6 results about "High intensity lasers" patented technology

A counter high-energy laser system directs high-intensity laser radiation back to a threat laser in the form of an ultra-short optical pulse (USP). The retro-directed USP induces permanent internal optical damage in the threat laser, thus disabling the threat by exploiting the very high optical gain at the source of an incoming laser thereby causing an injected pulse to grow exponentially in energy and peak power within the threat laser optical train until it reaches a damaging threshold. The existing optical energy from the threat laser system and stored in the laser beam from threat system is exploited thereby enabling the size, weight, and power of the counter laser system to be significantly reduced. The wavelength of the counter pulse is automatically matched to the threat.

1. The name of the design product: table type semiconductor laser physiotherapy instrument. 2. The use of the design product: through high intensity laser irradiation of blood to trigger a series of biochemical reactions in the human body, through the two aspects of blood and static blood to improve and restore the physiological function of blood, and to relieve pain after operation. 3. The design points of the design product: in shape. 4. The picture or photo that best indicates the design points: perspective view.

The utility model relates to a reactor system, a laser generation system and a fusion reactor system for space application. The reactor system comprises a reactor, at least one satellite system, an optical cavity, an optical path modifying device, at least one pair of reflecting mirror devices, a timing device and a space driving device. The present disclosure provides a fusion energy system configured with a high intensity pulsed laser system in a compact and spatially efficient system; the high-intensity pulse laser system provides enough energy to ignite and maintain fusion energy configured in space application; the present disclosure provides the advantage of using this high intensity laser in space to produce fusion energy through efficient size, weight and cost.

The utility model discloses a particle detection device which comprises a detection cavity, an air inlet nozzle and an air outlet nozzle which are arranged on the detection cavity, a light source assembly capable of providing light focused at the central position of the detection cavity, a first reflecting mirror, a second reflecting mirror, a light collecting reflecting mirror and a light receiving lens, a gas path formed between the gas inlet nozzle and the gas outlet nozzle passes through the central position of the detection cavity; the particle detection device disclosed by the utility model adopts the reflecting mirror to reflect laser rays in the cavity for multiple times, and a high-intensity laser area is formed at the intersection of a light path and a gas path, so that the detection precision and sensitivity are improved, and the design can greatly reduce the power of laser equipment, reduce the volume of a light source, reduce the power consumption of the light source and reduce the overall volume of a sensor; the overall performance of the sensor is improved, miniaturization of equipment is facilitated, and high-precision detection can be carried out on small particles.

Method for manufacturing a valuable or secure product (100), comprising the steps: - Providing a core layer (102) of the value or security product (100), - Applying at least one laser-compatible foil layer (106) to the core layer (102) or to one or more polymer layers (104) applied to the core layer (102), - Incorporating person-specific and / or product-specific non-tactilely detectable information (108) into the laser-compatible foil layer (106) using a low-intensity laser beam, and - Forming person-specific and / or product-specific information in the form of at least one tactilely detectable Braille character (110) with a high-intensity laser beam which is higher than the low intensity, wherein a cover layer which is only partially opaque is applied to the laser-capable foil layer (106), and wherein the cover layer is opaque at least in one of the places where a blackening has been introduced into the underlying laser-capable foil layer (106) by the laser beam.

The application discloses a device for realizing in-situ measurement of time-domain waveforms of ultrahigh-intensity laser pulses, which comprises a component to be measured, wherein the component to be measured comprises a femtosecond laser source, a beam splitter arranged on one side of the femtosecond laser source, a mirror component arranged on one side of the beam splitter, a first focusing lens arranged on one side of the mirror component, a vacuum component arranged on one side of the first focusing lens, a dual-color mirror arranged on one side of the vacuum component, a narrow-band filter arranged on one side of the dual-color mirror, a 10cm focusing lens arranged on one side of the narrow-band filter and a spectrometer; and a detection component, wherein the detection component comprises a mirror, a second focusing lens arranged on one side of the mirror and a time-delay device mounted on an electrically-controlled displacement table. According to the application, the limitation of traditional equipment in terms of damage threshold can be broken, only a common spectrometer is needed to record optical frequency domain information, the method is simple, the cost is low and the applicability is wide.