본문 바로가기
KERD
논문KCI 등재

Transcriptional profiles of rock bream iridovirus (RBIV) using microarray approaches

1

조회

0

다운로드

1

인용

0

참고문헌

키워드

초록

Rock bream iridovirus (RBIV) causes high mortality and economic losses in the rock bream (Oplegnathus fasciatus) aquaculture industry in Korea. Viral open reading frames (ORFs) expression profiling at different RBIV infection stages was investigated using microarray approaches. Rock bream were exposed to the virus and held for 7 days at 23 °C before the water temperature was reduced to 17 °C. Herein, 28% mortality was observed from 24 to 35 days post infection (dpi), after which no mortality was observed until 70 dpi (end of the experiment). A total of 27 ORFs were significantly up- or down-regulated after RBIV infection. In RBIV-infected rock bream, four viral genes were expressed after 2 dpi. Most RBIV ORFs (26 genes, 96.2%) were significantly elevated between 7 and 20 dpi. Among them, 12 ORF (44.4%) transcripts reached their peak expression intensity at 15 dpi, and 14 ORFs (51.8%) were at peak expression intensity at 20 dpi. Expression levels began to decrease after 25 dpi, and 92.6% of ORFs (25 genes) were expressed below 1-fold at 70 dpi. From the microarray data, in addition to the viral infection, viral gene expression profiles were categorized into three infection stages, namely, early (2 dpi), middle (7 to 20 dpi), and recovery (25 and 70 dpi). RBIV ORFs 009R, 023R, 032L, 049L, and 056L were remarkably expressed during RBIV infection. Furthermore, six ORFs (001L, 013R, 052L, 053L, 058L, and 061L) were significantly expressed only at 20 dpi. To verify the cDNA microarray data, we performed quantitative real-time PCR, and the results were similar to that of the microarray. Our results provide novel observations on broader RBIV gene expression at different stages of infection and the development of control strategies against RBIV infection.

Abstract

Rock bream iridovirus (RBIV) causes high mortality and economic losses in the rock bream (Oplegnathus fasciatus) aquaculture industry in Korea. Viral open reading frames (ORFs) expression profiling at different RBIV infection stages was investigated using microarray approaches. Rock bream were exposed to the virus and held for 7 days at 23 °C before the water temperature was reduced to 17 °C. Herein, 28% mortality was observed from 24 to 35 days post infection (dpi), after which no mortality was observed until 70 dpi (end of the experiment). A total of 27 ORFs were significantly up- or down-regulated after RBIV infection. In RBIV-infected rock bream, four viral genes were expressed after 2 dpi. Most RBIV ORFs (26 genes, 96.2%) were significantly elevated between 7 and 20 dpi. Among them, 12 ORF (44.4%) transcripts reached their peak expression intensity at 15 dpi, and 14 ORFs (51.8%) were at peak expression intensity at 20 dpi. Expression levels began to decrease after 25 dpi, and 92.6% of ORFs (25 genes) were expressed below 1-fold at 70 dpi. From the microarray data, in addition to the viral infection, viral gene expression profiles were categorized into three infection stages, namely, early (2 dpi), middle (7 to 20 dpi), and recovery (25 and 70 dpi). RBIV ORFs 009R, 023R, 032L, 049L, and 056L were remarkably expressed during RBIV infection. Furthermore, six ORFs (001L, 013R, 052L, 053L, 058L, and 061L) were significantly expressed only at 20 dpi. To verify the cDNA microarray data, we performed quantitative real-time PCR, and the results were similar to that of the microarray. Our results provide novel observations on broader RBIV gene expression at different stages of infection and the development of control strategies against RBIV infection.

참고문헌 (46)

