Publications by authors named "Emily A Gomme"

This study analyzed a heterologous prime-boost vaccine approach against HIV-1 using three different antigenically unrelated negative-stranded viruses (NSV) expressing HIV-1 Gag as vaccine vectors: rabies virus (RABV), vesicular stomatitis virus (VSV) and Newcastle disease virus (NDV). We hypothesized that this approach would result in more robust cellular immune responses than those achieved with the use of any of the vaccines alone in a homologous prime-boost regimen. To this end, we primed BALB/c mice with each of the NSV-based vectors.

View Article and Find Full Text PDF

Rabies virus (RABV) is a highly neurotropic pathogen that typically leads to mortality of infected animals and humans. The precise etiology of rabies neuropathogenesis is unknown, though it is hypothesized to be due either to neuronal death or dysfunction. Analysis of human brains post-mortem reveals surprisingly little tissue damage and neuropathology considering the dramatic clinical symptomology, supporting the neuronal dysfunction model.

View Article and Find Full Text PDF

Until recently, single-stranded negative sense RNA viruses (ssNSVs) were one of only a few important human viral pathogens, which could not be created from cDNA. The inability to manipulate their genomes hindered their detailed genetic analysis. A key paper from Conzelmann's laboratory in 1994 changed this with the publication of a method to recover rabies virus (RABV) from cDNA.

View Article and Find Full Text PDF

Dendritic cells (DC) are the most potent antigen presenting cells whose ability to interact with T cells, B cells and NK cells has led to their extensive use in vaccine design. Here, we designed a DC-based HIV-1 vaccine using an attenuated rabies virus vector expressing HIV-1 Gag (RIDC-Gag). To test this, BALB/c mice were immunized with RIDC-Gag, and the primary, secondary as well as humoral immune responses were monitored.

View Article and Find Full Text PDF
Article Synopsis
  • Recombinant rabies virus (RV)-based vectors have shown promise in generating long-lasting immune responses in animal models, but concerns over safety exist due to the pathogenicity of replication-competent vectors, primarily linked to the RV glycoprotein (RV-G).
  • Researchers have created a live, single-cycle RV by removing the G gene from an HIV-1 Gag-expressing vector, allowing it to be safely propagated while still triggering immune responses.
  • Comparative studies indicate that the single-cycle RV (SPBN-DeltaG-Gag) and the replication-competent RV (BNSP-Gag) induce similar Gag-specific CD8(+) T-cell responses, suggesting that single-cycle RV
View Article and Find Full Text PDF