A detector element circuit for a CT imaging system may include a plurality of sensors for detecting photons passing through an object and a first electronic component configured to determine an energy of photons detected by the plurality of sensors and generate photon count data, which may be a count of detected photons in one or more energy bins. The detector element circuit may further include a second electronic component configured to receive the photon count data from the first electronic component and is clocked at a first clock rate; a local memory storage configured to receive the photon count data from the second electronic component at the first clock rate and to output the photon count data at a second clock rate.

A leakage compensation dynamic register, a data operation unit, a chip, a hash board, and a computing apparatus. The leakage compensation dynamic register comprises: an input terminal, an output terminal, a clock signal terminal, and an analog switch unit; a data latch unit for latching the data under control of the clock signal; and an output drive unit for inverting and outputting the data received from the data latch unit, the analog switch unit, the data latch unit, and the output drive unit being sequentially connected in series between the input terminal and the output terminal, and the analog switch unit and the data latch unit having a node therebetween, wherein the leakage compensation dynamic register further comprises a leakage compensation unit electrically connected between the node and the output terminal.

An integrated circuit comprising (i) an array of logic tiles wherein each logic tile is configurable to connect with at least one adjacent logic tile and (ii) a clock mesh fabric including a clock mesh to provide a mesh clock signal to each of the logic tiles of the array of logic tiles. In one embodiment, each logic tile of the array of logic tiles includes (1) distribution and transmission circuitry configurable to provide an associated tile clock to circuitry which performs operations using or based on the associated tile clock, wherein the distribution and transmission circuitry includes circuitry to generate a tile clock signal having a skew which is balanced with respect to the tile clock signals generated by the generation circuitry of each tile, and (2) selection circuitry to responsively output the associated tile clock which corresponds to the mesh clock signal or the tile clock signal.

Adaptive clock gating may provide improved power management of electronic devices. Clock gating may include removing a clock signal to state elements when those state elements are not being used, and the adaptive clock gating may provide improved clock gating for higher-level clock gates operating at increased frequencies. In an example, the adaptive clock gating may enable clock gating for higher-level clock gates within IP blocks that may be otherwise prevented from using clock gating due to timing requirements. The adaptive clock gating may be used to reduce power consumed by the clock distribution of IP blocks, thereby providing improved power efficiency. An adaptive clock gating circuit may include an IP clock frequency control unit with an adaptive clock gating logic circuit. The adaptive clock gating logic circuit may be used to selectively enable or disable high-level clock gates for the target IP based on a selected clock frequency.

An integrated circuit comprising (i) an array of logic tiles wherein each logic tile is configurable to connect with at least one adjacent logic tile and (ii) a clock mesh fabric including a clock mesh to provide a mesh clock signal to each of the logic tiles of the array of logic tiles. In one embodiment, each logic tile of the array of logic tiles includes (1) distribution and transmission circuitry configurable to provide an associated tile clock to circuitry which performs operations using or based on the associated tile clock, wherein the distribution and transmission circuitry includes circuitry to generate a tile clock signal having a skew which is balanced with respect to the tile clock signals generated by the generation circuitry of each tile, and (2) selection circuitry to responsively output the associated tile clock which corresponds to the mesh clock signal or the tile clock signal.

A data processing device and an aerial vehicle are provided. The device comprises a sensor, a processor, and a clock converter. A data signal output pin of the sensor is connected with a data signal input pin of the processor. The sensor comprises at least two clock output pins, each of which is connected with one of two input pins of the clock convert. An output pin of the clock converter is connected with a clock input pin of the processor. The dock converter is configured to convert clock signals input from various input pins into a single-ended clock signal, and output the single-ended clock signal to the processor through the output pin.

A processing apparatus includes an FPGA unit connected to an oscillator configured to output a first clock, wherein the FPGA unit includes: a PLL circuit configured to output a second clock with a frequency of a predetermined ratio with respect to a frequency of the first clock and configured to output a lock signal (detection signal); an input and output monitoring unit configured to detect a ratio between the frequencies of the first clock and the second clock, compare the detected ratio with the predetermined ratio, and output an abnormal signal when the detected ratio does not coincide with the predetermined ratio; and an initialization unit configured to output a reset signal when the input and output monitoring unit outputs the abnormal signal and configured to output the reset signal when the PLL circuit outputs the lock signal.

One embodiment relates to a pulse latch that includes a latch control logic circuit and a pulse latch circuit. The latch control logic circuit generates a plurality of control signals and selects a control signal of the plurality of control signals to output to the pulse latch circuit. Each control signal of the plurality of control signals causes the pulse latch circuit to operate in a different operating mode. Another embodiment relates to a method of generating control signaling for a pulse latch. A clock signal and a shifted clock signal are received. A plurality of inputs to a multiplexor are generated using the clock signal and the shifted clock signal. An input of the plurality of inputs is selected as an output of the multiplexor. The input is selected by the multiplexor using a plurality of multiplexor configuration bits.

Methods and apparatuses for an optimal timer array using a single reference counter are presented. According to one aspect, timers of the timer array use the single reference counter to process different timed trigger requests. A count translation logic block translates counts corresponding to the requested timed triggers to target values of the reference counter. Register arrays that include the target values and active/inactive status flags of the timers are used to implement specific timers. Comparators are used to compare values of the reference counter to the target values to establish expiration of the requested timed triggers. A target translation logic block translates a current value of the reference counter to an offset value from the target values for monitoring by an external circuit.

Methods and apparatuses for an optimal timer array using a single reference counter are presented. According to one aspect, timers of the timer array use the single reference counter to process different timed trigger requests. A count translation logic block translates counts corresponding to the requested timed triggers to target values of the reference counter. Register arrays that include the target values and active/inactive status flags of the timers are used to implement specific timers. Comparators are used to compare values of the reference counter to the target values to establish expiration of the requested timed triggers. A target translation logic block translates a current value of the reference counter to an offset value from the target values for monitoring by an external circuit.