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(1)Journal of the Korean Chemical Society 2004, Vol. 48, No. 1 Printed in the Republic of Korea.     

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(5) ). †. †. The Development of Students Argumentation in Science Context Soonmin Kang*, Jaihang Lim†, Youngtae Kong †, Jounghee Nam †, and Byoungsoon Choi Department of Chemistry Education, Korea National University of Education, Chungbuk 363-791, Korea † Department of Chemistry Education, Pusan National University, Pusan 609-735, Korea (Received July 21, 2003).  .   CASE        ! " #$ % ! &  '( )* +,-. /0123.  ! &4 ‘56 ! &’ ‘ ! &’7 89: 7;, 3< ! & =>? @AB3.  ! & CD E4 FG HI+ J.AK L:7;, MN  O? PQ7 ERS "%A T ! UV WXY L:3. Z ‘56 ! &’ => @ 13 ‘ ! &’ => [ \] ^23. CASE ? _` a  ‘ ! &’ [  \] E7 b0c7;, dPe fdP \fdP 13  g + h7i  )+ jk&AB3. l. T mn ! op &q rs tuU  op \] vw7 b27i aU " x y qU  ‘ ! &’ op\] b0c3. : [K , l.z{, ! & ABSTRACT. The purpose of this research was to investigate the change of argumentation of middle school students when they participated in argument tasks with CASE(Cognitive acceleration through science education) programs. Students argumentations were divided into two categories; 'explanatory argumentation' and 'dialogic argumentation'. Several argumentation components were used in their argumentation. Among argumentation components, claim and ground took place more than half of argumentation components. The percentage of 'dialogic argumentation' was lower than the percentage of 'explanatory argumentation'. The percentage of 'dialogic argumentation' was getting higher during CASE intervention. CASE programs had more effect on symmetric group than asymmetric group, however it was unstable. In general, participation ratio in argumentation of the formal operational student was high and the ratio in argumentation of the transitional student was getting higher. Keywords: Teaching Thinking, Cognitive Development, Argumentation.      , 

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(13) L? ž3. EÒu? ùt [KÀ E   > µ Ã7 –  I “"#$À,  ÅÂ, #À ¨ 0—¶ ! UV  ’À z {? 1pFK L3. Kuhn4  [K Æ?   (Science as exploration)¶U 13 !  (Science as argument)7 56A»K A B3.  ‚.  ‡ Uy 0—¶  [Ð EÒu? | ! & .s FG  5 F ‰3 ž3. Ç,   q l. ‡‹ ! e [K &  ; 3n [Ù  MN [K* Yò &? |# z{ @zAS ¯'i; U† ·AU U, AU, U¨!i   = "`* J .AK L3.  EÒ Ü ¯'i ! & ‡ 4 [Ð !† ò ! [ $ [K z{ ùÀ Pâ? ùtA;, [Ð # û€+ ¼l ò $ì9U* ¶ ò [K v% ? ©%  R&? "÷3. ! &? 'ã  4  [K ©* =A¸, Y  © Ü€ (© ò€ (©7 8. 9. 10. 5. 11. 12. 11. Journal of the Korean Chemical Society.

(14)      .  Ž? =3. MN O? ©AK MN  N½? ..º UÐ+ 3© MN [K*  ž4 j+’A3. ŽÜ EÒu4 ¼½ z{ Î &l g * +,) ¨ 0—¶   *  F= }~ AK L \+ [K UV? E%   ž7 1K9:3. l. ‡‹ ! e4 [K &  ;, ÷¼l Å &? |# z{9'.;   [K* E% U "# +G g l R&4  ? [K & ‡pº UÐ* MF pA ž;  P7 ! & @4 pY  ¼½  # ..,K L3. Yi  -G  & E  “", €K [ ls .7 j vw   1% &q þ ! &4 @9. /ã7  ! z{4 R#,K L3. Y ! & z{ &i  Mw 80 ‡ 4 L' -7i ! &  ?¤l (© ‡ . . Q3. Z Ø'l

(15) Hi °   ! & @   1 L7i Osborne  ·_Ÿ “!+  4 2I€  >5 Û3” ·q jAK  ! & [4 õ 3ë'.. §23. m¶      EÒu? ùt [KÀ E l CASE   Æú  Ü EÒ u õ4  ¯ * 3&Ap 45A©  ! & '( Æ e i°i.  ! UV '6S z{# i +. /0123. 13. 14. 15. 16. 17.      

