Category Archives: Resources

Atmel | SMART SAM L21 is winning the low-power battle


EE Times highlights the ongoing game of leapfrog between MCU vendors for the lowest-power solution. Can you guess who’s winning?


Writing for EE TimesRich Quinnell notes that MCU vendors have become engaged in a new game of leapfrog, announcing a slew of products with ever-improving benchmark results and leadership in ultra-low power processing.

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“While this may seem like a marketing game, developers will ultimately be the winners as vendors refine their techniques for saving power. In the past, a low powered MCU also meant low performance, but vendors have been challenging this correlation by offering increasingly powerful MCUs for low-power applications,” he writes. “Developers, however, faced a problem in evaluating these offerings. Traditional specifications such as operating current in mW/MHz and sleep-mode leakage currents became increasingly difficult to evaluate in the face of the multiple power states that devices offered, and in the face of inconsistency in the industry in the descriptions and specifications used to characterize low-power operation.”

The Embedded Microprocessor Benchmark Consortium (more commonly referred to as EEMBC) develops benchmarks to help system designers select the optimal processors and understand the performance and energy characteristics of their systems. EEMBC has benchmark suites spanning across countless application areas, targeting just about everything from the cloud and big data, to mobile devices (Android phones and tablets) and digital media, to the Internet of Things and ultra-low power microcontrollers. In particular, the EEMBC ULPBench power benchmark, which was introduced last year, standardizes datasheet parameters and provides a methodology to reliably and equitably measure MCU energy efficiency.

“This is one of the strictest benchmarks we’ve ever done in terms of setup and such. The benchmark has the MCU perform 20k clock cycles of active work once a second, and sleep the remainder of the second. This way each processor performs the same workload, which levels the playing field with regard to executing the benchmark,” EEMBC President Marcus Levy told EE Times in a recent interview.

Lower

In order to calculate the final ULPMark-CP score, 1,000 is divided by the median value for average energy used per second during each of 10 benchmark cycles. A larger value therefore represents less energy consumed.

Using this benchmark, MCU vendors have begun publishing their results and surpassing one another to temporarily claim their stake at the top of the low-power leaderboard. Still, the leapfrog game is likely to continue for some time. Andreas Eieland, Atmel Director of Product Marketing explained to EE Times, “Low power is an area where everyone is pouring a lot of R&D into, and it has taken on a much faster pace than before. We know we’re the lowest power now, but you never know where your competition is in its efforts. So, we’re already looking at the next step.”

Eieland points out that at first low-power development efforts mainly concentrated on architectural improvements to the CPU, however optimizing the CPU wasn’t enough. This meant companies needed to begin going through every peripheral and optimizing it, looking at every transistor in the product. He adds, “We [Atmel] started developing clock-on-demand features, logic that allows peripherals to operate stand-alone, using the minimum circuitry needed to complete their task, gating away the clock and even establishing a variety of power domains so we could shut down circuits not in use and eliminate even their leakage current.”

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“TI surpassed its own earlier result by announcing the MSP-432 family based on the Cortex M4F. It achieved a ULPBench score of 167.4. While TI was briefing the media on this product, however, Atmel quietly published a ULPBench score of 185.8 for its SAM L21 MCU based on the Cortex M0+, a product announced last year that was scheduled to be released at about this time,” Quinnell reveals.

The Atmel | SMART SAM L21 family delivers ultra-low power running down to 35µA/MHz in active mode, consuming less than 900nA with full 32kB RAM retention, and 200nA in the deepest sleep mode. With rapid wake-up times, Event System, Sleepwalking and the innovative picoPower peripherals, the SAM L21 is ideal for handheld and battery-operated devices in a variety of markets.

As time goes on, we can surely expect to see benchmark scores continue to improve and the competition to pick up. However, despite their differences, everyone can agree that these scores are only a mere starting point for developers seeking the lowest-power device for their design.

