University of Groningen Exploring the mechanisms underlying the phenotype of MCAD deficiency with Systems Medicine Martines, Anne-Claire
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(2) Chapter 3 Transcriptomic analysis suggests a compensatory role of cofactors coenzyme A and NAD+ in medium-chain acyl-CoA dehydrogenase knockout mice Anne-Claire M.F. Martines1, Albert Gerding1,2, Sarah Stolle1, Marcel A. Vieira-Lara1, Justina C. Wolters1, Angelika Jurdzinski1, Laura Bongiovanni3, Alain de Bruin1,3, Pieter van der Vlies4, Gerben van der Vries5,6, Vincent W. Bloks1, Terry G.J. Derks1, Dirk-Jan Reijngoud1, Barbara M. Bakker1,* 1 Department. of Pediatrics, University of Groningen, University Medical Center Groningen, Groningen, The Netherlands 2 Department of Laboratory Medicine, University of Groningen, University Medical Center Groningen, The Netherlands 3 Department of Pathobiology, Faculty of Veterinary Medicine, Dutch Molecular Pathology Center, Utrecht University, The Netherlands 4 HZPC Research B.V., Metslawier, The Netherlands 5Department of Genetics, University of Groningen, University Medical Center Groningen, Groningen, The Netherlands 6Genomics Coordination Center, University of Groningen, University Medical Center Groningen, Groningen, The Netherlands. Under revision at Scientific Reports.
(3)
(4) Transcriptomic analysis suggests a compensatory role of CoA and NAD+ in MCAD-KO mice. Abstract ǡ Ǧ ȾǦȋ Ȍ ǤǦǦ Ǧ Ǧ ȋȌ Ǧ Ǥ ǡ Ǥ
(5) Ǧ ȋǦȌ ǡ Ǧ ȋȌ ǡǤ Ǥ Ǧ Ǧ Ǥǡ ǡ ǡ Ǥ ǦǤ Ǧ Ǧ Ǥ
(6) ǡ Ǧ ȋȌȋ ȌǦ Ǥ Ǧ ǦǦ Ǥ. ͻ. 3.
(7) Chapter 3. Introduction ȋ Ȍ ǡ de novo Ǥ ǦǦ Ǥͻͺͷε ACADM ǡ Ǧ Ǧ ȋȌǡ Ǧ ȏͳǡʹȐǤ ǡ ȏ͵ȂͳͳȐǤ ǡ Ǧ Ǧ ȏͳʹȐ ͳͺǦʹͶ ȏͳǡ͵ǡͳ͵ǡͳͶȐǤ ǡ ǡ ȏʹǡͳͳǡͳͷȂͳȐǤ ͳǤ Ǧ ǦǤ Ǧ Ǥ
(8) ǡ Ǧ ǡ ǦȏͳǡͳͺǡͳͻȐǤ ǡ Ǧ ǡ Ǧ Ǥ
(9) ǡ ǦǦǡ ǦǡǦǡǦ ǦȋǡǡǡȌǤ
(10) ǡ ȏͳǡʹͲȐǤ ȋ ΪȌ ȋ Ȍ ȏʹͳȂʹͷȐǤ ȋȌǡǦ ǡ ͷȀ Ƭ ͳʹͻʹȀ ȏʹȐǤ ǡ ǡͺǦ Ǧ ǡǦ ǡǦ Ǧ ȋȌǤ
(11) ǡʹͶ ȋȌ Ǧ ǡ ȏʹǡͳͳǡͳͷȂͳȐǤ ǡ Ǧǡ Ǧ ǡ ȏʹȐǤ ȏʹȐǤ
(12) ǡ ǦͷȀ Ǧ ȏʹͺȐǤ ǡǦ ǦǦ Ǧ ͺǦ Ǧ ͳʹǤǡ ǡǦ ȏʹǡʹǡʹͻȐǤǡǦ Ǥ
(13) ǡǡ ǦǦ MCAD Ǥ ȏ͵ͲȐ Ǥ Ǧ Ͳ.