(16) . 7¹% "` pM 28 p9 D? E7  U Žk CASE Thinking Science   EÒu õ4   6¼* 3&Ap 45A©   186 ?  µ: 36; 6¼ µ:7 QeAp  45 v ! " Ai, 45 Ü Š ¼ ! ", € K 45 < a Ai "* Ã%AB3. v   $  A© => [ ! & L' J  I :3. ! " Ã% E 4    [KÀ l. T  ‡ý* (&A U "# Chelsea  CSMS ? # ¼z‰ 14. 2004, Vol. 48, No. 1. 87. Table 1. Cognitive development levels Piagetian cognitive development levels. Cognitive development levels in SRT. Preoperational stage Concrete operational stage Formal operational stage. 1A, 1B 2A, 2A/2B, 2B, 2B/3A 3A, 3A/3B, 3B. * Ap l. T? (& @ 3¼ µ:4 w tuUi qU #AA  e(fdP; symmetric group)A BK, iW. 3¼ µ:4 aU rs tuU  16 w tuUi qU L  BpLq y e(\fdP; asymmetric group)AB3. í0"  l.z{ T SRT 8 l.z{ T \ Table 1 Û3. 4 ! "+ C D * ,7©    6 “"* K E% OA  %Ü? +ì @ [ ¼5  MFGS MN O? UVA; ã “"* #$# i+qy AB3. [  “" E ? H/ #AIi I4 H #A. /º •, €K  qó? J º •¨ DKAK   ¯w ! & ¼5A. §23. ! %Ü4 “"+ #$ LiIi ª E ! ìv ? •M. %Ü "N? Š. §K Ã%9:3. ! " M¤%Ü, R a, I4 ‹ %Ü? Ap Ã%9:7; G> F à  ë'c3. µO ! &4 PÞ9' v[9:7 ;, [ Q RE  ! &? ‡A;  8"U* UyAB3.   . ! "4 Shayer† Adey  # ¼z‰ CSMS 8SÓ Osborne È # ¼ z‰ ! " ¼zÓ  HIAp    ! " 4D? ¼zAB3. ¼z‰ ! " ¯‡e? ˜.AU "# CSMS 8SÓ HIAp ÏU rs tu !€* =A “¿7 "u9'c7; ! " Ë* +.U "# I   +.  E 56 "%+ 'ã9',T A Osborne 10+ . ! " ¼zÓ  ‘UE, ‡ €K 56’ Ó HI ¼z9:3. €K &  VÊAK #$ & 6W    H t‰(well-structured) r “¿7 e9:3. O “¿4 ÜP ²“ 1U e9'c7; “¿ #* XU "#  Yq Û "%9'c3. ¼z‰ ! "  SRT(Sicence Reasoning Test) III18. 18. 12.

