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新規がん抑制遺伝子型microRNAの探索と創薬への展開

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(1)Title. 新規がん抑制遺伝子型microRNAの探索と創薬への展開( 本 文(Fulltext) ). Author(s). 中本, 航介. Report No.(Doctoral Degree). 博士(農学) 甲第687号. Issue Date. 2018-03-13. Type. 博士論文. Version. ETD. URL. http://hdl.handle.net/20.500.12099/75245. ※この資料の著作権は、各資料の著者・学協会・出版社等に帰属します。.

(2) ưʨOƇéˬ¹ĺĦ microRNA :ƙɡ6 ïʖ>:Œ˻. 2017 Ţ. ŕ˾ijļijļ̂ˢČ˖ļɁɋɆ ȣȘˇȇɆļŋƨ (ŕ˾ijļ) ¥dž ʌ³.

(3) ưʨOƇéˬ¹ĺĦ microRNA :ƙɡ6 ïʖ>:Œ˻. ¥dž ʌ³.

(4) Ȼ Ǟ ȫʺʠ. ɑ 1 Ɏ Ŧʾ. 1̤1 RNA Šȁ. 1. 1̤2 miRNA 6Ȳø. 2. 1̤3 miRNA 9GJǘȵ mRNA :ʸˁ. 3. 1̤4 a™€›mNȥ.ǘȵ mRNA :©Ȇ. 4. 1̤5 ǘȵ mRNA N©Ȇ)Jȑ:Ł̠ȵ8ƅǯ. 5. 1̤6 ×ąŹźǡĩ. 8. 1̤7 t”•X—o•fQf”™. 8. ɑ 2 Ɏ ×ąŹźǡĩNōÙ'.ưʨ RNA ƒ—›‚:ČƁ6,: RNA ƕȞʀ. 2̤1 ×ąŹźx]–XeuQv—^Ą=,:Q‹nSt½:ČƁ. 11. 2̤2 x]–XeuQv—^ 1 G= 2 NōÙ'. RNA ƒ—›‚:ČƁ 17 2̤3 Qv—^ 1 G= 2 NďCªdž˸:ȖȵĽŀź. 18. 2̤4 RNA ƒ—›‚: RNA ƕȞʀ. 22. 2̤5 Qv—^ 2 NōÙ'. miRNA ƒ—›‚9GJˬ¹ĺȳȠƇéʀ:ǔʴ 25 ɑ 3 Ɏ ×ąŹź miRNA ƒ—›‚9GJǘȵ mRNA :ƕȞ. 3̤1 miRNA ƒ—›‚:ʲʯ. 27. 3̤2 miRNA ƒ—›‚:˯æ. 28. 3̤3 Qv—^ 2 NōÙ'. miR-145 ƒ—›‚9GJǘȵˬ¹ĺ: Ƈéʀǔʴ. 30. 3̤4 Qv—^ 2 NōÙ'. miR-145 ƒ—›‚9GJǘȵ mRNA :ƕȞ 33.

(5) ɑ 4 Ɏ ×ąŹźǡĩĄ=Vow•ĩNōÙ'.ưʨ RNA ƒ—›‚:ČƁ6,: RNA ƕȞʀ.  4̤1 ™j™Ȣ9fQf”w•ĩĄ=Vow•ĩNǁ)JQ•a›•ʹō ½:ČƁ. 36.  4̤2 x]–XeuQv—^ 25 Ą=,:Q‹nSt½:ČƁ. 37.  4̤3 Qv—^ 25 NōÙ'. RNA ƒ—›‚:ČƁ. 38.  4̤4 RNA ƒ—›‚: RNA ƕȞʀ. 38.  4̤5 Qv—^ 25 NōÙ'. miRNA ƒ—›‚9GJˬ¹ĺȳȠƇéʀ:ǔ 39. ʴ  ɑ 5 Ɏ cRGD a™f`›t:ČƁ6,:ˬ¹ĺȳȠƇéʀ  5̤1 miRNA ùʖĖ:˻ȳ. 42.  5̤2 ǐ˲ùʖĖ:s”|”›. 43. 5̤3 džɁɋ:Ȼȵ. 45. 5̤4 cRGD-siRNA a™f`›t:ʲʯ. 46. 5̤5 Q‹zÊ̞Q‹nStĄ=ġȽü½:ČƁ. 47. 5̤6 g†›c›Q‹nSt:ČƁ. 47. 5̤7 Q‹zÊ̞ RNA :ČƁ. 48. 5̤8 RNA54 :ČƁ. 49. 5̤9 RNA55 :ČƁ. 51. 5̤10 RNA56 :ČƁ. 53. 5̤11 cRGD-siRNA a™f`›t:ɣɿʆ˞˦ź. 55. 5̤12 cRGD-siRNA a™f`›t:ˬ¹ĺȳȠƇéʀ. 57. 5̤13 ‰”Q‹™Ê̞ cRGD-siRNA a™f`›t:ČƁ6ˬ¹ĺȳȠƇ éʀ 5̤14 x]–Q›jɸź miRNA :ČƁ6ǜʀʵÄ. 59 62. ɑ 6 Ɏ ɧʺĄ=²Ű:Œǂ. 41.  6̤1 ɫƏ. 66. 6̤2 ²Ű:Œǂ. 68.

(6) ɑ 7 Ɏ Ł̠:ʷɣ. 7̤1 ÀȥǜĜĄ=Àȥʶʖ. 69. 7̤2 x]–XeuQv—^:ČƁ. 72. 7̤3 X”bx]–Xou:ČƁ6ɚʤ. 85. 7̤4 Ȗİźǯ9GJ 50 %ʙʬȅŧ (Tm) :Ȇŀ. 86. 7̤5 Dual luciferase reporter assay. 87. 7̤6 RNA ƕȞʀ:ʵÄ. 88. 7̤7 TUgm™‚—prR™^9GJˬ¹ĺƇéʀ:ʵÄ. 88. 7̤8 miRNA ƒ—›‚9GJǘȵ mRNA :ƕȞ. 89. 7̤9 cRGD a™f`›tX”bx]–Xou:ČƁ. 89. 7̤10 ɣɿʆ˞˦ź:ǔʴ. 90. 7̤11 ˬ¹ĺȳȠƇéʀʶ̠. 90. 7̤12 ƉʄȰǵźʵÄ. 90. 7̤13 x]–Q›jɸźʶ̠. 91. ăɶƭȝ. 92. ˀ˕. 99.

(7) ȫʺʠ. džɁɋÚʍ9ȥ.ȫʺG=ȫʱĊ;·Ÿ9Ʉ)˟I5J Ago. Argonaute. APS. ammonium peroxodisulfate. CPG. controlled pore glass. DIPEA. N, N-diisopropylethylamine. DMAP. 4-dimethylaminopyrideine. DMF. dimethylformamide. DMSO. dimethylsulfoxide. DMTr. 4,4-dimethoxy trityl. ds. double strand. EDTA. ethylenediamine-N, N, N’, N’-tetraacetic acid. MALDI-TOF. Matrix Assisted Laser Desorption Ionization-Time of Flight Mass Spectrometry. MASS. MASS spectroscopy. MeCN. Acetonitrile. MEM. minimum essential medium. mRNA. messenger ribonucleic acid. n-BuLi. n-butyllithium. NMR. nuclear magnetic resonance. OD. optical density. PAGE. Poly-Acrylamide Gel Electrophoresis. PCR. polymerase chain reaction. RNA. ribonucleic acid. ss. single strand. TBAF. tributylammoniumfluoride. TBDMSCl. tert-buthyldimethylsilyl chloride. TBE. tris-bornic acid-EDTA. TEAA. triethylamine-acetic acid. TEMED. N,N,N’,N’-tetramethyl-ethylenediamine. THF. tetrahydrofuran.

(8) TLC. thin-layer chromatography. Tm. melting temperature. TMSOTf. Trimethylsilyl Trifluoromethanesulfonate. Tris. tris(hydroxymethyl)aminomethane. TsCl. p-toluensulfonyl chloride. UV. ultraviolet.

(9) ɑ 1 Ɏ Ŧʾ 1-1 RNA Šȁ.  RNA Šȁ (RNAi; RNA interference) 6;ɣɿÜ>ōÙ&K.ªdž˸ RNA ˊȐ681 4˯æșȭȵ9ǘȵ mRNA äʬ&KJȠ˃5J$:Ƞ˃ǀç9ĪĒ&K.:; 1998 Ţ5IFire 6 Mello H;ɬʗNȥ.ɁɋH$:Ƞ˃Nʧã'. 1,:ŰƷ ʗʒ̚ʦ̚ɣɿäʡ˱ǣƒ“v”Q875EčǗ:Ƞ˃ʪŇ&KRNA Šȁ Ť!ɀHKJG981.$: RNA Šȁ:ȳʧ9GIRNA ;DNA Hˬ¹żĪ Nm™}]ˈ9ɵʳ)JA5:³ģȘ6'4:ǜʀ/"5;8!RNA Ȝʊ:Ǘ8ǜʀ NƐ2$6ʬƹ&K;(D.. ds RNA Cytoplasm Nucleus DNA. Dicer. siRNA RISC. pri-miRNA. target mRNA. Drosha pre-miRNA. degradation Exportin-5. mature miRNA. Dicer. RISC. target mRNA repression of gene expression. Figure 1. RNA nІƒ. 1.

(10)  RNA Šȁ;ȣ½Ü9ōÙ&K.ªdž˸ RNA (dsRNA) ũ. ˷68Iũ ˊ$&KJ. (Figure 1) ɣɿÜ9ōÙ&K. dsRNA ;RNase III P‹”›9œ)J Dicer 9G14 2 Ĭĩ:X›|›{™^ˮ»NƐ2 21~25 Ĭĩʼnɉŧ:¼äĺ RNA (siRNA; small interfering RNA) >6åƯ&KJɨ4ªdž˸ siRNA ; Argonaute2 m™}]ˈ9ćI˗AK4 ´:Ğĺ66E9 RNA-induced silencing complex (RISC) NŬƁ)J,:Űªdž˸ siRNA ;œƱ:˸ Aronaute2 :V™ux]–›jǵź9GJåƯNĈ"4œdž˸ø'ƁȕĦ RISC 68J$:̅Argonaute2 9ǡJ˸;ZSu˸äʬ&KJ˸;}pi™f›˸ 6ē<K4JRISC ;ZSu˸6Ƚʣȵ8˯æNďCǘȵ mRNA Nʸˁ'ZSu˸: ¥ĵˮä5ǘȵ mRNA NåƯ)J$65ˬ¹ĺȳȠNƇé)J 2.  œƱmicroRNA (miRNA) ; 20~24 Ĭĩɉŧ:ÜĞźªdž˸ RNA 5ɵʳ– •5m ™}]ˈ:ȳȠʽɖNʜɣɿÜʽɖĞĺ5JmiRNA ǀç:ĪĒ;1993 ŢLee H 9G148&K. 3 ŮH;ɬʗ:Ɍȓİȭ½Nȥ.Ł̠Hɾȳȣ:ƻ˼éų9 miRNA 5J lin-4 ˽¡'4J$6NƹH9'.˙Ţ5;ʦöȘș9~t9 4EIJ!: miRNA ʧ214IȠģA59ɝ 1900 Ɋ̚Ƀʸ&K4JmiRNA ˬ¹ĺ;çD9 RNA ‰”“›j9G14primary miRNA (pri-miRNA) 6ē<KJ„Q €™Ț: RNA >ːÞ&KJɨ4ǐÜ5Drosha 6ē<KJ RNase III uS™˱ɠ9 G14åƯ&K4grŒ•›ƒǖˡNǁ)J precursor miRNA (pre-miRNA) NȣƁ)J pre-miRNA ; Exportin-5 9G14ɣɿˈ9˔˜&K.ŰDicer 9G14åƯ&K4ƁȕĦ miRNA 68J$:ªdž˸ miRNA ;,:ŰArgonaute NďCœˢ:m™}]ˈ66E9 RISC NŬƁ'ªdž˸Hœdž˸>:ʬ̉J;åƯNĈ"4œdž˸68IRISC 9ǡ 1.˸NZSu˸6'4ǘȵ mRNA N˯æșȭȵ9ʸˁ)J$65m™}]ˈ>:ɵʳN Ƈé)J 4miRNA ;œˮ9‹gŠpoĬĩʼnNďB8H mRNA 9ɧČ)J$6H œ2: miRNA ʥƫ:ǘȵ mRNA ɧČ'ɵʳNƇé'4J$:.Dċ miRNA 9 ʼn)Jǘȵ mRNA :ʬNJ;ğ̊5IIJ!;DŽčŀ:AA5J. 1-2 miRNA 6Ȳø.  ˙ŢIJ!:Ȯȯ94miRNA :ȳȠȭŞ,:āĞ5J$6ƹH9814 ș9,:ȳȠ:ĭòĄ=ȳȠ:¼Ÿɣɿ:Ȳø:ȼƚȵ8āĞ68IŲJ miRNA J 5 ;oncomiR ē<K̎Ş9ʎ!Ɂɋ&K4J 6Ł̅9!2: miRNA ;ǠŞɣɿ NȲɣɿ9ʹō)J$6F (oncomiR)Ȳɣɿ9Q‰t›egNʹō)J$6ɀHK4 I (Table 1)oncomiR :˿Ńë (antagomir) F miRNA ʊ½ư.8ƉOë6'4DzȻN ̈D4JA.$KHȲ˽ˢ miRNA :ȳȠ˶NʪŇ)J$65ưʨ|SXŠ›Y›. 2.

(11) 6'4:èȥEǃů5. J. Table 1. ”\

(12) ±L miRNA. miRNA. ʄȰŬſ. ǜʀ. Reference. miR-122. ɹʈȲ. C ĦɹȎTR•g:ʥʤNÇˣ. 7. miR-10b. ɻȲ. Ȳɣɿ:ːɈNÇˣ. 8. miR-221. ɹɣɿȲ. ʛɕŬƁNÇˣ. 9. miR-380-5p. Ʌɦʐɣɿʄ. ʄȰƇéĞĺ p53 :ȳȠNƇé. 10. miR-296. Ʌɦʇʄ. ʛɕŬƁNÇˣ. 11. let-7. IJ!:Ȳɣɿ. KRAS,MYC,HMG2 ɓ:Ȳˬ¹ĺNƇé. 12. miR-34. IJ!:Ȳɣɿ. Q‰t›egNʹō. 13. miR-143/145. ijʅȲɣɿ. MYC :ȳȠNƇé. 14. miR-26a. ɹɣɿȲ. cS]”™ D2E2 :ȳȠNƇé. 15.  ·ž:G9miRNA ;Ǘ8ȣȘļȵƒ—ig9˽¡'4Iǘȵ mRNA :čŀ; ɣɿÜʽɖĞĺ6'4: miRNA :Ó. Nȡʬ)J/"58!miRNA Nèȥ'.ư'. ƉOëF|SXŠ›Y›:˻ȳ61.ùȱä˵>:Œ˻Eǃů5 J'.14 miRNA :ǘȵ mRNA :čŀ;˙Ţ˴ʦ8Ɂɋʼ̘:œ26814J. 1-3 miRNA 9GJǘȵ mRNA :ʸˁ.  ê˛'.G9Argonaute 6ʥȽNŬƁ'. miRNA ;Ś ƃ'NĈ"4œdž˸9 ʬ̉)J$69GIƁȕĦ miRNA 68JArgonaute 9ǡ1.ZSu˸:0 5´DžɏH 2-7 ȬȻ:Ĭĩ;e›u̕ħ6ē<K$:̕ħ6ǘȵ mRNA : 3´UTR ˼5˜tk™] ”p]ĬĩʼnG!ÈĻ&K4J 16$:$6HmiRNA 9GJǘȵ mRNA :ʸˁ9 ;e›u̕ħ6ǘȵ mRNA :Ƚʣź˴ʦ5J6ɶ HK4.Ł̅9 X ɬɧ ƾǖˡʬNJHEArgonaute :ɧČ9G14e›u̕ħ ǘȵ mRNA 6:ª˴ʚƳ ǖˡN"pre-organize"'4J. Figure 2. 6/ Argonaute2 0° RNA œƒ¬. 3.