“The ULP benchmark isn’t 100% fair; no benchmark can ever be,” Eieland concluded. “But it does take a lot of the marketing out of low power, and it gives you a relative comparison you can use.”

Want to read more? Head over to the entire EE Times write-up here.

Parse for IoT is connecting hardware with the cloud


Announced at F8, Parse for IoT is an official new line of SDKs for connected devices. Here is what Facebook’s Parse team had to say…


At Parse, our passion is making developer experiences easier on any platform—including platforms that extend beyond mobile. Of these platforms, one of the most exciting new spaces is the Internet of Things. We believe that connecting more hardware devices with the cloud has the potential to change the world for the better. We are already seeing devices that add tremendous value to people’s lives, from wearables that help you sleep better to insulin trackers that aid people living with diabetes.

Parse

But, as with mobile, connecting these devices to the cloud can be difficult. In addition to maintaining a backend, developers must contend with notoriously constrained environments on the client. We’ve been listening to feedback from a wide range of Parse customers who are already using our platform in hardware products — like Chamberlain, who makes a line of smart garage door openers that interact with our REST API; Milestone Sports, who make the wearable running tracker Milestone Pod; and Roost, who make smart batteries for smoke detectors. From these conversations, we decided we could go one step further.

Today, we’re proud to announce Parse for IoT: an official new line of SDKs for connected devices.

Arduino SDK

The first is an Arduino SDK targeted for the Arduino Yún, a [ATmega32U4 based] microcontroller board with built-in Wi-Fi capabilities. The SDK interface is in Wiring, and, in the spirit of Arduino, we designed it to be as simple as possible. For example, all it takes is a few lines of code to save temperature data from a smart thermostat:

ParseCreateObject create;
create.setClassName("TemperatureReading");
create.add("currentTemperature", 175.0);
create.execute();

From there, the data will be available in your Parse app ready to be retrieved by your mobile app, another device, or simply logged for analytics purposes. Beyond the Yún, we’re already working on SDKs for upcoming platforms such as the Arduino Zero [Atmel | SMART SAM D21] with the Wi-Fi 101 Shield [ATWINC1500].

In addition, we’re releasing an Embedded C SDK, targeted for Linux and Real Time Operating Systems (RTOS). These open source SDKs serve as reference implementations that are being used by leading chipset manufacturers to provide support for their hardware platforms. If you are a chipset manufacturer interested in working with us, please reach out at iotpartners@fb.com.

The C SDK provides a simple interface for our REST API. For example, to save the same temperature data you would do:

char data[] = "{ \"currentTemperature\": 175.0 }";
parseSendRequest(client, "POST", "/1/classes/TemperatureReading", data, NULL);

You’ll be able to find these SDKs on GitHub, as well as a full set of Quick Starts and Guides on Parse. With these SDKs, your device will be able to receive push notifications, save data, and take advantage of the Parse Cloud. It’s easy to get started from scratch, and the process should be very familiar for developers who already use Parse. Check out the Quick Start guide and start adding Parse to your hardware device in minutes.

The possibilities are endless. You could make a smart thermostat that can be controlled via a mobile app, or a security camera that saves images every minute, or even a music device that can be controlled via a web app. We’re so excited to see what you build.


This post was originally written by James Yu and published on the Parse Blog. You can read it here

Video: Taking a closer look at the Atmel | SMART SAM S70 and E70 MCUs


ARMDevices.net explores the “world’s fastest ARM Cortex-M.”


Earlier this year, Atmel expanded upon its Atmel | SMART ARM-based microcontroller family with the launch of four new series of Cortex-M7 based devices, including the SAM S70 and E70 MCUs.

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The new devices enable users to scale-up performance and deliver SRAM and system functionality, while keeping the Cortex-M family ease-of-use and maximizing software reuse. The MCUs contain advanced memory architectures with up to 384KB of multi-port SRAM memory, out of which 256KB can be configured as tightly coupled memory delivering zero wait state access at 300MHz. With over four times the performance of current Atmel ARM Cortex-M based MCUs running up to 300MHz, larger configurable SRAM up to 384kB and higher bandwidth peripherals, the new processors give designers the right connectivity, SRAM and performance mix for their industrial, connectivity and automotive designs.

