Abstract: The present invention provides a process for the production of human plasminogen starting from human plasma or a fractionation intermediate thereof. The main stages of the process are: a step of virus inactivation, in which human plasma is contacted with a solvent/detergent mixture, a single affinity chromatographic step and a virus removal nanofiltration step. This process is scalable up to industrial level and it provides, without adding any protease inhibitor, a functional and intact finished product suitable to be administered for the treatment of human diseases due to genetic plasminogen deficiency.

Abstract: The present invention provides a process for the production of human plasminogen starting from human plasma or a fractionation intermediate thereof. The main stages of the process are: a step of virus inactivation, in which human plasma is contacted with a solvent/detergent mixture, a single affinity chromatographic step and a virus removal nanofiltration step. This process is scalable up to industrial level and it provides, without adding any protease inhibitor, a functional and intact finished product suitable to be administered for the treatment of human diseases due to genetic plasminogen deficiency.

Abstract: The invention relates to a novel, industrial-scale process for the purification of gamma-immunoglobulins (IgG) starting from plasma or fractions thereof. The method involves two chromatographic steps, i.e. a cation exchange capture chromatography, and then a polishing anion exchange chromatography, ensuring a highly purified end product, which contains no aggregates, and high yields. The process also involves a virus inactivation step by means of a solvent/detergent treatment to inactivate the viruses with a lipid envelope, and a virus removal step by nanofiltering to ensure the removal of the non-enveloped viruses.

Abstract: The invention relates to a novel, industrial-scale process for the purification of gamma-immunoglobulins (IgG) starting from plasma or fractions thereof. The method involves two chromatographic steps, i.e. a cation exchange capture chromatography, and then a polishing anion exchange chromatography, ensuring a highly purified end product, which contains no aggregates, and high yields. The process also involves a virus inactivation step by means of a solvent/detergent treatment to inactivate the viruses with a lipid envelope, and a virus removal step by nanofiltering to ensure the removal of the non-enveloped viruses.