107
ISSN 1225-6633 ISSN 1225-6633 1945 1945 Journal of the Korean Geographical Society Vol. 50, No. 2 April 2015 Volume 50, Number 2 (Series No. 167), April 2015 제50권 제2호 (통권 167호) 2015. 4 Articles Seasonal Changes of Shorelines and Beaches on East Sea Coast, South Korea ....................................................................................................... Dae Sik Kim · Gwang-Ryul Lee ( 147 ) A Perspective on the Sustainability of Soil Landscape Based on the Comparison between the Pre-Anthropocene Soil Production and Late 20th Century Soil Loss Rates .................................................................................................... Jongmin Byun · Yeong Bae Seong ( 165 ) Overcoming the Discourse of Foreignness: A Study on Class Positionality and Dual Identity of Korean Housemaids and Korean-Chinese Domestic Workers ............................. Soyoung Park ( 185 ) The Changes of Urban System Reflected in Daily Movement: 2005-2012 .................... Seungho Son ( 203 ) Tourist Photography as Representation and Performance: Focused on Rubber Duck Project Seoul ............................................................................................................... Jeongjoon Oh ( 217 ) A Relational Geography of Consumption and Ethical Geography Education ................................................................................................................................ Byungyeon Kim ( 239 ) 논 문 동해안 해안선과 해빈의 계절적 변화 ........................................................... 김대식·이광률 ( 147 ) 인류세 이전 토양생성률과 20세기 후반 토양유실률 비교를 통한 토양경관 지속가능성 전망 ...................................................................................................... 변종민·성영배 ( 165 ) 외국인 담론 극복하기: 식모와 조선족 입주 가사노동자의 계급적 위치성과 이중적 정체성에 관한 연구 ................................................................................ 박소영 ( 185 ) 일일 인구이동으로 본 국토공간의 도시체계 변화: 2005년과 2012................................ 손승호 ( 203 ) 재현과 수행으로서의 관광객 사진: ‘러버덕 프로젝트 서울’을 중심으로 .............................. 오정준 ( 217 ) 소비의 관계적 지리와 윤리적 지리교육 ..................................................................... 김병연 ( 239 )

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50-201c.inddeographical Society Vol. 50, No. 2 April 2015
Volume 50, Number 2 (Series No. 167), April 2015 50 2 ( 167) 2015. 4
Articles
Seasonal Changes of Shorelines and Beaches on East Sea Coast, South Korea ....................................................................................................... Dae Sik Kim · Gwang-Ryul Lee ( 147 )
A Perspective on the Sustainability of Soil Landscape Based on the Comparison between
the Pre-Anthropocene Soil Production and Late 20th Century Soil Loss Rates ....................................................................................................Jongmin Byun · Yeong Bae Seong ( 165 )
Overcoming the Discourse of Foreignness: A Study on Class Positionality and Dual Identity
of Korean Housemaids and Korean-Chinese Domestic Workers .............................Soyoung Park ( 185 )
The Changes of Urban System Reflected in Daily Movement: 2005-2012 ....................Seungho Son ( 203 )
Tourist Photography as Representation and Performance: Focused on Rubber Duck
Project Seoul ............................................................................................................... Jeongjoon Oh ( 217 )
A Relational Geography of Consumption and Ethical Geography Education ................................................................................................................................ Byungyeon Kim ( 239 )

