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    • 33. 发明授权
    • Write and read circuit for anti-fuse non-volatile memory
    • 用于反熔丝非易失性存储器的写和读电路
    • US09177665B1
    • 2015-11-03
    • US14616703
    • 2015-02-07
    • Chung Yuan Christian University
    • Syang-Ywan Jeng
    • G11C17/00G11C17/18G11C17/16
    • G11C17/18G11C16/0475G11C17/16
    • The present invention relates to a write and read circuit for an anti-fuse non-volatile memory, and especially for an OTP (one-time-program) NOI (Non-overlapped implementation) MOSFET memory device. The NOI MOSFET memory device can be written with a programming bit by using anti-fuse technique through the write circuit of the present invention. To accomplish the bit-programming process, the write circuit applies a high voltage to the Drain terminal of the NOI MOSFET memory device for carrying out a punch through breakdown between the Drain terminal and the Source terminal of the NOI MOSFET memory device, and then the programming bit is written into a side wall adjacent the gate terminal of the NOI MOSFET memory device. Therefore, the programming bit stored in the NOI MOSFET memory device can also be read out by using the read circuit of the present invention.
    • 本发明涉及一种用于反熔丝非易失性存储器的写入和读取电路,尤其涉及一种OTP(一次性编程)NOI(非重叠实现)MOSFET存储器件。 通过使用本发明的写入电路的反熔丝技术,可以使用编程位来编写NOI MOSFET存储器件。 为了完成比特编程过程,写入电路向NOI MOSFET存储器件的漏极端子施加高电压,以在NOI MOSFET存储器件的漏极端子和源极端子之间进行穿通击穿,然后 编程位写入与NOI MOSFET存储器件的栅极端子相邻的侧壁。 因此,也可以通过使用本发明的读取电路读出存储在NOI MOSFET存储器件中的编程位。
    • 34. 发明申请
    • SERPENTINE DELAY LINE STRUCTURE
    • SERPENTINE延迟线结构
    • US20150288050A1
    • 2015-10-08
    • US14276803
    • 2014-05-13
    • CHUNG YUAN CHRISTIAN UNIVERSITY
    • Guang-Hwa SHIUE
    • H01P9/00
    • H01P9/006H01P1/184H01P9/00
    • A serpentine delay line structure for reducing the common-mode noise is provided to a substrate having a layout layer, a first dielectric layer, a second dielectric layer, and a grounding layer. The serpentine delay line structure includes a first serpentine delay line pair, a second serpentine delay line pair, a third serpentine delay line pair, a first transition serpentine delay line pair, and a second transition serpentine delay line pair. The first serpentine delay line pair and the second serpentine delay line pair on the layout layer are electrically connected to the first transition serpentine delay line pair on the first dielectric layer through corresponding vertical vias. The second serpentine delay line pair and the third serpentine delay line pair on the layout layer are electrically connected to the second transition serpentine delay line pair on the first dielectric layer through corresponding vertical vias.
    • 用于降低共模噪声的蛇形延迟线结构被提供给具有布局层,第一介电层,第二介电层和接地层的基板。 蛇形延迟线结构包括第一蛇形延迟线对,第二蛇形延迟线对,第三蛇形延迟线对,第一过渡蛇形延迟线对和第二过渡蛇形延迟线对。 布置层上的第一蛇形延迟线对和第二蛇形延迟线对通过相应的垂直通孔电连接到第一介电层上的第一过渡蛇形延迟线对。 布置层上的第二蛇形延迟线对和第三蛇形延迟线对通过相应的垂直通孔电连接到第一介电层上的第二过渡蛇形延迟线对。
    • 35. 发明授权
    • System for determining amino acid sequence of polypeptide
    • 用于确定多肽的氨基酸序列的系统
    • US09133512B2
    • 2015-09-15
    • US13850239
    • 2013-03-25
    • Chung Yuan Christian University
    • Chean-Yeh ChengLi-Te Yu
    • C12Q1/68G01N33/68
    • C12Q1/6872G01N33/6806G01N33/6848Y10T436/143333
    • This invention discloses systems and methods for determining the sequence of amino acids in a short peptide chain that constructs a protein. The protein is firstly hydrolyzed to various short peptides and amino acid enantiomers. Then, the systems and method are used to separate the short peptides and the amino acid enantiomers, identify qualitatively each of the amino acid enantiomers, and obtain the molecular mass signal for each of the peptides. After that, the identified amino acid enantiomers are used to construct any possible short peptides in an order from the smallest molecular weight dipeptide to higher molecular weight short peptides, and the correct short peptides is confirmed by matching the molecular weight obtained from the mass spectrometry measurement, then, the short peptides are combined to give a large peptide. The process is continued until the whole amino acid sequence of the peptide chain of protein can be determined.
