View allAll Photos Tagged microcontroller
David presents an interfacing Arduino and Adobe Flash. Dorkbot crowd makes up a quick game called "Busy Proctologist" using some craft items, a pressure sensor, and the goatse image.
The crowd concluded after finding a latex glove, a styrofoam ring, some bubblewrap, and some red and brown felt, and a pressure sensor that the game would be called "Busy Proctologist."
Gameplay involves "examining" as many patients in the day as possible (measure by a 1 minute timer in Flash) without causing undue discomfort during the rectal exam (exceeding a moderate pressure range measured by the sensor and arduino.)
Simple prototyping boards for AVR microcontrollers. This one is designed for the Atmel ATtiny2313, and you can read more about it here. It's a complement to our earlier ATmegaxx8 board.
The wires at the top of the photo connect to a 9-pin D-connector. I can then plug a stepper motor (or some other kind of half-amp load) into that.
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 announced a new addition to its PIC12/16LF155X 8-bit microcontroller (MCU) family with the PIC16LF1554 and PIC16LF1559 (PIC16LF1554/9) devices. The PIC16LF1554/9 includes two independent 10-bit 100K samples per second Analog-to-Digital Converters (ADC) with hardware Capacitive Voltage Divider (CVD) support for capacitive-touch sensing. This unique ADC configuration enables more efficient sensor acquisition and assists with advanced touch-sensing techniques for extremely noisy environments, low-power applications, matrix keypads and water-resistant designs. For more info, visit: www.microchip.com/get/08KC
This is a backup board (the proto-board versions come in sets of three anyway) showing the components. The large IC is the PIC16F887, an 8 bit microcontroller with 38 IOs (including 10 A2Ds if desired - all output pins are programmable on the fly). The small IC to the left is the Dallas Semi conductor Real Time Clock chip, which is interfaced to the PIC with a I2C serial bus. The large disk to the left is the battery used to keep the RTC alive when the unit is not powered. The white header next to the battery is for the hand controller and autoguider (ST4) interface. Above the PIC is the In-Circuit Serial programming interface. To the right of the PIC are the two daughter boards that drive the steppers in any of the various modes (from full to 32 microsteps) Under the daughter boards there are jumpers which can be used to configure the main board to use either these (based on a TI chip) or similar boards (full to 16 microsteps) based on the Alegreo driver chips. The crystal for the processor is 20mhz, giving an instruction cycle time of 2e-7 seconds. When both axes are running at the full planned rate (960X sidereal) less than 50% of the CPU time will be used. The board will also support one of the PIC18F chips with a 40mhz clock with more performance and memory. All through-hole technology for ease of repair and assembly.
Game controller with 2 microcontrollers inside (ATTINY85), both generating algorithmic music.
For each microcontroller, the 2-axis analog stick controls two variables of the currently selected algorithm, the switch of the analog stick cycles the algorithms and an additional switch is used to mute/unmute the sound.
Note: Nothing fancy here, this a just a demo with only 4 algorithms and the same program on both microcontrollers.
These days we are living and surrounding by many tiny computers called embedded products. Unlike the general purpose desktop computer that we use for browsing or typing our email, this tiny computer is designed to do only a limited specific task. For more information you could visit www.ermicro.com/blog/?p=1334
The chipKIT PGM is designed to work with the MPLAB® and MPLAB X development environments available from Microchip. This allows the chipKIT boards, for example, to be used as a more traditional microcontroller development platform using the professional tools available from Microchip. While the PICkit™3 programmer can generate programming voltages needed to program all Microchip PIC devices, the chipKIT PGM can only program devices that are programmable with 3.3V programming voltage. Further, the PICkit3 can source a small amount of current to provide power to some boards being programmed. The chipKIT PGM does not provide power to the board being programmed.
store.digilentinc.com/chipkit-pgm-programmer-debugger-for...
This was a later test to see if I could mill a tube, kinda like a little bullet casing. The answer is a resounding "kinda." It still suffers from the grain problem mentioned in the previous pic, wherein bars formed with crappy aluminum don't mill evenly as spun around beneath the end mill. Certain edges mill cleanly, while others seem to flake away, leaving lost, unsharp edges.
