초록 ▼

Flight plan information is provided in the form of a series of waypoints having attributes which preferably include, among others, latitude, longitude, altitude constraint, and waypoint identifier. A flight path, defined by this information is modeled, and the flight plan model is checked against te

Flight plan information is provided in the form of a series of waypoints having attributes which preferably include, among others, latitude, longitude, altitude constraint, and waypoint identifier. A flight path, defined by this information is modeled, and the flight plan model is checked against terrain information to locate any instances in which a potentially unsafe flight altitude exists. In flight, the flight path model is updated using aircraft position so that the path from the aircraft position to the next waypoint is reflected in the model. In the event that a potentially unsafe flight altitude is detected, an alert may be issued to the flight crew. The crew may then amend the flight plan or take other appropriate action.

대표청구항 ▼

Flight plan information is provided in the form of a series of waypoints having attributes which preferably include, among others, latitude, longitude, altitude constraint, and waypoint identifier. A flight path, defined by this information is modeled, and the flight plan model is checked against te

Flight plan information is provided in the form of a series of waypoints having attributes which preferably include, among others, latitude, longitude, altitude constraint, and waypoint identifier. A flight path, defined by this information is modeled, and the flight plan model is checked against terrain information to locate any instances in which a potentially unsafe flight altitude exists. In flight, the flight path model is updated using aircraft position so that the path from the aircraft position to the next waypoint is reflected in the model. In the event that a potentially unsafe flight altitude is detected, an alert may be issued to the flight crew. The crew may then amend the flight plan or take other appropriate action. s a region containing tissue having an abnormal cell structure. 10. The system of claim 1, wherein said treatment guidance plan comprises a plan that provides an optimal placement for ablative devices and temperature sensing devices relative to the treatment region. 11. The system of claim 1, wherein said set of surgical devices further comprises: an alignment assembly associated with said at least one ablative device for placing said at least one ablative device and said at least one temperature sensing device into said treatment region based on said treatment guidance plan. 12. The system of claim 1, wherein said treatment module comprises the steps of: a) acquiring target temperatures from the operator; b) displaying said at least one ablative device and temperature sensing device relative to said treatment region; c) starting an ablation cycle based on operator input; and, d) ending said ablation cycle based on input from said operator. 13. The system of claim 12 wherein said at least one ablative device comprises a plurality of cryosurgical probes. 14. The system of claim 12 wherein said ablation cycle, comprises the steps of: a) starting a freeze cycle for a first anterior cryoprobe and a second anterior cryoprobe; b) starting a freeze cycle for a first posterior lateral cryoprobe and a second posterior lateral cryoprobe; c) starting a freeze cycle for a first posterior medial cryoprobe and a second posterior medial cryoprobe; d) operating said plurality of cryoprobes based on said temperature data from said at least one temperature sensing device; and, e) informing said operator if all target temperatures have been reached; and, f) starting a thaw cycle for said plurality of cryoprobes based on operator input. 15. The system of claim 14 wherein said step of starting a freeze cycle for said first anterior cryoprobe and said second anterior cryoprobe, comprises the steps of: a) turning on said first anterior cryoprobe and said second anterior cryoprobe; b) determining if an anterior target temperature has been reached; c) operating said first anterior cryoprobe and said second anterior cryoprobe at a maximum rate if an anterior target temperature has not been reached; d) operating said first anterior cryoprobe and said second anterior cryoprobe at a substantially zero rate if an anterior target temperature has been reached; and, e) determining if said anterior target temperature has reached substantially 0° C. 16. The system of claim 15 wherein said steps of starting a freeze cycle for said first posterior lateral cryoprobe and said second posterior lateral cryoprobe, and for said first posterior medial cryoprobe and said second posterior medial cryoprobe, comprises the steps of: a) turning on said first posterior lateral cryoprobe and said second posterior lateral cryoprobe and operating them at a maximum rate; b) determining if a first neurovascular bundle target temperature has been reached; c) turning off said first posterior lateral cryoprobe if said first neurovascular bundle target temperature has been reached; d) determining if a second neurovascular bundle target temperature has been reached; e) operating said second posterior lateral cryoprobe at a substantially zero rate if said second neurovascular bundle target temperature has been reached; f) turning on said first posterior medial cryoprobe and said second posterior medial cryoprobe after neurovascular temperature readings are substantially close to their target temperatures; g) operating said first posterior medial cryprobe and said second posterior medial cryoprobe at a power rate in a range of about 15-35%; h) setting said first posterial medial cryoprobe and said second posterior medial cryoprobe to a substantially zero rate if a Denon Vieller's fascia target temperature has been reached. 