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Add Nextclade dataset(s) #48
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DescriptionLassa fever claims approximately 5,000 lives annually in West Africa and affects around 500,000 people each year. The disease has also resulted in fatal imported cases globally, emphasising the need for international health security. Unfortunately, there are no approved vaccines. The Lassa virus (LASV), the causative agent of Lassa fever(LF), is currently categorized into seven distinct lineages circulating in specific geographic regions (Garry, 2023). Lineages 1, 2, and 3 are primarily found in Nigeria, while lineages 4 and 5 are prevalent in Sierra Leone and Mali (Garry, 2023). These lineages not only circulate in different regions but also exhibit significant variations in immune response (Buck et al., 2022) and disease outcomes (Anderson et al., 2015). For instance, Anderson et al. demonstrated that the Sierra Leonean strain tends to be more fatal than the Nigerian strains. With increasing global travel, the risk of cross-regional transmission of these lineages is rising. Understanding the lineage responsible for a specific outbreak or patient case is critical for effective disease management. Despite the recurrent nature of Lassa fever outbreaks, specialized tools for rapid response and containment remain scarce. LF epidemics usually occur between August and March every year - so these tools are needed now more than ever. In an effort to address this gap, we developed a tool for fast lineage assignment (Daodu et al., 2024). However, the tool is still limited in its capabilities, including the lack of a user-friendly interface. The success of the Nextclade dataset and rapid lineage assignment in managing the SARS-CoV-2 pandemic highlights the potential value of such resources for LASV control. A dedicated LASV Nextclade dataset (GPC, L , S segments) would enable rapid lineage assignment, real-time mutation tracking, and support vaccine and diagnostic test development, enhancing the global capacity to respond to Lassa fever outbreaks effectively. Example(s)https://nextstrain.org/nextclade/sars-cov-2 Possible solutionDevelopment of LASV Nextclade dataset (GPC, L , S segments) and rapid lineage assignment. |
To clarify, this paper seems to be focused on lineage assignment based on genomic signal in the GPC region. Supporting a L nextclade dataset may require developing a novel lineage assignment method based solely on genomic information from the L sequences. For example, the isolate Thus, we classify the isolate based on the GPC genomic region ( Hopefully, there's sufficient clade-defining genetic signal in the L segment region (complicated if there's a lot of reassortment between segments) to support an L segment Nextclade tree and by-pass the need for "linking-S-to-L" genbank accession. |
Context
Add a Nextclade dataset (GPC) or datasets (L, S segments).
TKTK - Write up how a nextclade dataset benefits people here...
Description
Examples
Possible solution
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