In particular, the SAM S70 series is based on the Cortex-M7 core plus a floating point unit (FPU) extending the general purpose product portfolio with maximum operating speeds up to 300MHz, up to 2MB of Flash, dual 16KB of cache memory and up to 384KB of SRAM with an extensive peripheral set including high-speed USB host and device plus high-speed PHY, up to 8 UARTs, I2S, SD/MMC interface, a CMOS camera interface, system control and analog interfaces.

SAM70

Aside from the S70 series features, the recently-revealed SAM E70 also includes a 10/100 Ethernet MAC and Dual Bosch CAN-FD interfaces with advanced analog features making them ideal for connectivity applications. The SAM E70 is upwards compatible with Atmel’s SAM4E series.

“All the series offer two Advanced Analog Frontend (AFE) with dual sample and hold capability and Up to 16-bit resolution with hardware oversampling. They also have programmable gain for small signal input. All series offer real-time event management through direct connection between PWM, Timer and ADC for motor control application,” ARMDevices.net writes. “Both series are based on the same feature set, the only difference is coming from the Ethernet, CAN support (SAME70 integrates Ethernet and CAN). Atmel offers all series in BGA and QFP from 64 to 144 pins. Small 64-pin pin count option offers an entry level form factor high performance MCU. All series support the extended Industrial temperature range from -40 to 105°C.”

Watch below as ARMDevices.net catches up with Lionel Perdigon, Atmel Product Marketing Manager, to discuss the latest addition to the Atmel | SMART family.

Cross-board and cross-vendor embedded development with PlatformIO


Ivan Kravets, PhD, Researcher and Software Architect, explains how PlatformIO is a cross-platform code builder and the missing library manager.


We live in a time where the wall between the hobbyist and microcontroller (MCU) world has been completely broken. Just a few years ago, no one could have imagined that MCUs would go on to become popular with people who are not familiar with electronics. Nowadays, you don’t need to have deep knowledge in PCB design, assembly language or become buried under MCU application notes to get your first experience with embedded world.

Moreover, vendors have realized that there is a need to decrease entrance threshold and to propose alternatives to existing professional development kits. It was at this point when popular prototype boards (like the Atmel based Arduino) were conceived. Comfortable board form-factor, rich peripheral and huge community of enthusiasts gave rise to a new trend, which can be called “Embedded Boards for Everybody.”

Still, there is a problem related to programming instruments. It’s excellent that MCU vendors have spent quite a bit of efforts to create rich HDKs/SDKs and comfortable IDEs which allow the performing of hardware debugging and tracing. However, all of these features are of interest mostly for those who have already decided which specific MCU they will use for the project. So, at this point the market has generated another demand: to make cross-MCU development easy. This is where Arduino and its burgeoning community have played an important part: cross-platform processing-based Arduino IDE; simple and easy-to-use wiring-based framework with high-level API; incredible count of shields (sensors, actuators, etc.), and a lot of different libraries which cover significant part of hobbyist tasks. These have all made embedded development much easier. Yet, while Arduino enables development for varying MCUs, it is still a commercial product. As a result, it is inherently restricted to Arduino boards.

Saving time for the task in hand

It doesn’t come as a big surprise today when an interesting embedded project is invented by people who have not had any earlier professional experience with MCUs. I feel that this phenomenon can easily be explained with my motto: “Creativity comes from talent and never from knowledge.” Talented people and those with ideas are interested in quick prototype instruments which don’t require big efforts to use them. Many of these people prefer to concentrate on the task in hand, and don’t want to install too much of additional software, play with confused manual or get used to new additional IDE… So far so good, as many of vendor IDEs do address these issues.

