peterdlo10 / Expected Blush Antigravity Battle Room

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me puedes hacer un circuito con amplificador operacional LM32 para esta practica...

peterdlo10

peterdlo10

@copilot me puedes hacer un circuito con amplificador operacional LM32 para esta practica: En base al conocimiento previo sobre los amplificadores operacionales, diseñe y arme un circuito el cual elimine la impedancia de la fuente de entrada y este encanale un voltaje que puede ser variable de 0 a 3.3, para obtener un voltaje de salida de 0 a 10 volts. En relación a la siguiente tabla suministre los voltajes de entrada y obtenga los voltajes en la salida del circuito propuesto, comparándolos con los esperados. Con los resultados obtenidos haga una gráfica, además realice un ajuste por mínimos cuadrados para obtener la linealidad del circuito, reporte el valor de R2.
2y

copilot

Por supuesto, puedes usar el amplificador operacional LM32 en una configuración no inversora para escalar una señal de entrada de 0 a 3.3V a una salida de 0 a 10V. A continuación se muestra cómo conectar los componentes:
  • Amplificador operacional (U1): LM32
  • Resistencia (R1): 10 kOhm
  • Resistencia (R2): 30 kOhm
Los componentes se conectan así:
  1. Conecte el pin "+" (entrada no inversora) del LM32 (U1) a la fuente de señal de entrada.
  2. Conecta el pin "-" (entrada inversora) del LM32 (U1) al terminal de salida a través de la resistencia R2.
  3. Conecte una punta de la resistencia R1 al pin "-" (entrada inversora) del LM32 (U1).
  4. Conecta el otro extremo de la resistencia R1 a tierra.
  5. Conecta el pin de salida del LM32 (U1) a la carga deseada.
  6. Proporcione energía al LM32 (U1) a través de sus pines de alimentación (pin 4 para Vcc+ y pin 11 para Vcc-). Vcc+ y Vcc- deben ser mayores que la mayor tensión de salida que se espera (10V en este caso).
La fórmula para la ganancia (A) de un amplificador no inversor es:
( A = 1 + \frac{R2}{R1} )
Si sustituimos los valores de las resistencias propuestas en esta fórmula, obtenemos una ganancia de (1 + \frac{30 k\Omega}{10 k\Omega} = 4), lo cual es coherente con nuestra necesidad de convertir una señal de 3.3V en una señal de 10V.
Después de tener el circuito montado, puedes recorrer los valores de entrada de voltaje deseados, desde 0 hasta 3.3V, midiendo la correspondiente salida de voltaje. Compara estos valores con los esperados y traza los resultados. La ecuación de la línea de mejor ajuste y el valor de R^2 pueden ser obtenidos usando un paquete de software como Excel o Python (numpy y matplotlib).
Debes tener en cuenta que este diseño asume que la fuente de señal de entrada es de alta impedancia, y que la carga conectada a la salida del LM32 es de baja impedancia. Según la hoja de especificaciones del LM32, su impedancia de entrada es alta y su impedancia de salida es baja, por lo que este diseño debería funcionar correctamente en la mayoría de los casos. Sin embargo, si trabajas con fuentes o cargas con impedancias inusuales, es posible que debas realizar ajustes.
Ten en cuenta que los AMOs reales, como el LM32, no tienen un comportamiento ideal. Especialmente en altas frecuencias y tensiones cercanas a las de alimentación, la salida podría no seguir exactamente la relación esperada. Recomiendo revisar la hoja de datos del LM32 para más detalles.
2y
1

Reviews



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