The anatomic and functional arrangement of the gastrointestinal tract suggests an important function of this organ is its ability to regulate the trafficking of metabolites as well as control the equilibrium between tolerance and immunity through gut-associated lymphoid tissue, the neuroendocrine network, and the intestinal epithelial barrier. Combining nucleated cells from various tissues and introducing them directly into the small intestine will have a positive effect on diabetes.

Various cells, stem cells, and stem cell components, including associated methods of generating and using such cells are provided. In one aspect, for example, an isolated cell that is capable of self-renewal and culture expansion and is obtained from a subepithelial layer of a mammalian umbilical cord tissue. Such an isolated cell expresses at least three cell markers selected from CD29, CD73, CD90, CD166, SSEA4, CD9, CD44, CD146, or CD105, and does not express at least three cell markers selected from CD45, CD34, CD14, CD79, CD106, CD86, CD80, CD19, CD117, Stro-1, or HLA-DR.

A method of culturing adherent cells from a placenta or adipose tissue is disclosed. The method comprises culturing the adherent cells from the placenta or adipose tissue under 3 dimensional (3D) culturing conditions which allow cell expansion, the conditions comprising perfusion.

The specification relates to a method of manufacturing a diabetic foot patient-specific skin regeneration sheet, and a diabetic foot patient-specific skin regeneration sheet.

An enriched population of connective tissue cells that are capable of anchorage-independent growth are provided. Compositions comprising those cells, as well as methods of producing those cells are also provided.

The present invention has developed methods and compositions utilizing the cell surface CD107a (LAMP-1) as a marker that divides bone-forming and fat-forming progenitor/stem cells within human adipose tissue. The present invention is able to partition stromal progenitors for improved bone and soft tissue engineering and therapies.

Methods for producing an antibody or an antigen-binding fragment thereof specifically binding to an antigen of interest, methods for inducing proliferation of PBMCs, B cell activation and differentiation, B cell maturation, and/or promoting class switch in an antibody-producing PBMC to produce IgG, compositions for the in vitro immunization and methods for identifying an antibody-enhancing factor for in vitro immunization.

The present disclosure provides methods of producing a preparation of fibroadipogenic progenitors (FAPs) from a cell mixture. In certain embodiments, the present disclosure provides a method of producing a preparation of human FAPs from a skeletal muscle biopsy sample for later use.

A device for mechanical fragmentation of tissues facilitates preparation of the composition of isolated cells from a tissue sample, the preparation including mechanical fragmentation of the tissue, the device including a motorized support and a container, the motorized support including a motor having a rotor secured to a coupling member, the container internally including a rotary shaft with radial arms sweeping the inside of the container as the shaft rotates, the motorized support and the container including a complementary securing unit that allow the container to be immobilized on the motorized support, the coupling member and the rotary shaft being configured in such a way as to allow axial rotation of the rotary shaft when the rotor of the motor is turning. The radial arms are of two types: rigid vane-type arms, and flexible filamentary-type arms, notably made of nylon or of metal. A corresponding method is also disclosed.

Methods and devices are disclosed for processing stromal precursor cells (i.e., cells which can differentiate into connective tissue cells, such as in muscles, ligaments, or tendons) which can be obtained from fatty tissue extracts obtained via liposuction. Normal processing of a liposuction extract involves centrifugation, to concentrate the stromal cells into a semi-concentrated form called “spun fat”. That “spun fat” can then be treated by mechanical processing (such as pressure-driven extrusion through 0.5 mm holes) under conditions which can gently pry the stromal cells away from extra-cellular collagen fibers and other debris in the “spun fat”. The extruded mixture is then centrifuged again, to separate a highly-enriched population of stromal cells which is suited for injection back into the patient (along with platelet cells, if desired, to further promote tissue repair or regeneration).