1. Compliance with MIL-STD: Military standards (MIL-STD) are specifications that ensure a product meets specific performance and reliability requirements under extreme conditions.
2. Radiation Hardening: Components used in the project must be capable of withstanding radiation exposure to ensure reliable operation in space. This usually involves using special materials and design practices.
3. Extreme Environmental Constraints: The project includes components that must function properly within a wide temperature range and different voltage levels, often seen in aerospace applications.

• Domain Application (Aerospace): The project is tailored specifically for aerospace applications which involve specific requirements for reliability and performance.
• Compliance (NASA Standards, Radiation Hardness Assurance (RHA)): The design must follow NASA's standards for radiation hardness, which ensures it can survive and function in the radiation environment found in space.
• Total Ionizing Dose Ratings (20 to 100 kRad): This indicates that components must be able to tolerate a total ionizing dose of radiation ranging from 20 to 100 kilorads.
• Operating Temperature (-55°C to 125°C): Components must function reliably within this temperature range.
• Operating Voltage (1V to 57V): The power supply voltage for the components can range from 1V to 57V, accommodating various aerospace power needs.

1. Add Components: Begin by selecting components that meet the aerospace requirements. For example, choose radiation-hardened microcontrollers, voltage regulators, temperature sensors, etc.
2. Make Connections: Connect the components according to your system requirements. For instance, if designing a satellite payload, connect the sensors, communication modules, etc.
3. Simulation and Verification: Use the simulation tools in Flux to verify your design's performance under the specified environmental constraints.
4. Compliance Check: Ensure your design follows MIL-STD, NASA standards, and meets the radiation hardness and temperature requirements.

1. Selection of Radiation-Hardened Components: Given the total ionizing dose ratings of $20$ to $100$ kRad, all components must be chosen with radiation tolerance in mind. This applies to microcontrollers, memory, power supply components, and even passive components.
2. Robust Power Management: Operating at voltages between $1$V and $57$V demands a versatile power supply design. Consider using low dropout regulators (LDOs) for low-voltage applications and switching regulators for efficiency at higher voltages. Ensure they can operate within the specified temperature range ($-55$ ºC to $125$ºC).
3. Thermal Management: The extreme temperature range necessitates careful thermal design. Components should be selected not only for their operating temperature range but also for their thermal resistance. Heat dissipation strategies, possibly including heat sinks or thermal vias, might be necessary.
4. Compliance and Standardization: Adherence to NASA Standards and MIL-STD for aerospace applications implies a deep focus on reliability, documentation, and rigorous testing. Components and designs should be chosen and verified accordingly.
5. High-Reliability PCB Design Practices: Utilize design principles such as wide trace widths for power traces, redundant vias, and protection circuits like transient voltage suppressors (TVS) for sensitive inputs to enhance durability and resilience.

• Microcontroller/Processor: Choose one that is radiation-hardened and can operate across the intended temperature ranges.
• Memory: Opt for radiation-hardened varieties, with EEPROM or FLASH being common choices for non-volatile memory in space applications.
• Power Supply Components: Identify regulators, capacitors, and inductors that can function at the expected voltages and temperatures.
• Sensors and Actuators: Ensure they are suitable for aerospace use, potentially requiring custom or specialty parts.

1. Block Diagram Creation: Start by creating a high-level block diagram of your system within the Flux project template. This helps in organizing and planning the power distribution, communication buses, and major functional blocks.
2. Component Selection: Begin selecting components based on the initial considerations above, paying close attention to datasheets for compliance with your project's requirements.
3. Schematic Design: Once the components are selected, you can start drafting the schematic in Flux. At this stage, specific connections between components will be defined.

• Fuente de alimentación: Supongamos que utilizarás una fuente de 5V a 12V.
• Tipo de señal: Audio mono de línea o señal auxiliar.
• Salida: Conexión a un altavoz de 8 ohmios.

