Offset Error
... • Gain can be calibrated out at near full-scale by different measures: changing the transfer function of the sensor or conditioning circuitry, or by changing the voltage reference of the ADC. ...
... • Gain can be calibrated out at near full-scale by different measures: changing the transfer function of the sensor or conditioning circuitry, or by changing the voltage reference of the ADC. ...
SSM2402/SSM2412 Dual Audio Analog Switches Data Sheet (Rev. A)
... The SSM2402/SSM2412 are dual analog switches designed specifically for high performance audio applications. Distortion and noise are negligible over the full audio operating range of 20 Hz to 20 kHz at signal levels of up to 10 V rms. The SSM2402/ SSM2412 offer a monolithic integrated alternative to ...
... The SSM2402/SSM2412 are dual analog switches designed specifically for high performance audio applications. Distortion and noise are negligible over the full audio operating range of 20 Hz to 20 kHz at signal levels of up to 10 V rms. The SSM2402/ SSM2412 offer a monolithic integrated alternative to ...
Instructions - Meldrum Academy
... Apparatus:Wheatstone Bridge board, 6 V battery, 20-0-100 µA ammeter, 1 k Ω/10 kΩ resistance boxes, decade resistance board, LDR, thermistor probe, strain gauge (already set up). ...
... Apparatus:Wheatstone Bridge board, 6 V battery, 20-0-100 µA ammeter, 1 k Ω/10 kΩ resistance boxes, decade resistance board, LDR, thermistor probe, strain gauge (already set up). ...
Document
... 2) We want to create the actual circuit using the function generator, two resistors and both channels of the ‘scope. Be as specific as possible in your answers) a) How would you physically wire the circuit and connect it to the equipment? (5 points) [A and B] Note that R1 is the internal resistance ...
... 2) We want to create the actual circuit using the function generator, two resistors and both channels of the ‘scope. Be as specific as possible in your answers) a) How would you physically wire the circuit and connect it to the equipment? (5 points) [A and B] Note that R1 is the internal resistance ...
adom smart i/o - Smart Controls, LLC
... The Analog Dual Override Module (ADOM) allows users to override the analog signal provided to another device and provide a manually adjusted analog output value. Two separate analog input signals can be connected to the ADOM to control two separate analog devices on the output terminals. Under norma ...
... The Analog Dual Override Module (ADOM) allows users to override the analog signal provided to another device and provide a manually adjusted analog output value. Two separate analog input signals can be connected to the ADOM to control two separate analog devices on the output terminals. Under norma ...
16-Bit, 1 MS/s High-Speed Data Acquisition Boards
... The optional TB-100 screw terminal board connects directly to the SCSI connector using a CA-68-xx ribbon cable. The TB-100 provides access to 16 SE analog inputs, up to four analog outputs, 24 digital I/O, and all counters/timers. When using the TB-100 with the USB-2633 and USB-2637, access to the ...
... The optional TB-100 screw terminal board connects directly to the SCSI connector using a CA-68-xx ribbon cable. The TB-100 provides access to 16 SE analog inputs, up to four analog outputs, 24 digital I/O, and all counters/timers. When using the TB-100 with the USB-2633 and USB-2637, access to the ...
CHAPTER 1 INTRODUCTION Since the first commercial Analog to
... In the digital logic device, the two channels would be recombined according to the following rule: Channel A would be used unless an overflow condition was detected, at which time the data from channel B would be used. Because Channel A was subjected to a gain of 2^N in order to align the converter ...
... In the digital logic device, the two channels would be recombined according to the following rule: Channel A would be used unless an overflow condition was detected, at which time the data from channel B would be used. Because Channel A was subjected to a gain of 2^N in order to align the converter ...
2. digital instruments - ELECTRONICS AND INSTRUMENTATION
... 9. They have wide range of frequency response. 10. They have wide range of frequency measurement. 11. They are portable due to their small size. 12. The digital instruments also have greater speed. 13. They have very low power consumption. 14. It provides output in digital form suitable for further ...
... 9. They have wide range of frequency response. 10. They have wide range of frequency measurement. 11. They are portable due to their small size. 12. The digital instruments also have greater speed. 13. They have very low power consumption. 14. It provides output in digital form suitable for further ...
Designing High Speed Analog Signal Chains from
... Recently this problem has gotten worse since converters are using 1.8 V supplies and lower. This means the CM bias for the analog input is 0.9 V or AVDD/2. Not all single-supply amplifiers can support such a low commonmode voltage while maintaining relatively good performance. However, some new ampl ...
... Recently this problem has gotten worse since converters are using 1.8 V supplies and lower. This means the CM bias for the analog input is 0.9 V or AVDD/2. Not all single-supply amplifiers can support such a low commonmode voltage while maintaining relatively good performance. However, some new ampl ...
T echnicaldata - MICROHM 400/0
... Triggered single shot measurement As long as the trigger signal is present, the measurement is continuously running Automatic triggering, if a current is detected ...
