Abstract: A bone insert includes a cap having a convex top surface, an elongated stem, and a barrier between the cap and the stem. The stem of the bone insert is inserted into a hole formed in a host bone until the barrier is pressed against the exposed bone. The bone implant can be placed against a small focus contact point on the cap. Liquid cement can be injected into a space volume between the host bone and a bone implant. The cap can be made of a material and/or have surface features that create a strong bond with the cement when the liquid cement cures. The stem can be made of a material and/or have bone ingrowth surface features that create a strong bond with the bone.

Abstract: A bone insert is provided that includes a cap having a convex top surface made from a plurality of cap micro struts, an elongated stem made from a plurality of stem micro struts, and a barrier between the cap and the stem. The stem of the bone insert is inserted into a hole formed in a host bone until the barrier is pressed against the exposed bone. The bone implant can be placed against a small focus contact point on the cap. Liquid cement can be injected into a large center hole in the cap and the cement can flow through the fenestrations between all of the cap micro struts as well as the space between the bone implant and the bone. The cement can cure to create a high strength structure that provides a strong bond between the bone implant and the host bone.

Abstract: A bone insert is provided that includes a cap having a convex top surface made from a plurality of cap micro struts, an elongated stem made from a plurality of stem micro struts, and a barrier between the cap and the stem. The stem of the bone insert is inserted into a hole formed in a host bone until the barrier is pressed against the exposed bone. The bone implant can be placed against a small focus contact point on the cap. Liquid cement can be injected into a large center hole in the cap and the cement can flow through the fenestrations between all of the cap micro struts as well as the space between the bone implant and the bone. The cement can cure to create a high strength structure that provides a strong bond between the bone implant and the host bone.

Abstract: A bone insert includes a cap having a convex top surface made from a plurality of cap micro struts, an elongated stem made from a plurality of stem micro struts, and a barrier between the cap and the stem. The stem of the bone insert is inserted into a hole formed in a host bone until the barrier is pressed against the exposed bone. The bone implant can be placed against a small focus contact point on the cap. Liquid cement can be injected into a large center hole in the cap and the cement can flow through the fenestrations between all of the cap micro struts as well as the space between the bone implant and the bone. The cement can cure to create a high strength structure that provides a strong bond between the bone implant and the host bone.

Abstract: Various embodiments disclosed relate to curable calcium phosphate compositions for use with porous structures and methods of using the same. In various embodiments, the present invention provides a curable calcium phosphate composition or a cured product thereof, with the curable calcium phosphate composition including calcium phosphate and a perfusion modifier. In various embodiments, the present invention provides an apparatus comprising a porous structure at least partially in contact with the curable calcium phosphate composition or a cured product thereof. The porous structure can include a porous substrate including a plurality of ligaments that define pores of the porous substrate, and a biocompatible metal coating on the plurality of ligaments of the porous substrate.

Abstract: Various embodiments disclosed relate to curable calcium phosphate compositions for use with porous structures and methods of using the same. In various embodiments, the present invention provides a curable calcium phosphate composition or a cured product thereof, with the curable calcium phosphate composition including calcium phosphate and a perfusion modifier. In various embodiments, the present invention provides an apparatus comprising a porous structure at least partially in contact with the curable calcium phosphate composition or a cured product thereof. The porous structure can include a porous substrate including a plurality of ligaments that define pores of the porous substrate, and a biocompatible metal coating on the plurality of ligaments of the porous substrate.

Abstract: Various different porous screws and pegs are disclosed herein, as are methods of manufacturing such porous pegs or screws. The porous screws and pegs, in certain examples, are formed through additive manufacturing and have improved porosity for bone ingrowth. In certain cases, additive manufacturing or another manufacturing technique can be used to cover only part or all of the threads of the screws or pegs disclosed herein with a porous material. Such screws or pegs can have porosity but also threads that are capable of effectively digging into bone.

Abstract: An implant and methods for use in various procedures are disclosed. According to an example of the present application, an orthopedic implant is disclosed. The implant can include a base and a body. The base can comprise a porous metal material configured to encourage bone ingrowth into the base. The body can be coupled to the base and can comprise a second material that differs from the porous metal material of the base.

Abstract: Various different porous screws and pegs are disclosed herein, as are methods of manufacturing such porous pegs or screws. The porous screws and pegs, in certain examples, are formed through additive manufacturing and have improved porosity for bone ingrowth. In certain cases, additive manufacturing or another manufacturing technique can be used to cover only part or all of the threads of the screws or pegs disclosed herein with a porous material. Such screws or pegs can have porosity but also threads that are capable of effectively digging into bone.