  1. Williams, T., "The Iridoviruses", Adv Virus Res, 46, pp.345~412 (1996)
  2. Kurita, J., "Megalocytiviruses", Viruses, 4, pp.521~538 (2012)
  3. Jung, S.J., "Iridovirus-like infection associated with high mortalities of striped beak perch, Oplegnathus fasciatus(Temminck et Schlegel), in southern coastal areas of the Korea peninsula", J Fish Dis, 23, pp.223~236 (2000)
  4. Jung, M. H., "Effects of water temperature on mortality in Megalocytivirus-infected rock bream Oplegnathus fasciatus(Temminck et Schlegel)and development of protective immunity", J Fish Dis, 38, pp.729~737 (2015)
  5. Jung, M. H., "Low pathogenicity of FLIV(flounder iridovirus)and the absence of cross-protection between FLIV and RBIV(rock bream iridovirus)", J Fish Dis, 39, pp.1325~1333 (2016)
  6. Jung, M. H., "Protective immunity against Megalocytivirus infection in rock bream(Oplegnathus fasciatus)following CpG ODN administration", Vaccine, 35, pp.3691~3699 (2017)
  7. Jung, M.H., "Protective immunity against rock bream iridovirus(RBIV)infection and TLR3-mediated type I interferon signaling pathway in rock bream(Oplegnathus fasciatus)following poly(I : C)administration", Fish. Shellfish Immunol, 67, pp.293~301 (2017)
  8. Jung, M. H., "Rock bream iridovirus(RBIV)replication in rock bream(Oplegnathus fasciatus)exposed for different time periods to susceptible water temperatures", Fish. Shellfish Immunol, 70, pp.731~735 (2017)
  9. 정명화, "Correlation of virus replication and spleen index in rock bream iridovirus infected rock bream Oplegnathus fasciatus", 한국어병학회지, 32(1), pp.1~8 (2019), 한국어병학회[DOI]
  10. 정명화, "Microsatellite marker distribution pattern in rock bream iridovirus (RBIV) infected rock bream, Oplegnathus fasciatus", 한국어병학회지, 34(1), pp.9~15 (2021), 한국어병학회
  11. Jung, M. H., "DNA vaccine encoding myristoylated membrane protein (MMP)of rock bream iridovirus (RBIV) induces protective immunity in rock bream (Oplegnathus fasciatus)", Vaccine, 36, pp.802~810 (2018)
  12. Jung, M. H., "Protective immunity induced by ankyrin repeat-containing protein-based DNA vaccine against rock bream iridovirus (RBIV)in rock bream (Oplegnathus fasciatus)", Virus Research, pp.198827~ (2022)
  13. 권문경, "Microarray analysis of gene expression in peripheral blood leucocytes from rock bream (Oplegnathus fasciatus) after stimulation by LPS, ConA", PMA, and poly I:C, 2013, pp.35(3), 343~353[DOI]
  14. Jung, M. H., "The Megalocytivirus RBIV induces apoptosis and MHC Class I presentation in rock bream(Oplegnathus fasciatus)red blood cells", Frontiers in Immunology, 10, pp.160~ (2019)
  15. Kim, A., "Co-expression network analysis of spleen transcriptome in rock bream(Oplegnathus fasciatus)naturally infected with rock bream iridovirus(RBIV)", Int J Mol Scien, 21, pp.1707~ (2020)
  16. Jung, M. H., "Gene expression of proand anti-apoptotic proteins in rock bream(Oplegnathus fasciatus)infected with Megalocytivirus(family Iridoviridae)", Fish. Shellfish Immunol, 37, pp.122~130 (2014)
  17. Nikapitiya, C., "Identification and Molecular Characterization of Z", ZE Lineage MHC Class I Heavy Chain Homologue and β2-microglobulin from Rock Bream Oplegnathus fasciatus, 2014, pp.49, 93~112
  18. Jung, M.H., "Gene expression regulation of the TLR9 and MyD88-dependent pathway in rock bream against rock bream iridovirus (RBIV) infection", Fish. Shellfish Immunol, 70, pp.507~514 (2017)
  19. Jung, M.H., "CpG ODN 1668 induce innate and adaptive immune responses in rock bream (Oplegnathus fasciatus) against rock bream iridovirus (RBIV) infection", Fish. Shellfish Immunol, 69, pp.247~257 (2017)
  20. Jung, M.H., "Innate immune responses against rock bream iridovirus(RBIV)infection in rock bream(Oplegnathus fasciatus)following poly(I : C)administration", Fish. Shellfish Immunol, 71, pp.171~176 (2017)[DOI]
  21. Do, J. W., "Complete genomic DNA sequence of rock bream iridovirus", Virology, 325, pp.351~363 (2004)
  22. Caipang, C. M. A., "Genetic vaccines protect red seabream, Pagrus major, upon challenge with red seabream iridovirus(RSIV)", Fish. Shellfish Immunol, 21, pp.130~138 (2006)