1. Amplificador de Audio: LM386 es un amplificador de bajo voltaje y corriente pequeña, ideal para tus necesidades. Tiene un rango de voltaje de funcionamiento de 4V a 12V, lo que se ajusta bien a nuestra fuente de alimentación.
2. Capacitores:
   • Capacitor de entrada (Cin): 0.1uF para eliminar el ruido de la señal de entrada.
   • Capacitor de desacople (Cb): 250uF para estabilizar la salida y filtrar el ruido de baja frecuencia.
   • Capacitor de ganancia (Cg): 10uF para establecer la ganancia del LM386 a un valor predeterminado de 20. Se puede ajustar con diferentes valores si se desea más ganancia.
3. Resistencias:
   • Resistencia de salida (Rout): 10 ohmios para protección del altavoz.
4. Entradas/Salidas:
   • Conector de entrada de señal de audio.
   • Conector para la alimentación.
   • Conector para el altavoz.

• Alimentación
  • Conecta el pin 6 (Vcc) del LM386 a tu fuente de alimentación positiva.
  • Conecta el pin 4 (GND) a la tierra.
• Señal de Audio
  • Conecta el capacitor Cin al pin 3 (entrada) del LM386.
  • La otra terminal del Cin se conectará a tu conector de señal de entrada.
• Salida de Audio
  • Conecta Cb entre el pin 5 (salida) del LM386 y GND.
  • Conecta una resistencia Rout en serie con Cb y el conector del altavoz.
  • Asegúrate de que el otro cable del altavoz esté conectado a GND.
• Ganancia
  • Conecta un extremo de Cg entre los pines 1 y 8 del LM386.
  • El otro extremo de Cg va a GND.

• Diseño
  • Utiliza software como KiCad o el que prefieras para el diseño de tu PCB.
  • Coloca las pistas considerando minimizar cualquier tipo de interferencia en la señal de audio.
  • Asegura una buena conexión a tierra (GND) para evitar bucles de tierra.
• Routing
  • Mantén el recorrido de las conexiones tan corto y directo como sea posible.
  • Utiliza pistas más anchas para la alimentación y la salida de altavoz para manejar mayores corrientes.
• Fabricación
  • Una vez diseñado tu PCB, puedes enviarlo a una empresa de fabricación de PCB o intentar métodos de fabricación casera si está dentro de tus capacidades y recursos.

• Micrófono: Para capturar el audio ambiental.
• Amplificador de Audio: Para amplificar la señal capturada por el micrófono.
• Filtro Pasa-bandas o Detector de Envolvente: Para extraer el ritmo o variaciones de amplitud de la señal de audio.
• Microcontrolador o Circuito Integrado Especializado: Para procesar la señal y controlar los LEDs.
• LEDs: Para visualizar el ritmo del audio.
• Resistencias y Capacitores: Para configuraciones de filtros y conexiones adecuadas.

1. Entrada de Audio:
   • Conexión del Micrófono: Conecte el micrófono a la entrada del amplificador de audio. Asumiremos un amplificador genérico.
   • Ejemplo: Conectar MIC:OUT a AMP:IN.
2. Procesamiento de Señal de Audio:
   • El amplificador fortalece la señal del micrófono y la envía al filtro pasa-bandas o al detector de envolvente, que se encargará de extraer el ritmo de la música.
   • Ejemplo: Conectar AMP:OUT a FILTER:IN.
3. Interpretación y Control:
   • La señal procesada se envía a un microcontrolador, que interpreta los cambios y controla los LEDs en consecuencia.
   • Si estás utilizando un circuito integrado especializado en control de LED rítmico, este paso podría simplificarse.
   • Ejemplo: Conectar FILTER:OUT a MCU:ANALOG_IN.
4. Control de LEDs:
   • Basado en la señal recibida por el microcontrolador, se activan los LEDs. Puedes usar transistores o controladores de LED, dependiendo de la cantidad y el tipo de LEDs.
   • Ejemplo de conexión básica: Conectar MCU:GPIO_x a LED:ANODE mediante un transistor si es necesario, con la CATODO del LED a GND.

