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Diseñar un circuito secuencial que encienda 4 leds en secuencia 1 Entrada para ...

cachas

@copilot Diseñar un circuito secuencial que encienda 4 leds en secuencia 1 Entrada para invertir ha secuencia

copilot

Claro, puedo ayudarte con eso. Diseñemos un circuito sencillo utilizando flip-flops y un inversor para realizar la tarea de secuenciar los LEDs y poder invertir la secuencia con una entrada.

Componentes necesarios:

4 LEDs
4 Resistores para los LEDs (por ejemplo, 220Ω)
4 Flip-Flops tipo D
Un inversor (por ejemplo, puerta NOT)
Un clock (generador de pulsos)
Un switch o botón para invertir la secuencia

Diagrama del circuito:

Conectar el clock al pin de clock (CLK) de todos los flip-flops.
Conectar la salida Q del primer flip-flop al D del siguiente flip-flop.
Conectar las Q’ (Q barra) a los LEDs a través de resistores.
Conectar la entrada de inversión al inversor.
Conectar las salidas del inversor a las entradas D de los flip-flops adecuadamente para invertir la secuencia.

Conexiones específicas: Flip-Flops:

D1: entrada primera salida
Q1: salida para LED1
Q1': entrada para D2 (sin invertir)
D2: entrada conectada a Q1'
Q2: salida para LED2
Q2': entrada para D3 (sin invertir)
D3: entrada conectada a Q2'
Q3: salida para LED3
Q3': entrada para D4 (sin invertir)
D4: entrada conectada a Q3'
Q4: salida para LED4

Clock:

Conectar el Clock a todos los CLK de los flip-flops.

Inversor:

Conectar el switch de inversión a la entrada del inversor.
Conectar la salida del inversor a los pines D de los flip-flops en lugar de conectar directamente Q’ de un flip-flop al siguiente flip-flop para invertir la secuencia.

LEDs:

Conectar un extremo de los LEDs a Q de cada flip-flop respectivamente a través de resistencias.
Conectar el otro extremo de los LEDs a GND.

Esquema de Conexiones:

Invertido OFF
- Conectar Q1' a D2, Q2' a D3, Q3' a D4.
Invertido ON
- Conectar la salida del inversor a las entradas D de los flip-flops.

En Flux, definiríamos los componentes y las conexiones de la siguiente manera:

Flip-Flops
- Conectar CLK: Clock a FF1:CLK, FF2:CLK, FF3:CLK, y FF4:CLK.
- Conectar Q1’ $\bar{Q}_1$ a LED1.
- Conectar Q2’ $\bar{Q}_2$ a LED2.
- Conectar Q3’ $\bar{Q}_3$ a LED3.
- Conectar Q4’ $\bar{Q}_4$ a LED4.
- Conectar Q1’ $\bar{Q}_1$ (sin invertir) a D2.
- Conectar Q2’ $\bar{Q}_2$ (sin invertir) a D3.
- Conectar Q3’ $\bar{Q}_3$ (sin invertir) a D4.
Inversor
- Conectar Switch de inversión a la entrada del inversor.
- Conectar la salida del inversor a los pines D de los flip-flops.

Proyecto en Flux

Estos son los designadores y conexiones básicas que tendrás que implementar. Asegúrate de ajustar los valores de componentes según tus necesidades específicas y verificar la secuencia con la simulación que te ofrece Flux.

Si necesitas un diagrama específico o una simulación, avísame y puedo proporcionarte más detalles o hacer una simulación básica aquí.

copilot

¡Claro! Vamos a diseñar un circuito secuencial para encender cuatro LEDs en secuencia, con la opción de invertir la secuencia usando una entrada de control.

Componentes Necesarios

4 LEDs
4 Resistores (220Ω - 470Ω)
4 Flip-Flops tipo D (74HC74)
1 Inversor (NOT Gate) (74HC04)
1 Generador de pulsos (Clock)
1 Interruptor (Switch) para la entrada de inversión

Conexiones

Vamos a conectar los componentes en la siguiente secuencia lógica.

Conexiones de Clock

Conecta el clock a los pines CLK de todos los flip-flops:

Conecta $\text{Clock:output}$ a $\text{FF1:CLK}$ , $\text{FF2:CLK}$ , $\text{FF3:CLK}$ , y $\text{FF4:CLK}$ .

Conexiones de LEDs y Resistencias

Conecta las Q de los flip-flops a los LEDs mediante resistencias:

Conecta $\text{FF1:Q}$ a $\text{R1:1}$ .
Conecta $\text{R1:2}$ a $\text{LED1:Anodo}$ .
Conecta $\text{LED1:Cátodo}$ a GND.

Repite lo mismo para los demás LEDs:

Conecta $\text{FF2:Q}$ a $\text{R2:1}$ .
Conecta $\text{R2:2}$ a $\text{LED2:Anodo}$ .
Conecta $\text{LED2:Cátodo}$ a GND.
Conecta $\text{FF3:Q}$ a $\text{R3:1}$ .
Conecta $\text{R3:2}$ a $\text{LED3:Anodo}$ .
Conecta $\text{LED3:Cátodo}$ a GND.
Conecta $\text{FF4:Q}$ a $\text{R4:1}$ .
Conecta $\text{R4:2}$ a $\text{LED4:Anodo}$ .
Conecta $\text{LED4:Cátodo}$ a GND.

