Literature DB >> 28098541

Cutavirus in Cutaneous Malignant Melanoma.

Sarah Mollerup, Helena Fridholm, Lasse Vinner, Kristín Rós Kjartansdóttir, Jens Friis-Nielsen, Maria Asplund, Jose A R Herrera, Torben Steiniche, Tobias Mourier, Søren Brunak, Eske Willerslev, Jose M G Izarzugaza, Anders J Hansen, Lars P Nielsen.   

Abstract

A novel human protoparvovirus related to human bufavirus and preliminarily named cutavirus has been discovered. We detected cutavirus in a sample of cutaneous malignant melanoma by using viral enrichment and high-throughput sequencing. The role of cutaviruses in cutaneous cancers remains to be investigated.

Entities:  

Keywords:  Cutavirus; bufavirus; cancer; human; malignant melanoma; metagenomics; protoparvovirus; sequencing; viruses

Mesh:

Substances:

Year:  2017        PMID: 28098541      PMCID: PMC5324802          DOI: 10.3201/eid2302.161564

Source DB:  PubMed          Journal:  Emerg Infect Dis        ISSN: 1080-6040            Impact factor:   6.883


Parvoviruses are small nonenveloped DNA viruses with a single-stranded linear genome of ≈5 kb. In 2016, a novel species within the Protoparvovirus genus was discovered in fecal samples from children with diarrhea in Brazil and subsequently detected in samples of mycosis fungoides lesions (cutaneous T-cell lymphoma) of patients in France (). This virus, provisionally named cutavirus, shows highest identity to the human bufaviruses of the Primate protoparvovirus 1 species. Bufaviruses are found in human fecal samples in low percentages (–). Using viral enrichment methods, we detected a cutavirus strain in an additional type of cancer, cutaneous malignant melanoma, further expanding the range of tissue types harboring cutaviruses and adding to the knowledge of the human virome. We subjected a clinical sample of a cutaneous malignant melanoma lesion from a patient in Denmark to enrichment of virion-associated nucleic acids and enrichment of circular DNA molecules, followed by high-throughput sequencing (Technical Appendix). BLASTn (https://blast.ncbi.nlm.nih.gov/Blast.cgi?CMD=Web&PAGE_TYPE=BlastDocs&DOC_TYPE=Download) analysis originally identified contigs related to human bufaviruses in de novo assembled contigs from both datasets. In light of the recently published cutavirus genomes (), we compared these sequences with the cutaviruses and found high similarity to the cutaviruses. From overlapping contigs, we obtained the 4,452 bp (from start nonstructural protein 1 [NS1] to end viral protein 1 [VP1]) near-complete genome of a novel cutavirus strain, CutaV CGG5–268 (GenBank accession no. KX685945). Similar to the other cutavirus genomes, CutaV CGG5–268 included NS1 and VP1 open reading frames (ORFs) encoding proteins of 659 aa and 707 aa, respectively. The CutaV CGG5–268 sequence also contained the small putative 333-nt middle ORF, starting at position 2021, and a 270-nt ORF located within the VP2 coding region, starting at position 2768. Further testing is required to determine whether these ORFs encode proteins. We performed phylogenetic analysis based on the NS1 and VP1 amino acid sequences (Figure). Because 4 of the 7 published cutavirus genomes contain partial NS1 sequences, we included only 3 cutavirus strains in the phylogenetic analysis of NS1 . NS1-based analysis placed CutaV CGG5–268 closest to CutaV FR-F identified in a mycosis fungoides patient in France, whereas VP1-based analysis placed CutaV CGG5–268 closest to CutaV BR-450 identified in the feces of a child in Brazil.
Figure

Phylogenetic analysis of human cutaviruses (CutaV) and bufaviruses (BuV) based on the full nonstructural protein 1 (A) and viral protein 1 (B) amino acid sequences. The trees were constructed by the maximum-likelihood method with 100 bootstrap replicates. Gray fox amdovirus was used as an outgroup. Bold indicates novel CutaV strain (CGG5–268) from this study. Scale bars indicate amino acid substitutions per position.

