Thank you for visiting nature.com. You are using a browser version with limited support for CSS. To obtain
the best experience, we recommend you use a more up to date browser (or turn off compatibility mode in
Internet Explorer). In the meantime, to ensure continued support, we are displaying the site without styles
and JavaScript.
Malaria incidence and mortality rates have hardly changed since 2015. Every year hundreds of millions of people are infected, and more than half a million people die – mostly in Africa. Eliminating the parasitic disease will require new tools and better use of existing ones. Researchers are rising to the challenge.
Hot on the heels of the first approved vaccine for malaria, researchers are racing to develop even better shots that tackle the parasite at every stage of its life cycle.
Immunologist Robert Seder and malaria epidemiologist Kassoum Kayentao talk to Nature about their work and how they think the parasitic disease could be controlled in the future.
Concerns that artemisinin combination treatments are losing their effectiveness against Plasmodium parasites have set scientists looking for alternatives.
Gene-drive technology that can spread antimalarial modifications throughout mosquito populations is maturing, but there are questions to answer before it can be used in the wild.
Scientists are racing to control malaria in northern Brazil where the disease is playing a major part in the current health emergency threatening the region’s Indigenous people.
Pregnant women are particularly vulnerable to malaria, but have woefully few options. Changes to data collection and the way trials are run could speed up the search for suitable medicines, and are a crucial part of eradicating the disease.
Economic evaluations of public health interventions to prevent malaria should consider the adoption of wider perspectives and the inclusion of non-health impacts, particularly economic development outcomes, such as education. This is especially relevant in malaria elimination settings and in the context of the current SARS-CoV-2 pandemic.
On the cusp of Plasmodium falciparum (Pf) elimination, Thailand is accelerating towards zero malaria by 2024. This commentary reviews the heart of its success—effective surveillance—and what else may be needed to reach zero on time.
Plasmodium falciparum sporozoites produced in vitro recapitulate the P. falciparum life cycle from gametocyte to gametocyte without mosquitoes or primates.
In the Sahel region of West Africa, An. coluzzii mosquitoes appear to survive the dry season locally, but the relative contribution of this subpopulation to the persistence of the species in the Sahel has remained unknown. Here the authors use stable isotope tracking to determine the fraction of mosquitoes that undergo aestivation, a state of dormancy that allows them to persist through the dry season and maintain yearly malaria transmission.
Identification in Rwanda of mutations in Plasmodium falciparum capable of conferring in vitro resistance to artemisinin, an essential medicine for the treatment of malaria, underscore the crucial need for surveillance in Africa to safeguard efficacy of life-saving therapies.
John Woodland and Kelly Chibale retrace the tumultuous history of quinine from a medicine — used as a tool for colonialism — to a puzzling chemical target, a fluorescence standard and a key ingredient in popular drinks.
Nekkab, Malinga, Braunack-Mayer et al. discuss how modelling can be incorporated early on in the research and development of malaria tools alongside clinical evidence and expert opinion. In addition, population models can provide estimates of potential effectiveness of novel interventions to inform product criteria and support decision-making.