Genome And Source
Length
10,562
Type
ssRNA(+)
GC%
51.8%
Completeness
gene_fragment
Country
China
Year
2020
📋 Data Provenance
Genome Browser
No ORF position data available for this genome.
Curation Status
97
Isolates
8
Hosts
1
Proteins
✓
Sequence
Related Viruses
No related viruses found.
Reference
Widespread detection of Wenzhou shrimp virus 8 (WzSV8) and it's implication in cultured shrimp (Penaeus vannamei) farms of India
Praveena PE; Swain S; Allie NU; Kathirkaman V; Kannan S; Balagopal KB; Shreelekha MP; Bhuvaneswari T; Lal KK; Otta SK
Journal of invertebrate pathology 2025
PMID: 40744121
DOI: 10.1016/j.jip.2025.108412
ICTV Mapping
No ICTV mapping is available or reviewed for this record.
Reviewed Evidence
Only manual-checked evidence records are displayed. Inferred records (without direct isolate linkage) are shown with a yellow badge.
Virulence / pathogenicity
Auto-extracted: mortality in 'Widespread detection of Wenzhou shrimp virus 8 (WzSV8) and it's implication in cultured shrimp (Penaeus vannamei) farms of India'
mortality · medium
Finally, nanovaccine efficacy was tested in a lethal WSSV challenge model in vivo in shrimp.
pathogenicity · medium
There was minimal (n = 7) overlap in the differentially expressed miRNAs detected in shrimp and crabs in response to WSSV challenge.
pathogenicity · medium
The shrimp were fed with antibody added to the shrimp diet (10 µg of respective antibody per gram of feed (equivalent to 8% bodyweight/day)) every day for three days prior to the challenge test.
pathogenicity · medium
Case and control farms were detected as below: (1) Cases shrimp farms met two requests: (a) Had at least one pond that was positive for AHPND based on real-time PCR and (b) had tiger shrimps or white leg shrimps in at least one pond, showing at least
pathogenicity · medium
When working with archival DFPE shrimp tissue, there is an additional challenge because shrimp tissues are fixed in Davidson’s fixative instead of formalin.
pathogenicity · medium
With the lack of immortal shrimp cell lines, disease challenges can be used to identify pathogenic agents infecting M.
pathogenicity · medium
However, the histological images of shrimp hepatopancreas indicated that the infection rate significantly reduced from 60.0% to 11.1% in shrimps fed with LAB-supplemented feeds and challenged with AHPND V.
pathogenicity · medium
Molluscan cells in culture: Primary cell cultures and cell lines Detection and Description of a Particular Ostreid Herpesvirus 1 Genotype Associated with Massive Mortality Outbreaks of Pacific oysters, Crassostrea gigas, in France in 2008 Identificat
pathogenicity · medium
The evaluation of the safety of the cellulolytic marine bacterial strains for shrimp was tested by immersion challenge with cellulolytic bacteria.
pathogenicity · medium
Temperature
These findings suggest that the initial stages of infection are key to resistance to WSSV in the crab and highlight possible pathways that could be targeted in farmed crustacean to enhance resistance to WSD.Keywords: white spot disease (WSD), endocyt
temperature · medium
2057
each experiment, shrimp were transferred to an experimental system located at
the Laboratory of Virology at Wageningen University and stocked in 180-liter
aquariums, each fitted with an individual filter system (Eheim, Germany), heat-
ing (Schego
temperature · medium
Oral delivery of WSSV hub dsRNA and WSSV challenge Shrimp Penaeus monodon (10 g body weight) were obtained from a local farm and were acclimatized in a wet laboratory in 1000 liters aquaria containing continuously aerated artificial seawater at 20 pp
temperature · medium
Outlines of the Immune System of Shrimp Fish and shrimp differ significantly in their ability and the degree to which they respond to immune challenge.
Shrimp farming is an aquaculture business for the cultivation of marine shrimps or prawns for human consumption and is now considered as a major economic and food production sector as it is an increasingly important source of protein available for human consumption.
temperature · medium
In order to know the molecular mechanisms of WSS outbreak induced by temperature variation and the biological changes of the host at the initial stage of WSSV acute infection, RNA-Seq technology was used to analyze the differentially expressed genes
temperature · medium
Proteomic analysis of muscle between hybrid abalone andparental lines Haliotis gigantea Reeve and Haliotis discus hannai Ino A proteomic study on postdiapaused embryonic development of brine shrimp (Artemia franciscana) Proteomic Comparison between T
temperature · medium
These results imply that the cellular immune system of shrimp, particularly phagocytosis, is capable of a degree of specificity and shows the phenomenon of ‘immune priming’ reported by other workers.
temperature · medium
Prior to experimental challenges, naïve Pacific whiteleg shrimp Penaeus vannamei (2–5g
fresh weight) were purchased from local SPF shrimp broodstock producers and acclimated in
the laboratory for 2 days in 20 L artificial seawater (Marinium) at 20 pp
temperature · medium
In this study, using a highly controlled gnotobiotic brine shrimp model system, we aimed to investigate whether phloroglucinol potentiates the generation of prooxidant activity and heat shock protein 70 (Hsp70) production in vivo and whether this put
temperature · medium
qPCR analysis of the distribution of NdTryp in
different tissues and during shrimp ontogenesis
The melt curve analysis revealed a single peak for the NdTryp gene,
indicating the qPCR product has a high degree of specific
amplification.
temperature · medium
Hosts
Diagnostic And Control Records
No curated diagnostic or control records are available for this virus.