(14) Transcriptomic analysis suggests a compensatory role of CoA and NAD+ in MCAD-KO mice Ǥ ͷȀ Ǧ Ǧ ǦǦǡͳ ǤǦ Ǧ Ǥ ǡ ǡ ǡ Ǥ
(15) ǡ Ǥ ȋȌȋ ȌǦ Ǥ Ǥ . Results Biometric and hepatohistological characterization of the pure-background MCAD-KO mice. A. B Body weight (g). 50 ‡‡ ‡‡. 40. *. #. 30. ‡‡. ‡‡. LF fed HF fed LF fasted HF fasted. #. 20 20 0 WT. KO. Body weight decrease (g). ǦͷȀ ǦǦ ͳǤ ǡǦǡǡ ȋ ͳǦ ʹȌǤǦ Ǧ ȋ ͳȌǡ ͺΨǤ ȏʹǡʹǡʹͻȐǤ 4. ‡‡. 3. LF fasted HF fasted. 2 1 0 WT. KO. C Blood glucose (mM). 15. 10. ‡. ##. ##. ## ##. LF fed HF fed LF fasted HF fasted. 5. 0 WT. KO. Figure 1. Mouse biometric measures (A-C) under different conditions A: Body weight; B: body weight decrease after fasting; C: Blood glucose levels at termination. ǡ Ǧ ͷΨ ͳǤͷȉǦȋ
(16) ȌʹͷΨ ͳǤͷȉ
(17) ǤαǦͺǤ ȗǣδͲǤͲͷ ǡ͓͓͓ǣδͲǤͲͷδͲǤͲͳ ǡ ǡșșșǣδͲǤͲͷ δͲǤͲͳ Ǧȋ Ȍǡ Ǥ. Ǧ Ǧ ȏʹȐǡ Ǥ ȋ ʹ ͵ǦͶȌǤ ǡ Ǧ . ͳ. 3.
(18) Chapter 3 Ǧ ȋ ʹ ͳȌǤ ǡǡ Ǧ ȋ ʹȌǤ 10x. 40x. A. B. C. D. High-fat fasted MCAD KO. High-fat fasted WT. Figure 2. Similar steatosis grade (A, C) and difference in lobular inflammation (B, D) between MCADKO and WT mice in the high-fat fasted condition Ǥ Ǥ Ƭȋ ȌǤ
(19) Ǥ ȋͳǦ ȌǤ. . MCAD-KO mice show decreased C8-acyl-CoA-dependent state 3 O2 consumption capacity Ǧ ʹǦ ȋ ͵ ͷȌǤ ͳǦ Ǧ ǡ ʹǦ ȋ ͵ǦȌǡ ȏʹͺȐǤǦ ʹ ͺǦ Ǧ ȋ ͵ȌǤ ǦȋαͲǤͲʹȌ ǦȋαͲǤͲȌȋǦ ʹʹΨǦǦ ȌǤ. ʹ.
(20) Transcriptomic analysis suggests a compensatory role of CoA and NAD+ in MCAD-KO mice. Pyruvate-induced O2 consumption rate (St3) (μmol/(min*gmitProtein)). 150. LF fed HF fed LF fasted HF fasted. 100. 50. 0 WT. KO. C16-acyl-CoA-induced O2 consumption rate (St3) (μmol/(min*gmitProtein)). B. A. 250. LF fed HF fed LF fasted HF fasted. 200 150 100. 3. 50 0 WT. KO. C8-acyl-CoA-induced O2 consumption rate (St3) (μmol/(min*gmitProtein)). C 150 i. 100. *. LF fed HF fed LF fasted HF fasted. 50. 0 WT. KO. . Figure 3. Mouse hepatic mitochondrial function in different conditions. Pyruvate- (A), C16-acyl-CoA(B) and C8-acyl-CoA- (C) induced maximum O2-consumption flux (state 3) in isolated liver mitochondria. State 3 represents the maximum ADP-stimulated oxygen consumption. ǡ Ǧ ͷΨ ͳǤͷȉǦȋ
(21) ȌʹͷΨ ͳǤͷȉ
(22) ǤαǦͺ ǤȗǣδͲǤͲͷ ǡ͓͓͓ǣδͲǤͲͷδͲǤͲͳ ǡ ǡș șșǣδͲǤͲͷδͲǤͲͳ Ǧȋ Ȍǡ Ǥ.