... Triggered single shot measurement As long as the trigger signal is present, the measurement is continuously running Automatic triggering, if a current is detected ...
Op Amp Circuits - Keith E. Holbert
... Op-Amp Review • To solve an op-amp circuit, we usually apply KCL (nodal analysis) at one or both of the inputs • We then invoke the consequences of the ...
... Op-Amp Review • To solve an op-amp circuit, we usually apply KCL (nodal analysis) at one or both of the inputs • We then invoke the consequences of the ...
AD827
... into an output voltage. Each of the AD539s two multipliers contains two internal 6 k feedback resistors; one is connected ...
... into an output voltage. Each of the AD539s two multipliers contains two internal 6 k feedback resistors; one is connected ...
ASK modulation
... 2. At the data signal input terminal (Data I/P), input 5 V amplitude, 500 Hz TTL signal. Then at the carrier signal input terminal (Carrier I/P), input 400 mV amplitude and 20 kHz sine wave frequency. 3. By using oscilloscope, observe on the output signal waveform of the modulated ASK signal (ASK O/ ...
... 2. At the data signal input terminal (Data I/P), input 5 V amplitude, 500 Hz TTL signal. Then at the carrier signal input terminal (Carrier I/P), input 400 mV amplitude and 20 kHz sine wave frequency. 3. By using oscilloscope, observe on the output signal waveform of the modulated ASK signal (ASK O/ ...
LABORATORY 6 FREQUENCY RESPONSE OF A JFET AMPLIFIER
... (CS) and common drain (CD) amplifiers. Both amplifiers use a self-biasing scheme and have a relatively linear output. 1 JFET Transistor Characteristics The JFET transistor is a three-terminal device. The terminals are labeled drain (D), source (S), and gate (G). For the N-channel JFET, which is what ...
... (CS) and common drain (CD) amplifiers. Both amplifiers use a self-biasing scheme and have a relatively linear output. 1 JFET Transistor Characteristics The JFET transistor is a three-terminal device. The terminals are labeled drain (D), source (S), and gate (G). For the N-channel JFET, which is what ...
Lab 3.8 Impedance of test instruments (p79)
... Lab 3.8 Impedance of test instruments (p79) Yes, you are supposed to do 3.8 before 3.7, since it is related to last week’s material. Now is a good time to review last week’s lecture on the input and output impedance. Follow the instructions in the lab manual for lab 3.8 (p79). Answer the following q ...
... Lab 3.8 Impedance of test instruments (p79) Yes, you are supposed to do 3.8 before 3.7, since it is related to last week’s material. Now is a good time to review last week’s lecture on the input and output impedance. Follow the instructions in the lab manual for lab 3.8 (p79). Answer the following q ...
8mD2884 Data Sheet
... are current before placing orders. Information furnished by ERG is believed to be accurate and reliable. However, no responsibility is assumed by ERG for its use. ...
... are current before placing orders. Information furnished by ERG is believed to be accurate and reliable. However, no responsibility is assumed by ERG for its use. ...
AN-608 APPLICATION NOTE
... Guaranteeing low leakage over temperature is significant because many semiconductor components suffer elevated reverse leakage currents at high temperatures. The specifications on the design and implementation of the buffer are stringent; it must have high open-loop gain to maintain the sub ppm/C g ...
... Guaranteeing low leakage over temperature is significant because many semiconductor components suffer elevated reverse leakage currents at high temperatures. The specifications on the design and implementation of the buffer are stringent; it must have high open-loop gain to maintain the sub ppm/C g ...
DN2.49x - 16 channel 16 bit digitizerNETBOX up to 60 MS/s
... The option turns the digitizerNETBOX/generatorNETBOX in a powerful PC that allows to run own programs on a small and remote data acquisition system. The digitizerNETBOX/ generatorNETBOX is enhanced by more memory, a powerful CPU, a freely accessable internal SSD and a remote software development acc ...
... The option turns the digitizerNETBOX/generatorNETBOX in a powerful PC that allows to run own programs on a small and remote data acquisition system. The digitizerNETBOX/ generatorNETBOX is enhanced by more memory, a powerful CPU, a freely accessable internal SSD and a remote software development acc ...
Noninverting_Amplifier
... To determine the voltage associated with each data point for Channel 1 and Channel 2: Look at the numbers next to CH1: and CH2: above the GND row. In this case, 1V is equivalent to 32. This means that that the value of the points in the columns CH1 and CH2 should be divided by 32 and then multiplied ...
... To determine the voltage associated with each data point for Channel 1 and Channel 2: Look at the numbers next to CH1: and CH2: above the GND row. In this case, 1V is equivalent to 32. This means that that the value of the points in the columns CH1 and CH2 should be divided by 32 and then multiplied ...