However, what if for your next project, you need some board or MCU which aren’t supported by your favorite vendor? With devices becoming increasingly smaller, wireless and battery-powered, this is occurring more frequently. Then, all of a sudden, you have a problem: development platforms from the different vendors tend to recommend their own IDEs and approaches. Subsequently, you’re likely to have several IDEs installed, each with its own requirements (to make things worse, these requirements sometimes conflict with each other), and with an ongoing switching back and forth. Ouch! It’s not before long that this quickly becomes a major headache, and ironically, headache is exactly what these development platforms aim to avoid.

Developer, meet PlatformIO. PlatformIO, meet developer.

Here is where PlatformIO comes in, an open-source cross-platform code builder and library manager (available on GitHub). After many months of development, we have finally released PlatformIO 1.0 which has been recommended for production use.

I admit that, as one of the authors behind PlatformIO, I cannot be 100% objective when speaking about it, but I’ll try.

PlatformIO allows users to:

  • Decide which operation system they want to run development process on (You can even use one OS at home and another at work.)
  • Choose which editor to use for writing the code (It can be pretty simple editor or powerful favorite IDE.)
  • Focus on the code development, significantly simplifying support for the different development platforms, boards and MCUs.

Cross-platform code builder

platformio-embedded-development

PlatformIO is independent from the platform, in which it is running. In fact, the only requirement is Python, which exists pretty much everywhere. What this means is that PlatformIO projects can be easily moved from one computer to another, as well as that PlatformIO allows for the easy sharing of projects between team members, regardless of operating system they prefer to work with. Beyond that, PlatformIO can be run not only on commonly used desktops/laptops but also on the servers without X Window System. While PlatformIO itself is a console application, it can be used in combination with one’s favorite IDE or text editor such as Arduino IDE, Eclipse, Visual Studio, Vim or Sublime Text.

Alright, so PlatformIO can run on different operating systems. But more importantly, from development perspective at least, is a list of supported boards and MCUs. To keep things short: PlatformIO supports over 100 embedded boards (all boards which are supported by Arduino IDE) and all major development platforms including Atmel AVR and Atmel | SMART, among many others.

How it works

Without going too deep into PlatformIO implementation details, work cycle of the project developed using PlatformIO is as follows:

  • Users choose board(s) interested in project configuration file – “platformio.ini.”
  • Based on this list of boards, PlatformIO downloads required toolchains and installs them automatically.
  • Users develop code and PlatformIO makes sure that it is compiled, prepared and uploaded to all the boards of interest.

Cross-board code and continuous integration

As aforementioned, PlatformIO supports cross-board code development: multiple boards can be selected in a single project, and PlatformIO will apply all respective environments and will compile the code against each of boards within the project. And for the icing on the cake, this feature can be easily integrated with Continuous Integration System (such Jenkins, Travis CI and Circle CI). It should help to ensure that, at any point, a code at least compiles on all target boards, thereby eliminating costly, time-consuming and error-prone process of fixing these cross-platform issues at later stages, when your team members have already forgotten what the code was about.

The missing library manager

platformio-library-manager

With an overall trend heading towards open-source, embedded development is no exception. Indeed, there are countless embedded libraries already available today, such as high-level communication with sensors, actuators or even full-fledged IoT implementations. Nevertheless, every time you need something like it, there is a big underlying question around where to finding this specific library, and how to make it work with your environment.

To address this problem, PlatformIO Library Manager provides an ecosystem for library writers and library users. Using library manifest file (library.json), writers have an ability to describe library. This manifest is not only about such things as authors, description, keywords, and version, but first and foremost about technical information, ranging from location of source code and examples to CVS repository and dependencies. This manifest file is generic enough to be used by other library managers (if somebody else wants to write them).

For the library users (aka developers), PlatformIO provides two ways for searching for libraries. The first way is via Command Line Interface, the other is Web 2.0 Library Search with functionality such as library categories, different framework and platform filters, and advanced search syntax with boolean operations.

