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varVAMP: automated pan-specific primer design for tiled full genome sequencing and qPCR of highly diverse viral pathogens.

Fuchs, J.; Kleine, J.; Schemmerer, M.; Kreibich, J.; Maier, W.; Battur, N.; Krannich, T.; Sedaghatjoo, S.; Jaki, L.; Maks, A.; Boehm, C.; Wilhelm, C.; Schulze, J.; Mache, C.; Berger, E.; Panajotov, J.; Eidenschink, L.; Gruening, B.; Bauswein, M.; Boettcher, S.; Johne, R.; Wenzel, J.; Hoelzer, M.; Panning, M.

2024-05-09 bioinformatics
10.1101/2024.05.08.593102 bioRxiv
Show abstract

Time- and cost-saving surveillance of viral pathogens is achieved by tiled sequencing in which a viral genome is amplified in overlapping PCR amplicons and qPCR. However, designing pan-specific primers for viral pathogens that have high genomic variability represents a major challenge. Here, we present a bioinformatics command-line tool, called varVAMP (variable virus amplicons). It relies on multiple sequence alignments of highly variable virus sequences and enables automatic pan-specific primer design for qPCR or tiled amplicon whole genome sequencing. The varVAMP software guarantees pan-specificity by two means: it designs primers in regions with minimal variability and introduces degenerate nucleotides into primer sequences to compensate for common sequence variations. We demonstrate varVAMPs utility by designing and evaluating novel pan-specific primer schemes suitable for sequencing the genomes of SARS-CoV-2, Hepatitis E virus, rat Hepatitis E virus, Hepatitis A virus, Borna-disease-virus-1, and Poliovirus. Moreover, we established highly sensitive and specific Poliovirus qPCR assays that could potentially simplify current Poliovirus surveillance. Importantly, wet-lab and bioinformatic techniques established for SARS-CoV-2 tiled amplicon sequencing were readily transferable to these new primer schemes and will allow sequencing laboratories to extend their established methodology to other human pathogens.

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