Disabling surgical tools due to manual bailout

1. A method of operating a surgical tool having a drive housing, a shaft extending from the drive housing, and an end effector arranged at an end of the shaft, the method comprising:

coupling the drive housing to a tool driver of a first robotic surgical system;

driving rotation of a drive shaft mounted within the drive housing and thereby commencing a firing sequence of the end effector;

setting a bailout Boolean value as “true” in an internal computer of the drive housing upon commencing the firing sequence, and storing the bailout Boolean value in a memory of the internal computer;

manually bailing out the surgical tool before completing the firing sequence;

installing the surgical tool on a tool driver of a second robotic surgical system;

querying the memory of the internal computer with the second robotic surgical system and recognizing the bailout Boolean value as “true”; and

initiating one or more remedial actions to ensure safe operation of the surgical tool on the second robotic surgical system.

2. The method of claim 1 , wherein initiating the one or more remedial actions comprises disabling the surgical tool and thereby rendering the surgical tool unavailable for future procedures.

3. The method of claim 1 , wherein initiating the one or more remedial actions comprises generating an alert that informs a user that the surgical tool was previously bailed out.

4. The method of claim 3 , wherein generating the alert comprises displaying detailed instructions for the user on a visual display.

5. The method of claim 1 , wherein the firing sequence of the end effector comprises:

distally advancing a knife of the end effector relative to opposing jaws of the end effector; and

retracting the knife to a home position.

6. The method of claim 1 , wherein manually bailing out the surgical tool comprises activating a manual knife bailout system of the surgical tool by:

operatively coupling a key to a transfer drive shaft mounted within the drive housing, the transfer drive shaft being interconnected by gearing to the drive shaft and a firing member, and the firing member being longitudinally movable within the drive housing and operatively coupled to a knife located at the end effector; and

manually rotating the key in a first angular direction and thereby driving the firing member and the knife in a first longitudinal direction.

7. The method of claim 1 , wherein manually bailing out the surgical tool comprises activating a manual jaw bailout system of the surgical tool by:

grasping a bailout tool arranged on an exterior of the drive housing and operatively coupled to a primary gear mounted within the drive housing, the primary gear being interconnected by gearing to the drive shaft and rotatably mounted to a closure yoke, wherein the closure yoke is coupled to a closure tube of the shaft and movable to actuate opposing jaws of the end effector; and

manually rotating the bailout tool and thereby driving the closure yoke and the closure tube in a longitudinal direction to actuate the opposing jaws.

8. A method of operating a surgical tool having a drive housing, a shaft extending from the drive housing, and an end effector arranged at an end of the shaft, the method comprising:

coupling the drive housing to a tool driver of a robotic surgical system;

sending a command signal from a computer system to a motor of the tool driver to drive rotation of a drive shaft mounted within the drive housing and thereby commencing a firing sequence of the end effector;

setting a bailout Boolean value to “true” in the computer system once the command signal is sent to commence the firing sequence;

manually bailing out the surgical tool before completing the firing sequence; and

disabling the surgical tool with the computer system and thereby preventing the surgical tool from commencing a subsequent firing sequence.

9. The method of claim 8 , wherein disabling the surgical tool is followed by at least one of:

retracting a knife of the end effector to a home position;

closing jaws of the end effector;

articulating a wrist of the end effector; and

rotating the shaft.

10. The method of claim 8 , wherein disabling the surgical tool comprises rendering the surgical tool unavailable for future procedures.

11. The method of claim 8 , further comprising generating an alert that informs a user that the surgical tool was previously bailed out.

12. The method of claim 11 , wherein generating the alert comprises displaying detailed instructions for the user on a visual display.

13. The method of claim 8 , wherein manually bailing out the surgical tool comprises activating a manual knife bailout system of the surgical tool by:

operatively coupling a key to a transfer drive shaft mounted within the drive housing, the transfer drive shaft being interconnected by gearing to the drive shaft and a firing member, and the firing member being longitudinally movable within the drive housing and operatively coupled to a knife located at the end effector; and

manually rotating the key in a first angular direction and thereby driving the firing member and the knife in a first longitudinal direction.

14. The method of claim 8 , wherein manually bailing out the surgical tool comprises activating a manual jaw bailout system of the surgical tool by:

grasping a bailout tool arranged on an exterior of the drive housing and operatively coupled to a primary gear mounted within the drive housing, the primary gear being interconnected by gearing to the drive shaft and rotatably mounted to a closure yoke, wherein the closure yoke is coupled to a closure tube of the shaft and movable to actuate opposing jaws of the end effector; and

manually rotating the bailout tool and thereby driving the closure yoke and the closure tube in a longitudinal direction to actuate the opposing jaws.

15. A method of operating a surgical tool having a drive housing, a shaft extending from the drive housing, and an end effector arranged at an end of the shaft, the method comprising:

coupling the drive housing to a tool driver of a robotic surgical system;

determining with a computer system if a bailout Boolean value for the surgical tool is set to “true” or “false”;

determining that the bailout Boolean value is set to “false”;

sending a command signal from the computer system to a motor to drive rotation of a drive shaft mounted within the drive housing;

setting the bailout Boolean value to “true” once the command signal is sent;

monitoring one or more operational parameters of the motor with one or more monitoring devices in communication with the computer system;

measuring an unexpected change in the one or more operational parameters as the drive shaft is manually rotated using a manual bailout mechanism included in the surgical tool;

reporting the unexpected change to the computer system as a bailout signal; and

disabling the surgical tool once the bailout signal is received at the computer system.

16. The method of claim 15 , wherein determining if the bailout Boolean value is set to “true” or “false” comprises querying a memory of an internal computer of the drive housing.

17. The method of claim 15 , wherein determining if the bailout Boolean value is set to “true” or “false” comprises querying a central or remote database for the robotic surgical system.

18. The method of claim 15 , wherein determining if the bailout Boolean value is set to “true” or “false” comprises determining that the bailout Boolean value is set to “true” and performing at least one of:

disabling the surgical tool; and

generating an alert that informs a user that the surgical tool was previously bailed out.

19. The method of claim 15 , wherein the one or more monitoring devices comprise at least one of a torque sensor and a rotary encoder, and wherein monitoring the one or more operational parameters of the motor comprises monitoring at least one of torque and rotational motion of the motor with the one or more monitoring devices.

20. The method of claim 19 , wherein the unexpected change in the one or more operational parameters comprises at least one of a measured torque and a measured motion of the motor that is inconsistent with the command signal provided by the computer system to the motor.