• Para LEDs rítmicos, considere usar varios canales o filtros pasa-bandas para diferentes rangos de frecuencia, lo que permite controlar diferentes LEDs o grupos de LEDs basados en diferentes componentes de la señal de audio.
• Si el proyecto es para aplicaciones avanzadas o comerciales, debes tener en cuenta la elección de componentes que cumplan con los estándares de calidad y seguridad aplicables.
• El diseño final del PCB dependerá del tamaño de los componentes, el número de LEDs y el espacio disponible para tu proyecto.

1. Esquema Básico del Logo:
   • La letra "I" puede ser una línea vertical simple.
   • La letra "N" puede ser una línea con un ángulo hacia arriba.
   • La letra "I" sigue como una línea vertical.
   • La letra "C" puede ser un arco o un semicírculo.

   I   N N   I
   I  N  N   I
   I N   N   I
   I N   N   I
   I N   N   I

1. Rutas de PCB: Utiliza rutas para crear los caracteres.
2. Componentes decorativos: Integra componentes LED o resistencias decorativas para darle brillo y funcionalidad al logo.
3. Polígonos y rellenos: Usa polígonos para crear formas complejas.

1. Abrir Flux: Inicia sesión en tu cuenta de Flux.
2. Crear nuevo proyecto: Selecciona una nueva plantilla o un proyecto en blanco.
3. Dibujo de caracteres:
   • Usa herramientas de dibujo para crear las rutas que formarán las letras "I", "N", "I", "C".
   • Ajusta los anchos de las rutas para lograr el efecto deseado.

- Trace una línea vertical para "I".
- Trace líneas en ángulo y horizontales conectadas para formar "N".
- Repita la línea vertical para otra "I".
- Dibuje un arco o semicírculo para "C".
- Coloque LEDs justo encima de cada letra para iluminar el logo.

1. Diseña las letras:
   • Dibuja cada letra usando herramientas de trazado en Flux.
2. Añade LEDs:
   • Inserta LEDs encima de las letras como decoración, conectándolos adecuadamente.
3. Ajustes finales:
   • Asegúrate de que las conexiones están correctas y que las rutas no cortocircuiten.
   • Agrega cualquier componente decorativo que desees.

• Conexión básica de LEDs:
  1. Conecta el ánodo de cada LED a la fuente de alimentación.
  2. Conecta el cátodo de cada LED al pin de control del microcontrolador para manejar el encendido.

• Conecta LED1:Anode a +V.
• Conecta LED1:Cathode a MCU:GPIO1.
• Conecta LED2:Anode a +V.
• Conecta LED2:Cathode a MCU:GPIO2.

1. Domain Application: Aerospace
   • This indicates that the project is meant for aerospace applications, implying high reliability and specific operational requirements.
2. Compliance
   • NASA Standards, Radiation Hardness Assurance (RHA): Ensures that the electronic components and systems meet stringent NASA standards for resistance to radiation.
3. Total Ionizing Dose Ratings
   • 20 to 100 kilorad (kRad): The components must be able to withstand an ionizing radiation dose between 20 and 100 kRad without degradation.
4. Operating Temperature
   • -55 ºC to 125ºC: The electronics must operate reliably within this wide temperature range, typical for aerospace environments.
5. Operating Voltage
   • 1V to 57V: The circuit must handle a broad range of operating voltages, providing flexibility in power supply options.

1. Component Selection
   • Choose components rated for aerospace applications and compliant with the specified radiation and temperature requirements (e.g., MIL-STD-883 for microelectronics).
2. Initial Schematic Design
   • Define the core functionality of your system (e.g., signal processing, communication).
   • Establish major blocks like power management, signal conditioning, and data processing.
3. Parasitic Considerations
   • When designing the PCB, pay attention to parasitic elements as they can significantly impact performance, especially in space environments.

• Use Simulation Tools: Prior to physical prototyping, employ simulation tools to validate design under specified conditions.
• Design Reviews: Conduct thorough design reviews for compliance with NASA and MIL-STD requirements.