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(18) . 88.   . Fig. 1. A simplified version of Toulmin’s ‘Framework for argumentation’.. v“+ 4l7 – k© °Aq* Z ,27;, ÿ q µ:? eAp U\ Z[* Ã%,  ò? &ö1<Ap [AB3.  .  ! &4 U7 Toulmin  # 9'ì ! & => HIAp 809 'c3. Toulmin ! t A© µŠ 6¼ ¼ ½ ò. => e9' L¸ FG(claim), HI (data, ground), 1G(warrant) Ul =>† FG   t[† ý* 56A D(rebuttal), 1ù (backing), &(qualifier) 1tl => e9' L3. Toulmin ! & Ó4 Fig. 1 Û3. !  Æe4 U7 ER  EÒ ‡ý* \Š ] ž.¨, Toulmin ! t  W Æe(monological argument) ùA3. ! &  80? "# û€ 56 ! & =>(explanatory argumentation components) Toulmin UÓ? [ ABK, EÒu (©? DÉAK L ! & 7  ! & =>(dialogic argumentation components)* Å^AB3. \y ! "4    H t‰ r e9'c.¨ Toulmin  qs4 _ ‰ E  !q i°” L7¥ 80 % ! R  “" E  ` 'iª¶q “" #$? " !¶K O9© 80  'ã%a3. Yi “"† vb E‡ [l ñ#i ¼ll zØ4 80 'ã% . §23.  ! &4 M # µŠ v[9'c 7; M* 'ã  v“+ 4l µO 8 0 & opAp c # ! & =>? Å ^AB3. CASE  45 mn ! UV z {? de1U "# O ! & =>ÿ [ \] O "ÿ 809' c7; l. Tÿ 56 ! †  ! [ \] "ÿ 809'c 3. €K µ: e mn 56 !†  !  [ \]? /01U "# f µ: \f µ:  ! & ) Z 809'c3. 19. 20. 21.      ! & ‡ pY   8 M 4 ! &? S Š (©7 iƒK L3.  M m¶ [A ' tf; 3¦.¨ W !(monological argument)†  !(dialogical argument), [ !(rhetorical argument)†  !(dialogical argument) €K ¼l "(individual activity)† [Ð "(social activity)  iƒ'.K L3. Yi Billig $ !¶ ž4 Y Š !  [ $¶ FGAB7;, Kuhn4  $ [K z{ ùÀ P g? ùtAB3. û€ Y ‡‹ h? ŠK  4 +. ! "* #$A Žk  # @e9 ìV =>? Š (©7 iƒ' 80AB3. ij 56 ! &4 MN O? 3n S 5 ç% U "# [ ìV3. 20. 14. 21. 22. 11.    )(C; claim): FGA [Ù MN k#* l ú Ai ìV I4 °l ..* ¬U "# ò‚ ® Ai ìV *+(G; ground): FG? q^AU " !I [ Ãi U, M I4 ¼ll k# )(W; warrant): "%‰ HI+ FG? &Aº L &A ˜ ,(B; backing): HI† 1G 13 ª M‚ M * "÷A ..“ (Q; qualifier): ! ùq* ~A ìV“ -.(R; rebuttal): FG , HIi MN !  D9 E&l ! Y ! & =>4 Toulmin  HI* ] žU A.¨ dP ò [ >| EÒ ‡ý * î+AU "# Kempa # ¼z9'ì  # 80 %Fm  ¼lÜ U’e(interpersonal functionality)  (© de P& [ >| => q ˜ [e? 1pFK L3.  =>4 EÒul Æe ? +.K L7i  R  EÒ¶U 13 PR l Æe? +.K L3. 3Þ4  ! & => Kuhn4 noM  ^p a 3% Úp7 q0+S 9 ˜ È  •. 23. Journal of the Korean Chemical Society.

(19)      .  ! & 8014 MN k# &Ae? " ÷A ž D !* |# 3n [Ù k#* D rA ž? c#  ! sÍAB7i  8 0 Dr „û  0—¶  ?¤ (©  ìV e² EÒul, Ç tR l „û µŠ*  ! & => Å^AB3..    )/0(QC; Question on Claim): ER FG  ²“ *+/0(QG; Question on Ground): ER HI   ²“ 12-3(SO; Simple Opposition): HI  ER  k DA ìV“ *+-3(GO; Ground Opposition): HI* ; E R k DA ìV“ 45 6 4578(RR; Request and Response): FG ²“i HI²“  “" E  Ê56i '  56 È Æ& K ? =AK K A ìV“ 12 97(SA, Simple Agreement): u4 DK7 E R FGi HI Î&7 DKA ìV“ ,: 6 

(20) :(RE, Reinforcing & Elaboration): E R FGi HI* 1vAIi Ê&€Ap Î& 7 DKA ìV“ ;</0(MQ; Metacognitive Question): ER I4 µ: ! & # 3% OAS A ²“ ! &  z µO ìV4 E ! •. 89. & => wx9' 809'c3.. 

