Power net portal is a special schematic object used to define a power or ground net. Power ports allow you to conveniently indicate a power net at any location in the design. Power nets of the same designator automatically connect throughout your design #portal #power
A generic fixed inductor for rapid developing circuit topology. *You can now change the footprint and 3D model at the top level anytime you want. This is the power of #generics
This project is an AI camera board designed for use with First Person View (FPV) drones. It's based on the ESP32-S3-MINI-1U-N8 module, which is responsible for processing data using AI and sending commands to a controller via a UART interface.
Key Features:
ESP32-S3 Microcontroller: The ESP32-S3 is a powerful microcontroller with enhanced AI capabilities. It is used here to process data and communicate over UART.
FPV Compatibility: The system is designed to be used in FPV drones, likely providing live video feeds and possibly overlaying AI-processed data.
Power Management: There are multiple voltage regulators included to convert input power to the necessary voltage levels used by different components in the system. For example:
AP2112K−3.3TRG1 provides a 3.3V output.
XC6206P122MR−G and XC6206P282PR−G are voltage regulators that output 1.2V and 2.8V respectively.
Connection Interfaces:
UART: This interface is used for communication with the drone's controller. The specific UART connections are seen in the nets for TXD0 and RXD0.
Camera Interface: The project includes connections for various camera signals (CSI interface), which handle data such as pixel clock, sync signals, and data lines.
LED Indicators: There is an RGB LED (19-237/R6GHBHC-A04/2T) that can be used for status indication, connected to the GPIO pins of the ESP32-S3.
Key Components:
Connectors:
J3 (0532610471) and J1 (505110-2491) are likely used for interfacing with other parts of the drone or additional sensors/modules.
MOSFET:
DMP3098L−7 is a MOSFET that may be used for switching or control within the power management setup.
Project Goals:
Real-time Processing: Utilizing the ESP32-S3's AI capabilities for real-time image processing and decision-making.
Efficient Communication: Using UART for reliable, high-speed data transfer with the drone's main controller.
Integrated Power Management: Ensuring all components receive the correct power levels for operation.
This configuration makes it suitable for advanced applications in drones, such as automated flight adjustments based on visual inputs or enhanced FPV capabilities through AI processing. If you have any specific questions about connections or requirements, feel free to ask!
3mo
Can you check the esp and cam connections for errors?
Sure! Let's go through the pins related to ESP and camera (CSI) connections based on the information you provided in your project.
Here is a list of their connections:
ESP32 (U1) to Camera signal connections:
CSI_MCLK (Master Clock) to U1:IO33 and to Connector J1:12
CSI_PCLK (Pixel Clock) to U1:IO26 and to Connector J1:8
CSI_D7 (Data line 7) to U1:IO35 and to Connector J1:13
CSI_D4 (Data line 4) to U1:IO17 and to Connector J1:7
CSI_D3 (Data line 3) to U1:IO21 and to Connector J1:5
CSI_D2 (Data line 2) to U1:IO19 and to Connector J1:3
CSI_D1 (Data line 1) to U1:IO18 and to Connector J1:4
CSI_D0 (Data line 0) to U1:IO5 and to Connector J1:6
CSI_VSYNC (Vertical Sync) to U1:IO36 and to Connector J1:16
CSI_HSYNC (Horizontal Sync) to U1:IO34 and to Connector J1:18
TWI_SDA (I2C Data line) to U1:IO39 and to Connector J1:22
TWI_SCK (I2C Clock line) to U1:IO38 and to Connector J1:20
CAM_RST (Camera Reset) connected to U1:IO37 and to Connector J1:19
Based on these connections, all the necessary CSI connections between the camera, the ESP32 and the connector J1 seem correct. But, please remember these assumptions:
CSI data lines are considered as, CSI_D7 being the MSB (Most Significant Bit) and CSI_D0 being the LSB (Least Significant Bit).
The ESP32's I/O pins have the required driving capability for camera signals.
The power supply for the camera is correctly connected and regulated to required voltage levels.
The reset sequence of the camera is controlled properly.
Please confirm that these connections and assumptions satisfy your camera module and ESP32's requirements.