In the background you can see the DIN cable plug into a simple board I made that connects to a BASIC Stamp BS2p40, which is on the stamp dev board (with the green power LED). All it does it kick out a steady stream of rotation commands to slowly rotate the rotary table. In this pic, the table sits on the angle plate, which is just there to raise it up enough to give the rotary table's CNC motor (foreground right) clearance over the Y axis handwheel (out of frame bottom). On the rotary table is a 4-jaw independent chuck, which is holding the 0.25"x0.75" stock vertically for the milling. Using the rotary table, I cleared away the space around a little bar shaped piece, and then began milling the tube into the center of it. Obviously, I can't get much depth with that tiny 1/8" end mill, and moreover, this operation is far more suited to both a lathe (almost next on my wishlist), and better grades of aluminum, or other metals entirely.
Again, just another test. Note also the white copy paper and black electrical tape way-guards. I don't like getting shavings around the exposed Y-axis threaded rod, and I haven't made a fancier system yet. This works quite well for now.
chipKIT Pro MX4 : Embedded Systems Trainer Board
The chipKIT™ Pro MX4 is a microcontroller development board based on the Microchip® PIC32MX460F512L, a member of the 32-bit PIC32 microcontroller family. It is compatible with Digilent's line of Pmods, and is suitable for use with the Microchip MPLAB® IDE tools. The chipKIT Pro MX4 is also compatible for use with the chipKIT MPIDE development environment.
The chipKIT Pro MX4 provides 74 I/O pins that support a number of peripheral functions, such as USB controller, UART, SPI, and I2C ports as well as five pulse-width modulated outputs and five external interrupt inputs. Fifteen 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-mx4-embedded-systems-tr...
PmodWiFi: WiFi Interface 802.11g
The PmodWiFi provides Wi-Fi access through the Microchip® MRF24WG0MA Wi-Fi™ radio transceiver module. Users can communicate with the IEEE 802.11g compliant chip through SPI and achieve data rates up to 54 Mbps.
Edith Kollath is a friend of mine who is at the crossroads of art and microcontroller technology. She made the most beautiful books that breathe.
Besides being beautiful objects, this show is also about the TSA. On a trip home to show the books in Germany, the TSA detained her and took the books from her. The story is bizarre and strange and reflects the very weird times we live in today.
The stepper motor is being powered by a simple circuit from a BASIC Stamp BS2p40 microcontroller. You can see the black plastic handle on the red anodized aluminum hand wheel spinning. The motor has 200 1.8º steps (common for stepper motors). The rotary table takes 72 revolutions of the motor shaft to spin 360º, and that's 200x72, or 14,400 discrete locations. That works out to 0.025º, or 1/40 of 1º per step. Not too shabby! These unipolar steppers can be driven in half-steps, yielding 28,800 discrete locations at 1/80 of 1º intervals, but I haven't tried that yet.
Given the 4ms delay per step I set into the motors - any faster and there really isn't enough torque generated per step to fight the load of the rotary table's gearing - the 14,400 steps needed for a full spin works out to 57.6 seconds for a full revolution of the rotary table, which sounds about right. It spun slowly, which is a bit necessary to get smooth cuts on such light duty equipment.
Talks and performances by people doing strange things with electricity
Fri 23 March 2012, 6.30-10pm with interval at the Showroom Cinema, Sheffield.
Dorkbot is a meeting of people interested in electric/electronic art in the broadest sense; robotics, kinetic art, microcontrollers, interactive art, algorithmic music, net.art... The only real conditions are that it is a bit strange and involves electricity in some way. It is really defined by whoever turns up, be it engineers who want to be artists, artists who want to be engineers, or the otherwise confused.
This MEGADORK event features a cabaret of talks and performances from among the UK's dorkiest, to entertain and amaze:
Paul Granjon - A strange performance from the world renowned self-styled robot artist.
Patrick Tresset - Talks about his drawing robot Paul (on show as part of the Alan Turing: Intuition and Ingenuity exhibition).
