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This technology includes in vitro-generated trophectoderm (TE) cells, which are ideal for modeling diseases of the placenta, drug screening, and cell-based therapies. The TE lineage which gives rise to placental cells during early human development. Derivation of definitive placental cells from human pluripotent stem cells in culture remains controversial and so far, placental cells can only be derived directly from primary placental tissue, which largely limits their access and study in the laboratory.

This technology includes rhesus macaque induced pluripotent stem cells (iPSCs) lines from multiple animals and various types of cells to establish this pre-clinical model. iPSCs are a type of pluripotent stem cell that can be generated from adult somatic cells. The iPSC technology holds great potential for regenerative medicine. Before clinical application, it is critical to evaluate safety and efficacy in a clinically-relevant animal model. We propose that non-human primate models are particularly relevant to test iPSC-based cell therapies.

This technology includes three cell lines of dopaminergic neurons derived from human induced pluripotent stem cell (iPSC) line BC1, human iPSG line X1 and human embryonic stem cell (hESC) line H14 to be utilized in neurology research. These cell lines will be used for to study the biology of brain development and may also be used to test different characterization and differentiation assays. The dopaminergic neurons and/or their derivatives may also be used as controls in studies to screen for small molecules to change cell fate and/or to alleviate the phenotypes of various diseases.

This technology includes three distinct cell lines of motor neuron progenitors, derived from different sources: human induced pluripotent stem cell (iPSC) line BC1, human iPSC line X1, and human embryonic stem cell (hESC) line H14. These cell lines hold significant potential for multiple diagnostic and therapeutic applications. A key advantage of these cell lines is the commercial availability of their starting materials (iPSC-BC1, iPSC-X1, and hESC-H14), which are not restricted in terms of usage of their derivatives.

This technology involves an innovative method for differentiating neural stem cells (NSCs) into neurons, primarily for use in basic science research and in developing therapies for brain and spinal cord disorders. Existing methods for generating neurons from NSCs typically result in high efficiency but low survival rates, especially when neurons are dissociated and regrown. This new method utilizes Life Technologies StemPro embryonic stem cell serum-free medium, which significantly enhances differentiation efficiency into neurons with minimal cell death.

This technology includes ten engineered human induced pluripotent stem cell (iPSC) lines with reported genes inserted into safe harbor sites for use in therapy and diagnostic screening assay development as well as basic stem cell biology research. These cell lines have the potential to differentiate into all cells in the body, and theoretically can proliferate/self-renew indefinitely.

This technology includes the use of engineered human induced pluripotent stem cells (iPSCs) for various applications such as studying cell differentiation, drug screening, and gene transfer therapy. It employs gene targeting donors flanked by DNA sequences compatible with endogenous loci to integrate transgenes through homologous recombination. A key aspect is the flexible gene targeting donor design, used in conjunction with safe harbor transcription activator-like effector nucleases (TALENs).

This technology includes two safe harbor gene targeting donors, specifically designed for applications in the study of induced pluripotent stem cells (iPSC). These include the pAAVS1D-CMV.RFP-EF1a.copGFPpuro and pAAVS1-iCLHN donors. A key feature of these donors is their ability to integrate various transgenes into specific loci through homologous recombination, facilitated by sequences homologous to safe harbor loci. When paired with TALENs targeting these loci, these plasmids enable precise and efficient genome engineering in human cells.

This technology includes a method for differentiating human induced pluripotent stem cells (hiPSCs) into stable chondrocytes, capable of producing cartilage, and their use in cartilage repair in human injury and degenerative diseases. In suspension culture, hiPSC aggregates demonstrate gene and protein expression patterns similar to articular cartilage.