(13) $6Ʉ&Ke›u̕ħ9"Jǘȵ mRNA :ÕÖȵ8ĬĩʼnŬƁ;V™t—€›ȵ9 ǁè5J.D/6ʴƹ&K.(Figure 2) 17 A.œʍȵ9 miRNA :ǘȵ mRNA ȳȠƇ éʀ;ZSu˸ 5´Džɏ:ȽʣĬĩ (t1) Qsze™:̅9Ϟ)JÒĎ9JIJ!: ʦ̚94t1 »9;Qsze™G!ÈĻ&K4J$6ɀHK4I 18X ɬɧ ƾǖˡʬNJ9GI~t: Argonaute2 94 t1 Nʸˁ'4J MID uS™9;Qsw ™ˮ»6șȭȵ9Ƚ«¾ȥ)Jɧȉ_ptĻģ'4J$6ƹH981. (Figure 3) 19. A. B. 2Iœa=-/ (B) t1

(14) “ edmW Figure 3. (A) MID 0AI

(15) hc.2 –° Argonaute2 œa%. . 1-4 a™€›mNȥ.ǘȵ mRNA :©Ȇ.  $KA5˛?.G8 miRNA 6ǘȵ mRNA ˼:ɧČǗŨNĩ9'4ǘȵ mRNA :© ȆQ•b”hŒƫIJ!˻ȳ&K4J (Table 2) TargetScanPicTarEMBLEMMO ; e›u̕ħ:ȽʣźNÕÖȵ9ɶƀ'.ƒ—^“Œ5I©Ȇ&KJǘȵ mRNA ;G! º4J''Ú4čǗ:ɧNj98Jʳ5;8!,K-Kʣˍȵ8˫ƋĩȈQ• b”hŒ9ɥB˗AK4JÁ< TargetScan ;e›u̕ħ:Ƚʣź9òt1 » Qsze™5JG8 mRNA Nž»Ëʣ9ƒ#J$:»ɲ9ĬĩʼnNŬƁ)J mRNA Nž»Ëʣ9ƒ#JQ•b”hŒEĻģ)Jű14ZSu˸: 5´DžɏT“e •:īČ9;4 Q•b”hŒ5čǗ:ɧNjŲHKJT“e•·ı:īČ5;ɧNj ȭ814!J´9Eȭ8J˫ƋĩȈċƒ—^“Œ9ɥB˗AK4Jƒ—rXk ›ŒʬNJ6ǥˑNʜ1.̅9ǀEʎƁɯNĆD.:; TargetScan 51. 20. 4.

(16) Table 2. ǘȵ mRNA N©Ȇ)J.D:a™€›mƒ—^“Œ ƒ—^“. ʼn˃Ɋ. Œ. a. TargetScan. m,w,f. ǘȵˬ¹ĺ:˫ãĩȈ. URL. Reference. e›u̕ħ:Ƚʣź. http://www.targetscan.org. 21. http://russell.embl-heidelberg.de. 22. http://pictar.mdc-berlin.de. 23. http://www.mirz.unibas.ch/ElMMo2. 24. http://www.microrna.org. 25. http://microrna.sanger.ac.uk. 26. Jɉŧ:e›u̕ħ. http://genie.weizmann.ac.il/pubs/. 27. :ȽʣźɧČ̕ħ:. mir07/mir07_data.html. ɧČ̕ħ:ƫǘȵ 1 :˯æ EMBL. f. e›u̕ħ:Ƚʣź ɧČ̕ħ:ƫǘȵ6 :ªdž˸:ȖȵĽŀź. PicTar. m,f,w. e›u̕ħ:Ƚʣź ɧČ̕ħ:ƫǘȵ6 :ªdž˸:ȖȵĽŀź. EIMMo. m,f,w. Jɉŧ:e›u̕ħ :ȽʣźɧČ̕ħ: ƫ. Miranda. m,f,w,+. Jɉŧ:e›u̕ħ :Ƚʣźe›u̕ħ :ƫ. MirBase. m,f,w,+. Targets. Jɉŧ:e›u̕ħ :Ƚʣźe›u̕ħ :ƫªdž˸Ú½:Ƚ ʣź. PITA Top. m,f,w. ƫǘȵ6:ªdž˸: ȖȵĽŀź RNA22. m,f,w. Jɉŧ:e›u̕ħ. http://cbcsrv.watson.ibm.com/. :ȽʣźɧČ̕ħ:. rna22.html. ƫªdž˸Ú½:Ƚʣ źĄ=ȖȵĽŀź a. m = mammalian/vertebrate, f = fly, w= worm, + = additional clades. 5. 28.

(17) 1-5 ǘȵ mRNA N©Ȇ)J.D:Ł̠ȵ8ƅǯ.  a™€›mƒ—^“ŒNȥ.ǘȵ mRNA :©Ȇ;miRNA :ǜʀʬNJ94̎Ş 9Ūð5J''©Ȇ&KJǘȵ mRNA ;œʍȵ8 miRNA :ɧČǗŨ9ÃĻ'. E:IJ!Áıȵ8ɧČǗŨNƐ2ǘȵ mRNA :©Ȇ;ğ̊5JA.Ł̅9;ǘ ȵ5;8 mRNA ǘȵ6'4©Ȇ&KJÐ̄źE'<'<Ě̘6814JJiang H; ǘȵ mRNA ©Ȇƒ—^“Œ5J miRanda Nȥ4 CyclinD1 Nǘȵ6)J miRNA Nƙɡ '•eU“›j–‰›m›QpiSNèȥ'.Ł̠9GIdžƒ—^“Œ:É̗źN ǔʴ'. 29,:ɧNjmiRanda 9G14©Ȇ&K. 45 Ɋ̚:Ëʣ miRNA :0Ł̅9 CyclinD1 : 3´UTR 9ɧČ'4ȳȠNƇé'.E:; 7 Ɋ̚ (16%) /"51.$:G 9a™€›mƒ—^“Œ9GJǘȵ mRNA :©Ȇ;ɪɳźFǠɃź9ǝ!.DG IɃŁ8Ł̠ȵƅǯ:˻ȳǪDHK4J. 1-5-1 t“™g]”ƒt›ŒʬNJ9GJǘȵ mRNA :čŀ  miRNA Nɣɿ>ōÙ)J6œˮ:ǘȵ mRNA 94ȳȠ˶:¼ŸɃʸ&KJ 30 ű14 miRNA N˦íȳȠ'.Ű:Ú mRNA ˶ (t“™g]”ƒt›Œ) NʬNJ)J$65 ǘȵ mRNA Nčŀ5 J6ɶHKJLim H;$:ȳŽ9ĩ3. miRNA N Hela ɣɿ. >ōÙ'4 12 ƻ˼Ű:Ú mRNA ˶NŠS]—Q–S5ʬNJ'.,:ɧNjmiRNA :˦ íȳȠ9GIɝ 1000 Ɋ̚: mRNA 94ȳȠ˶:¼ŸɃʸ&K.A.ȳȠ˶:¼ Ÿ'. mRNA :IJ!,: 3´UTR 9ōÙ'. miRNA :e›u̕ħ6Ƚʣ8˯æNƐ1 4ImiRNA :ȼƚȵ8ǘȵ5J$6Ʉę&K. 31ŠS]—Q–SʬNJ9G14 ŤɗĠ9ȃJǘȵ mRNA ƛŀ&K.$6H,:Ű´:^•›ƒ9G14EčǗ: Ł̠ƫIJ!ʜMK4J 32-34miRNA :Ƚʣ˯æNɣɿÜ>˦íȳȠ'.īČmiRNA :ǜʀ˿Ń&Kǘȵ mRNA :ȳȠ˶;ĭò)J6ɶHKJű14 miRNA :ǜʀ˿ ŃN'.īČEčǗ9ŠS]—Q–SʬNJ9GJǘȵ mRNA :ƛŀĉʀ5J 35& H9miRNA :˦íȳȠ6ǜʀ˿Ń:£ƱNʜ6ȳȠĭò)J mRNA 6¼Ÿ)J mRNA : 2 }m›™:ʬNJɧNjŲHKJ70H:}m›™9EÛ˟)J mRNA ; ǘȵ mRNA 6'4:ĉʀźǕD4̢!8J$6 Nicolas H:Ɂɋ9G14Ʉ&K. 36 ·ž:G9t“™g]”ƒt›ŒʬNJNȥJ$65ɪɳȵ8ǘȵ mRNA :čŀĉ ʀ68J''©Ȇ5. Jǘȵ mRNA miRNA :ōÙ9G14ȳȠ˶İø)JE. :)8M0 miRNA 9G14äʬ&KJE:9́ŀ&KJ$6F˼ƚȵ8ȳȠ˶:İø. 6.

(18) 9G14ȣ(JÐ̄ź87Ě̘Ȑ6'4ƒ#HKJ. 1-5-2 HITS-CLIP.  HITS-CLIP ; UV cross-linking immunoprecipitation (CLIP) ǯ6 high-throughput sequencing (HITS) NɥBČM+.˘ˠ5ɪɳȵ8ǘȵ mRNA :ʬNJǯ5J 37×]—g”™]ʀ NƐ2 4-oXT”f™Nɣɿ>Ǿò'4 UV NȔŌ)J64-oXT”f™NćI˗O/ RNA  RISC ʥȽ94 Argonaute 6×njǛ&KJ Ɖ Argonaute Ɖ½5 RNA-Argonaute SDS-PAGE 5ɚʤ)J$65 mRNA-Argonaute ʥȽNɚʤ'.Ű RNA ˮäN 32P 5ǘˁ ʥȽN˫Ƌȵ9ŲJ$65. J,KHNȥ4{Sg•›ƒpte›_™e™^N. ʜ$69GIArgonaute 9ďAK4J (miRNA 9ǘȵ6&K4J) mRNA Nɪɳȵ 9äNJ)J$6ĉʀ68J (Figure 4) ''džƅǯH miRNA ɧČ)J mRNA Nȼƚčŀ)J$6;5. *|SXS™WŠrR]g:ƅǯ6ɥBČM+Jŷʦ. J UV cross-linking 4S 4S. U. U immunoprecipitation. miRNA. Cell lysis. target mRNA. AA A. Alkaline phosphatase. RNase A. AA A. 5´OH. 3´P. 5´OH. 3´OH. RNA ligase Deep Sequencing. AGO+mRNA AGO+miRNA. SDS-PAGE ќ32 P. Free RNA. polynucleotide kinase 5´OH 3´RNA adapter. 

(19)  ‰ . 1-5-3 miR-CLIP.  microRNA crosslinking and immunoprecipitation (miR-CLIP) ;×ąŹźäĺ5Jk“– ™6Xo™5øļÊ̞'. miRNA 9GJǘȵ mRNA :čŀǯ5J 39k“–™;T “e•6˫Ƌȵ9×njǛ)J.DÊ̞ miRNA ; RISC NŬƁŰUV ȔŌ9G14ǘȵ mRNA 6ȼƚÛǁɧČNŬƁ)JƉ Argonaute Ɖ½5 RISC Nɚʤ'.Űgt–ƒtQ f™6Xo™:Ƚ«¾ȥNèȥ'4 miRNA 6ǘȵ mRNA :ʥȽNü̉'{Sg •›ƒpte›_™e™^Nʜ$69GImiRNA ȼƚɧČ)Jǘȵ mRNA Nɪɳȵ. 7.

(20) 9ʬNJ)J$6ĉʀ5J (Figure 5) Jochen H;$:ƅǯNȥ4 miR-106a G= miR-17-5p :ǘȵ mRNA Nƙɡ'a™€›mƒ—^“ŒH;©Ȇ&K8Áıȵ 8ɧČ}m›™NƐ2ǘȵ mRNA :čŀ9Ɓñ'4J 39 UV cross-linking . immunoprecipitation. .   . .   . . . miRNA mimic. .   . target mRNA. . .   . AA A. RNA extraction. . . .  . . AA A. AA A streptavidin -biotin affinity isolation. Deep Sequencing. .   . . AA A. Figure 5. miR-CLIP. 1-6 ×ąŹźäĺ.  ¶ʠȵ8ǘȵ mRNA :ʬNJǯ5J HITS-CLIP F miR-CLIP ;70HEÛ˟'4׹ ŹźäĺNèȥ'4J×ąŹźäĺ6;×Vy•\›5ńƺ9äʬ)JøļĿʀĩ NƐ2äĺ5Iɢı̕ħ:×ȔŌ9GIǀŅI:äĺ6ÛǁɧČNŬƁ)J$6ĉ ʀ5Jșŀ:”Z™u9H(D×ąŹźǡĩNōÙ'˩å8mS‹™^5×Ȕ Ō)J$65DŽɀ:–iƒm›9ÛǁɧČNŬƁ)J$65. JA.×ȔŌ9GJ. ɣɿǤź;ŏ8!ȣȡǵźNÈ1.AAÛǁɧČ:ŬƁĉʀ5J.Dȣ½̢äĺ :ʬNJ9˩'4JmiR-CLIP ;miRNA 9ōÙ&K.k“–™äĺ9G14ǘȵ mRNA :BN˫Ƌȵ9ƕȞ5 ȵ8ąŹź:.DƕȞ5. JŪð8ƅǯ5;JE::ōÙ'.k“–™:T“e•˫Ƌ Jǘȵ mRNA 9;é́Iɪɳȵ8ʬNJǯ6;ʮ8. DŽɀ:ǘȵ mRNA Nɪɳȵ9ƕȞšʬNJ)J.D9;ȽʣĬĩ9ÃĻ'8ąŹźNƐ 2ư'ƒ—›‚:˻ȳŷʦ5J. 1-7 t”•X—o•fQf”™.  ×ąŹźǡĩ5Jt”•X—o•fQf”™;365 nm µ˙:˺DZ˺Ï: UV Ȕ Ō9GIY• ™Nȣ(J (Scheme 1) 40Y• ™;̎Ş9ąŹź̢!C-HO-HN-H C-C ɧČNďCIJ!:Ŀʀĩ6ąŹ)J$6ĉʀ5J3 »:Uw•ĩ6t”•X —o•ĩ;ČƁLJ¸9"JfQf”™Ȣ:ȖȵĽŀźN̢DJ6čƻ9T•ːɈ. 8.

(21) 6,K9ɨ!Ǫ̌ĺɲƜąŹ9G14ȣ(JfQlȭź½:ȣƁNƇé'4J (Scheme 2) fQlȭź½; UV ȔŌ9G14Y• ™NȣƁ5 :Ǫǐë6ąŹ'4̎șȭȵ8ǘˁNũ. JąŹˠŧ˥.D´. ˊ$)ĉʀźJ,$5ɲƜĩ6'4t. ”•X—o•ĩNȥJ$65fQl½:òǨäʬNƇé'4J  N N. hν. CF3. CF3. X Y. X Y CF3. Scheme 1. $$EI ^rA2&@ N N. hν. hν. hν N N. slow. diazo. Scheme 2. UV‹l

(22) $)“sQ t.  ȣ½̢äĺ:ǘˁø9fQf”™NȥJèȐ6'4ɣɿǤź:¼˺DZ˺:UVȔŌ 9G14ǵźø&KJ$6UVȔŌ9G14ȣ(JY• ™:ąŹźǕD4̢$6 ƒ#HKJUVȔŌ9G14ȣ(.Y• ™;”›:Țſ5;Ǩ6ˠF9ąŹ'4 ]V™o&KJ.DǘȵNʻǘˁ)Jĉʀź;ǕD4¼˙ŢfQf”™ǡĩNȥ .ȣ½̢äĺ:ʬNJȹO9ʜMKI41,42ūɁɋ5EZSu˸:3´Džɏ9fQf”™ ǡĩNōÙ'.siRNAƒ—›‚NČƁ'RISC:ǖƁĞĺ5JArgonaute2:ƕȞ9Ɓñ' 4J (Figure 6) 43. Figure 6. V^rssiRNA:HJ9

(23) Argonaute2 y. 9.

(24) 2Ɏ ×ąŹźǡĩNōÙ'.ưʨRNAƒ—›‚:ČƁ6,:RNAƕȞʀ  ê˛'.Ǘ9×ąŹźǡĩt”•X—o•fQf”™;˺DZ˺:UVȔŌ9G14 Y• ™Nȣ(˙Ñ:Ǘ8øČȘ6ÛǁɧČNŬƁ)J$6ĉʀ5Jű14 fQf”™ǡĩNōÙ'.miRNAƒ—›‚Nɣɿ>ōÙ'UVNȔŌ)J$65ǘȵ mRNANɪɳȵ9ǘˁ5. J6ɶ. (Figure 7) . UV cross-linking  .  .  .  . label molecule. miRNA mimic. target mRNA. AA A. AA A. Figure 7. miRNA:HJ9

(25)  –mRNA §\.  fQf”™ǡĩNōÙ'.miRNAƒ—›‚NČƁ)J.Dư.9x]–XeuQv— ^1G=2Nʲʯ'. (Figure 8) 1G=2;Ĵȓ:RNA6čǗ:ɛ-”™˲̡ǒNǁ) J$6H$KHNōÙ'.miRNAƒ—›‚;Ĵȓ:miRNA6čɓ:ȣȡǵźNɄ)$ 6ǃů5 JA.UVȔŌ9G14ȣ(JY• ™;ǕD4ąŹź̢.DȽʣ ˯æ9ÃĻ+*ǘȵmRNANɪɳȵ9ƕȞ5. J6ɶHKJdžɁɋ5;1G=2. NōÙ'.RNAƒ—›‚NČƁ',:RNAƕȞʀNǔʴ'.. F 3C. CF3 N N HO O OH. HO. O. O. OH. OH. 1. N N. O. OH 2. Figure 8. $$EIˆd€3G#01H. 10.

