Patents by Inventor Ming-Hsien Chou

Ming-Hsien Chou has filed for patents to protect the following inventions. This listing includes patent applications that are pending as well as patents that have already been granted by the United States Patent and Trademark Office (USPTO).

  • Publication number: 20040020682
    Abstract: The invention relates to a pliable connector comprising a plurality of metal conductor wires arranged as the plurality of parallel coplanar ones being equally spaced apart, a first insulated medium for embedding the conductor wires to form an insulated layer wherein the spacing between any two adjacent conductor wires is not changed and either end of the insulated layer is open, and a second insulating medium coated on both sides of the insulated layer to form a lamination with a predetermined thickness so as to possess a predetermined flexibility and strength and be cut into a plurality of said pliable connectors with predetermined size.
    Type: Application
    Filed: August 5, 2003
    Publication date: February 5, 2004
    Applicant: Akira Technology Co., Ltd.
    Inventors: Ming-Hsien Chou, Wen-Chun Chen
  • Patent number: 6687042
    Abstract: A compensated nonlinear optical frequency mixer for compensating the walk-off produced by group velocity mismatch (GVM) between interaction waves. The compensated mixer has a first mixing region in which the interaction waves participate in a non-linear optical mixing process and where walk-off occurs between the interaction waves due to GVM. The compensated mixer is equipped with a frequency selective coupling and time delay structure located after the first mixing region for eliminating the walk-off produced between the interaction waves in the first mixing region by guiding the waves in arms whose lengths differ by a re-synchronization length. A second mixing region is located after the frequency-selective coupling and time delay structure, such that when the waves emerge in phase from the frequency selective coupling and time delay structure they continue to interact efficiently in the second mixing region.
    Type: Grant
    Filed: August 27, 2001
    Date of Patent: February 3, 2004
    Assignee: The Board of Trustees of the Leland Stanford Junior University
    Inventors: Ming-Hsien Chou, Martin M. Fejer, Jonathan Kurz
  • Publication number: 20030199181
    Abstract: The invention relates to a pliable connector comprising a plurality of metal conductor wires arranged as the plurality of parallel coplanar ones being equally spaced apart, a first insulated medium for embedding the conductor wires to form an insulated layer wherein the spacing between any two adjacent conductor wires is not changed and either end of the insulated layer is open, and a second insulating medium coated on both sides of the insulated layer to form a lamination with a predetermined thickness so as to possess a predetermined flexibility and strength and be cut into a plurality of said pliable connectors with predetermined size.
    Type: Application
    Filed: April 17, 2002
    Publication date: October 23, 2003
    Applicant: Akira Technology Co., Ltd.
    Inventors: Ming-Hsien Chou, Wen-Chun Chen
  • Publication number: 20030179439
    Abstract: A method of patterning and fabricating poled dielectric microstructures in dielectric materials comprising the following steps. A poled dielectric microstructure within a dielectric material is provided. The poled dielectric microstructure is then segmented into a plurality of independent sub-structures. The poled dielectric microstructures are then fabricated within each of the plurality of independent sub-structures. Additional processes and a novel poling setup for improving and implementing this patterning and fabrication method are also disclosed.
    Type: Application
    Filed: March 19, 2002
    Publication date: September 25, 2003
    Applicant: HC Photonics Corporation.
    Inventors: Tze-Chia Lin, Tsung-Yuan Chiang, Pin-Hao Sher, Yen-Hung Chen, Ming-Hsien Chou
  • Publication number: 20030127042
    Abstract: A method of fabricating a waveguide in ferroelectric crystals, comprising the following steps. A ferroelectric crystal is provided. A vapor phase proton is diffused into the ferroelectric crystal by a vapor proton-exchange process to form a vapor proton-exchange (VPE) waveguide material structure having a step refractive index profile. The VPE waveguide material structure is treated with one or more processes selected from the group consisting of: a post thermal anneal process and an additional reverse proton-exchange process to complete fabrication of the waveguide, whereby the refractive index profile of the fabricated waveguide can be flexibly optimized. This method can form a high-quality waveguide and also provides a full degree of design flexibility for device optimization in several applications.
    Type: Application
    Filed: January 9, 2002
    Publication date: July 10, 2003
    Inventors: Der-Hou Tsou, Shang-Yi Wu, Ming-Heng Chen, Ming-Hsien Chou
  • Publication number: 20020131156
    Abstract: A compensated nonlinear optical frequency mixer for compensating the walk-off produced by group velocity mismatch (GVM) between interaction waves. The compensated mixer has a first mixing region in which the interaction waves participate in a non-linear optical mixing process and where walk-off occurs between the interaction waves due to GVM. The compensated mixer is equipped with a frequency selective coupling and time delay structure located after the first mixing region for eliminating the walk-off produced between the interaction waves in the first mixing region by guiding the waves in arms whose lengths differ by a re-synchronization length. A second mixing region is located after the frequency-selective coupling and time delay structure, such that when the waves emerge in phase from the frequency selective coupling and time delay structure they continue to interact efficiently in the second mixing region.
    Type: Application
    Filed: August 27, 2001
    Publication date: September 19, 2002
    Inventors: Ming-Hsien Chou, Martin M. Fejer, Jonathan Kurz