...........................................................· ( 147 )
20
......................................................................................................· ( 165 )
................................................................................ ( 185 )
: 2005 2012 ................................ ( 203 )
: ‘ ’ .............................. ( 217 )
..................................................................... ( 239 )
- 147 -
*·**
Seasonal Changes of Shorelines and Beaches on East Sea Coast, South Korea
Dae Sik Kim* · Gwang-Ryul Lee**
: 8 2012 3 2014 2 2
, .
, .
8 , ,
.
, .
, .
.
: , , , ,
Abstract : This study analyzed characteristics and tendencies of seasonal change on shoreline and beach with 8 beaches at East Sea coast by topographical survey for 2 years from March 2012 to February 2013. The shorelines of East Sea coast appeared that amount of seasonal change was bigger than amount of annual change. e seasonal change tendencies between Gangwon-do and Gyeongsangbuk-do coast areas existed some regional dierences. To synthesize seasonal changes on 8 beaches of East Sea coast, shoreline advance and beach deposit showed clearly in summer and shoreline retreat and beach erosion showed clearly in autumn. This result is different from tendencies of seasonal change in many mid-latitude coast areas of the world, but generally corresponds with reference studies in west coast and east coast. e major factor of beach erosion showing mostly in summer is storm wave caused by typhoon. e beach erosion by storm wave also occurred in late winter. And it assumes that the beach deposit showing mostly in autumn is result of equilibrium processes of coast area against strong erosion in summer.
Key Words : shoreline change, beach prole, short-term change, coastal erosion, East Sea coast
2012 () (NRF-2012S1A5A2A01014799) * (Doctoral Student, Department of Social Studies Education, Graduate School of
Kyungpook National University), [email protected] ** (Associate Professor, Department of Geography Education, Teachers College, Kyung-
pook National University), [email protected]
(coast)
. , 3


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(beach)
, 40% (Bird,
2008). , ,
,

.


(Davidson-Arnott, 2010). ,


(Guillen et al., 1999),

.
(fair weather berm)

,

(nearshore bar)
(storm berm)
(Masselink and Pattiaratchi, 2001; Bird,
2008; Davidson-Arnott, 2010; Bierman and Mont-
gomery, 2014).
Delaware (Dubois,
1988) (Yates et al.,
2009), (Quartel, 2008),
(Taaouati et al., 2011)

.


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(storm wave) ,
(Larson and Kraus, 1994; Robertson V et al.,
2007; Frihy et al., 2008; Roberts et al., 2013)

,

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1999; Turki et al., 2013),
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.

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2012) ,
(1996), ·(2005), ·
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- 149 -
.

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rent)
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0.70 -1.97 -6.05 4.96 -3.61 9.70 -7.91 5.17 0.33 -2.17 -2.57 1.75 -1.74 7.98 -7.91 -3.34
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3.40 -6.12 -2.98 5.35 -0.38 7.29 -8.89 5.00 0.61 -2.35 -1.89 -0.01 4.29 0.34 -3.64 0.03
- 153 -
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7.21 -1.40 -2.98 -1.14 4.24 1.00 -4.79 2.07 -2.17 1.62 -2.33 1.54 2.09 6.36 -8.96 2.36
5.94 -2.93 3.37 -0.90 3.03 -1.59 2.39 -3.38 4.08 -0.50 -2.08 6.03 -1.52 -13.23 -1.29
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3 -3.28 18.30 -15.02 10.70 -13.60 17.30 13.48 7.94 -4.32 -11.18 6.56 0.12 -20.92 33.66 -26.58 13.16
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0.93 9.49 -8.66 11.00 -11.65 9.27 8.78 2.63 -1.09 -7.59 9.43 1.07 -11.54 15.60 -20.22 7.45
1 3.14 1.56 -2.88 -1.18 -0.56 3.96 -0.42 -1.30 1.32 -0.26 2.52 2.14 -4.12 7.60 -3.22 8.30
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al., 2009; Taaouati et al., 2011),
.

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.
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2
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2014 7
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,”
, 13(4), 296-304.
,”
, 23(4), 419-426.
2- ,” , 20(3), 27-39.
·, 2013, “
1- ,” , 20(2),
1-13.
,” , 24(1), 53-59.
··, 2013, “
,” Korean
Journal of Remote Sensing, 29(5), 477-486.
··, 2008, “
,”
, 22(2), 28-33.
,” ,
7(3), 160-167.
,” , 30(1), 67-73.
·, 2008, “
,” ,
28(3), 315-321.