(26) 2-1 ×ąŹźx]–XeuQv—^Ą=,:Q‹nSt½:ČƁ.  x]–XeuQv—^1G=2;t”•X—o•fQf”™:Q•a›•ʹō½. 6β-D-”ˆ“z›gN^”ae•ø)J$65ŲHKJ6ɶ. (Scheme 3) 8t ”•X—o•fQf”™:Q•a›•ʹō½;Ƶɀ:ĪĒ9ű14ČƁ)J$66 '.41. CF3 N N. CF3 N N. O BzO +. O. O BzO O. OBz OBz. HO. CF3 N N HO. O. O. OBz OBz. OH. O. OH 1. Scheme 3. V^rs3G#01H atu’.  $:^”ae•øąŹ5;2´-»Ǩ˲ĩ9Qe•ɜÈ˂ĩNǁ)Jβ-D-”ˆ“z›g NãȳāƮ6'4˫Ƌ)J$65ōÙ'.Qe•ĩ:̆ƚĩõNj9GIβ-»˫Ƌȵ9Q •[•ĩNōÙ)J$6ĉʀ5J (Figure 9) . R OH. H O BzO O. O. BzO. BzO O. BzO O. O O. OBz OBz. OBz O. O. OBz. O. O. O. OBz. BzO O. O. OBz OBz. Figure 9. #F™T¨d ²zd[‚. 11. R.

(27) 2-1-1 ™j™Ȣm»9fQf”w•ĩNǁ)JQ•a›•ʹō½:ČƁ.  m-Iodobenzyl alcoholNãȳāƮ6'4TBDMSClNąŹ&+J$69GIǨ˲ĩN TBDMSĩ5È˂'.øČȘ3NĆȟ92%5Ų.ɨ4øČȘ3NTHF9ȉʬ'-78 °C94 n-BuLiâȡ)J$69GI ™j™Ȣ:m»N”oXø'.Űt”•X—˰˲Vo• NǾò)J$65øČȘ4NĆȟ95%5Ų.øČȘ49~u—[eQ‹™Ĭ˲ĬN¾ȥ&+ X[eŒ½6'.Ű9Ǩ˲ĩNte•ø'øČȘ5NĆȟ82%5Ų.ɨ4te•½5 NŊɕ¥52ƶ˼Q™ŽwQǨ6ąŹ&+4øČȘ6NĆȟ88%5ČƁ'.ŲHK.fQf ”f™ʹō½6NI25˲ø'4øČȘ7NĆȟ78%5Ų.ǀŰ9TBDMSĩNTBAF5âȡ) J$65̃Ă'Ȼȵ:Q•a›•ʹō½8NĆȟ86%5ČƁ'. (Scheme 4) . TBDMSCl imidazole. HO. I. n-BuLi,CF3COOEt. TBDMSO. DMF. TBDMSO. CF3. THF. I. O. 3: 92 %. 4: 95 % δ 5.07. 19FNMR:. 1. HONH 3Cl pyridine. TBDMSO. CF3. 2. TsCl, NEt3,DMAP pyridine. N. NH 3 aq.. THF. TBDMSO. HN NH. OTs. 5: 82 %. I2 NEt 3. TBDMSO. CF3. CH3OH. 6: 88 %. TBAF THF. HO. N N 7: 78 %. CF3 N N 8: 86 %. Scheme 4. A*P

(28) $$E2Fd€F. 12. CF3. JFQ at.

(29) 2-1-2 x]–XeuQv—^1Ą=,:Q‹nSt½:ČƁ.  ɨ4øČȘ861-O-acetyl-2,3,5-tri-O-benzoyl-β-D-ribofuranose:^”ae•øąŹNʜ 1.øČȘ861-O-acetyl-2,3,5-tri-O-benzoyl-β-D-ribofuranoseNCH2Cl2¥TMSOTfĻģŸ5 ąŹ&+.6$LȻȵ6)JøČȘ9NĆȟ89%5ŲJ$65. .œʍ9x]–Xe. u:QzŠ›»:ɍ½˯ɲ;ɛˮ:1´-»Ą=2´-»:H:˼:Ypƒ”™^ŀƫ (JÍ) N ĩ9ǫŀ)J$65. Jþ01´-»:ɍ½˯ɲβ-»:ƻ91´-H62´-H˼5:ª̏ʫ. ɝ90°NƁ)$6Hª̏ʫΦ6KarplusŨ:˽Æ9GIJÍ;Ŏ&!e™^–pt6 '4ʪŇ&KJ6ƛȆ&KJŁ̅øČȘ9:1H NMRʬNJN$81.6$L5.31ppm µ˙91´-»:H9ŝœ&KJe™^–pt:€›]ʪŇ&K.G14ȣƁȘNβ½6ǫŀ'.ɨ4øČȘ99ʭĹ˶:CH3ONaN¾ȥ&+ʂ ™lS•ø)J$65 x]–XeuQv—^1NĆȟ85%5ČƁ'.ƿ9øČȘ19DMTrClN1ū˶ąŹ&+ 5´-»:1ɟǨ˲ĩN˫Ƌȵ9DMTrĩ9GIÈ˂'øČȘ10NĆȟ91%5Ų.ČƁ'. DMTr½10NTBDMSCl94âȡ'ŲHK.ǽČȘNe”Y`•Y“Œ]—Št^“R› 94ɚʤ)J$6522:øČȘNü̉'.,K-KN1H NMRĄ=1H-1H COSYNȥ4 ʬNJN$81.6$LœƱ5;Ǩ˲ĩ:€›]2.5ppm9n‚–pt6'4ʪŇ& K3´-»9»ɲ)JH6:Ypƒ”™^ʪȆ&K.$:$6HǨ˲ĩ;3´-»9» ɲ'TBDMSĩ;2´-»9»ɲ'4J$6Ƀʸ5. .A.EœƱ5;Ǩ˲ĩ:. €›]2.8ppm9n‚–pt6'4ʪŇ&K2´-»9»ɲ)JH6:Ypƒ”™^ʪȆ& K.$:$6HǨ˲ĩ;2´-»9»ɲ'TBDMSĩ;3´-»9»ɲ'4J$6Ƀʸ 5. .G14$KH:ʪȆs›mGI2´-TBDMS½5JøČȘ11Ą=3´-TBDMS½. 5JøČȘ12NĆȟ38%45%94,K-KŲHK.$6ä1.ǀŰ92´-TBDMS ½11NŞǯ9GI­”™˲ø'x]–XeuQv—^1:Q‹nSt½5JøČȘ13N Ćȟ62 %5ČƁ'. (Scheme 5) . 13.

(30) CF3 N N. O BzO O. O. +. HO. CF3. OBz OBz. CH3ONa. TMSOTf CH2Cl2. N N. CF3 N N. BzO O. CH3OH. O. HO. 8. OBz OBz. OH. 9: 89 %. CF3 N N Pyridine. DMTrO O OH. CF3 N N DMTrO O. OH. OH. 10: 91 %. O. P Cl DIPEA. CF3 N N +. DMF. O. O. OTBDMS 11: 38 %. DMTrO O TBDMSO. DMTrO. THF. O. NC. O. OH. O. O OTBDMS P N(i-Pr)2 13: 62 % 31P NMR: δ 149.5, 150.0. Scheme 5. 3G#01H1] ?+/Q at. 14. O. 12: 45 %. CF3 N N. N(i-Pr)2. OH 1: 85 %. TBDMSCl TEA. DMTrCl. NC. O. O.

(31) 2-1-3 ™j™Ȣ}“»9fQf”w•ĩNǁ)JQ•a›•ʹō½:ČƁ.  øČȘ8:ČƁ6čǗ:ƅǯ9GI}“ʹō½19NČƁ'.p-Iodobenzyl alcoholNãȳ āƮ6'4TBDMSCl6ąŹ&+J$69GIǨ˲ĩNTBDMSĩ5È˂'øČȘ14Nŀ ˶ȵ9Ų.ɨ4øČȘ14NTHF¥-78 °C5n-BuLiâȡ)J$69GI ™j™Ȣ}“ »N”oXø'.Űt”•X—˰˲Vo•NǾò)J$65øČȘ15Nŀ˶ȵ9Ų. øČȘ159~u—[eQ‹™Ĭ˲ĬN¾ȥ&+X[eŒ½6'.Ű9Ǩ˲ĩNte• ø'øČȘ16NĆȟ90%5Ų.ɨ4te•½16NŊɕ¥52ƶ˼Q™ŽwQǨ6ąŹ &+4øČȘ17NĆȟ88%5ČƁ'ŲHK.fQf”f™ʹō½NI25˲ø'4øČȘ18 NĆȟ 96%5Ų.ǀŰ9TBDMSĩNTBAF5âȡ)J$65̃Ă'Ȼȵ:Q•a›• ʹō½19NĆȟ92%5ČƁ'. (Scheme 6) . I HO. TBDMSCl imidazole. DMF. I. CF3. n-BuLi,CF3COOEt. O. THF. TBDMSO. TBDMSO. 14: quant.. 15: puant. δ 5.10. 19FNMR:. 1. HONH 3Cl pyridine. CF3. 2. TsCl, NEt3,DMAP pyridine. N. THF. TBDMSO. TBDMSO 17: 88 %. 16: 90 %. CF3 N N. I2 NEt 3. CH3OH. TBDMSO. CF3 NH N H. NH 3 aq.. OTs. CF3 N N. TBAF THF. HO. 18: 96 %. 19: 92 %. Scheme 6. 5DP

(32) $$E2Fd€F. 15. JF¥mQ at.

(33) 2-1-4 x]–XeuQv—^2Ą=,:Q‹nSt½:ČƁ.  øČȘ13:ČƁ6čǗ:ƅǯ9GIQv—^2:Q‹nSt½NČƁ'.øČȘ196. 1-O-acetyl-2,3,5-tri-O-benzoyl-β-D-ribofuranoseNÖ6čǗ:LJ¸Ÿ5^”ae•ø'øČȘ 20NĆȟ92%5ČƁ'.1H NMR9GJʬNJN$81.6$L5.31ppmµ˙91´-» :H9ŝœ&KJe™^–pt:€›]ʪŇ&K..DȣƁȘNβ-½6ǫŀ'.ƿ9 øČȘ209ʭĹ˶:CH3ONaNȥ4ʂ ™lS•ø)J$65x]–XeuQv—^2 NĆȟ95%5ČƁ'.ɨ4øČȘ29DMTrClN1ū˶ąŹ&+5´-»:1ɟǨ˲ĩN˫Ƌ ȵ9DMTrĩ9GIÈ˂'øČȘ21NĆȟ93%5Ų.øČȘ21NTBDMSCl94âȡ' ŲHK.ǽČȘNe”Y`•Y“Œ]—Št^“R›94ɚʤ'.ü̉'.22:øČ ȘN,K-K1H NMRĄ=1H-1H COSYNȥ4ʬNJ'2´-TBDMS½5JøČȘ22Ą= 3´-TBDMS½5JøČȘ23N,K-KĆȟ30 %Ą=45 %94ŲHK.$6ä1.ǀ Ű92´-TBDMS½22NŞǯ9GI­”™˲ø'x]–XeuQv—^2:Q‹nSt½ 5JøČȘ13NĆȟ95%5ČƁ'.(Scheme 7)  N. F 3C. F 3C. N. O BzO O. O. CF3 N N. + HO. CH3ONa. TMSOTf CH2Cl2. CH3OH. BzO. O. O. OBz OBz 19. HO. OBz OBz. OH. 20: 92 %. N. F 3C. F 3C. N. Pyridine. O OH. DMTrO. O. O. OH. OH. 21: 93 %. NC. P Cl DIPEA. O. OTBDMS. DMTrO O TBDMSO. 22: 30 %. F 3C O. F 3C. N. +. DMF. DMTrO. N N. N(i-Pr)2. DMTrO. THF. O. NC. O. O. O OTBDMS P N(i-Pr)2 24: 95 % 31P NMR: δ 149.1, 149.8. Scheme 7. 3G#01H2] ?+/Q at. 16. OH 2: 95 %. N. TBDMSCl TEA. DMTrCl. O. O. O. OH 23: 45 %. N N. N N.

(34) 2-2 x]–XeuQv—^1G=2NōÙ'.RNA:ČƁ. 2-2-1 ġȽ‡g‡—Q‹nStǯ.  ǐ˲;œʍȵ9ġȽ‡g‡—Q‹nStǯ9ű14øļČƁ&KJ (Figure 10) Ö* ˲âȡ5ǚʁž9ġŀø&K.x]–Xou:DMTrĩNʂÈ˂' (Řɉ

(35) ) ɨ4Q‹ nSt½Nrt“l›•ɓ:˲ʭĹ9GIǵźø'4ǚʁž9ġŀø&K.x]–Xe u:5´-Ǩ˲ĩ6:Ypƒ”™^ąŹNʜ (Řɉ ) DŽąŹ:5´-Ǩ˲ĩNQio•ĩ5 È˂'.Ű (Řɉ) ­”™˲Vgr•NI25˲ø)J$651cS]•ɤ¨)J (Řɉ ) $:cS]•NɱI˚)$65DNA/RNANøļȵ9ČƁ)J$6ĉʀ5J. DMTrO O. Base O. O. DMTrO O. Base. N H. O. CPG. 3% Cl3COOH/CH2Cl2. 

(36) . O O P O. HO. O NC. O. Base. O. O. O O. N H. O. Base. O. CPG. N H. O. CPG. DMTrO. . 0.02M I2/THF/pyridine/H2O. O.   NC. DMTrO O. Base. O O O. . Base. O. O O O. P. O. N(i-Pr) 2. O P NC. O. N H. O O. CPG AcO O. N N. Base O. O O. N H. CPG.  Figure 10. b—<%<H?+/‰. 17. Base.

(37) 2-2-2 Qv—^1G=2NōÙ'.RNAƒ—›‚:ČƁ.  ČƁ'.x]–XeuQv—^1G=2:ċQ‹nSt½Nȥ4ǐ˲ʊöČƁǜ9 4X”bx]–XouNČƁ'. (Table 3) ˯æ;Ĵȓ:miRNA5Jlet-7NǙ'4I 5´Džɏ:8-10ȬȻ9Qv—^1G=2NōÙ'. (RNA2-9) let-7;¶ʠȵ8ȲƇéˬ¹ĺ ĦmiRNA:1Ɋ5IɻȲɣɿ94̙ʓ8ȣɺ˿ŃõNjNɄ)$6ĪĒ&K4J 44. A.RNAƕȞʀǔʴ:.D5´-DžɏNFITC5ǘˁ'.ǘȵ˸EčǗ9ČƁ'.˯. æ;ĴȓĦ:let-76Ƚʣ8˯æH8JE: (RNA10) 6‹gŠpoĬĩʼnN12ďCE : (RNA11) NČƁ'.ČƁ'.ċX”bx]–Xou:ǖˡ;MALDI-TOF/MS9GI Ƀʸ'.. Table 3. `E!3G,0 ®X. RNA. Sequencea. calculated. observed. RNA 1. 5'-UGA GGU AGU AGG UUG UAU AGU-3'. 6791.9. 6790.3. RNA 2. 5'-UGA GGU A1U AGG UUG UAU AGU-3'. 6856.9. 6854.6. RNA 3. 5'-UGA GGU AG1 AGG UUG UAU AGU-3'. 6895.9. 6897.7. RNA 4. 5'-UGA GGU AGU 1GG UUG UAU AGU-3'. 6872.9. 6875.9. RNA 5. 5'-UGA GGU AGU A1G UUG UAU AGU-3'. 6856.9. 6854.1. RNA 6. 5'-UGA GGU A2U AGG UUG UAU AGU-3'. 6856.9. 6855.9. RNA 7. 5'-UGA GGU AG2 AGG UUG UAU AGU-3'. 6895.9. 6895.0. RNA 8. 5'-UGA GGU AGU 2GG UUG UAU AGU-3'. 6872.9. 6871.9. RNA 9. 5'-UGA GGU AGU A2G UUG UAU AGU-3'. 6856.9. 6855.6. RNA 10. 3'-ACU CCA UCA UCC AAC AUA UCA-F-5'. 7078.1. 7078.0. RNA11. 3'-ACU CCA UGA UCC AAC AUA UCA-F-5'. 7118.1. 7118.0 a. F = FITC. 2-3 Qv—^1G=2NďCªdž˸RNA:ȖȵĽŀź.  Üˮ9x]–XeuQv—^1G=2NōÙ'.RNAƒ—›‚ (RNA2-9) 6ǘȵRNA (RNA10,11) NɥBČM+ªdž˸:50%ʙʬȅŧ (Tm) N100mM:NaClNďC”™˲|p P› (pH =7.0) ¥5Ȇŀ'.Ĵȓ:x]–XeuH8JRNA16ǘȵRNA (RNA10,11) ªdž˸:TmÍ6ǥˑ)J$65Qv—^:ōÙ9GJªdž˸RNA:ȖȵĽŀź>:ŭ̑ NʵÄ'.. 18.