(23) ǡ ͺǦ ǦǦʹǦ ǦȋǦͷΨͶΨ Ǧ Ǧ Ȍǡ ȋαͲǤͳͷͲǤͳ͵ǡ ȌǤ ͺǦ Ǧ Ǧ ʹǦ Ǧ ǡ ȏʹͻȐǤ
(24) ǡ Ǥ . Targeted mitochondrial proteomics ǡ Ǥ ǡ Ǧ ȏʹͻȐǤ ȋ ͶǦ ȌǤ ǡ Ǧ Ǥ ǡ ǡ ȋ ͶǡȌ ͺǦ Ǧ Ǥ ǡǡ Ǧ ȋ ȌǤ ǡ Ǥ . ͵.
(25) Chapter 3. [Protein] (fmol/Pg mito prot). LF fed HF fed LF fasted HF fasted. 100. 50. 0 WT. KO. C [Protein] (fmol/Pg mito prot). B. SCAD 150. MCAD 150. LF fed HF fed LF fasted HF fasted. 100. 50. 0 WT. KO. LF fed HF fed LF fasted HF fasted. ‡‡ 100. 50. * * * * 0 WT. KO. D. LCAD 150. [Protein] (fmol/Pg mito prot). [Protein] (fmol/Pg mito prot). A. VLCAD 80. LF fed HF fed LF fasted HF fasted. 60 40 20 0 WT. KO. Figure 4. Absolute protein levels of the mFAO proteins SCAD (A), MCAD (B), LCAD (C) and VLCAD (D). Ǥ ǡ Ǧ ͷΨ ͳǤͷȉǦȋ
(26) ȌʹͷΨ ͳǤͷȉ
(27) ǤαǦ ͺ Ǥ ȗǣ δͲǤͲͷ ǡ ͓ ͓͓ǣ δͲǤͲͷ δͲǤͲͳ ǡ ǡșșșǣδͲǤͲͷδͲǤͲͳ Ǧȋ Ȍǡ Ǥ. Differences in hepatic mRNA expression patterns between MCAD-KO and WT mouse Ǧ ǡ Ǥ ȋ ȌǤ ȋ Ȍ ǡ Ǧ Ǥ Ǧ δͲǤͲͳ ͳʹȋ ͺǦȌǤ
(28) ǡ ȋ ͷǦ ͺǦ ȌǤ ǡͶ δͲǤͲͷǢ͵ ͳ ǡ ȋʹȌǤ A. HF Fa. 42. HF Fa. 47. 1 0. 0. 2. 0. 1. 0. 27. 0 0. 2 0. 0. 0. 0. 84. 0 LF Fa. 63. 0. 44. 0. LF Fe. 28 1. 0. 82. B. LF Fe. 0. 0 0. HF Fe. LF Fa. HF Fe. Figure 5. Venn diagrams showing overlap between conditions of upregulated (A) and downregulated (B) genes between WT and KO δͲǤͲͳǤ ʹǤ. Ͷ.