,” , 18(2), 39-51.
,” , 18(3), 83-92.
·, 2005, “
,” , 12(2), 87-98.
:
,” Korean Journal of
Remote Sensing, 26(5), 571-580.
, 17(4), 71-83.
,” , 32(3),
265-275.
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,” ,
,” , 15(2),
15-23.
- ,”
, 10(2), 1-10.
,” , 19(4), 59-71.
, 20(1), 57-70.
,” , 21(1), 121-131.
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,”
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. http://www.khoa.go.kr/
(: georiver@knu.
University, 80 Daehakro, Buk-gu, Daegu, 702-701, Korea
(e-mail: [email protected])
? 50 2 2015(165~183)
20
*·**
A Perspective on the Sustainability of Soil Landscape Based on the Comparison between the Pre-Anthropocene Soil Production
and Late 20th Century Soil Loss Rates
Jongmin Byun* · Yeong Bae Seong**
: 15 . ‘
?’ .
.
.
, 20
· .
0.05[mm yr-1] , 20
60 . ,
.
: , , , ,
Abstract : It is well known that, since the 15th century, the amount of soil loss in our country due to change in land use by human has increased more rapidly than ever before. However we cannot answer the question ‘How long can the soil persist under the current rates of soil loss?’, because it was dicult to quantify the soil production rate. With the advancement of accelerated mass spectrometry, the attempt to quantify rate of soil production and derive soil production function succeeded, and recently it was also applied into the Daegwanryeong Plateau. Here we introduce the principles for quantifying soil production and deriving soil production function using terrestrial cosmogenic nuclides, and then compare the soil production rates from the plateau with soil loss data after the late 20th century, and nally estimate how long the soil can persist. Averaged soil production rate since the Holocene derived from the plateau is revealed as ~0.05 [mm yr-1], and, however, the recent soil loss rate of intensively used farmlands at the same region is up to sixty times greater than the soil production rate. Thus, if current land use system is maintained, top soils on the cultivated lands over hillslopes especially in upland areas are expected to disappear within several decades at the earliest.
Key Words : soil production rate, soil production function, cosmogenic nuclides, soil loss, anthropocene
2012 () (NRF-2012S1A5B5A01025420), 2014 ‘ ’ ‘
’ .
* (Research Professor, School of Civil, Environmental, and Architectural Engineering, Korea University), [email protected]
** (Associate Professor, Department of Geography Education, Korea University), [email protected]
- 166 -
(Hooke, 2000).

. 18


.

,
.

‘(, Anthro-
pocene)’ (Zalasiewicz et al., 2011).

?

,
15
17
.
(·, 1977; ·,
1987, 1988),
(, 1997),


(, 2003). 17

” “ ()
() ”
(, 2003, 37 ).

,

.


. 7(1398)
26 (1424)
2(≈0.6m)

(·, 2012).


(, 1997, 171).

(,
2003).
,


.

20
?
(Park et al., 2011), 20[Mg ha-1]
1980
. 30%
33[Mg ha-1 yr-1]
OECD 1)
(, 2013).
·
.

,


( , 2012).
, ‘
5 ’
(, 2013).
,



- 167 -
20
.
.

. ‘
?’ ‘
?’

.

, ‘
?’ ‘

?’
.
.
,

(Birkeland, 1999, 171).


(Heim-
sath et al., 1997).
(Byun
et al., in press). 20
,
,

.


,

.


.

, 20 ·
.


.
2.
1)

, ,
, , .
·

.
(horizonation)
(texture)
(. (saprock) ),


B, B
A ( 1).
(
)
(, , , )

(. Jenny, 1941).

(Hole, 1961),

(Bock-
heim, 1980). Johnson and Watson-Stegner(1987)
,
(progressive)
(regressive) ,
- 168 -


.
()

(Heimsath et al., 1997; Heimsath et al., 1999).
( )
,

.
(. , )
,
(Gilbert, 1877; Carson
and Kirkby, 1972; Ahnert, 1976)

.

.


.
,
.

,
.
,
.


.”(Gilbert, 1877, 97)
Carson and Kirkby(1972) Gilbert(1877)
(
(. )

. Ahnert(1976)
.


( 2B).

,

.
(. , )
,
(mobile regolith).
A
B . (weathered
bedrock)
.

.
- 169 -
20
2)


.

(Lal, 1991;
Bierman, 1994; Gosse and Phillips, 2001; Cockburn
and Summerfield, 2004)
(, 2005; ·, 2014)

.
(cosmic ray)

, , 2 ,
(nuclide) .
,
(: 10Be, 14C, 26Al, 36Cl ) .
,
.

