Search

The Alinity m (Abbott Molecular, Des Plaines, IL) automated molecular analyzer allows continuous loading of samples and sample-to-result molecular detection of several microorganisms. The detection of SARS-CoV-2 by the Alinity m was compared with that of the cobas 6800 (Roche Molecular Systems, Branchburg, NJ; standard comparator) in a manufacturer-independent clinical evaluation on 2157 consecutive nasopharyngeal swab samples. Valid initial results on Alinity m and cobas 6800 were obtained from 2129 (98.7%) and 2157 (100%) samples, respectively. The overall percent agreement (95% CI) was 98.3% (2092/2129 [97.6%-98.7%]); positive percent agreement, 100% (961/961 [99.6%-100%]); negative percent agreement, 96.8% (1131/1168 [95.7%-97.7%]); and high κ value, 0.965 (0.954-0.976). There were 37 discordant results on Alinity m and, based on discordant analyses, including previous and/or follow-up PCR results, 22 could be considered analytically true positive with high probability. Due to a lack of additional information and an inability to perform repeated/further testing, the status of the remaining 15 discordant results remained unresolved. The throughput of the two analyzers was compared using testing on 564 samples in parallel across two 8-hour shifts in clinical practice. The turnaround times were compared using processing of 94 routine samples in parallel on each working day for 5 consecutive days. The two analyzers showed similar performance, with certain differences that have potential importance in some laboratory settings.

West Nile virus (WNV) is a flavivirus transmitted by mosquitoes. Birds are the reservoir for the virus, humans, horses and other mammals are dead-end hosts. Infections caused by WNV in humans can vary from asymptomatic infections to West Nile fever (WNF) or West Nile neuroinvasive disease (WNND). In 1995, a serosurvey was performed in Slovenia on forest workers, and WNV specific IgG antibodies were confirmed in 6.8% of the screened samples, indicating that WNV is circulating in Slovenia. No human disease cases were detected in Slovenia until 2013, when the first case of WNV infection was confirmed in a retrospective study in a 79-year old man with meningitis. In 2018, three patients with WNND were confirmed by laboratory tests, with detection of IgM antibodies in the cerebrospinal fluid of the patients. In one of the patients, WNV RNA was detected in the urine sample. In 2017, 2018 and 2019, a mosquito study was performed in Slovenia. Mosquitoes were sampled on 14 control locations and 35 additional locations in 2019. No WNV was detected in mosquitoes in 2017 and 2019, but we confirmed the virus in a pool of Culex sp. mosquitoes in 2018. The virus was successfully isolated, and complete genome sequence was acquired. The whole genome of the WNV was also sequenced from the patient&rsquo, s urine sample. The whole genome sequences of the WNV virus detected in Slovenian patient and mosquito indicate the virus most likely spread from the north, because of the geographic proximity and because the sequences cluster with the Austrian and Hungarian sequences. A sentinel study was performed on dog sera samples, and we were able to confirm IgG antibodies in 1.8% and 4.3% of the samples in 2017 and 2018, respectively. Though Slovenia is not a highly endemic country for WNV, we have established that the virus circulates in Slovenia.

Noroviruses are the leading cause of acute gastroenteritis, and they can affect humans of all age groups. In immunocompromised patients, norovirus infections can develop into chronic diarrhea or show prolonged asymptomatic virus shedding. Chronic norovirus infections are frequently reported for solid organ transplant recipients, with rapid intrahost norovirus evolution seen. In this report, we describe a case of chronic norovirus infection in an immunocompromised patient who was followed up for over 5 years. The purpose of the study was to specify the norovirus evolution in a chronically infected immunocompromised host and identify possible selection sites in norovirus capsid protein. During the follow-up period, 25 sequential stool samples were collected and nine of them were selected to generate amplicons covering viral RNA-dependent RNA polymerase (RdRp) and viral capsid protein (VP1) genes. Amplicons were sequenced using next-generation sequencing. Single nucleotide polymorphisms were defined, which demonstrated a nearly 3-fold greater mutation rate in the VP1 genome region compared to the RdRp genome region (7.9 vs. 2.8 variable sites/100 nucleotides, respectively). This indicates that mutations in the virus genome were not accumulated randomly, but are rather the result of mutant selection during the infection cycle. Using ShoRAH software we were able to reconstruct haplotypes occurring in each of the nine selected samples. The deduced amino-acid haplotype sequences were aligned and the positions were analyzed for selective pressure using the Datamonkey program. Only 12 out of 25 positive selection sites were within the commonly described epitopes A, B, C, and D of the VP1 protein. New positive selection sites were determined that have not been described before and might reflect adaptation of the norovirus toward optimal histo-blood-group antigen binding, or modification of the norovirus antigenic properties. These data provide new insights into norovirus evolutionary dynamics and indicate new putative epitope "hot-spots" of modified and optimized norovirus-host interactions.

