
Experiment # 1 - GWU`s SEAS - The George Washington University
... voltage drop across each resistor. 3. Measure the current through each resistor in the circuit. Note, it is impossible to measure the current ‘across’ a resistor, you must use the DMM differently when measuring current. Ask you GTA how if you do not remember. 4. Measure the total current (I1) used b ...
... voltage drop across each resistor. 3. Measure the current through each resistor in the circuit. Note, it is impossible to measure the current ‘across’ a resistor, you must use the DMM differently when measuring current. Ask you GTA how if you do not remember. 4. Measure the total current (I1) used b ...
SGB-6433(Z) 数据资料DataSheet下载
... Caution! ESD sensitive device. Exceeding any one or a combination of the Absolute Maximum Rating conditions may cause permanent damage to the device. Extended application of Absolute Maximum Rating conditions to the device may reduce device reliability. Specified typical performance or functional op ...
... Caution! ESD sensitive device. Exceeding any one or a combination of the Absolute Maximum Rating conditions may cause permanent damage to the device. Extended application of Absolute Maximum Rating conditions to the device may reduce device reliability. Specified typical performance or functional op ...
74VCX245 Low Voltage Bidirectional Transceiver with 3.6V Tolerant Inputs and Outputs 7
... The VCX245 contains eight non-inverting bidirectional buffers with 3-STATE outputs and is intended for bus oriented applications. The T/R input determines the direction of data flow. The OE input disables both the A and B ports by placing them in a high impedance state. ...
... The VCX245 contains eight non-inverting bidirectional buffers with 3-STATE outputs and is intended for bus oriented applications. The T/R input determines the direction of data flow. The OE input disables both the A and B ports by placing them in a high impedance state. ...
AP_Physics_B_-_Series_Circuit_Lab
... 6. Setup your voltmeter with one wire attached to the BLACK terminal and one wire attached to the 3V terminal. You will read the scale using the BOTTOM set of numbers. If at any point and time the needle goes ALL THE WAY to the right. Move the wire attached to the 3V terminal to the 10V terminal. T ...
... 6. Setup your voltmeter with one wire attached to the BLACK terminal and one wire attached to the 3V terminal. You will read the scale using the BOTTOM set of numbers. If at any point and time the needle goes ALL THE WAY to the right. Move the wire attached to the 3V terminal to the 10V terminal. T ...
SN65LVELT22 数据资料 dataSheet 下载
... Device will meet the specifications after thermal balance has been established when mounted in a socket or printed circuit board with maintained transverse airflow greater than 500 lfpm. Electrical parameters are assured only over the declared operating temperature range. Functional operation of the ...
... Device will meet the specifications after thermal balance has been established when mounted in a socket or printed circuit board with maintained transverse airflow greater than 500 lfpm. Electrical parameters are assured only over the declared operating temperature range. Functional operation of the ...
Name - Bowles Physics
... 6. Setup your voltmeter with one wire attached to the BLACK terminal and one wire attached to the 5V terminal. You will read the scale using the BOTTOM set of numbers. If at any point and time the needle goes ALL THE WAY to the right. Move the wire attached to the 5V terminal to the 15V terminal. T ...
... 6. Setup your voltmeter with one wire attached to the BLACK terminal and one wire attached to the 5V terminal. You will read the scale using the BOTTOM set of numbers. If at any point and time the needle goes ALL THE WAY to the right. Move the wire attached to the 5V terminal to the 15V terminal. T ...
R07 Set No. 2
... 5. (a) With a schematic diagram, explain the operation of Instrumentation amplifier. (b) List the characteristics of Instrumentation amplifier. ...
... 5. (a) With a schematic diagram, explain the operation of Instrumentation amplifier. (b) List the characteristics of Instrumentation amplifier. ...
AD8055
... The AD8055 and AD8056 require only 5 mA typ/amplifier of supply current and operate on a dual ±5 V or a single +12 V power supply, while capable of delivering over 60 mA of load current. The AD8055 is available in a small 8-lead PDIP, an 8-lead SOIC, and a 5-lead SOT-23, while the AD8056 is availabl ...
... The AD8055 and AD8056 require only 5 mA typ/amplifier of supply current and operate on a dual ±5 V or a single +12 V power supply, while capable of delivering over 60 mA of load current. The AD8055 is available in a small 8-lead PDIP, an 8-lead SOIC, and a 5-lead SOT-23, while the AD8056 is availabl ...
Infineon Power LED Driver TLD5045EJ
... The TLD5045 is a highly integrated smart LED buck controller with built in protection functions. The main function of this device is to drive single or multiple series connected LEDs efficiently from a voltage source higher than the LED forward voltage by regulating a constant LED current. The const ...
... The TLD5045 is a highly integrated smart LED buck controller with built in protection functions. The main function of this device is to drive single or multiple series connected LEDs efficiently from a voltage source higher than the LED forward voltage by regulating a constant LED current. The const ...
AD8131 数据手册DataSheet 下载
... for differential ADCs, optimizing the distortion performance of the ADCs. The common-mode level of the differential output is adjustable by a voltage on the VOCM pin, easily level-shifting the input signals for driving single-supply ADCs with dual supply signals. Fast overload recovery preserves sam ...
... for differential ADCs, optimizing the distortion performance of the ADCs. The common-mode level of the differential output is adjustable by a voltage on the VOCM pin, easily level-shifting the input signals for driving single-supply ADCs with dual supply signals. Fast overload recovery preserves sam ...
Transistor–transistor logic

Transistor–transistor logic (TTL) is a class of digital circuits built from bipolar junction transistors (BJT) and resistors. It is called transistor–transistor logic because both the logic gating function (e.g., AND) and the amplifying function are performed by transistors (contrast with RTL and DTL).TTL is notable for being a widespread integrated circuit (IC) family used in many applications such as computers, industrial controls, test equipment and instrumentation, consumer electronics, synthesizers, etc. The designation TTL is sometimes used to mean TTL-compatible logic levels, even when not associated directly with TTL integrated circuits, for example as a label on the inputs and outputs of electronic instruments.After their introduction in integrated circuit form in 1963 by Sylvania, TTL integrated circuits were manufactured by several semiconductor companies, with the 7400 series (also called 74xx) by Texas Instruments becoming particularly popular. TTL manufacturers offered a wide range of logic gate, flip-flops, counters, and other circuits. Several variations from the original bipolar TTL concept were developed, giving circuits with higher speed or lower power dissipation to allow optimization of a design. TTL circuits simplified design of systems compared to earlier logic families, offering superior speed to resistor–transistor logic (RTL) and easier design layout than emitter-coupled logic (ECL). The design of the input and outputs of TTL gates allowed many elements to be interconnected.TTL became the foundation of computers and other digital electronics. Even after much larger scale integrated circuits made multiple-circuit-board processors obsolete, TTL devices still found extensive use as the ""glue"" logic interfacing more densely integrated components. TTL devices were originally made in ceramic and plastic dual-in-line (DIP) packages, and flat-pack form. TTL chips are now also made in surface-mount packages. Successors to the original bipolar TTL logic often are interchangeable in function with the original circuits, but with improved speed or lower power dissipation.