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Dive into the research topics where Jae-Woo Moon is active.

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Featured researches published by Jae-Woo Moon.


BMC Genomics | 2014

Genome-wide analysis of DNA methylation patterns in horse

Ja-Rang Lee; Chang Pyo Hong; Jae-Woo Moon; Yi-Deun Jung; Dae-Soo Kim; Tae-Hyung Kim; Jeong-An Gim; Jin-Han Bae; Yuri Choi; Jungwoo Eo; Yun-Jeong Kwon; Sanghoon Song; Junsu Ko; Young Mok Yang; Hak-Kyo Lee; Kyung-Do Park; Kung Ahn; Kyoung-Tag Do; Hong-Seok Ha; Kyudong Han; Joo Mi Yi; Hee-Jae Cha; Byung-Wook Cho; Jong Bhak; Heui-Soo Kim

BackgroundDNA methylation is an epigenetic regulatory mechanism that plays an essential role in mediating biological processes and determining phenotypic plasticity in organisms. Although the horse reference genome and whole transcriptome data are publically available the global DNA methylation data are yet to be known.ResultsWe report the first genome-wide DNA methylation characteristics data from skeletal muscle, heart, lung, and cerebrum tissues of thoroughbred (TH) and Jeju (JH) horses, an indigenous Korea breed, respectively by methyl-DNA immunoprecipitation sequencing. The analysis of the DNA methylation patterns indicated that the average methylation density was the lowest in the promoter region, while the density in the coding DNA sequence region was the highest. Among repeat elements, a relatively high density of methylation was observed in long interspersed nuclear elements compared to short interspersed nuclear elements or long terminal repeat elements. We also successfully identified differential methylated regions through a comparative analysis of corresponding tissues from TH and JH, indicating that the gene body regions showed a high methylation density.ConclusionsWe provide report the first DNA methylation landscape and differentially methylated genomic regions (DMRs) of thoroughbred and Jeju horses, providing comprehensive DMRs maps of the DNA methylome. These data are invaluable resource to better understanding of epigenetics in the horse providing information for the further biological function analyses.


Molecules and Cells | 2015

Genome-Wide Analysis of DNA Methylation before-and after Exercise in the Thoroughbred Horse with MeDIP-Seq

Jeong-An Gim; Chang Pyo Hong; Dae-Soo Kim; Jae-Woo Moon; Yuri Choi; Jungwoo Eo; Yun-Jeong Kwon; Ja-Rang Lee; Yi-Deun Jung; Jin-Han Bae; Bong-Hwan Choi; Junsu Ko; Sanghoon Song; Kung Ahn; Hong-Seok Ha; Young Mok Yang; Hak-Kyo Lee; Kyung-Do Park; Kyoung-Tag Do; Kyudong Han; Joo Mi Yi; Hee-Jae Cha; Selvam Ayarpadikannan; Byung-Wook Cho; Jong Bhak; Heui-Soo Kim

Athletic performance is an important criteria used for the selection of superior horses. However, little is known about exercise-related epigenetic processes in the horse. DNA methylation is a key mechanism for regulating gene expression in response to environmental changes. We carried out comparative genomic analysis of genome-wide DNA methylation profiles in the blood samples of two different thoroughbred horses before and after exercise by methylated-DNA immunoprecipitation sequencing (MeDIP-Seq). Differentially methylated regions (DMRs) in the pre-and post-exercise blood samples of superior and inferior horses were identified. Exercise altered the methylation patterns. After 30 min of exercise, 596 genes were hypomethylated and 715 genes were hypermethylated in the superior horse, whereas in the inferior horse, 868 genes were hypomethylated and 794 genes were hypermethylated. These genes were analyzed based on gene ontology (GO) annotations and the exercise-related pathway patterns in the two horses were compared. After exercise, gene regions related to cell division and adhesion were hypermethylated in the superior horse, whereas regions related to cell signaling and transport were hypermethylated in the inferior horse. Analysis of the distribution of methylated CpG islands confirmed the hypomethylation in the gene-body methylation regions after exercise. The methylation patterns of transposable elements also changed after exercise. Long interspersed nuclear elements (LINEs) showed abundance of DMRs. Collectively, our results serve as a basis to study exercise-based reprogramming of epigenetic traits.


