2 research outputs found

    Medical abortion kit dispensing practices of community pharmacies in Pokhara Metropolitan, Nepal.

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    BackgroundMedical abortion (MA) refers to the use of medicines to terminate the pregnancy. There is an urgent need to spread safe abortion services in the community. This study assessed the MA kit dispensing practices of community pharmacies in Pokhara Valley, Nepal.MethodsA cross-sectional descriptive study was conducted in Pokhara Valley, Nepal from December 2017 to November 2018. Among the community pharmacies of Pokhara Valley, 115 community pharmacies were selected using a consecutive sampling method. A semi-structured questionnaire was used to collect data. MA kit and related information were requested by simulated male clients visiting the community pharmacies. The information obtained from the pharmacy workers was recorded in the data collection sheet.ResultsNine brands of MA kit from eight manufacturing companies were found in practice in Pokhara Valley, out of those only five (56%) were registered in Nepal. Seven brands were sold at more than the labeled price. The pharmacy workers asked about the gestational age and confirmation of pregnancy in all the cases. Most of them counseled the clients on the frequency, duration, and direction of use. Dispensing practice and level of counseling were found to be significantly correlated (r = 0.40, p value = 0.01).ConclusionDespite the awareness of the pharmacy workers on the MA kit, most of them provided limited information to the clients. Nearly half unregistered MA kits were found in practice at the community pharmacies. Thus, the Department of Drugs Administration and other concerned authorities must provide relevant training and awareness programs to the pharmacy workers of the community pharmacies for preventing the malpractice of MA kit. The Government of Nepal must restrict the illegal entry of unregistered brands and assure the standards of MA kit by regulating drug acts and policies effectively

    The Encapsulation of Bioactive Plant Extracts into the Cellulose Microfiber Isolated from <i>G. optiva</i> Species for Biomedical Applications

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    Agricultural waste-based cellulose fibers have gained significant interest for a myriad of applications. Grewia optiva (G. optiva), a plant species, has been widely used for feeding animals, and the small branches’ bark is used for making rope. Herein, we have extracted cellulose fibers from the bark of G. optiva species via chemical treatments (including an alkaline treatment and bleaching). The gravimetric analysis revealed that the bark of G. Optiva contains cellulose (63.13%), hemicellulose (13.52%), lignin (15.13%), and wax (2.8%). Cellulose microfibre (CMF) has been synthesized from raw fibre via chemical treatment methods. The obtained cellulose fibers were crosslinked and employed as the matrix to encapsulate the bioactive plant extracts derived from the root of Catharanthus roseus (C. roseus). The microscopic images, XRD, FTIR, and antibacterial/antioxidant activity confirmed the encapsulation of natural extracts in the cellulose microfiber. The microscopic images revealed that the encapsulation of the natural extracts slightly increased the fiber’s diameter. The XRD pattern showed that the extracted cellulose microfiber had an average crystalline size of 2.53 nm with a crystalline index of 30.4% compared to the crystalline size of 2.49 nm with a crystalline index of 27.99% for the plant extract incorporated membrane. The water uptake efficiency of the synthesized membrane increased up to 250%. The antimicrobial activity of the composite (the CMF-E membrane) was studied via the zone inhibition against gram-positive and gram-negative bacteria, and the result indicated high antibacterial activity. This work highlighted G. optiva-derived cellulose microfiber as an optimum substrate for antimicrobial scaffolds. In addition, this paper first reports the antimicrobial/antioxidant behavior of the composite membrane of the C. roseus extract blended in the G. optiva microfiber. This work revealed the potential applications of CMF-E membranes for wound healing scaffolds
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