17. The system of claim 12 wherein said ablation cycle, comprises the steps of: a) starting a freeze cycle for a first a nterior cryoprobe and a second anterior cryoprobe; b) starting a freeze cycle for a first posterior lateral cryoprobe and a second posterior lateral cryoprobe; c) starting a freeze cycle for a first posterior medial cryoprobe and a second posterior medial cryoprobe; d) operating said plurality of cryoprobes based on said temperature data from said at least one temperature sensing device; and, e) automatically controlling said freeze cycles for all of said above cryoprobes based on said target temperatures and said temperature data; and, f) starting a thaw cycle for said plurality of cryoprobes based on user input. 18. The system of claim 12 wherein said ablation cycle, comprises the steps of: a) starting a freeze cycle for a first anterior cryoprobe and a second anterior cryoprobe; b) starting a freeze cycle for a first posterior lateral cryoprobe and a second posterior lateral cryoprobe; c) starting a freeze cycle for a first posterior medial cryoprobe and a second posterior medial cryoprobe; d) operating said plurality of cryoprobes based on said temperature data from said at least one temperature sensing device; and, e) automatically controlling said freeze cycles for all of said above cryoprobes based on said target temperatures and said temperature data; and, f) starting a thaw cycle for said plurality of cryoprobes based on said temperature data. 19. The system of claim 1, wherein said treatment module automatically controls said at least one ablative element based upon a temperature sensing device output signal. 20. A method for providing computer guided ablation of tissue of a patient, comprising the steps of: a) receiving imaging data from a treatment region of a patient, processing said imaging data and providing imaging output data and imaging signals, said imaging output data being available to an operator; b) processing said imaging signals and providing a treatment guidance plan to the operator; c) acquiring and processing surgical device output data, for optimally controlling treatment parameters and providing feedback information to the operator based on said treatment guidance plan; d) operating a set of surgical devices, said set of surgical devices providing said surgical device output data, said step of operating a set of surgical devices, comprising: i. operating at least one ablative device for providing ablation of said treatment region based on said treatment parameters and operator input; and, ii. operating at least one temperature sensing device for acquiring temperature data from said treatment region and providing a temperature sensing device output signal, said temperature sensing device output signal being a portion of said surgical device output data, wherein said treatment guidance plan is utilized for placing said at least one ablative device and said at least one temperature sensing device into said treatment region. 21. The method of claim 20, wherein said step of operating at least one ablative device comprises operating at least one cryosurgical probe. 22. The method of claim 20, wherein said step of operating at least one ablative device comprises operating at least one radio frequency electrode. 23. The method of claim 20, wherein said step of operating at least one ablative device comprises operating at least one laser fiber. 24. The method of claim 20, wherein said step of operating at least one ablative device comprises operating at least one microwave antenna. 25. The method of claim 20, wherein said step of receiving imaging output data comprises receiving visual imaging output data. 26. The method of claim 20, wherein said step of providing a treatment guidance plan comprises: a) acquiring target temperatures from the operator; b) displaying said at least one ablative device and temperature sensing device relative to said treatment region; c) starting an ablation cycle based on operator input; and, d) ending said ablation cycle based on input from said operator. 27. The method of claim 26, wherein said step of starting an ablation cycle, comprises: a) starting a freeze cycle for a first anterior cryoprobe and a second anterior cryoprobe; b) starting a freeze cycle for a first posterior lateral cryoprobe and a second posterior lateral cryoprobe; c) starting a freeze cycle for a first posterior medial cryoprobe and a second posterior medial cryoprobe; d) operating said plurality of cryoprobes based on said temperature data from said at least one temperature sensing device; and, e) informing said operator if all target temperatures have been reached; and, f) starting a thaw cycle for said plurality of cryoprobes based on operator input. 28. The method of claim 27, wherein said step of starting a freeze cycle for said first anterior cryoprobe and said second anterior cryoprobe, comprises: a) turning on said first anterior cryoprobe and said second anterior cryoprobe; b) determining if an anterior target temperature has been reached; c) operating said first anterior cryoprobe and said second anterior cryoprobe at a maximum rate if an anterior target temperature has not been reached; d) operating said first anterior cryoprobe and said second anterior cryoprobe at a substantially zero rate if an anterior target temperature has been reached; and, e) determining if said anterior target temperature has reached substantially 0° C. 29. The method of claim 20, wherein said step of providing a treatment guidance plan comprises automatically controlling said at least one ablative element based upon a temperature sensing device output signal.