Methods are provided for making bispecific antibodies and antibody conjugates comprising site-specifically cross-linking two or more antibodies, antibody fragments or Fc-fusion proteins. Also provided are compositions and uses for the bispecific antibodies and antibody conjugates. The bispecific antibodies may be used to treat a disease or condition. Also provided are methods for site-specifically conjugating a liposome, an mRNA or an siRNA to an antibody, and uses of the antibody-conjugated liposome, mRNA or siRNA.

Disclosed herein is anti-human CD276 mAb expressing the Fc-fused fragments from the extracellular domain of human CD276 (Leu29-Pro245), producing the N-glycosylated peptides as immunogen, and generating hybridoma cells through fusing mouse splenocytes and myeloma cells. The specific targeting of cancer cells and intracellular release of potent drugs enables high anti-cancer efficiency and minimal side effects.

The present invention relates to anti-brain target agents and therapeutic uses thereof.

The present disclosure provides nucleic acid carriers comprising one or more layers comprising multiple monomers, wherein each monomer comprises: a first and a second oligonucleotide; wherein a central portion of each of the first and second oligonucleotides is complementary to each other, forming a double-stranded region, wherein the two terminal portions of the first oligonucleotide are not complementary to the two terminal portions of the second oligonucleotide, forming four terminal arms; and at least one targeting agent conjugated to at least one peripheral terminal arm, wherein when the at least one targeting agent is an miRNA. The present disclosure also provides pharmaceutical composition comprising any of the nucleic acid carriers described herein, and a pharmaceutically acceptable vehicle. The present disclosure also provides methods of inducing an immune response in an animal comprising administering to the animal any of the nucleic acid carriers described herein.

The present invention provides multi-armed high MW polymers containing hydrophilic groups and one or more functional agents, and methods of preparing such polymers.

The present invention relates to modulation of the tumor microenvironment to increase cancer specific immune responses. Conjugates, nanoparticles and formulations of the present invention relieve the inhibitory effect induced by tumor cells, and enhance antitumor immunity. The compostions provided herein can be used as immunotherapies, or as adjuvants used in conjunction with other immunotherapies such as peptide vaccines, cell vaccines and/or adoptive T cell transfer.

The invention relates to antibodies, and in particular, to antibodies exhibiting specificity for Receptor tyrosine kinase-like Orphan Receptors (ROR), and to uses thereof, for example in the treatment of cancer. The invention extends to polynucleotide and polypeptide sequences encoding the antibodies, and therapeutic uses thereof, and to diagnostic kits comprising these molecules. The invention also extends to antibody-drug conjugates and to uses thereof in therapy.

Methods are provided for making bispecific antibodies and antibody conjugates comprising site-specifically cross-linking two or more antibodies, antibody fragments or Fc-fusion proteins. Also provided are compositions and uses for the bispecific antibodies and antibody conjugates. The bispecific antibodies may be used to treat a disease or condition. Also provided are methods for site-specifically conjugating a liposome, an mRNA or an siRNA to an antibody, and uses of the antibody-conjugated liposome, mRNA or siRNA.

Provided herein are antigen binding polypeptides and complexes thereof having agonist activity. Also provided are methods for screening for complexes or polypeptides having agonist activity, enhancing the agonist activity of a polypeptide, and for agonizing a cell surface receptor using the complexes and polypeptide described herein.

Composition and methods are disclosed for utilizing microaggregation of FAP-containing complexes to promote their fast internalization. This approach allows the uptake of cytotoxic cargo coupled to either FAP-Antibodies or FAP-liposome complexes by tumor bladder cells. Importantly, this approach is efficient even under serum-free conditions such as the ones found in the lumen of the bladder.