Abstract: The disclosure concerns methods for executing PBV protocols to preserve biopharmaceuticals using a conventional lyophilizer. Also described are steps for maintaining isolation of a biopharmaceuticals for achieving aseptic drying using the conventional lyophilizer. As a collateral benefit, the invention provides good manufacturing practice (GMP) compliant methods for achieving aseptic drying of biopharmaceutical compositions using a conventional lyophilizer disposed outside of a clean-room area. Finally, methods and formulations str disclosed for preserving biopharmaceuticals suitable for mucosal or transdermal delivery to a patient.

Abstract: Biopharmaceuticals, such as vaccine agents and probiotics, are encapsulated in carbohydrate-glass particles and embedded in an amorphous polymer substrate to produce polymeric compositions containing ambient-temperature stable biopharmaceuticals for syringeless administration to patients such as via dissolvable films, micro-needle patches and similar medical delivery devices. The amorphous polymer substrate is soluble in both water and a volatile organic solvent, yet the carbohydrate-glass particles are insoluble in the volatile organic solvent.

Abstract: The disclosure concerns methods for executing PBV protocols to preserve biopharmaceuticals using a conventional lyophilizer. Also described are steps for maintaining isolation of a biopharmaceuticals for achieving aseptic drying using the conventional lyophilizer. As a collateral benefit, the invention provides good manufacturing practice (GMP) compliant methods for achieving aseptic drying of biopharmaceutical compositions using a conventional lyophilizer disposed outside of a clean-room area. Finally, methods and formulations str disclosed for preserving biopharmaceuticals suitable for mucosal or transdermal delivery to a patient.

Abstract: The disclosure concerns compositions containing inactivated but therapeutically active biopharmaceuticals, and methods for formulation thereof. Biopharmaceuticals are encapsulated and immobilized in dry amorphous carbohydrate-glass and irradiated for inactivation while in the dry state. The resulting compositions provide ambient-temperature stable, therapeutically active but inactivated biopharmaceuticals for use in vaccines and other applications.

Abstract: The disclosure concerns vaccines; and more particularly, highly antigenic thermostable vaccines configured for mucosal or transdermal delivery without reconstitution. Also disclosed are methods for formulating the highly antigenic thermostable vaccines.

Abstract: Biopharmaceuticals, such as vaccine agents and probiotics, are encapsulated in carbohydrate-glass particles and embedded in an amorphous polymer substrate to produce polymeric compositions containing ambient-temperature stable biopharmaceuticals for syringeless administration to patients such as via dissolvable films, micro-needle patches and similar medical delivery devices. The amorphous polymer substrate is soluble in both water and a volatile organic solvent, yet the carbohydrate-glass particles are insoluble in the volatile organic solvent.

Abstract: Biopharmaceuticals, such as vaccine agents and probiotics, are encapsulated in carbohydrate-glass particles and embedded in an amorphous polymer substrate to produce polymeric compositions containing ambient-temperature stable biopharmaceuticals for syringeless administration to patients such as via dissolvable films, micro-needle patches and similar medical delivery devices. The amorphous polymer substrate is soluble in both water and volatile organic solvents, yet the carbohydrate-glass particles are insoluble in organic solvents. A method for formulation of the polymeric compositions containing ambient-temperature stable biopharmaceuticals includes combining biopharmaceuticals encapsulated in carbohydrate-glass particles with polymer in organic solvent and evaporating the organic solvent to yield a water soluble polymeric composition containing ambient-temperature stable biopharmaceuticals.

Abstract: The disclosure concerns compositions containing inactivated but therapeutically active biopharmaceuticals, and methods for formulation thereof. Biopharmaceuticals are encapsulated and immobilized in dry amorphous carbohydrate-glass and irradiated for inactivation while in the dry state. The resulting compositions provide ambient-temperature stable, therapeutically active but inactivated biopharmaceuticals for use in vaccines and other applications.

Abstract: The disclosure concerns compositions containing inactivated but therapeutically active biopharmaceuticals, and methods for formulation thereof. Biopharmaceuticals are encapsulated and immobilized in dry amorphous carbohydrate-glass and irradiated for inactivation while in the dry state. The resulting compositions provide ambient-temperature stable, therapeutically active but inactivated biopharmaceuticals for use in vaccines and other applications.

Abstract: The disclosure concerns compositions containing inactivated but therapeutically active biopharmaceuticals, and methods for formulation thereof. Biopharmaceuticals are encapsulated and immobilized in dry amorphous carbohydrate-glass and irradiated for inactivation while in the dry state. The resulting compositions provide ambient-temperature stable, therapeutically active but inactivated biopharmaceuticals for use in vaccines and other applications.

Abstract: Significant research is being done to develop and improve delivery mechanisms for biopharmaceuticals and vaccines, including pulmonary (inhalation), nasal, transdermal, and oral alternatives. Market projections indicate that the delivery of proteins and vaccines by inhalation and oral formulation has become and will continue to be increasingly important. These delivery mechanisms, to be effective, will require better stabilization of the biologicals so that they can maintain potency and effectiveness at ambient temperatures for extended periods of time. The novel Preservation by Vaporization (PBV) Technology described herein provides cost-effective and efficient industrial scale stabilization of proteins, viruses, bacteria, and other sensitive biologicals, thereby allowing a production of products that are not possible to be produced by existing methods. The suggested new PBV process comprises primary drying under vacuum from a partially frozen state (i.e.

