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Realiza un circuito que sea como un tipo semaforo

jeanbon007

jeanbon007

has las conexiones
2y
jeanbon007

jeanbon007

@copilot Realiza un circuito que sea como un tipo semaforo
2y

copilot

Para crear un circuito tipo semáforo en tu proyecto Arduino Uno Shield, podrás utilizar LEDs para representar las luces del semáforo (rojo, amarillo y verde). Utilizaremos pines digitales para controlar los LEDs. Aquí tienes una sugerencia para conectar y programar tu semáforo:
Componentes Necesarios:
  • 1 x LED rojo
  • 1 x LED amarillo
  • 1 x LED verde
  • 3 x resistencias de 220Ω (para limitar la corriente hacia los LEDs)
  • Arduino Uno
Dado que la descripción de tu proyecto no especifica los componentes exactos más allá de los pines disponibles en el Arduino Uno, asumiré que tienes LEDs y resistencias adecuados a mano. Si no es así, ajusta los componentes según lo que tengas disponible.
Conexiones:
  1. LED Rojo: conecta el ánodo (lado largo) a través de una resistencia de 220Ω al pin digital D2_INT0. Conecta el cátodo (lado corto) a uno de los pines GND.
    • Connect D2_INT0 to R1:1 (ánode LED rojo), y R1:2 to GND.
  2. LED Amarillo: conecta el ánodo a través de una resistencia de 220Ω al pin digital D3_INT1. Conecta el cátodo a uno de los pines GND.
    • Connect D3_INT1 to R2:1 (ánodo LED amarillo), y R2:2 to GND.
  3. LED Verde: conecta el ánodo a través de una resistencia de 220Ω al pin digital D4. Conecta el cátodo a uno de los pines GND.
    • Connect D4 to R3:1 (ánodo LED verde), y R3:2 to GND.
Recuerda utilizar resistencias para proteger los LEDs. Las resistencias pueden estar en la placa de experimentación y conectadas en serie con los LEDs para simplificar las conexiones.
Programación:
Una vez conectado, necesitarás cargar un código al Arduino para controlar los LEDs. La idea básica es encender y apagar cada LED en un patrón que simule las luces de un semáforo. Aquí tienes un pseudocódigo que puedes adaptar:

Cpp


void setup() {
  pinMode(D2_INT0, OUTPUT); // LED Rojo
  pinMode(D3_INT1, OUTPUT); // LED Amarillo
  pinMode(D4, OUTPUT);      // LED Verde
}

void loop() {
  digitalWrite(D2_INT0, HIGH); // Enciende el LED rojo
  delay(5000);                 // Espera 5 segundos
  digitalWrite(D2_INT0, LOW);  // Apaga el LED rojo
  
  digitalWrite(D3_INT1, HIGH); // Enciende el LED amarillo
  delay(2000);                 // Espera 2 segundos
  digitalWrite(D3_INT1, LOW);  // Apaga el LED amarillo
  
  digitalWrite(D4, HIGH);      // Enciende el LED verde
  delay(5000);                 // Espera 5 segundos
  digitalWrite(D4, LOW);       // Apaga el LED verde
}
Asegúrate de ajustar los tiempos de espera (delay()) según sea necesario para que coincidan con los tiempos reales que desees para tu semáforo.
Esta es una forma sencilla de crear un semáforo. Puedes expandir el proyecto incluyendo más LEDs para peatones o utilizando entradas como botones para pedir cruzar.
2y
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3
how to add a ir sensor into ardino

madh

madh

@copilot how to add a ir sensor into ardino
2y

copilot

To incorporate an Infrared (IR) sensor into your Arduino Uno shield project, you will first need to add the IR sensor as a component. This can be done by using the Flux library to find a suitable IR sensor part.
Here is a general process to add an IR sensor to an Arduino Uno:
  1. In your Flux project, access the Flux library and search for an IR sensor. Find a suitable one for your application, considering its features and compatibility with your Arduino Uno.
  2. Once you have chosen an IR sensor part, you will need to place it into your schematic. To do so, select the part in the library and then click on the desired location within your schematic.
  3. After placing the IR sensor in the schematic, you will need to design the IR sensor interface. Typically, an IR sensor will interface with the Arduino through a digital or analog pin, which corresponds to a terminal in the schematic. Look up the specific requirements of your chosen IR sensor.
  4. To physically connect the IR sensor's output pin (often labeled as OUT) to the Arduino, you can wire it to a specific Arduino digital input terminal in your schematic. For example, you might wire it to the D2_INT0 terminal. You could specify this connection as follows:
Wire D2_INT0 (pin) of Arduino_Uno_Shield (designator XA1) to OUT (pin) of IR_Sensor (designator: XX)
  1. Be sure to also connect the power (VCC/5V and GND) pins of the IR sensor to the respective terminals on the Arduino (like SPI_5V for power and GND for ground, based on your project description).
  2. Once you have connected the sensor in the schematic, you will also need to update the PCB layout to reflect these changes.
Please note that the specific process might vary depending upon the capabilities of your chosen IR sensor, so always consult the datasheet of the IR sensor while proceeding with the connection. Remember to check the voltage levels and the pin configuration for the IR sensor as well.
Source(s):
https://docs.flux.ai/introduction https://docs.flux.ai/Introduction/flux-walkthrough-project
2y
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2
XA1

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Arduino_Uno_Shield_Old_NO_Footprint

Arduino Uno Shield Template

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Arduino_Uno_Shield

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