Abstract: A method for delivering a substance to bone includes placing a stabilizing wire in a bone, creating a hole in the bone around the stabilizing wire, and providing a multichannel cannula. The multichannel cannula includes a first channel having an open proximal end and distal end, the first channel being configured to receive the stabilizing wire, and a second channel having an inlet portal and an exit portal that are in fluid communication. The cannula further includes a cap having a delivery port in fluid communication with the inlet portal and a channel for receiving the cannula therein, and a distal tip. The method further includes inserting the multichannel cannula into the hole in the bone such that the first channel receives the stabilizing wire, and delivering the substance into the bone by introducing the substance into the second channel such that the substance exits through the exit portal.

Abstract: Systems and methods for medical device inventory tracking are described. One embodiment is a medical device inventory tracking system includes a shipping container configured to contain a medical device, a sensor coupled to the shipping container and configured to detect the presence of the medical device, and a processing circuit integrated into the shipping container. The processing circuit configured to receive a signal from the sensor and perform an action based upon the signal.

Abstract: A method for delivering a substance to bone includes placing a stabilizing wire in a bone, creating a hole in the bone around the stabilizing wire, and providing a multichannel cannula. The multichannel cannula includes a first channel having an open proximal end and distal end, the first channel being configured to receive the stabilizing wire, and a second channel having an inlet portal and an exit portal that are in fluid communication. The cannula further includes a cap having a delivery port in fluid communication with the inlet portal and a channel for receiving the cannula therein, and a distal tip. The method further includes inserting the multichannel cannula into the hole in the bone such that the first channel receives the stabilizing wire, and delivering the substance into the bone by introducing the substance into the second channel such that the substance exits through the exit portal.

Abstract: Systems and methods for medical device inventory tracking are described. One embodiment is a medical device inventory tracking system, including a shipping container configured to contain a medical device, a sensor coupled to the shipping container and configured to detect the presence of the medical device, and a processing circuit integrated into the shipping container and configured to receive a signal from the sensor and perform an action based upon the signal. Another embodiment is a system for monitoring a surgical procedure using a medical device in an operating room, including a camera and display mounted in the operating room and a telecommunications interface configured to permit a videoconference between personnel in the operating room and a product specialist associated with the medical device using the display and the camera.

Abstract: A method for delivering a substance to bone includes placing a stabilizing wire in a bone, creating a hole in the bone around the stabilizing wire, and providing a multichannel cannula, comprising. The multichannel cannula includes a first channel having an open proximal end and an open distal end, the first channel being configured to receive the stabilizing wire, and a second channel having an inlet portal and an exit portal that are in fluid communication. The method further includes inserting the multichannel cannula into the hole in the bone such that the first channel receives the stabilizing wire, and delivering the substance into the bone by introducing the substance into the inlet portal of the second channel such that the substance exits the second channel through the exit portal.

Abstract: A tool for insertion of an intervertebral insert into an intervertebral space is provided. The tool includes a shaft having a proximal end and a distal end. The distal end of the shaft is configured to be coupled to the intervertebral insert. The tool includes a tapered section located at the distal end of the shaft, the tapered section tapering toward the longitudinal axis of the shaft and away from the proximal end of the shaft. The tool further includes a recess formed in the tapered section, the recess configured to receive the intervertebral insert such that at least a portion of the intervertebral insert is located within the recess when the intervertebral insert is coupled to the shaft.

Abstract: An apparatus for interrogating radio-frequency identification (RFID) tags within an enclosure. In an embodiment, the apparatus comprises an RFID module, a first assembly comprising a processor, a second assembly comprising an RFID radiator operatively coupled to the RFID module, and a connection element coupled to the first assembly and second assembly such that the second assembly is movable relative to the first assembly between a first configuration and second configuration. The processor may be configured to interrogate RFID tags via the RFID module and RFID radiator when the second assembly is in the second configuration, and not interrogate RFID tags when the second assembly is in the first configuration. In addition, both the first assembly and the second assembly may comprise attachment components configured to removably couple its respective assembly to one or more surfaces of an enclosure.

Abstract: A method of using a multichannel cannula to perform kyphoplasty includes inserting a stabilizing wire into a vertebra damaged by a compression fracture and inserting, over the stabilizing wire, a cannula. The cannula includes a first channel having open proximal and distal ends, and is configured to receive the stabilizing wire, and a second channel having an inlet portal and an exit portal that are in fluid communication. The cannula further includes an expandable portion configured to expand away from the cannula from an outer wall of the second channel. The method also includes inflating the expandable portion to create a void in the bone and to restore the height of the vertebra, and then deflating the expandable portion. When the void has been created, bone cement is delivered through the second channel into the void via the exit portal to at least partially fill the void.

Abstract: An apparatus for interrogating radio-frequency identification (RFID) tags within an enclosure. In an embodiment, the apparatus comprises an RFID module, a first assembly comprising a processor, a second assembly comprising an RFID radiator operatively coupled to the RFID module, and a connection element coupled to the first assembly and second assembly such that the second assembly is movable relative to the first assembly between a first configuration and second configuration. The processor may be configured to interrogate RFID tags via the RFID module and RFID radiator when the second assembly is in the second configuration, and not interrogate RFID tags when the second assembly is in the first configuration. In addition, both the first assembly and the second assembly may comprise attachment components configured to removably couple its respective assembly to one or more surfaces of an enclosure.

