Automatic System and Method for Tissue Sectioning, Staining, and Scanning
Summary:
The NCI is seeking licensees to develop an automated digital pathology device compatible with high-throughput data analysis.
The NCI is seeking licensees to develop an automated digital pathology device compatible with high-throughput data analysis.
The NIA seeks co-development partners and/or licensees for the further pre-clinical and clinical development of TTI-101, hydroxychloroquine, and Dasatinib to treat Alzheimer’s disease.
The Eunice Kennedy Shriver National Institute of Child Health and Human Development (NICHD) seeks research co-development partners and/or licensees for the development of tamper-less tensor elastography imaging in assessing disease (e.g., cancer), normal and abnormal developmental processes, degeneration and trauma in the brain and other soft tissues, and other applications.
The NCI seeks licensees for this technology who are interested in using NCINM, including their implementation within existing commercial solutions for patient dose monitoring. Applications of the NCINM program include computation of absorbed doses for use in radiation epidemiologic studies and patient dose monitoring in nuclear medicine.
The Transforming Growth Factor Beta (TGF-ß) ligands (i.e., TGF-ß1, -ß2, -ß3) are key regulatory proteins in animal physiology. Disruption of normal TGF-ß signaling is associated with many diseases from cancer to fibrosis. In mice and humans, TGF-ß activates TGF-ß receptors (e.g., TGFBR1), which activates SMAD proteins that alter gene expression and contribute to tumorigenesis. Reliable animal models are essential for the study of TGF-ß signaling.
The NCI seeks research co-development partners and/or licensees for a selective polylysine succinylated (PLS) drug delivery platform.
The NCI is seeking licensees to develop an automated digital pathology device compatible with high-throughput data analysis.
The NICHD is seeking licensees for development of Carboxypeptidase E (CPE) as a therapy for MCI or AD.
Current therapies for glioblastoma multiforme (GBM), the highest grade malignant brain tumor, are mostly ineffective, and better preclinical model systems are needed to increase the successful translation of drug discovery efforts into the clinic. Scientists at the National Cancer Institute (NCI) have developed and characterized an orthotopic genetically engineered mouse (GEM)-derived model of GBM that closely recapitulates various human GBM subtypes and is useful for preclinical evaluation of candidate therapeutics.
Rhabdomyosarcoma (RMS) is the most common type of soft tissue sarcoma in children and makes up 3% of all childhood cancers. Aveloar Rhabdomyosarcoma is the most aggressive subtype and is primarily established through a chromosomal translocation resulting in the fusion protein PAX3-FOXO1. Despite aggressive therapy, the 5-year survival rate for patients with high risk or recurrent Fusion Positive RMS (FP-RMS) is low (~30% and ~17%, respectively). Therefore, new therapies targeting the PAX3-FOXO1 oncogenic driver are urgently needed.