Abstract: The invention relates to a circuit arrangement (100) for the temperature-dependent actuation of a first switching element (S1), comprising an input terminal (EA) for accepting an input potential, an output terminal (AA) for transferring an output potential to a first control terminal (G1) of the first switching element (S1), and a temperature-dependent component (RT) which is connected between the input terminal (EA) and the output terminal (AA).

Abstract: An output circuit includes: a first p-type transistor having a source connected to VDDH and a gate to which an input signal is fed; and a second p-type transistor having a source connected to the drain of the first p-type transistor, a drain connected to an output terminal, and a gate connected to a first node. A capacitor has one terminal to which the input signal is fed and the other terminal connected to the first node. A first n-type transistor has a source connected to VDDL, a drain connected to the first node, and a gate to which a signal corresponding to the input signal is fed. A second n-type transistor has a source and a gate both connected to VDDL and a drain connected to the first node.

Abstract: Managing clock-data recovery for a modulated signal from a communication channel comprises: receiving the modulated signal and providing one or more analog signals, providing one or more digital input streams from samples of the analog signals, and processing the digital input streams to provide decoded digital data. The processing comprises: determining the decoded digital data based on information modulated over a plurality of frequency elements associated with the modulated signal, based at least in part on transforms of the digital input streams; a clock signal based on clock recovery from the digital input streams; and determining a clock phase error estimate associated with the determined clock signal based at least in part on a sum that includes different weights multiplied by different respective summands corresponding to different sets of frequency elements.

Abstract: A method for in-phase (I) and quadrature (Q) signal generation is disclosed. The method may include a first stage receiving a differential input signal. The first stage may also generate first differential in-phase and quadrature output signals, which may be sent by the first stage to a second stage. The second stage may generate second differential in-phase and quadrature output signals, which may have amplitude and phase mismatches less than an amplitude and phase mismatches of the first differential output signals. The second stage may then output the second differential I/Q output signals.

Abstract: Circuits and devices are provided for reliably maintaining a normally-off Gate Injection Transistor (GIT), or similar, in a non-conducting state when a gate of the GIT is not driven with a turn-on control signal. This is accomplished using a failsafe pulldown coupled to the GIT's gate. The failsafe pulldown includes a resistance modulation circuit, which varies the effective gate resistance of the GIT, such that a low resistance is provided for an interval immediately after a turn-on transition of the GIT, thereby facilitating a high-current pulse for charging the GIT's gate. Subsequently, a high resistance is provided, such that a much lower current is driven to maintain the GIT in its on state. The failsafe pulldown enables a GIT, or similar, to be driven with a relatively simple driver, which may be provided external to the power switch device or integrated in the same die as the power switch.

Abstract: Aspects of the disclosure provide for a method. In some examples, the method includes detecting a transition in an input signal (IN), generating a bias current based on the detected transition in IN, and modifying a charge status of a capacitor based on the charge current. The method further includes generating an output signal (OUT) based on the charge status of the capacitor, disabling the bias current generation based on values of IN and OUT, and strongly pulling the capacitor up or down based on the disabling the bias current generation.

Abstract: The disclosure relates to solid state relay circuit for switching an electrical load. The solid state relay circuit may include a relay transistor; and a driver circuit comprising a constant current source. The driver circuit is configured and arranged to switchably operate the relay transistor, and the relay transistor is configured and arranged to switchably operate the electrical load.

Abstract: An active quadrature generation circuit configured to provide an in-phase output signal and a quadrature output signal based on an input signal and a method of fabricating the active quadrature generation circuit on an integrated circuit are described. The circuit includes an input node to receive the input signal and a first transistor including a collector connected to a power supply pin. The circuit also includes a second transistor including a base connected to the power supply pin, the second transistor differing in size from the first transistor by a factor of K, wherein the in-phase output signal and the quadrature output signal are generated based on an inherent phase difference of 90 degrees between a current at a collector of the first transistor and a current at a base of the second transistor.

Abstract: A delay-locked loop includes a phase detector configured to detect a phase difference between a first clock and a second clock, a charge pump configured to increase a charge amount at a capacitive load in accordance with a first charge amount and decrease the charge amount at the capacitive load in accordance with a second charge amount based on a phase difference provided by the phase detector, a sample and hold circuit configured to receive the charge amount from the capacitive load and hold the charge amount, and a voltage control delay line configured to select a delay amount based on the charge amount received from the sample and hold circuit. At least one parameter of the delay-locked loop is configured such that a desired pump current ratio of a delay cell is achieved by adjusting a delay amount of the delay cell and/or an amount of current coupled to the delay cell.

Abstract: This disclosure provides devices and methods for limiting the duration of pulses resulting from frequency modulation so as to provide for better propagation of a frequency doubler output within a communication device. The frequency doubler may be configured to receive a frequency doubler input and produce a modified frequency doubler output, wherein the frequency doubler includes a first flip-flop gate configured to receive a data input, a reset input, and a clock input and produce a first gate output; a first delay control configured to receive the gate output and produce a first delayed control output; and a first logic gate configured to receive the delayed control output and the frequency doubler input and produce a first logic gate output, wherein the modified frequency doubler output is based on the first logic gate output.