Phylogenetic analysis of human cutaviruses (CutaV) and bufaviruses (BuV) based on the full nonstructural protein 1 (A) and viral protein 1 (B) amino acid sequences. The trees were constructed by the maximum-likelihood method with 100 bootstrap replicates. Gray fox amdovirus was used as an outgroup. Bold indicates novel CutaV strain (CGG5–268) from this study. Scale bars indicate amino acid substitutions per position. Cutaviruses were discovered in human fecal samples by use of metagenomics and subsequently detected in 4 of 17 samples of mycosis fungoides lesions; however, 21 skin samples, including samples from skin cancers and parapsoriasis lesions, tested negative for cutavirus (). Our discovery of cutavirus in a sample of cutaneous malignant melanoma shows that extraenteric presence of cutaviruses is not limited to skin infiltrated by neoplastic T cells. The detection of cutaviral DNA after virion enrichment may indicate viral replication taking place in the affected tissue. Human bufaviruses have so far been detected only in fecal samples, predominantly from patients having diarrhea or gastroenteritis, and in only 0.27%–4% of samples (–). Another virus of the Parvoviridae family, human parvovirus B19, is shown to persist in multiple tissue types, in most cases without an established correlation to disease (). Animal protoparvoviruses have also been detected in several sample types, as discussed elsewhere (). Thus, future studies may reveal an expanded range of tissue types harboring cutaviruses. So far, cutaviruses have only been detected in the tissues investigated, and their direct involvement in disease has not been established. One limitation of this study is the lack of healthy controls for assessing whether cutavirus can also be detected in healthy skin. Furthermore, screening of a larger number of samples is necessary to determine the prevalence of cutavirus in malignant melanoma. In 9 additional melanoma samples investigated in our laboratory, we did not identify contigs with similarity to those of cutavirus or bufavirus. All 10 samples were tested for cutaviral DNA by real-time PCR, but only the sample in which the cutaviral contigs were detected had positive results (Technical Appendix). We can only speculate regarding the cell tropism of cutaviruses; nevertheless, our study opens the possibility that cutaviruses replicate in melanocytes, which are present in the epidermal layers of the skin, where cutavirus DNA was detected by in situ hybridization (). Melanocytes are also present in low numbers in the enteric epithelium, where melanomas can occur, though rarely (). However, the cell tropism and potential pathogenicity of human protoparvoviruses remain to be investigated.

Technical Appendix

Additional methods and details of results of testing showing cutavirus in a human cutaneous malignant melanoma biopsy sample.
  10 in total

1.  A new protoparvovirus in human fecal samples and cutaneous T cell lymphomas (mycosis fungoides).

Authors:  Tung G Phan; Brigitte Dreno; Antonio Charlys da Costa; Linlin Li; Patricia Orlandi; Xutao Deng; Beatrix Kapusinszky; Juliana Siqueira; Anne-Chantal Knol; Franck Halary; Jacques Dantal; Kathleen A Alexander; Patricia A Pesavento; Eric Delwart
Journal:  Virology       Date:  2016-07-07       Impact factor: 3.616

Review 2.  Persistent parvovirus B19 infection in non-erythroid tissues: possible role in the inflammatory and disease process.

