Channarong Rodkhum

Dr. Channarong Rodkhum

Associate professor
orcid

Research Focus & Metrics

Academic Career Length

13Years (2014-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 March 2019 in Fish & Shellfish Immunology
Verified
Journal Article
Closed access
MSMariya Sewaka
Mariya Sewaka
CTClara Trullas
Clara Trullas
ACArranee Chotiko
Arranee Chotiko
Channarong RodkhumChannarong Rodkhum
Channarong Rodkhum
NCNantarika Chansue
Nantarika Chansue
NPNopadon Pirarat
Nopadon Pirarat

6 January 2023 in Frontiers in Cellular and Infection Microbiology
Verified
Journal Article
Open access
MMMahmoud Mabrok
Mahmoud Mabrok
AAAbdelazeem M. Algammal
Abdelazeem M. Algammal
ESElayaraja Sivaramasamy
Elayaraja Sivaramasamy
HHHelal F. Hetta
Helal F. Hetta
BABanan Atwah
Banan Atwah
Channarong RodkhumChannarong Rodkhum
Channarong Rodkhum
Tenacibaculosis occurs due to the marine bacterial pathogen Tenacibaculum maritimum. This ulcerative disease causes high mortalities for various marine fish species worldwide. Several external clinical signs can arise, including mouth erosion, epidermal ulcers, fin necrosis, and tail rot. Research in the last 15 years has advanced knowledge on the traits and pathogenesis mechanisms of T. maritimum. Consequently, significant progress has been made in defining the complex host-pathogen relationship. Nevertheless, tenacibaculosis pathogenesis is not yet fully understood. Continued research is urgently needed, as demonstrated by recent reports on the re-emerging nature of tenacibaculosis in salmon farms globally. Current sanitary conditions compromise the development of effective alternatives to antibiotics, in addition to hindering potential preventive measures against tenacibaculosis. The present review compiles knowledge of T. maritimum reported after the 2006 review by Avendaño-Herrera and colleagues. Essential aspects are emphasized, including antigenic and genomic characterizations and molecular diagnostic procedures. Further summarized are the epidemiological foundations of the T. maritimum population structure and elucidations as to the virulence mechanisms of pathogenic isolates, as found using biological, microbiological, and genomic techniques. This comprehensive source of reference will undoubtable serve in tenacibaculosis prevention and control within the marine fish farming industry. Lastly, knowledge gaps and valuable research areas are indicated as potential guidance for future studies.

7 October 2014 in Journal of Fish Diseases
Verified
Journal Article
Closed access
PDF file
HDHa Dong
Ha Dong
BLB LaFrentz
B LaFrentz
NPN Pirarat
N Pirarat
Channarong RodkhumChannarong Rodkhum
Channarong Rodkhum

3 September 2021 in Journal of Fish Diseases
Verified
Journal Article
Open access
PDF file
Thao Thu MaiThao Thu Mai
Thao Thu Mai
PKPattanapon Kayansamruaj
Pattanapon Kayansamruaj
STSuwimon Taengphu
Suwimon Taengphu
SSSaengchan Senapin
Saengchan Senapin
JCJanina Z Costa
Janina Z Costa
HDHa Dong
Ha Dong
Tilapia tilapinevirus (also known as tilapia lake virus, TiLV) is considered to be a new threat to the global tilapia industry. The objective of this study was to develop simple cell culture‐based heat‐killed (HKV) and formalin‐killed (FKV) vaccines for the prevention of disease caused by TiLV. The fish were immunized with 100 µl of either HKV or FKV by intraperitoneal injection with each vaccine containing 1.8 × 106 TCID50‐inactivated virus. A booster vaccination was carried out at 21‐day post‐vaccination (dpv) using the same protocol. The fish were then challenged with a lethal dose of TiLV at 28 dpv. The expression of five immune genes (IgM, IgD, IgT, CD4 and CD8) in the head kidney and spleen of experimental fish was assessed at 14 and 21 dpv and again after the booster vaccination at 28 dpv. TiLV‐specific IgM responses were measured by ELISA at the same time points. The results showed that both vaccines conferred significant protection, with relative percentage survival of 71.3% and 79.6% for HKV and FKV, respectively. Significant up‐regulation of IgM and IgT was observed in the head kidney of fish vaccinated with HKV at 21 dpv, while IgM, IgD and CD4 expression increased in the head kidney of fish receiving FKV at the same time point. After booster vaccination, IgT and CD8 transcripts were significantly increased in the spleen of fish vaccinated with the HKV, but not with FKV. Both vaccines induced a specific IgM response in both serum and mucus. In summary, this study showed that both HKV and FKV are promising injectable vaccines for the prevention of disease caused by TiLV in Nile tilapia.

1 December 2020 in Fish & Shellfish Immunology
Verified
Journal Article
Closed access
SESivaramasamy Elayaraja
Sivaramasamy Elayaraja
MMMahmoud Mabrok
Mahmoud Mabrok
Abdelazeem AlgammalAbdelazeem Algammal
Abdelazeem Algammal
ESElayaraja Sabitha
Elayaraja Sabitha
MRMayavan Veeramuthu Rajeswari
Mayavan Veeramuthu Rajeswari
Channarong RodkhumChannarong Rodkhum
Channarong Rodkhum