A modified pan-PV consensus-degenerate hybrid oligonucleotide primer (CODEHOP) PCR was developed for generic and sensitive detection of a broad-spectrum of human papillomaviruses (HPVs) infecting the cutaneous epithelium. To test the analytical sensitivity of the assay we examined 149 eyebrow hair follicle specimens from immunocompetent male patients. HPV DNA was detected in 60% (89/149) of analysed eyebrow samples with a total of 48 different HPV sequences, representing 21 previously described HPVs and 27 putative novel HPV types. Evidence for ten novel HPV subtypes and seven viral variants, clustering to three out of five genera containing cutaneous HPVs, was also obtained. Thus, we have shown that the modified pan-PV CODEHOP PCR assay is able to identify multiple HPV types, even from different genera, in the same clinical sample. Overall, these results demonstrate that the pan-PV CODEHOP PCR is an excellent tool for screening and identification of novel cutaneous HPVs, even in samples with low viral loads. Fil: Chouhy, Diego. Consejo Nacional de Investigaciones Científicas y Técnicas. Centro Científico Tecnológico Conicet - Rosario. Instituto de Biología Molecular y Celular de Rosario. Universidad Nacional de Rosario. Facultad de Ciencias Bioquímicas y Farmacéuticas. Instituto de Biología Molecular y Celular de Rosario; Argentina Fil: Kocjan, Boštjan J.. University of Ljubljana; Eslovenia Fil: Staheli, Jeannette P.. Seattle Children’s Research Institute; Estados Unidos Fil: Bolatti, Elisa Maria. Consejo Nacional de Investigaciones Científicas y Técnicas. Centro Científico Tecnológico Conicet - Rosario. Instituto de Biología Molecular y Celular de Rosario. Universidad Nacional de Rosario. Facultad de Ciencias Bioquímicas y Farmacéuticas. Instituto de Biología Molecular y Celular de Rosario; Argentina Fil: Hošnjak, Lea. University of Ljubljana; Eslovenia Fil: Sagadin, Martin. University of Ljubljana; Eslovenia Fil: Giri, Adriana Angelica. Consejo Nacional de Investigaciones Científicas y Técnicas. Centro Científico Tecnológico Conicet - Rosario. Instituto de Biología Molecular y Celular de Rosario. Universidad Nacional de Rosario. Facultad de Ciencias Bioquímicas y Farmacéuticas. Instituto de Biología Molecular y Celular de Rosario; Argentina Fil: Rose, Timothy M.. Seattle Children’s Research Institute; Estados Unidos Fil: Poljak, Mario. University of Ljubljana; Eslovenia

Rotavirus vaccination started in Slovenia in 2007 on a voluntarily basis. The vaccination rate is relatively low (up to 27%) and no increasing trend is observed. We present rotavirus genotype distribution among children hospitalized for rotavirus gastroenteritis in Slovenia. Eight consecutive rotavirus seasons were followed, from 2005/06 to 2012/13, and 113 strains of the most common rotavirus genotypes were randomly selected for molecular characterization of rotavirus VP7 and VP4 (VP8(∗)) genome segments. During the vaccine introduction period, from 2007 to 2013, rotavirus genotype prevalences changed, with G1P[8] decreasing from 74.1% to 8.7% between 2007/08 and 2010/11 seasons, replaced by G4P[8] and G2P[4], with up to 52.0% prevalence. Comparable analysis of VP7 and VP8(∗) genome fragments within G1P[8] genotype lineages revealed considerable differences for rotavirus strains circulating before and during the vaccination period. The G1P[8] rotavirus strains from the pre-vaccination period clustered in a phylogenetic tree within Rotarix®-like VP7 and VP8(∗) lineages. However, since 2007, the majority of G1P[8] strains have shifted to distant genetic lineages with lower nucleotide (88.1-94.0% for VP7 and 86.6-91.1% for VP8(∗)) and amino acid (93.8-95.2% for VP7 and 85.3-94.6% for VP8(∗)) identities to the vaccine Rotarix® strain. This change also resulted in a different deduced amino acid profile at the major VP7 and VP8(∗) antigenic epitopes.

