Abstract: A system, method and apparatus for eliminating image tearing effects and other visual artifacts perceived when scanning moving subject matter with a scanned beam imaging device. The system, method and apparatus uses a motion detection means in conjunction with an image processor to alter the native image to one without image tearing or other visual artifacts. The image processor monitors the motion detection means and reduces the image resolution or translates portions of the imaged subject matter in response to the detected motion.

Abstract: A method for repairing or modifying an area of a patient's anatomy that comprises directing at least a portion of a scanning beam assembly to an area of a patient's anatomy, applying a radiation-responsive agent to portion of the anatomy, and exposing the radiation-responsive agent to radiation directed onto the agent by the reflector to cause the agent to therapeutically interact with the site. The scanning beam assembly including a radiation source capable of emitting radiation, a reflector that receives the radiation from the radiation source to direct the radiation onto the anatomy, wherein the reflector oscillates in at least two directions to create a scan of the anatomy, a detector to detect radiation returned from the anatomy, and a controller to convert the detected radiation into a displayable anatomy image.

Abstract: A first expression of a first apparatus includes a medical scanned beam imager including an optical dome and a scanner, wherein the optical dome has a variable optical power distribution. A first expression of a second apparatus includes a sleeve assembly which is attachable to a medical scanned beam imager and which includes an objective element which covers an optical dome of the imager when the sleeve assembly is attached to the imager. A second expression of a second apparatus includes a sleeve assembly and a medical scanned beam imager wherein the sleeve assembly is attached to the imager and an objective element of the sleeve assembly covers an optical dome of the imager. A first expression of a third apparatus includes an objective element and a medical scanned beam imager having an optical dome wherein the objective element covers the optical dome and is attached to the imager.

Abstract: An apparatus and method for allowing multiple high and low resolution SBI and conventional FPA imaging devices to use a common high resolution monitor and archive device without increasing or significantly changing the footprint of existing devices. This system and method uses a frame grabber for digitizing video from the legacy FPA devices, a frame mapper for rendering or mapping the FPA video into the SBI digital format, a converter for rasterizing SBI data streams into pixel-oriented FPA video frames, an input selector for selecting which FPA or SBI imaging device to display on a high resolution monitor, an processor for storing and manipulating frames of video, a video output encoder for converting the SBI frames into a video signal appropriate for display on the high resolution monitor, and an output means for connecting to a storage device for archiving video and images.

Abstract: A system for examining an area of a patient's anatomy that comprises a probe capable of fluorescing, and a scanning beam assembly that scans the probe with a beam of excitation radiation and detects the probe's fluorescence. The scanning beam assembly including a radiation source capable of emitting one or more wavelengths of radiation that are capable of exciting the probe and causing the probe to fluoresce, a scanning device that directs the radiation onto a field-of-view to create a scan of the field-of-view, a detector to detect radiation returned from the field-of-view, and a controller to convert the detected radiation into a displayable fluorescence image.

Abstract: A medical device includes a radiation source assembly having at least two radiation sources, where one or more of the radiation sources is adapted to generate an imaging beam for use in visualization of a scene and one or more of the radiation sources is adapted to generate a therapeutic beam for treatment of a medical condition. An optical fiber for directing radiation energy from the radiation source assembly toward a distal end of the medical device in the form of a beam. A reflector that receives the beam from the optical fiber, the reflector configured to direct the beam onto a field-of-view. A receiving system including a detector arranged and configured to receive radiation from the field-of-view to generate a viewable image. The imaging beam and the therapeutic beam are directed to follow a common path from the at least two radiation sources to the reflector.

Abstract: A scanning beam assembly comprising: a beam generator to generate a beam of radiation, an oscillating reflector configured to deflect the beam at varying angles of excursion to yield a scanned beam that scans a field of view, an optical detector that detects light reflected from the field of view, the detector including at least one of an adjustable gain and adjustable sensitivity, and a controller programmable to control the gain and/or sensitivity of the detector.

Abstract: A drive circuit includes a generator and a driver. The generator generates a signal having a period and a varying amplitude during a driving portion of the period, and the driver is coupled to the generator and drives a plate of an electrostatically drivable plant with the signal. The drive circuit may be used to drive a mirror plate of a comb-drive MEMS mirror.

Abstract: An image processing system is arranged to provide rotation compensation and image stabilization in a video scope system such as in endoscopy and laparoscopy systems. The image processing functions may operate at real-time frame rates so that the resulting processed image is observable with no time lag. A rotation sensor is included in the system to sense the position of scope. The sensed scope rotation may be used to cause rotation of the collected image and/or an image displayed on a video monitor. The sensed rotation may be used to identify or calculate a coordinate transformation matrix that is used for processing the image data. The system may include a horizon lock mechanism that can be user-actuated to engage rotation compensation. When the horizon lock mechanism is not engaged, the output image is locked to the scope tip and rotates with rotation of the scope.

Abstract: A first apparatus includes a scanned beam imager. The scanned beam imager includes an optical dome and a dual-resonant-mirror scanner. The optical dome has an optical axis. The scanner is adapted to scan, about substantially orthogonal first and second axes, a beam of light through the optical dome within a field of view centered about the optical axis. The scanner has first-axis angular extremes and second-axis angular extremes. The optical dome has a variable optical power distribution. A second apparatus includes a scanned beam imager. The scanned beam imager includes an optical dome and a scanner. The optical dome has an optical axis. The scanner is adapted to scan a beam of light through the optical dome within a field of view centered about the optical axis. The optical dome has a coating, and the coating has a spatially variable transmittance distribution.