(38) 2-3-1 Qv—^1NōÙ'.ªdž˸RNA:ȖȵĽŀź.  Qv—^1NōÙ'.RNAƒ—›‚ (RNA2-5) 6ǘȵRNA (RNA10,11) NɥBČM+4 ªdž˸NŬƁ&+50 %ʙʬȅŧ (Tm)NȆŀ'. (Figure 11,12) . ds RNA. Tm (°C). ΔTm (°C). RNA 1 + 10. 70.7. -. RNA 2 + 10. 59.8. -10.9. RNA 3 + 10. 62.8. -7.9. RNA 4 + 10. 63.3. -7.4. RNA 5 + 10. 58.8. -11.9. ΔTm = Tm – Tm (RNA 1 + 10). Figure 11. 1H1mWRNA:HJ9 RNA10

(39) N° Œ–jks. ds RNA. Tm (°C). ΔTm (°C). RNA 1 + 11. 63.0. -. RNA 2 + 11. 60.4. -2.6. RNA 3 + 11. 59.2. -3.8. RNA 4 + 11. 56.8. -6.2. RNA 5 + 11. 50.3. -12.7.   ΔTm = Tm – Tm (RNA 1 + 11). Figure 12. 1H1mWRNA:HJ9 RNA11

(40) N° Œ–jks.  Qv—^1NōÙ'.RNAƒ—›‚5;ĴȓĦ:RNA1:īČ6ǥˑ'4ªdž˸9" JȖȵĽŀźȂŏ'4J$6Ƀʸ&K.A.1:ōÙ9GJªdž˸: Ľŀø; 1:ȽʣĬĩCG:īČ (RNA2 + 10, RNA 2 + 11) 6ǥˑ'4ȽʣĬĩAU:īČ (RNA 3 + 10, RNA 4 + 10) 5;Ŏ&1.ĴȓĦ:C-GĬĩʼn;ǨɠɧČN3džŬƁ)J: 9ʼn'4A-UĬĩʼn5;2dž'ŬƁ'8ű14C-GĬĩʼn>:1:ōÙ;ǨɠɧČ. 19.

(41) N3džåƯ)J.Dªdž˸NGI Ľŀø)JɧNj681.A.1:ōÙ9GJTmÍ: ¼Ÿ;ĴȓĦ:‹gŠpo˯æ (RNA 1 + 11) 6čɉŧ/1.$6H1:ōÙ;miRNA :‹gŠpo̕ħ (e›u̕ħı) 5K<miRNA:ǵź9ŭ̑N¡86ɶHKJ. 2-3-2 Qv—^2NōÙ'.ªdž˸RNA:ȖȵĽŀź.  čǗ9Qv—^2NōÙ'.RNAƒ—›‚ (RNA6-9) 6ǘȵRNA (RNA10,11) NɥBČ M+4ªdž˸NŬƁ&+50 %ʙʬȅŧ (Tm) NȆŀ'. (Figure 13,14) . ds RNA. Tm (°C). ΔTm (°C). RNA 1 + 10. 70.7. -. RNA 6 + 10. 61.0. -9.7. RNA 7 + 10. 64.1. -6.6. RNA 8 + 10. 64.4. -6.3. RNA 9 + 10. 60.1. -10.6. ΔTm = Tm – Tm (RNA 1 + 10). Figure 13. 1H2mWRNA:HJ9 RNA10

(42) N° Œ–jks. ds RNA. Tm (°C). ΔTm (°C). RNA 1 + 11. 63.0. -. RNA 6 + 10. 61.3. -1.7. RNA 7 + 10. 59.6. -3.4. RNA 8 + 10. 57.6. -5.4. RNA 9 + 10. 52.0. -11.0. ΔTm = Tm – Tm (RNA 1 + 11). Figure14. 1H2mWRNA:HJ9 RNA11

(43) N° Œ–jks. . 20.

(44) Qv—^2NōÙ'.RNAƒ—›‚5EĴȓĦ:RNA1:īČ6ǥˑ'4ªdž˸9"J ȖȵĽŀźȂŏ'4J$6Ƀʸ&K.A.2:ōÙ9GJªdž˸: Ľŀø; 2:ȽʣĬĩCG:īČ (RNA2 + 10, RNA 2 + 11) 6ǥˑ'4ȽʣĬĩAU:īČ (RNA 3 + 10, RNA 4 + 10) 5;Ŏ&1.$K;Ö@76čǗ9C-GĬĩʼn>:2:ōÙ 9G14A-UĬĩʼnGIEIJ!:ǨɠɧČåƯ&K..D5JA.2:ōÙ9GJ TmÍ:¼Ÿ;ĴȓĦ:‹gŠpo˯æ (RNA 1 + 11) 6čɉŧ/1.$6H2:ōÙ EA.miRNA:‹gŠpo̕ħ (e›u̕ħı) 5K<miRNA:ǵź9ŭ̑;8E :6ɶHKJ. 21.

(45) 2-4 RNAƒ—›‚:RNAƕȞʀ.  Qv—^NōÙ'. RNA ƒ—›‚6Ƚʣ˸ RNA Ȗȵ9Ľŀ8ªdž˸NŬƁ)J$6 Ƀʸ&K.ɨ4x]–XeuQv—^NōÙ'. RNA ƒ—›‚: RNA ƕȞʀN ǔʴ'.RNA ƒ—›‚6Ƚʣ˸ RNA N 1:1 :îČ5ǽČ'Qw›”™^âȡ9GIª dž˸ŬƁ&+.Ű9UV (365 nm 30 ä302 nm 10 ä) NǩǸž5ȔŌ'.7 M T–Qȉ ǻNò4ąŹNÎǟ&+ŲHK.ǽČǻN 20% İź‰”Q]”•Q‹u`•̌ǧdzö (20% PAGE) 94äNJ'.. 2-4-1 Qv—^ 1 NōÙ'. RNA ƒ—›‚: RNA ƕȞʀ. ds RNA. ȽʣĬĩ. Ćȟ (%). RNA 10 + 2. C. 6. RNA 10 + 3. A. 18. RNA 10 + 4. U. 13. RNA 10 + 5. C. 10. RNA 11 + 2. G. 6. RNA 11 + 3. A. 11. RNA 11 + 4. U. 7. RNA 11 + 5. C. 11. Figure 15. 1H 1 mW RNA :HJ9 RNA yŸ.  ,:ɧNjÚ4:ɥBČM+5̢äĺ˶̕ħ9ư.8|™uʪŇ&K.œˮNɚʤ '4 ESI-TOF/MS 94äNJ'.6$LRNA ƒ—›‚6Ƚʣ˸ RNA :]—g”™]µò½ 5J$6Ƀʸ&K. (Figure 17) A.‹gŠpoNďCɥBČM+5;,58 E:6ǥˑ'4]—g”™]Ćȟ;¼Ÿ)JÒĎ91.$K;µ˙:ǨɠɧČ: ǺĶ9G14 1 :ġŀø úä68IȽʣ̕ħ9˙ƚ5 8!81..D/6ɶH KJA.Ú4:ɥBČM+5]—g”™]ąŹˣʜ'.$6H1 NōÙ'. RNA ƒ—›‚9GJȽʣ˸ RNA :ƕȞ;1 :ȽʣĬĩ:Ɋ̚9ÃĻ'8$6ƹH98 1.. 22.

(46) 2-4-2 Qv—^ 2 NōÙ'. RNA ƒ—›‚: RNA ƕȞʀ. ds RNA. ȽʣĬĩ. Ćȟ (%). RNA 10 + 6. C. 32. RNA 10 + 7. A. 25. RNA 10 + 8. U. 13. RNA 10 + 9. C. 17. RNA 11 + 6. G. 25. RNA 11 + 7. A. 19. RNA 11 + 8. U. 9. RNA 11 + 9. C. 13. Figure 16. 1H 2 mW RNA :HJ9 RNA yŸ.  1 NōÙ'.īČ6čǗ9Ú4:ɥBČM+5̢äĺ˶̕ħ9ư.8|™uɃʸ&K .œˮNɚʤ'4 ESI-TOF/MS 94äNJ'.6$LRNA ƒ—›‚6Ƚʣ˸ RNA :]— g”™]µò½5J$6Ƀʸ&K. (Figure 18) ‹gŠpoNďCɥBČM+5Ćȟ ¼Ÿ)JÒĎE1 :īČ6čǗ51.''8HÚ½ȵ8Ćȟ; 1 NōÙ'. RNA ƒ—›‚6ǥˑ'4ij. !Ϟ'.$K;ąŹˮ»m»H}“»9ɲƜ'. .$69G14Ƚʣ̕ħ9GIƚ˙'..D/6ɶHKJA.Ú4:ɥBČM+ 5ąŹˣʜ'.$6H2 NōÙ'. RNA ƒ—›‚9GJȽʣ˸ RNA :ƕȞEȽʣ Ĭĩ:Ɋ̚9ÃĻ'8$6ƹH681.. 23.

(47) Relative intensity (%). RNA 2 + RNA 10 [M-H]- : 13951.6; C431H519F3N154O298P41. 13953. 100. 50. 13974. 14058. 13913. 0 13700. 13800. 14070. 14009. 13927. 13900. 14000. 14100. 14200 m/z. Figure 17. RNA 2 + RNA 10 H%EIQ >%%;/F. 13972. 100. RNA 7 + RNA 11 [M-H]- : 13991.6; C432H519F3N156O298P41. Relative intensity (%). 13953. 50. 13993. 14009 14027. 0 13800. 13850. 13900. 13950. 14000. 14059. 14050. 14079. 14100. 14150. m/z. Figure 18. RNA 7 + RNA 11 H%EIQ >%%;/F. 24.

(48) 2-5 Qv—^ 2 NōÙ'. miRNA ƒ—›‚9GJǘȵˬ¹ĺȳȠƇéʀ:ǔʴ.  2 NōÙ'. RNA ƒ—›‚õȟG!Ƚʣ˸ RNA NƕȞĉʀ5J$6ƹH68 1.,$5 2 NōÙ'. miRNA ƒ—›‚Nư.9ČƁ',:ˬ¹ĺȳʮƇéʀNʵÄ )J$65 2 :ōÙ miRNA ǵź9¡Jŭ̑NʵÄ'.. 2-5-1 miRNA ƒ—›‚:ČƁ.  2 NōÙ'. miR-199a-5p (RNA12, 14, 16) G= miR-199a-3p (13, 15, 17) N,K-Kġ Ƚ‡g‡—Q‹nStǯ9űǐ˲ʊöČƁǜ5ČƁ'. (Table 4) A.5p 6 3p N ɥBČM+4Qw›”™^âȡ'miR-199a ªdž˸NʽƬ'. (Table 5) (Figure 19) . Table 4. miR-199a-5p/3p ®X. RNA. Sequence. calculated. observed. RNA 12. 5'-CCC AGU GUU CAG ACU ACC UGU UC-3'. 7220.3. 7219.3. RNA 13. 5'-ACA GUA GUC UGC ACA UUG GUU A-3'. 7003.2. 7000.6. RNA 14. 5'-CCC AGU G2U CAG ACU ACC UGU UC-3'. 7321.2. 7324.5. RNA 15. 5'-ACA GUA G2C UGC ACA UUG GUU A-3'. 7104.2. 7106.2. RNA 16. 5'-CCC AGU GU2 CAG ACU ACC UGU UC-3'. 7321.2. 7322.2. RNA 17. 5'-ACA GUA GU2 UGC ACA UUG GUU A-3'. 7105.1. 7104.8. Table 5. miRNA N° ›a. miRNA. miR-199a-5p. miR-199a-3p. miRNA 1. RNA 12. RNA 13. miRNA 2. RNA 14. RNA 13. 5´- C. miRNA 3. RNA 16. RNA 13. 3´- A U U. miRNA 4. RNA 12. RNA 15. miRNA 5. RNA 12. RNA 17. miR-199a-5p C C A GU GU U C A GA C U A C GGU U A C A C GUC U GAU G. CU GU U C-3´ A C A -5´. miR-199a-3p.    Figure 19. miR-199a N‡ƒ¬. 25.

(49) 2-5-2 Qv—^ 2 NōÙ'. miRNA ƒ—›‚:ˬ¹ĺȳȠƇéʀ.  miR-199a ;-5p ˯æ6 3p ˯æ:ªdž˸H8J miRNA 5I70H:˸EɣɿÜ5 ǘȵ mRNA 9ɧČ',:ɵʳNƇé)J2 NōÙ'. 5p G= 3p H8J miR-199a Nȥ4,K-K:ǘȵ9ʼn)Jˬ¹ĺȳȠƇéʀNȆŀ'2 : miRNA ǵź>:ŭ̑N ʵÄ'.ʵÄǯ9; Dual-luciferase reporter assay Nȥȳ×m™}]ˈ5J Renilla luciferase :ŸǶ9 5p A.; 3p :ɧČ˯æNƔÙ'. ]m›NʽƬ'miR-199a 6čƻ 9ɣɿ>ōÙ'.24 ƻ˼Ű: Renilla 6 Firefly luciferase ȧLj:ȳ×˶NȆŀ'miRNA 9GJ Renilla luciferase :ȳȠƇéõNjNʵÄ'. miRNA NōÙ'48īČ:ȳ×˶ Na™t—›•6'4 100 %6'. (Figure 20) . Figure 20. (A) 5p –®XxW Renilla luciferase •vY[‚ (B) 3p –®Xx W Renilla luciferase •vY[‚.  ,:ɧNj2 NōÙ'. miR-199a (miRNA2-5) ;ĴȓĦ: miR-199a (miRNA1) 9;ó JE::Renilla luciferase :ȳȠNƇé'4J$6Ƀʸ&K.$K;2 NōÙ' . miRNA ƒ—›‚ɣɿÜ5 RISC N³'4ǘȵ mRNA 9ɧČ'4J$6NɄ'4I 2 NōÙ'. miRNA ƒ—›‚NȥJ$65UV ȔŌ9GJǘȵ mRNA :ƕȞǃů5 J. 26.

(50) 3 Ɏ ×ąŹź miRNA ƒ—›‚9GJǘȵ mRNA :ƕȞ  $KA59miRNA :ǘȵ mRNA :ɪɳȵ8ʬNJǯ:˻ȳNȻƑ'4ưʨ×ąŹźx ]–XeuQv—^ 1 G= 2 NČƁ'.1 G= 2 NōÙ'. RNA ƒ—›‚;ȽʣĬ ĩ:Ɋ̚9˽MH*ǘȵ RNA 6×njǛ)J$6ƿ9 2 NōÙ'. miRNA ƒ—›‚;ɣ ɿÜ5 RISC N³'ǘȵ mRNA 9ɧČ)J$6Ƀʸ&K.,$5Ł̅9 2 G= ǘˁäĺNōÙ'. miRNA ƒ—›‚NČƁ'ɣɿÜ5ǘȵ mRNA :ƕȞNʶB.. 3-1 miRNA ƒ—›‚:ʲʯ.  ²ĝ2 NōÙ)J miRNA 6'4 miR-145 N˫Ƌ'. (Figure 21) miR-145 ;Ȳɣɿ9. 4 FSCN1 mRNA ǘȵ6',:ȳȠNƇé)J$6ĪĒ&K4J 45A.ǘˁ äĺ9;Xo™N˫Ƌ'.Xo™;Āȴ¥9Ļģ)Jm™}]ˈ5JQf™6 ̎Ş9ŪȽ«¾ȥNɄ)Ŏäĺ5ImiRNA : 3´Džɏ>:Ê̞ÁEƵ9ĪĒ&K4 J 46ś˅: CPG ǚʁNȥ4ċ miRNA : 3´-Džɏ9”™Y›N³'4Xo™NōÙ '. (Figure 22) 2 NōÙ)J»ɲ6'4ǘȵ mRNA 9ɧČ)JZSu˸ 5´Džɏ: 1-23 ȬȻɶHK.,$52 NZSu˸: 1-23 ȬȻ9 1 2*2ōÙ'. 23 Ɋ̚: miRNA ƒ—›‚NČƁ'ǘȵˬ¹ĺ5J FSCN1 :ȳȠƇéõNjNTUgm™‚—prR™^ 5ʵÄ)J$652 :˩å8ōÙ»ɲNǔʰ'.. 1. U. UC. 23. C. C U-3´. guide strand 5´- G C A GU U U C C A GG A A U C C C GU C A A A GGU C CU U A GG -5´ passenger strand 3´- U U U U A Figure 21. miR-145 N° ƒ¬. O HN. O O O O PH. NH H N. S. O. O. O. O. O OH. Figure 22. 3´-Biotin TEG. 27.