(21)  ! " 1 – 4M. fdP \fdP [ 9'ì ! & => yq† \]4 Table 2† Û3. vw ! & [9'ì ! & => [  \]4 Fig. 2† Û3. ! "* #$# i+ Žk  ìV 50% E4 FG HI ë' c7;  8 56 ! & õ4 %Ü? ºzA B3. Æú ÏU " 6{ HIq  FG¨ |'}3+ !* Lò q L:7; 56 ! & MN FG HI* ~,º L 1G, 1ù, &, D È => @4 õ. § 23.  û€ à  Rs ! &? @ AIi ˜qA r+ 0—U •“¯ ž3. . Fig. 2. The percentage distribution of the argumentation components.. Table 2. Frequency of the argumentation components Argumentation components*2 Explanatory argumentation components Frequency(percentage) Task group*1. C. G. W. B. Q. Dialogic argumentation components Frequency(percentage) R. QC. QG. SO. GO. RR. SA. RE. MQ. 1. Sy 38(60.3) 17(27.0) 4(6.3) 3(4.8) 0(0.0) 1(1.6) 4(14.8) 1(3.7) 5(18.5) 5(18.5 5(18.5) 6(22.2) 0(0.0) Asy 35(50.7) 16(23.2) 2(2.9) 1(1.4) 14(20.3) 1(1.4) 8(25.0) 0(0.0) 0(0.0) 7(21.9) 9(28.1) 7(21.9) 0(0.0). 1(3.7) 1(3.1). 2. Sy 47(68.1) 15(21.7) 0(0.0) 3(4.3) Asy 31(54.4) 18(31.6) 3(5.3) 4(7.0). 3. Sy 13(33.3) 17(43.6) 2(5.1) 5(12.8) 2(5.1) 0(0.0) 8(18.6) 0(0.0) 2(4.7) 12(27.9) 9(20.9) 4(9.3) 2(4.7) 6(14.0) Asy 21(36.2) 22(37.9) 6(10.3) 4(6.9) 4(6.9) 1(1.7) 2(5.9) 2(5.9) 2(5.9) 8(23.5) 10(29.4) 2(5.9) 4(11.8) 4(11.8). 4. Sy 35(50.0) 26(37.1) 3(4.3) 6(8.6) Asy 32(52.5) 24(38.2) 2(3.8) 3(6.9). 2(2.9) 2(2.9) 13(31.0) 0(0.0) 2(4.8) 5(11.9) 9(21.4) 6(14.3) 1(2.4) 6(14.3) 1(1.8) 0(0.0) 7(23.3) 0(0.0) 1(4.2) 4(12.5) 5(19.4) 4(13.9) 2(4.2) 7(18.1). 0(0.0) 0(0.0) 9(19.6) 1(2.2) 2(4.3) 0(0.0) 0(0.0) 3(12.8) 0(0.0) 0(0.0). 3(6.5) 16(34.8) 9(19.6) 4(8.7) 2(4.3) 2(4.2) 21(43.8) 4(8.3) 7(14.6) 11(22.9). *1 Sy: symmetric group, Asy: Asymmetric group, *2 C: claim G: ground W: warrant B: backing Q: qualifier R: rebuttal QC: question on claim QG: question on ground SO: simple opposition GO: ground opposition RR: request and response SA: simple agreement RE: reinforcing and elaboration MQ: metacognitive question 2004, Vol. 48, No. 1.