Abstract: A high-conversion-efficiency reconfigurable series-parallel switched-capacitor voltage converter includes N?1 control units and is capable of realizing a voltage conversion ratio in a range from 1:1 to N:1 between a second conversion terminal and a first conversion terminal. When the voltage conversion ratio between the first conversion terminal and the second conversion terminal of the reconfigurable series-parallel switched-capacitor voltage converter is Nx:1, the N?1 control units are divided into k+1 control modules. k control switch tubes are configured to respectively correspond to the preceding k control modules. Each one of the preceding k control modules comprises m control units, and the last control module comprises t control units; m=Nx?1; k and t satisfy N?1=m×k+t; k and m are both 0 or are both positive integers; and t is as small as possible.

Abstract: A bridge output circuit of the present invention reduces the dead time. Upon receiving an input signal (SIN) for indicating on state of a high-side transistor (1H), a gate control signal generation circuit (4) outputs a low-side gate control signal (LGCTL) for turning off a low-side transistor (1L) to a low-side driver circuit (2L). On the other hand, a high-side gate control signal (HGCTL) for turning on the high-side transistor is generated from a signal delayed the low-side gate control signal and outputted to a high-side driver circuit (2H). The time of delay is controlled by the input signal (SIN), a signal (LGFB) indicating on/off state of the low-side transistor, and a signal (SOUT_L) indicating a level of an output signal.

Abstract: A phase locked loop circuit is disclosed. The phase locked loop circuit includes a ring oscillator. The phase locked loop circuit also includes a digital path including a digital phase detector. The phase locked loop circuit further includes an analog path including a linear phase detector. Additionally, the phase locked loop circuit includes a feedback path connecting an output of the ring oscillator to an input of the digital path and an input of the analog path. The digital path and the analog path are parallel paths. The digital path provides a digital tuning signal the ring oscillator that digitally controls a frequency of the ring oscillator. The analog path provides an analog tuning signal the ring oscillator that continuously controls the frequency of the ring oscillator.

Abstract: Subject matter disclosed herein may relate to programmable current for correlated electron switches.

Abstract: In accordance with an embodiment, a ring oscillator includes a plurality of stages coupled in a ring configuration, where stage of the plurality of stages has an input node coupled to an output node of a previous stage of the plurality of stages. Each stage of the plurality of stages includes: a ring oscillator transistor having a control node coupled to the input node, and a load path coupled to the output node; a direct injection circuit having a load path coupled between the control node of the ring oscillator transistor and the output node, and a control node coupled to a first oscillator input node; and a tail injection circuit having a load path coupled between the output node and a first power supply node, and a control node coupled to a second oscillator input node.

Abstract: To provide a semiconductor device that generates a stable negative potential with high accuracy and achieves lower power consumption. The semiconductor device includes a voltage conversion circuit, a comparator, a logic circuit, a transistor, and a capacitor. The voltage conversion circuit has a function of outputting, as a second signal, a signal obtained by conversion of a voltage of an input first signal in response to a clock signal output from the logic circuit. The comparator has a function of being controlled to be supplied with or not supplied with a power supply voltage in response to a power gating signal. The transistor has a function of holding an output voltage of the comparator in the capacitor in a period during which the transistor is in an off state. The logic circuit has a function of switching between supply and stop of the clock signal on the basis of the voltage held in the capacitor in a period during which the power supply voltage to the comparator is stopped.

Abstract: Methods, apparatus, systems and articles of manufacture are disclosed that provide an apparatus comprising: a first transistor including a first gate, a first current terminal, and a second current terminal; a second transistor including a second gate, a third current terminal, and a fourth current terminal; the first current terminal coupled to the third current terminal; the first gate coupled to the second gate and the second current terminal; a third transistor including a third gate, a fifth current terminal, and a sixth current terminal, the fifth current terminal coupled to the second current terminal, third gate coupled to a voltage reference node; and a fourth transistor including a fourth gate, a seventh current terminal and an eighth current terminal, the seventh current terminal coupled to the sixth current terminal, the fourth gate coupled to the seventh current terminal and the eighth current terminal coupled to the fourth current terminal.

Abstract: An electronic circuit is disclosed. The electronic circuit includes a GaN substrate, a first power supply node on the substrate, an output node, a signal node, and an output component on the substrate, where the output component is configured to generate a voltage at the output node based at least in part on a voltage at the signal node. The electronic circuit also includes a capacitor coupled to the signal node, where, the capacitor is configured to selectively cause the voltage at the signal node to be greater than the voltage of the first power supply node, such that the output component causes the voltage at the output node to be substantially equal to the voltage of the first power supply node.

Abstract: A motor driving device includes a first hysteresis comparator, a second hysteresis comparator, a logic circuit, a control unit, and an inverter circuit. The logic circuit receives a start signal or a start completion signal to output the first output signal as a commutation signal according to the start signal, or to output the second output signal as the commutation signal according to the start completion signal, clamps the second output signal by the first output signal, stops outputting the commutation signal after the potential state of the commutation signal is changed, and unclamps the second output signal with the first output signal and outputs the commutation signal in response to a difference voltage between the first input signal and the second input signal being greater than a positive value of the first hysteresis voltage or less than a negative value of the first hysteresis voltage.

Abstract: The present invention relates to a field programmable gate array system that provides phase control with minimal latency.