(51) 3-2 miRNA ƒ—›‚:˯æ.  ċ miR-145 ƒ—›‚NġȽ‡g‡—Q‹nStǯ9űČƁ'. ČƁ'. RNA :˯ æN Table6 G= 7 9Ʉ'.ċ RNA :ǖˡ; MALDI-TOF/MS GIɃʸ'.. Table6. at miR-145 0°. RNA. Sequence. calculated. observed. RNA 18. 5´-GUC CAG UUU UCC CAG GAA UCC CU-3´. 7220.30. 7220.30. RNA 19. 5´-GUC CAG UUU UCC CAG GAA UCC CU-B-3´. 7789.91. 7789.75. RNA 20. 5´-2UC CAG UUU UCC CAG GAA UCC CU-B-3´. 7854.94. 7855.91. RNA 21. 5´-G2C CAG UUU UCC CAG GAA UCC CU-B-3´. 7893.98. 7892.14. RNA 22. 5´-GU2 CAG UUU UCC CAG GAA UCC CU-B-3´. 7894.97. 7894.33. RNA 23. 5´-GUC 2AG UUU UCC CAG GAA UCC CU-B-3´. 7894.97. 7894.82. RNA 24. 5´-GUC CAG UUU UCC CAG GAA UCC CU-B-3´. 7870.94. 7870.13. RNA 25. 5´-GUC CA2 UUU UCC CAG GAA UCC CU-B-3´. 7854.94. 7854.48. RNA 26. 5´-GUC CAG 2UU UCC CAG GAA UCC CU-B-3´. 7893.98. 7893.19. RNA 27. 5´-GUC CAG U2U UCC CAG GAA UCC CU-B-3´. 7893.98. 7895.33. RNA 28. 5´-GUC CAG UU2 UCC CAG GAA UCC CU-B-3´. 7893.98. 7893.70. RNA 29. 5´-GUC CAG UUU 2CC CAG GAA UCC CU-B-3´. 7893.98. 7895.31. RNA 30. 5´-GUC CAG UUU U2C CAG GAA UCC CU-B-3´. 7894.97. 7893.84. RNA 31. 5´-GUC CAG UUU UC2 CAG GAA UCC CU-B-3´. 7894.97. 7895.40. RNA 32. 5´-GUC CAG UUU UCC 2AG GAA UCC CU-B-3´. 7894.97. 7894.11. RNA 33. 5´-GUC CAG UUU UCC C2G GAA UCC CU-B-3´. 7870.94. 7871.07. RNA 34. 5´-GUC CAG UUU UCC CA2 GAA UCC CU-B-3´. 7854.94. 7854.60. RNA 35. 5´-GUC CAG UUU UCC CAG 2AA UCC CU-B-3´. 7854.94. 7856.63. RNA 36. 5´-GUC CAG UUU UCC CAG G2A UCC CU-B-3´. 7870.94. 7876.67. RNA 37. 5´-GUC CAG UUU UCC CAG GA2 UCC CU-B-3´. 7870.94. 7871.08. RNA 38. 5´-GUC CAG UUU UCC CAG GAA 2CC CU-B-3´. 7893.98. 7894.25. RNA 39. 5´-GUC CAG UUU UCC CAG GAA U2C CU-B-3´. 7894.97. 7896.05. RNA 40. 5´-GUC CAG UUU UCC CAG GAA UC2 CU-B-3´. 7894.97. 7895.08. RNA 41. 5´-GUC CAG UUU UCC CAG GAA UCC 2U-B-3´. 7894.97. 7894.37. RNA 42. 5´-GUC CAG UUU UCC CAG GAA UCC C2-B-3´. 7893.98. 7894.16. 28.

(52) Table7. at miR-145 5-'I$BJ°. RNA. Sequence. calculated. observed. RNA 43. 5´-GGA UUC CUG GAA AUU CUG UUC U-3´. 6989.15. 6979.82. ČƁ'. miR145 :}pi™f›˸ (RNA42) 6ċZSu˸ (RNA18-42) NɥBČM+4 25 Ɋ̚:ªdž˸ miR-145 NʽƬ'.. Table 8. ¦| miR-145 :HJ9. miRNAa. ZSu˸. }pi™f›˸. miR-145. RNA 18. RNA 43. miR-145-B. RNA 19. RNA 43. miR-145-G1. RNA 20. RNA 43. miR-145-G2. RNA 21. RNA 43. miR-145-G3. RNA 22. RNA 43. miR-145-G4. RNA 23. RNA 43. miR-145-G5. RNA 24. RNA 43. miR-145-G6. RNA 25. RNA 43. miR-145-G7. RNA 26. RNA 43. miR-145-G8. RNA 27. RNA 43. miR-145-G9. RNA 28. RNA 43. miR-145-G10. RNA 29. RNA 43. miR-145-G11. RNA 30. RNA 43. miR-145-G12. RNA 31. RNA 43. miR-145-G13. RNA 32. RNA 43. miR-145-G14. RNA 33. RNA 43. miR-145-G15. RNA 34. RNA 43. miR-145-G16. RNA 35. RNA 43. miR-145-G17. RNA 36. RNA 43. miR-145-G18. RNA 37. RNA 43. miR-145-G19. RNA 38. RNA 43. miR-145-G20. RNA 39. RNA 43. miR-145-G21. RNA 40. RNA 43. 29.

(53) a. miR-145-G22. RNA 41. RNA 43. miR-145-G23. RNA 42. RNA 43. 3´-Džɏ9Xo™NōÙ'. miR-145 N miR-145-B 6Xo™Ą=Qv—^NōÙ'.. miR-145 ;Qv—^:ōÙ»ɲ (N) N miR-145-GN 6Ʉ'4J. 3-3-1 Qv—^ 2 NōÙ'. miRNA ƒ—›‚9GJˬ¹ĺȳȠƇéʀ.  ʽƬ'. 25 Ɋ̚: miR-145 9GJǘȵˬ¹ĺ FSCN1 :ȳȠƇéʀNTUgm™‚—p rR™^94ʵÄ'. (Figure 23)  ijʅȲɣɿ DLD-1 N 6well 5 24 ƻ˼Ĩ̟Ű ċ miR-145 ƒ—›‚NǀɤȌŧ 40 nM 5t“™gU]e‘™'.ƿ9 48 ƻ˼Ĩ̟Űɫm™}] ˈNƌã'FSCN1 :ȳȠ˶Nǥˑ)J$65ċ miR-145 ƒ—›‚:ˬ¹ĺƇéʀNʵ Ä'.. C N B 1 2 3 4 5 6 7 8. C 9 10 11 12 13 14 15 16. FSCN1 ћDFWLQ C 17 18 19 20 21 22 23 FSCN1. & &RQWUROPL51$. % PL5%. ћDFWLQ. 1 1DWLYHPL5. 1XPEHU 1

(54)  PL5*1. Figure 23. miR-145 :HJ9 ­Og•vY£S.  ĴȓĦ: miR-145 6ǥˑ'4Xo™NōÙ'. miR-145-B 5;ˬ¹ĺȳȠƇéʀ ¼Ÿ)J$6Ƀʸ&K.$:ɧNj;Wilson H9G14ĪĒ&K. 3´-Džɏ>:Xo ™Ê̞ miRNA : RISC ŬƁNķ#J6ɀʧ6œʋ)J 47A.2 N 5´-Džɏ: 1-8 ȬȻ:»ɲ9ōÙ'.īČ5;ˬ¹ĺȳȠƇé@6O7Ƀʸ&K81.miRNA ; ɣɿ>ōÙŰ5´-Džɏ:Ǩ˲ĩ”™˲ø˱ɠ9G14”™˲øNĈ"JX ɬɧƾǖˡ ʬNJGI5´-Džɏ:”™˲ĩ; Argonaute : MID uS™6Ū!Ƚ«¾ȥ'4IRISC :ŬƁ9ŷʦ5J$6ĪĒ&K4J 48ű141 ȬȻ>: 2 :ōÙ; 5´-Džɏ:Ǩ ˲ĩ>:”™˲øN˿Ń'RISC ŬƁNķ#J$6Ʉę&K.A.e›u̕ħNď C 2-8 ȬȻ;miRNA 94ǘȵ6ĬĩʼnNŬƁ'F)̕ħ5JŁ̅s›m›. 30.

(55) ›gH©Ž&KJ FSCN1 mRNA 6 miR-145 :ªǞǖˡHE$:̕ħ>:ǨɠɧČ Ƀʸ&K. (Table 9) 2 ;Ĭĩʼn:ŬƁʀðNƐ.8.D$:̕ħ>:ōÙ; miR-145 :ǘȵ>:ɧČNķ#J$6Ʉę&K.15-17 ȬȻ>: 2 :ōÙE miR-145 : ˬ¹ĺȳȠƇéʀNij. !¼Ÿ&+4J$KEčǗ9ǘȵ6:ǨɠɧČNķ#4. J.D/6ɶHKJ''8H,:´:̕ħ9 2 NōÙ'.īČ5;miR-145-B 6čɉŧ:ˬ¹ĺȳȠƇéɃʸ5 2 :ōÙ9GJŭ̑;ŏ86ɶHK.. Table 9. FSCN1 mRNA miR-145 {kœa„o. Position of FSCN1 3´UTR. Predicted consequential paring. Position of 116-123 FSCN1 3´UTR hsa-miR-145 Position of 377-384 FSCN1 3´UTR hsa-miR-145 Position of 729-735 FSCN1 3´UTR hsa-miR-145 Position of 1140-1247 FSCN1 3´UTR hsa-miR-145              TargetScanHuman (http://www.targetscan.org). 31.

(56) 3-3-2 miR-145-G9 9GJǘȵˬ¹ĺƇéʀ.  $KA59˛?4 .Ł̠GIQv—^ 2 NōÙ)J»ɲ6'4e›u̕ħ9̆ƚ )J 9 ȬȻ:ĬĩǀE˩å6ɶHK.,$5$:»ɲ9Qv—^ 2 NōÙ'. miR-145-G9 Nȥ4 luciferase assay NʜčǗ9ǘȵˬ¹ĺ:ƇéʀNʵÄ'.ʵÄ ǯ9; Dual-luciferase reporter assay Nȥȳ×m™}]ˈ5J Firefly luciferase :ŸǶ9 FSCN1 mRNA : 3´UTR NƔÙ'. ]m›NʽƬ'miR-145-G9 6čƻ9ɣɿ>ōÙ' .24 ƻ˼Ű: Firefly 6 Renilla luciferase 9ȧLj)Jȳ×˶NȆŀ'miRNA 9GJ Firefly luciferase :ȳȠƇéõNjNʵÄ'.“™nŒ˯æ: miRNA N'.īČ:ȳ×˶Na™t. Firefly luciferase / Renilla luciferase (%). —›•6'4 100 %6'. (Figure 24) . 140 120 100. **. **. miR-145. 145-g9. 80 60 40 20 0 Control. Figure 24. miR-145-G9

(57)  –­OgvYŸ.  Qv—^ 2 G=Xo™NōÙ'. miR-145-G9 5EĴȓĦ6čǗ9 firefly luciferase :ˬ¹ĺȳȠƇéɃʸ&K.$6HmiR-145-G9 ;ɣɿÜ5 RISC N³'ǘȵ mRNA 9ȼƚɧČ)J$65,:ȳȠNƇé'4J$6Ʉ&K.. 32.

(58) 3-4 Qv—^ 2 NōÙ'. miR-145 ƒ—›‚9GJǘȵˬ¹ĺ:ƕȞ.  Qv—^ 2 G=Xo™NōÙ'. miR-145-G9 ɣɿÜ5 RISC NŬƁ'FSCN1 9 ɧČ)J$65,:ȳȠNƇé'4J$6Ƀʸ5. .:5Ł̅9džƒ—›‚Nȥ. 4 FSCN1 mRNA :ƕȞNʶB. ijʅȲɣɿ DLD-1 N 6 well 5 24 ƻ˼Ĩ̟ŰmiR-145-G9 NǀɤȌŧ 40 nM 5t“™gU]e‘™'.ƿ9 24 ƻ˼ŰUV (365 nm 20 ä302 nm 10 ɇ) NȔŌ'ɫ RNA Nƌã'.miR-145-G9 9G14Xo™ǘˁ&K.ǘȵ mRNA Ngt–ƒtQf™5a›rR™^'.Š^ypt›h5ɚʤ'Ý=ɫ RNA 6' 4ƌã'.Š^ypt›h9GJɚʤêŰ:ɫ RNA ¥9ďAKJ FSCN1 mRNA ˶N ”Q•mSŒ PCR 9GIŀ˶' miR-145-G9 9GJǘȵˬ¹ĺ:ƕȞʀNǔʴ'. (Figure 25) . 900. Relative FSCN1 mRNA level ћDFWLQ

(59). 800. EHIRUHSXULILFDWLRQ DIWHUSXULILFDWLRQ. ***. 700 600 500 400 300 200 100 0 145-B (+). 145-G9 (+). 145-G9 (-). Figure 25. 7J&˜¡Zq FSCN1 mRNA ¯.  a™t—›•6'4Qv—^ 2 NōÙ'48ɜ (miR-145-B(+))6 UV NȔŌ'4 8ɜ (145-G9 (-)) E¿+4ʜ1. ,:ɧNj Qv—^ 2 NōÙ'UV NȔŌ'. 145-G9 (+) 5:B›h:ɚʤŰ9 FSCN1 mRNA – •ij. !žƸ'.$:ɧNjHQ. v—^ 2 Ą=Xo™NōÙ'. miR-145-G9 ;UV ȔŌ9GIǘȵˬ¹ĺ5J FSCN1 mRNA 9×njǛNŬƁ'.$6Ƀʸ&K.. 33.

(60)  A.,:´:ǘȵˬ¹ĺ6'4miR-145 ; c-MYC mRNA 9ɧČ',:ȳȠNƇé )J$6ɀHK4J 49DLD-1 ɣɿ94 miR-145 9GJ c-MYC :ȳȠƇé;Ƀ ʸ5. 81. (Figure 26) '.14DLD-1 ɣɿ5; miR-145 ; c-MYC Nǘȵ6'. 8ĉʀźɄę&K. C. N. B. 9. c-MYC ћ-actin (48 h, 40 nM). Figure 26. miR-145 :HJ9

(61)  c-MYC •vYŸ.  ,$5 DLD-1 ɣɿGIE c-MYC :ȳȠ˶IJ COLO-201SW480 ɣɿ5 miR-145 9G. J c-MYC :ȳȠƇéNɃʸ'. (Figure 27) . (a). c-MYC β-actin (b) COLO201. (c) SW480. c-MYC. c-MYC. FSCN1. FSCN1. β-actin. β-actin. Figure 27. (a) DLD-1, COLO-201, SW480 šž

(62)  c-MYC •¯ (b) COLO-201 š žM miR-145

(63)  c-MYC •vY£S (c) SW480 šžM miR-145

(64) . c-MYC •vY£S.  DLD-1 ɣɿ5:Ł̠ɧNj6čǗ9FSCN1 :ȳȠ˶;¼Ÿ'4J c-MYC :ȳȠ˶9 İø;ʧHK81.ű14Öʜƭȝ:ɧNj6;ȭ8Jŏ8!6E²ĝƂø. 34.

(65) ļČƁ'. miR-145 ; c-MYC Nǘȵ6'48$6ƹH681.  ,$5čǗ9Š^ypt›hɚʤêŰ:ɫ RNA ¥9ďAKJ c-MYC mRNA ˶N” Q•mSŒ PCR 94ŀ˶'. (Figure 28) ,:ɧNjŠ^ypt›h9GJɚʤêŰ5 c-MYC mRNA ˶9İø;8!miR-145-G9 9×njǛ;ŬƁ&K48$6Ʉ&K. ű14 dž miRNA ƒ—›‚;ǘȵ mRNA :BN˫Ƌȵ9ǘˁ'4J$6Ƀʸ&K.. Relative c-MYC mRNA level ћDFWLQ

(66). 800 700. EHIRUHSXULILFDWLRQ DIWHUSXULILFDWLRQ. 600 500 400 300 200 100 0. 145-B(+). 145-G9 (+) 145-G9 (-). Figure 28. 7J&˜¡Zq c-MYC mRNA ¯. 35.

(67) 4Ɏ ×ąŹźǡĩĄ=Vow•ĩNōÙ'.ưʨRNAƒ—›‚:ČƁ6,: RNAƕȞʀ  ·ž˛?4Lj.Ǘ9ưʨ×ąŹźx]–XeuQv—^2Ą=Xo™NōÙ'. miRNAƒ—›‚NČƁ',:ǘȵmRNANǘˁø)J$69Ɓñ'.''8H3´Džɏ>:Xo™ōÙ;miRNA:RISC:ŬƁNķ#ǘȵmRNA>:ɧČN¼Ÿ&+J$ 6Ƀʸ&K.,$5GI̢ǵź8miRNAƒ—›‚:ČƁNȻƑ'ư.9x]–X euQv—^25Nʲʯ'. (Figure 29) . CF3 N N HO O OH. O. OH. 25. Figure 29. 3G#01H25 ƒ¬.  Qv—^25;űLjĦ:Qv—^29ò4ư.9Vow•ĩN ™j™ˮ»9µò'. ǖˡNǁ'4JōÙ'.Vow•ĩ;ȢøµòąŹ9GIQfu6˫Ƌȵ9ąŹ& +J$6ĉʀ5I$:$6H×]—g”™]ąŹ9GJǘȵmRNA:ƕȞŰ9 ƒ—›‚9Xo™äĺNōÙ)J$6ĉʀ68Jű14Qv—^25NȥJ$6 5RISC:ŬƁN˿Ń)J$68!ǘȵmRNA:ǘˁĄ=ƕȞĉʀ98J6ɶ. (Figure 30) dž̓5;Qv—^25NōÙ'.RNAƒ—›‚NČƁ',:RNAƕȞʀN ǔʴ)J66E9ǘȵmRNA:ȳȠƇéʀNʵÄ'.. UV cross-linking Click reaction CF3 N N. CF3 N N. miRNA mimic. target mRNA. label molecule N3. AA A. N N N. AA A. Figure 30. }¢V^rsmiRNA:HJ9

(68)  –mRNA y §. 36. AA A.

