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The revolutionary PIC10F microcontrollers (MCUs) pack the high performance of the PIC(r) MCU architecture into ultra-small form factor 6-pin SOT-23 and 2 mm x 3 mm DFN packages.
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
LPC-P2138 by Olimex based on the LPC2138 microcontroller by NXP that is an ARM7TDMI architecture.
My new toy in the lab.
The chipKIT™ Cmod is a chipKIT/MPIDE compatible board from Digilent. It combines a Microchip® PIC32MX150F128D microcontroller with a convenient 600-mil, 40-pin DIP package and two Digilent Pmod connectors. Digilent's Cmod boards are ideally suited for breadboards or other prototype circuit designs where the use of small surface mount packages is impractical.
The chipKIT Cmod takes advantage of the powerful PIC32MX150F128D microcontroller. This microcontroller features a 32-bit MIPS processor core running at 40 MHz, 128K of flash memory, and 32K of SRAM data memory.
store.digilentinc.com/chipkit-cmod-breadboardable-mz-micr...
The chipKIT WiFi Shield provides chipKIT microcontroller boards the ability to connect to and communicate with IEEE 802.11 compatible wireless networks. The WiFi Shield also provides a microSD card connector for use with microSD flash memory cards. The chipKIT MPIDE SD library can be used to read/write files stored on the microSD card.
More details about this open source electronics kit here: wayneandlayne.com/metronome
The Tactile Metronome is a tap-controlled metronome and "beat looper." "Syncopation machine." "Metronome with an attitude."
You tap the piezo speaker to set the frequency. The display shows the beats per minute, and the two buttons adjust the speed.
"Ehhh." "Boring," you say. Not so fast!
You can tap patterns into it, currently up to 12 beats long. As long as you tap the pattern in three times, it jumps in and continues beeping in that rhythm. The metronome can beep in three different tones, so you can play with more than one at a time.
Read the full project description here:
www.chromedecay.org/2010/07/23/3052-diy-servo-powered-pan...
The Digilent Servo Robot Kit (SRK) provides the perfect starting point for those new to robotics, but has the power to be used for advanced designs and applications as well. The SRK pairs our powerful chipKIT™ MX3 microcontroller development board with a rugged steel platform and all the motors, wheels, and other parts needed to build a complete robot. Using your SRK's powerful chipKIT MX3 microcontroller, you'll be able to add all sorts of functionality to your robot. Add some of our extensive line of peripheral modules (Pmods™) and you can design almost anything!
store.digilentinc.com/srk-basic-servo-robot-parts-kit-inc...
The Digilent Servo Robot Kit (SRK) provides the perfect starting point for those new to robotics, but has the power to be used for advanced designs and applications as well. The SRK pairs our powerful chipKIT™ MX3 microcontroller development board with a rugged steel platform and all the motors, wheels, and other parts needed to build a complete robot. Using your SRK's powerful chipKIT MX3 microcontroller, you'll be able to add all sorts of functionality to your robot. Add some of our extensive line of peripheral modules (Pmods™) and you can design almost anything!
store.digilentinc.com/srk-basic-servo-robot-parts-kit-inc...
The MPLAB® ICD 3 is a cost-effective, high-speed in-circuit programmer and debugger for Microchip’s Flash-based 8-bit PIC® microcontrollers (MCUs), and its entire line of 16- and 32-bit MCUs and 16-bit dsPIC® Digital Signal Controllers (DSCs). Please visit www.microchip.com/ICD3 for more information.
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The "Box Monster" is an easily built robotics kit that is ideal for people just starting out in electronics. Designed for the K-12 audience, the Box Monster can be brought home as a fun electronics project that students create themselves, and it can also act as a spring-board into more advanced topics like microprocessor coding and electronic design.
The chipKIT™ uC32 microcontroller drives the R/C servo motor to open and close the mouth, but can also be programmed to do anything else you want with the free MPIDE programming environment.
store.digilentinc.com/robotic-box-monster-aka-boximus-ter...
The pre-cut veroboard and the complete set of discrete components needed to make the Atmel ATtiny2313/26 microcontroller carrier. (See decarchive.org/~prd/2009/10/breadboard-compatible-carrier... for more details.)
Test shot with the Canon 100mm f/2.0 and a 25mm extension tube. ATtiny45 microcontroller and six-pin in-system programming connector.
Product image of components from the Jennic range - www.sequoia.co.uk/components/manufacturer_list.php?m=12&a...
Jennic is a market leader in ZigBee, 6LoWPAN, IEEE802.15.4 wireless microcontrollers, modules and evaluation kits.
Durchsehen Exp.01 Daytime Installation view
www.daniel-franke.com/work/2010--durchsehen-exp-01/
D-2010. Concrete cube, PC, 2 projectors, webcam, servo motors, microcontrollers, C++ applications, tripods. 4 x 4 x 2 m.
Collaboration with Markus Kison
D-2010. Concrete cube, PC, 2 projectors, webcam, servo motors, microcontrollers, C++ applications, tripods. 4 x 4 x 2 m.
Collaboration with Markus Kison
A camera fixed on the concrete cube sculpture recognizes the presence of human faces within its scope. With a randomized choice it will focus on one of the bystanders and adjust its movement to his; tracking the eye movements of the viewer, a software computes the corresponding angle of view projecting onto the cube the very section of the space the sculpture is blocking from the viewers eye; thus making the cube appear transparent.
