Parent–Child Proximity: Automatic Cognitions Matter
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Transcript of Parent–Child Proximity: Automatic Cognitions Matter
Parent–Child Proximity: Automatic Cognitions Matter
Stefan Stieger • Martin Voracek • Ingo W. Nader
Accepted: 26 November 2013 / Published online: 5 December 2013� Springer Science+Business Media Dordrecht 2013
Abstract Individuals’ moving behavior (e.g., residential mobility) is an emerging topic
in many scientific disciplines. One specific aspect is the distance between parents and their
children (i.e., parent–child proximity). Although determinants and moderators of parent–
child proximity can be manifold, we concentrated on the psychological concepts self-
esteem and affect by assessing explicit (i.e., conscious) and implicit (i.e., automatic)
aspects. Besides well-known correlates of moving behavior (e.g., education), we found that
participants (N = 1,765; cross-sectional design) with high positive explicit affect and low
negative implicit affect moved further away from their parents’ homes. Therefore, parent–
child proximity may not be only based on fundamental sociocultural and socioeconomic
needs (e.g., income, family bonds), but also on automatic psychological aspects, such as
implicit affect.
Keywords Implicit cognitions � Moving behavior � Parent–child proximity �Positive/negative affect � Self-esteem
1 Introduction
The geographical distance between individuals is a topic studied in many different sci-
entific disciplines. For example, environmental studies analyze the determinants of moving
behaviors (i.e., residential change) and residential mobility (e.g., Oishi et al. 2012b; Oishi
and Schimmack 2010). In general, research concerning the interplay of individuals and
their (geographical) environment has so far focused on the following aspects: (1) socio-
cultural aspects, as for example family bonds that are tighter in southern than in northern
Europe (e.g., Reher 1998); (2) demographic aspects, such as age, sex, marital status, family
S. Stieger (&) � M. Voracek � I. W. NaderDepartment of Basic Psychological Research and Research Methods, School of Psychology, Universityof Vienna, Liebiggasse 5, 1010 Vienna, Austriae-mail: [email protected]
123
Soc Indic Res (2014) 119:967–978DOI 10.1007/s11205-013-0524-3
size, or education (for a discussion, see Hank 2007); (3) socioeconomic aspects, such as
housing tenure (children live closer to their parents when parents have financially sup-
ported their housing tenure: Tomassini et al. 2003); (4) geographical aspects, such as the
attractiveness of places (Altman and Low 1992).
Interestingly, little research has been conducted on correlates of psychological aspects
of individuals’ moving behaviors. In a large prospective study in Finland, temperament
traits (i.e., emotionality, sociability, and activity) influenced individuals’ moving behavior
(Jokela et al. 2008). More (vs. less) sociable individuals moved to urban (vs. rural) areas
and generally had longer (vs. shorter) moving distances. More active (vs. passive) indi-
viduals, on the other hand, moved in general to rural and urban areas alike, and high (vs.
low) emotional individuals had an increased likelihood of leaving parents’ home, but
decreased moving distance. Also, correlations of personality with moving behaviors have
been found (Big Five: Silventoinen et al. 2008). Men (but not women) higher in neurot-
icism and extraversion were more likely to move.
Recently, an increasing number of studies have been conducted on residential mobility (e.g.,
Oishi 2010; Oishi et al. 2012a; Oishi and Schimmack 2010), which is defined as the ‘‘frequency
with which individuals change their residence’’ (Oishi 2010, p. 6). More residential moves were
associated with lower self-esteem and higher negative affect; hence, frequent residential moves
in childhood may be stressful because of its negative effect on subjective well-being in later life
(Oishi et al. 2012a). This effect was only observed among introverted children (i.e., probably
having difficulty making new friends in new places), but not among extraverted children (Oishi
and Schimmack 2010; Oishi et al. 2012b). To sum up, mobility affects the lives of individuals
and is a key factor underlying globalization, thereby emphasizing its future significance for
psychological research (for a recent review, see Oishi, 2010).
One specific aspect of moving behavior is the distance between parents and their
children, which is called parent–child proximity. Unfortunately, research about psycho-
logical correlates of this behavior is still scarce, albeit of high societal interest (e.g., Guo
et al. 2011; Ha and Carr 2005; Lin and Rogerson 1995). For example, in gerontology,
parent–child proximities are analyzed in light of social integration and well-being of the
elderly (e.g., Ha and Carr 2005), which may become a major health care problem due to
decreasing birth rates and increasing life expectancy in Western societies.