Conexiones de Flip-Flops para secuencia normal

Conecta $\text{FF1:Q’}$ a $\text{FF2:D}$ .
Conecta $\text{FF2:Q’}$ a $\text{FF3:D}$ .
Conecta $\text{FF3:Q’}$ a $\text{FF4:D}$ .

Conexiones del Inversor para secuencia invertida

Conecta la salida del Interruptor (Switch) a la entrada del Inversor (74HC04).
Conecta la salida del inversor a las entradas D de los flip-flops para invertir la secuencia.
Conecta $\text{74HC04:Salida1}$ a $\text{FF2:D}$ .
Conecta $\text{74HC04:Salida2}$ a $\text{FF3:D}$ .
Conecta $\text{74HC04:Salida3}$ a $\text{FF4:D}$ .

Alimentación de flip-flops y componentes

Conecta Vcc y GND a los flip-flops y otros componentes:

Conecta $\text{74HC74:Vcc}$ a Vcc.
Conecta $\text{74HC74:GND}$ a GND.

Simulación en Flux

Para crear y verificar el diseño en Flux:

Abre Flux y empieza un nuevo proyecto.
Agrega los componentes necesarios desde la biblioteca.
Realiza las conexiones según el esquema descrito anteriormente.
Configura los valores de resistencias y otros ajustes según sea necesario.
Ejecuta la simulación para verificar el diseño.

Si tienes más preguntas o necesitas más detalles sobre cómo construir este proyecto en una plataforma de simulación como Flux, ¡avísame!

cachas

Me puedes armar todo con todo y conexiónes

explain this project.

cachas

Necesitó que me diseñes un circuito secuencial que encienda 4 leds en secuencia 1 Entrada para invertir la secuencia

cachas

@copilot explain this project.

copilot

Sure! Let me break down the elements of this project for you.

Overview

This project appears to be an initial setup for a simulator template for an LED part. It includes some basic parameters and components.

Project Properties

Designator Prefix,LED: 0
- This likely means that the prefix for LED components in this project will be "LED." The "0" might indicate the numbering start.
Forward Voltage,1.70: 1
- This indicates that the LED's forward voltage is $1.70,\text{V}$.
Manufacturer Name,: 2
- This section appears to be incomplete or a placeholder for the manufacturer's name.

Project Components

There are two components mentioned in the project:

Designator: A
- Pins: 1 - The component has one pin.
- Element Properties:
  - Pin Type: Unspecified
  - **Symbol Pin Position: $\text{[object Object]}$ - This looks like a placeholder or an error.
  - Pin Number: 2 - The actual pin number.
  - Designator Prefix: P - The prefix for this component's designator appears to be "P."
- Terminal Order: - Unspecified.
Designator: K
- Pins: 1 - The component has one pin.
- Element Properties:
  - Pin Type: Unspecified
  - **Symbol Pin Position: $\text{[object Object]}$ - This looks like a placeholder or an error.
  - Pin Number: 1 - The actual pin number.
  - Designator Prefix: P - The prefix for this component's designator appears to be "P."
- Terminal Order: - Unspecified.

Summary

Components A and K:
- These are likely placeholders for the anode (A) and cathode (K) terminals of the LED.
- The specific properties for pins and positions are not defined yet.
Electrical Connections: No connections have been made yet.

Next Steps

To complete this project:

Define and connect the anode and cathode of the LED.
Ensure the correct forward voltage is applied.
Complete or correct placeholders like $\text{[object Object]}$ .

Feel free to ask for help with any specific aspect, such as making electrical connections or defining properties!

//This example code shows how to use Flux's API (https://docs.flux.ai/reference/api-overview) to add an LED simulator model to a part.
//It also changes the symbol to signal schematic users when the LED is turned on and when it's turned off based on simulator data.
//You can find this part in use in the Astable multivibrator example in your profile.
//Assigning the object ID of the terminals in the schematic editor to two variables
const anodeTerminalId = "63b04c1b-436c-3804-2af5-f29f2e88399c"; // Anode terminal ID
const cathodeTerminalId = "e5f77de8-474b-cc14-8e87-78778e0da1c6"; // Cathode terminal ID
//Get terminal objects by ID. 
const anodeTerminal = flux.getNodeById(anodeTerminalId, "elementTerminal");
const cathodeTerminal = flux.getNodeById(cathodeTerminalId, "elementTerminal");
//Create the output nodes that will be visible to users in the simulator tab on the schematic
const outputVoltage = flux.createOutputNode("vout");
const inputVoltage = flux.createOutputNode("vin");
const current = flux.createOutputNode("I");
const voltageDrop = flux.createOutputNode("vdrop");
//Setting up basic parameters of an LED. You can modify these parameters and see how the simulation changes when you put it in a project
const seriesResistance = 0.42;
const emissionCoefficient = 3.73;
const saturationCurrent = 93.2e-12;

Line: 27:23: 'event' is declared but its value is never read.Line: 34:24: 'event' is declared but its value is never read.Line: 40:23: 'event' is declared but its value is never read.

Reviews

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Project Name

[Example] LED Simulator Template 1d9e 63e7

Description

Simulator template for an LED part. Check out the Code editor for instructions!

Properties

Forward Voltage

1.70

Part Type

LED

Manufac…er Name

Manufac… Number

CTL1206FYW1T

Datasheet URL

page.venkel.com/hubfs/Resources/Datasheets/LEDs/CTL1206FYW1T.pdf

Designator Prefix

LED

Pricing & Availability

DPN	Stock	Qty 1
1	21K	$0.03655
1	0	$0.113

Controls

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