C07K1/113

HMGB1 ANTAGONIST TREATMENT OF SEVERE SEPSIS

The present invention is related to the use of HMGB1 antagonists such as K883 in the treatment and/or prevention and/or inhibition of severe sepsis in mammals, e.g., humans, and pharmaceutical compositions for the same comprising HMGB1 antagonists in an effective amount to treat and/or prevent and/or inhibit this condition.

BISPECIFIC ANTIBODIES AGAINST HER2 AND CD3

Bispecific antibodies which comprise one antigen-binding region binding to an epitope of human epidermal growth factor receptor 2 (HER2) and one antigen-binding region binding to human CD3, and related antibody-based compositions and molecules, are disclosed. Pharmaceutical compositions comprising the antibodies and methods for preparing and using the antibodies are also disclosed.

BISPECIFIC ANTIBODIES AGAINST HER2 AND CD3

Bispecific antibodies which comprise one antigen-binding region binding to an epitope of human epidermal growth factor receptor 2 (HER2) and one antigen-binding region binding to human CD3, and related antibody-based compositions and molecules, are disclosed. Pharmaceutical compositions comprising the antibodies and methods for preparing and using the antibodies are also disclosed.

Methods of stapling and unstapling peptides and proteins

The present disclosure pertains to the field peptide stapling and/or macrocyclization, where a structural motif is used to improve the properties of amino acid sequences (e.g. protease resistance, cellular penetration, biological activity). Also within the scope of the disclosure are methods for unstapling the S,S-tetrazine-containing amino acid sequence. The disclosure is also directed to methods for the reductive removal of thiocyanates from an amino acid sequence with cysteine to recycle back to the native amino acid sequence.

METHODS FOR MAKING PROTEINS CONTAINING FREE CYSTEINE RESIDUES
20170362626 · 2017-12-21 ·

The present invention relates to novel methods of making soluble proteins having free cysteines in which a host cell is exposed to a cysteine blocking agent. The soluble proteins produced by the methods can then be modified to increase their effectiveness. Such modifications include attaching a PEG moiety to form pegylated proteins.

HMGB1 antagonist treatment of acute lung injury

The present invention is related to the use of HMGB1 antagonists in the treatment and/or prevention and/or inhibition of acute lung injury in mammals, e.g., humans, and pharmaceutical compositions for the same comprising HMGB1 antagonists, in particular K883, in an effective amount to treat and/or prevent and/or inhibit this condition.

HMGB1 antagonist treatment of acute lung injury

The present invention is related to the use of HMGB1 antagonists in the treatment and/or prevention and/or inhibition of acute lung injury in mammals, e.g., humans, and pharmaceutical compositions for the same comprising HMGB1 antagonists, in particular K883, in an effective amount to treat and/or prevent and/or inhibit this condition.

Methods of Improving Yield in Recombinant Protein Production

Methods of enhancing production of cytokines such as IL-10 by, for example, optimizing refolding conditions, are described. The methods provide an efficient, cost-effective means of manufacturing IL-10 on a commercial scale.

Methods of Improving Yield in Recombinant Protein Production

Methods of enhancing production of cytokines such as IL-10 by, for example, optimizing refolding conditions, are described. The methods provide an efficient, cost-effective means of manufacturing IL-10 on a commercial scale.

METHOD FOR PRODUCING A COLLAGEN MEMBRANE AND USES THEREOF
20230190998 · 2023-06-22 ·

The present invention relates to a method of producing a collagen membrane that has particular mechanical properties. In particular, the present invention relates to a method A of producing a collagen membrane comprising the steps of (i) isolating a collagen-containing tissue and incubating same in an ethanol solution; (ii) incubating the collagen-containing tissue from step (i) in a first solution comprising an inorganic salt and an anionic surfactant in order to denature non-collagenous proteins contained therein; (iii) incubating the collagen-containing tissue produced in step (ii) in a second solution comprising an inorganic acid until the collagen in said material is denatured; and (iv) incubating the collagen-containing tissue produced in step (iii) in a third solution comprising an inorganic acid with simultaneous mechanical stimulation for sufficient time to enable the collagen bundles in said collagen-containing tissue to align; wherein the mechanical stimulation comprises applying tension cyclically to the collagen-containing tissue.