Abstract: A method for underwater exploration and/or recovery of objects and/or things using a submersible vehicle assembly and underwater powered observation system using a camera and source of light of a green laser to be directed to the underside of the surface of the water so as to locate the vehicle assembly by the green laser. In this manner the vehicle assembly may be utilized for the underwater tasks of locating objects and/or things on a surface of the underwater environment.

Abstract: A method for underwater exploration and/or recovery of objects and/or things using a submersible vehicle assembly and underwater powered observation system using a camera and source of light of a green laser to be directed to the underside of the surface of the water so as to locate the vehicle assembly by the green laser. In this manner the vehicle assembly may be utilized for the underwater tasks of locating objects and/or things on a surface of the underwater environment.

Abstract: An method for ice fishing using a submersible vehicle assembly and underwater powered observation system using a camera and source of light of a green laser to be directed to the underside of ice so as to locate the vehicle assembly and allow the user to cut a hole in the ice at or near fish. In this manner the vehicle assembly may be utilized for the underwater tasks of locating fish and/or observing fish under the ice. Additional features include identifying water temperature and depth information that may be displayed on the control unit, a hydrophobic coating preventing ice buildup, and a stand adaptable for resting on the bottom during use.

Abstract: An method for ice fishing using a submersible vehicle assembly and underwater powered observation system using a camera and source of light of a green laser to be directed to the underside of ice so as to locate the vehicle assembly and allow the user to cut a hole in the ice at or near fish. In this manner the vehicle assembly may be utilized for the underwater tasks of locating fish and/or observing fish under the ice. Additional features include identifying water temperature and depth information that may be displayed on the control unit, a hydrophobic coating preventing ice buildup, and a stand adaptable for resting on the bottom during use.

Abstract: An underwater powered observation system useful for ice fishing and capable of driving down an augured hole in the ice in a particular orientation that receives propulsion directions via a miniature multi-conductor cable connected to a color monitor integral to a control unit. The submersible vehicle assembly is powered by an onboard rechargeable battery that energizes both horizontal and vertical thrusters to guide and move the vehicle assembly through the water from directions communicated by the control unit. The submersible vehicle assembly may include a laser adapted to be directed to the underside of ice so as to locate the vehicle assembly allowing the user to cut a hole using a standard commercial ice auger in the ice at or near fish. In this manner the vehicle assembly may be utilized for the underwater tasks of locating fish, observing scenery, boat and pier inspection, object recovery, and other underwater tasks.

Abstract: An underwater powered observation system that includes a submersible vehicle assembly with a camera and an on board source of electrical power that receives propulsion directions via a miniature multi-conductor cable connected to a color monitor integral to a control unit. The submersible vehicle assembly is powered by an onboard rechargeable battery that energizes both horizontal and vertical thrusters to guide and move the vehicle assembly through the water from directions communicated by the control unit. The submersible vehicle assembly may include a laser adapted to be directed to the underside of ice so as to locate the vehicle assembly and allow the user to cut a hole in the ice at or near fish. In this manner the vehicle assembly may be utilized for the underwater tasks of locating fish, observing scenery, boat and pier inspection, object recovery, and other underwater tasks.

Abstract: A system for moving an elongate medical device has at least one drive element for engaging and moving an elongate medical device. Various embodiments provide for moving the separate inner and outer elements of a telescoping medical device. Some systems also provide for the rotation of a rotatable distal element on a rotatable medical device or the rotation of extension element in a telescoping medical device.

Abstract: A system for moving an elongate medical device has at least one drive element for engaging and moving an elongate medical device. Various embodiments provide for moving the separate inner and outer elements of a telescoping medical device. Some systems also provide for the rotation of a rotatable distal element on a rotatable medical device or the rotation of extension element in a telescoping medical device.

Abstract: An advancer system is described for moving an elongate medical device within a body. The system includes a drive unit having a motor. The drive unit is configured to translate movement of the motor to the device so as to alternately advance and retract the device relative to the body. The advancer system also includes a user-operable control system configured to control the drive unit. The control system can interface with a magnetic navigation system. The above-described system allows an operating physician to control catheter advancement and retraction while remaining outside an x-ray imaging field. Thus the physician is freed from repeated x-ray exposure.

Abstract: A system for moving an elongate medical device has at least one drive element for engaging and moving an elongate medical device. Various embodiments provide for moving the separate inner and outer elements of a telescoping medical device. Some systems also provide for the rotation of a rotatable distal element on a rotatable medical device or the rotation of extension element in a telescoping medical device.

Abstract: An advancer system is described for moving an elongate medical device within a body. The system includes a drive unit having a motor. The drive unit is configured to translate movement of the motor to the device so as to alternately advance and retract the device relative to the body. The advancer system also includes a user-operable control system configured to control the drive unit. The control system can interface with a magnetic navigation system. The above-described system allows an operating physician to control catheter advancement and retraction while remaining outside an x-ray imaging field. Thus the physician is freed from repeated x-ray exposure.

Abstract: An advancer system is described for moving an elongate medical device within a body. The system includes a drive unit having a motor. The drive unit is configured to translate movement of the motor to the device so as to alternately advance and retract the device relative to the body. The advancer system also includes a user-operable control system configured to control the drive unit. The control system can interface with a magnetic navigation system. The above-described system allows an operating physician to control catheter advancement and retraction while remaining outside an x-ray imaging field. Thus the physician is freed from repeated x-ray exposure.

Abstract: A system for moving an elongate medical device has at least one drive element for engaging and moving an elongate medical device. Various embodiments provide for moving the separate inner and outer elements of a telescoping medical device. Some systems also provide for the rotation of a rotatable distal element on a rotatable medical device or the rotation of extension element in a telescoping medical device.

Abstract: An advancer system is described for moving an elongate medical device within a body. The system includes a drive unit having a motor. The drive unit is configured to translate movement of the motor to the device so as to alternately advance and retract the device relative to the body. The advancer system also includes a user-operable control system configured to control the drive unit. The control system can interface with a magnetic navigation system. The above-described system allows an operating physician to control catheter advancement and retraction while remaining outside an x-ray imaging field. Thus the physician is freed from repeated x-ray exposure.