Although one would rather assume that moving away from parents’ home is a highly
conscious decision (e.g., I want to be independent; I do not get along with my parents
anymore), past research on implicit social cognition suggests that many behaviors are not
only influenced by conscious decisions, but also by unconscious motives (Greenwald et al.
2009). For example, Pelham et al. (2002) found that the decision as to where to live is also
(unconsciously) influenced by peoples’ name letters. If a man’s first name is Jack, he is
more likely to live in Jacksonville than in Philadelphia (where the Philips are more likely
to live). This implicit egotism effect has been extended to other major life decisions, such
as in which company to work (Anseel and Duyck 2008; but see Simonsohn 2011). So the
decision as to where to live seems not only a conscious decision because of sociocultural
and socioeconomic reasons, but also partly an unconscious implicit one.
When it comes to unconscious decisions and behaviors, research has increased dra-
matically since the introduction of the concept of implicit cognitions (Greenwald and
Banaji 1995) and the Implicit Association Test (IAT: Greenwald et al. 1998). Implicit
(automatic) cognitions predict automatically elicited behaviors (e.g., sweating during a
speech), whereas explicit (conscious) cognitions predict conscious behaviors (e.g.,
behaviors individuals are aware of). This separation in distinct behavior-related cognitions
is reflected by dual-process theories (e.g., Strack and Deutsch 2009).
968 S. Stieger et al.
123
The present study was designed to analyze whether explicit and implicit cognitions are
associated with parent–child proximity (i.e., how far someone moves away from parents’
home). Although there are many potential psychological constructs that could be associ-
ated with partent-child proximity (e.g., personality, personal values, attitudes), we focused
on self-esteem and affect (see Oishi et al. 2012a) because of their ease of measurement
(i.e., survey-based). Other implicit measurement procedures such as the IAT are computer-
based reaction time tasks, which are time-consuming and not without problems when
applied multiple times for the measurement of different constructs because of order effects
(e.g., Stieger 2013).
Moving can be driven by many motives, external as well as internal ones, and can either be
resource-orientated (because I have money, I can move) or deficiency-orientated (because I
do not have money, I must move), thus leading to different predictions for self-esteem and
affect. For example, individuals with low self-esteem might move away (e.g., because I have
low self-esteem, this motivates me to change my life), but also could stay at their parents’
home (e.g., I have low self-esteem, therefore I do not dare to move away). Considering this,
specific hypotheses were not formulated and the study was designed as explorative.
2 Method
2.1 Participants
Participants (N = 1,765; 58 % women) were German-speaking volunteers recruited
through snowball sampling and constituting a convencience sample (74 % Austrians, 23 %
Germans, 3 % other; Mage = 37.7 years, SD = 17.0; range 16–89 years). The sample was
almost balanced regarding their highest educational level (19 % primary education, 22 %
apprenticeship diploma, 37 % secondary education, 22 % university degree). Participants’
current relationship status was: 25 % single, 32 % in a relationship, 36 % married, 4 %
divorced, and 3 % widowed.
For half of participants (53 %), the stated postal code was identical to their parents
postal code (both postal codes were self-stated by participants). The remaining participants
moved away on average 136.5 miles from their mothers’ home (SD = 532.4, range
.48–8,234.9 miles; see Fig. 1) and on average 164.9 miles away from their fathers’ home
(SD = 592.2, range .48–6,025.5 miles). In general, participants’ postal codes were wide-
spread, with 521 different postal codes returned.
2.2 Materials
2.2.1 Rosenberg Self-Esteem Scale (RSES)
The RSES (German form: von Collani and Herzberg 2003) is a 10-item global measure of
explicit self-esteem rated on a 4-point scale (0: Totally disagree; 3: Totally agree; sample
a = .82). Higher values reflect higher self-esteem.
