Women's & Reproductive Health

Includes technologies from the women’s and reproductive health spaces including infertility, contraception, gynecological disorders as well as female-specific cancers like ovarian, uterine, and breast.
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Life Science Research Tool
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Established in a controlled laboratory environment with rigorous consent protocols, it has been meticulously developed to serve as an effective in vitro platform for studying breast cancer biology and therapeutic responses.
This tool has gained recognition in prominent scientific forums and is being shared with the broader research community through established agreements, enhancing collaborative efforts to advance treatment strategies for breast cancer.
- Addresses a critical gap in available breast cancer research models, particularly for ER-negative ILC.
These patient-derived novel cell lines have the potential to identify therapeutic targets in ovarian cancer.
Using tissue from different high-grade serous epithelial ovarian cancer (EOC) patients, four unique antibody secreting plasma cell lines were isolated.
C19MCs are normally only expressed in the placenta during pregnancy, but abnormal expression has been associated with rare forms of cancers, particularly pediatric brain tumors.
Further research could build on this discovery to develop blood-based diagnostics of pregnancy complication related to placental dysfunction.
Researchers at Pitt have developed a pain-enabled in vitro system to study pain mechanisms and develop treatments specifically related to osteoarthritis (OA) and its associated pain.
This technology involves a collection of patient-derived breast cancer models developed from freshly isolated tumor tissues obtained within 60 minutes post-surgery.
This approach is differentiated by its rapid tissue procurement process and meticulous adherence to protocols that capture the intrinsic complexity of breast cancer.
- Provides a robust preclinical model that offers enhanced phenotypic fidelity compared to conventional breast cancer cell lines.
The technology involves a genetically engineered MCF-7 breast cancer cell line that has been modified to overexpress the Pin1 protein, a key peptidyl-prolyl cis/trans isomerase important for cell cycle regulation.
This cell model facilitates detailed investigations into the cellular mechanisms governing breast cancer progression and provides a platform for screening compounds that might affect cell cycle dynamics.
- Preclinical assay platform. - Target validation studies. - Breast cancer research tool. Advantages. - Provides a reliable in vitro model to study the role of Pin1 in breast cancer and cell cycle regulation.
• Exploration of new therapeutic strategies for ovarian cancer.
Researchers at the University of Pittsburgh have developed a collection of novel murine ovarian cancer cell lines with defined genetic mutations.
Unlike existing models, these cell lines are derived from primary ovarian tumors, providing a more accurate representation of human ovarian cancer for preclinical studies and therapeutic development.
The innovators generated a transgenic DBA/2 mouse that expresses a reporter gene, enhanced green fluorescence protein (EGFP), ubiquitously.
The innovators generated a transgenic rat that expresses a reporter gene, enhanced green fluorescence protein (EGFP), specifically in the germline of male and female rats under the control of the Vasa (Ddx4) gene promoter.
Dr. Khillan and colleagues have established a unique line of putative Cancer Stem Cells (CSCs) from a mouse mammary tumor which exhibit the typical properties of stem cells such as growth as multi cellular three dimensional colonies, absence of contact inhibition, alkaline phosphates staining and continuous self renewal capability.
This disclosure involves the use of the cre/lox mouse knockout system to produce a fetal specific knockout in order to study the fetal signaling during pregnancy.
High 15-LO-1 activity is observed in multiple forms of cancers (prostate, skin, lung, pancreatic, colorectal and breast), as well as in diseases such as glomerulonephritis (kidney), atherosclerosis (heart), arthritis (bone), Alzheimer's (brain) and osteoporosis (bone).
The inventors have determined that altering/inhibiting the 15-LO-1 enzyme activity in tissues will help identify individuals that respond to therapeutic interventions (directed against specific diseases) ranging from abnormal cell growth (cancer/osteoporosis) and/or immune/inflammatory response (arthritis, kidney disease, infarction).
    • Technology Type
      • 39
        Therapeutic Modality
      • 13
        Diagnostic/Assay
      • 12
        Life Science Research Tool
      • 8
        Medical Device
      • 3
        Engineering Technology
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    • Technology Subtype
      • 5
        Animal Model
      • 5
        Cell Line
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    • Therapeutic Areas
      • 6
        Oncology
      • 4
        Reproductive Health
      • 1
        Immunology
      • 1
        Musculoskeletal
      • 1
        Neuroscience
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    • Therapeutic Indications
      • 3
        Breast cancer
      • 2
        Male genitourinary
      • 2
        Obstetrics
      • 2
        Ovarian cancer
      • 1
        Inflammation - General
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    • Tags
      • 1
        Women's Health
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    • Lead Inventor
      • 2
        Anda Vlad
      • 2
        Kyle Orwig
      • 1
        Adrian Lee
      • 1
        Hang Lin
      • 1
        Jaspal Khillan
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    • Department
      • 6
        Med-OB-Gyn & Reproductive Science
      • 3
        Med-Pharmacology and Chemical Biology
      • 1
        Med-Immunology
      • 1
        Med-Medicine
      • 1
        Med-Orthopedic Surgery
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    • All Tech Innovators
      • 2
        Adrian Vincent Lee
      • 2
        Anda Mioara Vlad
      • 2
        Kyle E. Orwig
      • 2
        Lixin Zhang
      • 2
        Yi Sheng
      • Add ...
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