PlatformIO Library Manager can be integrated into the most popular IDEs and is capable of extending their functionality, including all-important automated updates of installed libraries. For instance, Arduino IDE benefits of using PlatformIO Library Manager are summarized in the following table:

Table

Conclusion

As noted above, as an author, I cannot be objective when speaking about PlatformIO. However, I am sure that for any kind of cross-board and cross-MCU development PlatformIO provides substantial benefits. PlatformIO takes the hassle out of installing all the tool chains you need, and allows you to build your code for many boards with a single command. PlatformIO Library Manager not only helps you to find and install libraries, but has an option to keep them up to date as well.

And as PlatformIO is an open-source project, you shouldn’t care about price or vendor lock-in. So, what are you waiting for? Give it a try (and if you don’t like it, you’ll get back that zero bucks you’ve paid for it, some restrictions apply, batteries not included).

UPDATE: PlatformIO 1.2.0 is now available. To explore the release history, you can head here.

Atmel uses ANSYS simulation solutions to power the IoT


IC and system simulation tools are enabling a power-efficient, cost-optimized and reliable Internet of Things ecosystem. 


Atmel is currently using engineering simulation solutions from ANSYS to model, analyze and optimize our broad Internet of Things (IoT) product portfolio from scalable embedded MCUs and MPUs to wireless connectivity gateways.

ANSYS

Power consumption, data security and communication standards compliance are critical design requirements for connected applications. Striking an optimal balance among such concerns as power efficiency, antenna integration performance, security and cost is a key design challenge faced by engineers developing devices that are paving the way for the proliferation of IoT.

The industry-leading SmartConnect WINC1500 lEEE 802.11 b/g/n IoT network controller SoC along with the latest family of Atmel | SMART ARM Cortex-M0+ MCUs deliver extreme low-power, compact size and comprehensive connectivity. The Atmel design team leveraged ANSYS HFSS, ANSYS RedHawk and ANSYS Totem to design and validate these complex SoCs and platforms used across multiple IoT application segments. ANSYS simulation solutions help enable the company to meet stringent power/performance requirements, ensure reliable operations across a wide-range of frequencies and deliver products with tight time-to-market constraints.

“As a leading provider of IoT solutions, we are committed to delivering the most comprehensive and highly integrated IoT solutions with world-class accuracy, performance, reliability and ease-of-use,” explained Marc Rougee, Atmel Vice President of Strategic Initiatives. “ANSYS engineering simulation tools give us the confidence that the design of our products will meet our customers’ power and performance targets to enable next-generation secure and connected designs for IoT.”

IoT Campaign Banner_HP_Origami_ 980 X352

For those unfamiliar with ANSYS, the Pittsburgh-based company provides clarity and insight to customers’ most complex design challenges through fast, accurate and reliable engineering simulation. Their technology allow organizations, spanning across a number of industries, to predict with confidence that their products will thrive in the real world.

“IoT is creating tremendous growth opportunities for the entire electronics ecosystem, from semiconductor manufacturing to systems integration to applications development. ANSYS is excited to be a partner to the Atmel design teams as they develop innovative technologies that fuel machine-to-machine communication and the industrial Internet,” added Aveek Sarkar, ANSYS Vice President.

Interested in learning more? Read the entire ANSYS announcement here. Otherwise, browse through Atmel’s extensive lineup of IoT solutions that are enabling a smarter, more secure connected world.

IAR Systems updates development tools for ARM Cortex-M7 devices


IAR Systems shortens build times in leading development toolchain for ARM-based devices.


Version 7.40 of the incredibly-popular IAR Embedded Workbench for ARM has introduced support for ARM Cortex-M7 microcontrollers from Atmel. Beyond that, the tools now feature parallel build for shorter build times, as well as an integration of IAR Systems’ new tool C-STAT for powerful static code analysis.

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As you know, the ARM Cortex-M7 processor is the most recent addition to the ARM Cortex-M family. Not only focused on energy efficiency and high-performance, the MCUs are intended for use in a wide-range of applications including automotive, industrial automation, medical devices, and of course, the burgeoning Internet of Things.