2.2.2 Initial Preference Task (IPT)
The IPT (Kitayama and Karasawa 1997) is a trait measure of implicit self-esteem based on
the Name Letter Effect (NLE; i.e., individuals rate their name-letters more favorably than
Parent–Child Proximity 969
123
non-name letters; Nuttin 1985) with good psychometric properties (for a review, see
Stieger et al. 2012). Participants were presented with a randomized list of letters (A–Z) and
12 non-letter ASCII code symbols (e.g., ,, , €, D, �; for recent applications, see Gregg
and Sedikides 2010; Stieger and Burger 2013) that were rated on a 7-point scale (1: I don’t
like at all; 7: I like). The NLE was calculated, using the recommended I algorithm (Baccus
et al. 2004), separately for the first-name and the last-name initial (Stieger et al. 2012;
correlation between IPT-first and IPT-last: r = .41). The I algorithm controls for individual
response tendencies (e.g., liking more or less all letters) as well as for general normative
liking of certain letters (i.e., some letters are generally preferred more than others).
2.2.3 General Name Liking (GNL)
The GNL (Gebauer et al. 2008) is a measure of global implicit self-esteem. Participants
were asked ‘‘How much do you like your first name?’’ (GNL-first) and ‘‘How much do you
like your surname?’’ (GNL-last) which had to be answered on a 9-point scale (1: Not at all,
9: Very much; correlation between GNL-first and GNL-last: r = .34; their correlations
with RSES: r = .18 and r = .16 respectively; all ps \ .001).
2.2.4 Positive and Negative Affect Schedule (PANAS)
The PANAS (German form: Krohne et al. 1996) is a measure of explicit positive and
negative affect. Participants were asked how they feel ‘‘in general’’ (to measure affect as a
Fig. 1 Geographical distances between participants and their mothers
970 S. Stieger et al.
123
trait) regarding ten descriptors of positive and negative affect (1: Not at all, 2: A little, 3:
Moderately, 4: Quite a bit, 5: Extremely). Higher values reflect higher explicit positive
affect (EPA; a = .81) and higher explicit negative effect (ENA; a = .82), respectively.
2.2.5 Implicit Positive and Negative Affect Test (IPANAT)
The IPANAT is a trait measure of implicit positive and negative affect with good psy-
chometric properties (Quirin et al. 2009). The IPANAT uses mood judgments of artificial
words (e.g., TUNBA) to assess implicit affect. Participants rated six nonsensical words on
three positive (happy, cheerful, energetic) and three negative emotions (helpless, tense,
inhibited) each on a 4-point scale (1: Doesn’t fit at all, 2: Fits somewhat, 3: Fits quite well,
4: Fits very well). Implicit positive affect (IPA; a = .80) is the mean score of all positive
mood adjectives and implicit negative affect (INA; a = .78) the mean score of all negative
mood adjectives.
2.2.6 Place of Residence
Participants were asked about the country and postal code of their place of residence,
which they would describe as ‘‘home.’’ This could differ from their current place of
residence (e.g., place of study) and follows the place attachment concept (emotional
bond between a person and a particular place; Altman and Low 1992). Furthermore,
participants were asked about the country and postal code of their mothers’ and fathers’
current place of residence to calculate the distance between participants and their
parents.
2.3 Procedure
Participants gave their informed consent, completed the IPT, and then the further study
parts in the following order: RSES, PANAS, GNL, IPANAT, demographic details (age,
sex, nationality, and current relationship status) and name initials. Finally, participants
were thanked and debriefed.
2.4 Analysis of Distance Between Parents and Participants’ Home
In Austria and Germany, municipalities (equivalent to US counties) are divided into
several postal code areas, i.e., the latter ones geographically are more precise than the
municipality itself. First, the distance as the crow flies between participants’ and
parents’ place of residence was determined using an online tool (www.distance.to).
Because distances were highly skewed in the sample (skewness [ 9.8), we log-trans-
formed both the distance between participants and their mothers as well as participants
and their fathers. Because log-transformed distances were highly correlated (r = .91,
p \ .001) and because mothers’ and fathers’ place of residence differed in only 5.5 %
of cases, we used mean distance scores for analyses (skewness = .9; SE = .06). For a
graphical overview of the distances between participants and their parents, see Fig. 1
(for ease of use, we only used the zip-code of mothers).
Parent–Child Proximity 971
123
3 Results
As can be seen from Table 1, the distance between participants and their parents was
correlated with several study variables. To account for intercorrelations of study variables
to see the unaffected real effects of study variables on parent–child proximity, we per-
formed a hierarchical linear regression with parent–child distance as the criterion. In the
first block of predictor inclusion, possible demographic correlates of moving behavior were
included (age, sex, education). To analyze whether implicit evaluations have incremental
value in predicting parent–child proximity over and above explicit evaluations, explicit
self-esteem and affect were included in the second block, whilst implicit self-esteem and
affect in the final third block.