• Domain Application: Aerospace
• Compliance: NASA Standards, Radiation Hardness Assurance (RHA)
• Total Ionizing Dose Ratings: 20 to 100 kilorad (kRad)
• Operating Temperature: -55 ºC to 125ºC
• Operating Voltage: 1V to 57V

1. Forward Voltage ($V_F$): Typical values are around 2V for red LEDs, and can be higher for LEDs of other colors, up to around 3.3V for blue and white LEDs.
2. Forward Current ($I_F$): This is the desired operating current for the LED. A common value is 20mA (0.02A) for many standard LEDs, but always check the datasheet for your specific LED.

1. Microcontroller: A powerful microcontroller to handle the decoding and processing of the moving map data. An example could be the 'STM32F' series, known for their high performance and extensive I/O capabilities.
2. Graphics Processing Unit (GPU): The GPU processes the map data and outputs it to the display. For radiation hardness and reliability in an aerospace environment, a component like the GR712RC from Cobham Gaisler can be considered.
3. RAM and Flash Memory: Sufficient memory to store map data and provide buffering for the GPU. Rad-hardened components complying with your outlined requirements should be used.
4. Display Module: An avionics-grade LCD or OLED display to present the information.
5. Interfaces: Various interfaces for connectivity and data transmission would be required, including connections (like SPI, I2C, UART) to GPS, other avionic systems, and storage for map data.

1. Connect MCU:SPI to GPU:SPI (To send map data to the GPU for processing)
2. Connect GPU:Video_Output to Display_Module:Video_Input (To display the processed images)
3. Connect MCU:UART/I2C/SPI to Storage:UART/I2C/SPI (To fetch map data)
4. Connect MCU:UART/I2C/SPI to GPS_Module:UART/I2C/SPI (To get real-time position data)

1. Add Components: Start by utilizing the 'Add Component' feature in Flux to add the necessary components to your board. As previously stated, you will need a microcontroller, a GPU, RAM and Flash memory, a display module, and the required interface components.
2. Set Parameters: Next, set the design parameters for each component according to their specifications. This will include things like operating voltage and power, radiation tolerance, operating temperature, etc.
3. Connect Components: Connect the components as outlined in my previous instructions using the 'Wire' tool in Flux. You should label each connection correctly.
4. Validation: Finally, double-check all connections, ensure parameters are correctly set and that everything is set up as it should be. Run a Verification to validate that all components are properly connected and operating within their parameters.

• Go to the Flux dashboard, click on the 'New Project' button and choose 'Blank Project'.
• Name your project, e.g., "Movi Map Display".

• Click on 'Add Component' and then 'Search for More Components'. Add the microcontroller (STM32F series), GPU (GR712RC), RAM and Flash Memory, Display Module, and any needed interfaces (SPI, I2C, UART).

• Click on each component in turn and set its parameters as per your application requirements including their respective operating voltage and temperature ranges, and total Ionizing dose.

• Use the 'Wire' tool and connect the components using the following guide:
  1. Connect MCU:SPI to GPU:SPI.
  2. Connect GPU:Video_Output to Display_Module:Video_Input.
  3. Connect MCU:UART/I2C/SPI to Storage:UART/I2C/SPI.
  4. Connect MCU:UART/I2C/SPI to GPS_Module:UART/I2C/SPI.

• You can now verify the connections by running the 'Design Rule Check' for any errors. Correct if any are found, and rerun the check.

1. Microcontroller (MCU): Start with your microcontroller symbol. No matter your choice of microcontroller, it will have various pins for power, ground, SPI, I2C, UART, and the like. Ensure these are connected as required.
2. GPU: Introduce a symbol for the GPU. It will have specific SPI, video output, power, and ground pins. The SPI input of the GPU should be connected to the SPI output of the MCU, and the video output of the GPU should link to the Video input of the Display module.
3. RAM and Flash Memory: Add symbols for RAM and Flash memory. They will have control (perhaps SPI/I2C/UART), power, and ground pins. Connect their control pins to the appropriate MCU control pins.
4. Display Module: Include a symbol for the Display Module. It will have power, ground, and video input pins. Link the video input to the GPU's video output.
5. GPS Module: Finally, add the GPS Module and connect its control pins (maybe SPI/I2C/UART, depending on the module) to the MCU.
6. Power: Make sure all devices are properly powered by their required supply.

