]]> capacity for drug resistance, and immunosuppressive abilities. Traditional methods used both for research of cancer and its subsequent treatment have fallen short of being able to accurately understand and ultimately defeat cancer within the body. Biomaterials present a unique solution to many problems associated with cancer. The use of biomaterials in cancer cell modeling has promoted a better understanding of tumor microenvironments. Biomaterials can also serve as drug and adjuvant carriers that are more likely to reach their target cancer cells. Many biomaterials also have standalone antitumor properties, and can also help in modulating the immune response, triggering various immune cells to attack cancerous cells. Naturally derived biomaterials include polysaccharides, lipids, polypeptides, vitamin E derivatives, and even plant extracts like curcumin. Biomaterial-based cancer treatments tend to have a longerlasting and more dependable effect inside the body and can come in many different forms, from polymeric scaffolds to injectable nanoparticles.]]> of years as natural medicines with therapeutic and other pharmacologic
effects. Bioactive compounds found in plants, such as flavonoids, trace minerals,
essential oils, phenols, glycosides, alkaloids, and tannins, can affect
microbial growth, reproduction, and essential cell functions. Plants of the
Amaranthaceae family have a broad range of bioactive phytochemical
constituents, which provide a variety of medicinal benefits. This review article
discusses the characteristics of Amaranthaceae plants that may indicate their
use as medicinal plants, especially against infectious diseases. According to the
literature, Amaranthaceae plants contain considerable levels of bioactive
compounds that make them effective in traditional medicine, even though their
impact on numerous microbes has yet to be examined.]]>