• This blog is belong to Mr.Vassilis Serasidis
  
• It has many good project based on atmel microcontroller.
• Some of his interesting project is :

• This tutorial will show on how to do an analog-digital conversion with AVR microcontroller.
• AVR will receive data from the it's serial port.
• Then the AVR does a Analogue to digital conversion on channel 0.
• Then transmits the results back via the serial port in ascii hex.

• The goal of this tutorial is to get you up and running as quickly as possible.
• You can get to exploring and modifying on your own without having to fiddle with hardware, software, parts, or settings.
• It's suitable and recommended for beginner microcontroller player.

• This project was conducted by the student of Cornell University.
• This project's goal is to determine the user's position with a commercial GPS system aided by MEMS accelerometers and gyroscopes.
  
• The additional MEMS sensors allow for prediction of the user's movement in between and in absence of the absolute GPS updates.
• The primary use of this system would be for in-car GPS where velocities are relatively high (>~1 m/s).
  

• This Blog conducted by Mr.Tiyo Avianto.
• He explain about CodeVision AVR.
• Due to his effort, this blog is written in Indonesian language.
  

• This project used two ATMega32 microcontrollers.
• It transmit and receive data over the USART.

• Those people at Flylogic Engineering has done a good and adorable job in reverse engineering method.
• Below is some of their artwork.
  

• Their feeling of curiosity lead them to tear down TQFP package for review.
• Delayering the device is one of the steps in analyzing any substrate.

• This thermostat is built around an ATMega164P and a TC1047A temperature sensor.
  
• It controls your furnace and air conditioner.
• It is not programmable, although it has a clock and is capable if some additional code were written.
• The unique feature is used of single rotary encoder, for a very simple user interface.

• The two-wire interface consists of two signal lines named SDA (serial data) and SCL (serial clock).
• All devices participating in the bus are connected together.
• The pullups must be small enough to recharge the line capacity in short enough time compared to the desired maximal clock frequency.

• Simple but powerful programmer .
• Serial device programmer software with a user friendly GUI framework available for Windows95/98/ME/NT/2000/XP and Intel Linux.
  
• Its purpose is reading and writing every serial device.
• Supports I²C Bus, Microwire, SPI eeprom, the Atmel AVR and Microchip PICmicro.
• SI-Prog is the programmer hardware interface for PonyProg.
• With PonyProg and SI-Prog you can program Wafercard for SAT, eeprom within GSM, TV or CAR-RADIO.
  
• Furthermore it can be used as a low cost starter kit for PIC and AVR.

• Uses 64-pin ATmega128/1281/2561.
• USB-serial interface via FTDI FT232RL.
• Selectable power (USB/External/VTarget, external could be 5V or 3.3V).
• Selectable clock source (crystal or clock from FT232RL).
• All ports are avaiable at pinheaders.
• Direct interface to GU300 Graphical VFD's.
• Port D, E & F are laid out identical to the STK500.
• Port A, C & G are in a single header, making it possible for future memory expansion.

• Owner of this site wanted a design that would be capable of displaying at least 15x15 characters on a VGA monitor using standard VGA frequencies.
• The data itself is to be received by the microcontroller via its USART port.
  
• All using a 16 Mhz clock for the AVR.

Details can be found HERE