Fred Hutchinson Cancer Center

Blaze Bioscience, Inc.

Colin Correnti

Christopher Mehlin

Roland K Strong

James M Olson

Natalie Winblade Nairn

Andrew McGuire

Leonidas Stamatatos

Andrew David Strand

Emily June Girard

Stanley R Riddell

Roland B Walter

Ashok Bandaranayake

Soheil Meshinchi

George S Laszlo

David Meininger

Carla A Jaeger

Engineered trimeric CD70 proteins for use in ex vivo T cell manufacturing are described. Use of the proteins during manufacturing creates expanded T cell populations with enhanced properties such as earlier proliferation in culture; selective expansion of nave and memory T cell subsets; longer persistence in vivo following administration to a subject; and improved therapeutic effect. Use of the proteins as therapeutics provide anti-cancer and anti-viral effects. The proteins can also be used as agonistic cell culture reagents in in vitro uses.

Engineered trimeric CD70 proteins and uses thereof

Anti-CD33 antibodies are described. The anti-CD33 antibodies can bind within the V-set Ig-like domain or the C2-set Ig-like domain of CD33. Epitopes FIG.A on the C2-set Ig-like domain can provide a 'pan-binding' site, to which the cognate antibody will bind regardless of whether the CD33 molecule also contains the V-set domain (as in, for example, CD33) or not (as in, for example, CD33). Alternative epitopes on the C2-set Ig-like domain are accessible for binding if the V-set domain is absent (e.g., as in CD33). Antibodies that bind an epitope on the C2-set Ig-like domain (whether they exhibit pan or V-set absent binding) are directed at novel therapeutic targets can increase therapeutic efficacy against CD-33-related disorders. Also described are molecules comprising a binding-competent domain from at least one described anti-CD33 antibody, including scFvs, bi-specific antibody molecules, chimeric antigen receptors, and immunoconjugates. Methods of use are also provided.

Anti-CD33 antibodies and uses thereof

Mesothelin (MSLN) is expressed on pancreatic cancers, ovarian cancers and mesotheliomas. The present disclosure provides antigen-binding molecules, including anti-MSLN antibodies, and bispecific antigen-binding molecules that bind to both MSLN and a T cell antigen (e.g., CD3) and activate T cells in the presence of MSLN-expressing tumor cells. The antigen-binding molecules of this disclosure are useful for the treatment of diseases and disorders in which a MSLN-targeted immune response is desired and/or therapeutically beneficial. For example, the antigen-binding molecules of the present disclosure are useful for the treatment of various cancers, including pancreatic cancer, ovarian cancer and mesotheliomas.

Anti-mesothelin antigen-binding molecules and uses thereof

The present disclosure provides antibodies and polypeptides that specifically bind to mesothelin (MSLN), including bispecific antibodies that bind both MSLN and a T cell antigen (e.g., CD3). Also provided are pharmaceutical compositions comprising these antibodies, nucleic acids encoding these antibodies, expression vectors and host cells for making these antibodies, and methods of treating a subject using these antibodies.

Peptides that home, target, migrate to, are directed to, are retained by, or accumulate in and/or binds to the cartilage of a subject are disclosed. Pharmaceutical compositions and uses for peptides or peptide-active agent complexes comprising such peptides are also disclosed. Such compositions can be formulated for targeted delivery of a drug to a target region, tissue, structure or cell in the cartilage. Targeted compositions of the disclosure can deliver peptide or peptide-active agent complexes to target regions, tissues, structures or cells targeted by the peptide.

Cartilage-homing peptides

Engineered and multimerized human immunodeficiency virus (HIV) envelope glycoproteins are described. The envelope glycoproteins can be multimerized using a heptamerization domain such as a C4b binding protein multimerization domain or a ferritin fusion. The engineered and multimerized envelope glycoproteins can derived from glycoprotein 120 (gp120) and can used as an HIV vaccine.

Engineered and multimerized human immunodeficiency virus envelope glycoproteins and uses thereof

Multimerized human immunodeficiency virus (HIV) envelope glycoproteins are described. The envelope glycoproteins are multimerized Engineered and multimerized human immunodeficiency virus (HIV) envelope glycoproteins are described. The envelope glycoproteins can be multimerized using a heptamerization domain such as a C4b binding protein multimerization domain or a ferritin fusion. The engineered and multimerized envelope glycoproteins can derived from glycoprotein 120 (gp 120) and can used as an HIV vaccine.

Methods and systems for producing fusion proteins and peptides are disclosed. Fusion proteins and peptides created using the methods are also provided. Also provided are methods of using the fusion proteins and peptides produced according to the present disclosure.

Growing community of inventors

Seattle, WA, United States of America

Colin Correnti