Summary of 5 Channel USB Analog Sensor with AVR using ATmega48 Microcontroller
This article describes a low-cost, 5-channel USB analog sensor module built around the ATmega48 microcontroller. It facilitates real-time data transmission to a PC via an FTDI serial-to-USB cable without requiring expensive surface-mount soldering. The device is suitable for electrophysiological experiments or as a component of an inexpensive multichannel digital oscilloscope.
Parts used in the 5 Channel USB Analog Sensor:
- ATmega48 microcontroller
- USB FTDI serial-to-usb cable
- Header pins
This project demonstrates how to build a simple module to read analog sensor and send the data to PC using USB connection. The project uses ATmega48 as main processor and USB FTDI serial-to-usb cable. Simply put header pins on your device which you can plug into providing the microcontroller-computer link. No need for soldering surface-mount FTDI chips which gets expensive for large scale project.
This 5-channel real-time USB analog sensor can be used for a slew of electrophysiological experiments, but you can expand it for inexpensive multichannel digital oscilloscope.
For more detail: 5 Channel USB Analog Sensor with AVR using ATmega48 Microcontroller
- What is the main processor used in this project?
The project uses the ATmega48 as the main processor. - How does the device connect to the computer?
The device sends data to the PC using a USB connection via an FTDI serial-to-usb cable. - Does this project require soldering surface-mount chips?
No, there is no need to solder surface-mount FTDI chips as header pins are used instead. - Can this sensor be used for electrophysiological experiments?
Yes, this 5-channel real-time USB analog sensor can be used for a slew of electrophysiological experiments. - Is it possible to expand this project into a digital oscilloscope?
Yes, you can expand it for use as an inexpensive multichannel digital oscilloscope. - Why is this method preferred for large scale projects?
It avoids the high cost associated with surface-mount FTDI chips which gets expensive for large scale projects.