(69) 4-1 ™j™Ȣ9fQf”w•ĩĄ=Vow•ĩNǁ)JQ•a›•ʹō½:ČƁ.  Qv—^25;øČȘ1G=26čǗ9Q•a›•ʹō½6-D-”ˆ“z›gN^” ae•ø)J$65ŲHKJ6ɶ.A.Q•a›•ʹō½;ĪĒ&K4Jƅ̔ Năɶ9ČƁ'. (Scheme 8)50 3,5-diaminobenzoic acidNãȳāƮ6'4Q‹zĩN sandmayerąŹ5’Tɠ½9İƜ'.ŰȣƁȘNCH3OH9ȉʬ'˲źLJ¸5o•Vg r•>6İƜ)J$65øČȘ26NĆȟ51%5Ų.ƿ9NaBH4Nȥ4Vgr•NQ• a›•>İƜ'ŲHK.Q•a›•½NTBDMSCl6ąŹ&+Ǩ˲ĩNTBDMSĩ5È˂ øČȘ27NĆȟ92%5Ų.ɨ4øČȘ27NTHF9ȉʬ'-78 °CLJ¸Ÿ1ɓ˶:n-BuLi 5âȡ)J$69GIœƱ:’TɠN”oXø'.Űt”•X—˰˲Vo•NǾò) J$65øČȘ28NĆȟ85%5Ų.øČȘ289~u—[eQ‹™Ĭ˲ĬN¾ȥ&+X[ eŒ½6'.Ű9Ǩ˲ĩNte•ø'øČȘ29NĆȟ71%5Ų.ɨ4te•½29 N2ƶ˼Q™ŽwQǨ6ąŹ&+4øČȘ30NĆȟ92%5ČƁ'.ŲHK.fQf”f™ ʹō½30NI25˲ø'4øČȘ31NĆȟ93%5Ų.øČȘ316TIPS-Qio–™Nʕ̖Yp ƒ”™^5ˢɧ'øČȘ32Nŀ˶ȵ9ČƁ'ċe”•ĩN2ɓ˶:TBAFâȡ5ʂÈ˂ )J$65Ȼȵ:Q•a›•ʹō½33NĆȟ91%5ČƁ'.. H 2N. NH 2. O. 1. NaNO 2, urea, KI 25% H 2SO 4 aq. 2. H 2SO 4 CH3OH. OH. I. I. O. I. 1. NaBH 4 EtOH/THF (1/1). I. 2.TBDMSCl, imidazole DMF. OCH3. OTBDMS. 26: 51%. 27: 92%. O n-BuLi, CF3COOEt. I. CF3. THF OTBDMS. N. 1. HONH 2Cl pyridine. I. N N I 2, NEt 3. CF3. CF3. 29: 71%. TIPS PdCl 2(PPh) 3, CuI. TIPS. I. CF3. OTBDMS. OTBDMS. 30: 92%. N N. N N CF3. NEt 3. CH3OH. HN NH NH 3 aq. THF. 2. TsCl, NEt 3, DMAP CH2Cl2. 28: 85%. I. OTs. CF3. TBAF THF. OTBDMS. OTBDMS. 31: 93%. 32: quant.. OH 33: 91%. Scheme 8.fQf”w•ĩĄ=Vow•ĩNǁ)JQ•a›•ʹō½:ČƁ. 37.

(70) 4-2 x]–XeuQv—^25Ą=,:Q‹nSt½:ČƁ.  øČȘ12:ČƁ6čǗ:ƅǯ9GIQv—^25:Q‹nSt½NČƁ'.øČȘ33 61-O-acetyl-2,3,5-tri-O-benzoyl-β-D-ribofuranoseNÖ6čǗ:LJ¸Ÿ5^”ae•ø'øČ Ș34NĆȟ89%5ČƁ'.1H NMR9GJʬNJN$81.6$L5.31ppmµ˙91´»:H9ŝœ&KJe™^–pt:€›]ʪŇ&K..DȣƁȘNβ-½6ǫŀ'.ƿ 9øČȘ349ʭĹ˶:CH3ONaNȥ4ʂ ™lS•ø)J$65x]–XeuQv— ^25NĆȟ86%5ČƁ'.ɨ4øČȘ29DMTrClN1ū˶ąŹ&+5´-»:1ɟǨ˲ĩN ˫Ƌȵ9DMTrĩ9GIÈ˂'.øČȘ35NĆȟ90%5Ų.øČȘ35NTBDMSCl94âȡ '.ŰŲHK.ǽČȘNe”Y`•YŒ]—Št^“R›94ɚʤ'ü̉'.22: øČȘN,K-K1H NMRĄ=1H-1H COSYNȥ4ʬNJNʜ1.6$L2´-TBDMS½5 JøČȘ36Ą=3´-TBDMS½5JøČȘ37N,K-KĆȟ25 %27 %94ŲHK.$6 ä1.ǀŰ92´-TBDMS½36NŞǯ9GI­”™˲ø'x]–XeuQv—^25: Q‹nSt½5JøČȘ38NĆȟ76%5ČƁ'.(Scheme 9) . CF3 N N. O BzO O. O. +. HO. CF3. OBz OBz. CH3ONa. TMSOTf CH2Cl2. N N. CF3 N N. BzO O. CH3OH. O. HO. 33. OBz OBz. OH. 34: 89 %. CF3 N N Pyridine. DMTrO O OH. CF3 N N DMTrO O. OH. OH. 35: 90 %. O. P Cl DIPEA. CF3 N N +. DMF. O. O. OTBDMS. DMTrO O TBDMSO. 36: 25 %. CF3 N N. N(i-Pr)2. DMTrO. THF. O. NC. O. OH 25: 86 %. TBDMSCl TEA. DMTrCl. NC. O. O. O. O OTBDMS P N(i-Pr)2 38: 76 % 31P NMR: δ 149.4, 149.8. Scheme 9. 3G#01H25] ?+/Q at. 38. O. OH 37: 27 %.

(71) 4-3 Qv—^25NōÙ'.RNAƒ—›‚:ČƁ.  ČƁ'.x]–XeuQv—^25:Q‹nSt½Nȥ4ǐ˲ʊöČƁǜ94X”b x]–XouNČƁ'. (Table 10) ˯æ;Ĵȓ:miRNA5Jlet-7NǙ'4I5´-Dž ɏ:8ȬȻ9Qv—^25NōÙ'. (RNA 44) A.RNAƕȞʀǔʴ:.D 5´-DžɏNFITC 5ǘˁ'.ǘȵ˸EčǗ9ČƁ'.˯æ;let-7:Ƚʣ˸5IQv—^:ȽʣˮäNİ .4Ɋ̚:RNANČƁ'. (RNA 45-48) ČƁ'.ċX”bx]–Xou:ǖˡ; MALDI-TOF/MS9GIɃʸ'.. Table 10. `E!3G,0 ®X. RNA. aSequence. calculated. observed. RNA 44. 5´-UGA GGU AXU AGG UUG-3´. 4963.99. 4962.79. RNA 45. 5´-F-CAACCU AAU ACC UCA-3´. 5178.79. 5178.80. RNA 46. 5´-F-CAACCU AGU ACC UCA-3´. 5194.28. 5193.99. RNA 47. 5´-F-CAACCU ACU ACC UCA-3´. 5154.25. 5154.83. RNA 48. 5´-F-CAACCU AUU ACC UCA-3´. 5155.24. 5154.96. a. X = Qv—^25 F = FITC. 4-4 RNAƒ—›‚:RNAƕȞʀ.  Qv—^25NōÙ'.RNAƒ—›‚9GJRNAƕȞʀNǔʴ'.RNAƒ—›‚6Ƚʣ ˸RNAN1:1:îČ5ǽČ' Qw›”™^âȡ9GIªdž˸NŬƁ&+.Ű9 UV (365 nm 30ä302 nm 10ä) NǩǸž5ȔŌ'.7MT–QȉǻNò4ąŹNÎǟ&+ŲHK .ǽČǻN20% İźPAGE94äNJ'. (Figure 31)  Target RNA. ds RNA. ss RNA. RNA 44 - 45 46 47 48. ds RNA. ȽʣĬĩ. Ćȟ (%). RNA 44 + 45. A. 14. RNA 44 + 46. G. 9. RNA 44 + 47. C. 15. RNA 44 + 48. U. 13. Figure 31. 25mWRNA:HJ9 RNAyŸ. 39.

(72)  ,:ɧNjÚ4:ɥBČM+5̢äĺ˶̕ħ9ư.8|™uʪŇ&KRNAƒ—›‚ 6Ƚʣ˸RNA:]—g”™]ąŹ:ˣʜNɃʸ'.A.Ú4:ɥBČM+5]—g” ™]ąŹˣʜ'.$6HQv—^25NōÙ'.RNAƒ—›‚9GJȽʣ˸RNA:ƕ Ȟ;ȽʣĬĩ:Ɋ̚9ÃĻ'8$6Ƀʸ&K.. 4-5 Qv—^25NōÙ'.miRNAƒ—›‚9GJˬ¹ĺȳȠƇéʀ:ǔʴ.  25NōÙ'.RNAƒ—›‚ȽʣĬĩ:Ɋ̚9˽MH*Ƚʣ˸RNANƕȞĉʀ5J$ 6Ƀʸ&K..D25NōÙ'.miR-145ƒ—›‚NČƁ'ǘȵˬ¹ĺ5JFSCN1: ȳȠƇéõNjNTUgm™‚—prR™^5ʵÄ'.A.25:ōÙ»ɲ;$KA5: Ł̠9Ì5´-DžɏH9ȬȻ:Ĭĩ6'miR-145-G9:FSCN1ȳȠƇéʀ6ǥˑ'.. 4-5-1 miRNAƒ—›‚:ČƁ.  ZSu˸:9ȬȻ925NōÙ'.miR-145ƒ—›‚NġȽ‡g‡—Q‹nStǯ9űČ Ɓ'.RNA:ǖˡ;MALDI-TOF/MSGIɃʸ'.. Table 11. atmiR-1450°. RNA. Sequencea. calculated. observed. RNA 49. 5´-GUC CAG UUX UCC CAG GAA UCC CU-3´. 7350.41. 7349.52. a. X = Qv—^25. ZSu˸:9ȬȻ9Qv—^25NōÙ'.RNA436}pi™f›˸NɥBČM+ªdž˸ miRNA5JmiR-145-X9NʽƬ'.. Table 12. ¦|miR-145:HJ9. miRNA. ZSu˸. }pi™f›˸. miR-145-X9. RNA 49. RNA 43. 40.

(73) 4-5-2 Qv—^25NōÙ'.miRNAƒ—›‚9GJˬ¹ĺȳȠƇéʀ.  ʽƬ'.miR-145-X99GJǘȵˬ¹ĺFSCN1:ƇéʀNTUgm™‚—prR™^94 ʵÄ'. (Figure 32) ijʅȲɣɿDLD-1N6well524ƻ˼Ĩ̟ŰmiR-145ƒ—›‚Nǀɤ Ȍŧ20-40 nM5t“™gU]e‘™'.ƿ948ƻ˼Ĩ̟Űɫm™}]ˈNƌã' FSCN1:ȳȠ˶Nǥˑ)J$65miR-145ƒ—›‚:ˬ¹ĺȳȠƇéʀNʵÄ'.A. ǥˑʼn˃6'4ĴȓĦ:miR-1453´-Džɏ9Xo™NōÙ'.miR-145-BXo™Ą=9 ȬȻ9Qv—^2NōÙ'.miR-145-G9EČM+4Ł̠'ˬ¹ĺȳȠƇéʀNǥˑ'.. N. B. G9. X9. C 20  20  20  20  FSCN1 ћDFWLQ & &RQWUROPL51$. % PL5%. 1 1DWLYHPL5. * PL5*. ; PL5;. Figure 32. miR-145-:HJ9

(74) FSCN1 •vYŸ.  $KA5:Ł̠čǗĴȓĦ:miR-1456ǥˑ'4Xo™NōÙ'.miR-145-BF miR-145-G95;ˬ¹ĺȳȠƇéʀ¼Ÿ)J$6Ƀʸ&K.''8H9ȬȻ9 25:BNōÙ'.miR-145-X9;ĴȓĦ:miR-1456čɓ:ˬ¹ĺȳȠƇéʀNɄ)$6 ƹH981.ű1425NōÙ'.miRNAƒ—›‚NȥJ$65GIõȟȵ8ǘ ȵmRNA:ǘˁøǃů5. J. . 41.

(75) 5 Ɏ cRGD a™f`›t:ČƁ6,:ˬ¹ĺȳȠƇéʀ 5-1 miRNA ùʖĖ:˻ȳ. Ŧʾ5˛?.Ǘ9miRNA ;Ǘ8Ȯȯ9˽¡'4Iș9Oɣɿ5ȳȠ¼Ÿ'4 J miRNA ;¼äĺùʖ9İMJư.8ƉOë6'4ǃů&K4JÁ<ɹɣɿ Ȳ94ȳȠ˶¼Ÿ'4J miR-26a ;Oɣɿ9Q‰t›egNʹō',:ĭ ǢNƇJ$6ɀHK4J 51-52miR-34a EčǗ9ɹɣɿȲ:ȣɺ˿ŃNɄ'öȘŽ s•5EʄȰ:ȂŏNũ. ˊ$)6Û9ȣĻȟNijş9žƸ&+J$6ĪĒ&K4. J 53''8HȠģʉťɁɋA5ˣO5J miRNA ùʖĖ;ž˛'. miR-34a N ďCªĖȻ/"5I,:´ǐ˲ùʖĖ6ǥˑ'4,:˻ȳij. !˥K4JȚǮ. 9JÜĞź: miRNA NùʖĖ>6Źȥ)Jȑ9;·Ÿ9ƒ#Jʼ̘Nʬǫ)Jŷʦ J. 1) ùʖĖËʣ68J miRNA :ƙɡ ıĞź: siRNA FQ™oi™g DNA 6;ȭ8IÜĞź: miRNA NȥJīČ;ù ʖĖËʣ68J miRNA N˫Ɗ'8"K<8H8,:ȑ9;ʼn˃:ȮȯÁ<O ɣɿ¥5ȳȠ˶¼Ÿ'4J miRNA Nʼn˃9,KH:ǘȵ mRNA Nčŀ'Oɣ ɿÜ5:Ó NƹH9)JŷʦJ''8HmiRNA 6ǘȵ mRNA :ɧČ}m ›™;‹gŠpoĬĩʼnNďC$6H̎Ş9IJǗ5I,:ʬNJ9;IJ!:ƻ˼6ˆ ȥNŷʦ6)J 2) u“p^s”|”›egrŒ:˻ȳ  ǐ˲ùʖĖ:˻ȳ9Û˟)Jʼ̘6'4ǐ˲:”™˲fVgr•ȧLj:˄̌ʑ9GI ɣɿʆ˞˦ź¼Ě̘ȐI$KNʬǫ)Ju“p^s”|”›egrŒ:˻ȳ ŷʦ5J.  ž˛'. 2 ʼ̘:0 1) 924;$KA5:Ɂɋ5×ąŹź miRNA ƒ—›‚9G Jǘȵ mRNA :ʬNJǯN˻ȳ'4IdžƅǯNȥJ$65 miRNA :ǜʀʬNJN˘ˠ 9ʜ$6ĉʀ681.,$5džɎ5;miRNA :ùʖĖ>:ŹȥNŽŀ'ư.8 u“p^s”|”›egrŒ:˻ȳNȻȵ6'.. 42.

