Choosing the Correct digiPOT for Your Application
... increases, then RWB will decrease in the same proportion. There is no restriction on the voltage polarity applied to terminals A, B, or W. Voltage across the terminals A to B, W to A, and W to B can be at either polarity— the only requirement is to ensure that the signal does not exceed the power su ...
... increases, then RWB will decrease in the same proportion. There is no restriction on the voltage polarity applied to terminals A, B, or W. Voltage across the terminals A to B, W to A, and W to B can be at either polarity— the only requirement is to ensure that the signal does not exceed the power su ...
LT1226 - Low Noise Very High Speed Operational Amplifier
... configurations of +25 or –24 are stable, but there are a few configurations that allow the amplifier to be stable for lower signal gains (the noise gain, however, remains 25 or more). One example is the inverting amplifier shown in the typical applications sections below. The input signal has a gain ...
... configurations of +25 or –24 are stable, but there are a few configurations that allow the amplifier to be stable for lower signal gains (the noise gain, however, remains 25 or more). One example is the inverting amplifier shown in the typical applications sections below. The input signal has a gain ...
Experiment 4
... values of the resistors in the circuit were measured and recorded. The circuit was then constructed and the open circuit voltage and short circuit current was measure so the Thevenin Resistance could be found. Since most circuits will not permit shorting of the output terminals, we used another meth ...
... values of the resistors in the circuit were measured and recorded. The circuit was then constructed and the open circuit voltage and short circuit current was measure so the Thevenin Resistance could be found. Since most circuits will not permit shorting of the output terminals, we used another meth ...
Electricity Lecture Notes 2010
... The voltage across Cell 1 Vab =15 V, and the voltage across Cell 2 is Vbc = 15 V. If we set Vc = 0, then the voltage across two cells Vac is Vac=Vab+Vbc=15 + 15 = 30 V. If we set Vb=0, then Vab across Cell 1 is +15 V while Vbc across Cell 2 is -15 V. The current travels through the two cells are the ...
... The voltage across Cell 1 Vab =15 V, and the voltage across Cell 2 is Vbc = 15 V. If we set Vc = 0, then the voltage across two cells Vac is Vac=Vab+Vbc=15 + 15 = 30 V. If we set Vb=0, then Vab across Cell 1 is +15 V while Vbc across Cell 2 is -15 V. The current travels through the two cells are the ...
MAX8794 Low-Voltage DDR Linear Regulator General Description Features
... The MAX8794 regulates OUTS to the voltage set at REFIN, making the MAX8794 ideal for memory applications where the termination supply must track the supply voltage. Typically, REFIN is set by an external resistive voltage-divider connected to the memory supply (VDDQ) as shown in Figure 1. The maximu ...
... The MAX8794 regulates OUTS to the voltage set at REFIN, making the MAX8794 ideal for memory applications where the termination supply must track the supply voltage. Typically, REFIN is set by an external resistive voltage-divider connected to the memory supply (VDDQ) as shown in Figure 1. The maximu ...
Electrical Circuit Calculations
... In the above circuit current will flow through the series resistor and then divide at A and flow through both branches of the parallel combination. Because current has passed through the series resistor, a voltage drop will occur across it. Therefore the voltage across the parallel resistors will no ...
... In the above circuit current will flow through the series resistor and then divide at A and flow through both branches of the parallel combination. Because current has passed through the series resistor, a voltage drop will occur across it. Therefore the voltage across the parallel resistors will no ...
DS1135 3-in-1 High-Speed Silicon Delay Line FEATURES PIN ASSIGNMENT
... Supply Voltage (VCC ): 5.0V ± 0.1V Input Pulse: High: 3.0V ± 0.1V Low: 0.0V ± 0.1V Source Impedance: 50W Max. Rise and Fall Time: 3.0ns Max. - Measured between 0.6V and 2.4V. Pulse Width: 500ns Pulse Period: 1ms Output Load Capacitance: 15pF Output: Each output is loaded with the equivalent of one 7 ...
... Supply Voltage (VCC ): 5.0V ± 0.1V Input Pulse: High: 3.0V ± 0.1V Low: 0.0V ± 0.1V Source Impedance: 50W Max. Rise and Fall Time: 3.0ns Max. - Measured between 0.6V and 2.4V. Pulse Width: 500ns Pulse Period: 1ms Output Load Capacitance: 15pF Output: Each output is loaded with the equivalent of one 7 ...
General Specifications Model UT150L Limit Controller
... IEC/EN61010-1) Rated measurement input voltage : 10V DC max.(across terminals), 300V AC max.(across ground) Rated transient overvoltage : 1500V (Note) Note : It is a value on the safety standard which is assumed by IEC/EN61010-1 in Measurement category I, and is not the value which guarantees an app ...
... IEC/EN61010-1) Rated measurement input voltage : 10V DC max.(across terminals), 300V AC max.(across ground) Rated transient overvoltage : 1500V (Note) Note : It is a value on the safety standard which is assumed by IEC/EN61010-1 in Measurement category I, and is not the value which guarantees an app ...
Dual-mode Multiphase Sinusoidal Oscillator using CDBAs
... (Io/Ii) is obtained equal -1. By substituting our proposed sub-circuits into the general block diagram of the MSO in fig. 3, the complete circuit of the CDBA-based MSO for N = 3, which has 60° phase difference, can be obtained as shown in fig. 5. Since our proposed structure exploits an advantage of ...
... (Io/Ii) is obtained equal -1. By substituting our proposed sub-circuits into the general block diagram of the MSO in fig. 3, the complete circuit of the CDBA-based MSO for N = 3, which has 60° phase difference, can be obtained as shown in fig. 5. Since our proposed structure exploits an advantage of ...
Current Mode Logic Testing of XOR/XNOR Circuit: A Case Study
... with C and its inverse connected to the upper transistors M23, M24, M25 and M26. For every fault and every transistor, this table has the safe input vector(s) that detect the fault at the XOR output (OUT1) followed by the safe input vector(s) that detect the same fault at the XNOR output (OUT2) betw ...
... with C and its inverse connected to the upper transistors M23, M24, M25 and M26. For every fault and every transistor, this table has the safe input vector(s) that detect the fault at the XOR output (OUT1) followed by the safe input vector(s) that detect the same fault at the XNOR output (OUT2) betw ...
High-Side Voltage-to-Current (VI) Converter
... The first and second stages both require compensation components to ensure proper design stability. A thorough stability analysis is outside of the scope of this document and can be reviewed using the first reference in Section 9. The compensation components in the first stage are R2, R3, and C6, an ...
... The first and second stages both require compensation components to ensure proper design stability. A thorough stability analysis is outside of the scope of this document and can be reviewed using the first reference in Section 9. The compensation components in the first stage are R2, R3, and C6, an ...
LTC1250 - Very Low Noise Zero-Drift Bridge Amplifier
... and surpassing them below 1Hz (Figure 1). All this is accomplished in an industry-standard pinout; the LTC1250 requires no external capacitors, no nulling or clock signals, and conforms to industry-standard 8-pin DIP and ...
... and surpassing them below 1Hz (Figure 1). All this is accomplished in an industry-standard pinout; the LTC1250 requires no external capacitors, no nulling or clock signals, and conforms to industry-standard 8-pin DIP and ...