Proteins
🧬
No protein annotations available
Loading additional protein data...
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Loading additional literature...
Geographic Distribution
China
96 isolates
India
1 isolates
Taxonomy Information
Family
Totiviridae
Host Phylum
Arthropoda
Genome Type
ssRNA(+)
Discovery Method
metagenomic_with_host_evidence
Related Isolates
| Accession | Length | GC | Completeness | Country | Year |
|---|---|---|---|---|---|
| KM817746.1 | 898 | 48.8 | gene_fragment | China | 2013 |
| KX882860.1 | 2,685 | 51.0 | genome_segment | China | 2013 |
| KX882861.1 | 1,924 | 53.5 | genome_segment | China | 2013 |
| KX883298.1 | 9,997 | 42.1 | gene_fragment | China | 2013 |
| KX883551.1 | 3,186 | 50.6 | gene_fragment | China | 2013 |
| KX883617.1 | 3,195 | 50.4 | gene_fragment | China | 2013 |
| KX883794.1 | 10,472 | 50.8 | gene_fragment | China | 2013 |
| KX883826.1 | 10,183 | 50.2 | gene_fragment | China | 2014 |
| KX883978.1 | 10,331 | 44.4 | gene_fragment | China | 2013 |
| KX883979.1 | 8,524 | 44.8 | gene_fragment | China | 2013 |
| KX883980.1 | 9,999 | 41.8 | gene_fragment | China | 2013 |
| KX883984.1 | 10,445 | 52.2 | gene_fragment | China | 2013 |
| KX883985.1 | 8,077 | 46.7 | gene_fragment | China | 2013 |
| KX884312.1 | 9,716 | 42.4 | gene_fragment | China | 2014 |
| KX884315.1 | 8,664 | 35.2 | gene_fragment | China | 2014 |
| KX884317.1 | 10,528 | 43.6 | gene_fragment | China | 2014 |
| KX884321.1 | 9,887 | 41.1 | gene_fragment | China | 2014 |
| KX884322.1 | 9,291 | 30.5 | gene_fragment | China | 2014 |
| KX884347.1 | 8,636 | 46.6 | gene_fragment | China | 2013 |
| KX884348.1 | 10,378 | 44.5 | gene_fragment | China | 2013 |
| KX884352.1 | 9,997 | 42.1 | gene_fragment | China | 2013 |
| KX884450.1 | 11,938 | 41.9 | gene_fragment | China | 2014 |
| KX884451.1 | 6,699 | 46.7 | gene_fragment | China | 2014 |
| KX884452.1 | 4,615 | 47.9 | gene_fragment | China | 2014 |
| KX884453.1 | 6,746 | 41.0 | gene_fragment | China | 2014 |
| KX884454.1 | 4,083 | 42.1 | gene_fragment | China | 2014 |
| KX884456.1 | 11,560 | 49.7 | gene_fragment | China | 2014 |
| KX884457.1 | 7,447 | 45.4 | gene_fragment | China | 2014 |
| KX884458.1 | 11,119 | 57.0 | gene_fragment | China | 2014 |
| KX884856.1 | 6,691 | 39.2 | gene_fragment | China | 2014 |
| KX884857.1 | 3,267 | 38.6 | gene_fragment | China | 2014 |
| KX884858.1 | 799 | 44.2 | gene_fragment | China | 2014 |
| KX884859.1 | 6,496 | 30.8 | gene_fragment | China | 2014 |
| KX884860.1 | 1,517 | 36.5 | gene_fragment | China | 2014 |
| KX884861.1 | 8,923 | 36.7 | gene_fragment | China | 2014 |
| KX884862.1 | 8,078 | 38.6 | gene_fragment | China | 2014 |
| MT520807.1 | 1,361 | 49.4 | complete_genome | China | 2013 |
| MZ868508.1 | 560 | 51.4 | partial_sequence | China | 2015 |
| NC_031290.1 | 898 | 48.8 | gene_fragment | China | 2013 |
| NC_032143.1 | 6,691 | 39.2 | gene_fragment | China | 2014 |
| NC_032144.1 | 3,267 | 38.6 | gene_fragment | China | 2014 |
| NC_032145.1 | 799 | 44.2 | gene_fragment | China | 2014 |
| NC_032420.1 | 9,997 | 42.1 | gene_fragment | China | 2013 |
| NC_032739.1 | 11,938 | 41.9 | gene_fragment | China | 2014 |
| NC_032781.1 | 11,560 | 49.7 | gene_fragment | China | 2014 |
