Abstract: The present disclosure relates to systems and methods for robotic, computer-aided or virtual/augmented reality assisted procedures, including with use a of patient-specific or patient-matched, customized apparatus for assisting in various surgical procedures. In varying embodiments, patient-specific guides may comprise embedded markers, chips, circuits, or other registerable components for providing information to a robotic or computer-aided device. Other apparatus described herein may be aligned and/or matched with the robotic or augmented reality equipment or another apparatus during a surgical procedure.

Abstract: A system and method of protecting individuals from ionizing energy is provided. The system can determine a location of an individual with respect to a source of ionizing energy. Before the source emits ionizing energy, the system can determine patterns of ionizing energy expected to be generated by an expected emission from the source. The system can then determine if an individual is within a danger zone in which the individual is expected to receive a dose of ionizing energy above a predetermined amount. The system may also determine if an individual is outside of an optimal zone in which the individual is expected to receive less than a predetermined dose of ionizing energy without being unnecessarily distant from a working area. The system can provide a warning when an individual is within the danger or inefficient zones. Optionally, the system can prevent the source from emitting ionizing energy when an individual is within the danger zone.

Abstract: A system and method of protecting individuals from ionizing energy is provided. The system can determine a location of an individual with respect to a source of ionizing energy. Before the source emits ionizing energy, the system can determine patterns of ionizing energy expected to be generated by an expected emission from the source. The system can then determine if an individual is within a danger zone in which the individual is expected to receive a dose of ionizing energy above a predetermined amount. The system may also determine if an individual is outside of an optimal zone in which the individual is expected to receive less than a predetermined dose of ionizing energy without being unnecessarily distant from a working area. The system can provide a warning when an individual is within the danger or inefficient zones. Optionally, the system can prevent the source from emitting ionizing energy when an individual is within the danger zone.

Abstract: A system and method for developing customized apparatus, such as occipital guides, for use in one or more surgical procedures is disclosed. The system and method incorporates a patient's unique anatomical features or morphology, which may be derived from capturing MRI data or CT data, to fabricate at least one custom apparatus or guide. According to a preferred embodiment, the customized apparatus comprises at least one patient-specific surface and or contour. Apparatus, including one or more surgical guides, may be matched in duplicate and oriented around the patient's own anatomy, and may further provide any desired axial alignments or insertional trajectories. In an alternate embodiment, the apparatus may further be aligned and/or matched with at least one other apparatus during the surgical procedure.

Abstract: A system and method of protecting individuals from ionizing energy is provided. The system can determine and monitor the location of an individual, relative to a source of ionizing energy. The system can determine patterns of ionizing energy expected to be generated by an expected emission from the source. The system can then determine if an individual is within a “danger” zone in which the individual is expected to receive a dose of ionizing energy above an acceptable or prescribed amount. The system may also determine if an individual is outside of an optimal zone in which the individual is expected to receive less than a predetermined dose of ionizing energy without being unnecessarily distant from a working area. The system can provide a warning or initiate other actions when an individual is within a danger zone or an inefficient zone.

Abstract: The present disclosure relates to a surgical device, such as a surgical implant, which may be used in several types of procedures. More specifically, the present disclosure relates to implants for use in an anterior, posterior, posterior lateral or direct lateral approach to the disc space. The surgical device may be manipulated in various manners to accommodate delivery through a minimally invasive portal in one configuration and adjusted to a second configuration once placed in the intervertebral space. A delivery system for placing the surgical device in a body is also disclosed.

Abstract: The present disclosure relates to a surgical device, such as a surgical implant, which may be used in several types of procedures. More specifically, the present disclosure relates to implants for use in an anterior, posterior, posterior lateral or direct lateral approach to the disc space. The surgical device may be manipulated in various manners to accommodate delivery through a minimally invasive portal in one configuration and adjusted to a second configuration once placed in the intervertebral space. A delivery system for placing the surgical device in a body is also disclosed.

Abstract: A system and method for developing customized apparatus, such as guides, for use in one or more surgical procedures is disclosed. The system and method incorporates a patient's unique anatomical features or morphology, which may be derived from capturing MRI data or CT data, to fabricate at least one custom apparatus or guide. According to a preferred embodiment, the customized apparatus comprises at least one patient-specific surface and or contour, which may be derived from MRI or CT data. Apparatus may be matched in duplicate and oriented around the patient's own anatomy, and may further provide any desired axial alignments or surgical instrument insertional trajectories. In an alternate embodiment, the apparatus may further be aligned and/or matched and/or nested with at least one other apparatus during the surgical procedure.