1. Elección de la Celda Solar: Asegúrate de que la celda solar de 6v esté clasificada para un rango de temperatura operativa de -55°C a 125°C y cumpla con los estándares de dureza de radiación especificados (20 a 100 kRad). Para proyectos aeroespaciales, podría ser útil buscar celdas solares específicamente diseñadas para aplicaciones espaciales, ya que estas a menudo ya cumplen con tales criterios.
2. Regulador de Voltaje: Para mantener un voltaje de operación seguro y estable para otros componentes electrónicos, considera la inclusión de un regulador de voltaje que pueda manejar las variaciones en la salida de la celda solar. Esto es especialmente importante en aplicaciones aeroespaciales donde las condiciones de iluminación pueden variar significativamente. Un regulador con un amplio rango de voltaje de entrada (por ejemplo, 1V a 57V) sería adecuado, asegurándote de que también cumpla con las especificaciones de temperatura y radiación.
3. Protección y Aislamiento: Dependiendo de tu diseño específico y los requisitos de la carga útil, podrías necesitar implementar circuitos de protección adicionales alrededor de la celda solar para proteger contra sobrevoltajes, reversión de corriente, etc. Considera también el aislamiento eléctrico y térmico según sea necesario para la seguridad y la eficiencia del sistema.
4. Conexiones Eléctricas y Mecánicas: Dadas las condiciones extremas que se pueden encontrar en aplicaciones aeroespaciales, asegúrate de que todas las conexiones eléctricas y mecánicas sean robustas, seguras y capaces de soportar vibraciones, radiación y cambios extremos de temperatura. Los conectores y cables deben ser de alta calidad y adecuados para uso en el espacio.
5. Monitoreo y Control: Considera integrar un sistema de monitoreo en tu circuito que pueda leer la salida de voltaje y corriente de la celda solar en tiempo real. Esto te permitirá ajustar dinámicamente las cargas o cambiar a fuentes de energía alternativas si la celda solar no puede generar suficiente energía debido a condiciones de sombra o daño.
6. Prueba y Validación: Finalmente, asegúrate de realizar pruebas exhaustivas de tu sistema bajo varias condiciones ambientales para validar el rendimiento de la celda solar y su integración con otros componentes del sistema. Pruebas en cámaras de vacío y exposición a radiación simulada serán cruciales para garantizar la fiabilidad a largo plazo en el espacio.

• Celda Solar (SOL1): Conectar la salida positiva de SOL1 al input del Regulador de Voltaje (VR1:IN), y el terminal negativo a tierra (GND).
• Regulador de Voltaje (VR1): Conectar VR1:OUT a la línea de alimentación del sistema (+V).
• Protección y Monitoreo: Incluir componentes adicionales como diodos de bloqueo o circuitos de monitoreo según sea necesario para proteger y supervisar la celda solar y la carga útil.

1. Integrated Circuits: There are several ICs on the board, one of them being in a through-hole package while others are in surface-mount packages. The ICs are likely responsible for the majority of the processing and control functionality of this circuit.
2. Passive Components: Various resistors and capacitors are distributed throughout the board, likely for filtering, biasing, and decoupling purposes.
3. LED: There's an LED diffused with a white dome-like material, probably to spread out the emitted light.
4. Soldering Quality: There are areas where the soldering quality is not ideal. Some joints appear to have excess solder or could be considered "cold joints," meaning that the solder did not properly reflow, which can lead to unreliable connections.
5. Flux Residue: There seems to be some residue around the components, possibly from the flux used during soldering. Flux residue can sometimes lead to corrosion or conductivity issues if not properly cleaned, especially in an aerospace context where reliability is paramount.
6. Damage or Modification: There appears to be a damaged component or some sort of rework might have been done on the IC in the lower part of the image, evidenced by the excessive and patchy solder application.

