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Sanguino is an open source Arduino-compatible microcontroller board that is base
Sanguino is an open source Arduino-compatible microcontroller board that is based on the Arduino, and inspired by the Boarduino form-factor. It uses the atmega644P chip which has 4x the memory, ram and 12 more GPIO pins than the Arduino's atmega168.
More info: make.sanguino.cc/1.0
Sanguino is an open source Arduino-compatible microcontroller board that is based on the Arduino, and inspired by the Boarduino form-factor. It uses the atmega644P chip which has 4x the memory, ram and 12 more GPIO pins than the Arduino's atmega168.
More info: make.sanguino.cc/1.0
Microchip’s PIC® microcontrollers with nanoWatt XLP eXtreme Low Power Technology received Europe’s prestigious 2009 Elektra Award in the Semiconductor Product of the Year category.
Raspberry Pi Pico is a low-cost, high-performance microcontroller board with flexible digital interfaces
Microchip Technology's 8-bit PIC16F(LF)720/1 microcontrollers expanded upon its existing 28-/40-pin PIC16F72X microcontroller (MCU) family with two new 20-pin devices—the PIC16F(LF)720 and PIC16F(LF)721.
Webcam -> Processing -> Arduino -> Peggy. :)
15 FPS "Real-time" video on the Peggy 2.
Read more about this project here.
Note that it must be oriented properly. One of the two pieces of metal inside the LED has two little circles in it; that piece of metal should face to the right, the one without holes to the left. Make sure the legs on top are flat against the top of the wood; there will be a gap between the bottom of the wood and the legs underneath it.
In 2009, Microchip Technology Inc. was selected as one of the Phoenix Business Journal’s “Best Places to Work in the Valley” for the third straight year. The award places Microchip among the top-30 large companies (250+ employees) to work for in Arizona because of the way it creates an engaged and supportive workforce. For more information about Microchip Technology, please visit the Company’s Web site at www.microchip.com/get/3QB7. For more information about the “Best Places to Work” awards, visit www.microchip.com/get/QFF5.
The chipKIT™ WF32 is a prototyping platform that adds the performance of the Microchip® PIC32 microcontroller. The WF32 is the first board from Digilent to have a WiFi MRF24 and SD card on the board both with dedicated signals. The WF32 board takes advantage of the powerful PIC32MX695F512L microcontroller, which features a 32-bit MIPS processor core running at 80 MHz, 512K of flash program memory, and 128K of SRAM data memory. The WF32 can be programmed using the Multi-Platform Integrated Development Environment (MPIDE). It contains everything needed to start developing embedded applications. The WF32 features a USB serial port interface for connection to the MPIDE and can be powered via USB or by an external power supply. In addition, the WF32 is fully compatible with the advanced Microchip MPLAB® IDE and works with all MPLAB compatible in-system programmer/debuggers, such as the Microchip PICkit™3 or the Digilent chipKIT PGM.
store.digilentinc.com/chipkit-wf32-wifi-enabled-microntro...
seven segment module connected to arduino uno board
#arduino #programming #microcontroller #project #coding
Sanguino is an open source Arduino-compatible microcontroller board that is based on the Arduino, and inspired by the Boarduino form-factor. It uses the atmega644P chip which has 4x the memory, ram and 12 more GPIO pins than the Arduino's atmega168.
More info: make.sanguino.cc/1.0
Still on breadboard - the RF unit is in the grey box, and there is now a non-illuminated LCD display, and the text formatting
issues resolved.
The digital clock in the background is an "Aldi" radio-controlled clock which I believe gets its time from the DCF transmitter located near Frankfurt in Germany which transmits on 77.5kHz
The end objective is to make this a "standalone" receiver and to dispense with the Arduino board.
The idea is to replace the autoexposure electronics with a microcontroller for manual exposure timing.
A PIC 8pin controller should do the trick.
These are tiny and cheap and low power with an internal oscillator.
Power is applied through the button switch . Coding switch is read.
Magnet is energized.
Button releases the first blade - shutter opens. X or V switch starts the timer. after timer is finished magnet releases and shutter closes.
The Hex switch has 16 positions that could be used for times from 1/500th to 2sec. and B
A darlington transistor can drive the magnet with ease.
Now I just need to learn to program the PIC.
I've bought a starter kit and am learning how to do it.
If anyone out there with experience in PIC programming could help me with this iI would be great.
My display of three working Compukit UK101 machines for their 30th anniversary. Behind them is Arduino Nut, designer of the MMC card filing system for the BBC Micro.
Version 1.1 of our open-source ATmegaXX8 AVR development target board. Read more about this project and download the design files here.
It's quite a distance from my office light switch to the front door. Normally anyone closing up for the night will turn off the light and dash into the pitch blackness, usually hitting a chair or desk in the process. Rather than solve the problem, I lashed together an automatic light-turner-offer...er. Press the button and it beeps for 30 seconds, then turns the light off for you. It returns to a slack position to allow manual light-turning-on...ing.
Microchip Technology's Graphics PICtail™ Plus Daughter Board With 3.2” Display Kit enables designers to cost-effectively evaluate Microchip’s graphics solutions and develop embedded graphics display applications. With Microchip’s free graphics software and related development tools, designers can quickly integrate graphics display functions into embedded applications using a single microcontroller, reducing development risk, total system cost and time to market. For more information, please visit: www.microchip.com/Graphics
DCF-Empfangsmodul DCF1
Pollin Best.Nr.: 810054
Technische Daten:
- Betriebsspannung 1,2...3,5V
- Stromaufnahme < 90uA
- Empfangsfrequenz 77,5 kHz
Aaron has made some progress on the ball-bearing sensor board for the physical rhythm sequencer. It's all wired up to the Arduino (left) and the LEDs simulate rhythm sound triggers.
5 watt LED light over kitchen sink, with motion sensor for auto activation. Uses ATtiny84 and a MOSFET. Blog entry here: macetech.com/blog/node/109
Microchip Technology's MCP1804 Low Dropout Regulators (LDOs) deliver up to 150 mA of output current and support output voltages from 1.8 – 18V.
Wire wrapping a project like this makes it really easy.
www.cheaphack.net/2008/03/multi-color-lamp-from-some-reus...