,
() .
(Lal, 1991).
P(h)=P(0)e-hρ/Λ (1)
[atoms g-1 yr-1] P(0)
. ρ [g cm-3], Λ
[~160 g cm-2](Balco et
al., 2008) . (1) (ρ
2.
A. Carson and Kirkby(1972) .
. ,
(←) ,
(→) .
(←)
, (→) . B.
Ahnert(1976) . ·

, Carson and Kirby(1972)
( (humped) ).
.
- 170 -
36.8%(≈1/e) 2m 3.6%
, (ρ≈1.3) 1.2m 36.8%(≈
1/e) 4.1m 3.6% .

2m() 4m(
).
(C(h),
[atoms g-1]) (λ
=ln2/t1/2, t1/2 10Be
1.38×106[yr])
(Lal, 1991).
dC(h) dt =P(0)e-hµ-λC(h) (2)
(ε, [cm yr-1])
, (2)
(Lal, 1991).
C(h)=C0(h)e-λt+P(h) 1
C0(h) 0
(t1/(λ+με)), (3)
(Lal, 1991).
0 , (Lal,
1991).

. (5)
ε ,

(Lal, 1991).
(5)
(Granger et al., 1996; Bierman and
Steig, 1996).
(ε)
,
(C)

(P(0)) (ε)
(Bierman and Steig, 1996).
(7)

.
ε= 1 µ
-λ P(0)
(8)
.
,
.
(Heimsath et al.,
1997).
- 171 -
20
(9) h ,
ρ s ρ r ( ) , e
, qs
. (9)
(- δe δt ),
( 3).
(-ρr δe δt ≈∇·ρsq~s)
(δh/δt≈0),

,
(Heimsath et al., 1997).
C(h)= P(h,θ)
θ
h
P(h,θ) ,

.
(10) (- δe δt )

(Heimsath et al., 1997).
,
.
3.


(Byun et al., in press).
,
( 4).

11 2)

7 ( 4).
3),
0.02~0.07[mm yr-1](=2~7[cm Ka-1])
0.05[mm yr-1] .

,
( 5).

0.04~0.12[mm yr-1]
0.08[mm yr-1] .
, 0.03[mm yr-1]
3.
ε ( ), h , e
( ) , qs
. (h0→h1≈ρs δh δt ) (qs)
(∇·ρsq~s≈ε) ( )
(e0→e1≈-ρr δe δt ) .
- 172 -

.
20
. 9 ·
4.
(Byun et al.(in press) )
A. . B. . 11
. (C) (D) ( ) .
5.
A. B.
- 173 -
20
10 (, 2010)
11 (
, 1991) 4, 5
5 (
, 2002). 1,000m 1
-30 (, 1992) 5
(, 2006).

150 (,
2010) .


4),

( , 1991).

( , 1991, 232).
, ( )

2m 4m

( ).

.

0.08[mm yr-1]
( 0.6m, 1.2m)

7,500 15,000 .

,

.


.

.


(Bierman and Steig, 1996; von Blanckenburg,
2006; Heimsath, 2006),
(
)
.
,


(Bierman and Steig, 1996; von Blanck-
enburg, 2006; 6A).
,


(Heimsath, 2006).


.


.

( 6B).
,
7,500
15,000
.
2) 20
.

1970
- 174 -
( , 1976a; e-), 1970

(·, 2007; , 2011)
.

.
1970 ( , 1976b).

,

.
USLE(Universal Soil Loss
Equation) RUSLE(Revised Universal
Soil Loss Equation) .
1985
RUSLE Park et al.(2011),
2013
(, 2013),


(2010),

·(2004) 20


.
ha-1 yr-1] 17.1(1985)-17.4(1995)-20(2005)
(Park et al., 2011).

6. (von Blanckenburg, 2006, Fig 4 )

. A. .
. B.
. .

. (. )
(Heimsath, 2006). .
(Heimsath, 2006).
- 175 -
20
OCED ‘’ .