Noninverting_Amplifier_revised
... To determine the voltage associated with each data point for Channel 1 and Channel 2: Look at the numbers next to CH1: and CH2: above the GND row. In this case, 1V is equivalent to 32. This means that that the value of the points in the columns CH1 and CH2 should be divided by 32 and then multiplied ...
... To determine the voltage associated with each data point for Channel 1 and Channel 2: Look at the numbers next to CH1: and CH2: above the GND row. In this case, 1V is equivalent to 32. This means that that the value of the points in the columns CH1 and CH2 should be divided by 32 and then multiplied ...
K-Factor: 18,000
... system uses a ‘liters K-factor’, this value has to be divided by 3.785 (Gallon/Liter ratio). Use the following in the setup: ...
... system uses a ‘liters K-factor’, this value has to be divided by 3.785 (Gallon/Liter ratio). Use the following in the setup: ...
Experiment 10: Inverting Amplifier
... – Plot the output voltage vs. the input voltage using the X-Y plot function on the oscilloscope. – Export the data from the oscilloscope and use MatLAB to plot the DC voltage transfer characteristic. • Determine – the gain of the inverting amplifier in the linear region of the voltage transfer chara ...
... – Plot the output voltage vs. the input voltage using the X-Y plot function on the oscilloscope. – Export the data from the oscilloscope and use MatLAB to plot the DC voltage transfer characteristic. • Determine – the gain of the inverting amplifier in the linear region of the voltage transfer chara ...
Precision Making ScopeCorder DL850E / DL850EV
... The majority of industrial applications incorporate a variable speed drive in combination with a threephase induction motor. Where an Oscilloscope often has a limited channel count and non-isolated input channels, the DL850E can be equipped with 16 or more channels and has a diverse range of input m ...
... The majority of industrial applications incorporate a variable speed drive in combination with a threephase induction motor. Where an Oscilloscope often has a limited channel count and non-isolated input channels, the DL850E can be equipped with 16 or more channels and has a diverse range of input m ...
2PCA-1000 - Terraplus
... negative pulses for the second frequency. An anticoincidence algorithm insures that a positive and negative pulse will not occur simultaneously. The microprocessor also controls the motor that opens and closes the caliper mechanism. The mechanism opens or closes as appropriate when power is applied. ...
... negative pulses for the second frequency. An anticoincidence algorithm insures that a positive and negative pulse will not occur simultaneously. The microprocessor also controls the motor that opens and closes the caliper mechanism. The mechanism opens or closes as appropriate when power is applied. ...
Analog annunciator unit Features Application
... 0…2 kΩ, 0…2.5 kΩ, 0…10 kΩ can be used and scaled. For the resistance sensors two- or three-wire connection can be used. In addition, the input channels can be activated by a making or a breaking contact. The values measured can be shown as numerical values, bar graphs or curves on the dot matrix dis ...
... 0…2 kΩ, 0…2.5 kΩ, 0…10 kΩ can be used and scaled. For the resistance sensors two- or three-wire connection can be used. In addition, the input channels can be activated by a making or a breaking contact. The values measured can be shown as numerical values, bar graphs or curves on the dot matrix dis ...
Oscilloscope
An oscilloscope, previously called an oscillograph, and informally known as a scope, CRO (for cathode-ray oscilloscope), or DSO (for the more modern digital storage oscilloscope), is a type of electronic test instrument that allows observation of constantly varying signal voltages, usually as a two-dimensional plot of one or more signals as a function of time. Other signals (such as sound or vibration) can be converted to voltages and displayed.Oscilloscopes are used to observe the change of an electrical signal over time, such that voltage and time describe a shape which is continuously graphed against a calibrated scale. The observed waveform can be analyzed for such properties as amplitude, frequency, rise time, time interval, distortion and others. Modern digital instruments may calculate and display these properties directly. Originally, calculation of these values required manually measuring the waveform against the scales built into the screen of the instrument.The oscilloscope can be adjusted so that repetitive signals can be observed as a continuous shape on the screen. A storage oscilloscope allows single events to be captured by the instrument and displayed for a relatively long time, allowing observation of events too fast to be directly perceptible.Oscilloscopes are used in the sciences, medicine, engineering, and telecommunications industry. General-purpose instruments are used for maintenance of electronic equipment and laboratory work. Special-purpose oscilloscopes may be used for such purposes as analyzing an automotive ignition system or to display the waveform of the heartbeat as an electrocardiogram.Before the advent of digital electronics, oscilloscopes used cathode ray tubes (CRTs) as their display element (hence were commonly referred to as CROs) and linear amplifiers for signal processing. Storage oscilloscopes used special storage CRTs to maintain a steady display of a single brief signal. CROs were later largely superseded by digital storage oscilloscopes (DSOs) with thin panel displays, fast analog-to-digital converters and digital signal processors. DSOs without integrated displays (sometimes known as digitisers) are available at lower cost and use a general-purpose digital computer to process and display waveforms.