Abstract: A method of using a multichannel cannula to perform kyphoplasty includes inserting a stabilizing wire into a vertebra damaged by a compression fracture and inserting, over the stabilizing wire, a cannula. The cannula includes a first channel having open proximal and distal ends, and is configured to receive the stabilizing wire, and a second channel having an inlet portal and an exit portal that are in fluid communication. The cannula further includes an expandable portion configured to expand away from the cannula from an outer wall of the second channel. The method also includes inflating the expandable portion to create a void in the bone and to restore the height of the vertebra, and then deflating the expandable portion. When the void has been created, bone cement is delivered through the second channel into the void via the exit portal to at least partially fill the void.

Abstract: A virtual tray system includes a tray inventory system configured to track a current inventory of a tray, with one or more details associated with each item in the tray. The inventory includes a plurality of items, such as medical devices, instruments, tools, or implants. The virtual tray system further includes a database configured to store the current inventory of the tray and a user interface system configured to generate a visual representation of the inventory of the tray for display on a user interface of a user device. The virtual tray system further includes a communications system configured to receive an input relating to a change in status of at least one of the items in the tray. Based on the input, the tray inventory system is configured to update the current inventory of the tray and update the visual representation of the tray based on the input.

Abstract: A bone screw includes a shaft, a cannulated portion formed in the shaft, and a fenestration in the shaft connecting the cannulated portion to an exterior of the bone screw. A wall between the cannulated portion and the exterior of the bone screw includes a first wall portion having a different thickness than a second wall portion.

Abstract: A bone fixation system includes a fixation device configured to be positioned at a target area of bone comprising two ends connected by a shaft and further comprising a bore formed through the shaft configured to receive a fixation screw. The system further includes a drill bit sized and configured to pass through the bore to prepare the surrounding bone to receive a second fixation device. At least a distal portion of the drill bit is configured to pass through the bore. The fixation device is made of a first material and wherein the distal portion of the drill bit comprises at least an outer portion made of a second material. The second material of the drill bit has a hardness that is less than the hardness of the first material of the fixation device.

Abstract: A method of preparing a bone to receive a fixation screw through a fixation device includes providing a drill bit sized and configured to pass through a bore in a fixation device positioned in the bone and drilling a passage into the bone and through the bore. At least a distal portion of the drill bit passes through the bore in the drilling step. At least an outer portion of the distal portion of the drill bit has a hardness that is less than a hardness of the fixation nail.

Abstract: Technologies are described herein for providing enhanced packaging, coding, decoding and unpackaging of geometric data. In some configurations, geometric data is obtained by a device. The geometric data is partitioned into data partitions representing reconstruction information for video frames. The data partitions representing frames are then converted and integrated into a network abstraction layer of a bit stream. Geometric data may be obtained from the bit stream by accessing the data partitions from the network abstraction layer. The data partitions can be then processed into geometric data for further processing, such as the reconstruction, generation, display or processing of a three dimensional (3D) object modeled by the geometric data.

Abstract: A system for treating a bone includes an insert for a bone screw or a fixation nail. The insert includes a shaft that extends between proximal and distal ends of the insert and a cap. The shaft includes an opening in the proximal end and a cannulation extending from the opening through at least a portion of the shaft. The shaft further includes a fenestration disposed along the cannulation such that the cannulation is configured to provide a pathway for a substance between the opening and the fenestration. The cap is fastened to and seals the opening in the proximal end of the shaft and adjoins the cannulation. The cap is configured to provide a needle access through the cap to the cannulation following implantation of the system within the bone, and is further configured to self-seal after the needle is removed.

Abstract: A protective member for a medical instrument includes a body portion having an inner side wall defining an interior, configured to receive at least a portion of the medical instrument. The body portion also includes a first end and a second end, wherein at least one of the first end and the second end is configured to at least partially close the respective first end and/or second end of the body portion. The at least partially closed first end and/or second end is configured to be opened for use of the medical instrument, such that the medical instrument can pass through both the first and second ends of the body portion during use, while the inner side wall surrounds a portion of the medical instrument. The body portion is configured for use during a medical procedure using the medical instrument, for example, as a tissue protector or a drilling guide.

Abstract: A method of using a multichannel cannula to perform kyphoplasty includes inserting a stabilizing wire into a vertebra damaged by a compression fracture and inserting, over the stabilizing wire, a cannula. The cannula includes a first channel having open proximal and distal ends, and is configured to receive the stabilizing wire, and a second channel having an inlet portal and an exit portal that are in fluid communication. The cannula further includes an expandable portion configured to expand away from the cannula from an outer wall of the second channel. The method also includes inflating the expandable portion to create a void in the bone and to restore the height of the vertebra, and then deflating the expandable portion. When the void has been created, bone cement is delivered through the second channel into the void via the exit portal to at least partially fill the void.