Abstract: A method and surgical system including a laser source for generating a pulsed laser beam, an imaging system including a detector, shared optics configured for directing the pulsed laser beam to an object to be sampled and confocally deflecting back-reflected light from the object to the detector, a patient interface, through which the pulsed laser beam is directed, the patient interface having, a cup with a large and small opening, and a notched ring inside the cup; and a controller operatively coupled to the laser source, the imaging system and the shared optics, the controller configured to align the eye for procedure.

Abstract: A laser eye surgery system includes a laser to generate a laser beam. A topography measurement system measures corneal topography. A processor is coupled to the laser and the topography measurement system, the processor embodying instructions to measure a first corneal topography of the eye. A first curvature of the cornea is determined. A target curvature of the cornea that treats the eye is determined. A first set of incisions and a set of partial incisions in the cornea smaller than the first set of incisions are determined. The set of partial incisions is incised on the cornea by the laser beam. A second corneal topography is measured. A second curvature of the cornea is determined. The second curvature is determined to differ from the target curvature and a second set of incisions are determined. The second set of incisions is incised on the cornea.

Abstract: A laser surgery system includes a light source, an eye interface device, a scanning assembly, a confocal detection assembly and preferably a confocal bypass assembly. The light source generates an electromagnetic beam. The scanning assembly scans a focal point of the electromagnetic beam to different locations within the eye. An optical path propagates the electromagnetic beam from a light source to the focal point, and also propagates a portion of the electromagnetic beam reflected from the focal point location back along at least a portion of the optical path. The optical path includes an optical element associated with a confocal detection assembly that diverts a portion of the reflected electromagnetic radiation to a sensor. The sensor generates an intensity signal indicative of intensity the electromagnetic beam reflected from the focal point location. The confocal bypass assembly reversibly diverts the electromagnetic beam along a diversion optical path around the optical element.

Abstract: Embodiments of this disclosure disclose an imaging system, including an eye interface device, a scanning assembly, a beam source, a free-floating mechanism, and a detection assembly. The beam source generates an electromagnetic radiation beam. The detection assembly generates a signal indicative of an intensity of a portion of the electromagnetic radiation beam reflected from the focal point location. A subsequent focal point of the electromagnetic radiation beam may be adjusted per the measured intensity signal. In some embodiments, an intensity signal below a lower threshold value may suggest a depth increase for a subsequent focal point. An intensity signal above an upper threshold value may suggest a depth decrease for a subsequent focal point. And, an intensity signal between the lower and upper thresholds may suggest a depth be maintained for a subsequent focal point. The focal point may be adjusted after each pulse or after a plurality of pulses.

Abstract: Systems and methods for surgical spinal correction are disclosed. A system including a plurality of bone screws, spinal rods, manipulators, and/or transverse couplers is disclosed for the manipulation of the spinal column is disclosed. A method of achieving, in a single action, manipulation and/or rotation of the spinal column using the disclosed system is disclosed. Also disclosed is a method of conducting spinal surgery to correct spinal deformities wherein spinal rods are pre-bent in a physiological sagittal plane prior to attachment of the vertebrae using bone screws.

Abstract: A self-contained, modular proportioner unit includes a frame, a water handling assembly supported by the frame, a syrup handling assembly supported by the frame, and a controller supported by the frame. Each of the water handling assembly, the syrup handling assembly, and the controller are mounted in close relationship with one another, thereby minimizing the size of the proportioner unit.

Abstract: A latching device is provided for a circuit pack having a cable retainer carried upon the front of the operating lever of the device. The cable retainer is oriented for positional and directional control of cable by directing cable longitudinally of the faceplate of the circuit pack and away from the fronts of other circuit packs within a shelf. Also provided is a combination of a latching device and two groups of covers. The combination enables a single latching device to be used upon circuit packs requiring security and non security conditions within a shelf. It also enables removal of a faceplate held to a faceplate mounting with the circuit pack in the shelf. An orifice in an operating lever of the device is accessible with a cover of the first group mounted upon the operating lever, as orifices in these covers align themselves with the orifice in the operating lever.

Abstract: There is provided an adapter for mounting electronic equipment, such as telecommunications switching equipment, to a rack. The adapter is configured to comply with industry standards, such as the Electronic Industries Association standards, that prescribe how electronic equipment should be mounted and installed. The adapter also protects and guides fiber optic cables connecting a communications network to electronic circuitry units which form part of the electronic equipment. In compliance with Bellcore standards, the adapter provides means for bend radius control which ensures that the fiber optic cable does not have a bend radius of less than one inch as it is dressed between the electronic circuitry units and the communications network. A cable cavity defined by the adapter is intended to minimize that fiber optic cable contained therein catches on the equipment and clothing of service personnel.

Abstract: There is provided an adapter for mounting electronic equipment, such as telecommunications switching equipment, to a rack. The adapter is configured to comply with industry standards, such as the Electronic Industries Association standards, that prescribe how electronic equipment should be mounted and installed. The adapter also protects and guides fiber optic cables connecting a communications network to electronic circuitry units which form part of the electronic equipment. In compliance with Bellcore standards, the adapter provides means for bend radius control which ensures that the fiber optic cable does not have a bend radius of less than one inch as it is dressed between the electronic circuitry units and the communications network. A cable cavity defined by the adapter is intended to minimize that fiber optic cable contained therein catches on the equipment and clothing of service personnel.

Abstract: There is provided a clip for retaining and controlling the bend radius of signal carrying cable such as fiber optic cable. The clip may be used in association with electronic equipment, such as telecommunications switching equipment. The clip retains and guides at least one fiber optic cable connecting a communications network to electronic circuitry units which form part of the electronic equipment. In compliance with Bellcore standards, the clip provides means for bend radius control which ensures that the fiber optic cable does not have a bend radius of less than one inch as it is dressed between the electronic circuitry units and the communications network. By retaining one or more cables, the clip is intended to minimize that fiber optic cable catches on the equipment and clothing of service personnel. Furthermore, by keeping the cables associated with an electronic circuitry unit together, service personnel are less likely to make mistakes when reattaching cables.

Abstract: A latching device is provided for a circuit pack having a cable retainer carried upon the front of the operating lever of the device. The cable retainer is oriented for positional and directional control of cable by directing cable longitudinally of the faceplate of the circuit pack and away from the fronts of other circuit packs within a shelf.

Abstract: A latching device is provided for a circuit pack having a cable retainer carried upon the front of the operating lever of the device. The cable retainer is oriented for positional and directional control of cable by directing cable longitudinally of the faceplate of the circuit pack and away from the fronts of other circuit packs within a shelf. Also provided is a combination of a latching device and two groups of covers. The combination enables a single latching device to be used upon circuit packs requiring security and non security conditions within a shelf. It also enables removal of a faceplate held to a faceplate mounting with the circuit pack in the shelf. An orifice in an operating lever of the device is accessible with a cover of the first group mounted upon the operating lever, as orifices in these covers align themselves with the orifice in the operating lever.