The new version of IAR Embedded Workbench adds support for ARM Cortex-M7 devices from Atmel, including support for the double precision floating point unit. This covers the recently-revealed Atmel | SMART SAM E70, SAM S70 and SAM V70. In addition to these MCUs, support for a number of ARM Cortex-based devices from several other vendors have also been added.

In order to speed up build times, version 7.40 introduces parallel build. Users can easily set the compiler to run in several parallel processes and make better use of the available processor cores in the PC. This feature can have a major impact on reducing the build times of the compiler.

The add-on product C-STAT for powerful, integrated static code analysis is now available. Static analysis finds potential issues in code on the source code level and can be used to prevent errors such as memory leaks, access violations, arithmetic errors and array and string overruns. The analysis performed by C-STAT improves code quality and aids alignment with industry coding standards. It checks compliance with rules as defined by MISRA C:2004, MISRA C++:2008 and MISRA C:2012, as well as hundreds of rules based on CWE (the Common Weakness Enumeration) and CERT C/C++, for example. Users can easily select the rule set or individual rules to check their code against, and the analysis results are provided directly in the IAR Embedded Workbench IDE.

Interested? Head over to IAR Systems’ official page to learn more. Also, as of late last year, over 1,400 new example projects could be found in IAR Embedded Workbench, which supports Atmel’s entire portfolio of MCUs and MPUs.

Turning on a lamp via the Internet the Big Bang Theory way


A team of Atmel Norway engineers decided to make their own rendition of the Big Bang Theory Internet-controlled lamp scene. (Yes, even Sheldon Cooper would approve of this one.) 


How many of you are fans of the CBS hit sitcom series, Big Bang Theory? Well, you’re in luck. If you recall an episode from the show’s first season, entitled “The Cooper-Hofstadter Polarization,” the team of Sheldon Cooper, Leonard Hofstadter, Howard Wolowitz and Raj Koothrappali successfully turned on a lamp via the Internet using an X-10 system.

To do so, the gang sent signals across the web and around the world from their apartment to connect not only their lights, but other electronics like their stereo and remote control cars as well.

“Gentlemen, I am now about to send a signal from this laptop through our local ISP racing down fiber optic cable at the of light to San Francisco bouncing off a satellite in geosynchronous orbit to Lisbon, Portugal, where the data packets will be handed off to submerged transatlantic cables terminating in Halifax, Nova Scotia and transferred across the continent via microwave relays back to our ISP and the external receiver attached to this…lamp,”  Wolowitz excitedly prefaced.

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What’s funny is, the technology that the group of sitcom scientists was simulating could have just as well been done using a Wi-Fi network controller, like the WINC1500 module. However, at the time of airing back in March of 2008, open access for Internet users looking to control “things” around the house was seemingly something only engineers and super geeks thought possible.

In an effort to generate awareness around the upcoming IoT Secure Hello World training series, a team of Atmel Norway engineers decided to make their own rendition of the Big Bang Theory lamp scene using the ATWINC1500 IEEE 802.11b/g/n network controller and an Atmel | SMART SAM D21 Xplained Pro board, all secured by Atmel CryptoAuthentication devices.

After watching the Trondheim-based crew’s Cooper-Hofstadter IoT experiment above, be sure to check out a detailed description of the technology behind the project and learn more about the IoT Secure Hello World Tech on Tour seminar below.

Video Diary: A look back at Embedded World 2015


Weren’t able to join us in Nuremberg? 


With another Embedded World in the books, here’s a look back at some of Atmel’s latest smart and securely connected solutions that are ready to power next-generation Internet of Things (IoT) applications.

Andreas von Hofen shows off the new automotive grade ARM Cortex-M0+-based SAM DA1. The recently-revealed family of MCUs feature an integrated peripheral touch controller (PTC) for capacitive touch applications.

