No abstract

Chronic wounds impose a significant burden on individuals and healthcare systems all over the world. Through clinical and preclinical investigations, inflammation and oxidative damage have been established as the primary causes of chronic wounds. These skin sores are easily exposed to microorganisms, which in turn cause inflammation and hinder the healing process. Additionally, microorganisms may cause an infection that prevents collagen production and reepithelialization. Curcumin’s antioxidant, anti-inflammatory, and anti-infectious characteristics, among others, have been identified as useful for diabetic wound healing management. However, curcumin has a few disadvantages, such as limited bioavailability, pH-dependent instability, water insolubility, slow cell absorption, and fast intracellular metabolism. These constraints necessitates the development of a suitable transporter to improve curcumin’s stability, bioavailability, therapeutic efficacy, and solubility. In recent years, Electrospun nanofiber mats have been an excellent choice for drug delivery because of their numerous advantages and inherent properties. Electrospun nanofibers have shown considerable promise as wound dressing materials. This review highlights the potential properties and recent advancements in using curcumin-loaded nanofibers for diabetic wound healing.

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A simple, selective, precise and stability indicating high performance thin layer chromatographic method has been established and validated for analysis of manidipine hydrochloride in bulk. The compound was analyzed on aluminium backed silica gel 60 F254 plates with methanol:water, 8.5:1.5 (v:v) as mobile phase. The system was found to give compact spots for manidipine dihydrochloride (RF=0.75). Densitometric analysis was performed at 230 nm. Regression analysis data for the calibration plot indicated good linear relationships between response and concentration over the range of 500-3000 ng/spot. The correlation coefficient, r 2 was 0.998. The values of slope and intercept of the calibration plot were 2785.5 and 62.314, respectively. The method was validated for precision, recovery and robustness. The limits of detection and quantification were 20 and 50 ng, respectively. Manidipine dihydrochloride was subjected to acid, base, peroxide and sunlight induced degradation. In stability test the drug was susceptible to acid and base hydrolysis, oxidation and photodegradation. Statistical analysis proved that the method is repeatable, selective and accurate for manidipine. Because the method could effectively separate the drug from their degradation products, it can be used as a stability indicating method. HPTLC Manidipine dihydrochloride ValidationStability studies Stress degradation studies Limit of detection

Wound healing is an unresolved therapeutic challenge for the medical community, as wound assessment and management is a complex procedure involving numerous factors that play a significant role in the healing process. Several factors, including bacterial infections, underlying conditions, malnutrition, obesity, aging, and smoking are the most frequent causes of a delayed wound-healing process. The shortcomings related to the currently used wound dressings include poor antimicrobial properties, weak mechanical features, poor biodegradability, biocompatibility, etc. Modern medicine has expanded the use of phytoconstituents based on nanotechnology to regenerate and repair soft and hard tissues. Electrospun nanofiber platforms are the most recent and promising among many types of conventional wound dressings due to their distinct characteristics. Many plant extracts and their phytoconstituents are well-known as adequate substitutes for wound healing agents because of their wide range of active ingredients, accessibility, and limited side effects. Incorporating these phytoconstituents into electrospun nanofibers combines the structural properties of the nanofibers with the antibacterial and therapeutic properties of the plants, making the nanofibers ideal for use as wound dressings. This review focuses on the antibacterial and therapeutic applications of nanofiber wound dressings containing phytoconstituents and their potential to revolutionize wound healing.