Daniel Jones and James Bulley - talking about generating live music from patterns of weather.
www.variable4.org.uk/about/intro
Sarah and Jenny Angliss - playing robot music from past futures.
spacedog.biz
Sergi Jorda - talks about the Reactable tangible tabletop music playground (which you'll be able to try out at the Central Library Saturday 24 March)
Dan Stowell - Demonstrates his use of the Risset illusion in techno music.
Silicone Bake - Live coded pop songs about love, death and counterfeit watches, where all lyrics are taken from spam emails.
Megadork is curated by Alex McLean.
Dorkbot started in New York, spread to London, and now dozens of cities around the world, including several active UK chapters; Sheffield, Bristol, Anglia, Newcastle, Cardiff and Alba (Scotland). Find out more at: www.dorkbot.org
Lovebytes 2012 - Digital Spring
A Festival of Art, Science and Technology
22-24 March
Sheffield UK
As the electronics hobbyist one of knowledge that we have to be familiar with is how to make our own printed circuit board (PCB). Making our own simple single side PCB actually is not require a sophisticated technique and technology as you might think, instead most of the required materials is already available at your home. For more information please visit www.ermicro.com/blog/?p=1526
Designers can integrate the MRF24J40MB transceiver module with the appropriate 16-bit PIC24 MCUs, dsPIC DSCs and 32-bit PIC32 MCUs, by purchasing the new MRF24J40MB PICtail™ Plus Daughter Board (part # AC163028-2), also announced today. This daughter board is designed to plug into the Explorer 16 Modular Development Board, which has available processor plug-in modules for all of Microchip’s 16- and 32-bit families. Additionally, the ZENA™ Wireless Network Analyzer is available to graphically display wireless network traffic, analyze the complete network traffic and graphically display decoded packets. All of these tools are available today at www.microchipdirect.com.
* CPU
o Intel 8048 8-bit microcontroller running at 1.79 MHz
* Memory:
o CPU-internal RAM: 64 bytes
o Audio/video RAM: 128 bytes
o BIOS ROM: 1024 bytes
* Video:
o Intel 8244 custom IC
o 160×200 resolution (NTSC)
o 16-color fixed palette; sprites may only use 8 of these colors
o 4 8×8 single-color user-defined sprites; each sprite's color may be set independently
o 12 8×8 single-color characters; must be one of the 64 shapes built into the ROM BIOS; can be freely positioned like sprites, but cannot overlap each other; each character's color may be set independently
o 4 quad characters; groups of four characters displayed in a row
o 9×8 background grid; dots, lines, or solid blocks
* Audio:
o Intel 8244 custom IC
o mono
o 24-bit shift register, clockable at 2 frequencies
o noise generator
o NOTE: There is only one 8244 chip in the system, which performs both audio and video functions.
* Input:
o Two 8-way, one-button, digital joysticks. In the first production runs of the Magnavox Odyssey and the Philips 7000, these were permanently attached to the console; in later models, they were removable and replaceable.
o QWERTY-layout membrane keyboard
* Output:
o RF Audio/Video connector
o Péritel/SCART connector (France only)
* Media:
o ROM cartridges, typically 2 KB, 4 KB, or 8 KB in size.
Videopac with chess module
* Expansion modules:
o The Voice - provides speech synthesis & enhanced sound effects
o Chess Module - The Odyssey2 didn't have enough memory and computing power for a decent implementation of chess on its own, so the C7010 chess module contained a secondary CPU with its own extra memory to run the chess program.
Dit een gestripte versie van mijn DIY ArnoSync camera trigger. Deze versie is eveneens opgebouwd rond een PIC 12F675 microcontroller. Het is een versie met een lichtsterkere lens met een brandpunt afstand van 100 mm. Het apparaatje kan hierdoor een object in focus detecteren tot op 1 meter afstand van de camera.
Het is de bedoeling deze versie te gebruiken voor vogelfotografie. De gebruikte lasermodule is een IR (Infra Rood) versie welke ik nog beschikbaar had.
Alle onderdelen passen nog net op een mini breadboardje.
