Abstract: Disclosed herein are various bioreactor devices and systems for growing cellular material, and related methods of growing cellular material. In some cases, a system can include a well plate having a plurality of wells and a bioreactor situated in each well of the well plate. In some cases, a bioreactor can include an inner body which divides the bioreactor into several distinct chambers and facilitates the growth of a multi-tissue sample in the bioreactor. In some cases, a system can include a mechanical actuator situated to mechanically stress tissues grown in a bioreactor.

Abstract: Disclosed herein are various bioreactor devices and systems for growing cellular material, and related methods of growing cellular material. In some cases, a system can include a well plate having a plurality of wells and a bioreactor situated in each well of the well plate. In some cases, a bioreactor can include an inner body which divides the bioreactor into several distinct chambers and facilitates the growth of a multi-tissue sample in the bioreactor. In some cases, a system can include a mechanical actuator situated to mechanically stress tissues grown in a bioreactor.

Abstract: Methods for inhibiting tissue ossification or calcification in a subject, comprising administering a therapeutically effective amount of BMP I inhibitor-loaded microparticles to a subject in need thereof, wherein the administration provides local and sustained release of the BMP I inhibitor thereby inhibiting tissue ossification or calcification.

Abstract: The present invention provides microparticles that induce the migration of multipotent stem cells to the anatomical site of the microparticles. Various release profiles are demonstrated that depend upon the relative concentration of alginate in the chemokine-loaded microparticle. Local administration and/or intraarticular injection of the microparticles are useful in conditions such as osteoarthritis. Targeted systemic delivery of the alginate chemokine microparticles to distant anatomical sites subjected to autoimmune disease symptomology can be performed by encapsulation within liposomes having targeting ligands. Consequently, upon the creation of the appropriate chemokine gradient, multipotent stem cells will migrate to the distant anatomical site where the liposomes are attached.

Abstract: Disclosed herein are various bioreactor devices and systems for growing cellular material, and related methods of growing cellular material. In some cases, a system can include a bioreactor system having one or more wells with at least one fluidic passageway coupled to each well to feed fluids to biological material being developed inside the well. In some cases, a bioreactor system can include a main body comprising the perimeter of the well and the fluidic passageways, a cover that forms the top of the well and provides optical access into the well, and a base that forms the bottom surface of the well. The cover and base can be attached and detached from the main body to seal the well closed and to physically access the contents of the well.

Abstract: The present invention provides microparticles that induce the migration of multipotent stem cells to the anatomical site of the microparticles. Various release profiles are demonstrated that depend upon the relative concentration of alginate in the chemokine-loaded microparticle. Local administration and/or intraarticular injection of the microparticles are useful in conditions such as osteoarthritis. Targeted systemic delivery of the alginate chemokine microparticles to distant anatomical sites subjected to autoimmune disease symptomology can be performed by encapsulation within liposomes having targeting ligands. Consequently, upon the creation of the appropriate chemokine gradient, multipotent stem cells will migrate to the distant anatomical site where the liposomes are attached.

Abstract: Disclosed herein are various bioreactor devices and systems for growing cellular material, and related methods of growing cellular material. In some cases, a system can include a well plate having a plurality of wells and a bioreactor situated in each well of the well plate. In some cases, a bioreactor can include an inner body which divides the bioreactor into several distinct chambers and facilitates the growth of a multi-tissue sample in the bioreactor. In some cases, a system can include a mechanical actuator situated to mechanically stress tissues grown in a bioreactor.

Abstract: Disclosed herein are various bioreactor devices and systems for growing cellular material, and related methods of growing cellular material. In some cases, a system can include a well plate having a plurality of wells and a bioreactor situated in each well of the well plate. In some cases, a bioreactor can include an inner body which divides the bioreactor into several distinct chambers and facilitates the growth of a multi-tissue sample in the bioreactor. In some cases, a system can include a mechanical actuator situated to mechanically stress tissues grown in a bioreactor.

Abstract: Disclosed mechanical stimulator systems can maintain the sterility of biological samples within a multi-well plate while mechanically stimulating the samples. The systems disclosed herein allow for the individual activation by mechanical compression of a high number of samples at the same time, while maintaining sterility of the samples. The well plates, guides, actuations pistons, and other components of the disclosed systems can be configured to be contained in or adjacent to an incubator that can control properties such as gas levels and temperature while at the same time allowing for the mechanical actuation of the biological samples.

