Tyco Electronics (shanghai) Co., Ltd.

Amlogic (shanghai) Co., Ltd.

Amlogic Co., Limited

Tyco Electronics Co., Ltd.

Ming Shi

Xiaozhi Fu

Wei Zhang

Xiang Xu

Hongtao Jiang

Dingbing Fan

Shu-Sun Yu

Chieh-Yuan Chao

Shuzhi Wang

Cui Li

Weicheng Zhang

Hongjun Yin

Wei-Hua Zou

Yong Yang

Yuquan Chen

Dingbing (Frank) Fan

Xiaozhi (George) Fu

Weihua Zhou

Weihua Zou

Yan Wang

Lei Wang

Beibei Jing

Jinbao Lan

Haihong Zhao

Leshu Yang

Lei (Louis) Liu

A connector includes a housing and an elastic latch. The elastic latch includes an elastic cantilever having a free end, a fixed end connected to the housing, and a main part extending between the free end and the fixed end. The fixed end has an inclined surface extending inclined with respect to a surface of the housing. An angle between the inclined surface and the surface of the housing is greater than 90 degrees.

Connector and connector assembly

A terminal includes a top wall, a side wall, and a curved part connected between the top wall and the side wall. A notch is formed on the curved part. The notch reduces a bending force for forming the curved part and prevent cracks from being generated in the curved part during forming the curved part.

Terminal and connector

A connector assembly includes a first connector and a second connector matable with the first connector. The first connector has a first housing and a pair of first conductive terminals disposed in the first housing each having a pair of first elastic terminals arranged symmetrically in a vertical direction. Each pair of first elastic terminals has a pair of front ends adapted to be brought into elastic and electrical contact with a pair of first wires inserted into the first connector. The second connector has a second housing and a pair of second conductive terminals disposed in the second housing each having a rear end adapted to be brought into elastic and electrical contact with a second wire inserted into the second connector. The pair of first elastic terminals each have a rear end adapted to clamp a front end of one of the second conductive terminals.

Connector assembly

A conductive terminal electrically connects a conductor of a conductive wire to a circuit board. The conductive terminal includes a body, a clamping portion having a pair of clamping arms, and a solder portion having a pair of solder lugs. The body has an opening through which the conductive wire is inserted and a passage communicating with the opening, the passage receiving the conductive wire and extending perpendicular to a surface of the circuit board. The pair of clamping arms extend from the opening towards the circuit board and obliquely towards each other so as to clamp the conductor of the conductive wire inserted through the opening. The solder portion has a pair of solder lugs extending perpendicular to a lengthwise direction of the passage and soldered to a pair of solder pads on the circuit board.

Conductive terminal with clamping portion and connector assembly using the same

The invention comprises a method for controlling a gain of a multi-stage equalizer of a serial data receiver, applied to the serial data receiver, the serial data receiver comprising the multi-stage equalizer, wherein the method comprises the steps of: Step S, enabling the serial data receiver to receive a set of serial data; Step S, selecting a continuous first data sequence from the set of serial data according to a preset first rule; Step S, selecting a continuous second data sequence from the first data sequence according to a preset second rule; Step S, extracting a predetermined bit from the second data sequence; Step S, calculating an equalization gain identifier of the data sequence by using each predetermined bit; and Step S, controlling the gain value of the multi-stage equalizer according to the equalization gain identifier.

Method for controlling gain of multi-stage equalizer of serial data receiver

The invention provides a method for automatically adjusting the gain of a multi-stage equalizer of a serial data receiver, the serial data receiver provides a gain circuit, the gain circuit comprises a multi-stage equalization circuit, and each stage of equalization circuit is arranged in series; the method comprises: Step S, setting corresponding serial numbers for each stage of equalization circuit in sequence; Step S, selecting an equalization circuit corresponding to the serial number from the gain circuit according to a preset rule; Step S, sequentially adjusting the selected equalization circuits of each stage according to the sequence of the serial numbers to obtain corresponding standard adjustment values; and Step S, adjusting the equalization circuit greater than or equal to the corresponding serial number according to the standard adjustment value. The method has the benefits that the optimal compensation for the signal is realized.

Method for automatically adjusting gain of multi-stage equalizer of serial data receiver

The invention comprises a method for controlling a gain of a multi-stage equalizer of a serial data receiver, applied to the serial data receiver comprising the multi-stage equalizer, wherein the method comprises: Step S, enabling the serial data receiver to receive a set of serial data; Step S, selecting a plurality of continuous data sequences from the set of serial data according to a preset first rule; Step S, extracting a predetermined bit from each of the plurality of continuous data sequences; Step S, calculating an equalization gain identifier corresponding to each of the plurality of continuous data sequences according to a predetermined bit in each of the plurality of continuous data sequences; Step S, obtaining an optimized equalization gain identifier through calculation according to each of the equalization gain identifiers; and Step S, controlling a gain value of the multi-stage equalizer according to the optimized equalization gain identifier.