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(23) . 90. 4 MN FG? ÜPú ìVA¸ '€ &q ´ # 1i  FG? 3n [ÙS !€7 5ç % ¸ ´A. §4 ž Û3.  ! & \] Z € b. §4¸  ¹% 3n   O? ¸ ´A. §4 à ‚*  DÉA K L3K 1pì3..       ! & ï=e  ! õ  L' -.¨  ¤ R&7 ! & µä  q54 õ. §23. Sunal È4 ! UV z{? "  ¤ v%7 Shayer† Adey # ¼z ‰ CASE Thinking Science  +’e? Ø üAB3.   S Thinking Science   6¼* _`A Žk  [A ! & => '6S )A. 80AB3. O "ÿ ! & => [ \] ) Fig. 3   i°ò:3. " 14 Thinking Science   _`9U v7 4 vw ìV N 70%* 56 ! & => ºzAB3. Thinking Science ? _`A Žk Ã%‰ ! " 56  ! & => [ \]4 2'K  ! & => [ \]4 +AB3. Yi " 4  +] D i°ƒ7i  "  %U + U·:K, "+ =A l. T4 rs  tu !€ v Ž¯×7i "+ u4 “" 2¼  ë'cU •“l ž Û3. Y $  CASE  ! UV E? " q +’e ? „%3. µ:ÿ ! & => )* de1© Thinking Science  _` v " 1 f dPi \fdPi Š ! & => [ \ ]4 I \AB3. Yi  _` Ü ! "* Ã% $ , fdP „û 56 !  &  ! & => ) \fdP 13 ; " 3 „û fdP Œú»   ! & => @ \] ª ì ž? 1 L3. \fdP „û )]4 fdP13 7 i " 4q Tú 56 ! & => \] 4 '.K LK  ! & => \]4 b0 .K L3. '( r µ:¶q CASE   g  i°iK L7i fdP „û PU l g  .¨ k&. / D© \fdP 24. Fig. 3. The percentage distribution of the argumentation components in the two types of argumentation: explanatory and dialogic argumentation..  „û  g + €€S i°i.¨ k&l ž7 i°ƒ3..      O ? l. Tÿ " m¶ '( ! & =>? õ [A. 80Ap 123. Fig. 4 Journal of the Korean Chemical Society.

(24)      . 91. Fig. 4. The percentage distribution of the argumentation components of each student by cognit..  56,  ! & =>† €K vw ! & => O "ÿ [ \]? i°òK L3. 2B † 2B/3A 4 aUw tuU† qU L 7 í0"s l.z{ Pý w tu P ý L ;, 3B 4 aU rs tu ’ À? +.K L 3. ! & op vw  186  2B *A  76, 2B/3A  86, €K 3B  36:3.  ! "(Task 1) l. T E‡ 5 6 ! & => [ \]4 \AB7i   ! & [ \] 3B  op+ õ 23. vwl op &q 3B  ! & ? FqAK L3. " 2 „û 56 ! & = > [ \]4 S )+ 7i  ! & => [ \] 2B/3A  op+ ŠY. S |'iK L3. vw7 12? •q 2B/3A   op]4 3B  † J* 1pF. §K L 3. Y ) " 3q i°i¸ " 3  vw ! " op]4 3B  õ.¨  2004, Vol. 48, No. 1. ! & op]4 2B/3A  õ4 ž7 i° ƒ3.  CASE Thinking Science  g + qU L S ª -jAS i°=? 1 pT3.  l. T ^4  ! UV L ' † )+ :ß Kuhn  $ † ¯`3. Yi Y ) .4 € z{ ‡‹  ) .7 56AU13 ! & op º UÐ "÷ Ãá ¯Dl à ф DÉ: 3. aU " x y 3B  56 ! & => [ \]4 |'iK L¸  E7 2B/3A   ! & op \] b0. U •“7 1pì3. vw7 ! & opA \]4 3B  " E‡ b27; vwl op] † ) +  k&:7i aU " x y  !  & ¹º? l. T ^4 S ևF :3. 2B/3A 4 aU " x y  !  & opA \] b0c7i 2B  „û vD7 ! " op] 3n  \# j. 14.

