Grafted biopolymers were synthesized by the following methods: grafting, addition,
homopolymerization, and copolymerization. All the polymers were structurally characterized …

Recently, the advantages of biopolymers over conventional plastic polymers are
unprecedented, provided that they are used in situations in which they raise the functionality …

In recent years, all fields of science such as physics, chemistry, and material science have
an intense interest in graphene oxides because of their exceptional physical properties …

Materials of bio‐origin are in great demand for their associated characteristic advantages
over synthetic or petroleum‐based materials. Biopolymers are produced by living cells in …

Newly emerging technologies and techniques have made it possible to invent and fabricate
new biocomposite materials that are able to serve fundamental roles in diverse applications …

The development of bioactive biomaterials is expanding the capabilities and performance of
materials used in a variety of biomedical applications. As advances are made in cellular and …

Graphene's invention has catalyzed many new material applications in different fields. It has
been used in combination with different biopolymers to design nanocomposites with …

In this chapter, composites are macroscopic-scale materials created by the fusion of two or
more materials with various chemical, physical, and morphological components. These …

Biomaterials have been used extensively in medical, personal care, and food applications,
with many similar polymers being used across disciplines. This Perspective will emphasize …

Graphene family materials, with several exceptional properties, are rapidly emerging as
nanomaterials that could revolutionize multiple fields from electronics to energy storage to …