Abstract: A tissue storage solution includes hypothermic storage compositions and methods. The hypothermic storage composition includes media containing Dulbecco's modified Eagle's medium (DMEM) and albumin. A method of hypothermically storing tissue includes storing such tissue in a storage medium including DMEM and albumin. A method for wound or defect treatment includes applying tissue, stored in a hypothermic storage medium containing DMEM and albumin, to the site of such wound or defect.

Abstract: A method for treating cartilage defects including providing a placental membrane preparation that comprises ground or minced placental membranes and optionally, a ground or minced cartilage and/or biocompatible glue, and introducing the preparation to a cartilage defect within a skeletal joint. The cartilage defect may comprise a hyaline cartilage defect, such as a chondral defect, or meniscal defect. The treatment may be provided in combination with other treatments such as marrow stimulation treatments and surgical repair treatments using sutures or other fixation techniques. The preparation promotes the regeneration of cartilage within the skeletal joint.

Abstract: A method for treating cartilage defects including providing a placental membrane preparation that includes ground or minced placental membranes and optionally, a ground or minced cartilage and/or biocompatible glue, and introducing the preparation to a cartilage defect within a skeletal joint. The cartilage defect may include a hyaline cartilage defect, such as a chondral defect, or meniscal defect. The treatment may be provided in combination with other treatments such as marrow stimulation treatments and surgical repair treatments using sutures or other fixation techniques. The preparation promotes the regeneration of cartilage within the skeletal joint.

Abstract: The present disclosure generally pertains to methods of treating non-healing wounds. Specifically, the method includes injecting amnion fluid derived cells along the periphery of the wound. The wound is then treated with a placental membrane material including a plurality of slits for increasing the membranes capacity to expand. The slits produce a mesh-like pattern in the membrane material. The amniotic derived cells deliver to the wound electrolytes, growth factors, carbohydrates, lipids, proteins, amino acids, lactate, pyruvate, enzymes, hormones and other factors useful in wound repair. The membrane material provides a scaffolding structure supporting cell growth, prevents microbial infection and decreases the rate of passive evaporative water and heat loss. The combination of the amniotic derived cells and the membrane material protects the wound and promotes cell regeneration.

Abstract: Preparations containing hepatocyte growth factor (HGF) and hyaluronic acid (HA) and methods of making and using same. The HGF and HA preparations can be prepared together in solution as an injectable fluid without gelatinization, or impregnated within a porous hydrophilic matrix material with, or without, cross-linking of the HA with the matrix material. The preparations can be used as a dermal filler or to generate and promote healing of cartilage, vertebral discs, connective tissues such as tendons and ligaments and bone in vivo.

Abstract: Diagnostic tests and methods to assess the characteristics of a patient's native stem cell populations. A reference cell source may be selected for testing, to determine the relative health and potency of the cell population derived from that cell source based on standardized testing protocols, and to use the results to evaluate the systemic stem cell health status of the patient across the many different cell populations residing in different tissues in the body.

Abstract: A method and devices for placing spinal implants including placing the implants completely within a spaced defined between adjacent vertebral bodies where the implants are supported by the cortical bone of the vertebral bodies. An insertion instrument places the implants in pairs with a variable-sized space placed in between. The implants are made of a biocompatible material and are particularly suited for anterior lumbar interbody fusion surgery. The spinal implants used to facilitate spinal fusion, correct deformities, stabilize and strengthen the spine.

Abstract: The present invention relates to the isolation, propagation and use of prenatal stem cells. The cells are CD105 negative. In certain embodiments the cells are also SSEA-4 positive or negative, and c-kit negative. The cells may be isolated from a prenatal sample, for instance third trimester amniotic fluid or placental membrane. The cells may be combined with a biologically compatible solution or a biologically compatible matrix and utilized to treat a human subject. The invention also contemplated enriched populations of prenatal stem cells. The enriched cell population may be propagated in the appropriate culture medium and the resulting progeny cells utilized therapeutic applications.

Abstract: This disclosure relates to placental membrane preparations and the methods of preparing and using thereof. In some embodiments, the disclosure relates to a placental membrane preparation. In some embodiments, the disclosure relates to methods of producing a placental membrane preparation. In some embodiments, the disclosure relates to methods of treating cartilage using placental membrane preparations.

