More than two hundred million people around the world are infected with malaria, a blood-borne
disease that poses a significant risk to human life. Single medications, such as lumefantrine, primaquine, and
chloroquine, as well as combinations of these medications with artemisinin or its derivatives, are currently being
used as therapies. In addition, due to rising antimalarial drug resistance, other therapeutic options are
needed immediately. Furthermore, due to anti-malarial medication failures, a new drug is required. Medication
discovery and development are costly and time-consuming. Many malaria treatments have been developed
however, most treatments have low water solubility and bioavailability. They may also cause drugresistant
parasites, which would increase malaria cases and fatalities. Nanotechnology may offer a safer, more
effective malaria therapy and control option. Nanoparticles' high loading capacity, concentrated drug delivery,
biocompatibility, and low toxicity make them an attractive alternative to traditional therapy. Nanotechnologybased
anti-malarial chemotherapeutic medications outperform conventional therapies in therapeutic benefits,
safety, and cost. This improves patient treatment compliance. The limitations of malaria treatments and the
importance of nanotechnological approaches to the treatment of malaria were also topics that were covered in
this review. The most recent advancements in nanomaterials and the advantages they offer in terms of medication
delivery are discussed in this article. The prospective therapy for malaria is also discussed. Additionally,
the limitations of malaria therapies and the importance of nanotechnology-based approaches to the treatment
of malaria were explored.