(76) 5-2 ǐ˲ùʖĖ:s”|”›.  ǐ˲ùʖĖ:s”|”›Ʊǯ;ij !ä"41) ʁˈvzəĺ (Lipid Nano Particle: LNP) N[”Q6)J LNP ǯ62) ɣɿʆž:Ĉń½9ʸˁ&KJ”Z™uäĺNǐ˲9ɧČ &+J”Z™ua™f`›tǯĻģ)J (Figure 33) 54 (A) LNP法. (B) リガンドコンジュゲート法. Figure 33. (A) LNP ‰ (B) EI0. I$CJ/‰ ƒ¬. 5-2-1 LNP ǯ LNP ǯ;ȠģǀEŤ!ȥHK4Jǐ˲:s”|”›Ʊǯ5J 55-58LNP ǯ5;˄̌ ʑ:ǐ˲YoX™ź:ʁˈ6vzəĺNŬƁ'V™ucSt›eg9GIõȟʎ!ɣ ɿÜ>ōÙ&KJüɞ8 LNP ;Ĩ̟ɣɿɜ5;õNjȵ5JE::in vivo 5ȥJ9 ;˩&8YoX™źʁˈ;ʛ¥:m™}]ˈ6Ū!Ƚ«¾ȥ',:ɧNjɣɪÜȷ ɜ:PbcSt›eg9G14ˠF9ʛ¥HƗã&K4'Aȑ5Jű14in vivo 5ȥHKJ LNP ;œʍȵ9 ʛ¥:m™}]ˈ6:Ƚ«¾ȥN˭"Jȑ9¥ź: PEG äĺ5a›rR™^&K4JA.œʍȵ8 LNP ;əĺɜ 100-200 nm 6ǥˑȵcS h:ij. 8ʥȽ5Jȑin vivo 5s”|”›ĉʀ8ɥɰ;ʛɕ˞˦ź:̢ɹʈʃʈ. Ą=œˮ:ʄȰ9é́&KJò4ʤëø)J̅9÷ơ)J siRNA :˶əĺ:ĥœ ø87ʼ̘6814J. 5-2-2 ”Z™ua™f`›tǯ.  ˙Ţư.8u“p^s”|”›egrŒ6'4ǐ˲>:”Z™ua™f`›tǯ DzȻN̈D4J. 59-62. ”Z™ua™f`›tǯ; LNP ǯ6;ȭ8I̎Ş9äĺc. ShŎ&!m™}]ˈ>:̎șȭȵ8ĐȿNˊ$'9!ȑPbcSt›eg9G JƗãN˭"HKJ´LNP ǯ6ǥˑ'4ǤźǕD4¼6ɶHK4JA.ä. 43.

(77) ĺcShŎ&:5ʛɕ˞˦ź9EÕK4IIJǗ8ɥɰ>:s”|”›ĉʀ5 J6©Ž&KJ&H9”Z™u6X”bx]–XouHƁJe™ƒ•8ǖˡ5J .DǖˡʬNJńƺ5Iʤë:ĥœø9ÕK4JœƱ5LNP ǯ6ǥˑ)J6 ǐ˲:ɣɿÜ>:ōÙõȟ¼6Ě̘ȐEĻģ)JA.LNP ǯ6ȭ8Iǐ˲ ì. ã'5Ļģ)Jȑx]–Q›j9GJäʬNĈ"F). 5-2-3 miRNA ùʖĖ:ʄȰ>:s”|”›Ʊǯ.  Q™oi™g DNA FsiRNA 5;”Z™ua™f`›tǯȹO9ɁɋĪĒ&K4 JmiRNA 5;DŽ/”Z™ua™f`›tǯ9GJs”|”›:ĪĒÁ;8 $K;ǘȵșȭź:̢Q™oi™g DNA F siRNA 6ǥˑ'4ʥƫ:ǘȵ mRNA N éų)J miRNA ;ƈ¡˶IJ!8JÒĎ9IōÙõȟ:¼”Z™ua™f`›t ǯ6:ȽźŻȑ5JœƱ5˜˧ɥɰN˫<8”Z™ua™f`›tǯ;ʄ Ȱ>:s”|”›9ǁõ5JȑGIōÙõȟ:̢ miRNA-”Z™ua™f`›te grŒ:˻ȳǪDHK4J. 5-2-4 Cyclic RGD †ƒou.  cyclic RGD (cRGD) ; RGD ˯æNďC 5 ǡĩ:ȢȚ†ƒou5I (Figure 34) ɣɿʠ ̏:Ĉń½5J αVβ3 S™r^”™9˫Ƌȵ9ɧČ)J$6ɀHK4J. 63. αVβ3 S™. r^”™;ʛɕưȣ¥:ÜȷɣɿFIJ!:Oɣɿ5̢ȳȠ'4JȑcRGD ;Oǭ ȱ9"Js”|”›äĺ6'4Ť!ȥHK4J 64Q™oi™g DNA F siRNA >: cRGD Ê̞ÁEƵ9ĪĒ&K4I 65-66cRGD NʥƫƟ˒'. siRNA ;LNP ”›5ˬ ¹ĺȳȠƇéʀNɄ)$6EƹH9814J 67 HN O. HS O. NH NH. NH. HN O HN H N. O O. O OH. c(RGDfC). Figure 34. cRGD ƒ¬. 44. NH 2.

(78)  A.cRGD ;ü˶½GIEª˶½˶½GIĈń½9ʼn)Jʩĕź̢$6IJ !:Ɂɋ5ƹH9814J$K; cRGD :őƄȌŧ:žƸ6IJÄõNj9GJE: 6ɶHK4J 69IJÄõNj6;ʥƫ:”Z™učƻ9ʥƫ:Ĉń½9ɧČ)J$6 5ɧČð̛ˏȵ9žƸ)JȠ˃5IIJÄõNjNȳȠ&+Jȑ9;”Z™u˼:”™ Y›˺œŀ·ž:˺&5JŷʦJ. 5-3 džɁɋ:Ȼȵ.  ·ž:Ǘ8ɼƽHdžɁɋ5; miRNA 9˩ȥĉʀ8ɣɿÜōÙõȟ:̢ cRGD a ™f`›t:˻ȳNȻȵ6'. Ɵ˒)J cRGD ;IJÄõNj9GJɧČð:žƸNț g†›c›˺Nİ4ǖˡǵźȽ˽Nʜ$6NʯȨ'.$K9GIōÙõȟ:̢ cRGD a™f`›t:ǖˡNƙɡ)J²ĝcRGD Na™f`›t)J˯æ9; miRNA 5;8! siRNA NƘȥ'.siRNA ;°ȑȵ9ʲʯ'.ıĞź:ªdž˸ RNA 5 ImiRNA GIE¼ń˶5ˬ¹ĺȳȠƇéõNjNɄ)ȑcRGD a™f`›t:ǖˡǵ źȽ˽Nʜž5ǀ˩5J6ɶ.  A.”Z™ua™f`›tǯ5;ǐ˲äĺx]–Q›j9GJäʬNĈ"F) ȑøļÊ̞Nʜ$65x]–Q›jɸź miRNA ˯æNƙɡ)J  ǀɤȵ9;ǵźȽ˽9GIǀ˩ø&K. cRGD ǖˡ6x]–Q›jɸź miRNA Nȥ 4 cRGD-miRNA a™f`›t:ČƁNʜmiRNA ùʖĖ>:ŹȥNȻƑ). 45.

(79) 5-4 cRGD-siRNA a™f`›t:ʲʯ.  cRGD : siRNA >:ōÙ9; post-synthetic modification ǯNƘȥ'.þ0ąŹź:̢  Q ‹ z ĩ 5 Ê ̞ ' . RNA N ǐ ˲ ʊ ö Č Ɓ ǜ 5 Č Ɓ ' . Ű  N-ε-maleimidocaproyl-oxysuccinimide ester (EMCS) 6:ɮČąŹ5 RNA 9Š–S‹uĩNō Ù)Jɨ"4cRGD :oX›•ĩ:Š–S‹uĩ>:ŠS_•µòąŹ9GIRNA 9 cRGD NōÙ)J$6NʯȨ'. (Scheme 10) . O. O N. O. O. RNA. O. N O. O. O. EMCS. NH 2. N H. OH. O. RNA. O OH. Phosphate buffer, pH 7.4. O. H N. N H. N O. O. HN O. HS O. NH NH. NH. NH 2 NH 2. HN. HN. NH. O HN H N. O O. O. O O. RNA. OH. OH. N H. O. O. H N. N O. O. c(RGDfC). O N H. S. HN. NH O. H N. HN. O. O O. OH. Scheme 10. cRGD ;:,0 RNA  mW.  A.RNA 9Q‹zĩNōÙ)Jȑ9ư.9Q‹zÊ̞Q‹nStNʲʯ'. (Figure 35A) ò4cRGD :”™Y›˺Nʽɖ)J.D:g†›c›Q‹nStEčƻ9ʲʯ '. (Figure 35B) Q‹zÊ̞Q‹nSt6g†›c›Q‹nStNɥBČM+J$65 ʥƫ: cRGD NƟ˒'”™Y›˺Nʽɖ'. cRGD a™f`›t:ČƁĉʀ98J 6ɶ. (A). (B). O. NC. DMTrO O. P N. O. N H. H N. CF3 O. DMTrO. O 6. P N. O. CN. Figure 35. (A) ?4U´?+/ ƒ¬ (B) %;J"J?+/ ƒ¬. 46.

(80) 5-5 Q‹zÊ̞Q‹nStĄ=ġȽƍ½:ČƁ.  6-aminohexanoic acid NãȳāƮ6'Q‹zĩNt”•X—˰˲Vo•5âȡ)J$ 69GIt”•X—Qio•ĩ5È˂'.øČȘ 40 NĆȟ 43%5Ų.ɨ"4ø ČȘ 40 N (S)-3-amino-1-O-(4,4´-dimethoxy)trytily-2-propandiol (39)69 6:ɮČąŹ9Â'ø ČȘ 41 NĆȟ 76%5Ų.ǀŰ9øČȘ 41 NżĪ9ű­”™˲ø)J$65Ȼȵ:Q ‹nSt½ 42 NĆȟ 42%5ČƁ'.A.øČȘ 41 NȒǨa{]˲6ąŹ&+4g] ew•½6'.ŰQ‹zĩNǁ)J CPG (controlled pore glass) ǚʁ6ʂǨɮČ)J$69 GIġȽƍ½ 43 NōÙȟ 35.8 μmol/g 5Ų. (Scheme 11) . DMTrO. NH 2 OH 39. CF3COOEt. O. TEA. O NH 2. HO. H N. HO. MeOH. CF3. O. EDCl, DMAP, TEA DMTrO. DMF O. OH. 41: 76 % 31P. O DIPEA NC. CH2Cl2. DMTrO O. P N. O. CF3 O. 40: 43 %. iPr 2NP(Cl)O(CH 2)2CN. H N. N H. H N. N H. NMR: δ 149.0, 149.7. CF3 O. 42: 51 %. O. 1) succinic anhydride, CPG pyridine. O DMTrO OH. H N. N H. CF3. DMTrO O. 2) CPG, EDCl, DMF. O. H N. N H. CF3 O. O HN O CPG. 41. 43. Scheme 11. ?4U´?+/]b—wQ at. 5-6 g†›c›Q‹nSt:ČƁ.  hexaethylene glycol NãȳāƮ6'0.5 ɓ˶: DMTrCl NąŹ&+4̥Ʊ:Ǩ˲ĩ :BN DMTr ĩ5È˂'.øČȘ 44 NĆȟ 48%5Ų.ƿ9EœƱ:Ǩ˲ĩNŞ ǯ9ű­”™˲ø)J$65Ȼȵ:Q‹nSt½ 45 NĆȟ 54%5Ų. (Scheme 12)  iPr 2NP(Cl)O(CH 2)2CN HO. O. H 6. DMTrCl Pyridine. DMTrO. O. DIPEA. H. CH2Cl2. 6. O. DMTrO. 6. 44: 48%. P N. O. 45: 54% 31P. Scheme 12.%;J"J?+/ at. 47. NMR: δ 149.1. CN.

(81) 5-7 Q‹zÊ̞ RNA :ČƁ.  Q‹zÊ̞Q‹nStġȽƍ½Ą=g†›c›Q‹nStNȥ4ǐ˲ʊöČƁǜ 94Q‹zÊ̞ RNA NČƁ'.˯æ;`zŒÊŴ9˽¡)J RecQL1 mRNA Nǘȵ6' . siRNA 5I Ƶ9 2´-O-metyl Ê̞9GIx]–Q›jɸźNȞŲ'4J (Figure 36)  Q‹zĩĄ=g†›c›;ǘȵ6;ɧČ'8}pi™f›˸: 3´Džɏ9ōÙ'.A .ǘȵ mRNA 9ɧČ)JZSu˸ RNA 57,58 Eǐ˲ʊöČƁǜNȥ4ČƁ'.ČƁ '.ċ RNA :ǖˡ;MALDI-TOF/MS 9GIɃʸ'. (Table13) . Table 13. cRGD-RNA. I$CJ/ ®X. RNA. Sequence. calculated. observed. RNA 50. 5´-Guu cAG ACC ACu ucA Gcu uTT-3´. 6693.19. 6693.04. RNA 51. 5´-Guu cAG ACC ACu ucA Gcu uTT XXX-3´. 7491.88. 7490.30. RNA 52. 5´-Guu cAG ACC ACu ucA Gcu uTT sXXX-3´. 7836.18. 7835.73. RNA 53. 5´-Guu cAG ACC ACu ucA Gcu uTT sXsXsX-3´. 8524.78. 8522.44. RNA 57. 5´-AAG CUG AAG UGG uCu GAA cTT-3´. 6785.18. 6784.57. RNA 58. 5´-F-AAG CUG AAG UGG uCu GAA cTT-3´. 7313.64. 7314.83. u, c = 2´-OMe RNA, F = Fluorescein, s = hexaethylene glycol, X = amine.  ɨ"4Q‹zĩNōÙ'. RNA 51-53 9 cRGD NōÙ'3 Ɋ: cRGD-RNA a™f `›tNư.9ČƁ'.cRGD NōÙ'. RNA54-56 :ǖˡ;MALDI-TOF/MS 9GI Ƀʸ'. (Table 14) . O NH N. HO. O. O OH. OMe. Figure 36. 2´-OMe RNA ƒ¬. 48.

(82) 5-8 RNA 54 :ČƁ.  ČƁ'.Q‹zÊ̞ RNA 51 N pH 7.4 :”™˲ɭʞǻ¥9ȉʬ'Q‹zĩ6 N-ε-maleimidocaproyl-oxysuccinimide ester (EMCS) 9GJɮČąŹ5 RNA 9Š–S‹uĩN ōÙ'.Š–S‹uµò½N HPLC 5ɚʤ'.ŰcRGD :oX›•ĩ6Š–S‹u:Š S_•µòąŹ9GIRNA 54 NŲ. (Scheme13) (Figure 37) . (1) マレイミドの付加 RNA. O HO. O. O P. O. RNA NH 2. N H. O O P OH O. O. O N. O. O. P. HO. O. O EMCS. O. O. OH. O. H N. O. N O O. H N. NH 2. N H. O. O. O O P OH O. Phosphate buffer, pH 7.4. N O. N H. O O P OH O. O. H N. N H. O O P OH O. N O. NH 2. N H. OH. O. O. O. O. N H. N O. O. RNA 51 50 RNA. NH 2 HN. NH. (2) cRGDの付加. O O. O. HS O. NH NH. NH. HN O HN. NH 2. RNA HO. O. O P. S. N. H N. O HN. NH. H N. O. O N H. O. NH 2. HN. NH. O OH. c(RGDfC). O. OH. O O. O. O O P OH. H N. O O. NH. O. HN. HN. O. O. N H O O P OH. O. O. H N. N H. N O. S. NH O. O. HN HN. H N O. O. O. OH. O O HO. N H. HN H N. O O. O. N O. S O. NH. N H. O HN. NH HN RNA RNA 52 54. O O O OH. Scheme 13. RNA 54 at. 49. NH 2 NH.

(83) (A) Š–S‹u:µò. RNA 51. RNA 51 + maleimide. 0. 10. 20. 30. 40. (min.). ǔã: UV 260 nm, Ƕˠ: 1.0 mL/min, ɈöȽ: (A) 5%Qitwt”•0.1 M TEAA (pH =7.0) (B) 50%Qitwt”•0.1 M TEAA (pH=7.0)^“fV™t: B conc. 0% (0 min) 35% (20 min) 100% (30-35 min) 0% (35-40 min). (B) cRGD :µò RNA 51 + maleimide. RNA 54. 0. 5. 10. 15. 20. (min.). ǔã: UV 260 nm, Ƕˠ: 1.0 mL/min, ɈöȽ: (A) 5%Qitwt”•0.1 M TEAA (pH =7.0) (B) 50%Qitwt”•0.1 M TEAA (pH=7.0)^“fV™t: B conc. 0% (0 min) 35% (2.5 min) 60% (22.5 min) 100% (25-35 min) 0% (40-45 min). Figure. 37 RNA 54 ^r«©. 50.

(84) 5-9 RNA55 :ČƁ.  Č Ɓ' . Q‹ zÊ ̞ RNA 52 N pH7.4 :”™ ˲ ɭʞ ǻ ¥9 ȉʬ ' Q ‹z ĩ 6 N-ε-maleimidocaproyl-oxysuccinimide ester (EMCS) 9GJɮČąŹ5 RNA 9Š–S‹uĩN ōÙ'.Š–S‹uµò½N HPLC 5ɚʤ'.ŰcRGD :oX›•ĩ6Š–S‹u:Š S_•µòąŹ9GIRNA 55 NŲ. (Scheme 14) (Figure 38) . (1) マレイミドの付加. RNA. O. HO O P O. O. 6. O NH 2. N H. O O P OH O. O O. N. RNA. N O. O. O. O. HO O P O O 6. O EMCS. NH 2. N H O O P OH O. OH. O. O. O. O. O N. N H. OH. O O. H N. NH 2. N H. O. H N O. O O P OH O. O. N O. O O P OH O. N H. Phosphate buffer, pH 7.4. O. H N. N H. N O. O. RNA RNA 52 51. NH 2 HN. NH. (2) cRGDの付加. O O. O. HS O. NH NH. NH. NH 2. HN O HN RNA. H N. O O. NH. O. HO O P O O 6. NH S. N. H N. O. O HN. O. HN. HN. H N. O. O N H O O P OH. NH 2. HN. NH. O OH O. c(RGDfC). OH. O O. O. O. O. N H O O P OH. O. O. H N. N H. N O. S. NH O. O. HN HN. H N O. O. O. OH. O O HO. N H. HN H N. O O. O. N O. S O. NH. N H. O HN. NH HN 53 RNA 55. O O O OH. Scheme 14. RNA 55 at. 51. NH 2 NH.