1. Radiation Hardness: This converter is specifically designed for space applications which meets your radiation hardness assurance (RHA) requirement. It has a Total Ionizing Dose (TID) of up to 100 kRad, which falls within your required range.
2. Operating temperature: The device operates within a temperature range of -55 to 125 degrees Celsius, which aligns with your project requirements.
3. Operating voltage: The input voltage range of the TPS7H3301-SP is from 3 to 6V and it offers adjustable output voltage down to 0.8V. For your maximum operating voltage requirement of 57V, you would need a front-end DC/DC converter or a linear regulator.

1. Sensores de flujo YF-S201C: Estos son sensores de flujo de agua con un interruptor de tipo "hall effect". Se pueden conectar a cualquier pin digital de tu ESP32. Los pines de alimentación se conectan a VCC(3.3V) y GND. El pin de señal (Signal) va a algún pin GPIO.

• YF-S201C VCC -> ESP32 3.3V
• YF-S201C GND -> ESP32 GND
• YF-S201C Signal -> ESP32 GPIO (por ejemplo, GPIO4 y GPIO5)

2. Sensores DS18B20 (sonda y módulo): Estos son sensores de temperatura de 1-Wire. Necesitarás un pin para el bus de datos 1-Wire.

• DS18B20 VCC -> ESP32 3.3V
• DS18B20 GND -> ESP32 GND
• DS18B20 Data -> ESP32 GPIO (por ejemplo, GPIO2)

3. Sensores de presión de agua Gravity 0 - 1,6MPA: Estos sensores optan por una salida analógica, así que debes conectar los sensores a un pin ADC.

• Sensor VCC -> ESP32 3.3V
• Sensor GND -> ESP32 GND
• Sensor Signal -> ESP32 ADC (por ejemplo, GPIO32 y GPIO33)

4. Sensor de corriente GY-712-20A: Este sensor utiliza una salida analógica, así que debes conectar el sensor a un pin ADC.

• GY-712 VCC -> ESP32 3.3V
• GY-712 GND -> ESP32 GND
• GY-712 Signal -> ESP32 ADC (por ejemplo, GPIO34)

5. Sensor de voltaje fz0430 0-25V: Este sensor también utiliza una salida analógica, así que debes conectar el sensor a un pin ADC.

• fz0430 VCC -> ESP32 3.3V
• fz0430 GND -> ESP32 GND
• fz0430 Signal -> ESP32 ADC (por ejemplo, GPIO35)

• The Raspberry Pi's GPIO pins are used for different functions such as I2C communication (GPIO2 - SDA, GPIO3 - SCL) and GPIO control (GPIO4, GPIO17, GPIO22, GPIO27).
• The ADS1115 ADC is connected to the Raspberry Pi via I2C with VCC (power), GND (ground), SCL (clock), and SDA (data) lines.
• There is also a MOSFET (AQY211EH) being used as a switch, controlled by the Raspberry Pi's GPIO17.
• The audio connector pins are connected to the Raspberry Pi via resistors and capacitors, which are likely used for signal conditioning.
• The "Speaker," "Clone," "Mic/PTT," and "Ground" connections indicate interfacing with the Yaesu radio for audio input/output and push-to-talk functionality.

• Connect Raspberry Pi I2C interface to ADS1115:
  • Connect RPi:GPIO2 (SDA) to ADS1115:SDA
  • Connect RPi:GPIO3 (SCL) to ADS1115:SCL
• Connect power and ground to ADS1115:
  • Connect RPi:3V3 to ADS1115:VCC
  • Connect RPi:GND to ADS1115:GND
• Connect MOSFET to control interface:
  • Connect RPi:GPIO17 to MOSFET:AQY211EH:IN
  • Connect MOSFET:AQY211EH:OUT to the desired load (not clearly specified in this diagram)
• Connect audio interface to Raspberry Pi through resistors and capacitors (values and specific connections depend on the required signal conditioning, which is not fully detailed in the image provided):
  • Connect RPi:GPIO pins to Audio Connector via resistors/capacitors network
• Connect to Yaesu radio interface (note that specific connections to the radio will depend on the model and might need customization):
  • Connect specific GPIO pins to the Speaker, Clone, Mic/PTT and Ground contacts on the Yaesu Connector as necessary

• Create a New Project: Start a new project by clicking on the "New Project" button once you're logged in.
• Explore the Canvas: You will be directed to the schematic editor canvas. This is where you'll draw your circuit designs.

