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    • 51. 发明授权
    • Process for lift off and transfer of semiconductor devices onto an alien substrate
    • 将半导体器件剥离和转移到外来衬底上的工艺
    • US06346459B1
    • 2002-02-12
    • US09496597
    • 2000-02-02
    • Alexander Y UsenkoWilliam N. Carr
    • Alexander Y UsenkoWilliam N. Carr
    • H01L2130
    • H01L21/76254
    • The method of the invention causes fracture of a semiconductor layer containing semiconductor devices from a support layer and requires no masking of the semiconductor device features during an implantation action. The method initially implants protons throughout an entirety of the semiconductor layer at an energy level that enables the protons to reach a depth that defines a delamination region. The implanting creating defects in the semiconductor devices and charge accumulation in dielectric portions (if any). Next a heat treating step causes a delamination of the semiconductor layer from the support layer that lies beneath the delamination region. Then the semiconductor layer is annealed at a temperature that exceeds a thermal stability temperature of the defects to cause a healing thereof.
    • 本发明的方法导致从支撑层导致含有半导体器件的半导体层的断裂,并且在植入动作期间不需要对半导体器件特征进行掩蔽。 该方法最初以能够使质子达到限定分层区域的深度的能级注入整个半导体层整个质子。 植入在半导体器件中产生缺陷并在电介质部分(如果有的话)中产生电荷累积。 接下来,热处理步骤使得半导体层从位于分层区域下方的支撑层分层。 然后半导体层在超过缺陷的热稳定性温度的温度下退火以引起其愈合。
    • 52. 发明授权
    • Optical microshutter array
    • 光学微阵列
    • US5781331A
    • 1998-07-14
    • US787307
    • 1997-01-24
    • William N. CarrXi-qing Sun
    • William N. CarrXi-qing Sun
    • G01J3/02G01J3/10G02B6/35G02B26/02G02F1/01
    • G01J3/10G01J3/02G01J3/0232G02B26/02G02B6/353G02B6/3552G02B6/3566G02B6/3578G02B6/3584
    • An optical shutter apparatus includes a source of illumination and a first aperture plate positioned in a path of light from the source of illumination. A cantilever shutter is positioned at each aperture in the aperture plate and includes at least two bonded layers, one being an electrically resistive layer which exhibits a first thermal coefficient of expansion (TCE) and the second layer exhibiting a second TCE that is different from the first TCE. A proximal end of the bonded layers is attached to the aperture plate at each aperture and a distal portion thereof covers the respective aperture when in position thereover. A controller applies signals to the first electrically resistive layer to cause a heating of the first and second layers and a resultant unequal expansion thereof. The expansion causes a flexure of the cantilever shutter and moves the distal portion thereof to either cover or uncover the aperture, which, when uncovered, allows transmission of the illumination therethrough.
    • 光学快门装置包括照明源和位于来自照明源的光的路径中的第一孔板。 悬臂快门位于孔板中的每个孔处,并且包括至少两个接合层,一个是呈现第一热膨胀系数(TCE)的电阻层,并且第二层呈现与第二热膨胀系数不同的第二TCE 第一次TCE。 接合层的近端在每个孔处附接到孔板,并且其远端部分在其上的位置处覆盖相应的孔。 控制器将信号施加到第一电阻层以引起第一层和第二层的加热,并导致其不均匀的膨胀。 膨胀导致悬臂快门的弯曲并使其远端部分移动以覆盖或露出孔,当未被覆盖时,允许照射透过其中。
    • 60. 发明申请
    • Multiband RFID tag
    • 多频段RFID标签
    • US20110068987A1
    • 2011-03-24
    • US12462428
    • 2009-08-05
    • William N. Carr
    • William N. Carr
    • H01Q11/12
    • H01Q7/00H01Q1/2225
    • An RFID tag communicating with a wireless reader interrogator on more than one frequency band. In one embodiment the tag contains independent sensor circuits for a ultra high frequency UHF band and a lower frequency band. The UHF antenna element used in the tag is a double-resonant antenna typically operating in the 860-960 MHz frequency range providing both near and far field sensitivity. Separate resonant antenna structures a the lower frequency band is connected in series with the UHF antenna substructure. The high frequency HF antenna element contains a coil for magnetic induction pickup of signals typically in the 7-14 MHz frequency band but can also be used for the entire spectral range 100 KHz to 100 MHz. The tag antenna is an integrated structure providing for operation in both the UHF and a lower frequency band. In a separate embodiment the tag is configured with the UHF double-dipole antenna structure only and operates in a single UHF band.
    • RFID标签与多个频带上的无线读写器询问器进行通信。 在一个实施例中,标签包含用于超高频UHF频带和较低频带的独立传感器电路。 标签中使用的UHF天线元件是通常以860-960MHz频率范围工作的双谐振天线,提供近场和远场灵敏度。 单独的谐振天线结构,较低频带与UHF天线子结构串联连接。 高频HF天线元件包含用于通常在7-14MHz频带中的信号进行磁感应拾取的线圈,但也可用于100KHz至100MHz的整个频谱范围。 标签天线是提供在UHF和较低频带两者中操作的集成结构。 在单独的实施例中,标签仅配置有UHF双偶极天线结构,并在单个UHF频带中工作。