(85) (A) Š–S‹u:µò. RNA 52. RNA 52 + maleimide. 0. 10. 20 (min.). 30. 40. ǔã: UV 260 nm, Ƕˠ: 1.0 mL/min, ɈöȽ: (A) 5%Qitwt”•0.1 M TEAA (pH =7.0) (B) 50%Qitwt”•0.1 M TEAA (pH=7.0)^“fV™t: B conc. 0% (0 min) 35% (20 min) 100% (30-35 min) 0% (35-40 min). (B) cRGD :µò. RNA 52 + maleimide RNA 55. 0. 5. 10 (min.). 15. 20. ǔã: UV 260 nm, Ƕˠ: 1.0 mL/min, ɈöȽ: (A) 5%Qitwt”•0.1 M TEAA (pH =7.0) (B) 50%Qitwt”•0.1 M TEAA (pH=7.0)^“fV™t: B conc. 0% (0 min) 35% (2.5 min) 60% (22.5 min) 100% (25-35 min) 0% (40-45 min). Figure 38. RNA 55 ^r«©. 52.

(86) 5-10 RNA56 :ČƁ.  Č Ɓ' . Q‹ zÊ ̞ RNA 53 N pH7.4 :”™ ˲ ɭʞ ǻ ¥9 ȉʬ ' Q ‹z ĩ 6 N-ε-maleimidocaproyl-oxysuccinimide ester (EMCS) 9GJɮČąŹ5 RNA 9Š–S‹uĩN ōÙ'.Š–S‹uµò½N HPLC 5ɚʤ'.ŰcRGD :oX›•ĩ6Š–S‹u:Š S_•µòąŹ9GIRNA 55 NŲ. (Scheme 15) (Figure 39) . (1) マレイミドの付加. RNA. O. O. HO O P O. O. 6. NH 2. N H. O O P OH O. O. O. O EMCS. HO O P 6 O. N O. HO O P O 6 O. O. O. O. O. N O. O. O. HO O P 6 O. O. H N. N H. OH. (2) cRGDの付加. O. O. NH 2. N H O O P OH OH. O. H N. N H O O P OH. Phosphate buffer, pH 7.4. O. O. H N. N H. O O P OH. 6. N O. O. HO O P O. O. NH 2. O O P OH O. O O. O N H. 52 RNA 53. O N. HO O P O 6 O. RNA. N O. O. NH 2 HN. NH. HN O. HS O. NH NH. NH. O NH 2 O. HN O. HN H N O RNA. OH. N H. O HN. O. O O. NH. O. HO O P O O 6. c(RGDfC). H N. OH O O. O. NH 2 HN. O. O. N H. S. N. H N. O. NH. NH. O O P OH O. O O. HO O P 6 O. O O. H N. N H O O P OH. NH HN. O N O. NH. S O. O. H N. O. HN. O. OH. O. O O HO O. P. 6. NH 2. HN. NH. O O. RNA RNA 54 56. HO. N H. H N. N H. N O. O. O. O O. S. HN. NH O. H N O. Scheme 15. RNA 56 at. 53. HN. O. O. OH.

(87) (1) Š–S‹u:µò. RNA 53. RNA 53 + maleimide. 0. 10. 20 (min.). 30. 40. ǔã: UV 260 nm, Ƕˠ: 1.0 mL/min, ɈöȽ: (A) 5%Qitwt”•0.1 M TEAA (pH =7.0) (B) 50%Qitwt”•0.1 M TEAA (pH=7.0)^“fV™t: B conc. 0% (0 min) 35% (20 min) 100% (30-35 min) 0% (35-40 min). (2) cRGD :µò. RNA 53 + maleimide RNA 56. 0. 5. 10. 15. 20. (min.). ǔã: UV 260 nm, Ƕˠ: 1.0 mL/min, ɈöȽ: (A) 5%Qitwt”•0.1 M TEAA (pH =7.0) (B) 50%Qitwt”•0.1 M TEAA (pH=7.0)^“fV™t: B conc. 0% (0 min) 35% (2.5 min) 60% (22.5 min) 100% (25-35 min) 0% (40-45 min). Figure 39. RNA 56 ^r«©. 54.

(88) 5-11 cRGD-siRNA a™f`›t:ɣɿʆ˞˦źǔʴ.  ČƁ'.ċ cRGD-RNA a™f`›tNĩ9ʘ×ǘˁ siRNA NʽƬ'ɣɿ>:ćI˗ BNʘ×̙ŵ˹5ʪŇ)J$65PEG g†›c›ɣɿʆ˞˦ź9¡Jŭ̑NʵÄ' .. 5-11-1 ʘ×ǘˁ cRGD-siRNA a™f`›t:ʽƬ. ʘ×ǘˁ'. RNA 58 6 cRGD NōÙ'.Ƚʣ˸ RNA 54-56 NɥBČM+4Qw›”™^ âȡN'4 Ɋ:ʘ×ǘǘˁ siRNA 1-4 NʽƬ'. (Table 14) . Table 14.  V § cRGD-siRNA. I$CJ/ ®X. siRNA. RNA. Sequece. calculated. observed. siRNA 1. RNA 58. 3´-TTc AAG uCu GGU GAA GUC GAA F-5´. -. -. RNA 50. 5´-Guu cAG ACC ACu ucA Gcu uTT-3´. -. -. RNA 58. 3´-TTc AAG uCu GGU GAA GUC GAA F-5´. -. -. RNA 54. 5´-Guu cAG ACC ACu ucA Gcu uTT XXX-3´. 9867.43. 9869.47. RNA 58. 3´-TTc AAG uCu GGU GAA GUC GAA F-5´. -. -. RNA 55. 5´-Guu cAG ACC ACu ucA Gcu uTT sXXX-3´. 10151.73. 10150.28. RNA 58. 3´-TTc AAG uCu GGU GAA GUC GAA F-5´. -. -. RNA 56. 5´-Guu cAG ACC ACu ucA Gcu uTT sXsXsX-3´. 10840.33. 10842.11. siRNA 2. siRNA 3. siRNA 4. u, c = 2´-OMe RNA, F = Fluorescein, s = hexaethylene glycol, X = cRGD. 55.

(89) 5-11-2 cRGD-siRNA a™f`›t:ɣɿʆ˞˦źʶ̠. . ʘ×ǘˁ'. siRNA1-4 N~t“z›Šɣɿ A2058 >Ǿò',:ʘ×NʪŇ)J$. 65ɣɿʆ˞˦źNʵÄ'.A2058 N 24 ƻ˼Ĩ̟'ĨĤNʛǿ”›:ĨĤ9İƿ' .ŰsiRNA NɤȌŧ 250 nM 5Ǿò'.37 °C LJ¸ŸCO2 S™[ ›m›5 18 ƻ˼ Ĩ̟'.ŰǐǍʏʶʖ6'4 Hoecst-33342 Nò4ƿ9 10 ä˼S™[ ›t'.Ĩ ĤNćĨ. 1PBS 5ǴǷ'.Űʘ×̙ŵ˹5ɣɿNʪŇ'. (Figure 40) . RGD. RGD. (EG)6. RGD. RGD. RGD. (EG) 6. RGD. siRNA 3. siRNA 2. (EG) 6. RGD. (EG) 6. RGD. siRNA 4. merge. Hoechst. Fluorescein. siRNA 1. RGD. 20. Figure 40. cRGD-siRNA. I$CJ/ _ª¤µ.  cRGD NōÙ'48 siRNA 1 5;ʘ×@6O7ʪŇ&K81.:9ʼn'4 cRGD NōÙ'. siRNA 2-4 5;Ú4•X–iS™ȧLj:ʘ×ʪŇ&K.A.siRNA 2 6 siRNA 3 5;@6O7ʘ×Ūŧ9ř81.œƱ53 äĺ: cRGD ˼9 PEG g†›c› NōÙ'. siRNA 4 5ǀEŪʘ×ʪŇ&K.$K;ūç:ǃů˟Ig†›c›N ōÙ'. 3 äĺ: cRGD IJÄõNj9G14ɧČðijş9žƸ'.ȑ6ɶHKJ ,$5·̀:Ł̠;siRNA 4 :}pi™f›˸5J RNA 56 Nȥ4Ł̠Nʜ$6 6'.. 56.

(90) 5-12 cRGD-siRNA a™f`›t:ˬ¹ĺȳȠƇéʵÄ.  ɣɿÜćI˗Bʶ̠5ǀEōÙõȟ:ʎ1. RNA 56 Nȥ4 siRNA NʽƬ' cRGD-siRNA a™f`›t:ˬ¹ĺȳȠƇéʀN”Q•mSŒ PCR ǯ5ʵÄ'.yZ rR‚a™t—›•6'4cRGD NōÙ'48 siRNA 5 Ečƻ9ʽƬ'. (Table 15). Table 15. cRGD-siRNA. I$CJ/ ®X. siRNA. RNA. Sequece. siRNA 5. RNA 57. 3´-TTc AAG uCu GGU GAA GUC GAA-5´. RNA 50. 5´-Guu cAG ACC ACu ucA Gcu uTT-3´. RNA 57. 3´-TTc AAG uCu GGU GAA GUC GAA-5´. RNA 56. 5´-Guu cAG ACC ACu ucA Gcu uTT sXsXsX-3´. siRNA 6. u, c = 2´-OMe RNA, s = hexaethylene glycol, X = cRGD. 5-12-1 cRGD-siRNA a™f`›t:ˬ¹ĺȳȠƇéʀ.  cRGD :ōÙ siRNA :ǵź9¡Jŭ̑NʵÄ)J.D9ś˅:ǐ˲ōÙʶʖ5 J”‰U]m‹™ RNAiMAX Nȥ4 siRNA 5 Ą= 6 :ˬ¹ĺȳȠƇéʀNʵÄ'. ~t“z›Šɣɿ A2058 N 96well 5 24 ƻ˼Ĩ̟Űċ siRNA 6 RNAiMAX :ʥȽN ǀɤȌŧ 20 nM 5t“™gU]e‘™'.ƿ9 24 ƻ˼Ĩ̟Űɫ RNA Nƌã'4 ǘȵ5J RecQL1 mRNA N”Q•mSŒ PCR ǯ9GIŀ˶)J$65siRNA :ˬ¹ĺ ȳȠƇéʀNʵÄ'. (Figure 41A)   A.cRGD a™f`›t9GJˬ¹ĺs”|”›õNjNǔʴ)Jȑǐ˲ōÙʶʖN ȥ*9ˬ¹ĺȳȠƇéʀ:ʵÄNʜ1.čǗ9 A2058 N 96well 5 24 ƻ˼Ĩ̟'ĨĤ Nʛǿ”›:ĨĤ9İƿ'.Űċ siRNA NǀɤȌŧ 250 nM 5Ǿò'.ƿ9 72 ƻ˼ Ĩ̟Űɫ RNA Nƌã'4ǘȵ5J RecQL1 mRNA N”Q•mSŒ PCR ǯ9GIŀ˶ )J$65siRNA :[”Q”›5:ˬ¹ĺȳȠƇéʀNʵÄ'. (Figure 41B). 57.

(91) (B) キャリアフリー. 120. 120. 100. 100. 80. 80. % expression. % expression. (A) キャリアを使用. 60. 60. 40. 40. 20. 20. 0. 0 Control. siRNA 5. siRNA 6. Control. siRNA 5. siRNA 6. Figure 41. (A) BER‘­Og•vYŸ¤µ, (B) BE8EJ ­Og •vYŸ¤µ.  (A) cRGD N}pi™f›˸: 3’Džɏ9ōÙ'. siRNA 6 ;”‰U]m‹™ĻģŸ5 DŽÊ̞: siRNA 5 6čǗ8ˬ¹ĺȳȠƇéõNjNɄ'.$:ɧNjGIsiRNA }pi™ f›˸: 3´Džɏ>: cRGD äĺ:ōÙ; RISC :ŬƁĄ=ǘȵ mRNA :ʸˁ9ŭ̑N¡ 8$6Ƀʸ&K..  (B) œƱ5”‰U]m‹™”›:Ł̠5;siRNA 56 Û9 250 nM :̢ȌŧLJ¸ 5Eˬ¹ĺȳȠƇéNɄ&81.ʘ×̙ŵ˹:Ł̠5;cRGD :ōÙ9GIʘ×Ūŧ :ĭòʪŇ&K4.$6H²ĝʲʯšČƁ'. cRGD-siRNA a™f`›t;V ™ucSt›eg5ɣɿÜ9ōÙ&K.ŰV™uk›ŒHʂããLj*9”kk›Œ¥ 5äʬ&K4JĉʀźɄę&K.. 58.

(92) 5-13 ‰”Q‹™Ê̞ cRGD-siRNA a™f`›t:ČƁ6ˬ¹ĺƇéʀʵÄ. ê˛'.Ǘ9²ĝČƁ'. cRGD-siRNA a™f`›t;[”Q”›5ˬ¹ĺȳ ȠƇéNɄ&81.$:āĞ6'4. 1) Ƙȥ'. siRNA :ǵź¼ (IC50 ̢) 2) cRGD-siRNA a™f`›t:V™uk›ŒʂãʜMK48. ·ž: 2 ȐɶHK. 1) 9˽'4a™f`›tĦ siRNA ;œʍȵ9[”QNȥ.s”|”›6ǥˑ' 4ōÙõȟ̎Ş9¼$6ɀHK4JāĞ6'4siRNA :˄̌ʑ9ȧLj)Jɣ ɿʆ6:ąȳƒ#HKJA.[”Qǯ5;ij˶: siRNA YoX™źʁˈ9÷A K4ɣɿÜ>s”|”›&K4J:9ʼn'a™f`›tĦ siRNA ; 1 äĺ%69s ”|”›&K4I$:ȐEōÙõȟŻȡȧ:œ25J,:ȑȠģʉťɁ ɋ9ȥHK4Ja™f`›tĦ siRNA ;[”Q”›5ȥ.īČ:ōÙõȟ :¼ŸNʧˌ'[”QNÀȥ'.̅9 IC50 ƫ pM 68JG8˯æ˫Ɗ&K4 J²ĝƂȥ. RecQL1 siRNA ; IC50  nM ˋ5I[”Q”›5ˬ¹ĺȳȠ ƇéõNjNɄ)ȑ9; ˩å/1.6ƛȆ&K.''8HdžɁɋ:ǀɤȻǘ;a ™f`›tĦ miRNA :˻ȳ5Iê˛'.G9 miRNA ; siRNA GIEǘȵșȭź ¼.DʖõNɄ).D9;ƿ9̢ȥ˶Nŷʦ6)Jű14siRNA ˯æ:Ƨě; džɁɋ:˧Ɓ9"JǑdžȵ8ʬǫ6;8H8  2) 9˽'4˙Ţa™f`›tĦ siRNA ;ƫIJ!ĪĒ&K4JV™ucSt ›egɦˎĄ=V™uk›Œʂãɦˎ:ʷɣ;DŽ/ƹH98148²ĝ:Ł̠ɧ NjHcRGD-siRNA a™f`›tEčǗ5I@6O7;V™uk›ŒHʂããLj *9”kk›Œ¥5äʬ&K4J6Ʉę&K..  ,$5cRGD-siRNA a™f`›t:s”|”›õȟ:ƧěNȻȵ6'4ư.9‰” Q‹™Ê̞ cRGD-siRNA a™f`›tNɶǓ'. (Figure 42) . 59.

Figure 3. (A) MID 0AIhc.2 2Iœa=-/  (B) t1 “edmW…
Table 2.  ǘȵ mRNA N©Ȇ)J.D:a™€›mƒ—^“Œ  ƒ—^“ Œ ʼn˃Ɋa ǘȵˬ¹ĺ:˫ãĩȈ   URL Reference  TargetScan  m,w,f  e›u̕ħ:Ƚʣź ɧČ̕ħ:ƫǘȵ 1 :˯æ  http://www.targetscan.org  21  EMBL  f  e›u̕ħ:Ƚʣź ɧČ̕ħ:ƫǘȵ6 :ªdž˸:ȖȵĽŀź  http://russell.embl-heidelberg.de   22  PicTar  m,f,w  e›u̕ħ
Figure 11.  1H 1 mW RNA :HJ9 RNA10 N°Œ–jks
Figure 13.  1H 2 mW RNA :HJ9 RNA10 N°Œ–jks
+7

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