.
30% 33[Mg ha-1 yr-1](≈
2.66[mm yr-1])5) 50[Mg
ha-1 yr-1](≈4.03[mm yr-1])
20% (, 2013). OCED
‘’
.
,
(, 2013).
, ([Mg ha-1 yr-1], [mm yr-
1]) (47.0, 3.79) >> /(5.3, 0.43) >
(4.3, 0.35) > /(2.9, 0.23) > (0.5, 0.04)

( ,
2010, 7).

, 2004).
([Mg ha-1 yr-1], [mm yr-1]) (38.3, 3.09) >>
(3.18, 0.26) > (1.33, 0.11)
30 .


,

.

60 .
3)
,
. 2)
20 ,
,
60 .


.

?’ .


. (
)
(
)
.
·

(Tc),

, (S) (P)
(E)
(Montgomery, 2007).
Tc= S
(E-P) (12)
,
(0.05[mm
7. (
(2010) Table 3 )
- 176 -
1m ,
8A .
16
, 1m 32
.

, ( , 2010)
(12)
6B .
.
1,300

.
(, 1989)
.
·

(, 1989). 1970


.



.
20
60
.


,
.
(12)

. ,

1970 30
,

8.
- 177 -
20
.

.
30
?
?
?
. USLE
RUSLE
,
.
( , reten-
tion) (Renard et al., 1997).

,

.6)
.

(Larsen et al., 2014),

(. DiBiase et al., 2010)

.


.

, 1970


(, 1982),
.
2,241 7),
230 , 313 , 2,410 ,
330
38( 1 1
1 10
3,800)
(, 2009).
20~25

(, 2005),


( , 2009).
,


,
.
60

.
,


.
.

.
2)

1970

?
,
()
()


.
,
,
- 178 -


(, 1996; , 2007).
.

(inceptisol)
(, 2004).

.
,
()
,

(,
2004).


,
.




.


?
.

.

,

(~2[mm yr-1])


(. DiBiase et al., 2010).
(Heimsath et al., 2012;
Larsen et al., 2014),




.

( , 1999).

(Heimsath et al., 1997)
.
( )



.


.


.
4)
2013



(
, 2013).
.
- 179 -
20


.


.
OECD
. OECD ‘’
30

.
.

,
.



(.
, , , ).

.



.
.
.


(Brenot et al., 2006).

,
. (Bourgogne)




( 9).

,
.


,


.



.



. ,


.


.


.
5.
- 180 -

,

.
0.05[mm yr-1]
.
20

60 .


.


.

,



.
,


.


, ,
.

,

.

.


9.

.
- 181 -
20
,

.
.

. 2012 ()

(NRF-2012S1A5B5A01025420).


5 . 0-5[Mg ha-1 yr-1]
‘ (tolerable)’, 5-10[Mg ha-1 yr-1] ‘(low)’,
11-21[Mg ha-1 yr-1] ‘(moderate)’, 22-33[Mg
ha-1 yr-1] ‘(high)’, 33[Mg ha-1 yr-1] ‘
(severe)’ .

.
.
3)

·(2014) .
4)
. “
1-107. 8
,


.
… 1

20
… .”(

,

.
.
6)


.

,” .
, 14, 21-31.
11, 1-11.
,” , 41, 361-372.
·, 1977, “
,” , 289-330.
, 9, 45-59.
,” , 12, 117-132.
······
·, 2010, “
,”
, 43, 828-836.
, .
, 23, 261-272.
,” , 2,
1-8.
- 182 -
(1965-1979),” , 50,
,” , 39, 544-561.
·, 2004, “
-USLE
CN -,” , 11, 91-
104.
,” , 96, 325-337.
,” .
, 34, 31-57.
, 22, 45-68.
, 2, 183-210.
, 3, 137-185.
,” , 9, 9-16.
··, 1976b, “
,” , 9, 107-113.
·, 2012, “
,” , 21, 71-79.
,” , 94, 453-461.
, 1997, , .
····, 2012, “

: PAM Biopolymer
,” , 24, 30-39.
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,” , 98, 444-
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rsta.2010.0339.
BK21 Plus
(: [email protected])
Innovative Leaders for Creating Future Value in Cilvil En-
gineering, Korea University, 145 Anamro, Seongbuk-gu,
Seoul 136-713, Korea (e-mail: [email protected])
2015. 1. 21
2015. 4. 12
2015. 4. 13
? 50 2 2015(185~201)
:
*
Overcoming the Discourse of Foreignness: A Study on Class Positionality and Dual Identity of Korean Housemaids and Korean-Chinese Domestic
Workers
Soyoung Park*
:
. 27 ,
, - (foreignness)

.
. , ,
, ‘’
(tranlocal anchoring) .
.