Abstract: Apparatus for medically treating a tattoo includes a scanned light beam unit having a light beam source assembly adapted to emit light pulses at different wavelengths, a scanner, light detector(s), and a controller operatively connected to the light beam source assembly and the scanner. The controller is adapted: to control the scanned light beam unit to illuminate a first light-pulse-sized region of the tattoo using the light beam source assembly at different wavelengths and at relatively low power; to use the light detector(s) to detect a least-reflecting wavelength of the illumination of the first light-pulse-sized region of the tattoo; and to control the scanned light beam unit to medically treat the first light-pulse-sized region of the tattoo using the light beam source assembly at a wavelength substantially equal to the least-reflecting wavelength and at relatively high power. A method is disclosed for medically treating a tattoo which uses the apparatus.

Abstract: A scanning beam assembly for use in medical applications comprising a plurality of radiation emitters that emit radiation over different wavelength ranges, wherein at least one of the emitters emits radiation that is minimally absorbed by blood; a scanner including a reflector that receives radiation from the emitters and directs it onto a field-of-view; and at least one detector configured to receive the radiation scattered, reflected or transmitted by the field-of-view and generate an electrical signal.

Abstract: A micro-electromechanical device includes a frame, a moveable member movably connected to the frame such that the moveable member is capable of movement relative to the frame and drive system for use in moving the moveable member relative to the frame. A braking system is provided that inhibits movement of the moveable member relative to the frame.

Abstract: A system, method and/or apparatus is provided for visualization or imaging of the transverse carpal ligament and surrounding structures/features of a hand of a patient, and treatment of the transverse carpal ligament, particularly, but not necessarily, for performing non-invasive carpal tunnel release. The subject invention utilizes ultrasound waves preferably, but not necessarily, in the high frequency range and cavitations to image the transverse carpal ligament (TCL), record its location in three-dimensional space, and perform precision treatment on the transverse carpal ligament. Treatment may range from stretching or lengthening the TCL to complete tissue ablation or dissection of a portion or portions of the TCL (as is performed in a standard carpal tunnel release procedure) in order to release pressure within the carpal tunnel. Particularly, high temperature conditions are generated at target tissue of the TCL resulting in elongation or necrosis/dissection.

Abstract: A system, method and/or apparatus is provided for visualization or imaging of the transverse carpal ligament and surrounding structures/features of a hand of a patient, and treatment of the transverse carpal ligament, particularly, but not necessarily, for performing non-invasive carpal tunnel release. The subject invention utilizes ultrasound waves preferably, but not necessarily, in the high frequency range and cavitations to image the transverse carpal ligament (TCL), record its location in three-dimensional space, and perform precision treatment on the transverse carpal ligament. Treatment may range from stretching or lengthening the TCL to complete tissue ablation or dissection of a portion or portions of the TCL (as is performed in a standard carpal tunnel release procedure) in order to release pressure within the carpal tunnel. Particularly, high temperature conditions are generated at target tissue of the TCL resulting in elongation or necrosis/dissection.

Abstract: Devices and methods are provided for identifying tissue cells, such as cancerous cells. The device can include a swallowable capsule having a detector. A patient can be given a substance which includes a marker material (such as a radioactive marker or a magnetic marker material), and which substance can be preferentially bound to or otherwise associated with the particular cell type.

Abstract: Devices and methods are provided for identifying tissue cells, such as cancerous cells. The device can include a swallowable capsule having a detector. A patient can be given a substance which includes a marker material (such as a radioactive marker or a magnetic marker material), and which substance can be preferentially bound to or otherwise associated with the particular cell type.

Abstract: An ultrasonic imaging system for displaying color flow images includes a receiver which demodulates ultrasonic echo signals received by a transducer array and dynamically focuses the baseband echo signals. A color flow processor includes a frequency domain adaptive wall filter which automatically adjusts to changes in Doppler-shifted frequency and bandwidth of the wall signal components in the focused baseband echo signals after the echo signals have undergone Fourier transformation into the frequency domain. The mean Doppler-shifted frequency of the resulting filtered baseband echo signals is used to indicate velocity of moving scatterers and to control color in the displayed image.

Abstract: Method and apparatus are provided for performing a plurality of digital signal processing functions wherein each said function is a unique combination of identical subfunctions. A plurality of operating units are provided wherein each operating unit is adapted to perform one said subfunction. Apparatus and method are disclosed for programmably configuring these operating units in a variety of serial combinations wherein each combination will perform a respective signal processing function.

Abstract: Serial data transfer circuitry is provided for transferring data between a multiplicity of functional units of a VLSI semiconductor chip. Each functional unit is provided with a respective data register, the registers being adapted to receive information in parallel from and/or transfer information in parallel to their respective functional units. The registers are each serially connected in a closed loop for serially shifting data from one register to another. Data transfer from one functional unit to another is accomplished by transferring a data word in parallel to a source register from its respective functional unit, serially shifting data from the source register to a destination register and parallelly transferring the data word from the destination register to its respective functional unit. Control of the transfer is provided by a counter which counts the number of shifts required to transfer the data word from the source to the destination register.