Motion-compensated micro-forceps system and method
AssigneeThe Johns Hopkins University
InventorsJin U. Kang, Peter L. Gehlbach
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AssigneeThe Johns Hopkins University
InventorsJin U. Kang, Peter L. Gehlbach
Estimating the term…
A motion-compensated micro-forceps system, including a manually-operable micro-forceps assembly having a plurality of moveable grasping elements; a motor assembly operatively connected to the plurality of moveable grasping elements; an optical detection system having an optical fiber attached to the manually-operable micro-forceps assembly at a fixed axial distance relative to a distal-most end of the plurality of moveable grasping elements; and a motor controller configured to communicate with the optical detection system and the motor assembly to provide motion compensation of the plurality of moveable grasping elements of the manually-operable micro-forceps, wherein the optical detection system is configured to output a signal for the determination of a distance of the plurality of moveable grasping elements of the micro-forceps to a target during operation, and wherein the motor controller is configured to provide feedback control signals to the motor assembly for motion compensation for both hand tremor and for hand-action-induced motions.
A motion-compensated micro-forceps system, comprising:
A method of performing motion compensation for a micromanipulation system, comprising:
The method of performing motion compensation for a micromanipulation system according to 9, wherein the modifying the axial velocity decreases the axial velocity as the distance offset decreases to become zero when the distance offset becomes zero.
The method of performing motion compensation for a micromanipulation system according to 9, wherein the micromanipulation system is a hand-operable, motion-compensated micro-forceps system.
The method of performing motion compensation for a micromanipulation system according to 11, wherein the hand-operable, motion-compensated micro-forceps system, comprises:
The method of performing motion compensation for a micromanipulation system according to 12, wherein the optical detection system is further configured to output a signal for the determination of the axial velocity of the manually-operable micro-forceps assembly relative to the object of interest, and
The method of performing motion compensation for a micromanipulation system according to 12, wherein the optical detection system is a common path optical coherence tomography system.
The method of performing motion compensation for a micromanipulation system according to 14, wherein the common path optical coherence tomography system comprises a swept laser source.
Dependencies are inferred from the claim text.