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Acme ships SAMA5D31-based Acqua SoM



Acme Systems has introduced the Acqua A5, a System on Module (SoM) based on Atmel’s SAMA5D31 ARM Cortex A5 microprocessor (MPU) clocked @ 536MHz.

Additional key specs include up to 512 MB RAM, up to 256 MB Flash, serial EEPROM, micro SD card slot, three USB host ports, JTAG soldering pads on SoM, serial port via SoM connectors and an Ethernet PHY.

The Acqua A5 also features RGB I/F @ 24 bits for LCD TFT + Resistive touch panel I/F, up to 3 TWI compatible I2C, up to 6 serial ports, up to 120 GPIOs, up to 6 PWM and up to 12 A/D @ 12 bits.

“For environments with lots of electromagnetic noise (e.g. DC motors), a metallic shield made by Wurth Elektronik is available as an option. They currently have a very basic baseboard called Berta A5 basic (9 Euros) with the three connectors for the SoM board, and breadboard area (2.54 pitch) for easier access to various signals,” a CNX Software writer explained.

“The company also provides software documentation showing how to build Linux 3.10, generate an Embedded Debian Grip 7.3 root file system, as well as various tutorials. The board is software compatible with Atmel’s SAMA5D3 Xplained board, so the instructions to use the Yocto Project or Debian 7.4 should also work.”

Acqua’s A5 SoM is currently shipping for 49 ($67) to 69 ($94) Euros in single quantity depending on options and as low as 37.24 Euros ($50) in 5K+ quantities.

It should be noted that the Open Yooquik – a recently debuted home automation system – is built around Acme’s Acqua A5 System on Module (SoM).

Aside from the SAMA5D3 MPU, key Yooquik hardware features include:

  • Wi-Fi 802.11 b/g/n (AP or client mode)
  • 868MHz RF transceiver module FSK modulation
  • One USB host port
  • Three filtered inputs (24V max)
  • Two opto isolated outputs (open drain)
  • Relay output
  • Tamper switch
  • MEMS sensors: temperature/humidity, barometer, three-axis accelerometer
  • On board buzzer
  • LiPo 1C battery charger
  • 9-24V DC input power supply
  • 6 expansion connectors for additional modules: UMTS, XBee, MBus radio, RS232, RS485, RS422, NFC/RFID, audio, industrial I/O, A/D converter, custom modules (UART / I2C / SPI)

“Other automation systems connect remote devices [via] wires or WiFi connection,” an Open Yooquik rep wrote on the product’s official page.

“[However], we have chosen a different way: the main controller behaves as an access point or as a WiFi client connected to your home network, whereas all remote devices are connected to the main controller with a RF radio. About 700 meters are covered without repeaters.”

On the software-server side, the Yooquik crew has deployed Node.js, while the RF modules arrive preloaded with firmware to facilitate a true plug-and-play experience. Yooquik also offers easy access to cloud, allowing users to manage multiple devices with a simple API.

“To develop your iOS or Android native app, you can use our Javascript libraries and the amazing Cordova/PhoneGap project,” the rep added. 

”Nothing could be easier to control your home automation system from your smartphone. Forget router NAT configurations: connect your app to our cloud and you manage all your Yooquik devices.”

Interested in learning more about Open Yooquik? You can check out the product’s official page here.

Barobot is an Atmel-based cocktail mixing robot

Barobot – powered by Atmel’s ATmega328 and ATmega8 microcontrollers – is an open source device that pours cocktails by mixing alcohol, soft drinks and sodas. It holds up to 12 bottles, and, according to its creators, is capable of pouring a drink with military accuracy.

In addition, Barobot features over 1,000 cocktail recipes, allowing users to create new ones on the fly. All can be easily accessed via a custom coded app on a tablet touchscreen or smartphone.

“Barobots frame – made of either deep black or transparent acrylic glass, comes in either a self assembly kit or an assembled ‘plug and pour’ version,” a Barobot rep explained in its recent Kickstarter post.

“The flat-pack self assembly kit requires no advanced skills or tools (it’s great fun to put together by itself!). Barobot is also illuminated with over 100 individually controlled LEDs that might be set to a number of light-themes or even synchronized to music.”

On the hardware side, both the carriage board and main board are based on Atmel’s popular ATmega328 MCU. The chips are tasked with collecting and relaying information from sensors as well as giving commands to actuators (motor and servos).

 Meanwhile, the other 12 boards are known as “u-panels” and powered by tiny ATmega8 MCUs. Their primary purpose? Operating 96 LEDs on top of the robot (for bottle and Barobot interior illumination).

“All the PCBs communicate via I2C and ISP protocols in a distributed manner. One of the advantages of this setup is that all those independently operated LEDs that can illuminate the frame and individual bottles in a myriad of different ways,” the rep added.

In terms of software, the PCBs run in Arduino C++ code.

