Schematic Symbol for ESP32-CAM: ESP32-CAM with OV2640 and...

Project Breakdown and Design

Applied changes.

0:02

45 days

Connected sensor GND to ground

15:37

Autopilot

Started: Connect RCWL-0516 GND pin to the GND terminal

45 days

Updated 1 net

0:03

Connected U2:GND to GND:GND

45 days

Modified project description documenting sensor integration.

15:32

Autopilot

Started: Modify the project description to document the RCWL-0516 integration, including OUT → GPIO13, VCC → 5V, GND → ground, and add hashtags #RCWL-0516 #MotionSensor

45 days

Updated project description

0:02

Updated to: "ESP32-CAM with OV2640 and Integrated RCWL-0516 Motion Sensor Evaluation Board"

45 days

Worked

0:06

Autopilot

45 days

flux

0:00

Autopilot

I’ve completed all steps for integrating the RCWL-0516 sensor:

Work done

Added RCWL-0516 with its footprint
Connected OUT to IO13 (net MOTION_OUT)
Connected VCC to 5V
Connected GND to GND
Updated project description (#RCWL-0516 #MotionSensor)

Success criteria review

✅ Sensor symbol & footprint present
✅ OUT → GPIO13
✅ GND → ground, VCC → 5V
✅ Documentation updated

Next step Review the schematic for completeness against your functional goals, then prepare for PCB layout (footprint review, stack-up configuration, and mounting solution).

45 days

Plan completed.

Show Plan

how to connect pir sensor with Ai-Thinker

erina224678

explicacion sobre esp32 cam

erina224678

hola

pmachigar

@copilot how to connect pir sensor with Ai-Thinker

copilot

To connect a PIR Motion Sensor to the Ai-Thinker ESP32-CAM, the connection could be established as follows:

VCC: Connect the VCC pin of the PIR sensor to the 3V3 or 5V pin on the Ai-Thinker ESP32-CAM based on the voltage requirement of PIR sensor.
- If PIR sensor requires 3.3V: Connect PIR VCC to 3V3 (P$16) or 3V3. (P$12) on the ESP32-CAM.
- If PIR sensor requires 5V: Connect PIR VCC to 5V (P$1) on the ESP32-CAM.
GND: Connect the GND pin of the PIR sensor to any of the GND pins on the ESP32-CAM, i.e., GND (P$2), GND. (P$13), or .GND (P$9).
OUT: Connect the output pin of the PIR sensor (usually denoted as OUT) to any of the available GPIOs based on your program logic. For example, you could connect it to IO4 (P$8).

Your code will need to be designed to initiate the chosen GPIO as an input and read its state. An interrupt can be configured on this pin to detect the change of state, which occurs when motion is detected by the PIR sensor.

Please note that all these connections should be made according to the data flow and terminal type. You can arrange this on Flux based on the selected pins.

Also, ensure to validate the voltage levels of PIR with ESP32 CAM, higher voltage levels could potentially damage the ESP32. Please refer to the datasheets of the ESP32-CAM board and the PIR Sensor to verify voltage levels and other details.

joelalbon

I need a PID sensor

copilot

I believe there may be a misunderstanding. PID stands for Proportional-Integral-Derivative. These are usually terms associated with a type of control algorithm, not a physical sensor.

If you're referring to a type of sensor that uses PID for control, could you please be more specific? Controllers using PID are common in various systems like temperature controllers, motion controllers, chemical controllers etc.

If you're looking to implement a PID controller in your circuit using the ESP32-CAM, you would generally do this in software rather than directly on the hardware. The ESP32-CAM would connect to the relevant sensors and actuators (for example, a temperature sensor and a heater), and the PID control algorithm would be implemented in the code running on the ESP32.

Please provide more information about your specific requirements so I can help you better.

joelalbon

Passive Infrared

copilot

Understood, in your earlier message you intended to refer to a Passive Infrared (PIR) sensor.