  23. Fu, X., "Protective immunity against infectious spleen and kidney necrosis virus induced by immunization with DNA plasmid containing mcp gene in Chinese perch Siniperca chuatsi", Fish. Shellfish Immunol, 40, pp.259~266 (2014)
  24. Thanasaksiri, K., "Temperaturedependent regulation of gene expression in poly(I : C)-treated Japanese flounder, Paralichthys olivaceus", Fish. Shellfish Immunol, 45, pp.835~840 (2015)
  25. Cho, H. K., "Microarray analysis of gene expression in olive flounder liver infected with viral haemorrhagic septicaemia virus(VHSV)", Fish. Shellfish Immunol, 49, pp.66~78 (2016)
  26. Romero, A., "An immune-enriched oligo-microarray analysis of gene expression in Manila clam(Venerupis philippinarum)haemocytes after a Perkinsus olseni challenge", Fish. Shellfish Immunol, 43, pp.275~286 (2015)
  27. Lua, D. T., "Transcription program of red sea bream iridovirus as revealed by DNA microarrays", J. Virol, 79, pp.15151~15164 (2005)
  28. Lua, D. T., "Transcriptional profile of red seabream iridovirus in a fish model as revealed by viral DNA microarrays", Virus genes, 35, pp.449~461 (2007)
  29. Teng, Y., "Whole-genome transcriptional profiles of a novel marine fish iridovirus, Singapore grouper iridovirus(SGIV)in virus-infected grouper spleen cell cultures and in orangespotted grouper, Epinephulus coioides", Virology, 377, pp.39~48 (2008)
  30. Livak, K.J., "Analysis of relative gene expression data using real time quantitative PCR and the 2(-Delta Delta C(T)) Method", Methods, 25, pp.402~408 (2001)
  31. Bennett, V., "Ankyrins. Adaptors between diverse plasma membrane proteins and the cytoplasm", J Biol Chem, 267, pp.8703~8706 (1992)
  32. He, J. G., "Complete genome analysis of the mandarin fish infectious spleen and kidney necrosis iridovirus", Virology, 291, pp.126~139 (2001)
  33. Herbert, M. H., "Poxviral ankyrin proteins", Viruses, 7, pp.709~738 (2015)
  34. Lu, Z., "Analysis of 45 kb of DNA located at the left end of the chlorella virus PBCV-1 genome", Virology, 206, pp.339~352 (1995)
  35. Raoult, D., "The 1. 2-megabase genome sequence of Mimivirus", Science, 306, pp.1344~1350 (2004)
  36. Bitra, K., "Polydnavirus Ank proteins bind NF-kappaB homodimers and inhibit processing of Relish", PLoS Pathog, 8, pp.e1002722~ (2012)
  37. Bin, L., "Ankyrin Repeat Domain 22 Mediates Host Defense Against Viral Infection Through STING Signaling Pathway", J Immuol, 196, pp.201~204 (2016)
  38. Ink, B. S., "Delay of vaccinia virus-induced apoptosis in nonpermissive Chinese hamster ovary cells by the cowpox virus CHOhr and adenovirus E1B 19K genes", J Virol, 69, pp.661~668 (1995)
  39. Revilla, Y., "Inhibition of nuclear factor κB activation by a virus-encoded IκB-like protein", J Biol Chem, 273, pp.5405~5411 (1998)
  40. Cunningham, C., "The UL13 virion protein of herpes simplex virus type 1 is phosphorylated by a novel virus-induced protein kinase", J Gen Virol, 73, pp.303~311 (1992)
  41. Overton, H. A., "Herpes simplex virus type 1 gene UL13 encodes a phosphoprotein that is a component of the virion", Virology, 190, pp.184~192 (1992)
  42. Paterson, T., "Mutational dissection of the HSV-1 immediate-early protein Vmw175 involved in transcriptional transactivation and repression", Virology, 166, pp.186~196 (1988)
  43. Mayer, U., "A single EGF-like motif of laminin is responsible for high affinity nidogen binding", The EMBO Journal, 12, pp.1879~1885 (1993)
  44. Takano, T., "Identification of the Epitope Recognized by the Anti-Red Sea Bream Iridovirus(RSIV)Monoclonal Antibody M10 Using a Phage Display RSIV Peptide Library", Fish Pathol, 54, pp.83~92 (2020)
  45. Xu, X., "VP23R of infectious spleen and kidney necrosis virus mediates formation of virus-mock basement membrane to provide attaching sites for lymphatic endothelial cells", J Virol, 84, pp.11866~11875 (2010)
  46. Xu, X., "VP08R from infectious spleen and kidney necrosis virus is a novel component of the virus-mock basement membrane", J Virol, 88, pp.5491~5501 (2014)

관련 논문AI추천

이 간행물의 다른 논문 (11건)