Genes & Genomics | 2012

In vitro CpG methylation and garcinol reduce PERV LTR promoter activity

Hong-Seok Ha; Young-Choon Lee; Sang-Je Park; Yi-Deun Jung; Kung Ahn; Jae-Woo Moon; Kyudong Han; Keon-Bong Oh; Tae-Hun Kim; Hwan-Hoo Seong; Heui-Soo Kim

Porcine endogenous retroviruses (PERVs) in the pig genome represent a potential risk of infection in pig-to-human transplantation. Long terminal repeats (LTRs) are known to be strong promoter elements that could regulate the transcription activity of PERV elements. It is possible that DNA methylation controls promoter activity of PERV family. Here, we analyzed CpG dinucleotides and CpG islands of six transcribed PERV LTRs. Promoter activity of the LTRs from the six clones methylated by CpG methyltransferase (M. SssI), and luciferase assay after garcinol treatment (histone acetyltransferase inhibitor) were examined, indicating that promoter activity of the PERV LTRs was significantly decreased.


Genes & Genomics | 2011

Development of GEBRET: a web-based analysis tool for retroelements in primate genomes

Hong-Seok Ha; Woo-Keun Chung; Kung Ahn; Jin-Han Bae; Sang-Je Park; Jae-Woo Moon; Kyu-Hwi Nam; Kyudong Han; Hwan-Gue Cho; Heui-Soo Kim

Retroelements play important roles in primate evolution. Specifically, human endogenous retroviruses (HERVs) and Alu elements are primate-specific retroelements. In addition, SVA elements belong to the youngest family of hominid non-long terminal repeat (LTR) retrotransposons. Retroelements can affect adjacent gene expression, supplying cis-regulatory elements, splice sites, and poly-A signals. We developed a database, GEnome-wide Browser for RETroelement (GEBRET, http://neobio.cs.pusan.ac.kr/~gebre/), for comparing the distribution of primate-specific retroelements and adjacent genes. GEBRET database components include 47,381 HERVs, 53,924 Alus and 4639 SVAs in five primate genomes of human, chimpanzee, orangutan, rhesus macaque, and marmoset. Host genes located upstream of a retroelement were also visualized and classified as five categories (0.0, 0.5, 1.0, 2.0, and 3.0Kb). Our results suggest that retroelements preferentially integrate into the distal promoter region relative to the core promoter region. GEBRET database is designed to investigate the distribution of retroelements (HERVs, Alus and SVAs) in the primate genomes that have been sequenced. Our software will be useful in the field to study the impact of retroelements on primate genome evolution.


Genes & Genomics | 2012

Identification and characterization of transposable element-mediated chimeric transcripts from porcine Refseq and EST databases

Hong-Seok Ha; Jae-Woo Moon; Jeong-An Gim; Yi-Deun Jung; Kung Ahn; Keon-Bong Oh; Tae-Hun Kim; Hwan-Hoo Seong; Heui-Soo Kim

Transposable elements are mobile genomic sequences that comprise a large portion of mammalian genomes. The transposable element fusion phenomenon within porcine genes has not yet been reported; therefore, we investigated transposable element fusion genes in the Sus scrofa genome. Porcine transposable element-mediated chimeric transcripts were identified and characterized. Most transposable elements preferentially inserted themselves into an antisense orientation and into the 3’ end of porcine genes. The transposable element fusion gene between porcine mRNA and ERV class I, one of the LTR retrotransposons, was not detected. This data will be of great use to further studies focused on a better understanding of the biological function of porcine genes in relation to transposable elements.


Genes & Genomics | 2012

mRNA sequence analysis and quantitative expression of the ADAMTS4 gene in the thoroughbred horse

Jae-Woo Moon; Kung Ahn; Jin-Han Bae; Gyu-Hwi Nam; Byung-Wook Cho; Kyung-Do Park; Hak-Kyo Lee; Young-Mok Yang; Tae-Hun Kim; Hwan-Hoo Seong; Kyudong Han; Heui-Soo Kim

Cartilage increases flexibility of motion and helps protect the body from physical shock. Strong physical shock or some biological factor could cause joint disease. ADAMTS4 (a disintegrin and metalloproteinase with thrombospondin motifs 4) has been related to degradation of aggrecans in cartilage. It has been associated with joint disease, which could influence the ability of horses to exercise. Here, we performed sequence analysis and expression profiling of the ADAMTS4 gene in thoroughbred horses. Quantitative real-time RT-PCR data indicated that higher expression of the ADAMTS4 gene appeared in the cartilage tissues compared to those of pancreas, stomach, lung and colon. The expression pattern was also higher in the muscle tissues after exercise than before exercise. These data could be of great use for further studies in relation to both horse racing and joint disease.


