- Researchers from the Walter and Eliza Hall Institute have overturned conventional wisdom on how cell movement across all species is controlled, solving the structure of a protein that cuts power to the cell 'motor'. The protein could be a potential drug target for future malaria and anti-cancer treatments.
- A team of researchers have found that pre-existing malaria prevents secondary infection by another Plasmodium strain, the parasite responsible for malaria, by restricting iron availability in the liver of the host. This discovery will be published this Sunday, May 15, in Nature Medicine and has important implications for the management and prevention of malaria, a condition which affects millions of individuals worldwide.
- Canada is delivering on its commitment to help the world's most vulnerable, thanks to new developments which will provide an affordable, reliable, and stable treatment for malaria that will save millions of lives, especially those of women and children in Africa.
- A group of researchers from EPFL's Global Health Institute (GHI) and Inserm (Institut National de la Santé et de la Recherche Médicale, the French government agency for biomedical research) has discovered that a class of chemotherapy drugs originally designed to inhibit key signaling pathways in cancer cells also kills the parasite that causes malaria. The discovery could quickly open up a whole new strategy for combating this deadly disease.
- A collection of 12 reviews, comprising three reflective pieces and nine research and development agendas, is published as part of a sponsored Supplement on 25 January 2011 in PLoS Medicine. This Collection highlights the outcomes of a series of consultations among more than 250 experts that were undertaken by the Malaria Eradication Research Agenda (malERA) initiative.
- Malaria control programs have been very beneficial in saving hundreds of thousands of lives during the past decade.
- Research carried out in Mali, West Africa, has demonstrated that a new, safe and uncomplicated insect control method, developed at the Hebrew University of Jerusalem, can bring about a serious decline in malaria-bearing mosquitoes in afflicted regions in the world.
- Scientists and researchers at the Oxford University with supported by the KEMRI-Wellcome Trust have jointly compiled a comprehensive map presenting the incidence of the sickle cell gene globally.
- At a global scale, the sickle cell gene is most commonly found in areas with historically high levels of malaria, adding geographical support to the hypothesis that the gene, whilst potentially deadly, avoids disappearing through natural selection by providing protection against malaria.
- Scientists say transmission rates of malaria, that kills an estimated 1.2 million people around the globe each year, can be reduced beyond a threshold of 90 per cent; the organism could be eradicated from most areas where it is still prevalent in 10 to 15 years.
- Two University of Florida researchers and their international colleagues have used mathematical models and maps to estimate the feasibility of eliminating malaria from countries that have the deadliest form of the disease.
- All it takes is a single mosquito (scientific name, Anopheles gambiae) bite for one to get malaria, but recently according to two new studies conducted (and published in Science), one of the major malaria parasite carriers in sub-Saharan Africa, also known as the A. gambiae, is splitting into two species.
Malaria is a mosquito-borne infectious disease caused by eukaryotic protists of the genus Plasmodium. The disease results from the multiplication of Plasmodium parasites within red blood cells, causing symptoms that typically include fever and headache, in severe cases progressing to coma or death. It is widespread in tropical and subtropical regions, including much of Sub-Saharan Africa, Asia, and the Americas.