Abstract: The disclosure concerns compositions containing inactivated but therapeutically active biopharmaceuticals, and methods for formulation thereof. Biopharmaceuticals are encapsulated and immobilized in dry amorphous carbohydrate-glass and irradiated for inactivation while in the dry state. The resulting compositions provide ambient-temperature stable, therapeutically active but inactivated biopharmaceuticals for use in vaccines and other applications.

Abstract: Biopharmaceuticals, such as vaccine agents and probiotics, are encapsulated in carbohydrate-glass particles and embedded in an amorphous polymer substrate to produce polymeric compositions containing ambient-temperature stable biopharmaceuticals for syringeless administration to patients such as via dissolvable films, micro-needle patches and similar medical delivery devices. The amorphous polymer substrate is soluble in both water and volatile organic solvents, yet the carbohydrate-glass particles are insoluble in organic solvents. A method for formulation of the polymeric compositions containing ambient-temperature stable biopharmaceuticals includes combining biopharmaceuticals encapsulated in carbohydrate-glass particles with polymer in organic solvent and evaporating the organic solvent to yield a water soluble polymeric composition containing ambient-temperature stable biopharmaceuticals.

Abstract: A method of formulating high ambient temperature (room temperature and above) stable biologics (biologically active macromolecules, enzymes, serums, vaccines, viruses, pesticides, drug delivery systems, liposomes, cells suspensions, sperm, erythrocytes, other blood cells, stem cells, multicellular tissues, skin, heart valves) including secondary drying comprising at least two steps of stability drying at elevated temperature: 35° C., 40° C., 45° C., 50° C., and higher temperatures. The method could be applied to stabilize biologics encapsulated in alginate gel microspheres for better oral delivery. The method encompasses the following: microspheres are formulated using a cryo-encapsulation procedure comprised of mixing drops of frozen preservation mixture (To form the preservation mixture, biologics are mixed with preservation solutions containing sodium alginate.) with frozen drops of a calcium solution (i.e. calcium gluconate) and subsequent warming to form the gel particles.

Abstract: Significant research is being done to develop and improve delivery mechanisms for biopharmaceuticals and vaccines, including pulmonary (inhalation), nasal, transdermal, and oral alternatives. Market projections indicate that the delivery of proteins and vaccines by inhalation and oral formulation has become and will continue to be increasingly important. These delivery mechanisms, to be effective, will require better stabilization of the biologicals so that they can maintain potency and effectiveness at ambient temperatures for extended periods of time. The novel Preservation by Vaporization (PBV) Technology described herein provides cost-effective and efficient industrial scale stabilization of proteins, viruses, bacteria, and other sensitive biologicals, thereby allowing a production of products that are not possible to be produced by existing methods. The suggested new PBV process comprises primary drying under vacuum from a partially frozen state (i.e.

Abstract: This invention relates to formulations comprising biological samples preserved as dry glassy powders and hydrophobic carriers, the formulations being adapted for the long-term storage and delivery of the bioactive materials, in particular viral and bacterial vaccines, vectors and cells, at ambient or higher temperatures, and to methods for preparing these formulations.

Abstract: The method of preservation by vitrification, described in the present application, provides for storage of samples at higher temperatures than in conventional methods and can be applied to cells, multicellular tissues, organs and organisms. The method of the present invention includes preparing a solution of vitrification non-permeating co-solutes (amino acids, betaines, carbohydrates, or other non-permeating co-solutes that effectively decrease the chemical potential of permeating cryoprotectants in aqueous solutions), a permeating cryoprotectant and a non-permeating cryoprotectant (polyvinylpyrrolidone, polyethylene glycol, dextran, hydroxy ethyl starch, Ficoll, etc.), contacting a sample with the vitrification solution and storing the sample at a storage temperature. The method also includes the step of rehydrating the preserved sample in a rehydration solution prepared in the manner of the vitrification storage solution.

Abstract: The present invention discloses apparatus and methods of inducing bubble nucleation to overcome problems commonly associated with preservation by foam formation. Specifically, the invention relates to methods of using bubble nucleation in foam formation to preserve sensitive biological materials. Preferred methods of inducing bubble nucleation include, mixing, chamber rotation, crystals, and ultrasound.

Abstract: The present invention relates to techniques for loading cells with desiccation protectants comprising non-metabolizable and non-reducing carbohydrate analogs. Specifically, competent bacterial cells can be preserved using the loading techniques provided herein.

Abstract: This invention relates to formulations and methods for preserving sensitive biologicals, viruses, bacteria and eukaryotic cells by drying. More particularly, the invention relates to preservation mixtures containing viruses or cells and protectants, including a combination of a methylated monosaccharide and a disaccharide, or oligosaccharide, wherein the mixtures are adapted to stabilize these during dehydration and subsequent storage at ambient and higher temperature.