Het geheel is opgebouwd met een minimum aan onderdelen.
De aansluiting naar de Sony A6000 camera remote shutter input gebeurt nu via een robustere 3.5 mm chassis stereoplug. Voor de aansluiting naar de Sony A6000 synchro kabel is dus een extra 3.5mm naar 2.5 mm stereoadapter plugje nodig.
De voeding van het geheel gebeurt door een externe 5 Volt Mini Powerbank van 2600 mAh met schakelaar. Deze combinatie heeft een autonomie van ca. 100 uren. Door het gebruik van de on-off schakelaar enkel wanneer een detectie verwacht wordt kan er meerdere weken op een volgeladen Powerbank gewerkt worden.
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This is a striped-down version of my classic DIY ArnoSync camera trigger device.
This version is still build around a PIC 12F675 device. The mini system uses a better lens (100 mm focus) before the SFH309 phototransistor. The working distance to the object is now about 3 feet.
The used Lasermodule is an IR (Infra Red) type which I found in my junk-box.
All the electronics are mounted on a mini prototype breadboard. The connection to the Sony A6000 camera is done via a 3.5 mm stereo chassis plug. A 3.5 mm to 2.5 mm adapter is needed to mate the Sony A6000 external shutter release cable.
The used power supply is a small 2600 mAh Powerbank of 5 Volt with an ON/OFF push button switch. This allows power for more as 100 hours in continuous operation or several weeks when only switched on when an object is expected in the detection zone.
David presents an interfacing Arduino and Adobe Flash. Dorkbot crowd makes up a quick game called "Busy Proctologist" using some craft items, a pressure sensor, and the goatse image.
The crowd concluded after finding a latex glove, a styrofoam ring, some bubblewrap, and some red and brown felt, and a pressure sensor that the game would be called "Busy Proctologist."
Gameplay involves "examining" as many patients in the day as possible (measure by a 1 minute timer in Flash) without causing undue discomfort during the rectal exam (exceeding a moderate pressure range measured by the sensor and arduino.)
A sound generator (algorithmic music) based on an ATTINY 85.
Features:
- ALGO pot: choice of algorithm.
- X, Y pots: variables of the algorithms.
- LDR: Light-Dependent Resistor
- Switch: choice between Y and LDR.
- Volume pot.
- Sound output: mono 6.35mm plug.
- Yellow LED: sound LED.
- Red LED: ON/BATT
- Power supply: DC 9V external power supply or battery.
- Powered only when output sound jack inserted.
Microchip announced that its MPLAB® X Integrated Development Environment (IDE) won the prestigious 2011 Elektra Award in the Design Tools and Development Software Award category. For more info about MPLAB X, visit: www.microchip.com/MPLABX
Without a computer or a microcontroller, time machine: inner landscape is interactively controlled by five-fifty-five timer chips and photo resistors which advances slide show imagery and amplified sounds via analog and digital sound circuitry.
by Melissa Clarke
for more info:
itp.nyu.edu/shows/winter2010/2010/12/06/time-machine-inne...
Just a test shot with the Tamron SP 90mm f/2.5 macro lens on a Canon 7D body. No DOF because it's wide open.
Microchip's dsPIC33FJ32MC104 family which offers up to 32 KB Flash, 16 MIPS of performance, and small pin outs for cost-sensitive motor control, consumer, medical and industrial applications.
Well, pretending to solder, for the BBC promotional photos. The PCB is the FIGnition microcomputer, running the Forth programming language.
Finished video is here: www.bbc.co.uk/news/technology-13206756
And text write-up here: www.bbc.co.uk/news/technology-13201254
Microchip's Development Tools Vice President, Derek Carlson, honors Mike Nicholson, Engineering Manager from Price Electronics in Winnipeg, Canada, as the recipient of Microchip's one millionth tool.
Version 1.1 of our open-source ATmegaXX8 AVR development target board. Read more about this project and download the design files here.
Atmega8 based usb-programmer for avr microcontrollers.
More infos at blog.gut-man.de/2009/10/04/usbasp-usb-avr-programmer/
The mini-breadboard is just a handy way to connect the wires. It also holds a 100Ω resistor for the backlight LED.