Human papillomavirus 11 (HPV11) is an etiological agent of anogenital warts and laryngeal papillomas and is included in the 4-valent and 9-valent prophylactic HPV vaccines. We established the largest collection of globally circulating HPV11 isolates to date and examined the genomic diversity of 433 isolates and 78 complete genomes (CGs) from six continents. The genomic variation within the 2,800-bp E5a-E5b-L1-upstream regulatory region was initially studied in 181/207 (87.4%) HPV11 isolates collected for this study. Of these, the CGs of 30 HPV11 variants containing unique single nucleotide polymorphisms (SNPs), indels (insertions or deletions), or amino acid changes were fully sequenced. A maximum likelihood tree based on the global alignment of 78 HPV11 CGs (30 CGs from our study and 48 CGs from GenBank) revealed two HPV11 lineages (lineages A and B) and four sublineages (sublineages A1, A2, A3, and A4). HPV11 (sub)lineage-specific SNPs within the CG were identified, as well as the 208-bp representative region for CG-based phylogenetic clustering within the partial E2 open reading frame and noncoding region 2. Globally, sublineage A2 was the most prevalent, followed by sublineages A1, A3, and A4 and lineage B. Fil: Jelen, Mateja M.. University Of Ljubljana. Faculty of Medicine. Institute Of Pathology; Argentina Fil: Chen, Zigui. Prince Of Wales Hospital Hong Kong; Hong Kong Fil: Kocjan, Boštjan J.. University Of Ljubljana. Faculty Of Medicine; Eslovenia Fil: Hošnjak, Lea. University Of Ljubljana. Faculty Of Medicine; Eslovenia Fil: Burt, Felicity J.. University Of The Free State. School Of Medicine; Sudáfrica Fil: Chan, Paul K.S.. Prince Of Wales Hospital Hong Kong; Hong Kong Fil: Chouhy, Diego. Consejo Nacional de Investigaciones Científicas y Técnicas. Centro Científico Tecnológico Conicet - Rosario. Instituto de Biología Molecular y Celular de Rosario. Universidad Nacional de Rosario. Facultad de Ciencias Bioquímicas y Farmacéuticas. Instituto de Biología Molecular y Celular de Rosario; Argentina Fil: Combrinck, Catharina E.. University Of The Free State. School Of Medicine; Sudáfrica Fil: Estrade, Christine. University of Lausanne; Suiza Fil: Fiander, Alison. Cardiff University; Reino Unido Fil: Garland, Suzanne M.. Royal Women's Hospital, Carlton; Australia. Murdoch Children's Research Institute; Australia. University of Melbourne; Australia Fil: Giri, Adriana Angelica. Consejo Nacional de Investigaciones Científicas y Técnicas. Centro Científico Tecnológico Conicet - Rosario. Instituto de Biología Molecular y Celular de Rosario. Universidad Nacional de Rosario. Facultad de Ciencias Bioquímicas y Farmacéuticas. Instituto de Biología Molecular y Celular de Rosario; Argentina Fil: González, Joaquín Víctor. Dirección Nacional de Instituto de Investigación. Administración Nacional de Laboratorio e Instituto de Salud “Dr. C. G. Malbrán”; Argentina Fil: Gröning, Arndt. Medizinisches Versorgungszentrum Wagnerstibbe Für Laboratoriumsmedizin Und Pathologie; Alemania Fil: Hibbitts, Sam. Cardiff University; Reino Unido Fil: Luk, Tommy N.M.. Prince Of Wales Hospital Hong Kong; Hong Kong. Centre For Health Protection; Hong Kong Fil: Marinic, Karina. Dr. Julio C. Perrando Hospital; Argentina Fil: Matsukura, Toshihiko. Momate Memorial Laboratory; Japón Fil: Neumann, Anna. Medizinisches Versorgungszentrum Wagnerstibbe Für Laboratoriumsmedizin Und Pathologie; Alemania Fil: Oštrbenk, Anja. University Of Ljubljana. Faculty Of Medicine; Eslovenia Fil: Picconi, Maria Alejandra. Dirección Nacional de Instituto de Investigación. Administración Nacional de Laboratorio e Instituto de Salud “Dr. C. G. Malbrán”; Argentina Fil: Sagadin, Martin. University Of Ljubljana. Faculty Of Medicine; Eslovenia Fil: Sahli, Roland. University of Lausanne; Suiza Fil: Seedat, Riaz Y.. University Of The Free State. School Of Medicine; Sudáfrica Fil: Seme, Katja. University Of Ljubljana. Faculty Of Medicine; Eslovenia Fil: Severini, Alberto. National Microbiology Laboratory; Canadá Fil: Sinchi, Jessica L.. Dr. Julio C. Perrando Hospital; Argentina Fil: Smahelova, Jana. Institute Of Hematology And Blood Transfusion; República Checa Fil: Tabrizi, Sepehr N.. Royal Women's Hospital, Carlton; Australia. University of Melbourne; Australia. Murdoch Children's Research Institute; Australia Fil: Tachezy, Ruth. Institute Of Hematology And Blood Transfusion; República Checa Fil: Faybush, Sarah Tohme. National Microbiology Laboratory; Canadá Fil: Uloza, Virgilijus. Lithuanian University Of Health Sciences; Lituania Fil: Uloziene, Ingrida. Lithuanian University Of Health Sciences; Lituania Fil: Wong, Yong Wee. Universiti Kebangsaan Malaysia; Malasia Fil: Lepej,Snježana Židovec. University Of Zagreb. School Of Medicine; Croacia Fil: Burk, Robert D.. Albert Einstein College Of Medicine Of Yeshiva University; Estados Unidos Fil: Poljak, Mario. University Of Ljubljana. Faculty Of Medicine; Eslovenia