.
.
: , , , ,
Abstract : This paper suggests how Korean housemaids, called Sikmo, and Korean-Chinese migrant domestic workers have similar class positions and therefore form a dual identity in their interactions with female employers. rough spoken stories of the experiences of 27 females from Seoul, including Korean- Chinese domestic workers, Korean housemaids, and their employers, this research effectively overcomes the dichotomous discourse of natives versus foreigners. Instead it suggests the new interpretation that it is not foreignness but class inferiority of the domestic workers that plays a key role in establishing relationships with employers. Korean housemaids and Korean-Chinese domestic workers, both groups of whom are migrant workers, have developed coping strategies to enhance their labor value by spatially relocating themselves from their home society to a new society. They possess a similar labor status in women’s history, being of low income, low education, and rural births. Consequently, these women experience ‘translocal anchoring,’ meaning their identities are intertwined with that of their home societies, and employers perceive them based on the characteristics of these places. The Korean
* (M.A. Student, Department of Geography, Seoul National University), [email protected]
- 186 -

. 70


24
.
24
.


.
,
,
(translocal anchoring) .
,

.


,

.
.



(, 2003: 64-65; ,
.
,

.
,


.

-
,
. 60
, ,


.


.



. , (Lan, 2003)



employers perceive that the domestic workers’ morality and intellectuality are inferior based on their class differences. This stigmatizing process leads employers to regard domestic workers as ambivalent people, not only threatening outsiders but also objects of pity, needing love and protection of their employers. e employers educate them culturally, teaching them skills to survive in the urban environment. ese skills include cooking and language, in addition to advice on long-term plans to blend into society.
Key Words : feminization of migration, space relocation, translocal anchoring, korean-chinese domestic workers, korean housemaid
- 187 -
:

. ,

-
,

. ,
,
, ,

.

60
. ,



. , (region), (class),
(system)
. ,

”, “ ”, “

.




.


.

,

(Sassen, 1998). (Sassen
1998; 2000)


‘ ’ .
,

.


,

(, 2008).
(Hochschild, 2000)



.


(Hochschild, 2000).
(Sassen, 2002) ‘ ’


.


.
- 188 -

. 3


.

.


.

. (Lan, 2003)


.


.

(micropolotics)
. (Anderson, 2007)


.
(foreignness)

.


.
-

,

.

.


. (Lan, 2003)
,
,
,
. (Anderson, 2007)


. (Aklan, 2007)




. 1950

60

. “



.

.


.

-
2009). 70

24
(, 2009).

- 189 -
:
“” “” (
, 2009).


(·, 2006).


.
(2009) 80%


.
(2005)

.

,

.

.


(, 2009). ,
(2011)
.


.

. “ ”

. (2005)


. ,



.

.
1960
15 19
(, 2004).

(, 2002; , 2003;
, 2009). (2002) 60


.
(2003)

.


. (2009)
60, 70 80, 90

.


.
60

.


.


.
“ ”
,
“ ,
- 190 -

.


(translocal anchoring) .

,
.


.


.
24



.

,
.

.


,

.


.
,

.
(rap-
port) 4
,
.
,
,
.

.
2 . 2014 3
16 2014 6 14 2
6,
18, 3
2015 2 25 28
2 .


.
1 30 1
2 4
2 .

.

.
,
. ,
.
160 200

.
. ,

, 3
. ,
- 191 -
:

.
20~30
2 16
. -
(maternalism) , -
.
, , ,
. ,
3(, ,
) . 4
, 2
1992
. , 1

.
,
. 3
,
6 1

. ,
,
,
.

1)


.
3

.
, 3 70
.



.


.

.

15 19
(, 2004)
1,130
(,
2002).
(,
2011). 1960 70

.

.
.
[2014.06.12,
()].