The video sculpture „Durchsehen, Exp. 01 (augmented perspective)“ overwrites the common notion of perspective and plays with the significance of perspective in an art historical perspective; the work of art evades the gaze of the viewer or rather: the two are equated. The gaze of the observer coincides with the object of observance in a piece that also draws a line to former strategies of dealing with vision and depiction: the renaissance praxis of “painting on glass”.
Through the real-time projection on the cube a 3dimensional depiction of 2dimensionality occurs; the catoptric turns dioptric. The framing plane of the conventional video image becomes fragmented as work and reality intertwine in an augmented perspective.
(Text translated by Mikala Hyldig Dal)
A camera fixed on the concrete cube sculpture recognizes the presence of human faces within its scope. With a randomized choice it will focus on one of the bystanders and adjust its movement to his; tracking the eye movements of the viewer, a software computes the corresponding angle of view projecting onto the cube the very section of the space the sculpture is blocking from the viewers eye; thus making the cube appear transparent.
The video sculpture „Durchsehen, Exp. 01 (augmented perspective)“ overwrites the common notion of perspective and plays with the significance of perspective in an art historical perspective; the work of art evades the gaze of the viewer or rather: the two are equated. The gaze of the observer coincides with the object of observance in a piece that also draws a line to former strategies of dealing with vision and depiction: the renaissance praxis of “painting on glass”.
Through the real-time projection on the cube a 3dimensional depiction of 2dimensionality occurs; the catoptric turns dioptric. The framing plane of the conventional video image becomes fragmented as work and reality intertwine in an augmented perspective.
(Text translated by Mikala Hyldig Dal)
Final Year Projects, IEEE Projects, IEEE Projects Chennai, IEEE Projects 2011, IEEE Projects 2010, Embedded Projects, Embedded System Projects, Projects at Chennai, Projects in Chennai, Engineering College Projects, BE Projects, BTech Projects, ME Projects, MTech Projects, IEEE Projects, Projects in IEEE, Projects in INDIA, Final Year Projects in Tamil Nadu, Microcontroller Projects, VLSI Projects, MATLAB Projects, ATMEL Projects, DSP Projects, IEEE VLSI Projects, IEEE DSP Projects, IEEE Matlab Projects, IEEE Microcontroller Projects, IEEE Microcontrollers Projects, IEEE Embedded System Projects, IEEE 2011 2010 2009 Projects, IEEE on Embedded System, College Projects, Engineering Student Projects, Projects Chennai, Projects Tamil Nadu, Projects Coimbatore, Projects Madurai, Good Final Year Projects, Low Cost Final year Projects, Diploma Projects, Final Year Diploma Projects, Final Year Polytechnic Projects, ME Engineering Projects, MTech Projects, Real Time Projects, Embedded Microcontroller Kit Projects, Model Projects, IEEE Project Domains, Robotics Projects, MEMS Projects, Telecommunication Projects, Biomedical Projects, GPS Projects, GSM Projects, VLSI Projects, CPLD Projects, FPGA Projects, Blackfin DSP Projects, ADSP Projects, Power Electronics Projects, Power System Projects, Zigbee Projects, Electrical Projects, Communication Projects, RFID Projects, VOICE HM2007 Projects, RF Projects, Wireless Projects, Wireless Communication Projects, Finger Print Projects, IEEE Power Electronics Projects
The chipKIT™ Pro MX7 is a microcontroller development board based on the Microchip® PIC32MX795F512L, a member of the 32-bit PIC32 microcontroller family. It is compatible with Digilent's line of peripheral modules (Pmod), and is suitable for use with the Microchip MPLAB IDE tools. The chipKIT Pro MX7 is also compatible for use with the chipKIT MPIDE development environment.
The chipKIT Pro MX7 provides 52 I/O pins that support a number of peripheral functions, such as UART, SPI, and I2C ports as well as five pulse-width modulated outputs and five external interrupt inputs. Its network and communications features also include a 10/100 Ethernet interface, Full Speed USB 2.0 OTG interface, and dual CAN network interfaces. Ten of the I/O pins can be used as analog inputs in addition to their use as digital inputs and outputs.
store.digilentinc.com/chipkit-pro-mx7-advanced-peripheral...
Diagram for the DIP switch circuit showing how the switches are wired as "active high", such that when a switch is on, the corresponding BS2 pin will see 5 volts or a logic level of 1. Stamp pins 0, 1, and 2 are used to input the binary values for setting the delay between drops, while pin 3 inputs the number of drops (off =1, on=2). The four pins 8-11connected to the second DIP switch set are used for the 4 bits (nibble) to input the drop size setting. Each DIP switch has a 4-wire cable (salvaged from a PC's old CD audio to sound card cable cut in half) with a 4-pin connector at the end that plugs onto 4 I/O pins of the BS2 microcontroller. The numbers represented in the DIP switch settings are used in a simple formula to calculate the times in milliseconds to keep the valve open or closed.
Close-up of the receiver. The main chip is the Nordic RF chip that also contains a microcontroller. The chip near the bind button is an EEPROM that holds bind information persistently.
On the right of the two ICs are two voltage regulators. The upper one is a 3.3V regulator that drives most of the logic, the lower one generates 2.5V needed for the Nordic chip.
Just below the servo connectors are four tiny protection resistors. We will de-solder the left most one to free up the signal pin on the battery connector. Stock this pin contains some form of test signal that is unfortunately not PPM but a sum of the three servo pulses.
Side note: The receiver consumes about 25mA at 5V. If the 3.3V regulator is able to accept 10V input voltage then one could power up this receiver directly from a speed controller that does not have a BEC, like most older Tamiya ones.
Alternatively one could replace the voltage regulator to ensure it can handle at least 10V.