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    • 4. 发明授权
    • Encoding apparatus, decoding apparatus, and encoding and decoding system
    • 编码装置,解码装置以及编码和解码系统
    • US08850275B2
    • 2014-09-30
    • US12929283
    • 2011-01-12
    • Kazuhito SakomizuTakashi Nishi
    • Kazuhito SakomizuTakashi Nishi
    • G06F11/00G11C29/00
    • H03M13/1194H03M13/2957H03M13/616H03M13/6362H03M13/6368H03M13/6381H03M13/6393
    • An encoding apparatus derives a bit order based on a puncturing table that specifies different puncturing patterns for different transmission rates. The encoding apparatus then generates an error correcting code from an input information bit string and rearranges the error correcting code in the derived bit order. The error correcting code is punctured by taking a number of consecutive bits from the rearranged error correcting code. The number of bits taken varies depending on the transmission rate. The punctured error correcting code is output to a decoding apparatus, which realigns the code bits according to the transmission rate and the puncturing table, then uses the realigned error correcting code to correct errors in erroneous data. Rearrangement of the error correcting code makes the puncturing process more efficient by avoiding the need to decide whether to take or discard each bit individually.
    • 编码装置基于针对不同传输速率指定不同的删截图案的删截表,导出比特顺序。 然后,编码装置从输入信息比特串生成纠错码,并以导出的比特顺序重新排列纠错码。 通过从重新排列的纠错码获取多个连续比特来对纠错码进行打孔。 所占用的位数根据传输速率而变化。 经打孔的纠错码被输出到解码装置,根据传输速率和打孔表重新排列码位,然后使用重新排列的纠错码来纠正错误数据中的错误。 错误校正码的重新排列使得穿孔过程更有效,因为避免了决定是单独拍摄还是丢弃每个位的需要。
    • 5. 发明授权
    • Method of improving the iterative decoding of codes
    • 改进代码迭代解码的方法
    • US08332717B2
    • 2012-12-11
    • US12066119
    • 2006-09-11
    • Jacques Eudes
    • Jacques Eudes
    • G06F11/00
    • H03M13/2975H03M13/09H03M13/29H03M13/3707H03M13/3738H03M13/3746H03M13/6368H03M13/6508
    • Disclosed is a method of improving iterative decoding of short codes within a demodulator. The vector of metrics of the bits considered at the output of the demodulator is decoded. The value of the check code of the CRC of the decoded word is compared with a predetermined value. If the value of the CRC is considered to form an acceptable message for the decoding step, the decoded word is transmitted to the recipient. If the value of the CRC is incompatible with a correctly decoded message, then the parameters for iterative decoding of the initial message are modified that were received from the demodulator and executing at least one new iterative decoding step with these new parameters.
    • 公开了一种改进解调器内短码的迭代解码的方法。 在解调器的输出处考虑的比特的度量矢量被解码。 将解码字的CRC校验码的值与预定值进行比较。 如果认为CRC的值形成用于解码步骤的可接受的消息,则解码的字被发送给接收者。 如果CRC的值与正确解码的消息不兼容,则修改从解调器接收到的用于初始消息的迭代解码的参数,并且使用这些新参数执行至少一个新的迭代解码步骤。
    • 6. 发明申请
    • DATA PUNCTURING ENSURING ORTHOGONALITY WITHIN COMMUNICATION SYSTEMS
    • 数据处理在通信系统中保持正交性
    • US20120177100A1
    • 2012-07-12
    • US13429532
    • 2012-03-26
    • Tak K. LeeBa-Zhong Shen
    • Tak K. LeeBa-Zhong Shen
    • H04B1/66
    • H04L1/0069H03M13/6306H03M13/6368H04L1/1819H04L1/1867
    • Data puncturing ensuring orthogonality within communication systems. Puncturing is employed within communication systems to ensure orthogonality (or substantial orthogonality) of various transmissions between communication devices within communication systems. Any of a variety of types of signals can be employed herein including uncoded signals, turbo encoded signals, turbo trellis coded modulation (TTCM) encoded signals, LDPC (Low Density Parity Check) encoded signals, and RS (Reed-Solomon) encoded signals, among just some types of signals. A first transmission can be made from a first communication device to a second communication device, and the second communication device can sometimes request a subsequent transmission (e.g., a re-transmission) from the first communication device to the second communication device. Oftentimes, different information is sent from the first communication device to the second communication device within the subsequent transmission. Herein, each of these transmissions can be ensured to be orthogonal.
    • 数据穿孔确保通信系统内的正交性。 在通信系统中采用穿刺以确保通信系统内的通信设备之间的各种传输的正交性(或实质正交性)。 可以使用各种类型的信号中的任何一种,包括未编码信号,turbo编码信号,turbo网格编码调制(TTCM)编码信号,LDPC(低密度奇偶校验)编码信号和RS(Reed-Solomon)编码信号) 只是一些类型的信号。 可以从第一通信设备到第二通信设备进行第一传输,并且第二通信设备有时可以请求从第一通信设备到第二通信设备的后续传输(例如,重新发送)。 通常,在随后的传输中,不同的信息从第一通信设备发送到第二通信设备。 这里,可以确保这些传输中的每一个是正交的。
    • 7. 发明授权
    • Data puncturing ensuring orthogonality within communication systems
    • 数据穿孔确保通信系统内的正交性
    • US08145970B2
    • 2012-03-27
    • US11851147
    • 2007-09-06
    • Tak K. LeeBa-Zhong Shen
    • Tak K. LeeBa-Zhong Shen
    • H03M13/00H04L1/18
    • H04L1/0069H03M13/6306H03M13/6368H04L1/1819H04L1/1867
    • Data puncturing ensuring orthogonality within communication systems. Puncturing is employed within communication systems to ensure orthogonality (or substantial orthogonality) of various transmissions between communication devices within communication systems. Any of a variety of types of signals can be employed herein including uncoded signals, turbo encoded signals, turbo trellis coded modulation (TTCM) encoded signals, LDPC (Low Density Parity Check) encoded signals, and a RS (Reed-Solomon) encoded signals, among just some types of signals. A first transmission can be made from a first communication device to a second communication device, and the second communication device can sometimes request a subsequent transmission (e.g., a re-transmission) from the first communication device to the second communication device. Oftentimes, different information is sent from the first communication device to the second communication device within the subsequent transmission. Herein, each of these transmissions can be ensured to be orthogonal.
    • 数据穿孔确保通信系统内的正交性。 在通信系统中采用穿刺以确保通信系统内的通信设备之间的各种传输的正交性(或实质正交性)。 可以使用各种类型的信号中的任何一种,包括未编码信号,turbo编码信号,turbo格状编码调制(TTCM)编码信号,LDPC(低密度奇偶校验)编码信号和RS(里德 - 所罗门)编码信号 只是一些类型的信号。 可以从第一通信设备到第二通信设备进行第一传输,并且第二通信设备有时可以请求从第一通信设备到第二通信设备的后续传输(例如,重新发送)。 通常,在随后的传输中,不同的信息从第一通信设备发送到第二通信设备。 这里,可以确保这些传输中的每一个是正交的。