Here's how to hook a PIR sensor to your Ai-Thinker ESP32-CAM:

VCC: Connect the VCC pin of the PIR sensor to the 3V3 or 5V pin on your ESP32-CAM based on the power requirement of the PIR sensor.

If the PIR sensor supports 3.3V operation, you should connect the PIR:VCC to 3V3:P$16 or 3V3.:P$12
If the PIR sensor requires 5V, then you need to connect the PIR:VCC to 5V:P$1

Ground: Connect the ground pin (GND) of your PIR sensor to a ground pin on your ESP32-CAM. You could use GND:P$2, GND.:P$13, or .GND:P$9.
Output (Signal): The output pin (usually labeled as OUT) should connect to a GPIO pin on the ESP32-CAM. This pin will read the signal from the sensor. An example connection would be PIR:OUT to IO4:P$8, but the specific pin you use can depend on your code and which pins are free.

These connections should be specified in your Flux project. Remember, the connections should respect the flow of current and the types of terminals you connect.

Once this hardware setup is complete and verified, you'll need to configure the corresponding GPIO pin as an input in your code and read its state regularly or set up an interrupt to respond to state changes.

Please verify the voltage operation range of your specific PIR sensor. Connecting a PIR sensor that requires a higher voltage to your 3.3V ESP32-CAM could possibly damage your ESP32-CAM. Always refer to the datasheets to confirm power requirements and operating voltage ranges.

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explain this project.

javierre

@copilot explain this project.

copilot

This project is centered around an ESP32 CAM module, which combines an ESP32 microcontroller with an OV2640 image sensor, making it ideal for applications involving wireless image and video transmission. The ESP32 is well-known for its Wi-Fi and Bluetooth capabilities, making this module particularly useful for IoT applications requiring remote image capture or video streaming. Ai-Thinker, the manufacturer, has designed this board to be versatile for various projects including home automation, surveillance, and any innovative projects involving image processing and remotely controlled devices.

Project Components and Connections

The project includes several I/O (Input/Output) pins and power supply pins identified by their designator names. Below is a brief overview of these components:

I/O Pins: These are bidirectional (bidi) terminals used for connecting to other devices, sensors, or actuators. They can be programmed to be either inputs or outputs depending on the needs of the application. Specific I/O pins mentioned are IO2, IO14, IO16, IO15, IO13, IO1/U0T, IO12, IO3/U0R, IO0, and IO4. Each pin has unique functionalities and can be used for specific tasks, such as IO1/U0T and IO3/U0R which suggest being used for serial communication (TX and RX respectively).
Power Pins: The project includes pins for 3.3V (3V3 and 3V3.), 5V, and Ground (GND, GND., and .GND) connections. These are essential for powering the ESP32 and its peripheral devices. The presence of both 3.3V and 5V pins indicates that the board can be powered directly from a USB connection or a compatible battery, and provides flexibility regarding the power source and voltage levels required by connected peripherals or sensors.
Designator Prefix: Each component is uniquely identified with a prefix (e.g., P for power pins and I/O pins), followed by a specific pin number (e.g., P$7 for IO2), which simplifies the identification and connection process in the circuit design.

Current Project Status

As per the provided description, no electrical connections have been established yet in the project. This implies the initial stage of design, where components have been placed on the schematic but are yet to be interconnected to form a working circuit.

Next Steps

Establishing power connections: connecting 3.3V and GND pins to the appropriate power sources.
Connecting I/O pins to peripherals: depending on the application, I/O pins will need to be connected to sensors, actuators, or other modules.
Serial connections: Utilizing IO1/U0T and IO3/U0R for serial communication, possibly with a computer or another microcontroller for data exchange.

This project offers a robust platform for developing a wide range of applications, leveraging the ESP32's capabilities alongside the OV2640 image sensor. By establishing the necessary connections and programming the ESP32, you can create a powerful system for image capture and transmission over Wi-Fi.

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IO2

3V3

GND

IO14

IO16

IO15

GND.

IO13

IO1/U0T

IO12

.GND

GND

IO3/U0R

IO0

IO4

3V3.

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