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A Pleiotropic Nanomedicine Mitigates Splenic Hyperplasia, Ineffective Erythropoiesis, G6PDH Anomaly through Redox
Monojit Das1,2, Susmita Mondal3, Ria Ghosh3,4
1Department of Zoology, Vidyasagar University, Rangamati, Midnapore, 721102, India.
Abstract:
Here, we present a pleiotropic nanomedicine-a smart, functionalized redox buffering nanoparticle-that may be used to treat hematological diseases, associated splenic hyperplasia, and issues related to restricted erythropoiesis. With a diameter of 5-7 nm, the spherical nanomaterial is made of manganese oxide and citrate. Here, we have produced the novel nanomaterial and, using cutting-edge electron microscopic and spectroscopic techniques, extensively assessed its redox buffering potential in vitro with its structural integrity. Using an appropriate animal model (Phenylhydrazine, PHz, intoxicated C57BL/6J mice), we assessed the therapeutic efficacy of the redox buffering nanomedicine in the treatment of anemia and related consequences. We have further investigated the intricate molecular mechanism of the nanomedicine and its therapeutic impact, which includes increased erythropoiesis and G6PDH production, decreased inflammatory responses, mitigation of splenic hyperplasia, and synergistic intracellular redox buffering. To the best of our knowledge, our studies would find relevance in the innovative management of anemia, decreased erythropoiesis, and splenic hyperplasia.
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