(29) Transcriptomic analysis suggests a compensatory role of CoA and NAD+ in MCAD-KO mice ǡǤ Gene-set enrichment analysis revealed differentially expressed gene sets between WT and KO mice. Ǧ ȋ Ȍ Ǧ Ǥ . Ǥ Ǧ . ȋ Ȍ ȋȌȋ Ȍ ǡ ȋ͵ȌǤ
(30) ǦǦ Ǧ ȋ ȌδͲǤʹͷǤ
(31) Ǧ ʹ ͳͲ ȋ ͳȌǤ
(32) Ǧ ͺ Ǥ
(33) Ǧ ǡ Dz dz Dz Ǧ dz ȋ δͲǤͲͷǡ ͳȌǤ δͲǤʹͷ Ǧ ȋͳȌǤǡ ͳʹ ǡ ȋȌȋ Ȍ ǡȋ ͳͶǦͷȌǤ Table 1. Up- and downregulated metabolic gene sets in KO compared to WT based on the GSEA method Upregulated gene sets LFD Fed ͶͷͲ ȗ ȗ Downregulated gene sets LFD Fed HFD Fasted Pyruvate metabolism Metabolism of xenobiotics by cytochrome Fatty acid biosynthesis Drug metabolism - cytochrome p450 Sulfur metabolism Glutathione metabolism ȋȌȋ Ȍ ȗ ȗ Ǧ ȋȌȋ Ȍ ȗ ȗ ȗ ȋ Ȍ ȗ . Ǧ ǡ ǡ Ǥ δͲǤʹͷȋȌ δͲǤͲͷȋ ȌǤȗǣ ȋȌȋ Ȍ Ǥ ǦǦǤ ǦͻǤ. . ͷ. 3.
(34) Chapter 3
(35) Ǧ ǡ ͶͷͲǡ Ȃ ͶͷͲǡ ȋ δͲǤͲͷȌǤǡ Ǥ
(36) ȋ δͲǤʹͷȌ ȋȌ ǤȋͳȌǤ ͳʹǦǦǦ et al.ȏʹȐǡ Ǥ ͺ ǡ ͲǤͲͷ ͲǤʹͷ ȋȌǤ Ǥͳʹǡ Ͷ ȀȋȌȋ Ȍȋ ȌǡȀȋȌȋ Ȍ ȋͺǡͻȌǤ
(37) ǡ Ǥ ǡ ȋȌȋ Ȍ Ǥ Alternative gene set enrichment analysis reveals a role for CoA and NAD(P)(H) metabolism ǡ Ǥ
(38) ǡ Ǧ Ǥǡ ȋȌ Ǥ
(39) ǡ ȋȌ Ǥ
(40) ǡ ǡ ȋ ȌȋͳͲȌǤ ȋȌǤǡ ȋ ʹǡ ͳͳͳʹȌǤͳͲ ʹǤ ȋȌȋ ȌǦ Ǧ Ǥ ǡ ǡǦ Ǥ ȋȌΪ ǡ ǤǦ ȋ ʹȌǤ ͷͲΨ ȋȌȋ Ȍ ȋͳ͵ȌǤǡ Ǧ ȋȌȋ Ȍ Ǧǡ Ǥ . .
(41) Transcriptomic analysis suggests a compensatory role of CoA and NAD+ in MCAD-KO mice Table 2. Up- and downregulated metabolic gene sets in KO compared to WT based on the Alternative GSEA method Upregulated gene sets Downregulated gene sets ȋȌȋ Ȍ ȗǡș NAD(P)(H) main ȗǡș ȋȌȋ Ȍ ȗǡș NAD(P)(H) redox ȗǡș ȗǡș ȗǡș ȗǡș ȗǡș ȗ ȗǡș ȗ Pyruvate metabolism ȗǡș ȗ
(42) ȗ. ȗ. ȗǡș. ȗ ǡ ȗ ȗǡș ȗ Fatty acid metabolism ͳͲǦ Dzȋȁʹȋ ȌȁεͲǤͷδͲǤͳȌδͲǤͲͷdz Ǥȗǣ ʹ Ǥșǣ ͳͷ ǤȏʹȐǤǣ δʹͷΨǤ ǣ δͷΨǤ ǦǦǤͳͲǦͳʹǤ. The example of Acot expression between MCAD-KO and WT mice Ǧǡ Ǧȋ Ȍ ȏ͵ͳȂ͵ͶȐ ǡ ǤǡͳͷAcotȏ͵ʹǡ͵͵ȐǡǦ Ǧ Ǥ ȋ ͻȌǡ ȏ͵ʹȐǤ Ǧ Ǥǡ Acot ǡAcot2,Ǧ Ǧȋ ͳǤͺδͲǤͲͷǢ Ȍ Ǥ Ǧȋ ʹǤͲαͲǤͲͷǢ ȌǤ A. B. mRNA expression of Acot2 p=0.05. 2.5. Normalized expression. Normalized read count. mRNA expression of Acot2 p=0.02 6. 4. 2. 2.0 1.5 1.0 0.5 0.0. 0 WT. KO. WT. KO. . Figure 6. Acot2 gene expression. Acot2 ȋAȌ ǦȋBȌǤ ȋαͶȌǤǦAcot2 ȋάȌȋαͺȌǤ. . 3.