Abstract: A system and method for developing customized apparatus, such as guides, for use in one or more surgical procedures is disclosed. The system and method incorporates a patient's unique anatomical features or morphology, which may be derived from capturing MRI data or CT data, to fabricate at least one custom apparatus or guide. According to a preferred embodiment, the customized apparatus comprises at least one patient-specific surface and or contour, which may be derived from MRI or CT data. Apparatus may be matched in duplicate and oriented around the patient's own anatomy, and may further provide any desired axial alignments or insertional trajectories. In an alternate embodiment, the apparatus may further be aligned and/or matched with at least one other apparatus during the surgical procedure.

Abstract: A system and method of protecting individuals from ionizing energy is provided. The system can determine and monitor the location of an individual, relative to a source of ionizing energy. The system can determine patterns of ionizing energy expected to be generated by an expected emission from the source. The system can then determine if an individual is within a “danger” zone in which the individual is expected to receive a dose of ionizing energy above an acceptable or prescribed amount. The system may also determine if an individual is outside of an optimal zone in which the individual is expected to receive less than a predetermined dose of ionizing energy without being unnecessarily distant from a working area. The system can provide a warning or initiate other actions when an individual is within a danger zone or an inefficient zone.

Abstract: A system and method for developing customized apparatus, such as guides, for use in one or more surgical procedures is disclosed. The system and method incorporates a patient's unique anatomical features or morphology, which may be derived from capturing MRI data or CT data, to fabricate at least one custom apparatus or guide. According to a preferred embodiment, the customized apparatus comprises at least one patient-specific surface and or contour, which may be derived from MRI or CT data. Apparatus may be matched in duplicate and oriented around the patient's own anatomy, and may further provide any desired axial alignments or insertional trajectories. In an alternate embodiment, the apparatus may further be aligned and/or matched with at least one other apparatus during the surgical procedure.

Abstract: A system and method for developing customized apparatus for use in one or more surgical procedures is disclosed. The system and method incorporates a patient's unique anatomical features or morphology, which may be derived from capturing MRI data or CT data, to fabricate at least one custom apparatus. According to a preferred embodiment, the customized apparatus comprises a plurality of complementary surfaces based on a plurality of data points from the MRI or CT data. Thus, each apparatus may be matched in duplicate and oriented around the patient's own anatomy, and may further provide any desired axial alignments or insertional trajectories. In an alternate embodiment, the apparatus may further be aligned and/or matched with at least one other apparatus used during the surgical procedure.

Abstract: A system and method for developing customized apparatus for use in one or more surgical procedures is disclosed. The system and method incorporates a patient's unique anatomical features or morphology, which may be derived from capturing MRI data or CT data, to fabricate at least one custom apparatus. According to a preferred embodiment, the customized apparatus comprises a plurality of complementary surfaces based on a plurality of data points from the MRI or CT data. Thus, each apparatus may be matched in duplicate and oriented around the patient's own anatomy, and may further provide any desired axial alignments or insertional trajectories. In an alternate embodiment, the apparatus may further be aligned and/or matched with at least one other apparatus used during the surgical procedure.

Abstract: A system and method for developing customized apparatus for use in one or more surgical procedures is disclosed. The system and method incorporates a patient's unique anatomical features or morphology, which may be derived from capturing MRI data or CT data, to fabricate at least one custom apparatus. According to a preferred embodiment, the customized apparatus comprises a plurality of complementary surfaces based on a plurality of data points from the MRI or CT data. Thus, each apparatus may be matched in duplicate and oriented around the patient's own anatomy, and may further provide any desired axial alignments or insertional trajectories. In an alternate embodiment, the apparatus may further be aligned and/or matched with at least one other apparatus used during the surgical procedure.

Abstract: The present disclosure relates to a surgical device, such as a surgical implant, which may be used in several types of procedures. More specifically, the present disclosure relates to implants for use in an anterior, posterior, posterior lateral or direct lateral approach to the disc space. The surgical device may be manipulated in various manners to accommodate delivery through a minimally invasive portal in one configuration and adjusted to a second configuration once placed in the intervertebral space. A delivery system for placing the surgical device in a body is also disclosed.