HM0360 VGA Monochrome DVP Camera Module for Arduino GIGA R1 WiFi Board
Low light sensitive, ultralow power consumption, simple interface, compatibility with Arduino libraries, suitable for battery-powered and energy-efficient applications.
Overview
The camera module is based on HM0360 VGA image sensor, which is an ultralow power, Back Side Illuminated (BSI) CMOS sensor designed for energy efficient smart vision applications, such as object-specific classification, tracking, and identification. The VGA resolution is ideal for monitoring, detection and image capture for wide field of view camera devices.
The low consumption camera module is equipped with a 64°(DFOV) stock Lens. It supports 8-bit RAW output format. The standrad operating temperature is between -30~85℃, with the stable Image temp. between 0~50℃.
It is fully compatible with Arduino GIGA R1 WiFi board, a professional-grade microcontroller development board recently launched by Arduino. Seamlessly integrates with our camera module, unlocking versatile image capture and processing capabilities. Harness the power of Arduino GIGA R1 WiFi and gain a competitive edge in your projects.
Features:
- Cost-Effective: Affordable solution for implementing visual capabilities in cost-sensitive projects.
- Compact Size: Compact form factor enables integration into space-constrained applications.
- Simplify Embedded Vision for All: Easy to set up and operate. Making it possible to add machine vision to your GIGA R1 WiFi board without much effort at all.
- High Precision: With on chip high precision oscillator, Bad Pixel correction(BPC), auto exposure/gain, amblent light sensor and zone detection
- Low Power Consumption: Efficient power usage, making it suitable for battery-powered and energy-efficient applications.
Tech specs
| Image Sensor | HM0360 |
| Resolution | VGA |
| Optical Size | 1/6'' |
| Number of effective pixels | 640(H) × 480(V) |
| Pixel Size | 3.6μm × 3.6μm |
| Support Platform | Arduino GIGA R1 WiFi Board |
| Shutter Type | Electronic Rolling Shutter |
| Color Filter Array | Monochrome |
| Frame Rate | 640x480@15fps, 320x240/160x120@30fps |
| Output Format | RAW8/RAW4 |
| F.NO | 2.8±5% |
| Focus Type | Fixed Focus |
| Focal Length | 2.59mm |
| Field of View(FOV) | 64°(D) |
| Power Supply | AVDD: 2.8V; DOVDD: 1.8V; DVDD: 1.2V |
| Operating Temperature | -30~85℃ |
| Camera Board Size | 30.5mm x 30.5mm |
Documentation
Get Inspired
My project has a Nodemcu ESP8266 which is controlling a 7-segment display through the http server using html form.
… remote monitoring and control. 2. Embed a web server in the device Embedding a web server inside the IoT device allows you to visualize the data using a web browser. It requires the device to have network connectivity, and it is usually implemented connecting the device to a Wi-Fi access point or with the device creating its own WiFi hotspot. Although creating your own web server implementation can be done, one of the most widespread solutions is to make use of the library ESPAsyncWebServer. It allows your IoT device to serve custom HTML pages presenting the data. This is a very flexible and customizable solution, yet complex and mostly suitable for skilled users. There are plenty of insightful examples like the following ones: ESP32 Web Server - Arduino IDE | Random Nerd TutorialsArduino Project Hub - NodeMCU ESP8266 AJAX Enabled Web Server Arduino Project Hub - WiFi Robot Car / RC Car NodeMCU Web ServerESP32 Web Server: Display Sensor Readings in Gauges | Random Nerd Tutorials The scope of this solution is typically local — you need to be on the same network as the device — although with a more advanced configuration by enabling port forwarding in the router, the device could be accessed remotely from anywhere. One of the main advantages is its low latency, as the data shown in the web page comes directly from the device without any processing. On the other hand, it is a solution that requires a high programming skill level and additionally, due to the immutable nature of the firmware, every change in a dashboard requires code recompilation and firmware reflashing. Furthermore, embedding a web server or a Bluetooth stack within the device can be resource-intensive. This may limit the device's capabilities or require a more powerful microcontroller, increasing both cost and complexity. 3. Send data to an external system with plotting capabilities IoT devices can send data to external systems using different protocols, such as