(43) Chapter 3 Acot2 ǦǤ. Discussion
(44) ǡ ͷȀ Ǧ Ǥ ǡ ǡ Ǥ ͵ͲǦͶͲΨ Ǧ ǦǤ
(45) ǡ ǡ Ǧ ȏʹͺȐǤ Ǧ Ǧ Ǥǡ Ǥ ǡ ǡ Ǧ ȏʹͲǡʹǡʹȐǤ Ǧ Ǧ ǡȏʹȐǤ Ǧ Ǧ ȏʹȂʹͺȐǤ Ǧ ȏ͵ͷȂͶͲȐ ȏͶͳȐǡ ȏͶʹǡͶ͵ȐǤ
(46) ǡ ǦǤ
(47) ǡǡ ͶͶ Ǥ
(48) ǡ Ǧ ȏͶͶȐǤ ȋȌȋ Ȍ Ǧ Ǥ ȋȌȋ Ȍ Ǥ ǡ ǡ ǡ ǡ ȏͶͷȐǤ
(49) Ǧ Ǧ ǦȋȌΪǦ ȀǦ Ǧ ȋȀ Ȍ ȏͶȐǤ ȏΪȐǦȏ Ȑ ȏͶȐǤ Ͷ ȏͶȐ Ϊ ȏͶͺȐ Ǥ ǦȋȌȋ ȌǡǤ ȋȌȋ Ȍ Ǥ ǡ ǡ Acot2Ǥʹ ȏ͵ͳǡ͵͵Ȑ ȋǦȌ Ǥ ʹ Ǥ
(50) ȋȌȋ ȌǦǤ . Materials and Methods ͺ.
(51) Transcriptomic analysis suggests a compensatory role of CoA and NAD+ in MCAD-KO mice Animals, Experimental design and Tissue sampling ǦǦȋȌ ͷȀ ȋ ͳͲ ȌǦȋʹͳιȌǦ ȋͳʹȌ ȋǡ ǡ ȌǤ ʹǦͶ Ǥ Ǥ ǡ ǦǦǦ ȋͳʹͶͷͲͳʹͶͷͳȏͶͻȐǡ ǡ ǡ ǡ Ȍ ǡ ǤǦ ͶͷΨ ǡ ȋͶͲǣͶͲǣʹͲȌǤ ͳȋǮ ǯȌͳ ȋǮ ǯȌǤ ͷǡǤǤͲǦ ʹ Ǥ ̺ȋ ǡǡȌǤ ͳͻͳͳ Ǥ ǡ ǡ Ǧ ǡ ͳͲΨ Ǧ̺Ǥ ǡ ʹͷͲ ͳͲ ȋ ǤͲȌ Ǥ Ǥ Liver histology ǡ ǡ Ǥ Ǧ̺ ǦǦǤ ǤǦ ǡ ȋ Ȍ ȋȌ ǤȏͷͲȐǤ Hepatic triglyceride (TG) concentration Ǧ ͳͷΨ ȋȀȌ ȋ ǤͶȌ Ǥ ƬȏͷͳȐǤ ʹΨǦͳͲͲ ȋ ǡǡ Ȍ ǯ Ǥ Oxygen consumption rates in fresh liver mitochondria ǤȏͷʹȐǡ ͺͲͲǡ ʹͲͲ ʹͲͲ ͷͲǡ ͲͲͲ ͲͲͲ ǡ Ǥ Ǧǡ Ǧ ȋͳǦ ǦȌǦ Ǧ ȋͺǦ ǦȌǦ ͵ιǦ Ǧ Ǧʹ ȋǡ
(52) ǡ Ȍ Ǧ Ͳͷ ȋǤǤ ͳ Ǥȏͷ͵ȐȌǤǦ ȋ͵ȌǡͶǤͺǦͳǡͳʹǤͷ ͳ Ǥ ȋͶȌǡ ͳǤʹͷɊ Ǥ Targeted quantitative proteomics of mitochondrial proteins. ͻ. 3.
