For the malaria parasite to reach the blood of its human host, it must first enter the liver, where only a small number of parasites differentiate and replicate for upwards of seven days, making it a bottleneck in the parasite’s lifecycle. This bottleneck makes the liver stage an optimal target for effective and long-lasting vaccines against the disease. Using Spatial Transcriptomics and single-cell RNA-sequencing technologies, researchers at Stockholm University have for the first time managed to create a spatio-temporal map of malaria infection in the mouse liver. A study that was recently published in Nature Communications.
Scientists uncover potential path to treating deadly childhood tumor
Most targeted cancer drugs work like tranquilizer darts, snaring an overzealous gene that has spurred the cell into murderously rapid growth. But many tumors don’t