Abstract: The present invention provides microparticles that induce the migration of multipotent stem cells to the anatomical site of the microparticles. Various release profiles are demonstrated that depend upon the relative concentration of alginate in the chemokine-loaded microparticle. Local administration and/or intraarticular injection of the microparticles are useful in conditions such as osteoarthritis. Targeted systemic delivery of the alginate chemokine microparticles to distant anatomical sites subjected to autoimmune disease symptomology can be performed by encapsulation within liposomes having targeting ligands. Consequently, upon the creation of the appropriate chemokine gradient, multipotent stem cells will migrate to the distant anatomical site where the liposomes are attached.

Abstract: Methods for inhibiting tissue ossification or calcification in a subject, comprising administering a therapeutically effective amount of BMP I inhibitor-loaded microparticles to a subject in need thereof, wherein the administration provides local and sustained release of the BMP I inhibitor thereby inhibiting tissue ossification or calcification.

Abstract: Disclosed herein are various bioreactor devices and systems for growing cellular material, and related methods of growing cellular material. In some cases, a system can include a bioreactor system having one or more wells with at least one fluidic passageway coupled to each well to feed fluids to biological material being developed inside the well. In some cases, a bioreactor system can include a main body comprising the perimeter of the well and the fluidic passageways, a cover that forms the top of the well and provides optical access into the well, and a base that forms the bottom surface of the well. The cover and base can be attached and detached from the main body to seal the well closed and to physically access the contents of the well.

Abstract: The present invention provides microparticles that deliver in vivo predictable release profiles of at least one chemokine to create a biomimetic chemokine concentration gradient that induces the migration of multipotent stem cells to the anatomical site of the microparticles. Various release profiles are demonstrated that depend upon the relative concentration of alginate in the chemokine-loaded microparticle. Local administration and/or intraarticular injection of the microparticles are useful in conditions such as osteoarthritis. Targeted systemic delivery of the alginate chemokine microparticles to distant anatomical sites subjected to autoimmune disease symptomology can be performed by encapsulation within liposomes having targeting ligands. Consequently, upon the creation of the appropriate chemokine gradient, multipotent stem cells will migrate to the distant anatomical site where the liposomes are attached.

Abstract: Methods for inhibiting tissue ossification or calcification in a subject, comprising administering a therapeutically effective amount of BMP I inhibitor-loaded microparticles to a subject in need thereof, wherein the administration provides local and sustained release of the BMP I inhibitor thereby inhibiting tissue ossification or calcification.

Abstract: Methods for inhibiting tissue ossification or calcification in a subject, comprising administering a therapeutically effective amount of BMP I inhibitor-loaded microparticles to a subject in need thereof, wherein the administration provides local and sustained release of the BMP I inhibitor thereby inhibiting tissue ossification or calcification.

Abstract: Disclosed herein are various bioreactor devices and systems for growing cellular material, and related methods of growing cellular material. In some cases, a system can include a well plate having a plurality of wells and a bioreactor situated in each well of the well plate. In some cases, a bioreactor can include an inner body which divides the bioreactor into several distinct chambers and facilitates the growth of a multi-tissue sample in the bioreactor. In some cases, a system can include a mechanical actuator situated to mechanically stress tissues grown in a bioreactor.

Abstract: The present invention provides microparticles that deliver in vivo predictable release profiles of at least one chemokine to create a biomimetic chemokine concentration gradient that induces the migration of multipotent stem cells to the anatomical site of the microparticles. Various release profiles are demonstrated that depend upon the relative concentration of alginate in the chemokine-loaded microparticle. Local administration and/or intraarticular injection of the microparticles are useful in conditions such as osteoarthritis. Targeted systemic delivery of the alginate chemokine microparticles to distant anatomical sites subjected to autoimmune disease symptomology can be performed by encapsulation within liposomes having targeting ligands. Consequently, upon the creation of the appropriate chemokine gradient, multipotent stem cells will migrate to the distant anatomical site where the liposomes are attached.

Abstract: The invention relates to a device having a bottom, side walls and a ceiling, which together define a channel, as well as transportation means, extending in an axial direction of said channel from an entry port of the channel to an exit port of said channel, for transferring a metallurgical material from said entry port to said exit port.