    • 本发明公开了用于确定构建蛋白质的短肽链中的氨基酸序列的系统和方法。 蛋白质首先水解成各种短肽和氨基酸对映异构体。 然后,系统和方法用于分离短肽和氨基酸对映体,定性地鉴定每个氨基酸对映异构体,并获得每个肽的分子量信号。 之后,使用鉴定的氨基酸对映异构体以从最小分子量二肽到较高分子量短肽的顺序构建任何可能的短肽,通过将从质谱测量获得的分子量相匹配来证实正确的短肽 ,然后将短肽合并得到大的肽。 该过程一直持续到可以确定蛋白质肽链的整个氨基酸序列。
    • 39. 发明授权
    • Dual-toggle-type mobile platform structure
    • 双肘型移动平台结构
    • US09016678B2
    • 2015-04-28
    • US13455424
    • 2012-04-25
    • Shih-Ming WangYan-Ting Chen
    • Shih-Ming WangYan-Ting Chen
    • B23Q1/44B23Q5/40
    • B23Q1/44B23Q5/40
    • A dual-toggle-type mobile platform structure comprises a base, a motor, a ball screw, a linear slide, a first toggle link rod, a second toggle link rod, a guide rail and a work platform. The second toggle link rod has an end coupled to the first toggle link rod and the other end coupled to the work platform. A connecting position of the second toggle link rod and the first toggle link rod is designed with an optimal configuration to provide a smaller footprint than the conventional dual-toggle-type mobile platform structure, and the advantages of a larger stroke of the work platform and a smaller feed resolution difference, and the structure serves as a reference of an optimal manufacturing area.
    • 双肘型移动平台结构包括底座,马达,滚珠丝杠,直线滑块,第一肘节杆,第二肘节杆,导轨和工作平台。 第二肘节连杆具有连接到第一肘节连杆的端部,另一端联接到工作平台。 第二肘节杆和第一肘节杆的连接位置被设计成具有最佳构造以提供比常规双肘型移动平台结构更小的占地面积,以及工作平台的较大冲程的优点和 更小的进给分辨率差异,并且该结构用作最佳制造区域的参考。
    • 40. 发明授权
    • Cutter chatter monitoring method
    • 切割器颤振监测方法
    • US09008823B2
    • 2015-04-14
    • US13455438
    • 2012-04-25
    • Shih-Ming WangChien-Da Ho
    • Shih-Ming WangChien-Da Ho
    • G06F19/00B23Q17/09G05B23/02
    • G05B23/0235B23Q17/0976
    • A cutter chatter monitoring method comprises the steps of capturing a cutting vibration acceleration signal; dividing the cutting vibration acceleration signal in each predetermined time period into a plurality of segments; determining whether the vibration acceleration signal of each segment is increased by a multiple greater than a threshold value; performing a Fast Fourier Transform of the cutting vibration acceleration signal in each predetermined time period; calculating a vibration frequency; determining whether the vibration frequency of the cutting vibration acceleration signal is a multiple of a cutter passing frequency; and increasing a main shaft rotating speed of a cutter to avoid cutter chatters if both aforementioned conditions are satisfied.
    • 切割器颤振监视方法包括以下步骤:捕获切割振动加速度信号; 将每个预定时间段内的切割振动加速度信号分割成多个段; 确定每个段的振动加速度信号是否增加大于阈值的倍数; 在每个预定时间段内执行切割振动加速度信号的快速傅里叶变换; 计算振动频率; 确定切割振动加速度信号的振动频率是否是切割器通过频率的倍数; 并且如果满足上述条件,则增加切割器的主轴转速以避免切割器颤动。