Abstract: Preparations containing hepatocyte growth factor (HGF) and hyaluronic acid (HA) and methods of making and using same. The HGF and HA preparations can be prepared together in solution as an injectable fluid without gelatinization, or impregnated within a porous hydrophilic matrix material with, or without, cross-linking of the HA with the matrix material. The preparations can be used as a dermal filler or to generate and promote healing of cartilage, vertebral discs, connective tissues such as tendons and ligaments and bone in vivo.

Abstract: Implants for promoting bone growth and methods of using same, the implants including a perforated placental membrane sheet wrapped around an osteoconductive material composed of bone chips, bone granules, bone powders or combinations thereof, the osteoconductive material being configured for providing a scaffold upon which bone growth can occur. The placental membrane sheet acts to maintain the osteoconductive material in a cohesive, organized configuration within a site of a patient where bone growth is to be induced. The perforations in the placental membrane sheet create passageways in the exterior of the implant through which the osteoconductive material can communicate with adjacent bone surfaces which are to be fused.

Abstract: Preparations containing hepatocyte growth factor (HGF) and hyaluronic acid (HA) and methods of making and using same. The HGF and HA preparations can be prepared together in solution as an injectable fluid without gelatinization, or impregnated within a porous hydrophilic matrix material with, or without, cross-linking of the HA with the matrix material. The preparations can be used as a dermal filler or to generate and promote healing of cartilage, vertebral discs, connective tissues such as tendons and ligaments and bone in vivo.

Abstract: Implants for promoting bone growth and methods of using same, the implants including a perforated placental membrane sheet wrapped around an osteoconductive material composed of bone chips, bone granules, bone powders or combinations thereof, the osteoconductive material being configured for providing a scaffold upon which bone growth can occur. The placental membrane sheet acts to maintain the osteoconductive material in a cohesive, organized configuration within a site of a patient where bone growth is to be induced. The perforations in the placental membrane sheet create passageways in the exterior of the implant through which the osteoconductive material can communicate with adjacent bone surfaces which are to be fused.

Abstract: A tissue storage solution includes hypothermic storage compositions and methods. The hypothermic storage composition includes media containing Dulbecco's modified Eagle's medium (DMEM) and albumin. A method of hypothermically storing tissue includes storing such tissue in a storage medium including DMEM and albumin. A method for wound or defect treatment includes applying tissue, stored in a hypothermic storage medium containing DMEM and albumin, to the site of such wound or defect.

Abstract: A tissue storage solution includes hypothermic storage compositions and methods. The hypothermic storage composition includes media containing Dulbecco's modified Eagle's medium (DMEM) and albumin. A method of hypothermically storing tissue includes storing such tissue in a storage medium including DMEM and albumin. A method for wound or defect treatment includes applying tissue, stored in a hypothermic storage medium containing DMEM and albumin, to the site of such wound or defect.

Abstract: A tissue storage solution includes hypothermic storage compositions and methods. The hypothermic storage composition includes media containing Dulbecco's modified Eagle's medium (DMEM) and albumin. A method of hypothermically storing tissue includes storing such tissue in a storage medium including DMEM and albumin. A method for wound or defect treatment includes applying tissue, stored in a hypothermic storage medium containing DMEM and albumin, to the site of such wound or defect.

Abstract: A tissue storage solution includes hypothermic storage compositions and methods. The hypothermic storage composition includes media containing Dulbecco's modified Eagle's medium (DMEM) and albumin. A method of hypothermically storing tissue includes storing such tissue in a storage medium including DMEM and albumin. A method for wound or defect treatment includes applying tissue, stored in a hypothermic storage medium containing DMEM and albumin, to the site of such wound or defect.

Abstract: A method for treating cartilage defects including providing a placental membrane preparation that includes ground or minced placental membranes and optionally, a ground or minced cartilage and/or biocompatible glue, and introducing the preparation to a cartilage defect within a skeletal joint. The cartilage defect may include a hyaline cartilage defect, such as a chondral defect, or meniscal defect. The treatment may be provided in combination with other treatments such as marrow stimulation treatments and surgical repair treatments using sutures or other fixation techniques. The preparation promotes the regeneration of cartilage within the skeletal joint.

Abstract: A method for treating back pain by stabilizing the sacroiliac joint. The method includes fusing a sacrum bone to an ilium bone or otherwise mechanically immobilizing the sacroiliac joint by inserting at least two implants into voids formed within or between the articular surfaces of each sacroiliac joint of a patient without substantially distracting the joint. The voids are arranged within each joint at either a converging orientation or a diverging orientation. A kit containing the implants and tools required to insert the implants into the joint are also described.