Figure i for the analysis of the working principles of the tripolar switch circuits shows the co-radio polar circuits of the npn tripolar tube, and figure ii shows the characterization curve, which shows three working areas: the cut-off zone (cutoff region), the linear zone (active region), the saturation zone (saturation region) is controlled by b extreme current ib as input. If the three tubes are in the cut-off zone, the ib approaches 0 (vbe also approaches 0), the ic =h f i b is cut off from the extreme, ic = 0, vce cc - cc - rfe ib is in the sex zone, b-e is in the saturation zone, b-c is in the reverse direction ib is in the line ib, and the value of ib is in the line i-e=0. V. = c0. = c0. = c2-v = b2 = c0. = c0 = c0. & c = c = c = c0 = c = c = c2 , & ib = ib & ib is in the saturation zone, i-b & i-b, as b & b , and c = b 。
This switch is controlled by ib, which can also be used as a controlled input signal amplifier iii and iv, respectively, to show the same routing, breakage, and equivalent circuits of tripolar switches, but it has some mechanic radial radial circuits that do not exist, chart 2 co-radian circuit output properties, chart 3 at a cut road, at a cut-off pattern, chart 4 at a saturation state, and the three poles that are designed to be used for the switch, in addition to being a communication signal amplifier, and thus for the three main circuits, a basic tripolar switch is not identical to the cyst that is controlled by the cyst v at a time, but it does not have the cyst at a cyst at a time when the cyst is connected to the cyst (cytrate) at a time when the flow of the cyte is extended by the cyst, the flow of the cytotic is transmitted at a high cyst, and the flow is at a high cyt。
An analytical design of a single phase i and a triode switch circuit may, of course, bring a value below 0. 3 voltage (838 electron resources) of vin below the level of 0. 3 voltage to ensure that a level of zero voltage is equivalent to a level of zero voltage to ensure that a level of zero voltage is equal to a level of zero voltage in a level of zero voltage in a cell tube, and that a level of zero latency is required to transmit a level of the level of the level of the level of the level of the cell in a cell tube to a level of 0. 6 voltage, that a level of zero voltage in a level of zero voltage, that of the level of the level of the level of the level of the level of charge in a cell, that of the level of the level of the level of the level of the level of the level of the cell, that of the level of the level of the level of charge, that of the level of the level of the level of the level of the level of charge, that of the level of the level of the level of the level of the level of the level of the level。
In general, since the triode is connected to the circuit in figure 1, its effects are the same as those of a mechanical switch attached to the load, which can be activated by direct use of the control facilitated by the input of the voltage, rather than using the mechanical actuator, solenoid plunger, or electrical power hub controls commonly used by the mechanical switch, to explain what type of input pressure is required to close down (triode saturate) in the open circuit in figure 2? And explain the charge of the current and base current value? It is known by type 2 that, in saturated states, all electricity voltage is fully overloaded with load resistance, so the equation (1) is known to allow input of electrical voltage to be obtained downwards: figure 2 uses a tripolar tube as a light bulb switch, known by question 1-1, to control the discharge of load currents up to 1. 5a using a triode switch, with only very small control of voltage and currents, in addition to the fact that the tripolar tube is not required to load thermal tablets when the charge stream is out, and its vce is close to zero, so its power of electrical currents and voltage is very small and it is not necessary to disperse the heat tablets, which are relatively free of mechanical switches。
This is not the case, no triodes can be completely short-circuited to vce = 0, and most small signal silicon triodes can be saturated at approximately 0. 2 volts, even though vce (saturated) is designed for switch applications, its vce (saturated) value is at most low to around 0. 