Human papillomavirus type 6 (HPV6) is the major etiological agent of anogenital warts and laryngeal papillomas and has been included in both the quadrivalent and nonavalent prophylactic HPV vaccines. This study investigated the global genomic diversity of HPV6, using 724 isolates and 190 complete genomes from six continents, and the association of HPV6 genomic variants with geographical location, anatomical site of infection/disease, and gender. Initially, a 2,800-bp E5a-E5b-L1-LCR fragment was sequenced from 492/530 (92.8%) HPV6-positive samples collected for this study. Among them, 130 exhibited at least one single nucleotide polymorphism (SNP), indel, or amino acid change in the E5a-E5b-L1-LCR fragment and were sequenced in full. A global alignment and maximum likelihood tree of 190 complete HPV6 genomes (130 fully sequenced in this study and 60 obtained from sequence repositories) revealed two variant lineages, A and B, and five B sublineages: B1, B2, B3, B4, and B5. HPV6 (sub)lineage-specific SNPs and a 960-bp representative region for whole-genome-based phylogenetic clustering within the L2 open reading frame were identified. Multivariate logistic regression analysis revealed that lineage B predominated globally. Sublineage B3 was more common in Africa and North and South America, and lineage A was more common in Asia. Sublineages B1 and B3 were associated with anogenital infections, indicating a potential lesion-specific predilection of some HPV6 sublineages. Females had higher odds for infection with sublineage B3 than males. In conclusion, a global HPV6 phylogenetic analysis revealed the existence of two variant lineages and five sublineages, showing some degree of ethnogeographic, gender, and/or disease predilection in their distribution. Fil: Jelen, Mateja M. University of Ljubljana; Eslovenia Fil: Chen, Zigui. Albert Einstein College of Medicine. New York; Estados Unidos Fil: Kocjan, Botjan J.. University of Ljubljana; Eslovenia Fil: Burt, Felicity J.. University of the Free State. Bloemfontein; Sudáfrica Fil: Chan, Paul K.S.. Chinese University of Hong Kong; China Fil: Chouhy, Diego. Consejo Nacional de Investigaciones Científicas y Técnicas. Centro Científico Tecnológico Conicet - Rosario. Instituto de Biología Molecular y Celular de Rosario. Universidad Nacional de Rosario. Facultad de Ciencias Bioquímicas y Farmacéuticas. Instituto de Biología Molecular y Celular de Rosario; Argentina Fil: Combrinck, Catharina E.. University of the Free State. Bloemfontein; Sudáfrica Fil: Coutlee, Francois. Hôpital Notre-Dame-Pavillon Deschamps. Montréal; Canadá Fil: Estrade, Christine. Lausanne University Hospital; Suiza Fil: Ferenczy, Alex. McGill University and Jewish General Hospital. Montreal; Canadá Fil: Fiander, Alison. Institute of Cancer and Genetics. Cardiff; Reino Unido Fil: Franco, Eduardo L.. McGill University. Montreal; Canadá Fil: Garland, Suzanne M.. The Royal Women's Hospital. Parkville; Australia. The University of