43results about How to "Increase lock range" patented technology

A seat track slide device includes a pair of seat tracks. Each seat track has a lower rail, an upper rail, a lock lever, and a handle and is capable of switching the associated upper rail to locking and unlocking states by selectively engaging and disengaging the lever with respect to the lower rail. Each lever is inserted into the corresponding upper rail and pivotally supported in the upper rail. An interlock support portion of the lever projects into an outer zone with respect to the front end of the upper rail. The interlock support portion of the lock lever supports an interlock support portion of the handle pivotally relative to each other. With the lever maintained in the locking state, the handle is allowed to pivot relative to the lever in the outer zone with respect to the front end of the upper rail against elastic force produced by a torsion coil spring arranged in the upper rail.

An injection-locked frequency divider is provided. The injection-locked frequency divider includes a voltage control oscillator (VCO) and a mixer. The VCO includes a LC resonance tank and a negative-resistance generator for generating a differential oscillation signal including a first and a second oscillation signals. The LC resonance tank adjusts a VCO reactance and resonates for generating the differential oscillation signal. The negative-resistance generator coupled to the LC resonance tank eliminates an equivalent resistance generated by the LC resonance tank and maintains the VCO to continuously oscillate. The mixer has a first and a second local input terminals respectively receiving the first and second injected signals included in a differential injected signal, and the first and second radio frequency input terminals respectively receiving the first and second oscillation signals for mixing the differential injected signal with the differential oscillation signal to adjust the output frequency of the differential oscillation signal.

An injection-locked frequency divider for dividing a frequency of an injection signal and obtaining a frequency divided signal is provided. The injection-locked frequency divider includes a signal injection unit and an oscillator. The signal injection unit includes a first input terminal and a second input terminal for receiving the injection signal. The received injection signal exhibits a phase difference of 180° between the first input terminal and the second input terminal. The oscillator includes an inductor unit and a variable capacitance unit. The injection-locked frequency divider is featured with a wide injection locking range, and can be realized with a low operation voltage, and therefore can be conveniently used in different kinds of hybrid ICs.

The invention discloses a C-type wingceltis bar and cross beam end adjustable connecting part. The C-type wingceltis bar and cross beam end adjustable connecting part comprises positioning columns andlimiting plates, the four positioning columns are vertically mounted, a C-type wingceltis bar and the end of a cross beam are sequentially stacked up and down, and are interspersed in among the fourpositioning columns in a cross manner, the limiting plates are horizontally mounted, the two ends of the limiting plates are provided with adjusting openings in the length direction, locking blocks sliding in the length direction of the limiting plates are mounted in the adjusting openings, the four limiting plates are mounted on the top ends and the bottom ends of the positioning columns, the four limiting plates are arranged in sequence end to end in a rectangular manner, the adjusting openings in the two ends of the limiting plates are arranged in the ends of the two adjacent positioning columns in a sleeving manner, the locking blocks tightly abut against the positioning columns, and locking assemblies are mounted on the locking blocks. The adjustable connecting part has the advantagesof being suitable for C-type wingceltis bars and cross beams of multiple specification sizes and the large in locking range.

The invention discloses a semi-blind oversampling clock data recovery circuit with a high locking range, which is mainly used for improving the range of application of the semi-blind oversampling clock data recovery circuit and avoiding generating error code during excessive continuous word time data recovery. The semi-blind oversampling clock data recovery circuit comprises a receiver (1) composed of a multi-path parallel oversampling circuit (11) and a frequency detector FD (12), a data recovery and frequency phase control circuit (2) composed of a filtering and shaping circuit (21), an edge detection circuit (22), a data recovery circuit (23), a phase information circuit (24), a byte adjustment circuit (25) and a frequency / phase adjustment circuit (26), and a feedback circuit (3) composed of a multi-phase VCO (Voltage Controlled Oscillator) circuit (31), a LPF (Low Pass Filter) circuit (32) and an DAC (Digital to Analog Converter) circuit (33). Through the adjustment, the frequency of the sampling clock just can sample the input data, the locking is realized, and the clock data recovery is further accomplished.

A clamping device includes a body, a clamp arm and a drive mechanism that includes a displacement body displaced linearly, wherein the clamp arm is rotated based on the displacement of the displacement body. The displacement body includes a guide surface for guiding the rotation of the clamp arm, and also for controlling the rotation of the clamp arm while the clamp arm is in a clamping state. The clamping device further includes a push mechanism disposed at a position facing a lever arm and elastically pushing the displacement body toward the lever arm.

An optical frequency locking method tunes each of a plurality of narrow-band optical channel transmit signals (having arbitrary channel frequency spacings) to a dedicated optical channel frequency. The method includes tapping-off a portion of the optical power of the respective channel transmit signal and filtering the tapped-off channel transmit signal using at least one optical filter device. The method also includes monitoring, as an optical input signal, the optical power of the respective channel transmit signal supplied to the at least one optical filter device and, as an optical output signal, the optical power of the filtered channel transmit signal. The method further includes tuning, within a predetermined locking range for the dedicated optical channel frequency, the optical frequency of the respective channel transmit signal such that a predetermined value for the ratio of the output signal and the input signal is reached.

The invention includes a harmonic suppression circuit, an injection-locked frequency divider circuit (ILFD) and associated methods. The harmonic suppression circuit comprises a source voltage, two suppression modules, two input terminals, two smoothed output terminals and a ground. The ILFD comprises a ground, an input transistor, an input terminal, two divider legs, two output terminals and a source voltage. The associated method to improve harmonic suppression comprises acts of synthesizing differential-phase signals and simultaneously suppressing second harmonics of in-phase signals. The method to extent an ILFD's locking range comprises acts of decreasing quality factor while keeping resonance frequency constant.