An electrical connector comprises a housing having a receiving passage and a conductive terminal inserted and removably mounted in the receiving passage in an insertion direction. The conductive terminal includes a body portion having a first end and a second end opposite to the first end, a clamping portion disposed at the first end of the body portion and configured to clamp a wire of a cable, and a spring locking portion disposed on the body portion and obliquely extending from the body portion in a direction away from the body portion toward the second end. The locking portion is configured to engage a bottom wall of the receiving passage. The engagement of the locking portion with the bottom wall of the receiving passage is released by driving the locking portion with an external tool inserted in the insertion direction.

Conductive terminal and electrical connector

A connector housing comprises a body, an outside surface of the body having a pair of opposite mounting surfaces, a first contact surface, and a second contact surface, and a mounting portion disposed on each of the mounting surfaces. The mounting surfaces, the first contact surface and the second contact surface are perpendicular to each other. A distance between the mounting portion and the first contact surface is equal to a distance between the mounting portion and the second contact surface. The connector housing is interchangeably mounted with the first contact surface on a circuit board or with the second contact surface on the circuit board by a same mounting mechanism engaging the mounting portion.

Connector housing and electrical connector

The invention provides a phase difference generator error compensation method of a digital frequency generator, wherein the digital frequency generator comprises a phase difference generator, the phase difference generator comprises a phase compensation module and an adjusting module, the phase compensation module provides at least two clock signals, the at least two clock signals comprise a first clock signal and a second clock signal, and a phase difference exists between the first clock signal and the second clock signal; the phase compensation module outputs a third clock signal according to the first clock signal and the second clock signal, and the third clock signal is a difference signal of the first clock signal and the second clock signal; the adjusting module compensates the error of the third clock signal according to the clock phase difference. The method has the benefits that process errors in the phase difference generator are compensated.

Phase difference generator error compensation method of digital frequency generator

A phase interpolator includes a phase adjusting circuit. The phase adjusting circuit includes a first phase adjusting module and a second phase adjusting module, the first phase adjusting module outputs a first clock signal, and the second phase adjusting module outputs a second clock signal; the first phase adjustment module and the second phase adjustment module are connected in parallel to output an interpolation signal. Through the first phase adjustment module and the second phase adjustment module the first clock signal and the second clock signal with the same frequency and different phases are mixed in proportion by adopting a voltage mode to generate an interpolation so as to achieve the purpose of phase adjustment, and meanwhile, the circuit can be carried out under lower voltage, so that the power consumption of the phase adjusting circuit is further reduced.

Phase interpolator

A conductive terminal includes a support frame defining a receiving space, a pair of first clamping arms arranged in the receiving space, and a pair of second clamping arms arranged in the receiving space. A pair of first clamping portions are disposed at a pair of ends of the first clamping arms. The first clamping portions are adapted to clamp a conductor of a wire inserted in a first insertion direction and electrically connect the wire with the conductive terminal. A pair of second clamping portions are disposed at a pair of ends of the second clamping arms. The second clamping portions are adapted to clamp the conductor of the wire inserted in a second insertion direction different from the first insertion direction and electrically connect the wire with the conductive terminal.

Conductive terminal and connector assembly

The invention relates to a high-speed decision device that comprises a first branch and a second branch that are connected in parallel between a power supply end and a clock signal input end; wherein the first branch is used for providing a normal-phase input end, and the second branch is used for providing an inverted-phase input end; a first adjusting point and a second adjusting point are arranged; and an adjusting branch is arranged between the first adjusting point and the second adjusting point, and the adjusting branch is used for adjusting the response speed when the clock signal changes. The benefit of the invention is that the response time of the circuit is further improved, the resolution of the high-speed decision device is improved, and the clock and data recovery performance of the high-speed decision device is further improved.

High-speed decision device

A connector comprises a connector module including an insulation body in which a chamber and a wire hole are formed, a contact received in the chamber, and an elastic clip disposed in the chamber. The elastic clip is adapted to press a conductor of a wire inserted into the chamber through the wire hole against the contact. The conductor of the wire electrically contacts the contact.

Connector

A conductive terminal is adapted to electrically connect a wire to a circuit board. The circuit board has a through hole and solder pads on a surface of the circuit board. The conductive terminal comprises a base, a pair of mounting portions, and a pair of clamping portions. The base has a pair of opposing first edges, a pair of opposing second edges, and an insertion hole aligned with the through hole of the circuit board. The mounting portions include a pair of solder portions extending outwardly from the first edges and parallel to the base. The solder portions are each adapted to be soldered to one of the solder pads of the circuit board. The clamping portions extend obliquely toward each other from the two second edges of the base and are adapted to clamp a conductor of the wire inserted through the insertion hole and the through hole.

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Shanghai, China

Ming Shi