 
									
								
									MAX5098A Dual, 2.2MHz, Automotive Buck or Boost Converter with 80V Load-Dump Protection
									
... series protection MOSFET absorbs the high voltage transient to prevent damage to lower voltage components. The DC-DC converters operate over a wide operating voltage range from 4.5V to 19V. The MAX5098A operates 180° out-of-phase with an adjustable switching frequency to minimize external components ...
                        	... series protection MOSFET absorbs the high voltage transient to prevent damage to lower voltage components. The DC-DC converters operate over a wide operating voltage range from 4.5V to 19V. The MAX5098A operates 180° out-of-phase with an adjustable switching frequency to minimize external components ...
									BJT Biasing Circuits
									
... Applying the law of diffusion, we can determine the charge flow across the base region into the collector. The equation above shows that the transistor is indeed a voltage-controlled element, thus a good candidate as an amplifier. CH4 ...
                        	... Applying the law of diffusion, we can determine the charge flow across the base region into the collector. The equation above shows that the transistor is indeed a voltage-controlled element, thus a good candidate as an amplifier. CH4 ...
									Application Note AN-55 HiperLCS Family
									
... VBULK_NOM, and the HiperLCS will not start-up at nominal input voltage. If VBROWNOUT is below this range, the VOV_RESTART point will be below VBULK_NOM, and the HiperLCS will not restart after a voltage swell event that triggers VOV_SHUT. For maximum hold-up time, set VBROWNOUT to 65% of VBULK_NOM. ...
                        	... VBULK_NOM, and the HiperLCS will not start-up at nominal input voltage. If VBROWNOUT is below this range, the VOV_RESTART point will be below VBULK_NOM, and the HiperLCS will not restart after a voltage swell event that triggers VOV_SHUT. For maximum hold-up time, set VBROWNOUT to 65% of VBULK_NOM. ...
									1 Electric current originates from which part of an atom? A. nucleus
									
... 1 Ans: D 2 Ans: B 3 Ans: C 4 Ans: A 5 Ans: A 6 Ans: B 7 Ans: C 8 Ans: A 9Ans: A 10 Ans: B 11 Ans: C 12 Ans: D 13 Ans: D 14 Ans: B 15 Ans: B16Ans: C 17 Ans: A 18 Ans: B 19 Ans: B 20 Ans: A 21 Ans: A 22 Ans: B 23 Ans: A 24 Ans: C 25 Ans: B 26 Ans: C 27Ans: B 28 Ans: B 29 Ans: B 30 Ans: D 31 Ans: A 32 ...
                        	... 1 Ans: D 2 Ans: B 3 Ans: C 4 Ans: A 5 Ans: A 6 Ans: B 7 Ans: C 8 Ans: A 9Ans: A 10 Ans: B 11 Ans: C 12 Ans: D 13 Ans: D 14 Ans: B 15 Ans: B16Ans: C 17 Ans: A 18 Ans: B 19 Ans: B 20 Ans: A 21 Ans: A 22 Ans: B 23 Ans: A 24 Ans: C 25 Ans: B 26 Ans: C 27Ans: B 28 Ans: B 29 Ans: B 30 Ans: D 31 Ans: A 32 ...
									RT8168B - igorx.irk.ru
									
... RT8168B uses SVID interface to control an 8-bit DAC for output voltage programming. The built-in high accuracy DAC converts the received VID code into a voltage value ranging from 0V to 1.52V with 5mV step voltage. The system accuracy of the controller can reach 0.8%. The RT8168B operates in continu ...
                        	... RT8168B uses SVID interface to control an 8-bit DAC for output voltage programming. The built-in high accuracy DAC converts the received VID code into a voltage value ranging from 0V to 1.52V with 5mV step voltage. The system accuracy of the controller can reach 0.8%. The RT8168B operates in continu ...
									103_unit_2
									
... not a decimal number. Now that the number has been converted into engineering notation format with a ± 3, ± 6, ± 9, or ± 12 superscript value, the shorthand substitution can be made. The number 39 x103 can be made into 39k by substituting k for x103. Look at the second number in Figure 24. Conver ...
                        	... not a decimal number. Now that the number has been converted into engineering notation format with a ± 3, ± 6, ± 9, or ± 12 superscript value, the shorthand substitution can be made. The number 39 x103 can be made into 39k by substituting k for x103. Look at the second number in Figure 24. Conver ...
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...  The p–n junctions are unilateral in nature, i.e., they conduct current in only one direction. Thus, we can consider an ideal diode as a short circuit when forwardbiased and as an open circuit when reverse-biased.  Forward biased diodes exhibit an offset voltage (Vy) that can be approximated by th ...
                        	...  The p–n junctions are unilateral in nature, i.e., they conduct current in only one direction. Thus, we can consider an ideal diode as a short circuit when forwardbiased and as an open circuit when reverse-biased.  Forward biased diodes exhibit an offset voltage (Vy) that can be approximated by th ...
									ltc1871ems-1-trpbf中文资料
									
... The nominal operating frequency of the LTC1871-1 is programmed using a resistor from the FREQ pin to ground and can be controlled over a 50kHz to 1000kHz range. In addition, the internal oscillator can be synchronized to an external clock applied to the MODE/SYNC pin and can be locked to a frequency ...
                        	... The nominal operating frequency of the LTC1871-1 is programmed using a resistor from the FREQ pin to ground and can be controlled over a 50kHz to 1000kHz range. In addition, the internal oscillator can be synchronized to an external clock applied to the MODE/SYNC pin and can be locked to a frequency ...
									MAX5427/MAX5428/MAX5429 One-Time Programmable, Linear-Taper Digital Potentiometers General Description
									
... then care must be taken to ensure that the wiper is in the same position as it was originally set to (when programmed with five pulses). The full six programming pulses must be applied. If the wiper is not in its original programmed position prior to disabling the interface, the final locked-out pos ...
                        	... then care must be taken to ensure that the wiper is in the same position as it was originally set to (when programmed with five pulses). The full six programming pulses must be applied. If the wiper is not in its original programmed position prior to disabling the interface, the final locked-out pos ...
									OPA3684 Low-Power, Triple Current-Feedback OPERATIONAL AMPLIFIER With Disable FEATURES
									
... headroom requirement is complemented by a similar 1.2V input stage headroom giving exceptional capability for single +5V operation. The OPA3684’s low 1.7mA/ch supply current is precisely trimmed at 25°C. This trim, along with low shift over temperature and supply voltage, gives a very robust design ...
                        	... headroom requirement is complemented by a similar 1.2V input stage headroom giving exceptional capability for single +5V operation. The OPA3684’s low 1.7mA/ch supply current is precisely trimmed at 25°C. This trim, along with low shift over temperature and supply voltage, gives a very robust design ...
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.
 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									