.

.

- 192 -

(,
2001).

(,
2004). ,


.




.
.

.
1930
30

.
, ,
(, 2005).

.

, . .
()
.
[2014.06.12, ()].
.
.
.

… [2014.06.14, ()].
. (2009) 90

.


.
() “

.” .
24

. 2000


.

.


(, 2009).

(, 2007).

. 24
80%

(, 2009).


. 1978



.
, ,
(, 1994; , 2005).

- 193 -
:
,
1992

(, 2012).


.


. ()

”, “
.

.

10-20
( , 2006).

. 1970

1980

(, 2011). 90
(
, 2011) ,
.



.


. ()


.
() .

. .
[2014.04.12, ()].
2)
4


()
() . ,

. , ,


.
.
,
1.

(region)
(system) ,
(ethnicity)
- 194 -

60

(, , )
.

.

(
, 2004; , 2011).
,
-
. (2011)
,
‘ ’
. (2004)

.
1 ‘(ethnicity) ’
, ,

.




.
70%
(, 1994; , 2005)

.


(,
1994; , 2005)
. ()
() ,


, .
.
.
[2014.04.06, ()].

.… . ()




.… (2005.03.01,
‘ -2’, :
*)
(region) ,
(system)
. ()

.
“ ”

.



.


.


.
- 195 -
:

. .
.
.
.
. () .
. .

’ .
. “
() ” .
“ . .”
.
[2014.05.04, ()].

. 1
.

.
,
.
.

[2014.04.30, ()].
(class)
(ethnicity)
. ()




.

“,
, ”
. ()

,
.
5. :

1) (translocal anchoring):
,



.
(lived experience)
.
(2001) (dislocation)


.



.


,
.
,
(here)

(there)
.

, ,

.
- 196 -

.
.
.
.
[2014.03.26, ()].

. .
180 180
. [2014.04.30,
()].
.
.
, .

. .
. ()
100 100
[2014.04.15, ()].
“” “ 3”
(class), (system),
(ethnicity)

.

. ,
.
.
() “
” “ ”

. ,

. ()

.

.



. ()

,
.

” “
” .

.
(2014.06.07,
) “
” “
” .


.

,
.
“ ” (,
2004).


,

.


.

“ ”
.
- 197 -
:

.

.
.
[2014.06.12, ()].
.
. ()
… ,
, . ,
[2014.06.10, ()].



.

. ,

.
(
)
. ,

‘ ’
.


.
(Lan, 2003)
.
.


.


. 3
(, 1965.08.13)
‘, , ’
(,
2011).


. ()

” “
.
.” .


.

(mediator)
. ()


.



.

(maternal-
ism) (Arnado, 2003).



. ,
()
- 198 -

.


.
.
.

[2015.02.28, ()].

.
.

… [2014.04.15, (
)].
.

. . “,
.
.
.”
.

[2014.04.02, ()].

.


. () “

.” “
” .



.
()

.


. ,


.

.
.
.
[2015.02.28, ()].
. ( )

.
.
.
.
. “ ”
[2014.05.21, ()].

.

CCTV

. ()

. “

- 199 -
:


.



.

.
‘ ’ CCTV
,

.


. ,
24
‘’

. , CCTV
.

()
CCTV
.
CCTV
.
. .
. ()
. .
CCTV

.

… [2014.04.15,
()].
CCTV .
.
. .
.
.
[2014.04.06, ()].
.
. ,

.
,


.
, ,
, ,
. ,



.

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.



.
- 200 -

, ,



.
-

.

,



.

. ,

.


.

. ,

.



. ,


.
, CCTV



.

.


.