Genes & Genomics | 2015

HExDB: a database for epigenetic changes occurring after horse exercise

Jeong-An Gim; Sugi Lee; Dae-Soo Kim; Kwang-Seuk Jeong; Chang Pyo Hong; Jin-Han Bae; Jae-Woo Moon; Yong-Seok Choi; Byung-Wook Cho; Hwan-Gue Cho; Jong Bhak; Heui-Soo Kim

DNA methylation is an essential biochemical modification that regulates gene expression. Exercise induces changes in gene expression that adapt as metabolic changes in the blood. We provide a database for the epigenetic changes after horse exercise (http://www.primate.or.kr/hexdb). Horse Exercise Epigenetic Database (HExDB) explicates the change in genome-wide DNA methylation patterns after exercise. Exercise changes the genome-wide epigenetic patterns, and understanding the regions that change is important for confirming exercise physiological mechanisms. For this purpose, our database provides information on differentially methylated regions after exercise that pass a set threshold. A total of 784 genes based on NCBI RefSeq were identified as differentially methylated in equines after exercise. Our database provides clues for the study of exercise-related epigenetic pathways in the thoroughbred horse.


Gene | 2015

HEpD: A database describing epigenetic differences between Thoroughbred and Jeju horses

Jeong-An Gim; Sugi Lee; Dae-Soo Kim; Kwang-Seuk Jeong; Chang Pyo Hong; Jin-Han Bae; Jae-Woo Moon; Yong-Seok Choi; Byung-Wook Cho; Hwan-Gue Cho; Jong Bhak; Heui-Soo Kim

With the advent of next-generation sequencing technology, genome-wide maps of DNA methylation are now available. The Thoroughbred horse is bred for racing, while the Jeju horse is a traditional Korean horse bred for racing or food. The methylation profiles of equine organs may provide genomic clues underlying their athletic traits. We have developed a database to elucidate genome-wide DNA methylation patterns of the cerebrum, lung, heart, and skeletal muscle from Thoroughbred and Jeju horses. Using MeDIP-Seq, our database provides information regarding significantly enriched methylated regions beyond a threshold, methylation density of a specific region, and differentially methylated regions (DMRs) for tissues from two equine breeds. It provided methylation patterns at 784 gene regions in the equine genome. This database can potentially help researchers identify DMRs in the tissues of these horse species and investigate the differences between the Thoroughbred and Jeju horse breeds.


BMC Genomics | 2015

Whole genome sequencing of an ethnic Pathan (Pakhtun) from the north-west of Pakistan

Muhammad Ilyas; Jong-Soo Kim; Jesse Cooper; Young-Ah Shin; Hak-Min Kim; Yun Sung Cho; Seungwoo Hwang; Hyunho Kim; Jae-Woo Moon; Oksung Chung; JeHoon Jun; Achal Rastogi; Sanghoon Song; Junsu Ko; Andrea Manica; Ziaur Rahman; Tayyab Husnain; Jong Bhak


Fuel and Energy Abstracts | 2011

Quantitative analysis of transcript variants of CHM gene containing LTR12C element in humans

Yi-Deun Jung; Jae-Won Huh; Dae-Soo Kim; Yun-Ji Kim; Kung Ahn; Hong-Seok Ha; Ja-Rang Lee; Joo Mi Yi; Jae-Woo Moon; Tae-Oh Kim; Geun-Am Song; Kyudong Han; Heui-Soo Kim

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Heui-Soo Kim

Pusan National University

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Byung-Wook Cho

Pusan National University

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Dae-Soo Kim

Korea Research Institute of Bioscience and Biotechnology

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Jeong-An Gim

Pusan National University

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Jong Bhak

Ulsan National Institute of Science and Technology

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Chang Pyo Hong

Chungnam National University

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Hak-Kyo Lee

Chonbuk National University

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Hwan-Gue Cho

Pusan National University

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