copilot

graph TD;
    J1[USB Type-C ConnectorMPN: TYPE-C node_16PLC-H10.0]

    J1 --> GND1(GroundPin 1, Pin 8, Pin 9, Pin 16)
    J1 --> VBUS(VBUSPin 2, Pin 7, Pin 10, Pin 15)
    J1 --> CC1(CC1Pin 3)
    J1 --> Dplus(D+Pin 4, Pin 12)
    J1 --> Dminus(D-Pin 5, Pin 13)
    J1 --> SBU1(SBU1Pin 6)
    J1 --> SBU2(SBU2Pin 14)
    J1 --> CC2(CC2Pin 11)

    classDef green fill:#aaf,stroke:#333,stroke-width:1px;
    class J1,VBUS,CC1,Dplus,Dminus,SBU1,SBU2,CC2,GND1 green;

copilot

• Microcontroller Core: The ESP32-S3 has dual-core processors, making it suitable for complex tasks.
• Wireless Connectivity: It supports Wi-Fi and Bluetooth, which are essential for IoT projects that require wireless communication.
• I/O Pins: The module provides multiple GPIO pins ($U2:IO0$ to $U2:IO48$) that can be used to interface with other components such as sensors, relays, and actuators in your plant care system.
• Power Supply: It operates at 3.3V ($U2:3V3$), which is essential for low-power applications.
• Enable Pin: The $U2:EN$ pin is used to enable or disable the module.
• Serial Communication: It includes pins for UART communication ($U2:RXD0$, $U2:TXD0$), useful for programming and data exchange.

copilot

graph TD;
    J1["USB Type-C Connector (J1) - TYPE-C node_16PLC-H10.0"]

    J1 --> GND1["GND (Pin 1, 8, 9, 16)"]
    J1 --> VBUS["VBUS (Pin 2, 7, 10, 15)"]
    J1 --> CC1["CC1 (Pin 3)"]
    J1 --> D+["D+ (Pin 4, 12)"]
    J1 --> D-["D- (Pin 5, 13)"]
    J1 --> SBU1["SBU1 (Pin 6)"]
    J1 --> CC2["CC2 (Pin 11)"]
    J1 --> SBU2["SBU2 (Pin 14)"]
    J1 --> A2["A2 (Pin 17)"]
    J1 --> A10["A10 (Pin 18)"]
    J1 --> B2["B2 (Pin 19)"]
    J1 --> B10["B10 (Pin 20)"]

    subgraph Type_C_Connector
        direction TB;
        TYPE["Type-C Connector - SHOU HAN"]
    end

copilot