The tablet app – written in Android Java – features:

  • Browsing drink recipes database (shows only cocktails that are possible to create using installed ingredients)
  • Choosing drinks basing on: flavor, ingredients, color and strength
  • Proposing random cocktail recipe (“I feel lucky”)
  • Composing new drinks and adding them to the database
  • Pouring drinks ordered remotely (Sofa server)
  • Showing history of drinks orders defining what ingredients/bottles are installed
  • Defining external ingredients (i.e. not installed in Bartender)
  • Setting light themes generating new light themes
  • Calibrating all aspects of Barobot operation

Interested in learning more? You can check out Barobot’s official website here.

HackADay talks Arduino Zero with Atmel’s Bob Martin

On May 15, Arduino and Atmel debuted the long-awaited Zero. The 32-bit development board packs Atmel’s versatile SAMD21 microcontroller (MCU), which is built around ARM’s Cortex M0+ core.

Key hardware specs include 256kb of flash, 32kb SRAM in a TQFP package and compatibility with 3.3V shields that conform to the Arduino R3 layout.

 The Arduino Zero board also boasts flexible peripherals along with Atmel’s Embedded Debugger (EDBG) – facilitating a full debug interface on the SAMD21 without the need for supplemental hardware.

In addition, EDBG supports a virtual COM port that can be used for device programming and traditional Arduino bootloader functionality.

During Maker Faire Bay Area 2014, the HackADay crew had the opportunity to go hands on with the new board, discussing the Zero with Atmel’s very own Bob Martin.

“There are two USB connectors; one let you access the board as a device or a host while the other connects the debugging hardware. If you’ve never used an On Chip Debugger before it’ll change your life so do give it a try,” writes HackADay’s Mike Szczys.

“When you do move past the initial prototyping phase of your project you can still use the Zero as a debugging tool. There’s an unpopulated 10-pin header (not sure if the small pitch header comes with it or not) which can be used to interface with a target board. Bob also spent some time talking about the configurable 6-pin header which allows you to choose from a range of hardware protocols (SPI, TWI, etc.)”

Interested in learning more about the Atmel-powered Arduino Zero? You can check out the development board’s official page here.

Lil’Bot is the little robot that could

Created by Chris Hakim, Lil’Bot is a low-cost, open-source balancing robot powered by Atmel’s popular ATmega328 microcontroller.

Aside from Atmel’s MCU, key features and specs include:

  • Arduino Uno compatible, programmable via USB (Linux, OS X, Windows).
  • Front, right and left obstacle detection using IR LEDs.
  • Edge detection facilitated by an IR LED.
  • Buzzer plays musical tones and astromech droid sounds.
  • Wheel encoders for precise odometry-based control.
  • Open-source hardware and software.
  • Works with standard Arduino shields.

“About half of the memory and three quarters of the processing power are available after the balancing code and all the rest have taken their share,” Hakim explained in a recent Kickstarter post.

“[There is also] an optional shield that allows Lil’Bot to express its emotions through an emoticon-like LED display. Expressions [include] afraid, amused, angry, blissful, cool, crying, disappointed, embarrassed, happy, impatient, naughty, neutral, nonplussed, outraged, proud, resigned, sad, sarcastic, shocked, smiling and very sad.”

On the software side, Hakim utilizes Lil’Blocks, a block-based programming language based on Fred Lin’s BlocklyDuino, a dialect of Neil Fraser’s Blockly for Arduino.

“Blockly is the Hour of Code’s choice language to introduce children to programming. For the younger child, block programming is little more than assembling Lego bricks, yet allows a firm grasp of basic programming concepts,” he adds.

“Lil’Blocks translates all the block code to Arduino C, ready to compile and load into Lil’Bot from the Arduino environment.”

Interested in learning more? You can check out the official Lil’Bot Kickstarter page here.

Why Makers are important for America’s future



Writing for Time Magazine, Tim Bajarin says the burgeoning Maker Movement is “very important” for the future of America.

As Bajarin points out, the Movement boasts the potential to transform more and more people into active Makers instead of just passive consumers.

“I know from history that when you give makers the right tools and inspiration, they have the potential to change the world. According to Atmel, a major backer of the Maker Movement, there are approximately 135 million U.S. adults who are Makers,” writes Bajarin.

“The overall market for 3D printing products and various maker services hit $2.2 billion in 2012. That number is expected to reach $6 billion by 2017 and $8.41 billion by 2020. According to USA Today, Makers fuel business with some $29 billion poured into the world economy each year.”

Bajarin also says Maker Faires held around the world in various locations are essential for fostering innovation.

“The result is that more and more people create products instead of only consuming them, and it’s my view that moving people from being only consumers to creators is critical to America’s future,” he adds.

“At the very least, some of these folks will discover life long hobbies, but many of them could eventually use their tools and creativity to start businesses. And it would not surprise me if the next major inventor or tech leader was a product of the Maker Movement.”

The full text of “Why the Maker Movement Is Important to America’s Future” can be read on Time Magazine here.

ATmega32u4 drives Hummingbird Duo robotics kit



BirdBrain Technologies (a Carnegie Mellon University spinoff) has debuted the Hummingbird Duo, a robotics kit powered by Atmel’s ATmega32u4 microcontroller (MCU).

