Abstract: There are disclosed compositions for achieving reverse phase characteristics, methods of preparation thereof, and the use of amniotic tissue for cartilage repair. In an embodiment, a biocompatible articular tissue repair composition may have a therapeutic material and a carrier configured for achieving reverse phase characteristics, and methods for using the composition. In various embodiments, the therapeutic material may be amniotic tissue. In various embodiments, the carrier may be a poloxamer such as poloxamer 407. Other embodiments are also disclosed.

Abstract: There are disclosed compositions for achieving reverse phase characteristics, methods of preparation thereof, and the use of amniotic tissue for cartilage repair. In an embodiment, a biocompatible articular tissue repair composition may have a therapeutic material and a carrier configured for achieving reverse phase characteristics, and methods for using the composition. In various embodiments, the therapeutic material may be amniotic tissue. In various embodiments, the carrier may be a poloxamer such as poloxamer 407. Other embodiments are also disclosed.

Abstract: There are disclosed compositions for achieving reverse phase characteristics, methods of preparation thereof, and the use of amniotic tissue for cartilage repair. In an embodiment, a biocompatible articular tissue repair composition may have a therapeutic material and a carrier configured for achieving reverse phase characteristics, and methods for using the composition. In various embodiments, the therapeutic material may be amniotic tissue. In various embodiments, the carrier may be a poloxamer such as poloxamer 407. Other embodiments are also disclosed.

Abstract: There is disclosed a synthetic, composite graft to support robust bone growth. In an embodiment, the synthetic, composite graft includes a synthetic scaffold material including a material resorbable through natural cellular processes; a signaling factor combined with the scaffold material; a cell adherence factor coated on the scaffold material; a quantity of viable bone forming cells adhered to the scaffold; and a matrix substrate binding the scaffold material. There is disclosed a method of forming a synthetic, composite graft to support bone growth for bone grafting. In one embodiment, the method includes providing a synthetic scaffold material including a material resorbable through natural cellular processes; combining a signaling factor with the scaffold material; coating a cell adherence factor on the scaffold material; adhering a quantity of viable bone forming cells to the scaffold; and encasing the scaffold material with a matrix substrate. Other embodiments are also disclosed.

Abstract: Embodiments of the present invention encompass graft assemblies, and methods for their use and manufacture. An exemplary bone graft assembly includes first and second bone pieces having respective mating features which, when combined, define non-uniform press fit. Related embodiments encompass graft assemblies having enclosed or hidden mating features.

Abstract: Embodiments of the present invention encompass graft assemblies, and methods for their use and manufacture. An exemplary bone graft assembly includes first and second bone pieces having respective mating features which, when combined, define non-uniform press fit. Related embodiments encompass graft assemblies having enclosed or hidden mating features.

Abstract: Embodiments of the present invention encompass graft assemblies, and methods for their use and manufacture. An exemplary bone graft assembly includes first and second bone pieces having respective mating features which, when combined, define non-uniform press fit. Related embodiments encompass graft assemblies having enclosed or hidden mating features.

Abstract: A tilt mechanism for pivoting a vehicle body panel relative to a vehicle chassis includes a pivot pin having a pivot pin axis. The pivot pin provides a single-point pivot attachment of the body panel to the chassis such that the body panel can articulate about the pivot pin axis relative to the chassis. A support member pivotably connects to the chassis about the pivot pin axis by the pivot pin. The support member has a tilt axis along a longitudinal extent of the support member. The tilt axis is perpendicular to the pivot pin axis. The support member supports the vehicle body panel weight through a pivotal connection between a support member end and the body panel. The pivotal connection allows the body panel to pivot relative to the chassis about the tilt axis via a bearing. A torsion bar is within the support member. One portion of the torsion bar is secured to the support member and another portion is secured to the body panel by a slot that receives a torsion bar end.

Abstract: An assembly for mounting a leaf spring suspension system to a vehicle. The assembly includes an arrangement of a plurality of shackles that movably secure at least a rear portion of a leaf spring, which carries an axle of the vehicle, to a frame of the vehicle.