Dit een gestripte versie van mijn DIY ArnoSync camera trigger. Deze versie is eveneens opgebouwd rond een PIC 12F675 microcontroller. Het is een versie met een lichtsterkere lens met een brandpunt afstand van 100 mm. Het apparaatje kan hierdoor een object in focus detecteren tot op 1 meter afstand van de camera.
Het is de bedoeling deze versie te gebruiken voor vogelfotografie. De gebruikte lasermodule is een IR (Infra Rood) versie welke ik nog beschikbaar had.
Alle onderdelen passen nog net op een mini breadboardje.
Het geheel is opgebouwd met een minimum aan onderdelen.
De aansluiting naar de Sony A6000 camera remote shutter input gebeurt nu via een robustere 3.5 mm chassis stereoplug. Voor de aansluiting naar de Sony A6000 synchro kabel is dus een extra 3.5mm naar 2.5 mm stereoadapter plugje nodig.
De voeding van het geheel gebeurt door een externe 5 Volt Mini Powerbank van 2600 mAh met schakelaar. Deze combinatie heeft een autonomie van ca. 100 uren. Door het gebruik van de on-off schakelaar enkel wanneer een detectie verwacht wordt kan er meerdere weken op een volgeladen Powerbank gewerkt worden.
-------------------------------------------
This is a striped-down version of my classic DIY ArnoSync camera trigger device.
This version is still build around a PIC 12F675 device. The mini system uses a better lens (100 mm focus) before the SFH309 phototransistor. The working distance to the object is now about 3 feet.
The used Lasermodule is an IR (Infra Red) type which I found in my junk-box.
All the electronics are mounted on a mini prototype breadboard. The connection to the Sony A6000 camera is done via a 3.5 mm stereo chassis plug. A 3.5 mm to 2.5 mm adapter is needed to mate the Sony A6000 external shutter release cable.
The used power supply is a small 2600 mAh Powerbank of 5 Volt with an ON/OFF push button switch. This allows power for more as 100 hours in continuous operation or several weeks when only switched on when an object is expected in the detection zone.
The MC13224 from Freescale is a ZigBee System-On-Package device. The three dies pictured are the microcontroller, radio, and flash memory.
This is the Texas Instruments MSP430F2274, a 16-bit microcontroller used in a number of devices, including the GoodFET3x.
Talks and performances by people doing strange things with electricity
Fri 23 March 2012, 6.30-10pm with interval at the Showroom Cinema, Sheffield.
Dorkbot is a meeting of people interested in electric/electronic art in the broadest sense; robotics, kinetic art, microcontrollers, interactive art, algorithmic music, net.art... The only real conditions are that it is a bit strange and involves electricity in some way. It is really defined by whoever turns up, be it engineers who want to be artists, artists who want to be engineers, or the otherwise confused.
This MEGADORK event features a cabaret of talks and performances from among the UK's dorkiest, to entertain and amaze:
Paul Granjon - A strange performance from the world renowned self-styled robot artist.
Patrick Tresset - Talks about his drawing robot Paul (on show as part of the Alan Turing: Intuition and Ingenuity exhibition).
Daniel Jones and James Bulley - talking about generating live music from patterns of weather.
www.variable4.org.uk/about/intro
Sarah and Jenny Angliss - playing robot music from past futures.
spacedog.biz
Sergi Jorda - talks about the Reactable tangible tabletop music playground (which you'll be able to try out at the Central Library Saturday 24 March)
Dan Stowell - Demonstrates his use of the Risset illusion in techno music.
Silicone Bake - Live coded pop songs about love, death and counterfeit watches, where all lyrics are taken from spam emails.
Megadork is curated by Alex McLean.
Dorkbot started in New York, spread to London, and now dozens of cities around the world, including several active UK chapters; Sheffield, Bristol, Anglia, Newcastle, Cardiff and Alba (Scotland). Find out more at: www.dorkbot.org
Lovebytes 2012 - Digital Spring
A Festival of Art, Science and Technology
22-24 March
Sheffield UK