The presently disclosed subject matter relates generally to the delivery of electrical stimuli via cell-penetrating nanoelectrodes. Such electrical stimuli leads to differentiation of cells, including but not limited to adipose derived stem cells, to neural lineage, specifically to neural cells.

In related-art methods of differentiating pluripotent stem cells into a desired cell type, there has not been established a differentiation induction method using human ES/iPS cells and being stable and highly efficient. The use of complicated culture steps is a large problem. In addition, there are also large problems in, for example, that the speed of cell differentiation is low, and hence long-period culture is required, and that the differentiation efficiency is low, and hence it is difficult to obtain a sufficient number of required cells. A method of inducing differentiation into a desired cell type, which induces differentiation within a short period of time and with high efficiency by the use of a Sendai virus vector capable of expressing a transcription factor, and as required, the use of a pluripotent stem cell in which an expression amount of a POU5F1 protein has been substantially removed or reduced, is provided.

The present invention provides an isolated nucleic acid molecule comprising, or consisting of, the nucleic acid sequence of SEQ ID NO:1 or a nucleic acid sequence of at least 350 bp having at least 80% identity to said sequence of SEQ ID NO:1, and related uses, wherein said isolated nucleic acid molecule specifically leads to the expression in retinal ganglion cells of a gene when operatively linked to a nucleic acid sequence coding for said gene.

Techniques Nuc-seq, Div-Seq, and Dronc-Seq are allow for unbiased analysis of any complex tissue. Nuc-Seq, a scalable single nucleus RNA-Seq method, can sensitively identify closely related cell types, including within the adult hippocampus. Div-seq combines Nuc-Seq with EdU-mediated labeling of proliferating cells, allowing tracking of transcriptional dynamics of newborn neurons in an adult neurogenic region in the hippocampus. Dronc-Seq uses a microfluidic device to co-encapsulate individual nuclei in reverse emulsion aqueous droplets in an oil medium together with one uniquely barcoded mRNA-capture bead.

Provided are a composition and a kit for differentiation of stem cells into neural progenitor cells (NPCs), each including a protein kinase C (PKC) inhibitor and a bone morphogenic protein (BMP) inhibitor, and a method using the same. Accordingly, stem cells may be efficiently differentiated into neural progenitor cells using a simple, low-cost composition.

The present invention provides a method of producing more mature telencephalon or a progenitor tissue thereof, in vitro, from mammalian pluripotent stem cells, comprising obtaining a telencephalon marker-positive aggregate by culturing an aggregate of pluripotent stem cells in suspension in the presence of a Wnt signal inhibitor and a TGFβ signal inhibitor, and further culturing the telencephalon marker-positive aggregate in suspension under a high oxygen partial pressure condition. In one embodiment, the suspension culture under a high oxygen partial pressure condition is performed in the presence of a Wnt signal enhancer and a bone morphogenetic factor signal transduction pathway activating substance.

Provided are a recombinant polynucleotide encoding a polypeptide including a reporter moiety, a substrate moiety, and a destabilization moiety, a host cell including the same, and use thereof to measure the level of a protease by using the recombinant polynucleotide.

Described herein are methods, compositions, and kits for directed differentiation of human pluripotent stem cells into caudal lateral epiblasts, posterior neuroectoderm or posterior neuroepithelium, or motor neurons having specified HOX gene expression pattern mirroring a desired position along the rostral-caudal axis during hindbrain and spinal cord development. Also described are isolated populations of cells including caudal lateral epiblasts, posterior neuroectoderm, posterior neuroepithelium, or motor neurons having a HOX gene expression pattern specified to correspond to the HOX gene expression pattern associated with a desired rostral-caudal axis position.

Provided are methods and compositions from reprogramming human glial cells into human neurons. The reprogramming is achieved using combinations of compounds that can modify signaling via Transforming growth factor beta (TGF-β), Bone morphogenetic protein (BMP), glycogen synthase kinase 3 (GSK-3), and γ-secretase/Notch pathways. The reprogramming is demonstrated using groups of three or four compounds that are chosen from the group thiazovivin, LDN193189, SB431542, TTNPB, CHIR99021, DAPT, VPA, SAG; purmorphamine. Reprogramming is demonstrated using the group of LDN193189/CHIR99021/DAPT, the group of B431542/CHIR99021/DAPT, the group of LDN193189/DAPT/SB431542, the group of LDN193189/CHIR99021/SB431542, a three drug combination of SB431542/CHIR99021/DAPT. Reprogramming using functional analogs of the compounds is also provided, as are pharmaceutical formulations that contain the drug combinations.

Disclosed herein are Htt repressors and methods and compositions for use of these Htt repressors.