions of giftedness.
These were, for example, applied by the editors of the
book Conceptions of Giftedness: Socio-cultural Per-
spectives (Phillipson & McCann, 2007) to insure the
quality of the manuscripts submitted for publication. In
this book, Phillipson and Dai each composed highly in-
teresting chapters from meta-theoretical perspectives.
To sum up, these two trends of competent, yet criti-
cal, self-inspection and meta-theoretical self-reflection
should be established more deeply in the field.
A vigorous giftedness research must be prepared to
actively seek out discourses with its parent disciplines
such as psychology, anthropology, sociology, etc., in-
stead of just applying their concepts. It must be able to
reciprocally supply them with novel research questions
and a more prolific exchange must be realized. In my
opinion, this calls for much more adept profiling in the
field of giftedness research. It should keep its eye on
the intrinsic objective of this branch of research: suc-
cessful processes (learning, education, achievement,
etc.). In this way it can become a drosophila to its par-
ent disciplines.
In conclusion, giftedness research will have to re-
sist its, with certainty, ever-strengthening rivals’ ex-
pertise research and innovation research. Let us as-
sume that the following scenario were to develop: Ex-
pertise researchers prove to be able to prognosticate
Nobel Prize winners before giftedness researchers are
able to and then, 1 year later, someone is awarded a
Nobel Prize who was educated according to recom-
mendations made by innovation research. In contrast
those who were educated according to recommenda-
tions made by giftedness research went home empty-
handed. It is easy to see where future research funds
will be flowing. In order to prevent this from happen-
ing, giftedness research must be able to evolve. It is
much too closely bound to the conceptions of achieve-
ment excellence and innovation I have attributed to
Popperian creatures. It should also focus on Spencerian
creatures, Gregorian creatures, and Blue Brain crea-
tures. This handbook is hard proof that opportunities
for evolution in the field do exist. Should giftedness re-
search be able to accomplish this, it will have tremen-
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78 Research on Giftedness in the 21st Century 1523
dous chances of advancing to one of the most important
research disciplines of the 21st century.
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