“The Hummingbird Duo is essentially two boards in one,” a BirdBrain rep explained in a recent Kickstarter post.

“It operates as either an original Hummingbird controller or as an Arduino Leonardo with an integrated motor/servo shield and improved connectors.”

According to the BirdBrain rep, the Atmel-based Duo controller will be the core of all new Hummingbird kits, with a second Atmel chip, an Attiny24A, tasked with controlling motors and servos.

“The kits will include various additional components as well: motors, servos, vibration motors, LEDs and sensors,” the rep continued.

“All kit components are soldered with 24′ braided wires and terminate in bare, tinned wire to prevent wire fraying. Securely connecting them to the Duo controller is easy due to Duo’s clear labels and spring-loaded terminal blocks.”

On the software side, Hummingbird supports a wide range of programming environments, including CREATE Lab Visual Programmer, Scratch 2.0, Snap! and the official Arduino IDE. More advanced Makers can also write their own firmware with AVR’s GCC.

Interested in learning more about the Atmel-powered Hummingbird Duo? You can check out the project’s official Kickstarter page here.

1:1 with Quin Etnyre of Qtechknow

It’s without question that 13-year-old CEO and whizkid, Quin Etnyre, has already become quite an accomplished Maker changing the world – one Atmel powered Arduino board at a time.

During Maker Faire Bay Area 2014, Quin hosted the “QTechKnow Olympics” robotic challenge featuring Arduino, XBee and FuzzBots.

Quin was also presented with the Maker Faire Editor’s Choice award for his Atmel-based demos and projects.

So what does Quin want to be when he grows up? An educator, user experience designer and electrical engineer.

You can read more about Quin the Maker here, the FuzzBot on Instructables and visit his official website here.

Video: Mel Li talks robotic exoskeletons

Cyberpunk films and novels are often set in post-industrial dystopias characterized by extraordinary cultural ferment and the use of technology in ways never anticipated by its original creators.

As William Gibson noted in Burning Chrome, “the street finds its own uses for things.” Although Gibson wrote those words way back in 1981, they more than aptly describe the cyberpunk build designed by Maker Mel Li, Ph.D that was showcased at Atmel’s 2014 Bay Area Maker Faire booth.

According to Mel, the Costume is an original design inspired by the cyberpunk/fantasy genre work of artists including Masumune Shirow, Eric Canete, Joe Benitez and various modern gaming concept art.

More specifically, the assembly is made from over 60 parts designed in Solidworks and sewn/cut/glued/laser-cut/heat-formed using various techniques.

The rather impressive costume includes color changing LEDs on the spine and front that are controlled by Arduino boards with Atmel AVR and ARM microcontrollers and onboard RGB controllers (respectively) – powered by 16 AA batteries, 1 LiPo rechargeable battery, two 2032 coin cells and one 9-volt battery.

In total, says Mel, there are more than 70 LEDs on the entire costume and over 60 parts.

Atmel powers these Maker Faire projects

Atmel microcontrollers (MCUs) were under the hood of hundreds of projects at Maker Faire Bay Area 2014.

Some of them could be found in the official Atmel (#205) and Arduino (#204) booths, although the majority were spread out in various locations across the expansive San Mateo Maker Faire grounds.

We’ve done our best to track down a number of projects that are powered by Atmel components, but this is by no means a definitive list. If you’d like your Atmel-based project added to the list, please ping us at @Atmel on Twitter and join the conversation by tweeting #AtmelMakes. We will do our best to accommodate your response ASAP. In the meantime, check out our list below:

1Sheeld

Open Garden Hardware

Bare Condcutive

3D printing and micro-manufacturing with Robox

RoboTech Super Car

Wildfire dev board

Arduino controlled train

Bughouse chess clock and a DIY pingpong serving machine

Arduino flex sensor glove

Bionico Hand

Can cells learn?

Mephisto

Cellscope

Crowdsourced Gaming – Balloon Pop!

Dancing water fountain

EDWARD the Robot

Home automation with Arduino

Internet of farming Arduino-based aquaponics

iPhone Controlled Entertainment Center

iQuad Tilt-Rotor Quadcopter

Isopmorphic midi controller keyboard

Kindle Fire VR

Kovacich Overengineering – Custom Lighting Expo

Lil ‘Bot

Makelangelo Art Robot

MakeSmith CNC

ManyLabs: Sensors for Science Education

Mobile 3D scanner

MOJO FPGA dev board

PancakeBot

Pinoccio

Project Gauntl33t

Smart Aquaponics – an IoT application

Smart Phone Injector Keyboard

The Cluck Bucket: A Solar Egg Incubator

TinyDuino

Atmel @ Maker Faire Day 2

Atmel’s jam-packed booth (#205) hosted Makers, modders and hackers on day two of Maker Faire Bay Area 2014.

We showcased a number of uber-cool exhibits and demos throughout the day, with various guest appearances by various personalities such as Massimo Banzi and Sir Mix-A-Lot.

Our Day 1 image gallery is available here – and more Day 2 pictures below!