| NC_032784.1 | 10,472 | 50.8 | gene_fragment | China | 2013 |
| NC_032793.1 | 7,447 | 45.4 | gene_fragment | China | 2014 |
| NC_032802.1 | 11,119 | 57.0 | gene_fragment | China | 2014 |
| NC_032810.1 | 9,716 | 42.4 | gene_fragment | China | 2014 |
| NC_032825.1 | 8,524 | 44.8 | gene_fragment | China | 2013 |
| NC_032830.1 | 8,664 | 35.2 | gene_fragment | China | 2014 |
| NC_032839.1 | 10,528 | 43.6 | gene_fragment | China | 2014 |
| NC_032852.1 | 10,445 | 52.2 | gene_fragment | China | 2013 |
| NC_032858.1 | 9,887 | 41.1 | gene_fragment | China | 2014 |
| NC_032864.1 | 9,291 | 30.5 | gene_fragment | China | 2014 |
| NC_032989.1 | 8,636 | 46.6 | gene_fragment | China | 2013 |
| NC_032996.1 | 10,378 | 44.5 | gene_fragment | China | 2013 |
| NC_033065.1 | 10,183 | 50.2 | gene_fragment | China | 2014 |
| NC_033164.1 | 3,195 | 50.4 | gene_fragment | China | 2013 |
| NC_033291.1 | 6,699 | 46.7 | gene_fragment | China | 2014 |
| NC_033292.1 | 4,615 | 47.9 | gene_fragment | China | 2014 |
| NC_033293.1 | 6,746 | 41.0 | gene_fragment | China | 2014 |
| NC_033294.1 | 4,083 | 42.1 | gene_fragment | China | 2014 |
| NC_033295.1 | 1,924 | 53.5 | genome_segment | China | 2013 |
| NC_033300.1 | 2,685 | 51.0 | genome_segment | China | 2013 |
| PP178640.1 | 482 | 50.8 | partial_sequence | India | 2022 |
| PP214947.1 | 6,270 | 52.1 | partial_sequence | China | 2020 |
| PP214948.1 | 3,754 | 52.5 | partial_sequence | China | 2018 |
| PP214949.1 | 3,715 | 52.1 | partial_sequence | China | 2018 |
| PP214950.1 | 4,102 | 52.9 | partial_sequence | China | 2018 |
| PP214951.1 | 4,529 | 53.0 | partial_sequence | China | 2018 |
| PP214952.1 | 4,306 | 52.4 | partial_sequence | China | 2019 |
| PP214953.1 | 4,184 | 52.6 | partial_sequence | China | 2020 |
| PP215283.1 | 10,570 | 51.5 | gene_fragment | China | 2020 |
| PP215284.1 | 10,558 | 51.8 | gene_fragment | China | 2020 |
| PP215285.1 | 10,562 | 51.8 | gene_fragment | China | 2020 |
| PP215286.1 | 10,563 | 51.7 | gene_fragment | China | 2020 |
| PP215287.1 | 10,561 | 51.8 | gene_fragment | China | 2020 |
| PP215288.1 | 10,565 | 51.8 | gene_fragment | China | 2020 |
| PP215289.1 | 10,564 | 51.7 | gene_fragment | China | 2020 |
| PP215290.1 | 10,567 | 51.8 | gene_fragment | China | 2020 |
| PP215291.1 | 10,571 | 51.7 | gene_fragment | China | 2020 |
| PP215292.1 | 10,572 | 51.7 | gene_fragment | China | 2020 |
| PP215293.1 | 10,473 | 51.9 | gene_fragment | China | 2020 |
| PP215294.1 | 10,569 | 51.9 | gene_fragment | China | 2020 |
| PP215295.1 | 10,572 | 51.6 | gene_fragment | China | 2020 |
| PP215296.1 | 10,568 | 51.7 | gene_fragment | China | 2020 |
| PP215297.1 | 10,567 | 51.8 | gene_fragment | China | 2020 |
| PP215298.1 | 10,578 | 51.6 | gene_fragment | China | 2020 |
| PP215299.1 | 10,384 | 51.9 | gene_fragment | China | 2020 |
| PP215300.1 | 10,569 | 51.8 | gene_fragment | China | 2020 |
| PP215301.1 | 10,537 | 51.9 | gene_fragment | China | 2020 |
| PP215302.1 | 10,551 | 51.7 | gene_fragment | China | 2020 |
| PP215303.1 | 10,551 | 51.7 | gene_fragment | China | 2020 |
| PP215304.1 | 10,567 | 51.8 | gene_fragment | China | 2020 |
| PP215305.1 | 10,564 | 51.7 | gene_fragment | China | 2020 |
| PP334143.1 | 2,986 | 53.2 | unknown | China | 2019 |
Sequence
Loading sequence...