• Library: Use the library to find components. You can drag and drop components onto the canvas.

• Wire Tool: Use the wire tool to connect the pins of different components. Click on a pin, drag to another pin, and release to create a connection.

• Simulator: To test your circuit, use the simulator in Flux. This allows you to see how your circuit will behave in real-world conditions. For an in-depth tutorial on how the simulation models work, check out the detailed guide on how the simulator runs$\{1bda9486-9299-52b4-9e6a-4df9dce3916a\}$.

• PCB Layout: Once your schematic is complete, you can move to the PCB layout mode. This involves positioning components on a board and routing the traces between them$\{a12ed4f0-17d8-55ae-ac16-8e03539e2aec\}$.

• Community Support: If you run into any issues, the best place for support is the Flux Slack community. Here, you can ask questions directly to the Flux team and meet other engineers and designers$\{40270386-861f-5b38-9455-5f85836dd6cc\}$.
• Video Tutorials: There are plenty of video tutorials available on Flux's YouTube channel that cover the basics as well as advanced features$\{620ba604-7693-5c8b-9a4b-164874ae35b0\}$.

• Take Action Button: When using Flux Copilot, you can automatically apply suggested connections by clicking on the "Take Action" button$\{746c6d9d-6364-59be-9640-b7e2ae4574b1\}$.

1. $1$ STM32F405RG microcontroller
   • UART connections
   • SPI connections
   • I2C connections
   • GPIOs
2. $2$ FPGA
   • JTAG connections
   • External clock connections
3. $3$ IMU Sensor
   • I2C connections
4. $4$ Power Management ICs
5. $5$ USB-Port
6. $6$ Ethernet PHY
7. $7$ SDRAM
8. $8$ ADC
9. $9$ Environmental Sensors (Temp, Pressure, etc.)
10. $10$ Connectors and JTAG ports

1. STM32F405RG:
   • UART:
     • $\text{UART1}$ - Pins: TX, RX
     • $\text{UART2}$ - Pins: TX, RX
     • $\text{UART3}$ - Pins: TX, RX
   • SPI:
     • $\text{SPI1}$ - Pins: SCK, MISO, MOSI, NSS
   • I2C:
     • $\text{I2C1}$ - Pins: SCL, SDA
   • GPIOs - Configurable based on the design
2. FPGA:
   • JTAG:
     • TDI, TDO, TCK, TMS
   • Clocks and other signals:
3. IMU Sensor (Connected via I2C):
   • Connect IMU:SDA to STM32F405RG:I2C1_SDA
   • Connect IMU:SCL to STM32F405RG:I2C1_SCL
4. Power Management:
   • Connect correspondingly (+3.3V, +1.8V) to the power rails of MCU, FPGA, and other sensors.
5. USB Port:
   • Connect USB:DP and USB:DM to the corresponding pins of STM32F405RG
6. Ethernet PHY:
   • Connect ETH_PHY:TX+, ETH_PHY:TX-, ETH_PHY:RX+, ETH_PHY:RX- to respective pins on the microcontroller or FPGA
7. SDRAM:
   • Connect SDRAM:A[xx] and D[xx] to corresponding microcontroller/FPGA pins.
8. ADC:
   • Connect ADC:IN[xx] to various sensors or input signals
9. Environmental Sensors:
   • Connect Sensors to required ADC inputs or GPIOs as per the design
10. Connectors and JTAG Ports:
    • Design as per standard JTAG and connector pinout.

• STM32F405RG Connections
  • Connect STM32F405RG:VDD to the 3.3V rail.
  • Connect STM32F405RG:GND to the ground rail.
  • Connect STM32F405RG:USART1_TX to UART1_TX.
  • Connect STM32F405RG:USART1_RX to UART1_RX.
  • And so on for SPI, I2C, and GPIO connections.
• FPGA Connections
  • Connect FPGA:TDI to the JTAG TDI line.
  • Connect FPGA:TDO to the JTAG TDO line.
  • And so on for JTAG, clock lines, etc.