Authors:  Laura A Adamson-Small; Igor V Ignatovich; Monica G Laemmerhirt; Jacqueline A Hobbs
Journal:  Virus Res       Date:  2014-07-03       Impact factor: 3.303

3.  Bufavirus genotype 3 in Turkish children with severe diarrhoea.

Authors:  A Altay; T Yahiro; G Bozdayi; T Matsumoto; F Sahin; S Ozkan; A Nishizono; M Söderlund-Venermo; K Ahmed
Journal:  Clin Microbiol Infect       Date:  2015-06-15       Impact factor: 8.067

4.  Bufavirus in fecal specimens of patients with and without diarrhea in Thailand.

Authors:  Thaweesak Chieochansin; Viboonsak Vutithanachot; Apiradee Theamboonlers; Yong Poovorawan
Journal:  Arch Virol       Date:  2015-05-08       Impact factor: 2.574

5.  Acute diarrhea in West African children: diverse enteric viruses and a novel parvovirus genus.

Authors:  Tung G Phan; Nguyen P Vo; Isidore J O Bonkoungou; Amit Kapoor; Nicolas Barro; Miguel O'Ryan; Beatrix Kapusinszky; Chunling Wang; Eric Delwart
Journal:  J Virol       Date:  2012-08-01       Impact factor: 5.103

Review 6.  Primary colonic melanoma presenting as ileocecal intussusception: case report and literature review.

Authors:  Wen-Xiang Li; Ye Wei; Yi Jiang; Ya-Lan Liu; Li Ren; Yun-Shi Zhong; Le-Chi Ye; De-Xiang Zhu; Wei-Xin Niu; Xin-Yu Qin; Jian-Min Xu
Journal:  World J Gastroenterol       Date:  2014-07-28       Impact factor: 5.742

7.  Bufavirus in feces of patients with gastroenteritis, Finland.

Authors:  Elina Väisänen; Inka Kuisma; Tung G Phan; Eric Delwart; Maija Lappalainen; Eveliina Tarkka; Klaus Hedman; Maria Söderlund-Venermo
Journal:  Emerg Infect Dis       Date:  2014-06       Impact factor: 6.883

8.  Novel human bufavirus genotype 3 in children with severe diarrhea, Bhutan.

Authors:  Takaaki Yahiro; Sonam Wangchuk; Kinlay Tshering; Purushotam Bandhari; Sangay Zangmo; Tshering Dorji; Karchung Tshering; Takashi Matsumoto; Akira Nishizono; Maria Söderlund-Venermo; Kamruddin Ahmed
Journal:  Emerg Infect Dis       Date:  2014-06       Impact factor: 6.883

9.  Identification of Bufavirus-1 and Bufavirus-3 in Feces of Patients with Acute Diarrhea, China.

Authors:  Dou-Dou Huang; Wei Wang; Qing-Bin Lu; Jin Zhao; Chen-Tao Guo; Hong-Yu Wang; Xiao-Ai Zhang; Yi-Gang Tong; Wei Liu; Wu-Chun Cao
Journal:  Sci Rep       Date:  2015-08-19       Impact factor: 4.379

10.  New viruses in idiopathic human diarrhea cases, the Netherlands.

Authors:  Saskia L Smits; Claudia M E Schapendonk; Janko van Beek; Harry Vennema; Anita C Schürch; Debby Schipper; Rogier Bodewes; Bart L Haagmans; Albert D M E Osterhaus; Marion P Koopmans
Journal:  Emerg Infect Dis       Date:  2014-07       Impact factor: 6.883

  10 in total
  8 in total

1.  Atomic Resolution Structures of Human Bufaviruses Determined by Cryo-Electron Microscopy.

Authors:  Maria Ilyas; Mario Mietzsch; Shweta Kailasan; Elina Väisänen; Mengxiao Luo; Paul Chipman; J Kennon Smith; Justin Kurian; Duncan Sousa; Robert McKenna; Maria Söderlund-Venermo; Mavis Agbandje-McKenna
Journal:  Viruses       Date:  2018-01-04       Impact factor: 5.048

Review 2.  Human Protoparvoviruses.

