TELEROBOTIC SURGERY SYSTEM FOR REMOTE SURGEON TRAINING USING ROBOTIC SURGERY STATION AND REMOTE SURGEON STATION WITH DISPLAY OF ACTUAL ANIMAL TISSUE IMAGES AND ASSOCIATED METHODS
A telerobotic surgery system for remote surgeon training includes a robotic surgery station at a first location in a first structure at a first geographic point. The robotic surgery station includes at least one camera. Harvested animal tissue is at the robotic surgery station and viewable by the at least one camera, which generates an actual animal tissue image. A remote surgeon station is at a second location in a second structure at a second geographic point remote from the first geographic point. The remote surgeon station includes at least one surgeon display that cooperates with the at least one camera to display the actual animal tissue image. An image processor generates an additional image on the at least one surgeon display, wherein the additional image includes an anatomical structure image corresponding to the actual animal tissue image.
1 . A telerobotic surgery system for remote surgeon training and comprising:
a robotic surgery station at a first location in a first structure at a first geographic point, said robotic surgery station comprising at least one camera;
harvested animal tissue at the robotic surgery station and viewable by said at least one camera so that said at least one camera generates an actual animal tissue image;
a remote surgeon station at a second location in a second structure at a second geographic point remote from the first geographic point, said remote surgeon station comprising at least one surgeon display cooperating with said at least one camera to display the actual animal tissue image; and
an image processor to generate an additional image on said at least one surgeon display, the additional image comprising an anatomical structure image corresponding to the actual animal tissue image.
2 . The telerobotic surgery system according to claim 1 wherein said image processor is configured to overlay the anatomical structure image on the actual animal tissue image.
3 . The telerobotic surgery system according to claim 1 wherein the additional image comprises a surgery status information image.
4 . The telerobotic surgery system according to claim 3 wherein the surgery status information image corresponds to a training scenario.
5 . The telerobotic surgery system according to claim 3 wherein the surgery status information image comprises at least one of an EKG value, a blood pressure value, a heart rate value, and a blood oxygen value.
6 . The telerobotic surgery system according to claim 3 wherein the surgery status information image is synchronized to the actual animal tissue image.
7 . The telerobotic surgery system according to claim 1 wherein the additional image comprises a surgery instructional image.
8 . The telerobotic surgery system according to claim 1 wherein the additional image comprises a surgery checklist image.
9 . The telerobotic surgery system according to claim 1 wherein said at least one camera comprises a stereo image camera, and said at least one display comprises a binocular display.
10 . The telerobotic surgery system according to claim 9 comprising a video recorder coupled to said at least one camera.
11 . The telerobotic surgery system according to claim 1 comprising a communications network coupling said robotic surgery station and said remote surgeon station.
12 . The telerobotic surgery system according to claim 11 wherein said communications network has a latency of not greater than 200 milliseconds.
13 . The telerobotic surgery system according to claim 1 comprising at least one animating device coupled to said harvested animal tissue.
14 . The telerobotic surgery system according to claim 13 wherein said at least one animating device simulates at least one of breathing, heartbeat, and blood perfusion.
15 . The telerobotic surgery system according to claim 1 comprising at least a portion of a mannequin carrying said harvested animal tissue.
16 . The telerobotic surgery system according to claim 1 wherein the first location is associated with a room not for live human operations, and the second location is associated with an operating room for live human operations.
17 . The telerobotic surgery system according to claim 1 wherein said harvested animal tissue comprises porcine tissue.
18 . The telerobotic surgery system according to claim 1 wherein said remote surgeon station comprises at least one input device, and said robotic surgery station comprises at least one output device coupled to said at least one input device.
19 . The telerobotic surgery system according to claim 18 wherein said at least one output device provides a feedback signal; and wherein said at least one input device is responsive to the feedback signal.
20 . A telerobotic surgery system for remote surgeon training and comprising:
a robotic surgery station at a first location in a first structure at a first geographic point, said robotic surgery station comprising at least one camera;
harvested animal tissue at the robotic surgery station and viewable by said at least one camera so that said at least one camera generates an actual animal tissue image;
a remote surgeon station at a second location in a second structure at a second geographic point remote from the first geographic point, said remote surgeon station comprising at least one surgeon display cooperating with said at least one camera to display the actual animal tissue image;
an image processor to generate an anatomical structure image corresponding to the actual animal tissue image and overlaid on the actual animal tissue image; and
a video recorder coupled to said at least one camera.
21 . The telerobotic surgery system according to claim 20 wherein said image processor is configured to generate at least one of a surgery status information image, a surgery instructional image, and a surgery checklist image on said at least one surgeon display.
22 . The telerobotic surgery system according to claim 20 wherein said at least one camera comprises a stereo image camera, and said at least one display comprises a binocular display.
23 . The telerobotic surgery system according to claim 20 comprising a communications network coupling said robotic surgery station and said remote surgeon station.
24 . The telerobotic surgery system according to claim 23 wherein said communications network has a latency of not greater than 200 milliseconds.
25 . The telerobotic surgery system according to claim 20 comprising at least one animating device coupled to said harvested animal tissue.
26 . The telerobotic surgery system according to claim 25 wherein said at least one animating device simulates at least one of breathing, heartbeat, and blood perfusion.
27 . The telerobotic surgery system according to claim 20 wherein the first location is associated with a room not for live human operations, and the second location is associated with an operating room for live human operations.
28 . The telerobotic surgery system according to claim 20 wherein said harvested animal tissue comprises porcine tissue.
29 . The telerobotic surgery system according to claim 20 wherein said remote surgeon station comprises at least one input device, and said robotic surgery station comprises at least one output device coupled to said at least one input device.
30 . The telerobotic surgery system according to claim 29 wherein said at least one output device provides a feedback signal; and wherein said at least one input device is responsive to the feedback signal.
31 . A telerobotic surgery method for remote surgeon training and comprising:
operating a communications network between a robotic surgery station at a first location in a first structure at a first geographic point, and a remote surgeon station at a second location in a second structure at a second geographic point remote from the first geographic point, the robotic surgery station comprising at least one camera, and the remote surgeon station comprising at least one surgeon display cooperating with the at least one camera;
supplying harvested animal tissue at the robotic surgery station so that a surgeon at the remote surgeon station is able to remotely train using the harvested animated animal tissue at the robotic surgery station and while viewing an actual animal tissue image from the at least one camera on the at least one surgeon display; and
generating an additional image on the at least one surgeon display, the additional image comprising an anatomical structure image corresponding to the actual animal tissue image.
32 . The method according to claim 31 wherein generating the additional image comprises generating the anatomical structure image overlaid on the actual animal tissue image.
33 . The method according to claim 31 wherein the additional image comprises a surgery status information image.
34 . The method according to claim 31 wherein the additional image comprises a surgery instructional image.
35 . The method according to claim 31 wherein the additional image comprises a surgery checklist image.
36 . The method according to claim 31 wherein the at least one camera comprises a stereo image camera, and the at least one display comprises a binocular display.
37 . The method according to claim 31 wherein the communications network coupling the robotic surgery station and the remote surgeon station has a latency of not greater than 200 milliseconds.
38 . The method according to claim 31 comprising animating the harvested animal tissue with at least one animating device coupled thereto.
39 . The method according to claim 38 wherein the at least one animating device simulates at least one of breathing, heartbeat, and blood perfusion.
40 . The method according to claim 31 wherein the first location is associated with a room not for live human operations, and the second location is associated with an operating room for live human operations.
41 . The method according to claim 31 wherein the harvested animal tissue comprises porcine tissue.