(53) Chapter 3 εͷͲ ǡ ȋ Ȍǡ Ǧ ȾǦǡ ǡ ȋͳ͵Ǧ Ȍ ȋ Ȍ ȋ ǡ ǡ. Ȍ ǤǤȏʹͻȐǤ RNA isolation, RNASeq analysis and quantitative reverse transcriptase polymerase chain (qRT-PCR) ǡǦ ͳǤ Origin of mixed-background MCAD-KO mice microarray data ȏʹȐ ȋ ͵ͷͶȌ ͷȀ Ƭ ͳʹͻʹȀ Ǧ Ǧ Ǧ Ǥ ǡ ǤǤ ͳʹǤ Pattern recognition on RNAseq and microarray data Gene-set enrichment analysis. Ǧ ȋ Ȍ ǤʹͲͲͷȏͷͶȐ ȋʹǤʹǤͶǡ
(54) ȌǤǦ ǡ Ǧ ʹǦ ǦǦǦǡ Ǥ Ǧ ǡ Ǧ ǦȏͷͷȐǤ Ǧ ȏͷȐ ȋͶ͵ͲʹǤ ȌǤ . ȋ ȂǤͲȌǡ Ǥ ȋȌ ȋȌǡȋȌ ȋȌΪȋȌ ȋȋȌȋ ȌȌǡȋȌ ȋȌȋ ȌȋȋȌȋ ȌȌǡ ǡ Ǥ ͳͲͲͲ ǡ Ǥ ǡ ȋ Ȍ δʹͷΨǡ ȋȌȋ Ȍ Ǥ ȋȌ ̴ܴܴேு ൌ. ͓ܩܥ̴ேு Ȁ͓ܩܥ ሺ͓݃݁݊݁ݏ̴ேு െ ͓ܩܥ̴ேு ሻȀሺ͓݃݁݊݁ ݏെ ͓ܩܥሻ. ͳǤ ͓ ǡ͓ ̴ ȋȌȋ Ȍǡ̴͓͓ ȋȌȋ ȌǤ Alternative gene set enrichment analysis ǡǦ ǡ ǣ ȋȁʹȋ ȌȁεͲǤͷδͲǤͳȌδͲǤͲͷǤ ȋ Ȍ ȋ ȌǤ ʹȋ Ȍ. ͺͲ.
