Biologics, biologically manufactured therapies.
Biological products for biological solutions. Proteins, antibodies and other biological molecules that can influence biological function can be used to target multiple disease conditions. Discovery of potential biologics, and potential uses and targets are currently being developed and are available at UMassMed.
Browse Our Biologics Inventions:
Title: Incorporation/Packaging Viral/Tumor Antigens in Virus-like Particle. UMMS15-47; Patent Pending.
The invention relates to a vaccine for Eptein Barr Virus. The prophylactic is a recombinant virus-like particle (VLP) comprising a Newcastle disease virus (NDV) matrix (M) protein, a NDV nucleocapsid (NP) protein, and one or more tumor-associated EBV antigens that is capable of illiciting CD4+ and CD8+ T cell responses.
Title: Factor H/Fc Chimeric Molecules as Anti-pathogen Immunoadhesins. UMMS15-30, Patent Pending.
Title: Tet1-Dependent Differentiation of Human Hematopoietic Stem Cell towards NKT And γδ T Cells. UMMS15-18; Patent Pending.
The invention provides methods of producing hematopoietic stem cells (HSCs) with increased differentiation towards natural killer T cells (NKT) and gamma delta T cells (γδ T cells) for cancer immunotherapy. The HSCs are also functionally superior in their capacity to kill tumor cells, as injection of HSCs overexpressing Tet1 eliminates all of the carcinoma stages of neoplasia.
- Inventors: Louis M Messina, Guodong Tie
- Applications: Cancer, Breast cancer, Colon cancer, Lymphoid malignancies, Myeloma, Ovarian cancer, Prostate cancer, Renal cell carcinoma, Stem cell/Stem cell Therapy, Immunotherapy
Title: Broadly Borreliacidal Human Monoclonal Antibodies to OspA and their Uses. UMMS15-03; Patent Pending.
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Title: Dual Specific Binding Proteins Directed Against Immune Cell Receptors and Autoantigens. UMMS14-75; Patent Pending.
To address the need for improved multivalent binding proteins capable of binding immune cell receptors and autoantigens, this novel invention provides bispecific binding proteins that bind to two targets: (1) a TLR-activating autoantigen and (2) an immune cell receptor (e.g., the B cell receptor) thereby forming an immune complex that is internalized and transported to TLRs resident in the endosomal compartment. The bispecific binding proteins are useful as a vehicle for the modulation of endosomal TLR signaling, and, hence, modulation of autoimmune disease.
Title: Human Antibodies Against Rabies and Uses Thereof. UMMS14-48; Patent Pending.
Title: Surface Mineralization of Metal Alloys Grafted With Zwitterionic Polymer Brushes. UMMS14-36; Patent Pending.
The invention provides a novel approach to hydrogels with predictable degradation/gelling kinetics, which is useful for many biomedical applications where appropriate gelling kinetics and the timely disintegration of the hydrogel (e.g., drug delivery, guided tissue regeneration) is required. Precisely controlling hydrogel degradation over a broad range in a predictable manner is achieved via a simple but versatile hydrogel platform that allows formulation of hydrogels with predictable disintegration time from within 2 days to >250 days yet comparable macroscopic physical properties.
Title: Expansion of Human Adipocyte White and "Brite/Beige" Progenitors through Angiogenic Expansion of their Vascular Niche. UMMS14-26; Patent Pending.
This invention relates to methods of making human adipose capillary progenitor cells (HACAPS), which are capable of giving rise to either white or "Brown-on-white" (Brite) adipose cells, and enriched populations thereof, for reconstructive and metabolic therapy, and for drug discovery. Further, methods of treating subjects by administering HACAPS are provided.
Title: Alkylated Amphiphilic Polymer Networks for Bioactive Lipid Delivery. UMMS14-16; Patent Pending.
The invention provides unique amphiphilic polymers may be employed as controlled delivery vehicles or tissue engineering scaffolds wherein the delivery of lipophilic or amphiphilic bioactive molecules can be achieved. An amphiphilic biodegradable polymer platform is disclosed herein for the stable encapsulation and sustained release of biomolecules, such as phospholipid spingosine 1-phosphate (SIP) which can be used to promote angiogenesis alone or in conjunction with VEGF.
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Title: BCR Adapter lgM (BCRAM) for the BCR/TLR Delivery of Autoantigens to Polyclonal Murine and Human B Cell Populations. UMMS13-65; Patent Pending.
This technology provides a model for autoantigen activation of B cells that can be used to research and treat the development/progression of autoimmune diseases, such as systemic lupus erythematosus (SLE). This novel research tool enables the identification of suitable drug targets and provides methods for production of autoantigens. Specifically, a BCR adapter IgM (BCRAM) is described to exemplify delivery of autoantigens to polyclonal B cell populations resulting in immunoactivation by Toll-like receptor activation.
Title: Mutant A6 T Cell Receptor with Improved Antigen Targeting via Proline Substitution. UMMS13-50; Patent Pending.
