Page 31 - GTM-4-1
P. 31

Global Translational Medicine                                   Phytonanotherapy in cancer and diabetes care




            Table 4. Recent developments in the field of green NPs for cancer treatment
            Development                                          Descriptions
            Plant-based green NPs  Plant extracts and phytochemicals are used in the synthesis of green NPs with anticancer effects. Plant-derived NPs have
                               the potential for biocompatibility and low toxicity.
            Biodegradable nanocarriers Biodegradable nanocarriers, such as chitosan, alginate, and cellulose-based NPs, are being developed to encapsulate and
                               deliver anticancer medicines with regulated release profiles.
            Combination therapies  For improved efficacy, green NPs carrying several therapeutic agents, such as chemotherapeutic medicines,
                               immunotherapeutic, and gene treatments, are being investigated.
            Theranostic NPs    Design and application of green NPs with dual therapeutic and diagnostic properties (theranostics), enabling targeted
                               medication administration while providing image contrast for cancer detection.
            Targeted delivery  Green NPs are being functionalized with targeting ligands or antibodies to ensure precision delivery of therapeutic
                               payloads to cancer cells while minimizing off-target effects.
            Immunomodulation   Exploration of green NPs with immunomodulatory capabilities, with the goal of potentially activating the body's
                               immune response against cancer cells and improving the efficacy of immunotherapies.
            Algae-derived green NPs  Due to their natural abundance and biocompatibility, algae-based green NPs are being researched for possible applications in
                               photothermal and photodynamic cancer therapy.
            Clinical trials    Some green NP-based medicines are being advanced to early-phase clinical studies to examine their safety and efficacy
                               in human beings as potential cancer treatments.
            Biosafety and regulation   Green NPs’ biosafety and regulatory elements were evaluated in order to ensure their compliance with safety and quality
            considerations     criteria for clinical application in cancer treatment.
            Abbreviation: NP: Nanoparticles.


            to improved therapeutic effects. Functionalized NPs can   Combining several phytochemicals within NPs may
            be created to encapsulate antidiabetic medicines generated   help lessen the possibility of drug resistance, which can
            from medicinal plants for targeted drug delivery. These   arise with some synthetic antidiabetic medicines. While
            NPs can then be specifically targeted to pancreatic cells or   the promise of phytosynthesized gold and silver NPs for
            other key diabetes tissues, improving medication delivery   diabetes treatment is exciting, more research, pre-clinical
            while minimizing off-target effects.  When compared to   studies,  and  clinical  trials  are  required to  establish  their
                                         37
            some synthetic antidiabetic medications, phytosynthesized   safety and efficacy in humans. Individual responses to
            NPs may have lower toxicity and fewer side effects. This can   various medications may differ, and careful scientific study
            contribute to a better safety profile for diabetics, especially   is required to assure their dependability and therapeutic
            when employed in long-term therapies.              efficacy in diabetes management. 37,39
              Medicinal plants frequently contain many bioactive   6.1. Developments in the field of green NPs for
            substances that may work synergistically to fight diabetes.   diabetic treatment
            By encapsulating these chemicals in NPs, their combined   The developments in the field of green NPs for
            therapeutic effects for improved glucose control and   diabetic treatment entail the use of biocompatible and
            insulin regulation can be realized. Some plant-derived   environmentally friendly nanomaterials synthesized from
            chemicals have the ability to target various diabetes   natural sources, typically plant extracts or phytochemicals.
            pathways, including enhancing insulin sensitivity,   These green NPs show considerable promise for efficiently
            decreasing inflammation, and protecting pancreatic beta   managing diabetes.
            cells.  This multitarget action may be useful in treating the
                38
            complexities of diabetes.                            Researchers have used medicinal plants and their
                                                               bioactive components to create green NPs. These NPs can
              Because  of  the  diversity  of  medicinal  plants  and   either incorporate antidiabetic medicines or have natural
            their bioactive ingredients, personalized antidiabetic   glucose-lowering effects. The plant extract used determines
            medicines can be developed. Based on the plant source   the medicinal characteristics of the NPs, providing a
            and phytochemical composition, NPs can be adjusted   variety of alternatives.  Green NPs are intended to boost
                                                                                 40
            to individual patient needs. The synthesis of NPs from   the bioavailability of antidiabetic phytochemicals that
            medicinal plants adheres  to  green  and  sustainable   are poorly water soluble. This implies that the medicinal
            principles, minimizing the environmental impact of   chemicals are more easily absorbed by the body, enhancing
            typical chemical synthesis methods.                their effectiveness in diabetes management.


            Volume 4 Issue 1 (2025)                         23                              doi: 10.36922/gtm.5840
   26   27   28   29   30   31   32   33   34   35   36