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    • 4. 发明申请
    • GENERATION OF PARITY-CHECK MATRICES
    • WO2009004601A9
    • 2009-01-08
    • PCT/IE2008/000071
    • 2008-07-01
    • TECHNOLOGY FROM IDEAS LIMITEDMCEVOY, PaulWENUS, JakubHURLEY, Ted
    • MCEVOY, PaulWENUS, JakubHURLEY, Ted
    • G06F11/10H03M13/11
    • Circuits perform row-by-row matrix generation for encoding and decoding of data blocks. They perform fast algebraic generation of high performance low density parity check (LDPC) matrices suitable for use in a wide range of error correction coding and decoding (ECC) applications. Circuit operation is based on a mathematical Cyclic Ring method that enables matrices of any size to be generated from a simple set of initial parameters, based on user-defined performance requirements. The main steps for generating a parity check matrix (H) are selection of an RG matrix structure, selection of Group Ring elements, generating the sub matrices for the RG matrix by a row filling scheme, generating the RG matrix by a cyclic arrangement of the sub matrices, and generating the parity-check matrix by deleting suitably chosen columns from the RG matrix to achieve the desired performance and then transposing the matrix. A circuit performs data encoding or decoding by receiving initial vectors calculated from row vectors of a previously-generated parity check matrix H, cyclic shifting the vectors to generate a desired output row of the parity check matrix H, re¬ arranging the operation order of the vectors depending on the RG matrix structure and the chosen row, operating on the vectors on information to be encoded.
    • 5. 发明申请
    • MOORING COMPONENTS
    • 系泊组件
    • WO2011033114A2
    • 2011-03-24
    • PCT/EP2010/063823
    • 2010-09-20
    • TECHNOLOGY FROM IDEAS LIMITEDMCEVOY, Paul
    • MCEVOY, Paul
    • B63B21/00B63B21/20
    • B63B21/00B63B2021/203D07B1/22D07B2401/2005D07B2501/2061Y10T29/49764
    • The present invention relates to a mooring component (2) for use in mooring systems. The component (2) comprises a plurality of deformable elements (6a,6b) having a reversible non-linear stress-strain response. The six elements (6a,6b) are formed from elastomeric materials and have different lengths and/or cross-sectional areas and/or are formed from different materials. The overall response of the component (2) is a composite reversible non-linear stress-strain response that is a combination of the responses of each of the plurality of elements (6a,6b). The stress-strain response of the component (2) may be tailored to the expected environmental loading for the location at which the mooring system is to be used.
    • 本发明涉及一种用于系泊系统的系泊组件(2)。 部件(2)包括具有可逆的非线性应力 - 应变响应的多个可变形元件(6a,6b)。 六个元件(6a,6b)由弹性体材料形成并且具有不同的长度和/或横截面积和/或由不同的材料形成。 组件(2)的总体响应是复合可逆非线性应力 - 应变响应,其是多个元件(6a,6b)中的每一个的响应的组合。 组件(2)的应力 - 应变响应可以适应系泊系统将被使用的位置的预期环境负载。
    • 7. 发明申请
    • MOORING
    • 停泊
    • WO2017144867A1
    • 2017-08-31
    • PCT/GB2017/050442
    • 2017-02-21
    • TECHNOLOGY FROM IDEAS LIMITEDDEHNS
    • MCEVOY, Paul
    • B63B21/20B63B21/08B63B21/50
    • B63B21/20B63B21/507B63B2021/005B63B2021/203
    • A mooring line (10) comprising a metal chain (24) and an elastomeric element (28) which is attached between two points of attachment (30, 32) thereby defining a bypass section (34) of metal chain (24). The elastomeric element (28) is arranged such that when an initial tensile load is applied, the elastomeric element (28) stretches from an initial length to a longer length wherein the bypass section (34) is not taut and thus the initial tensile load is transmitted from and to further sections (24) of the metal chain through the elastomeric element (28). When a further tensile load is applied, the elastomeric element (28) stretches to a length wherein the bypass section (34) becomes taut, and thus the further tensile load is transmitted directly from and to the further sections (24) of the metal chain through the bypass section (34).
    • 包括金属链(24)和连接在两个连接点(30,32)之间的弹性体元件(28)的系泊绳索(10),由此限定了 金属链(24)。 弹性体元件(28)被布置成使得当施加初始拉伸载荷时,弹性体元件(28)从初始长度拉伸到较长的长度,其中旁路部分(34)不绷紧,并且因此初始拉伸载荷是 通过弹性体元件(28)从金属链的另外的部分(24)传递并传递到金属链的另外的部分(24)。 当施加进一步的拉伸载荷时,弹性体元件(28)拉伸至其中旁路部分(34)变绷紧的长度,并且因此进一步的拉伸载荷直接从金属链的另外的部分(24) 通过旁路部分(34)。