6 research outputs found

    Anti-inflammatory Plant Polyphenolics and Cellular Action Mechanisms

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    Pachycanthine: A new isoquinoline alkaloid and its antihepatotoxic activity from Berberis pachycantha Koehne

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    945-951The methanolic extract of whole plant of Berberis pachycantha Koehne (Berberidaceae) has afforded a new isoquinoline alkaloid, which was characterized as 8,9-dimethoxy-5,6,12a,6a-tetrahydro-2H-1,3-dioxoleno[4,5-g] isoquinolino [3,2-a] isoquinoline on the basis of spectral and chemical studies and has been designated as pachycanthine 1. The pachycanthine 1 exhibited a significant antihepatotoxic activity by 25-53% (dose: 50 mg/kg) with respect to standard silybon-70 (36-60%) against CCl₄ induced toxicity in Albino Wistar rats

    Promising Role of Silk-Based Biomaterials for Ocular-Based Drug Delivery and Tissue Engineering

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    Silk is a wonderful biopolymer that has a long history of medical applications. Surgical cords and medically authorised human analogues made of silk have a long history of use in management. We describe the use of silk in the treatment of eye diseases in this review by looking at the usage of silk fibroin for eye-related drug delivery applications and medication transfer to the eyes. During this ancient art endeavour, a reduced engineering project that employed silk as a platform for medicine delivery or a cell-filled matrix helped reignite interest. With considerable attention, this study explores the present usage of silk in ocular-based drug delivery. This paper also examines emerging developments with the use of silk as a biopolymer for the treatment of eye ailments. As treatment options for glaucoma, diabetic retinopathy, retinitis pigmentosa, and other retinal diseases and degenerations are developed, the trans-scleral route of drug delivery holds great promise for the selective, sustained-release delivery of these novel therapeutic compounds. We should expect a swarm of silk-inspired materials to enter clinical testing and use on the surface as the secrets of silk are unveiled. This article finishes with a discussion on potential silk power, which adds to better ideas and enhanced ocular medicine delivery

    Silk Fibroin as an Efficient Biomaterial for Drug Delivery, Gene Therapy, and Wound Healing

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    Silk fibroin (SF), an organic material obtained from the cocoons of a silkworm Bombyx mori, is used in several applications and has a proven track record in biomedicine owing to its superior compatibility with the human body, superb mechanical characteristics, and its controllable propensity to decay. Due to its robust biocompatibility, less immunogenic, non-toxic, non-carcinogenic, and biodegradable properties, it has been widely used in biological and biomedical fields, including wound healing. The key strategies for building diverse SF-based drug delivery systems are discussed in this review, as well as the most recent ways for developing functionalized SF for controlled or redirected medicines, gene therapy, and wound healing. Understanding the features of SF and the various ways to manipulate its physicochemical and mechanical properties enables the development of more effective drug delivery devices. Drugs are encapsulated in SF-based drug delivery systems to extend their shelf life and control their release, allowing them to travel further across the bloodstream and thus extend their range of operation. Furthermore, due to their tunable properties, SF-based drug delivery systems open up new possibilities for drug delivery, gene therapy, and wound healing
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