Abstract:
Embodiments of an air-cooled gas laser with heat transfer resonator optics are disclosed herein. A laser configured in accordance with one embodiment includes resonator optics having an optical element, a first heat sink element in surface-to-surface contact with a first side surface of the optical element, a second heat sink element in surface-to-surface contact with a second side surface of the optical element, and a carrier member carrying the optical element and the first heat sink element, and including a forward facing surface in surface-to-surface contact with the backside surface of the optical element. The resonator optics further include first and second biasing elements biasedly coupled to the carrier member and configured to bias the first and second heat sink elements against the first side and second side surfaces, respectively, of the optical element.
Abstract:
Embodiments of an air-cooled gas laser with heat transfer resonator optics are disclosed herein. A laser configured in accordance with one embodiment includes resonator optics having an optical element, a first heat sink element in surface-to-surface contact with a first side surface of the optical element, a second heat sink element in surface-to-surface contact with a second side surface of the optical element, and a carrier member carrying the optical element and the first heat sink element, and including a forward facing surface in surface-to-surface contact with the backside surface of the optical element. The resonator optics further include first and second biasing elements biasedly coupled to the carrier member and configured to bias the first and second heat sink elements against the first side and second side surfaces, respectively, of the optical element.
Abstract:
Embodiments of an air-cooled gas laser with a heat transfer assembly are disclosed herein. A laser configured in accordance with one embodiment includes a laser superstructure and a laser superstructure having an opening and a cavity accessible through the opening, and an electrode assembly. The electrode assembly is configured to be received into the cavity, and includes a frame and an electrode biasedly coupled to the frame and electrically insulated therefrom.
Abstract:
A method and apparatus for EMI protection is disclosed. Particularly, the present invention is directed to an article of manufacture for electromagnetic interference shielding comprising a cylindrically-shaped sleeve constructed of a conductive fabric adapted to provide electromagnetic interference shielding by conducting at least a portion of electromagnetic radiation, wherein the cylindrically-shaped sleeve is made by rolling a piece of conductive fabric into a cylindrical shape such that opposing sides of the piece of conductive fabric are joined together resulting in the cylindrically-shaped sleeve having a seam at a junction of the opposing sides. In one embodiment, opposing sides of the piece of conductive fabric are sewn together.
Abstract:
A method of treating target tissue of an embodiment comprises: selecting a treatment pattern of spots; generating an aiming beam of aiming light; translating the aiming beam to form an aiming pattern of the aiming light on the target tissue that indicates the extent of the treatment pattern; generating a treatment beam of treatment light; and translating the treatment beam to form the selected treatment pattern of spots of the treatment light on the target tissue.
Abstract:
A laser system 20 enables quickly releasing and replacing a laser source 41 mounted in a laser compartment 40 by interfacing engaging members 32,43 of the platform 40 and source 41, respectively to place the pre-aligned beam 42 in operative relation with the pre-aligned beam delivery system 31 and closing the compartment with a latchable 45 cover 44 without the use of any tools and without the need for any additional beam alignment. A deformable spacer 47 holds the source in place when the cover is closed, and a switch 48 automatically interrupts power when the cover is opened,
Abstract:
A laser apparatus for reaching a high-inversion level by the reduction of transverse depumping mechanisms, having a laser rod optically coupled to a pumping flashlamp capable of producing lasing action. The inversion level of the laser rod is improved by a filter for absorbing radiation within the lasing wavelength while being substantially transparent to the pumping wavelength. A portion of the filtering system is located inside the laser rod while another portion may be in the quartz envelope of the flashlamp or in other locations, as desired.