The regression model was significant at block 1, with 10 % of variance attributable to
sex and education (Table 2). In block 2, only explicit positive affect had additional pre-
dictive power (the higher explicit positive affect, the larger was the distance to parents). In
block 3, only implicit negative affect had additional predictive power (the lower implicit
negative affect, the larger was the distance to parents). Multicollinearity was acceptable
(maximum variance inflation factors [VIF] = 1.5; values above 10 are often considered
problematic). The largest b values were observed for education (.31) followed by explicit
positive affect (.08) and implicit negative affect (-.08) and finally sex (.05).1
Unfortunately, multiple linear regression analyses have the problem of inferring the
relative importance of each predictor variable. The first chosen predictor in a regression
model usually accounts for the major part of variance compared to the last predictor
variable included in the model, i.e., the last predictor has less chance of explaining vari-
ance of the criterion variable (but only if predictor variables share some variance). In order
to account for this problem, we reversed the order of blocks in the hierarchical linear
regression (Table 2, last six columns). The b values basically remained identical, i.e., the
order of inclusion into the model did not alter the values substantially to assume a sequence
effect. This supports the robustness of our finding.2
To sum up, although b values for explicit positive and implicit negative affect were
modest (albeit nominally significant), as compared to the predictive power of education as
a potent moderator of moving behavior, their predictive value can be regarded as sub-
stantial (39 % of the effect size of education). Because education was the strongest pre-
dictor for parent–child proximity, we furthermore were interested whether this relationship
is of a linear trend or some other association (e.g., quadratic). The explained variances for a
logarithmic (R2 = .09), quadratic (R2 = .11), and cubic (R2 = .11) relationship did not
1 We also calculated a linear regression by including interaction terms between implicit and explicit affectas well as implicit and explicit self-esteem (see Jordan et al. 2003). These interaction terms were included inthe regression analysis in a separate block to see whether the interaction terms have additional predictivepower. Although we found some low effect (b = .07) of the interaction between explicit self-esteem (RSES)and implicit self-esteem measured with the IPT-last on parent–child proximity, this additional block in theregression analysis was not significant, DF(6,1,731) = 1.82, p = .09. Doing the same hierarchical linearregression with the reversed order of blocks, the interaction terms failed to explain any of the variance,F(6,1,743) = 1.40, p = .21.2 One reviewer correctly pointed out that some of the prerequisites of a linear regression might be violated.In combination with the interpretation of low effect sizes, this could be problematic because some effectsmight be erratic. Nevertheless, a categorical regression taking the different levels of measurements of thepredictor variables into account, revealed basically the same pattern (i.e., significance of sex, education,EPA, INA), which again speaks for the robustness of our findings (detailed results omitted for brevity).
