Abstract:
An electromagnetically induced cutting mech- anism which can provide accurate cutting opera- tions on both hard and soft materials is disclosed. The electromagnetically induced cutter is capable of providing extremely fine and smooth incisions, irrespective of the cutting surface. Additionally, a user programmable combination of atomized parti- cles allows for user control of various cutting pa- rameters. The various cutting parameters may also be controlled by changing spray nozzles and elec- tromagnetic energy source parameters. A fluid con- ditioning system is adaptable to condition the water or air used in medical and dental cutting, irrigat- ing, evacuating, cleaning, and drilling operations. The air or water may be conditioned by adding fla- vor, scent, saline, medications, and disinfectants. In addition to the direct benefits obtained from intro- duction of these agents, the laser cutting properties may be varied from the selective introduction of the various agents.
Abstract:
An electromagnetic energy output device in the form of laser handpiece and a trunk assembly is disclosed. The electromagnetic energy output device includes a digital camera and electromagnetic energy waveguides for emitting illumination or excitation light energy to enhance user viewability of a target surface and signal analysis and to receive electromagnetic energy such as return excitation light. An image acquisition fitting routes images acquired at or in a vicinity of the distal end of the electromagnetic energy output device. The image acquisition fitting can include an attachable or clip- on element or set of elements. In other implementations, the image acquisition fitting may be securable, in whole or in part, within an interior of the electromagnetic energy output device.
Abstract:
An electromagnetic energy output device in the form of laser handpiece and a trunk assembly is disclosed. The electromagnetic energy output device includes a digital camera and electromagnetic energy waveguides for emitting illumination or excitation light energy to enhance user viewability of a target surface and signal analysis and to receive electromagnetic energy such as return excitation light. An image acquisition fitting routes images acquired at or in a vicinity of the distal end of the electromagnetic energy output device. The image acquisition fitting can include an attachable or clip-on element or set of elements. In other implementations, the image acquisition fitting may be securable, in whole or in part, within an interior of the electromagnetic energy output device.
Abstract:
A device for imparting therapeutic doses to living tissue is disclosed. The device includes a planar carrier including or structured to adjustably accommodate a multitude of electrodes. Positions of the electrodes may be altered by a user during a treatment procedure involving the impartation of therapeutic doses to the living tissue.
Abstract:
Outputs of a plurality of electromagnetic energy emitting devices are merged to create merged electromagnetic energy. The merged electromagnetic energy illuminates a target with a spot size larger than a spot size obtained with a single electromagnetic energy emitting device.
Abstract:
A laser device that includes a dual pulse-width laser-pumping circuit generates long and short laser pulses. The laser-pumping circuit employs a single power supply with dual high voltage outputs that are selectable under control of a user. The laser device conveniently generates long and short laser pulses or a mix of the two for performing specialized surgical procedures.
Abstract:
Output optical energy pulses including relatively high energy magnitudes at the beginning of each pulse are disclosed. As a result of the relatively high energy magnitudes which lead each pulse, the leading edge of each pulse includes a relatively large slope. This slope is preferably greater than or equal to 5. Additionally, the full-width half-max value of the output optical energy distributions are between .025 and 250 microseconds and, more preferably, are about 70 microseconds. A flashlamp is used to drive the laser system, and a current is used to drive the flashlamp. A flashlamp current generating circuit includes a solid core inductor which has an inductance of 50 microhenries and a capacitor which has a capacitance of 50 microfarads.