RADIO FREQUENCY EXCITED GAS LASER SOURCE
    5.
    发明公开
    RADIO FREQUENCY EXCITED GAS LASER SOURCE 审中-公开
    高频建议的气体激光源

    公开(公告)号:EP2160807A1

    公开(公告)日:2010-03-10

    申请号:EP08790015.5

    申请日:2008-06-24

    申请人: EL.EN. S.p.A.

    IPC分类号: H01S3/038 H01S3/0973

    摘要: There is described a gas laser comprising a pair of substantially mutually parallel and opposed electrodes (17, 37), between which a volume is defined containing a gas in which said electrodes generate a discharge. At opposed ends of the electrodes, in said volume, mirrors (65) are arranged to define a resonant cavity. The electrodes form an integral part of two portions (5, 7) of a sealed housing (1), containing the gas and in which the mirrors and the electrodes are housed. The two portions (5, 7) forming the housing are electrically connected.

    Laser oscillating apparatus
    6.
    发明公开
    Laser oscillating apparatus 有权
    激光振荡装置

    公开(公告)号:EP1032097A2

    公开(公告)日:2000-08-30

    申请号:EP00301496.6

    申请日:2000-02-25

    摘要: In a slot array structure, electromagnetic wave emission which is uniform as a whole over the length of a laser tube is realized to allow uniform laser emission with minimum energy loss. Slots (10) are formed at a predetermined pitch in a long end face (H plane) of each waveguide (1) along a central line (m) in the longitudinal direction of the H plane to be alternately located on the left and right sides of the central line (m) and spaced apart from the central line (m) by a distance (d).

    摘要翻译: 在缝隙阵列结构中,实现了在激光管长度上整体上均匀的电磁波发射,从而以最小的能量损失实现均匀的激光发射。 沿着H平面的纵向中心线(m)以预定间距在每个波导(1)的长端面(H平面)中以预定间距形成狭槽(10),以交替地位于左侧和右侧 的中心线(m)并且与中心线(m)间隔距离(d)。

    WIRELESS LASER POWER TRANSMITTER
    8.
    发明公开
    WIRELESS LASER POWER TRANSMITTER 审中-公开
    无线激光电站

    公开(公告)号:EP2235802A2

    公开(公告)日:2010-10-06

    申请号:EP09700130.9

    申请日:2009-01-04

    申请人: Wi-Charge Ltd.

    IPC分类号: H01S3/0973

    摘要: An optical power beam transmission systems, with a directional light transmitter and receiver. The transmitter contains an amplifying laser medium, and this together with a retroreflector in the receiver, forms a laser resonator. When lasing sets in, the receiver can extract optical power through an output coupler and convert it to electrical power. The gain medium may be a disc having a thickness substantially smaller than its lateral dimensions. The laser resonator is operated as a stable resonator to ensure safe operation. This is achieved by use of an adaptive optical element, for reducing the diameter of the energy beam impinging on the gain medium, thereby increasing the overlap between the energy beam and the gain medium. As the transmitter-receiver distance is changed, such as by movement of the receiver, the adaptive optical element focal length changes to ensure that the cavity remains within its stability zone.