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LB-17: Linear Brief 17 LM118 Op Amp Slews 70 V/µSec: National
Semiconductor Application Note (app note added 2/06) |
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LB-19: Linear Brief 19 Predicting Op Amp Slew Rate Limited Response:
National Semiconductor Application Note (app note added 2/06) |
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LB-2: Feedforward Compensation Speeds Op Amp: National Semiconductor
Application Note (app note added 2/06) |
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LB-22: Linear Brief 22 Low Drift Amplifiers: National Semiconductor
Application Note (app note added 2/06) |
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LB-26: Linear Brief 26 Specifying Selected Op Amps and Comparators:
National Semiconductor Application Note (app note added 2/06) |
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LB-52: Linear Brief 52 a Low-Noise Precision Op Amp: National
Semiconductor Application Note (app note added 2/06) |
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Lh0024 and Lh0032 High Speed Opamp Applications :
National Semiconductor Application Note 04-Nov-1995 (app note added 4/02) |
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Linear Power Driver Works from Single Supply: 07/25/02
EDN Design Ideas / (added 12/04) In low-power, single-supply analog applications, it is often desirable to maintain
precise control of voltages much greater than the positive-supply rail. The circuit in Figure 1 allows you to amplify the input voltage,
VIN, by a factor, A, which resistors R1 and R2 set. The output voltage, VOUT, equals AVIN, where A=R2/(R1+R2).... |
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LM 143 Monolithic High Voltage Operational Amplifier Applications:
National Semiconductor Application Note (app note added 2/06) |
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LM118 Op Amp Slews 70 V/µSec: National Semiconductor Application Note
(app note added 2/06) |
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LM118 Opamp Slews 70 Volt/Microsecond : National
Semiconductor Application Notes,28-Jun-1996 (app note added 4/02) |
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LM3900 New Current Differencing Quad of Plus or Minus Input
Amplifiers: National Semiconductor Application Note 04-Nov-1995 (app note added 4/02) |
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LM6361/LM6364/LM6365 Fast Opamps: National
Semiconductor Application Note 04-Nov-1995 / (app note added 4/02) / Offer High Speed at Low Power Consumption |
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LMH730275 Triple High Speed Ssop Op Amp Evaluation Board: National
Semiconductor Application Note (app note added 2/06) |
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Long-Delay Op Amp Timer: After some experimentation I ended up with the
circuit shown in Fig 2. It comprises a timing capacitor, a FET-input 3140-type IC configured as a voltage follower, and a second IC, a 741,
which functions as a voltage comparator and relay driver. (added 6/06) |
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Low Distortion Wideband Power Op Amp: National Semiconductor
Application Note (app note added 2/06) |
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Low Drift Amplifiers: National Semiconductor Application Note
(app note added 2/06) |
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Low Noise Precision Opamp : National Semiconductor
Application Notes,28-Jun-1996 (app note added 4/02) |
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Low Power Fast Op Amps Have Low Distortion: DN148 Design Notes
(Linear Technology) (app note added 1/06) |
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Low Power Op Amp Audio Amp (Intercom): (electronic circuit
added 7/03) |
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Low-Noise Precision Op Amp: National Semiconductor
Application Note (app note added 2/06) |
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LT1056 Improved JFET Op Amp Macromodel Slews Asymmetrically: DN43
Design Notes (Linear Technology) (app note added 1/06) |
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LT1806: 325MHz Low Noise Rail-To-Rail SOT-23 Op Amp Saves Board Space:
DN254 Design Notes (Linear Technology) (app note added 1/06) |
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LT1880 SOT-23 Superbeta Op Amp Saves Board Space in Precision Applications:
DN266 Design Notes (Linear Technology) (app note added 1/06) |
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LT1970 Op Amp Provides On-The-Fly Adjustable Current Limit for Flexibility and
Load Protection in High Current Applications: DN298 Design Notes (Linear Technology) (app note added 1/06) |
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LTC1451/52/53: 12-Bit Rail-To-Rail Micropower DACs in an SO-8: DN96 Design Notes (Linear Technology) (app note added 6/06) |
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Main Principles of Amplifier Wiring : How to wire
operational amplifier (added 4/02) |
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Maximize
Dynamic Range with the LT1466l Micropower Rail-To-Rail Op Amp: DN171 Design Notes (Linear Technology) (app note added 2/06) |
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Methods for Measuring Op Amp Settling Time: AN10 Linear Technology The
AN10 begins with a survey of methods for measuring op amp settling time. This commentary develops into circuits for measuring settling time
to 0.0005%. Construction details and results are presented. Appended sections cover oscilloscope overload limitations and amplifier
frequency compensation. |
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Micropower Buffered Rail-to-Rail Adjustable Volatge Source: Circuit
Ideas for Designers Application Notes Advanced Linear Devices, Inc. (app note added 6/06) |
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Micropower using the LM4250 Programmable Opamp :
National Semiconductor Application Note 04-Nov-1995 (app note added 4/02) |
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Monolithic Op Amp-theUniversal Linear Component: National Semiconductor
Application Note (app note added 2/06) |
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Monolithic Operational Amplifier: a Tutorial Study:
National Semiconductor Application Note (app note added 2/06) |
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Monolithic Power Op Amp: National Semiconductor
Application Note (app note added 2/06) |
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Multi Track Recording System : (diagram added 6/03) |
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Negative Resistor Cancels Opamp Load: 05/24/01 EDN-Design Ideas /
(added 5/03) |
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New Op Amp Ideas: National Semiconductor Application Note
(app note added 2/06) |
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Noise and Operational Amplifier Circuits: AN-358 Analog Devices
Application Notes (app note added 6/06) |
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Noise Calculations in Op Amp Circuits: DN15 Design Notes (Linear
Technology) (app note added 1/06) |
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Noninverting Op Amp Circuit has Simple Gain Formula:
11/28/02 EDN Design Ideas / (added 12/04) Basic textbooks describe inverting and noninverting amplifiers based on
operational amplifiers. These amplifiers have different gain equations. Whereas in the inverting configuration, the gain is the ratio of the
feedback and input resistances, in the noninverting amplifier, the gain ratio has an added term.... |