Authors:  Elina Väisänen; Yu Fu; Klaus Hedman; Maria Söderlund-Venermo
Journal:  Viruses       Date:  2017-11-22       Impact factor: 5.048

3.  Structural Characterization of Cuta- and Tusavirus: Insight into Protoparvoviruses Capsid Morphology.

Authors:  Mario Mietzsch; Robert McKenna; Elina Väisänen; Jennifer C Yu; Maria Ilyas; Joshua A Hull; Justin Kurian; J Kennon Smith; Paul Chipman; Yi Lasanajak; David Smith; Maria Söderlund-Venermo; Mavis Agbandje-McKenna
Journal:  Viruses       Date:  2020-06-17       Impact factor: 5.048

4.  Global Distribution of Human Protoparvoviruses.

Authors:  Elina Väisänen; Ushanandini Mohanraj; Paula M Kinnunen; Pikka Jokelainen; Haider Al-Hello; Ali M Barakat; Mohammadreza Sadeghi; Farid A Jalilian; Amir Majlesi; Moses Masika; Dufton Mwaengo; Omu Anzala; Eric Delwart; Olli Vapalahti; Klaus Hedman; Maria Söderlund-Venermo
Journal:  Emerg Infect Dis       Date:  2018-07       Impact factor: 6.883

5.  Newly detected DNA viruses in juvenile nasopharyngeal angiofibroma (JNA) and oral and oropharyngeal squamous cell carcinoma (OSCC/OPSCC).

Authors:  Amy Dickinson; Man Xu; Suvi Silén; Yilin Wang; Yu Fu; Mohammadreza Sadeghi; Mari Toppinen; Timo Carpén; Klaus Hedman; Antti Mäkitie; Maria Söderlund-Venermo
Journal:  Eur Arch Otorhinolaryngol       Date:  2018-12-21       Impact factor: 2.503

6.  High-Throughput Sequencing-Based Investigation of Viruses in Human Cancers by Multienrichment Approach.

Authors:  Sarah Mollerup; Maria Asplund; Jens Friis-Nielsen; Kristín Rós Kjartansdóttir; Helena Fridholm; Thomas Arn Hansen; José Alejandro Romero Herrera; Christopher James Barnes; Randi Holm Jensen; Stine Raith Richter; Ida Broman Nielsen; Carlotta Pietroni; David E Alquezar-Planas; Alba Rey-Iglesia; Pernille V S Olsen; Ewa Rajpert-De Meyts; Line Groth-Pedersen; Christian von Buchwald; David H Jensen; Robert Gniadecki; Estrid Høgdall; Jill Levin Langhoff; Imre Pete; Ildikó Vereczkey; Zsolt Baranyai; Karen Dybkaer; Hans Erik Johnsen; Torben Steiniche; Peter Hokland; Jacob Rosenberg; Ulrik Baandrup; Thomas Sicheritz-Pontén; Eske Willerslev; Søren Brunak; Ole Lund; Tobias Mourier; Lasse Vinner; Jose M G Izarzugaza; Lars Peter Nielsen; Anders Johannes Hansen
Journal:  J Infect Dis       Date:  2019-09-13       Impact factor: 5.226

7.  Generation and Validation of Monoclonal Antibodies Suitable for Detecting and Monitoring Parvovirus Infections.

Authors:  Claudia Tessmer; Claudia Plotzky; Jana Fees; Hendrik Welsch; Rebecca Eudenbach; Martin Faber; Alicia Simón; Assia Angelova; Jean Rommelaere; Ilse Hofmann; Jürg P F Nüesch
Journal:  Pathogens       Date:  2022-02-04

8.  Human Protoparvovirus DNA and IgG in Children and Adults with and without Respiratory or Gastrointestinal Infections.

Authors:  Ushanandini Mohanraj; Maija Jokinen; Rajita Rayamajhi Thapa; Minna Paloniemi; Timo Vesikari; Maija Lappalainen; Eveliina Tarkka; Zaiga Nora-Krūkle; Anda Vilmane; Kim Vettenranta; Charles Mangani; Sami Oikarinen; Yue-Mei Fan; Per Ashorn; Elina Väisänen; Maria Söderlund-Venermo
Journal:  Viruses       Date:  2021-03-15       Impact factor: 5.048

  8 in total

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