Alongkot Boonsoongnern
Kasetsart University
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Featured researches published by Alongkot Boonsoongnern.
Emerging Infectious Diseases | 2009
Suphasawatt Puranaveja; Pariwat Poolperm; Preeda Lertwatcharasarakul; Sawang Kesdaengsakonwut; Alongkot Boonsoongnern; Kitcha Urairong; Pravina Kitikoon; Porjit Choojai; Roongtham Kedkovid; Komkrich Teankum; Roongroje Thanawongnuwech
Since late 2007, several outbreaks of porcine epidemic diarrhea virus (PEDV) infection have emerged in Thailand. Phylogenetic analysis places all Thai PEDV isolates during the outbreaks in the same clade as the Chinese strain JS-2004-2. This new genotype PEDV is prevailing and currently causing sporadic outbreaks in Thailand.
Virology Journal | 2011
Tippawan Jantafong; Alongkot Boonsoongnern; Pariwat Poolperm; Kitcha Urairong; Chalermpol Lekcharoensuk; Porntippa Lekcharoensuk
Porcine circovirus type 2 (PCV2) is the major swine pathogen associated with Porcine circovirus associated disease (PCVAD) including post-weaning multisystemic wasting syndrome (PMWS). Currently, there are 4 subtypes of PCV2 (PCV2a, b, c and d) and some epidemiological evidences demonstrated that virulence of PCV2 may relate to its subtypes. Recently, PMWS was observed more frequently in swine farms in Thailand; however, the information regarding to PCV2 subtype involved was limited. Therefore, this study was aimed to determine the association between occurrence of PMWS and PCV2 subtypes as well as genetically characterize PCV2 in Thailand. PCV2 DNA was isolated from faecal swabs and whole blood of piglets from PMWS-affected and -negative farms. The full length ORF2 sequences were compared using multiple alignment. The results showed that PCV2 DNA was detected more frequently in PMWS-affected farms. The nucleotide identities of the ORF2 from 9 PCV2 isolates representing each PMWS-affected farm and one from the negative farm ranged from 92.4 to 99.5% suggesting that there is some genetic variation of PCV2 in Thai swine. The 10 PCV2 isolates were classified into 2 clusters, in which the 7 isolates from PMWS-positive farms were in PCV2b cluster 1 A/B. The remaining isolates were separated in the new subtype called PCV2e. The results suggest the presence of new PCV2 subtypes in addition to PCV2a and PCV2b in Asian swine population. However, correlation between subtypes and virulence of PCV2 infection is not conclusive due to limited number of the PCV2 sequences from PMWS negative farms.
Journal of Environmental Sciences-china | 2011
Phitsanu Tulayakul; Alongkot Boonsoongnern; Suwicha Kasemsuwan; Srisamai Wiriyarampa; Juree Pankumnoed; Suwanna Tippayaluck; Hathairad Hananantachai; Ratchaneekorn Mingkhwan; Ramnaree Netvichian; Sutha Khaodhiar
The objective of this study is to determine and compare the heavy metal (Zn, Cu, Cd, Pb) and bacterial (E. coli, coliform and Salmonella spp.) contamination between swine farms utilizing biogas and non-biogas systems in the central part of Thailand. Results showed that average levels of E. coli, coliform, BOD, COD, Zn, Cu and Pb in sludge from the post-biogas pond were higher than the standard limits. Moreover, the levels of E. coli, coliform, Cd and Pb were also higher than the standard limits for dry manure. The levels of E. coli, coliform and BOD on biogas farms were lower than on non-biogas farms. Following isolation of Salmonella spp., it was found that Salmonella serovars Rissen was the most abundant at 18.46% (12/65), followed by Anatum 12.31% (8/65), and Kedougou 9.23% (6/65). The pathogenic strains of Salmonella serovars Paratyphi B var. java and Typhimurium were present in equal amounts at 4.62% (3/65) in samples from all swine farms. This study revealed that significant reduction in E. coli and coliform levels in sludge from covered lagoon biogas systems on swine farms. The presence of Salmonella as well as Cd and Pb, in significant amount in dry manure, suggests that there is a high probability of environmental contamination if it is used for agricultural purposes. Thus, careful waste and manure disposal from swine farms and the regular monitoring of wastewater is strongly recommended to ensure the safety of humans, other animals and the environment.
Veterinary Microbiology | 2017
Nattarat Thangthamniyom; Pradit Sangthong; Pariwat Poolperm; Narut Thanantong; Alongkot Boonsoongnern; Payuda Hansoongnern; Ploypailin Semkum; Nantawan Petcharat; Porntippa Lekcharoensuk
Porcine circovirus type 2 (PCV2), the essential cause of porcine circovirus associated disease (PCVAD), has evolved rapidly and it has been reported worldwide. However, genetic information of PCV2 in Thailand has not been available since 2011. Herein, we studied occurrence and genetic diversity of PCV2 in Thailand and their relationships to the global PCV2 based on ORF2 sequences. The results showed that 306 samples (44.09%) from 56 farms (80%) were PCV2 positive by PCR. Phylogenetic trees constructed by both neighbor-joining and Bayesian Inference yielded similar topology of the ORF2 sequences. Thai PCV2 comprise four clusters: PCV2a (5.5%), PCV2b (29.41%), intermediate clade 1 (IM1) PCV2b (11.03%) and PCV2d (54.41%). Genetic shift of PCV2 in Thailand has occurred similarly to the global situation. The shift from PCV2b to PCV2d was clearly observed during 2013-2014. The viruses with genetically similar to the first reported PCV2 in 2004 have still circulated in Thailand. The first Thai PCV2b and PCV2d were closely related to the neighboring countries. The haplotype network analysis revealed the relationship of PCV2 in Thailand and other countries. These results indicate that genetic diversity of PCV2 in Thailand is caused by genetic drift of the local strains and intermittent introduction of new strains or genotypes from other countries. Genetic evolution of PCV2 in Thailand is similar to that occurs globally.
Southeast Asian Journal of Tropical Medicine and Public Health | 2008
Chatsirin Nakharuthai; Alongkot Boonsoongnern; Pariwat Poolperm; Worawidh Wajjwalku; Kitcha Urairong; Wilairat Chumsing; Preeda Lertwitcharasarakul; Porntippa Lekcharoensuk
World Journal of Vaccines | 2012
Alongkot Boonsoongnern; Pichai Jirawattanapong; Preeda Lertwatcharasarakul; Sakukuna Phatthanakunanan; Pariwat Poolperm; Supanee Urairong; Wichian Navasakuljinda; Kitcha Urairong
Archives of Virology | 2017
Adthakorn Madapong; Gun Temeeyasen; Kepalee Saeng-chuto; Thitima Tripipat; Wichian Navasakuljinda; Alongkot Boonsoongnern; Angkana Tantituvanont; Dachrit Nilubol
Agriculture and Natural Resources | 2016
Chantima Pruksakorn; Chakrabhandhu Pimarn; Alongkot Boonsoongnern; Watcharachai Narongsak
Thai Journal of Veterinary Medicine | 2017
Supatee Kitkha; Alongkot Boonsoongnern; Nattavut Ratanavanichrojn; Pichai Jirawattanapong; Anuchai Pinyopummin
Archive | 2012
Phitsanu Tulayakul; Alongkot Boonsoongnern; Suwicha Kasemsuwan; Nattavut Ratanavanichrojn; Ramnaree Netvichian; Sutha Khaodhiar