Abstract: A camera system integrated into a trocar. The camera system allows for wide field of view of an internal surgical site and 3D mapping of fiducial markers during a laparoscopic procedure. Upon entry into the patient, the camera system is configured to deploy from a recessed position at the distal end of the trocar. In various aspects, the internal camera system is configured to keep the trocar ports free for surgical instruments and provide the surgical staff members with an increased view of the surgical environment.

Abstract: Apparatuses, systems, and methods for displaying interactive overlays for multiple users are disclosed herein. In some aspects, a system for displaying interactive overlays for multiple users can include a surgical hub configured to receive a plurality of data streams related to a surgical procedure and a first augmented reality display device communicably coupled to the surgical hub. In one aspect, the first augment reality display device is linked to a first user. In another aspect, the first augmented reality display device displays a first interactive overlay customized for the first user based on at least one of the plurality of data streams.

Abstract: A medical image viewer can render to a display, a three-dimensional view of patient anatomy, a multi planar reconstruction (MPR) view of the patient anatomy, and an intra-operational view. Some of the views can be synchronized to show a common focal point of the anatomy. Other embodiments are described and claimed.

Abstract: A deployable structure is described including a first and a second robotic system (4, 6; 604, 606), each of which includes: a respective distal element (12;22); at least one respective shape-locking element (14;24); and a respective coupling structure (16;26) operable in a first and a second operating mode. When the coupling structure of the first robotic system operates in the first operating mode, it is elastically deformable and operable so as to move the first robotic system; when the coupling structure of the first robotic system operates in the second operating mode, it forms a guide for the movement of the second robotic system. When the coupling structure of the second robotic system operates in the first operating mode, it is elastically deformable and is operable so as to move the second robotic system; when the coupling structure of the second robotic system operates in the second operating mode, it forms a guide for the movement of the shape-locking element of the first robotic system.

Abstract: A deployable structure is described including a first and a second robotic system (4, 6; 604, 606), each of which includes: a respective distal element (12;22); at least one respective shape-locking element (14;24); and a respective coupling structure (16;26) operable in a first and a second operating mode. When the coupling structure of the first robotic system operates in the first operating mode, it is elastically deformable and operable so as to move the first robotic system; when the coupling structure of the first robotic system operates in the second operating mode, it forms a guide for the movement of the second robotic system. When the coupling structure of the second robotic system operates in the first operating mode, it is elastically deformable and is operable so as to move the second robotic system; when the coupling structure of the second robotic system operates in the second operating mode, it forms a guide for the movement of the shape-locking element of the first robotic system.