Geir Kjosavik demonstrates a QTouch-based water level sensing application that highlights its advanced HMI and sensing capabilities. Notable uses for this solution include automotive liquid containers and coffee machines.

Dr. Atta Römer explores the latest advancements in phase measurement by exhibiting various localization applications based on 802.15.4 transceivers. Among those examples is Agilion, who showed off its latest e-ink display ID badge based on an Atmel transceiver that is capable of tracking employees in emergency situations, transmitting data and managing access.

Ingolf Leidert addresses Atmel’s newest development kit for ZigBee Light Link solutions using a pair of SAMR21ZLL-EK boards. In this particular demonstration, one board served as a ZigBee LightLink remote, while the other acted as a light.

Controllino is an open-source programmable logic controller (PLC) built around ATmega328 and ATmega2560 microcontrollers. The startup’s CEO Marco Riedesser went 1:1 with Artie Beavis to delve deeper into the Arduino-compatible PLC that enables Makers and designers to produce and control a wide-range of IoT projects, ranging from industrial to home automation applications.

Lionel Perdigon introduces the newest series in the Atmel | SMART ARM Cortex-M portfolio, the SAM E70 and the SAM S70. These Cortex-M7-based MCUs are ideal for connectivity and general purpose industrial applications, while the auto-grade SAM V70 and SAM V71 are perfectly suited for in-vehicle infotainment, audio amplifiers, telematics and head unit control.

The Internet of Things requires a system-level solution encompassing the whole system, from the smallest edge/sensing node devices to the cloud. That is why Atmel has partnered with best-in-class cloud partners — including PubNub, Proximetry and Arrayent — that can support a variety of applications for both Tier-1 OEMs and smaller companies. As Ramzi Al-Harayeri explains Atmel has integrated the partners’ technologies into Atmel’s cloud solutions framework adding the cloud platform functionality seamlessly to all of the company’s wireless MCU offerings.

Thomas Wenzel showcases the latest version of Atmel’s connected car solution, AvantCar 2.0. Focusing on user requirements for next-generation vehicles, this futuristic center console concept delivers an advanced human machine interface (HMI). Beyond that, the new centerstack includes curved touchscreens highlighting HMI in upcoming automobiles using Atmel technologies including XSense, maXTouch, AVR MCUs and local interconnect network.

Bosch Sensortec’s Fabio Governale and Divya Thukkaram unveil the latest extension board for the incredibly-popular Xplained platform. Featuring a BNO055 intelligent 9-axis absolute orientation sensor, the next-gen device connects directly to Atmel’s Xplained board making it ideal for prototyping projects for the Internet of Things, wearables and gaming markets, as well as for applications like personal health and fitness, indoor navigation, and others requiring context awareness and augmented reality for a more immersive experience.

David Lindstrom of Percepio takes us through some of the innovative features of Atmel Studio 6.2, including the MTB support available on the new SAM D21 board. As the demo reveals, it’s super easy to get started, enable Trace View and run the system using the all-in-one collaborative environment for embedded design.

Sankaranarayanan Kitchiah delves deeper into Atmel’s BLDC motor control development platform using a SAM D21 MCU and the Atmel Data Visualizer (ADV) application.

EMAC releases a SODIMM-based take on the Atmel | SMART SAMA5D3


As its name implies, the ‘A5D36 is a SoM based on the Atmel | SMART ARM Cortex-A5 SAMA5D36.


EMAC has launched the SoM-A5D36, a system-on-module that runs Linux on a Cortex-A5-based Atmel SAMA5D3 processor, and offers up to 4GB of Flash, industrial temperature, and an optional carrier board. The wide temperature, fanless ARM 536 MHz SoM features 10/100/1000 BaseT Ethernet along with up to six serial ports. Beyond that, the board boasts up to 16MB of serial data flash and up to 512MB of LP DDR2 RAM, as well as supports LCD and resistive touch interfaces.