Abstract: A bone cement system according to the present disclosure includes a housing, a dispenser housing, a plunger, and a pressure release system. The housing has a proximal end, a distal end, and a throughbore that extends from the proximal end to the distal end. The dispenser housing is received in the throughbore and is adapted to receive bone cement. The plunger is releasably coupled to the proximal end of the housing and received into the dispenser housing so that movement of the plunger relative to the dispenser housing dispenses bone cement from the distal end of the housing. The pressure release system is coupled to the housing and includes a body that is movable within a plane perpendicular to a longitudinal axis of the housing, without translating the body along the longitudinal axis of the housing, to reduce the pressure of bone cement exiting the distal end of the housing.

Abstract: A bone cement system according to the present disclosure includes a housing, a dispenser housing, a plunger, and a pressure release system. The housing has a proximal end, a distal end, and a throughbore that extends from the proximal end to the distal end. The dispenser housing is received in the throughbore and is adapted to receive bone cement. The plunger is releasably coupled to the proximal end of the housing and received into the dispenser housing so that movement of the plunger relative to the dispenser housing dispenses bone cement from the distal end of the housing. The pressure release system is coupled to the housing and includes a body that is movable within a plane perpendicular to a longitudinal axis of the housing, without translating the body along the longitudinal axis of the housing, to reduce the pressure of bone cement exiting the distal end of the housing.

Abstract: Shapeable porous metal implants and methods for use in various procedures are disclosed. The implants can comprise a shell according to some examples. According to one example, the method can include providing a sheet of highly porous metal material having a porosity of between 55% and 90%, and wrapping the sheet of highly porous metal material around at least a first bone of the patient. Further examples can form the sheet intra-operatively to a desired shape. In an example, the porous metal sheet can be formed of tantalum or tantalum alloys.

Abstract: Shapeable porous metal implants and methods for use in various procedures are disclosed. The implants can comprise a shell according to some examples. According to one example, the method can include providing a sheet of highly porous metal material having a porosity of between 55% and 90%, and wrapping the sheet of highly porous metal material around at least a first bone of the patient. Further examples can form the sheet intra-operatively to a desired shape. In an example, the porous metal sheet can be formed of tantalum or tantalum alloys.

Abstract: A tissue resection device may include an hourglass shaped burr to resect tissue according to the shape and curvature of the hourglass shaped burr. The tissue resection device may also include a depth stop window and a movable protective guard to control the amount of cutting.

Abstract: A tissue resection device may include an hourglass shaped burr to resect tissue according to the shape and curvature of the hourglass shaped burr. The tissue resection device may also include a depth stop window and a movable protective guard to control the amount of cutting.

Abstract: Various embodiments disclosed relate to curable calcium phosphate compositions for use with porous structures and methods of using the same. In various embodiments, the present invention provides a curable calcium phosphate composition or a cured product thereof, with the curable calcium phosphate composition including calcium phosphate and a perfusion modifier. In various embodiments, the present invention provides an apparatus comprising a porous structure at least partially in contact with the curable calcium phosphate composition or a cured product thereof. The porous structure can include a porous substrate including a plurality of ligaments that define pores of the porous substrate, and a biocompatible metal coating on the plurality of ligaments of the porous substrate.

Abstract: An implant and methods for use in various procedures are disclosed. According to an example of the present application, an orthopedic implant is disclosed. The implant can include a base and a body. The base can comprise a porous metal material configured to encourage bone ingrowth into the base. The body can be coupled to the base and can comprise a second material that differs from the porous metal material of the base.

Abstract: Shapeable porous metal implants and methods for use in various procedures are disclosed. The implants can comprise a shell according to some examples. According to one example, the method can include providing a sheet of highly porous metal material having a porosity of between 55% and 90%, and wrapping the sheet of highly porous metal material around at least a first bone of the patient. Further examples can form the sheet intra-operatively to a desired shape. In an example, the porous metal sheet can be formed of tantalum or tantalum alloys.

Abstract: A bone cement system according to the present disclosure includes a housing, a dispenser housing, a plunger, and a pressure release system. The housing has a proximal end, a distal end, and a throughbore that extends from the proximal end to the distal end. The dispenser housing is received in the throughbore and is adapted to receive bone cement. The plunger is releasably coupled to the proximal end of the housing and received into the dispenser housing so that movement of the plunger relative to the dispenser housing dispenses bone cement from the distal end of the housing. The pressure release system is coupled to the housing and includes a body that is movable within a plane perpendicular to a longitudinal axis of the housing, without translating the body along the longitudinal axis of the housing, to reduce the pressure of bone cement exiting the distal end of the housing.

Abstract: The present teachings provide one or more surgical instruments for repairing damaged tissue, such as in the case of a vertebral compression fracture. The present teachings can provide a bone cement system. The system can include a housing, which can define at least a throughbore that can extend from a proximal end to a distal end of the housing. The system can also include a dispenser housing received in the throughbore of the housing that is adapted to receive a bone cement. The system can include a plunger, which can be releasably coupled to the proximal end of the housing and received into the dispenser housing so that movement of the plunger can dispense the bone cement. The system can also include a pressure release system, which can be coupled to the housing and can be movable to release pressure within the dispenser housing without moving the plunger.