Literature DB >> 25735896

A method of lyophilizing vaccines containing aluminum salts into a dry powder without causing particle aggregation or decreasing the immunogenicity following reconstitution.

Xinran Li1, Sachin G Thakkar1, Tinashe B Ruwona1, Robert O Williams1, Zhengrong Cui2.   

Abstract

Many currently licensed and commercially available human vaccines contain aluminum salts as vaccine adjuvants. A major limitation with these vaccines is that they must not be exposed to freezing temperatures during transport or storage such that the liquid vaccine freezes, because freezing causes irreversible coagulation that damages the vaccines (e.g., loss of efficacy). Therefore, vaccines that contain aluminum salts as adjuvants are formulated as liquid suspensions and are required to be kept in cold chain (2-8°C) during transport and storage. Formulating vaccines adjuvanted with aluminum salts into dry powder that can be readily reconstituted before injection may address this limitation. Spray freeze-drying of vaccines with low concentrations of aluminum salts and high concentrations of trehalose alone, or a mixture of sugars and amino acids, as excipients can convert vaccines containing aluminum salts into dry powder, but fails to preserve the particle size and/or immunogenicity of the vaccines. In the present study, using ovalbumin as a model antigen adsorbed onto aluminum hydroxide or aluminum phosphate, a commercially available tetanus toxoid vaccine adjuvanted with potassium alum, a human hepatitis B vaccine adjuvanted with aluminum hydroxide, and a human papillomavirus vaccine adjuvanted with aluminum hydroxyphosphate sulfate, it was shown that vaccines containing a relatively high concentration of aluminum salts (i.e., up to ~1%, w/v, of aluminum hydroxide) can be converted into a dry powder by thin-film freezing followed by removal of the frozen solvent by lyophilization while using low levels of trehalose (i.e., as low as 2% w/v) as an excipient. Importantly, the thin-film freeze-drying process did not cause particle aggregation, nor decreased the immunogenicity of the vaccines. Moreover, repeated freezing-and-thawing of the dry vaccine powder did not cause aggregation. Thin-film freeze-drying is a viable platform technology to produce dry powders of vaccines that contain aluminum salts.
Copyright © 2015 Elsevier B.V. All rights reserved.

Entities:  

Keywords:  Aggregation; Aluminum salts; Antibody responses; Lyophilization; Repeated freezing-and-thawing; Thin-film freezing

Mesh:

Substances:

Year:  2015        PMID: 25735896      PMCID: PMC4385422          DOI: 10.1016/j.jconrel.2015.02.035

Source DB:  PubMed          Journal:  J Control Release        ISSN: 0168-3659            Impact factor:   9.776


  34 in total

1.  Uniform encapsulation of stable protein nanoparticles produced by spray freezing for the reduction of burst release.

Authors:  W Thomas Leach; Dale T Simpson; Tibisay N Val; Efemona C Anuta; Zhongshui Yu; Robert O Williams; Keith P Johnston
Journal:  J Pharm Sci       Date:  2005-01       Impact factor: 3.534

2.  Potentiation of the immune response to non-adsorbed antigens by aluminum-containing adjuvants.

Authors:  Ilia Z Romero Méndez; Yi Shi; Harm HogenEsch; Stanley L Hem
Journal:  Vaccine       Date:  2006-09-25       Impact factor: 3.641

3.  Stable high surface area lactate dehydrogenase particles produced by spray freezing into liquid nitrogen.

Authors:  Josh D Engstrom; Dale T Simpson; Carrie Cloonan; Edwina S Lai; Robert O Williams; G Barrie Kitto; Keith P Johnston
Journal:  Eur J Pharm Biopharm       Date:  2006-08-17       Impact factor: 5.571

Review 4.  Freezing temperatures in the vaccine cold chain: a systematic literature review.

Authors:  Dipika M Matthias; Joanie Robertson; Michelle M Garrison; Sophie Newland; Carib Nelson
Journal:  Vaccine       Date:  2007-03-07       Impact factor: 3.641

Review 5.  Rational design of stable lyophilized protein formulations: some practical advice.

Authors:  J F Carpenter; M J Pikal; B S Chang; T W Randolph
Journal:  Pharm Res       Date:  1997-08       Impact factor: 4.200

6.  Spray freezing into liquid versus spray-freeze drying: influence of atomization on protein aggregation and biological activity.