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This isn’t the first time the Atmel | SMART SAMA5D3 has experienced some love from computer-on-module (COM) vendors. In fact, the Cortex-A5-based SoC has shown up on the ShiraTech AT-501, the Acme Systems Acqua A5, and the MYIR MYC-SAMA5D3X — all of which except the Acqua A5 use SODIMM connectors.

Using the same small 200-pin SODIMM form factor utilized by other EMAC SoM modules, the SoM-A5D36 packs all the core ARM processor functionality, including Flash, memory, serial ports, Ethernet, I2S audio, PWMs, timer/counters, A/D, digital I/O lines, clock/calendar, and more. The SoM-A5D36 is also designed to plug into a carrier board that contains all the connectors and any custom I/O required for an application. This approach enables a user to design a custom carrier board that meets for I/O, dimensional and connector requirements without having to worry about the processor, memory and standard I/O functionality.

Key specs of the SoM-A5D36 include:

  • Processor: Atmel | SMART SAMA5D36
  • Memory:
    • Up to 512MB LP DDR2 SDRAM
    • 16MB serial data flash
    • Up to 4MB eMMC flash
  • Networking: Gigabit Ethernet PHY; optional 2x GbE
  • Primary I/O:
    • 3x USB 2.0 host (1x includes device support)
    • 6x serial (4x defined) — 1x full, 3x RTS/CTS, 2x no handshake
    • 2x I2C
    • 2x CAN
    • I2S audio
    • 2x SD
    • 22x GPIO
  • Secondary I/O:
    • 24-bit LCD controller
    • 12-bit, 4-wire, analog resistive touch controller
    • 2x CAN
    • 2x SPI (“3 SPI CS”)
    • 2x I2C
    • 4x PWM
    • 6x ADC (12-bit)
    • 5x timer/counters, 3x prog. clock, RTC, reset, LEDs
    • External address data bus
  • Operating temperature: -40 to 85°C
  • Power: +3.3V
  • Dimensions: 67 x 60mm (200-pin SODIMM)
  • Operating system: EMAC OE Linux

Interested in learning more? Head over to EMAC’s official page here.

Photos: Atmel @ Embedded World 2015


Weren’t able to join us in Nuremberg? Here’s a look back at what you missed from Embedded World 2015.


Well, another Embedded World has drawn to a successful close. With the Internet of Things (IoT) undoubtedly the focal theme of this year’s show, Atmel took center stage by exhibiting a number of new smart and securely connected solutions.

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To better demonstrate the company’s extensive lineup of IoT devices, Atmel’s (jam-packed) booth played home to various technology zones highlighting the latest (and smartest) in connectivity for automotive, industrial, smart living, security, the DIY community as well as cloud computing with partners like PubNub, Proximetry and Arrayent.

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In addition, the area showcased a number of popular products on the market today that are powered by Atmel microcontrollers, such as the Logitech Wireless Solar Keyboard (XMEGA), Braun Series 7 Electric Shaver (AVR), Philips Hue (ATmega256RFR2) and Kärcher’s Window Vac (tinyAVR) — which all proved to be quite a hit amongst attendees.

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Aside from a series of technical sessions and presentations around CryptoAuthentication, the week also ushered in a wave of some pretty big announcements — which garnered the attention of media including GigaOM, Electronics Weekly and EE Journal — most notably the debut of the SAM DA1 automotive grade MCUs, the launch of an Xplained extension board with Bosch intelligent sensor, as well as a newly-formed partnership with Sequitur Labs to bring robust adaptive security to the IoT.

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Even before the show opened its doors, the company kicked off the Embedded World experience aboard a train ride from Munich to Nuremberg on Monday, where a handful of Atmel VIPs were joined by a dozen or so journalists, editors and industry analysts.

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Oh, and who could forget AVR Man? Once again, the Maker community’s favorite superhero captured the hearts of many, both students and experienced engineers alike.

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Want to browse through all the photos from this past week’s show? View the entire album here.