Melbourne; Australia. Murdoch Children's Research Institute. Victoria; Australia Fil: Giri, Adriana Angelica. Consejo Nacional de Investigaciones Científicas y Técnicas. Centro Científico Tecnológico Conicet - Rosario. Instituto de Biología Molecular y Celular de Rosario. Universidad Nacional de Rosario. Facultad de Ciencias Bioquímicas y Farmacéuticas. Instituto de Biología Molecular y Celular de Rosario; Argentina Fil: González, Joaquín Víctor. Dirección Nacional de Instituto de Investigación. Administración Nacional de Laboratorio e Instituto de Salud; Argentina Fil: Gröning, Arndt. Medizinisches Versorgungszentrum wagnerstibbe für Laboratoriumsmedizin und Pathologie GmbH. Hannover; Alemania Fil: Heidrich, Kerstin. Medizinisches Versorgungszentrum wagnerstibbe für Laboratoriumsmedizin und Pathologie GmbH. Hannover; Alemania Fil: Hibbitts, Sam. Institute of Cancer and Genetics. Cardiff; Reino Unido Fil: Hosnjak, Lea. University of Ljubljana; Eslovenia Fil: Luk, Tommy N.M. The Chinese University of Hong Kong; China. Hong Kong Special Administrative Region; China Fil: Marinic, Karina. Hospital Dr. Julio C. Perrando. Chaco; Argentina Fil: Matsukura, Toshihiko. National Institute of Health. Tokyo; Japón Fil: Neumann, Anna. The University of Melbourne; Australia. Medizinisches Versorgungszentrum wagnerstibbe für Laboratoriumsmedizin und Pathologie GmbH. Hannover; Alemania Fil: Oštrbenk, Anja. University of Ljubljana; Eslovenia Fil: Picconi, Maria Alejandra. Dirección Nacional de Instituto de Investigación. Administración Nacional de Laboratorio e Instituto de Salud; Argentina Fil: Richardson, Harriet. Queen's University. Ontario; Canadá Fil: Sagadin, Martin. University of Ljubljana; Eslovenia Fil: Sahli, Roland. Lausanne University Hospital; Suiza Fil: Seedat, Riaz Y.. University of the Free State. Bloemfontein; Sudáfrica Fil: Seme, Katja. University of Ljubljana; Eslovenia Fil: Severini, Alberto. Public Health Agency of Canada. Winnipeg; Canadá Fil: Sinchi, Jessica L. Hospital Dr. Julio C. Perrando. Chaco; Argentina Fil: Smahelova, Jana. Institute of Hematology and Blood Transfusion. Praga; República Checa Fil: Tabrizi, Sepehr N.. The University of Melbourne; Australia. Murdoch Children's Research Institute. Victoria; Australia. The Royal Women's Hospital. Parkville; Australia Fil: Tachezy, Ruth. Institute of Hematology and Blood Transfusion. Praga; República Checa Fil: Tohme, Sarah. Public Health Agency of Canada. Winnipeg; Canadá Fil: Uloza, Virgilijus. Lithuanian University of Health Sciences. Kaunas; Lituania Fil: Vitkauskiene, Astra. Lithuanian University of Health Sciences. Kaunas; Lituania Fil: Wong, Yong Wee. Universti Kebangsaan Malaysia. Bangi; Malasia Fil: Lepeja, Snježana Židovec. University Hospital for Infectious Diseases Dr. Fran Mihaljević. Zagreb; Croacia Fil: Burk, Robert D.. Albert Einstein College of Medicine.New York; Estados Unidos Fil: Poljak, Mario. Albert Einstein College of Medicine. New York; Estados Unidos

