 
									
								
									Rates of Charge Flow and Energy Transfer
									
... terminal to the next device. 3. Follow the current path until you reach the negative terminal. 4. Check your work ! ...
                        	... terminal to the next device. 3. Follow the current path until you reach the negative terminal. 4. Check your work ! ...
									Voltage - LCNeuro
									
... Source:http://www.preparednesspro.com/time-to-stock-up-on-toilet-paper-batterie s-and-more-cheap ...
                        	... Source:http://www.preparednesspro.com/time-to-stock-up-on-toilet-paper-batterie s-and-more-cheap ...
									EUP3412  1.5A/1.5MHz, Synchronous Step-Down Converter with Soft Start
									
... frequency, current mode architecture. Both the main (P-Channel MOSFET) and synchronous (N-channel MOSFET) switches are internal. During normal operation, the EUP3412 regulates output voltage by switching at a constant frequency and then modulating the power transferred to the load each cycle using P ...
                        	... frequency, current mode architecture. Both the main (P-Channel MOSFET) and synchronous (N-channel MOSFET) switches are internal. During normal operation, the EUP3412 regulates output voltage by switching at a constant frequency and then modulating the power transferred to the load each cycle using P ...
									E6-12 - Stanford University
									
... Build the current source shown in Fig 3 and use it to replace the large 7.5k resistor in the “tail”. Measure common-mode gain again and report the CMRR. Estimate output impedance of the current source based on your data from #6. Should be a high number. What is the function of the 10k resistor on ea ...
                        	... Build the current source shown in Fig 3 and use it to replace the large 7.5k resistor in the “tail”. Measure common-mode gain again and report the CMRR. Estimate output impedance of the current source based on your data from #6. Should be a high number. What is the function of the 10k resistor on ea ...
									a AN-579 APPLICATION NOTE
									
... The gain expression implies a balanced quasi-logarithmic characteristic. This inverting configuration is useful because it makes available a wide range of gains, from very small to very large, with unity near half-scale. Because the resistors are fabricated on a single monolithic chip, resistance ra ...
                        	... The gain expression implies a balanced quasi-logarithmic characteristic. This inverting configuration is useful because it makes available a wide range of gains, from very small to very large, with unity near half-scale. Because the resistors are fabricated on a single monolithic chip, resistance ra ...
									Evaluation Kit for the MAX687, MAX688, MAX689
									
... The MAX688 can be replaced with a MAX687 to generate a 3.3V output voltage with output current up to 0.5A. The only modifications required are as follows: 1) replace the IC, 2) remove R2 and the shunt from JU1, and 3) add R3 and C3 (located on the board’s solder side) or drive the ON pin with an ext ...
                        	... The MAX688 can be replaced with a MAX687 to generate a 3.3V output voltage with output current up to 0.5A. The only modifications required are as follows: 1) replace the IC, 2) remove R2 and the shunt from JU1, and 3) add R3 and C3 (located on the board’s solder side) or drive the ON pin with an ext ...
									Operational amplifier
									
...  When Vin=0, Vout is NOT 0 due to mismatch of transistors in real circuit design.  It is more meaningful to specify input-referred offset voltage, defined as Vos,in=Vos,out / A.  Offset voltage may causes a DC shift of later stages, also causes limited precision in signal comparison. ...
                        	...  When Vin=0, Vout is NOT 0 due to mismatch of transistors in real circuit design.  It is more meaningful to specify input-referred offset voltage, defined as Vos,in=Vos,out / A.  Offset voltage may causes a DC shift of later stages, also causes limited precision in signal comparison. ...
									DN367 - Tiny Versatile Buck Regulators Operate from 3.6V to 36V Input
									
... Linear Technology offers two new buck regulators that operate from a wide input voltage range (3.6V to 36V) and take so little space that they easily solve many difficult power supply problems. The LT®1936 and LT1933 are perfect for applications with disparate power inputs or wide range input power ...
                        	... Linear Technology offers two new buck regulators that operate from a wide input voltage range (3.6V to 36V) and take so little space that they easily solve many difficult power supply problems. The LT®1936 and LT1933 are perfect for applications with disparate power inputs or wide range input power ...
									RPI-5100
									
... The contents described herein are subject to change without notice. The specifications for the product described in this document are for reference only. Upon actual use, therefore, please request that specifications to be separately delivered. Application circuit diagrams and circuit constants cont ...
                        	... The contents described herein are subject to change without notice. The specifications for the product described in this document are for reference only. Upon actual use, therefore, please request that specifications to be separately delivered. Application circuit diagrams and circuit constants cont ...
									Slide 1
									
... discrete time digital representation Converting an analog voltage to a digital value that can be used by a microcontroller. There are many sources of analog signals to be measured such as light intensity, temperature, distance, position, etc. ...
                        	... discrete time digital representation Converting an analog voltage to a digital value that can be used by a microcontroller. There are many sources of analog signals to be measured such as light intensity, temperature, distance, position, etc. ...
									lab proceedures (word format) - Rose
									
... • connect the (+) terminal of the voltage source to the (+) terminal of the ammeter • connect the (-) terminal of the ammeter to the input pin • connect the (-) terminal of the voltage source to Gnd plug the circuit into the zif socket • touch the ground terminal of the power supply BEFORE handling ...
                        	... • connect the (+) terminal of the voltage source to the (+) terminal of the ammeter • connect the (-) terminal of the ammeter to the input pin • connect the (-) terminal of the voltage source to Gnd plug the circuit into the zif socket • touch the ground terminal of the power supply BEFORE handling ...
									Introduction
									
... Due to large amounts of energy stored in the motor coils during operation, a voltage spike of several hundred volts is generated when the breaker is turned OFF. This diode surpresses this spike which protects the connected motor controller and DC-DC converters. Cathode (i.e. banded end) MUST face po ...
                        	... Due to large amounts of energy stored in the motor coils during operation, a voltage spike of several hundred volts is generated when the breaker is turned OFF. This diode surpresses this spike which protects the connected motor controller and DC-DC converters. Cathode (i.e. banded end) MUST face po ...
									Name
									
... ____________________________ Find the average atomic mass (also known as the atomic weight) of sulfur from a periodic table. ...
                        	... ____________________________ Find the average atomic mass (also known as the atomic weight) of sulfur from a periodic table. ...
									Massachusetts institute of Technology
									
... Problem 1. A voltage divider is formed with resistors R1 and R2. A voltmeter is used to measure the voltage across resistor R2. The following table gives the values for the measured voltage Vo as a function of resistors R1 and R2 and the ideal voltage source VB. ...
                        	... Problem 1. A voltage divider is formed with resistors R1 and R2. A voltmeter is used to measure the voltage across resistor R2. The following table gives the values for the measured voltage Vo as a function of resistors R1 and R2 and the ideal voltage source VB. ...
Opto-isolator
In electronics, an opto-isolator, also called an optocoupler, photocoupler, or optical isolator, is a component that transfers electrical signals between two isolated circuits by using light. Opto-isolators prevent high voltages from affecting the system receiving the signal. Commercially available opto-isolators withstand input-to-output voltages up to 10 kV and voltage transients with speeds up to 10 kV/μs.A common type of opto-isolator consists of an LED and a phototransistor in the same opaque package. Other types of source-sensor combinations include LED-photodiode, LED-LASCR, and lamp-photoresistor pairs. Usually opto-isolators transfer digital (on-off) signals, but some techniques allow them to be used with analog signals.
 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									 
									