972 S. Stieger et al.
123
Ta
ble
1Z
ero-o
rder
corr
elat
ions
bet
wee
nst
udy
var
iable
s
12
34
56
78
91
01
11
2
1D
ista
nce
2S
ex.0
5
3A
ge
.01
-.0
7*
*
4E
du
cati
on
.32
**
*-
.02
.02
5R
SE
S.0
7*
*-
.06
*.0
8*
*.1
8*
**
6E
PA
.12
**
*-
.01
-.0
4.1
4*
**
.41
**
*
7E
NA
-.0
6*
*.0
5*
-.1
0*
**
-.1
1*
**
-.4
7**
*-
.24
**
*
8IP
T-fi
rst
.02
.12
**
*-
.14
**
*.0
1-
.03
.01
.00
9IP
T-l
ast
.00
.03
.02
.01
.01
.02
-.0
4.4
1*
**
10
GN
L-fi
rst
.02
.03
-.0
4.0
4.1
8**
*.2
1**
*-
.05
*.0
8*
**
.02
11
GN
L-l
ast
.01
-.0
8*
*.0
8*
**
.04
.16
**
*.1
7**
*-
.08
**
.01
.09
**
*.3
4**
*
12
IPA
-.0
4.0
1-
.04
-.0
1.0
1.1
0**
*.0
4.0
3.0
1.0
1-
.01
13
INA
-.1
0*
**
-.0
3-
.07
**
-.0
7*
*-
.09
**
*-
.03
.11
**
*.0
3.0
5-
.01
-.0
3.0
4
N=
1,7
65
;R
SE
SR
ose
nb
erg
self
-est
eem
scal
e,IP
Tin
itia
lpre
fere
nce
task
,G
NL
gen
eral
nam
eli
kin
g,
EP
Aex
pli
cit
posi
tive
affe
ct,
EN
Aex
pli
cit
neg
ativ
eaf
fect
,IP
Aim
pli
cit
posi
tive
affe
ct,
INA
impli
cit
neg
ativ
eaf
fect
;fi
rst,
firs
tnam
e;la
st,
last
nam
e.C
odin
gof
Sex
:1
=m
en;
2=
wo
men
*p\
.05
;*
*p\
.01
;*
**
p\
.00
1
Parent–Child Proximity 973
123
Ta
ble
2P
red
icto
rso
fp
aren
t–ch
ild
pro
xim
ity
Pre
dic
tor
Hie
rarc
hic
alre
gre
ssio
n(s
tepw
ise
incl
usi
on,
blo
cken
try)
Hie
rarc
hic
alre
gre
ssio
n(r
ever
sed
ord
er)
Blo
ck1
Blo
ck2
Blo
ck3
Blo
ck1
Blo
ck2
Blo
ck3
br
br
br
br
br
br
Sex
.06
*.0
5.0
6*
.05
.05
*.0
5.0
5*
.05
Ag
e.0
1.0
1.0
1.0
1.0
1.0
1.0
1.0
1
Ed
uca
tio
n.3
2**
*.3
2.3
1**
*.3
2.3
1**
*.3
2.3
1*
**
.32
RS
ES
-.0
2.0
7-
.02
.07
.02
.07
-.0
2.0
7
EP
A.0
7**
.11
.08
**
.11
.10
**
*.1
1.0
8*
*.1
1
EN
A-
.03
-.0
6-
.02
-.0
6-
.02
-.0
6-
.02
-.0
6
IPT
-firs
t.0
2.0
2.0
3.0
2.0
3.0
2.0
2.0
2
IPT
-las
t-
.01
-.0
1-
.01
-.0
1-
.01
-.0
1-
.01
-.0
1
GN
L-fi
rst
-.0
1.0
2.0
2.0
3.0
1.0
2-
.01
.02
GN
L-l
ast
-.0
1.0
1-
.01
.01
-.0
2.0
1-
.01
.01
IPA
-.0
4-
.04
-.0
4-
.04
-.0
5-
.04
-.0
4-
.04
INA
-.0
8**
-.1
0-
.10
**
*-
.10
-.1
0*
**
-.1
0-
.08
**
-.1
0
F(3
,1,7
46
)=
68
.47
,p\
.00
1;
Ad
j.R
2=
10
%
DF
(3,1
,74
3)
=2
.30,
p=
.02
;D
R2
=1
%D
F(6
,1,7
37
)=
2.8
0,
p=
.01
;D
R2
=1
%F
(6,1
,74
3)
=3
.89
,p
=.0
01;
Ad
j.R
2=
1%
DF
(3,1
,74
0)
=7
.84,
p\
.00
1;D
R2
=1
%D
F(3
,1,7
37
)=
60
.79
,p\
.00
1;D
R2
=9
%
N=
1,7
65
;R
SE
SR
ose
nb
erg
self
-est
eem
scal
e,IP
Tin
itia
lpre
fere
nce
task
,G
NL
gen
eral
nam
eli
kin
g,
EP
Aex
pli
cit
posi
tive
affe
ct,
EN
Aex
pli
cit
neg
ativ
eaf
fect
,IP
Aim
pli
cit
posi
tive
affe
ct,
INA
impli
cit
neg
ativ
eaf
fect
;fi
rst,
firs
tnam
e;la
st,
last
nam
e.C
odin
gof
Sex
:1
=m
en;
2=
wo
men
*p\
.05
;*
*p\
.01
;*
**
p\
.00
1
974 S. Stieger et al.
123
substantially differ from the more parsimonious linear model (R2 = .10), i.e., the linear
model should therefore be favored.3
4 Discussion
The results at hand not only support the assumption that psychological concepts are
associated with parent–child proximity, they also support the assumption that implicit
evaluations have incremental predictive power beyond their explicit counterparts. Moving
behaviors are therefore not only a product of conscious decisions and attitudes, but might
also be associated with automatically activated mood evaluations as well.
