jharwinbarrozo / GY-GPS6MV2 module

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GY-NEO6MV2 GPS Module Design

flux

0:54

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Analyzing the schematic.

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Summarizing project plan.

You want a reusable symbol and schematic for your GY-NEO6MV2 GPS module part.
  • I’ve prepared a plan to:
    1. Confirm the exposed interface
    2. Create the symbol representation
    3. Connect the schematic terminals logically
    4. Add reuse/documentation details
    5. Validate the part setup
Click Start on the plan bar to begin. Let me know if you want any requirements changed first.
Plan
#Goal
  • Update the reusable part project for the GY-NEO6MV2 GPS module to create a simplified symbol and schematic that expose only four terminals: VCC, GND, TX, and RX.
#Implementation plan
  1. Review the current schematic and symbol for the GY-NEO6MV2 GPS module:
    1. Identify all terminals and internal connections in the existing design.
  2. Remove or hide any terminals other than VCC, GND, TX, and RX:
    1. Delete or abstract extra pins that are not part of the required interface.
    2. Adjust the symbol to expose only the four desired terminals.
  3. Update naming and documentation:
    1. Clearly label the part as a 4-terminal GPS module abstraction.
    2. Update any metadata or project documentation to reflect the change.
  4. Validate and finalize the part definition:
    1. Confirm that the symbol and schematic now only present VCC, GND, TX, and RX.
    2. Perform checks within the Flux EDA environment to ensure the changes are correct and functional.
#Success criteria
  • The updated part symbol and schematic expose only the terminals: VCC, GND, TX, and RX.
  • Documentation and part metadata are consistent with the new 4-terminal interface abstraction.
47 days
thinker2507

thinker2507

Use only VCC, GND, TX, and RX for this symbol.
47 days

flux

0:41

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Creating a high-level plan.

Focusing on requirements capture.

Working on your request.

Creating a high-level plan.

Your goal is to simplify the GY-NEO6MV2 part to a 4-terminal symbol and schematic.
  • Plan is ready:
    1. Review the current part
    2. Keep only VCC, GND, TX, RX
    3. Remove or hide everything else
    4. Update labels/documentation
    5. Validate the part definition
Click Start on the plan bar to apply it. Let me know if you want anything changed first.
Plan
#Goal
  • Update the reusable part project for the GY-NEO6MV2 GPS module to create a simplified symbol and schematic that expose only four terminals: VCC, GND, TX, and RX.
#Implementation plan
  1. Review the current schematic and symbol for the GY-NEO6MV2 GPS module:
    1. Identify all terminals and internal connections in the existing design.
  2. Remove or hide any terminals other than VCC, GND, TX, and RX:
    1. Delete or abstract extra pins that are not part of the required interface.
    2. Adjust the symbol to expose only the four desired terminals.
  3. Update naming and documentation:
    1. Clearly label the part as a 4-terminal GPS module abstraction.
    2. Update any metadata or project documentation to reflect the change.
  4. Validate and finalize the part definition:
    1. Confirm that the symbol and schematic now only present VCC, GND, TX, and RX.
    2. Perform checks within the Flux EDA environment to ensure the changes are correct and functional.
#Success criteria
  • The updated part symbol and schematic expose only the terminals: VCC, GND, TX, and RX.
  • Documentation and part metadata are consistent with the new 4-terminal interface abstraction.
Check current terminals
Add 4-pin note
Run review next
47 days
​
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necesito hacer un gps que tenga necesite conexion a internet y que me de una ubi...
andyacero

andyacero

@copilot necesito hacer un gps que tenga necesite conexion a internet y que me de una ubicacion exacta
2y

copilot

Para implementar un GPS con conexión a Internet que proporcione una ubicación exacta, debes considerar agregar un módulo GSM/GPRS a tu proyecto junto con el módulo GPS GY-NEO6MV2 que ya tienes. El módulo GSM/GPRS te permitirá conectarte a Internet y enviar los datos de ubicación obtenidos por el GPS a un servidor o una aplicación móvil.
Aquí tienes una propuesta general de cómo podrías conectar el módulo GPS GY-NEO6MV2 y un módulo GSM/GPRS genérico a un microcontrolador (por ejemplo, Arduino) en tu proyecto. Para este ejemplo, asumiré que estás utilizando un Arduino Uno, pero debes adaptar las conexiones a tu microcontrolador específico si es diferente.
  1. Conexión del Módulo GPS GY-NEO6MV2:
    • VCC: Conectar U:VCCU:VCCU:VCC a +3.3V en el Arduino.
    • GND: Conectar U:GNDU:GNDU:GND a GND en el Arduino.
    • TX: Conectar U:TXU:TXU:TX a RX en el Arduino.
    • RX: Conectar U:RXU:RXU:RX a TX en el Arduino.
    Nota: Puede ser necesario utilizar un divisor de voltaje o un módulo conversor de niveles lógicos entre los pines TX/RX del GPS y el Arduino si tu microcontrolador solo maneja 5V y el GPS 3.3V para evitar dañar el módulo GPS.
  2. Conexión de un Módulo GSM/GPRS (Ejemplo con SIM800L):
    • VCC: Conectar a 4V (utiliza un regulador de voltaje si es necesario).
    • GND: Conectar a GND en el Arduino.
    • TX: Conectar a RX (Digital Pin) en el Arduino.
    • RX: Conectar a TX (Digital Pin) en el Arduino.
    Nota: Asegúrate de que el módulo SIM800L esté alimentado adecuadamente, ya que puede requerir hasta 2A durante las transmisiones. Un regulador de voltaje adecuado y una fuente de alimentación suficientemente robusta son cruciales.
  3. Software:
    • Utiliza la biblioteca TinyGPS++ para Arduino para procesar los datos recibidos del GPS.
    • Usa la biblioteca correspondiente a tu módulo GSM/GPRS (por ejemplo, SIM800L.h para el SIM800L) para establecer una conexión a Internet y enviar datos.
    • Codifica el Arduino para leer los datos de ubicación del GPS, enviar estos datos a través del módulo GSM/GPRS a un servidor o servicio en línea.
  4. Envío de Datos:
    • Define un protocolo o formato para los datos de ubicación (por ejemplo, JSON).
    • Configura un servidor o servicio en línea para recibir y procesar/almacenar estos datos.
    • Considera utilizar servicios de IoT como ThingSpeak, Google Firebase, o MQTT para facilitar el envío y manejo de datos.
Recuerda revisar las hojas de datos de cada módulo para detalles específicos de conexión y operación. Además, ten en cuenta las regulaciones locales respecto al uso de módulos GSM/GPRS, ya que en algunos lugares podrías necesitar registrarlo o cumplir ciertas normativas.
Espero que esta guía te sea de utilidad para iniciar tu proyecto. Si tienes más preguntas específicas o necesitas aclaraciones, no dudes en preguntar.
2y
Someone is typing...
​
3
Love this symbol! Well done @jharwinbarrozo
natarius

natarius

Love this symbol! Well done @jharwinbarrozo

1

5y
Someone is typing...
​
1
VCC
TX
GND
RX

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GY-GPS6MV2 module

GY-NEO6MV2 board features the u-blox NEO-6M GPS module with antenna and built-in EEPROM. This is compatible with various flight controller boards designed to work with a GPS module.

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Integrated Circuit

GY-NEO6MV2

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