Mammalian orthoreoviruses (MRVs) are known to cause mild enteric and respiratory infections in humans. They are widespread and infect a broad spectrum of mammals. We report here the first case of an MRV detected in a child with acute gastroenteritis, which showed the highest similarity to an MRV reported recently in European bats. An examination of a stool sample from the child was negative for most common viral and bacterial pathogens. Reovirus particles were identified by electron microscopic examination of both the stool suspension and cell culture supernatant. The whole-genome sequence was obtained with the Ion Torrent next-generation sequencing platform. Prior to sequencing, the stool sample suspension and cell culture supernatant were pretreated with nucleases and/or the convective interaction medium (CIM) monolithic chromatographic method to purify and concentrate the target viral nucleic acid. Whole-genome sequence analysis revealed that the Slovenian SI-MRV01 isolate was most similar to an MRV found in a bat in Germany. High similarity was shared in all genome segments, with nucleotide and amino acid identities between 93.8 to 99.0% and 98.4 to 99.7%, respectively. It was shown that CIM monolithic chromatography alone is an efficient method for enriching the sample in viral particles before nucleic acid isolation and next-generation sequencing application.

We report the cloning and characterization of a novel human papillomavirus (HPV), now officially recognized as HPV-174, isolated from a cutaneous squamous cell carcinoma. HPV-174 has a genome organization characteristic of cutaneous HPV types, clusters to the genus Betapapillomavirus , species β2, and is most closely related to HPV-145.

During the rotavirus strain surveillance in Slovenia, G6P[11] bovine rotavirus strain was detected in a 5 months old boy with gastroenteritis. The strain was enrolled in a whole genome sequence analysis to determine its genome segment composition and genetic characteristics. Genotype composition for the whole genome was G6-P[11]-I2-R2-C2-M2-A13-N2-T6-E2-H3, reflecting similarities with bovine rotavirus strains. The bovine origin of the strain was confirmed in all genome segments, showing the highest nucleotide identity with bovine rotavirus strains and clustering of the RVA/Human-wt/SVN/SI-R56/07/2007/G6P[11] together with bovine rotavirus strains in phylogenetic analysis. This is the first bovine G6P[11] rotavirus strain with the whole genome analysis and the first report on rotavirus G6P[11] genotype detected in humans.

Laboratories are currently witnessing extraordinary demand globally for sampling devices, reagents, consumables, and diagnostic instruments needed for timely diagnosis of severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2) infection. To meet diagnostic needs as the pandemic grows, the U.S. Food and Drug Administration (FDA) recently granted several commercial SARS-CoV-2 tests Emergency Use Authorization (EUA), but manufacturer-independent evaluation data are scarce. We performed the first manufacturer-independent evaluation of the fully automated sample-to-result two-target test cobas 6800 SARS-CoV-2 (cobas) (Roche Molecular Systems, Branchburg, NJ), which received U., Laboratories are currently witnessing extraordinary demand globally for sampling devices, reagents, consumables, and diagnostic instruments needed for timely diagnosis of severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2) infection. To meet diagnostic needs as the pandemic grows, the U.S. Food and Drug Administration (FDA) recently granted several commercial SARS-CoV-2 tests Emergency Use Authorization (EUA), but manufacturer-independent evaluation data are scarce. We performed the first manufacturer-independent evaluation of the fully automated sample-to-result two-target test cobas 6800 SARS-CoV-2 (cobas) (Roche Molecular Systems, Branchburg, NJ), which received U.S. FDA EUA on 12 March 2020. The comparator was a standardized 3-h SARS-CoV-2 protocol, consisting of RNA extraction using an automated portable instrument, followed by a two-target reverse transcription real-time PCR (RT-PCR), which our laboratory has routinely used since January 2020 [V. M. Corman, O. Landt, M. Kaiser, R. Molenkamp, et al., Euro Surveill 25(3):pii=2000045, 2020, https://doi.org/10.2807/1560-7917.ES.2020.25.3.2000045]. cobas and the comparator showed overall agreement of 98.1% and a kappa value of 0.95 on an in-house validation panel consisting of 217 well-characterized retrospective samples. Immediate prospective head-to-head comparative evaluation followed on 502 samples, and the diagnostic approaches showed overall agreement of 99.6% and a kappa value of 0.98. A good correlation (r2 = 0.96) between cycle threshold values for SARS-CoV-2-specific targets obtained by cobas and the comparator was observed. Our results showed that cobas is a reliable assay for qualitative detection of SARS-CoV-2 in nasopharyngeal swab samples collected in the Universal Transport Medium System (UTM-RT) (Copan, Brescia, Italy). Under the extraordinary circumstances that laboratories are facing worldwide, a safe diagnostic platform switch is feasible in only 48 h and in the midst of the COVID-19 pandemic if carefully planned and executed.