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... off-line methods. The method in [12] represents the resolver Conversion of angular displacement to electrical output or encoder signal as a Fourier series, and the complex requires AC transducers like synchros, resolvers and linear coefficients are obtained by evaluating the cross-correlation or rot ...
... off-line methods. The method in [12] represents the resolver Conversion of angular displacement to electrical output or encoder signal as a Fourier series, and the complex requires AC transducers like synchros, resolvers and linear coefficients are obtained by evaluating the cross-correlation or rot ...
DU-45CL 4-20mA Process Loop 4 1/2 Digit with 0.56” LEDs
... Our unique set of Signal Conditioning Components enables the use of a simple two step scaling and calibration procedure that eliminates any back and forth interaction between zero and span settings. Calibration can be accomplished with just a single precision 4mA signal source. The first step is to ...
... Our unique set of Signal Conditioning Components enables the use of a simple two step scaling and calibration procedure that eliminates any back and forth interaction between zero and span settings. Calibration can be accomplished with just a single precision 4mA signal source. The first step is to ...
MAX1960/MAX1961/MAX1962 2.35V to 5.5V, 0.5% Accurate, 1MHz PWM General Description
... 2.35V to 5.5V, 0.5% Accurate, 1MHz PWM Step-Down Controllers with Voltage Margining The MAX1960/MAX1961/MAX1962 high-current, highefficiency voltage-mode step-down DC-DC controllers operate from a 2.35V to 5.5V input and generate output voltages down to 0.8V at up to 20A. An on-chip charge pump gene ...
... 2.35V to 5.5V, 0.5% Accurate, 1MHz PWM Step-Down Controllers with Voltage Margining The MAX1960/MAX1961/MAX1962 high-current, highefficiency voltage-mode step-down DC-DC controllers operate from a 2.35V to 5.5V input and generate output voltages down to 0.8V at up to 20A. An on-chip charge pump gene ...
74LCXH245 Low Voltage Bidirectional Transceiver with Bushold 7 4LCXH
... buffers with 3-STATE outputs and is intended for bus oriented applications. The device is designed for low voltage (2.5V and 3.3V) VCC applications. The T/R input determines the direction of data flow through the device. The OE input disables both the A and B ports by placing them in a high impedanc ...
... buffers with 3-STATE outputs and is intended for bus oriented applications. The device is designed for low voltage (2.5V and 3.3V) VCC applications. The T/R input determines the direction of data flow through the device. The OE input disables both the A and B ports by placing them in a high impedanc ...
Differential Amplifiers/Demo
... circuit, manifesting itself through two effects: variation of the output CM level ( in symmetric case) and conversion of the input commonmode variations to differential components at the output. In analog circuits, the latter effect is much more severe than the former. For this ...
... circuit, manifesting itself through two effects: variation of the output CM level ( in symmetric case) and conversion of the input commonmode variations to differential components at the output. In analog circuits, the latter effect is much more severe than the former. For this ...
PWM
... • Frequency limited by your clock and desired resolution • Example: 8 MHz clock, choose PWM to be 4 MHz • Limited resolution: only 3 duty cycles to choose from ...
... • Frequency limited by your clock and desired resolution • Example: 8 MHz clock, choose PWM to be 4 MHz • Limited resolution: only 3 duty cycles to choose from ...
Lecture33
... • Sensitivity is proportional to RF. But large resistors are difficult to implement on-chip for integrated sensors. • Vs also generates electrostatic force which disturbs the position of the rotor. Æ Small Vs or Short pulses ...
... • Sensitivity is proportional to RF. But large resistors are difficult to implement on-chip for integrated sensors. • Vs also generates electrostatic force which disturbs the position of the rotor. Æ Small Vs or Short pulses ...
ADP5020 英文数据手册DataSheet 下载
... integrate power pMOSFETs and nMOSFETs, making the system simpler and more compact and reducing the cost. The ADP5020 has digitally programmed output voltages and buck converters that can source up to 600 mA. A fixed frequency operation of 3 MHz enables the use of tiny inductors and capacitors. The b ...
... integrate power pMOSFETs and nMOSFETs, making the system simpler and more compact and reducing the cost. The ADP5020 has digitally programmed output voltages and buck converters that can source up to 600 mA. A fixed frequency operation of 3 MHz enables the use of tiny inductors and capacitors. The b ...
2.7 V to 5.5 V, 250 µA, Rail-to-Rail Output nano AD5662
... Feedback Connection for the Output Amplifier. VFB should be connected to VOUT for normal operation. Analog Output Voltage from DAC. The output amplifier has rail-to-rail operation. Level-Triggered Control Input (Active Low). This is the frame synchronization signal for the input data. When SYNC goes ...
... Feedback Connection for the Output Amplifier. VFB should be connected to VOUT for normal operation. Analog Output Voltage from DAC. The output amplifier has rail-to-rail operation. Level-Triggered Control Input (Active Low). This is the frame synchronization signal for the input data. When SYNC goes ...
MAX9814 - Part Number Search
... time. When the output signal subsequently lowers in amplitude, the gain is held at the reduced state for a short period before slowly increasing to the normal value. This process is known as the hold and release time. The speed at which the amplifiers adjust to changing input signals is set by the e ...
... time. When the output signal subsequently lowers in amplitude, the gain is held at the reduced state for a short period before slowly increasing to the normal value. This process is known as the hold and release time. The speed at which the amplifiers adjust to changing input signals is set by the e ...
Analog-to-digital converter
An analog-to-digital converter (ADC, A/D, or A to D) is a device that converts a continuous physical quantity (usually voltage) to a digital number that represents the quantity's amplitude.The conversion involves quantization of the input, so it necessarily introduces a small amount of error. Furthermore, instead of continuously performing the conversion, an ADC does the conversion periodically, sampling the input. The result is a sequence of digital values that have been converted from a continuous-time and continuous-amplitude analog signal to a discrete-time and discrete-amplitude digital signal.An ADC is defined by its bandwidth (the range of frequencies it can measure) and its signal to noise ratio (how accurately it can measure a signal relative to the noise it introduces). The actual bandwidth of an ADC is characterized primarily by its sampling rate, and to a lesser extent by how it handles errors such as aliasing. The dynamic range of an ADC is influenced by many factors, including the resolution (the number of output levels it can quantize a signal to), linearity and accuracy (how well the quantization levels match the true analog signal) and jitter (small timing errors that introduce additional noise). The dynamic range of an ADC is often summarized in terms of its effective number of bits (ENOB), the number of bits of each measure it returns that are on average not noise. An ideal ADC has an ENOB equal to its resolution. ADCs are chosen to match the bandwidth and required signal to noise ratio of the signal to be quantized. If an ADC operates at a sampling rate greater than twice the bandwidth of the signal, then perfect reconstruction is possible given an ideal ADC and neglecting quantization error. The presence of quantization error limits the dynamic range of even an ideal ADC, however, if the dynamic range of the ADC exceeds that of the input signal, its effects may be neglected resulting in an essentially perfect digital representation of the input signal.An ADC may also provide an isolated measurement such as an electronic device that converts an input analog voltage or current to a digital number proportional to the magnitude of the voltage or current. However, some non-electronic or only partially electronic devices, such as rotary encoders, can also be considered ADCs. The digital output may use different coding schemes. Typically the digital output will be a two's complement binary number that is proportional to the input, but there are other possibilities. An encoder, for example, might output a Gray code.The inverse operation is performed by a digital-to-analog converter (DAC).