Title: Highly Immunogenic HIV-1 gp120 Antigens and Polyvalent Vaccine. UMMS13-47; Patent Pending.
The invention provides codon-optimized DNA's and polypeptides useful for inducing an immune response against HIV. The compositions and methods provided are based on the discovery that specific polyvalent, primary isolate DNA vaccines can effectively induce an immune response against HIV (e.g., HIV-1), e.g., alone or in combination with boosts of recombinant HIV polypeptide compositions.
Title: Construction of a Trifunctional and Completely Clearable Specific Targeting Agent. UMMS13-45; Patent Pending.
Title: MULTIVALENT LIPOSOME FORMULATIONS. UMMS13-28; Patent 9,408,890.
The present technology relates to the treatment or prevention of infection, by administration of a liposome composition linked to binding targets. The compositions typically bind the virus (or virions), e.g., influenza, or bacteria, e.g., Streptococcus pneumonia, with high affinity to reduce or prevent infectivity. The technology is used to reduce or prevent the effects of a toxin, e.g., ricin, with high affinity to reduce or prevent toxin entry into a cell. Further, this invention discloses sulfated polysaccharides and sulfated polysaccharide compositions, which can prevent or treat viral infection, specifically respiratory syncytial virus (RSV).
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Title: SCREENING METHODS FOR SPINAL MUSCULAR ATOPHY. UMMS12-67; Patent 9,212,209
This technology provides vectors that increase survival of motor neuron (SMN) protein production by an SMN2 gene and methods for treatment of spinal muscular atrophy (SMA). Further discloses is a clonal second generation SMN-luciferase reporter cell line that combines the strengths of both the promoter-based assay and a previous splicing reporter. This assay is much more robust, has lower well-to-well variation, and displays more stable luciferase expression that does not change with serial passage that can be used to identify potential therapeutic agents for SMA.
Title: Anti-tumor Properties of Dickkopf 3b. UMMS12-40; Patent Pending.
This invention discloses novel therapeutics and methods for treating tumors and cancers via site-specific delivery of the tumor suppressor Dickkopf 3b (DKK3b). This technology is based on the finding that DKK3 expression is a hallmark of many human cancers and expression levels are inversely related to tumor virulence (e.g., in prostate cancer and ovarian cancer). Further, over-expression of DKK3 has been shown to halt proliferation of prostate cancer cells due to its ability to block the translocation of β-catenin to the nucleus.
Title: SRPX FOR TREATMENT OF CANCER. UMMS12-08; Patent 9,290,744
This technology provides compositions and methods of treatment for lung cancer. The invention is based on a discovery the tumor suppressor, SRPX is found at low levels of expression in solid human tumors compared to normal tissue. When SRPX is introduced at sufficient levels to tumor cells, SRPX can induce apoptosis and senescence to inhibit cellular proliferation. SRPX can easily be administered using the AAV gene therapy method and markedly suppresses lung cancer in mice.
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Title: RECOMBINANT HIV-1 GP120 IMMUNOGEN WIH THREE DIFFERENT V3 LOOPS FROM VIRUSES OF DIFFERENT CLADES. UMMS11-60; Patent 7,847,085 B2
This patented technology provides prophylactic DNA constructs that encode a recombinant HIV-1 gp120 envelope peptide, in which either the V1/V2 loop and the V4 loop, or all three variable loops, including V3, are replaced with a V3 sequence each of which is from a different viral isolate. These constructs generate a more broadly reactive neutralizing antibody than conventional gp120 or V3 DNA or polypeptide immunogens.
Title: The Use of the Salmonella Typhimurium Protein, SipA, as Multidrug Resistance (MDR) Reversal Agent. UMMS11-17; Patent Pending.
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Title: ANTI-SOD1 ANTIBODIES AND USES THEREOF. UMMS10-69; Patent 9,109,037
Title: SULFONATE COMPOUNDS. UMMS10-48; Patent 9,329,185
This invention provides a new chemically-stable platform for delivering hydrophobic molecules in to cell cytoplasm. Sulfonates are used to impart water-solubility to hydrophobic molecules but does not readily cross cellular membrane to access cellular compartments. Thus, the TFA-labile sulfonate protection group helps to overcome the difficulty in delivering hydrophobic molecules to the intracellular environment. Currently existing protection molecules are complicated and expensive to produce while it also requires additional steps to remove its byproducts after TFA mediated deprotection. This new invention TFMB sulfonate esters are unique because they are 1) stable to nucleophilic attack (e.g. sodium iodide and piperidine), 2) synthesized in one step from commercially-available materials, and 3) easily removable with pig liver esterase (~2min). This new UMass Medical School sulfate protection group provides new opportunities for research molecule delivery of hydrophobic drugs to mammalian cells.