In line with related research (Lin and Rogerson 1995), education had notable influence
on moving behavior. Participants with higher education moved farther away than partic-
ipants with a lower educational degree. This effect was of a linear trend, i.e., participants
with an apprenticeship level move away from their parents, but live closer to their parents
than participants with secondary education. Participants with a secondary education move
farther away from their parents than participants with an apprenticeship level, but not as far
as participants with a university degree. The average distance gain for different partici-
pants’ educational levels is constant, i.e., about 20.8 miles for each educational level.
Furthermore, women moved farther away than men, which has also been frequently
found (e.g., Ha and Carr 2005). To analyze this in more detail, we performed a post hoc
analysis by calculating the hierarchical linear regression separately for men and women.
Again, the same pattern appeared for men and women, except that some predictors just
failed to reach nominal significance because of the lower sample size (detailed results
omitted for brevity). Therefore, reasons for the larger distance between women and their
parents compared to the distance of men and their parents probably are not grounded in the
study variables at hand (e.g., education, age, affect), but would be a fruitful research
question for future research.
However, affect—best described as a basic mood which is the ‘‘breeding ground’’ for
emotions—was also correlated with parent–child proximity. Participants with high positive
explicit affect (enthusiastic, active, and attentive on a conscious level; Watson et al. 1988)
as well as low negative implicit affect (calm, placid, and relaxed on an automatic implicit
level) lived farther from their parents than participants with low positive explicit affect and
high negative implicit affect. Because the decision to move away is potentially influenced
by many further variables (that are impossible to account for), explained variance values
were low but not uncommon with studies analyzing geographical proximity (e.g., Leopold
et al. 2012: 10 %).
4.1 Limitations
Assessing the place of residence poses several difficulties. First, current residential place
might be not the actual living place (e.g., student hostels). We tried to account for this
limitation by asking for the residential place one would describe as ‘‘home’’ (i.e., where
most friends life, where one feels comfortable). Second, the postal code might be too
imprecise, because participants and their parents can share the same postal code without
3 The same analysis was performed with the real distance between participants and their parents. Again thelogarithmic, quadratic, and cubic relationship did not substantially differ from the linear model (allR2 * .01).
Parent–Child Proximity 975
123
living in the same household. This likely adds some margin of error to the same postal-
code group, but not to those who moved away. Third, places of residence might have
changed through life not only for participants, but also for their parents. This surely adds
some error variance to our data, but we think this case is rather rare, because intrastate
(within-country) migration is not that common for Austria or Germany as it is for other
countries, including the USA. For example, only 8 % of Austrians moved in the year 2010
and 54 % of those moved within the same municipality (Statistics Austria 2012). Fourth,
our design was cross-sectional, so conclusions about causality are not possible. Participants
with higher positive explicit affect had higher distances to their parents, but we do not
know whether this was the cause or the consequence of moving away. These uncertainties
need to be addressed in future longitudinal research designs.
4.2 Future Directions
The present study suggested that implicit cognitions have predictive value for moving
behavior. Although the IPT and IPANAT are considered valid and reliable measures of
implicit self-esteem and affect, future research might benefit from using indirect measures
based on response interference (e.g., IAT: Greenwald et al. 1998) or affect misattribution
(the Affect Misattribution Procedure: Payne et al. 2005), in order to gain deeper insights
not only into the predictive value of implicit cognitions on parent–child proximity, but also
for moving behaviors in general.
5 Conclusion
Parent–child proximities seem to be not only based on fundamental sociocultural and
socioeconomic needs (e.g., income, life standards, relatives), but also on psychological
aspects such as explicit and implicit affect. In line with the dual-process model of social
behaviors (i.e., conscious behaviors are controlled by the reflective system, whilst spon-
taneous behaviors by the impulsive system; Strack and Deutsch 2009), implicit evaluations
showed incremental validity over and above explicit evaluations in predicting moving
behavior. To summarize, applying measures of implicit cognitions might be beneficial for
all scientific disciplines examining geographical distances between individuals (e.g.,
environmental, gerontology, health, or ecological studies), in order to gain a deeper
understanding of the psychological underpinnings responsible for ‘‘spreading one’s
wings’’.
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