Role of 3D Printing in Pharmacy


Authors : Anurag Kumar Kannaujiya; Dr. Swarup J Chattarjee; Anshika Dubey

Volume/Issue : Volume 9 - 2024, Issue 12 - December

Google Scholar : https://tinyurl.com/4chy47up

Scribd : https://tinyurl.com/3286td5v

DOI : https://doi.org/10.5281/zenodo.14525326

Abstract : The role of 3D printing has started to play in pharmacy, and this represents transformative innovation that holds promising potential for the customization and enhancement of pharmaceutical products. The technology allows the creation of drug delivery systems, personal medications, and dosage forms tailored toward individual patient needs. It allows 3D printing complex drug structures: combinations of drugs, control release formulations, and even patient-specific shapes and sizes using CAD and additive manufacturing techniques. This allows more accurate dosing, enhances compliance of the patients, and reduces errors in medication. It also accelerates the development and test process for new drug formulations by streamlining production processes and costs. Although some major challenges such as regulatory issues, material limitations, and technological barriers exist, integration of 3D printing into pharmacy holds tremendous potential and promise in revolutionizing personalized medicine and pharmaceutical manufacturing. This paper elaborates the advancements, applications, and future potential of 3D printing in pharmaceutical sciences regarding formulation of drugs, delivery systems, and patient- centered care.

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The role of 3D printing has started to play in pharmacy, and this represents transformative innovation that holds promising potential for the customization and enhancement of pharmaceutical products. The technology allows the creation of drug delivery systems, personal medications, and dosage forms tailored toward individual patient needs. It allows 3D printing complex drug structures: combinations of drugs, control release formulations, and even patient-specific shapes and sizes using CAD and additive manufacturing techniques. This allows more accurate dosing, enhances compliance of the patients, and reduces errors in medication. It also accelerates the development and test process for new drug formulations by streamlining production processes and costs. Although some major challenges such as regulatory issues, material limitations, and technological barriers exist, integration of 3D printing into pharmacy holds tremendous potential and promise in revolutionizing personalized medicine and pharmaceutical manufacturing. This paper elaborates the advancements, applications, and future potential of 3D printing in pharmaceutical sciences regarding formulation of drugs, delivery systems, and patient- centered care.

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