Title: PEPTIDE MIMICS OF CONSERVED GONOCOCCAL EPITOPES AND METHODS AND COMPOSITIONS USING THEM. UMMS10-04; Patent 7,871,628
The present invention relates to peptide mimics of a conserved gonococcal lipo-oligosaccharide (LOS) epitope of Neisseria gonorrhoeae, which epitope is not found on human blood group antigens. This invention also relates to methods and compositions using such peptide mimics for the prophylaxis of gonorrheal infections.
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Title: VIRUS-LIKE PARTICLES AS VACCINES FOR PARAMYXOVIRUS . UMMS09-28; Patent 9,216,212
This patented invention provides a low risk, highly effective paramyxovirus vaccine that is compatible with population-wide distribution marketing goals of low cost and high production rates. The disclosed vaccine contains a virus-like particle (VLP) comprising a) Newcastle disease virus matrix (M) protein, b) Newcastle Disease Virus heamagglutinin-neuraminidase (HN) protein transmembrane domain (TM) protein, c) Newcastle Disease Virus heamagglutinin-neuraminidase (HN) protein cytoplasmic domain (CT) protein, and d) Respiratory Syncytial Virus (RSV) ectodomain protein, wherein said transmembrane (TM) protein is flanked by said cytoplasmic domain (CT) protein and said ectodomain protein.
Title: COMPLEMENT FACTOR H-BASED ASSAYS FOR SERUM BACTERICIDALACTIVITY AGAINST NEISSERIA MENINGITIDIS. UMMS09-17; Patent 8,476,032
This invention discloses an assay method for detecting anti-Neisseria antibodies. Human factor H (fH) is a virulence factor that helps Neisseria to resist complement-mediated killing, thus circumventing the host’s innate immune response. Higher serum fH levels may correlate to patient susceptibility to infection. Neisserial factor H binding protein (fHBp) can be hindered by a human amino acid sequence revealed in the present technology, to facilitate accurate detection of Neisseria that exceeds the capability of existing methods. A reaction mixture containing bactericidal anti-Neisseria antibodies, a fH polypeptide comprising an amino acid sequence of human Short Consensus Repeat 6 sources of non human complement (SCR), and a Neisseria bacterium. This invention additionally discloses an animal model of Neisseria infection.
Title: INTRACELLULAR DNA RECEPTOR. UMMS09-11; Patent 8,334,101
The innate immune system recognizes non-self genetic material and mounts a defensive immune response. However, self cytosolic DNA at times gets targeted and the process by which this phenomenon occurs has been largely unknown. The inventors have discovered PISA (PYHIN protein stimulating ASC), a receptor found to be necessary for activation of the ACS/caspase-1 axis of innate immunity in response to recognition of self cytosolic DNA. This invention discloses methods for identification and compounds found to modulate the PISA receptor and it’s downstream immune response.
Title: METHODS, COMPOSITIONS AND VACCINES RELATING TO NEISSERIA MENINGITIDIS ANTIBODIE. UMMS09-08; Patent 9,475,864
Title: RESPIRATORY SYNCTIAL VIRUS (RSV) SEQUENCES FOR PROTEIN EXPRESSION AND VACCINES. UMMS09-03; Patent 8,580,270; 9,168,294
This invention discloses a sequence of efficient cleavage point of F protein, of the respiratory syncytial virus (RSV) that causes infection. The cDNA has an optimized codon of F protein, which may be useful for developing a more effective RSV vaccine.
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Title: Use of Cathepsin B Inhibitors for the Treatment of IL-1 Related Diseases. UMMS08-51; Patent Pending.
This innovation describes detailed mechanisms of how immune cells recognize microorganisms (non-self) from host (self). The cytoplasmic receptor complex NALP3 inflammasome has been found to react to a variety of crystals such as silica crystals or cholesterol crystals, all of which were found to require phagocytosis for activation. By inhibiting phagosomal acidification, the inventors were able to prevent activation of NALP3 in the presence of the crystal activators. Understanding these mechanisms may be valuable to research into IL-1 related diseases of sterile inflammation including atherlosclerosis, amyloidosis, Alzheimer silicosis, asbestosis and others.
Title: Monoclonal Antibody Producing Cell Lines called 2C3-like Cell Lines and the 2C3-like Antibodies that They Produce. UMMS08-34; Patent Pending.
This new invention spans from the discovery of novel antibodies and an antigen binding fragment that that bind surface membrane proteins of Neisseria species (e.g. N. gonorrhoeae and N. meningitidis). This invention can be applied to diagnostic, therapeutic, and potentially preventative methods for managing Neisseria infections.
Title: Use of TRAIL Protein as Antiviral Agent. UMMS08-01; Patent Pending.
This new invention discloses an antiviral molecule, TRAIL, which reduces cellular antiviral effects, and may provide an opportunity for treatment of RNA virus infection. Blocking of TRAIL significantly reduces cellular antiviral effects, thus the invention proposes the use of TRAIL as therapy to reduce viral burden.