The invention provides cellular compositions that contain CD34.sup.+ cells derived from bone marrow of a decease donor and CD3.sup.+ cells derived from non-bone marrow of the deceased donor. The compositions are useful to promote mixed chimerism in recipients of solid organ transplants. The invention also provides methods of making and using such compositions. In certain embodiments, the invention further provides methods of analyzing and preparing blood and blood components from a deceased donor for use in compositions of the invention to promote mixed chimerism in solid organ transplant recipients.

Disclosed herein are in vitro methods of making splanchnic mesoderm cell types and subtypes thereof from pluripotent cells. These methods can be used to produced improved foregut- and hindgut-derived organoids containing enriched mesenchyme, which enhances organoid viability, growth, and maturation, both in in vitro culture and in vivo transplantation.

The invention provides that OSTERIX (a.k.a. SP7) is a marker for gastrointestinal stem cells and that OSTERIX is expressed widely and at elevated levels in human gastrointestinal tumors.

The present application describes a method of culturing, expanding or growing stem or stem-like cells or induced pluripotent stem cells on a surface, including attaching the cells to the surface through a ligand that binds to the surface and the cells.

This invention relates to brown adipose tissue (BAT) progenitor cells and methods for isolating BAT progenitor cells from skeletal muscle. BAT progenitor cell surface markers and medium and agents for inducing cell differentiation into brown adipocytes are also provided. In some embodiments, the BAT progenitor cell expresses a first cell surface marker associated with endothelial cells, the first cell surface marker being detectable in an antibody based assay using a first antibody. In addition, the BAT progenitor cell can be substantially free of a second cell surface marker associated with endothelial cells, the second cell surface marker being substantially undetectable in said antibody based assay using a second antibody. The BAT progenitor cell can also be substantially free of additional cell surface markers.

An object of the present invention is to provide highly proliferative mesenchymal stem cells (MSCs) useful for the large-scale and rapid production of a cell preparation, and a cell population comprising the mesenchymal stem cells. According to the present invention, there is provided a cell population comprising mesenchymal stem cells derived from the fetal appendage, wherein, in the cell population, the proportion of CD105.sup.+ mesenchymal stem cells is 50% or more, the proportion of CD200.sup.+ mesenchymal stem cells is less than 10%, and the proportion of CD106.sup.+ mesenchymal stem cells is less than 5%.

The present application relates to a marker gene for detecting the proliferative ability of stem cells and uses thereof, and provides a marker detection composition for detecting the proliferative ability of stem cells, a kit for detecting the proliferative ability of stem cells, and a composition for improving the proliferative ability of stem cells, etc. According to the composition or method according to an aspect, stem cells having a high proliferative ability may be easily selected, and the proliferative ability of stern cells may be significantly improved.

Disclosed herein include embodiments of a system, a device, and a method for sorting a plurality cells of a sample. A plurality of raw images comprising pixels of complex values in a frequency space can be generated from a plurality of channels of fluorescence intensity data of fluorescence emissions of fluorophores, the fluorescence emissions being elicited by fluorescence imaging using radiofrequency-multiplexed excitation in a temporal space. Spectral unmixing can be performed on the raw images prior to a sorting decision being made.

The invention relates to methods of generating hepatic cells by overexpressing combinations of transcription factors, in particular for use in cellular reprogramming methods.

This disclosure describes, in one aspect, a method for identifying β-glucan binding to immune cells of a subject. Generally, the method includes obtaining a blood sample from the subject, the blood sample comprising immune cells, adding soluble β-glucan to at least a portion of the blood sample and incubating the mixture under conditions allowing the soluble β-glucan to bind to the immune cells, and detecting soluble β-glucan hound to the immune cells. In another aspect, this disclosure describes a method that generally includes identifying the subject as a low binder of β-glucan, and co-administering to the subject a soluble β-glucan and an antibody preparation capable of converting the subject from a low binder to a high binder.