,” 201, 10(4), 71-106.
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,” , 46(4), 96-136.
, 2009, “ ,”
, 82, 213-247.
, 43(1), 181-236.
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,” , 23(1),
35-72.
,” , 11, 81-107.
, 2008, “
,” , 15, 40-63.
, 2009, “
,” , 69-91.
,” , 24(1),
115-144.
,” , 23, 2007.
, 2003, “ ,”
, 14, 251-278.
,” , .
, 2005, “
,”
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, .
, 27(2), 121-153.
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274.
(: [email protected])
phy, Seoul National University, 1 Gwanak-ro, Gwanak-gu,
Seoul 151-742, Korea (e-mail: [email protected])
2015. 3. 4
2015. 4. 10
2015. 4. 11
: 2005 2012
*
The Changes of Urban System Reflected in Daily Movement: 2005-2012
Seungho Son*
: .
,
. 2012 ,
.
.
.
.
.
, .
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: , , , ,
Abstract : This paper examined the changes of urban system through the network and the f low pattern reected in daily movement in Korea. Because daily movement reects trip pattern, urban system formed by inter-city linkages can be recognized in terms of living sphere. While population movements between cities have the number of linkage systems of city network and the number of traffic regions composed of the origin and destination has increased respectively. Nevertheless, spatial extent of Capital region and Busan region has been expanded. In Gangwon-do in which Seoul-oriented high-speed transportation network has developed, separation of living sphere between Yeongdong area and the Soyanggang cultural region formed around Chuncheon was intensified. Living sphere that includes Daejeon and the surrounding cities has been expanded to the southern Gyeonggi-do. e existing living sphere formed in Jeollanam-do was fragmented into the east and west around Mokpo and Suncheon due to the weakened centrality of Gwangju. Living spheres formed by spatial interaction were consistent with regional administrative boundary. Considering the increased interaction between Seoul and its surrounding cities, the development of global city-region centered on Seoul is expected.
Key Words : person trip, urban system, regional linkage system, ow pattern, network city
* (Lecturer, Department of Geography Education, Korea University), [email protected]
- 204 -

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39.
, 2009,
.
, 2000, “
Ayeni, B., 1979, Spatial interaction in the urban system,
concepts and techniques in urban analysis, Croom
Helm, London, UK.
313-327.
Florida, R., Gulden, T., and Mellander, C., 2008. e rise
of the mega-region, Cambridge Journal of Regions,
Economy and Society, 1(3), 459-476.
Ma, X., and Timberlake, M., 2012, World city typologies
and national city system deterritorialisation: USA,
China, and Japan, Urban Studies, 50(2), 255-275.
Marull, J., Font, C., and Biox, R., 2015, Modelling urban
networks at mega-regional scale: Are increasingly
complex urban systems sustainable?, Land Use
Policy, 43, 15-27.
Trullén, J., Boix, R., and Galletto, V., 2013. An insight on
the unit of analysis in urban research, in Kresl,
P.K., Sobrino, J.(Eds.), Handbook of research meth-
ods and applications in urban economies, Edward
Elgar, Northampton, MA, 235-264.
(: sonsh@korea.
Education, College of Education, Korea University, 145
Anam-ro, Seongbuk-gu, Seoul 136-701, Korea (e-mail:
[email protected])
: ‘ ’
*
Tourist Photography as Representation and Performance: Focused on Rubber Duck Project Seoul
Jeongjoon Oh*
: ‘’, ‘’, ‘’, ‘’ ,
. ,
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.
. ‘
’ , ‘ ’ ,
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Abstract : Seokchon Lake, and the area surrounding it, have become symbolic with an environment of ‘peace’, ‘delight’, ‘happiness’, and ‘healing’ due to the large oating yellow rubber duck which sits within the lake. There exists, however, a hidden intention of a large corporation who wishes to make benefit of this installation and its healing properties. Nevertheless, the lake has become a hot destination for people to come and see the rubber duck and take romantic photos with it. The photographs taken and shared further expand the popularity and romantic environment of the duck and lake. is process is a perfectly hermeneutic circle. Self or group mediation through photographic performances with the rubber duck has allowed the lake to take on new meaning to visitors. For families taking photos together it has become a place of family bonding and love while for couples of any age it has been transformed into a place to express their love through pictures together with the duck. Even for selfie generation it has become a destination and muse. Tourists are not merely written upon, but are also enacting and inscribing places with their own stories. Therefore, photographic performances produce rather than consume and ref lect geography of Seokchon lake.
Key Words : tourist photography, representation, hermeneutic circle, performance
2012 .
* (Associate Professor, Department of Geography Education, Daegu University), [email protected]
- 218 -

241). ,1)
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