Abstract:
Devices, systems, and methods for visualizing moving tissue with strobed light are provided. A surgical system includes a surgical device configured to operate on anatomy at a first frequency such that the anatomy moves at the first frequency when the surgical device is in contact therewith; and a light source configured to provide pulses of light at a second frequency to illuminate the moving anatomy; wherein the second frequency is different than the first frequency. A method of treating an ophthalmic condition includes operating a surgical device at a first frequency such that anatomy moves at the first frequency when the surgical device is contacted therewith; and controlling a light source to provide pulses of light at a second frequency to illuminate the moving anatomy; wherein the second frequency is different than the first frequency. An ophthalmic surgical system includes a cutting probe, a strobed light source, and a computing device.
Abstract:
Devices, systems, and methods for glare reduction in surgical microscopy are provided. A method of operating a surgical microscope may include: receiving light reflected from the surgical field at an image sensor; processing the received light to generate image data; identifying portions of the image data representative of glare; and controlling an optical element to limit the transmission of light associated with the glare. A surgical microscope may include: an image sensor configured to receive light reflected from the surgical field, a computing device, and an optical element. The computing device may be configured to: identify portions of the light received at the image sensor associated with glare and generate a control signal to limit the transmission of the light associated with the glare. The optical element may be configured to selectively limit the transmission of the light associated with the glare in response to the control signal.
Abstract:
An ophthalmic surgical microscope includes a beam coupler positioned along an optical path of the surgical microscope between a first eyepiece and magnifying/focusing optics, the beam coupler operable to direct the OCT imaging beam along a first portion of the optical path of the surgical microscope between the beam coupler and a patient's eye (an OCT image being generated based on a reflected portion of the OCT imaging beam). The surgical microscope additionally includes a real-time data projection unit operable to project the OCT image generated by the OCT system and a beam splitter positioned along the optical path of the surgical microscope between a second eyepiece and the magnifying/focusing optics. The beam splitter is operable to direct the projected OCT image along a second portion of the optical path of the surgical microscope between the beam splitter and the second eyepiece such that the projected OCT image is viewable through the second eyepiece.
Abstract:
Apparatuses, systems, and methods for treating tissue abnormalities are disclosed. The tissue may be visualized for determining a presence of one or more abnormalities contained therein. Imaging data obtained by visualization may be used to determine the presence of one or more abnormalities. Each of the detected abnormalities may be identified and a treatment plan developed for treating the abnormalities. Treatment may be delivered to the abnormalities according to the treatment plan.
Abstract:
Devices, systems, and methods for visualizing moving tissue with strobed light are provided. A surgical system includes a surgical device configured to operate on anatomy at a first frequency such that the anatomy moves at the first frequency when the surgical device is in contact therewith; and a light source configured to provide pulses of light at a second frequency to illuminate the moving anatomy; wherein the second frequency is different than the first frequency. A method of treating an ophthalmic condition includes operating a surgical device at a first frequency such that anatomy moves at the first frequency when the surgical device is contacted therewith; and controlling a light source to provide pulses of light at a second frequency to illuminate the moving anatomy; wherein the second frequency is different than the first frequency. An ophthalmic surgical system includes a cutting probe, a strobed light source, and a computing device.
Abstract:
A surgical imaging system can comprise a light source, configured to generate an imaging light beam; a beam guidance system, configured to guide the imaging light beam from the light source; a beam scanner, configured to receive the imaging light from the beam guidance system, and to generate a scanned imaging light beam; a beam coupler, configured to redirect the scanned imaging light beam; and a wide field of view (WFOV) lens, configured to guide the redirected scanned imaging light beam into a target region of a procedure eye.
Abstract:
Image parameters of an overlay image may be adjusted based on image parameters of an optical image displayed in a surgical microscope. The overlay image may then be displayed with the optical image to a user of the surgical microscope.
Abstract:
A surgical probe system comprising a surgical probe having an instrument tip, and at least one motion sensor located within the surgical probe that measures movement and orientation data. The system further includes a processor that is configured to determine movement and orientation of the instrument tip based on the movement and orientation data, and adjust at least one surgical parameter of the surgical probe based on the movement and orientation of the instrument tip to affect a predetermined surgical outcome.
Abstract:
A vitrectomy surgical system is disclosed herein. The surgical system includes a vitrectomy probe having a cutting portion comprising an inner cutting tube, an outer cutting tube, and an outer port. The inner cutting tube is movable relative to the outer cutting tube to cut vitreous humor during a vitrectomy procedure. The surgical system further includes a motor configured to move the inner cutting tube relative to the outer cutting tube and one or more pressure sensors coupled to the vitrectomy probe to measure a pressure proximate to a distal portion of the vitrectomy probe and provide pressure feedback. Related systems and methods are also included.
Abstract:
An optical light scanning probe is presented, the probe comprising a handle, shaped for grasping by a user; a cannula, protruding from a distal portion of the handle with an outer diameter smaller than 20 gauge; an optical fiber with a distal fiber-portion off a probe-axis, configured to receive a light from a light-source at a proximal fiber-portion, and to emit the received light at the distal fiber-portion; a fixed beam forming unit, disposed at a distal portion of the cannula, configured to receive the light from the distal fiber-portion, and to deflect the received light toward a target region; and a fiber actuator, housed at least partially in the handle, configured to move the distal fiber-portion to scan the deflected light along a scanning curve in the target region.