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(26) . 92. tAB3. Voss+ FG † Û Å ˆ ! UV 4 ¯D  ’À i, €K  .s HI 3 K 12? • 3n l. T  \# 2B  ! op] jt Ë UE9:7i Thinking Science  g Z 2B  S S i°i. §23.  ! "+ =A  T FF #$AU '»® rs tu !€* =A; MN13 l. T b4  ã ! & opã7‰ U ŠÈÚ ‹q L? ž 3.  w tuU S qó ô L  ! " ¼z -Ê  ф ! & opº L 3< UÐ* "÷º Lqy  ¤ v%  ¼z‰3© 2B  ! UV Z z{º L? ž¶K 3. 25.       EÒu * i°” L ! & =>* 80AK, Thinking Science  ? _`A©  ! UV '6S )# +.* t[AB3.  ! &4 56 !  &  ! &7 89' c7; vw 7 56 ! & => [  ! & => [13 õ23. vw ! & CD  E4 FG HI+ J.AK L¸  0Ô MN O? PQ7 ES "%A T ! U V WXY LÞ? / L3. MN O? !€ 7 56AK "%º L7; 3n  O? F ŒS K E  S DrAIi I4 ÒKA UV ¤ç4   ï=A.¨ ›S +¦Ž . ž 0—3. Yi ! &  4   Å UV  0—¶  ò ¤çq E Êl ç ‰3 (©    ! UV z{4 ï=A3K O‰3. Thinking Science ? _`* ,4 a    ! & [ \] E7 b0c3. Æú fdP \fdP 13 [ \] )+ h7; . " \fdP4  ! & [ \] Tú +AB7i fdP4 Œ ú» 3% Ú>AB3.  " Ã% %Ul “ "† “"+ +ì Æe •“7 1p.¸ fdP  „û µŠ w tuU  ë', L7 25. ¥ “" #$ E  m¶ jk& µ¤? 1B3. ! " #$% µ: Qe4 '6S QeA ž ª g l.   6{ú $Â? ò‘  7i   " l. T rs tu !€* =AB7¥ rs tuU  '㠉 µ: k&‰ )* 1B3. Yi " Æ e m¶  $  {¶² ž7 1; ! & ‡ õ4  l. T  K»+  + ì‰ žq Y ˜ 1pì3. a µ : Qe " Æe  ‡ˆe ‡ + ï= A3. l. T mn ! & op] _Þ "  rs tuU  vw ! &  ! & op] b27i Thinking Science   _`9© vw ! & pvú r s tuU  op] b27i  !  & L' qU  op] )+ ™  ’:3. pY  $   ! &? ù ! Z g  ! = => l&AK L3 (©,   ! & UV z{  Thinking Science  g + qU  S +G † ž7 O9'ì3. .fM. [K UV? +¦`U "# ¼z‰ õ4   4 [K &  Ô

(27) ‡pA qy AU13 P“ú «4 [K+ ”•l. # +¦`¸ ϋ? Å:3. Z .s ɹ ò ò æç¨7  [K z{? 56AU '¡3. Ž Ü EÒu ‡ 4 ÜI EÒu? xÈ –Ž Š (©7 P“%  „  L3. Yi û€ 80_Ÿ  Š +. r E ž l. z{ EÊ UpM VÊ º LÞ? Oº L3.   ! & =>? @ ¾®  v% ¼z  ? ¤ R& q54  ! UV l. z{ † Up* AS ô ž¶ O‰3. 12 23. 26. 15.  ! 1. Nisbet, J.; McGuiness, C. Teaching Thinking & Problem Solving, 1990, 12, 12. 2. Balin, S.; Case, R.; Coombs, J. R.; Daniels, L. B. J. Curriculum Studies, 1999, 31, 26. 3. De Bono. de Bono’s Thinking Course. London: BBC Journal of the Korean Chemical Society.

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