1 volts, and the load current is high, and the vce (saturated) value may rise somewhat, although for most analytical calculations the vce (saturated) value can be disregarded, but in testing exchange circuits, it must be understood that the vce (saturated) value is not really zero, although the voltage of vce (saturated) is very small and insignificant, but if several triode tubes are connected, the overall pressure reduction effect is significant, unfortunately mechanical openings often work in a chain-based manner, as shown in figure 3 (a), and the triple-bar open switch is not simable. As shown in figure 3 (b), work is a major drawback of tripolar switches, which, while they do not apply in a serial mode, are perfectly applicable to the simultaneous working methods, as shown in figure 4. This is a case of tripolar switches and traditional mechanized switches, which have four advantages: figure 4-triode switches, combined with (1) tripolar switches, are not part of the active interface and therefore do not have to be worn down and can be used for an unlimited number of times, a normal mechanical switch, which, as a result of point wear, can only be used about a few million times at the most, and their points are susceptible to contamination and work, and thus cannot operate in a dirty environment, and the tripolar switches are neither connected nor sealed。
2) when the movement of the triode switch is faster than that of the ordinary switch, the opening time of the general switch is calculated in milliseconds (ms), and when the triode switch is activated in microseconds (mis) at 3), the triode switch does not jump (bounce) at the moment when the normal mechanical switch of the transducer is activated, and therefore the transduceration of the transceiver is rapid at the moment when the cavity switch is in motion, before it can gradually reach a stable state 4) is used to drive the sensory load, and at the moment of the opening of the triode switch, there is no backlash of the spark, when the mechanical switch is open, when the mechanical switch is open, when the transducation of the cavity v is activated at the moment, it is necessary to test the flow of the cavity v at the end of the cavity, so if the flow of the transce is not at the level of the cavity and c at the level of the cavance, then the flow of the cavance is at the level of c at the level of the level c。
If the calibration level at vin is high enough to drive the tripolar catheter is no problem and the load is still unguided, then test the normality of the power supply voltage. Under the conductive state, the vbe value of the silicon tripolar tube is approximately 0. 6 volts, so even if the vbe reading value is high enough for vbe is above and below 0. 6 volts, such as the vbe is 1. 5 volts or 0. 2 volts, which means that the routing of the catheters may have been damaged, it is better to set the trads below the traves, but the vce values must be tested once the vbe is normal and the flow of power is very high, the vce values are expected to be lower than vccr, and the vbe values are often above vv volts, so even if the vbe reading value is high enough for 1. 5 volts, it may not be necessary to switch the tractors below the traves。
To overcome this critical situation, corrective steps must be taken to ensure that figure 6 of the tripolar tube must be closed to two common improved circuits designed in response to the situation. Figure 6 of the chart ensures that the two correct modified circuits 6(a) are connected to a diode, thus enabling the input pressure of the base stream to be increased by 0. 6 volts, so that even if the value of vin is close to 0. 6 volts due to the misalignment of the signal source, the tripolar tube conductor is not allowed to pass, thus the switch can remain at the cut-off level of chart 6(b), so that the auxiliary-cut-off circuit of the tripolar tube is added to the auxiliary circuit of chart 6(b), the correct two modified circuits of circuit 6(hold-off), the correct circuit of circuital circuital circuits is attached to the r2 (hold-off), the appropriate r1, the appropriate r1, r2 and the value of v2 is used to speed up to the level of the bow line, even if the speed is to the limit of the line 6(ib0) and the limit is to be applied to the。
Figure 7 is a common approach, whereby when vin moves from zero voltage to zero voltage and begins to deliver to base poles, the capacitors are short-sized because they cannot charge at short notice, but at this time there are large currents that flow from the capacitors to the base pole at short notice. However, at this time, there is a sudden flow of large currents from the capacitors to the base pole, which accelerates the speed of the switch to a later stage, and when the charge is complete, the capacity of the circuit is parallel to the normal work of the tripolar tube, without prejudice to the normal work of the tripolar tube, and the electrical circuit of the accelerator is not subject to instant change in the charge of the two end-stage voltage, and the drop of the pole at very short length is expected to result in the drop-off of the controne to a very high level, and the drop-off is expected to result in the drop-off of the transient tube to a very high rate, and the drop-off of the flow-to-to-to-to-to-to-to-to-。
