Method for Determining the Effective Base Resistance of Bipolar
... (VBc<0) and the substrate pin is tied to the lowest voltage, which means that the collector-substrate junction is reverse-biased, so the pnp is in off state and the substrate current is zero. But if the npn becomes saturated (Vsc>0) the pnp starts driving. Thus the base, collector and substrate of t ...
... (VBc<0) and the substrate pin is tied to the lowest voltage, which means that the collector-substrate junction is reverse-biased, so the pnp is in off state and the substrate current is zero. But if the npn becomes saturated (Vsc>0) the pnp starts driving. Thus the base, collector and substrate of t ...
N-channel 600 V, 0.440 typ., 8 A MDmesh™ DM2 Power MOSFET in
... VGS = 0 V, ISD = 8 A ISD = 8 A, di/dt = 100 A/µs, VDD = 60 V (see Figure 16: "Test circuit for inductive load switching and diode recovery times") ...
... VGS = 0 V, ISD = 8 A ISD = 8 A, di/dt = 100 A/µs, VDD = 60 V (see Figure 16: "Test circuit for inductive load switching and diode recovery times") ...
Low Power Pulse Width Modulator
... providing pulse-by-pulse overcurrent control for excessive loads. This comparator also causes CF to be charged for the remainder of the clock cycle. The charging current is ...
... providing pulse-by-pulse overcurrent control for excessive loads. This comparator also causes CF to be charged for the remainder of the clock cycle. The charging current is ...
N-channel 600 V, 0.094 typ., 28 A MDmesh™ DM2 Power MOSFET
... ISD = 28 A, di/dt = 100 A/µs, VDD = 60 V, Tj = 150 °C (see Figure 16: "Test circuit for inductive load switching and diode recovery times") ...
... ISD = 28 A, di/dt = 100 A/µs, VDD = 60 V, Tj = 150 °C (see Figure 16: "Test circuit for inductive load switching and diode recovery times") ...
Second Term Test
... A (e) ________ has a variable resistance. Volume control is an example that makes use of it. ...
... A (e) ________ has a variable resistance. Volume control is an example that makes use of it. ...
Power Supplies.doc
... lower currents we may only drop tenths of a volt across R2. As we approach 250 mA we will get a maximum of 0.6 volts across it. ...
... lower currents we may only drop tenths of a volt across R2. As we approach 250 mA we will get a maximum of 0.6 volts across it. ...
L298N datasheet
... Turn-On and Turn-Off : Before to Turn-ON the Supand its outputs can drive an inductive load in comply Voltageand beforeto Turnit OFF, the Enableinmon or differenzialmode, dependingon the state of put must be driven to the Low state. the inputs. The current that flows through the load 3. APPLICATIONS ...
... Turn-On and Turn-Off : Before to Turn-ON the Supand its outputs can drive an inductive load in comply Voltageand beforeto Turnit OFF, the Enableinmon or differenzialmode, dependingon the state of put must be driven to the Low state. the inputs. The current that flows through the load 3. APPLICATIONS ...
H – Parameter model :-
... Two port devices & Network Parameters:→ A transistor can be treated as a two part network. The terminal behaviour of any two part network can be specified by the terminal voltages V1 & V2 at parts 1 & 2 respectively and current i1 and i2, entering parts 1 & 2, respectively, as shown in figure. ...
... Two port devices & Network Parameters:→ A transistor can be treated as a two part network. The terminal behaviour of any two part network can be specified by the terminal voltages V1 & V2 at parts 1 & 2 respectively and current i1 and i2, entering parts 1 & 2, respectively, as shown in figure. ...
Radians
... number of times per second that we generate a sine wave. The period (T) is the time it takes to generate one complete sine wave. T = 400 μs. Find f ...
... number of times per second that we generate a sine wave. The period (T) is the time it takes to generate one complete sine wave. T = 400 μs. Find f ...
Unijunction Transistor
... voltage VBB (5V to 10V) between the two bases B1 and B2. Increase the emitter voltage VE in convenient steps starting from zero. Note the corresponding emitter current IE. Draw a graph by taking IE on X-axis and VE on Y-axis. The shape of the graph is as shown in the Fig. 4. Note the peak point P an ...
... voltage VBB (5V to 10V) between the two bases B1 and B2. Increase the emitter voltage VE in convenient steps starting from zero. Note the corresponding emitter current IE. Draw a graph by taking IE on X-axis and VE on Y-axis. The shape of the graph is as shown in the Fig. 4. Note the peak point P an ...
parallel circuits
... values below • Is = I1 + I2 + I3 • Is = 0.2 + 0.6 + 0.4 • Is = 1.2 A • Vs = V1 = V2 = V3 • V2 = 4V • So, Vs = 4V ...
... values below • Is = I1 + I2 + I3 • Is = 0.2 + 0.6 + 0.4 • Is = 1.2 A • Vs = V1 = V2 = V3 • V2 = 4V • So, Vs = 4V ...
TRIAC
TRIAC, from triode for alternating current, is a genericized tradename for an electronic component that can conduct current in either direction when it is triggered (turned on), and is formally called a bidirectional triode thyristor or bilateral triode thyristor.TRIACs are a subset of thyristors and are closely related to silicon controlled rectifiers (SCR). However, unlike SCRs, which are unidirectional devices (that is, they can conduct current only in one direction), TRIACs are bidirectional and so allow current in either direction. Another difference from SCRs is that TRIAC current can be enabled by either a positive or negative current applied to its gate electrode, whereas SCRs can be triggered only by positive current into the gate. To create a triggering current, a positive or negative voltage has to be applied to the gate with respect to the MT1 terminal (otherwise known as A1).Once triggered, the device continues to conduct until the current drops below a certain threshold called the holding current.The bidirectionality makes TRIACs very convenient switches for alternating-current (AC) circuits, also allowing them to control very large power flows with milliampere-scale gate currents. In addition, applying a trigger pulse at a controlled phase angle in an AC cycle allows control of the percentage of current that flows through the TRIAC to the load (phase control), which is commonly used, for example, in controlling the speed of low-power induction motors, in dimming lamps, and in controlling AC heating resistors.