(55) Transcriptomic analysis suggests a compensatory role of CoA and NAD+ in MCAD-KO mice Ǥ Ǧ ǡ ǡ ǡ Ǧ Ǥ Ǥ Ǥ ǡ ǡ ǡ Ǧ Ǥ ǦȋȌͳǡ ǣ ܴܴ௦௧ ൌ. ͓ܩܧܦ௧ǡ௦௧ Ȁ͓ܩܧܦ௧ǡ ሺ͓݃݁݊݁ݏ௦௧ െ ͓ܩܧܦ௧ǡ௦௧ ሻȀሺ͓݉݁ ݏ݈ܾ݁݊݁݃ܿ݅ܽݐെ ͓ܩܧܦ௧ǡ ሻ. ͓ ǡ ǡ͓ ǡ ǡ Dz͓dzDz͓ dz ǡ Ǥ Statistical analysis ȋȌǡ ȋ ȌǡȋȌ Ǧ Ǧ Ǥ ǦǤPpiaǦ Acot2 Ǧ ǯǦǤ
(56) ʹʹǤͲ ȋ
(57) Ǥǡ ǡ
(58) ǡ Ǥ δͲǤͲͷǤ. Data Availability Ȁ Ǥ . References ͳǤ. ʹǤ ͵Ǥ. ͶǤ. ͷǤ. Ǥ. ǡ ǡ Ǥǡ Ǥ ȾǦ
(59) Ǥ Ǥ ʹͲͳǢͺȋͳȌǣʹ͵ȂͶͶǤ ǡ ǡ Ǥ Ǥ Ǥ ʹͲͲʹǢͶȋͳȌǣͶȂͷͲʹǤ ǡ ǡ ǡ ǡǡ ǡ Ǥ Ǧ ǣ Ǥ ǤʹͲͲǢͳͶͺȋͷȌǤ ǡǡǡǡ ǡ ǡǦǡ ǡ ǡ ǡǡ ǡ Ǥ Ǧ Ǧ ȋȌ ǣ Ǥ
(60) ǤʹͲͲͺǢ͵ͳȋͳȌǣͺͺȂͻǤ ǡ ǡǦǡǦǡ ǡǦ ǡ Ǥ
(61) Ǧ Ǧ Ǥ ǤʹͲͳ͵ǢͺȋͳȌǣͶ͵Ǥ ǡ ǡǡ ǡ ǡ ǡ ǡǦ ǡǡǦǡ ǡ ǡǦ ǡ Ǥ. ͺͳ. 3.
(62) Chapter 3. Ǥ. ͺǤ. ͻǤ. ͳͲǤ. ͳͳǤ ͳʹǤ. ͳ͵Ǥ ͳͶǤ ͳͷǤ ͳǤ ͳǤ ͳͺǤ ͳͻǤ ʹͲǤ. ʹͳǤ ʹʹǤ ʹ͵Ǥ ʹͶǤ ʹͷǤ ʹǤ. ͺʹ. Ǧ Ǧ ǣ Ǥ ǤʹͲͳʹǢǣ͵ͲǤ ǡ ǡ ǡ ǡ ǡ Ǥ Ǥ
(63) Ǥ ʹͲͳͲǢ͵͵ȋͷȌǣͷͷͷȂͳǤ ǡǡ ǡ ǡ ǡǡǤ Ǧ Ǧ Ǥ Ǥ ͳͻͻǢͻȋ͵Ȍǣ͵ȂͺǤ ǡ ǡǡǡ ǡ ǡ ǡǡ Ǥ Ǧ Ǧ Ǥ ǤͳͻͻͲǢͺȋʹ͵Ȍǣͻʹ͵ȂͶͲǤ ǡ ǡ ǡ ǦǡǤƮ ǯ Ǧ Ǧ Ǥ ǤͳͻͺǢͺȋȌǣͳͲͷʹȂǤ ǤǡǤ ǣ Ǥ
(64) ǤʹͲͳͲǢ͵͵ȋͷȌǣͷͳ͵ȂʹͲǤ ǡ ǡ ǡ ǡ ǡ Ǥ Ǧ Ǧ Ǧ Ǥ
(65) ǤͳͻͻͶǢͳȋͳȌǣͶȂͺͲǤ ǡ ǡ ǡ ǡǡ Ǥ Ǥ ǤʹͲͲǢͳȋͳȌǣͷȂͳͳǤ Ǥ ǣ Ǥ
(66) ǤʹͲͲͻǢ͵ʹȋʹȌǣʹͳͶȂǤ Ǥ Ǥ
(67) Ǥ ʹͲͳͲǢ͵͵ȋͷȌǣͷ͵͵ȂǤ Ǥ Ǧ ǣ Ǥ Ǥ ʹͲͳǢʹ͵ȋͳȌǣͷͳȂͷǤ ǦǤ ǡǤʹͲͳͶǤ ǡ Ǥ ȾǦǤ
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