Agency: European Commission | Branch: FP7 | Program: CP-IP | Phase: NMP.2011.1.2-2 | Award Amount: 11.03M | Year: 2012
The objective of the ALEXANDER project is the identification of novel strategies (e.g., proteolytic enzyme strategy, thiomer strategy, zeta potential changing systems, SNEDDS strategy) and the optimization of existing strategies (e.g., disulfide breaking strategy and slippery surface strategy) for the efficient transport of nanocarriers through the mucus gel layer (e.g., intestinal, nasal, ocular, vaginal, buccal, pulmonary). In particular, R&D activities will be focused on the synthesis of functionalized nanocarriers capable of permeating the mucus gel layer and delivering their therapeutic payload to the epithelium. The nanocarriers will be characterized with respect to their physicochemical properties, ability to cross the mucus gel layer, in vitro and in vivo cytotoxicity. The potential of the developed nanocarriers as delivery systems for mucosal administration of macromolecules will be demonstrated via the oral delivery of peptides, oligosaccharides and oligonucleotides and the nasal delivery of a plasmid encoding for an antigen.
Agency: European Commission | Branch: H2020 | Program: IA | Phase: BIOTEC-4-2014 | Award Amount: 10.57M | Year: 2015
The scope of the project is the optimization of downstream process (DSP) for the production of Biopharmaceuticals. Biopharmaceuticals have been successfully used as efficient therapeutic drugs for many pathophysiological conditions since the first recombinant product, insulin, was approved in 1982. Despite its efficacy, accessibility is still limited due to extremely high costs. In the production chain, capturing and purifying still represents a major bottleneck. Consequently, improvements in this area produce substantial cost reductions and expand patients accessibility to highly efficient drugs. Another aim of this action is to cope with the changing manufacturing demands, by lowering its environmental footprint and moving to more sustainable technologies. This proposals main objective is to implement a fully integrated manufacturing platform based on continuous chromatography in combination with disposable techniques for all unit operations of the DSP sequence for biosimilar monoclonal antibodies and derivatives thereof. The action encompasses the entire DSP sequence. We will implement alternative technologies for primary separation, such as flocculation or tangential flow filtration. The expected outcome is a reduction in the size and number of downstream unit operations and the elimination of centrifugation. Alternative approaches to the batch process for the capture step, such as continuous chromatography, will be evaluated in order to improve the efficiency and lower the need for expensive resin volume. Additionally precipitation utilization will be evaluated as an approach to replace protein A chromatography as capture step. A disposable continuous chromatography system will be developed together with novel analytical tools and sensors. Since single-use disposable systems can substitute the extensive use of resources (water) and significantly reduce the overall utility needs, the whole DSP sequence will be carried out on disposable technology (PAT).