Literature DB >> 24668600

Gamma sterilization of pharmaceuticals--a review of the irradiation of excipients, active pharmaceutical ingredients, and final drug product formulations.

Fatima Hasanain1, Katharina Guenther, Wayne M Mullett, Emily Craven.   

Abstract

Sterilization by gamma irradiation has shown a strong applicability for a wide range of pharmaceutical products. Due to the requirement for terminal sterilization where possible in the pharmaceutical industry, gamma sterilization has proven itself to be an effective method as indicated by its acceptance in the European Pharmacopeia and the United States Pharmacopeia ( ). Some of the advantages of gamma over competitive procedures include high penetration power, isothermal character (small temperature rise), and no residues. It also provides a better assurance of product sterility than aseptic processing, as well as lower validation demands. Gamma irradiation is capable of killing microorganisms by breaking their chemical bonds, producing free radicals that attack the nucleic acid of the microorganism. Sterility by gamma irradiation is achieved mainly by the alteration of nucleic acid and preventing the cellular division. This review focuses on the extensive application of gamma sterilization to a wide range of pharmaceutical components including active pharmaceutical ingredients, excipients, final drug products, and combination drug-medical devices. A summary of the published literature for each class of pharmaceutical compound or product is presented. The irradiation conditions and various quality control characterization methodologies that were used to determine final product quality are included, in addition to a summary of the investigational outcomes. Based on this extensive literature review and in combination with regulatory guidelines and other published best practices, a decision tree for implementation of gamma irradiation for pharmaceutical products is established. This flow chart further facilitates the implementation of gamma irradiation in the pharmaceutical development process. The summary therefore provides a useful reference to the application and versatility of gamma irradiation for pharmaceutical sterilization. LAY ABSTRACT: Many pharmaceutical products require sterilization to ensure their safe and effective use. Sterility is therefore a critical quality attribute and is essential for direct injection products. Due to the requirement for terminal sterilization, where possible in the pharmaceutical industry sterilization by gamma irradiation has been commonly used as an effective method to sterilize pharmaceutical products as indicated by its acceptance in the European Pharmacopeia. Gamma sterilization is a very attractive terminal sterilization method in view of its ability to attain 10(-6) probability of microbial survival without excessive heating of the product or exposure to toxic chemicals. However, radiation compatibility of a product is one of the first aspects to evaluate when considering gamma sterilization. Gamma radiation consists of high-energy photons that result in the generation of free radicals and the subsequent ionization of chemical bonds, leading to cleavage of DNA in microorganisms and their subsequent inactivation. This can result in a loss of active pharmaceutical ingredient potency, the creation of radiolysis by-products, a reduction of the molecular weight of polymer excipients, and influence drug release from the final product. There are several strategies for mitigating degradation effects, including optimization of the irradiation dose and conditions. This review will serve to highlight the extensive application of gamma sterilization to a broad spectrum of pharmaceutical components including active pharmaceutical ingredients, excipients, final drug products, and combination drug-medical devices.

Entities:  

Keywords:  API; Excipients; Gamma; Irradiation; Polymers; Review; Sterilization; Validation

Mesh:

Substances:

Year:  2014        PMID: 24668600     DOI: 10.5731/pdajpst.2014.00955

Source DB:  PubMed          Journal:  PDA J Pharm Sci Technol        ISSN: 1079-7440


  6 in total

1.  Evaluation of Biomechanical and Chemical Properties of Gamma-Irradiated Polycaprolactone Microfilaments for Musculoskeletal Tissue Engineering Applications.

Authors:  Laura Rojas-Rojas; Andrea Ulloa-Fernández; Silvia Castro-Piedra; Walter Vargas-Segura; Teodolito Guillén-Girón
Journal:  Int J Biomater       Date:  2022-04-29

2.  Physics, chemistry, and Hirshfeld surface analyses of gamma-irradiated thalidomide to evaluate behavior under sterilization doses.

Authors:  Valner A F S N Mussel; Max P Ferreira; Maria B F Marques; Maria I Yoshida; Mariana R Almeida; Bernardo L Rodrigues; Wagner N Mussel
Journal:  J Pharm Anal       Date:  2018-05-24

3.  Radiation Inactivation of Coronavirus Infection Pathogen by the Example of Transmissible Gastroenteritis Virus.

Authors:  V N Morozov; A N Mukhin; M A Kolyvanova; A V Belousov; Y A Bushmanov; T V Grebennikova; A S Samoylov
Journal:  Biophysics (Oxf)       Date:  2021-10-15

4.  In Vitro Antimicrobial Evaluation, Single-Point Resistance Study, and Radiosterilization of Novel Pyrazole Incorporating Thiazol-4-one/Thiophene Derivatives as Dual DNA Gyrase and DHFR Inhibitors against MDR Pathogens.

Authors:  Hazem Ali Mohamed; Yousry A Ammar; Gameel A M Elhagali; Hassan A Eyada; Dina S Aboul-Magd; Ahmed Ragab
Journal:  ACS Omega       Date:  2022-02-03

5.  Evaluating the Effects of Gamma-Irradiation for Decontamination of Medicinal Cannabis.

Authors:  Arno Hazekamp
Journal:  Front Pharmacol       Date:  2016-04-27       Impact factor: 5.810

6.  Development of Stabilized Growth Factor-Loaded Hyaluronate- Collagen Dressing (HCD) matrix for impaired wound healing.

Authors:  Seong Mi Choi; Hyun Aae Ryu; Kyoung-Mi Lee; Hyun Jung Kim; Ik Kyu Park; Wan Jin Cho; Hang-Cheol Shin; Woo Jin Choi; Jin Woo Lee
Journal:  Biomater Res       Date:  2016-04-01
  6 in total

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