Authors:  Zhongshui Yu; Keith P Johnston; Robert O Williams
Journal:  Eur J Pharm Sci       Date:  2005-09-26       Impact factor: 4.384

7.  Vacuum foam drying for preservation of LaSota virus: effect of additives.

Authors:  Sambhaji Pisal; Gopal Wawde; Shailendra Salvankar; Sanjay Lade; Shivajirao Kadam
Journal:  AAPS PharmSciTech       Date:  2006-07-21       Impact factor: 3.246

8.  Treatment of aluminium hydroxide adjuvant to optimize the adsorption of basic proteins.

Authors:  J V Rinella; J L White; S L Hem
Journal:  Vaccine       Date:  1996-03       Impact factor: 3.641

9.  The use of the in vitro toxin binding inhibition (ToBI) test for the estimation of the potency of tetanus toxoid.

Authors:  C F Hendriksen; J W van der Gun; F R Marsman; J G Kreeftenberg
Journal:  Biologicals       Date:  1991-01       Impact factor: 1.856

10.  Anthrax vaccine powder formulations for nasal mucosal delivery.

Authors:  Ge Jiang; Sangeeta B Joshi; Laura J Peek; Duane T Brandau; Juan Huang; Matthew S Ferriter; Wendy D Woodley; Brandi M Ford; Kevin D Mar; John A Mikszta; C Robin Hwang; Robert Ulrich; Noel G Harvey; C Russell Middaugh; Vincent J Sullivan
Journal:  J Pharm Sci       Date:  2006-01       Impact factor: 3.534

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  9 in total

Review 1.  Intranasal immunization with dry powder vaccines.

Authors:  Tania F Bahamondez-Canas; Zhengrong Cui
Journal:  Eur J Pharm Biopharm       Date:  2017-11-06       Impact factor: 5.571

2.  The immunogenicity of thin-film freeze-dried, aluminum salt-adjuvanted vaccine when exposed to different temperatures.

Authors:  Sachin G Thakkar; Tinashe B Ruwona; Robert O Williams; Zhengrong Cui
Journal:  Hum Vaccin Immunother       Date:  2017-01-04       Impact factor: 3.452

3.  Intranasal immunization with aluminum salt-adjuvanted dry powder vaccine.

Authors:  Sachin G Thakkar; Zachary N Warnken; Riyad F Alzhrani; Solange A Valdes; Abdulaziz M Aldayel; Haiyue Xu; Robert O Williams; Zhengrong Cui
Journal:  J Control Release       Date:  2018-10-16       Impact factor: 9.776

4.  Gas Plasma Technology Augments Ovalbumin Immunogenicity and OT-II T Cell Activation Conferring Tumor Protection in Mice.

Authors:  Ramona Clemen; Eric Freund; Daniel Mrochen; Lea Miebach; Anke Schmidt; Bernhard H Rauch; Jan-Wilm Lackmann; Ulrike Martens; Kristian Wende; Michael Lalk; Mihaela Delcea; Barbara M Bröker; Sander Bekeschus
Journal:  Adv Sci (Weinh)       Date:  2021-03-08       Impact factor: 16.806

5.  A Pre-Clinical Safety Evaluation of SBP (HBsAg-Binding Protein) Adjuvant for Hepatitis B Vaccine.

Authors:  Jingbo Wang; Caixia Su; Rui Liu; Baoxiu Liu; Inam Ullah Khan; Jun Xie; Naishuo Zhu
Journal:  PLoS One       Date:  2017-01-19       Impact factor: 3.240

6.  Development of a thermostable nanoemulsion adjuvanted vaccine against tuberculosis using a design-of-experiments approach.

Authors:  Ryan M Kramer; Michelle C Archer; Mark T Orr; Natasha Dubois Cauwelaert; Elyse A Beebe; Po-Wei D Huang; Quinton M Dowling; Alicia M Schwartz; Dawn M Fedor; Thomas S Vedvick; Christopher B Fox
Journal:  Int J Nanomedicine       Date:  2018-06-26

7.  Next-Generation COVID-19 Vaccines Should Take Efficiency of Distribution into Consideration.

Authors:  Khaled AboulFotouh; Zhengrong Cui; Robert O Williams
Journal:  AAPS PharmSciTech       Date:  2021-04-09       Impact factor: 3.246

Review 8.  Development of thermostable vaccine adjuvants.

Authors:  Yizhi Qi; Christopher B Fox
Journal:  Expert Rev Vaccines       Date:  2021-06-26       Impact factor: 5.683

Review 9.  The COVID-19 Vaccine Race: Challenges and Opportunities in Vaccine Formulation.

Authors:  Jieliang Wang; Ying Peng; Haiyue Xu; Zhengrong Cui; Robert O Williams
Journal:  AAPS PharmSciTech       Date:  2020-08-05       Impact factor: 3.246

  9 in total

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