The present disclosure includes fixation devices, such as an orthopedic screw or implant, that comprises one or more porous elements or fenestrations to aid in osteo-integration of the fixation device. The fixation device may be additively manufactured using biocompatible materials such that the solid and porous aspects of the screw are fused together into a single construct. In yet another aspect, the fixation device comprises at least a portion or section incorporating a porous structure, which enables bony ingrowth through the porous section/portion of the screw, and thereby facilitates biocompatibility and improve mechanical characteristics. Methods for using the fixation device are also described herein.

A surgical kit includes a shield for covering a portion of the spine of a subject. The shield can include an attachment portion adapted to engage a bone fixation assembly which is adapted to be fixed on multiple vertebra bones of the subject. The bone fixation assembly can include a vertebra joining member secured between two bone anchors. Each bone anchor can include a fastener portion adapted to be implanted into a vertebra bone and a head coupling portion adapted to secure the vertebra joining member. The shield can be coupled to the bone fixation assembly via separate coupling elements, such as a clip or an adjustable link secured between two vertebra joining members of the bone fixation assembly. Alternatively, the shield can include an integral attachment portion configured to engage the bone fixation assembly directly.

Non-load-bearing, drug-eluting components, such as a rod cover, that can be added to load bearing spinal implants.

The present disclosure provides a bone-implantable device and methods of use. The bone-implantable device comprises a body having an exterior surface, wherein a portion of the exterior surface includes a cured osteostimulative material comprising MgO.

A support for use with tissue or bone is described, the support having one or more spaced apart brace members, and at least one elongated linking member for linking to the one or more spaced apart brace members. The support may be provided in use in combination with a biologic glue, the biologic glue comprising a first portion containing stabilized blood product, and a second portion containing a growth factor, the first portion and the second portion comingled when or after the support is introduced to the tissue or bone in a subject in need thereof. The support is fabricated by actively producing the support through an additive manufacturing process, in which the support is customized specifically to the tissue or bone by creating a computer-generated construct of the support on a three-dimensional volume rendering of the tissue or bone, and the computer generated construct is interpretable via software directing the additive manufacturing process.

Cannabidiol (CBD) is one of the most abundant and physiologically active phytocannabinoids in Cannabis plants. The chemical has well-known mechanisms that have been the potential to treat and prevent numerous inflammatory, ischemic, psychological, immunologic, infectious, oxidative and neurogenic-related diseases. The incorporation of CBD on and/or within medical devices and implants is a novel pharmacologic approach to alleviate, prevent and cure local as well as systemic disease, and promote healing and recovery.

Disclosed herein is a surgical press for setting a surgical device into bone. The surgical press system includes an elongated shaft having a distal portion and a proximal portion. The shaft is configured for insertion into a guide. The surgical press system includes threads extending along an axial portion of the distal end of the shaft. The threads are configured to pull the shaft into bone as the shaft rotates. The surgical press system includes a press element associated with a proximal portion of the shaft such that as the shaft is rotated, the threads pull the shaft into the bone causing the press element to press the surgical device into the bone. The surgical press system includes a collection region located in the distal portion of the shaft and configured to receive bone material removed from the bone due to advancement of the shaft. The surgical press system includes a locating element configured to position the surgical device in a predetermined orientation with respect to the shaft as the press element presses the surgical device into the bone.

A surgical kit includes a shield for covering a portion of the spine of a subject. The shield can include an attachment portion adapted to engage a bone fixation assembly which is adapted to be fixed on multiple vertebra bones of the subject. The bone fixation assembly can include a vertebra joining member secured between two bone anchors. Each bone anchor can include a fastener portion adapted to be implanted into a vertebra bone and a head coupling portion adapted to secure the vertebra joining member. The shield can be coupled to the bone fixation assembly via separate coupling elements, such as a clip or an adjustable link secured between two vertebra joining members of the bone fixation assembly. Alternatively, the shield can include an integral attachment portion configured to engage the bone fixation assembly directly.

Non-load-bearing, drug-eluting components, such as a rod cover, that can be added to load bearing spinal implants.