Imagination’s MIPS based wearable and IoT ecosystem is the alternative

image… the technological alternative relative to what is given in the Wearables Trend and Supply Chain, Samsung Gear Fit as the state-of-the-art wristband wearable, i.e. the hybrid of a smartwatch and a fitness band, as a demonstration [‘Experiencing the Cloud’, May 17, 2014] post

Wearable and IOT [designreuse YouTube channel, May 2, 2014]

By Mike Hopkins, Senior Technology marketig Specialist, Imagination Technologies at ChipEx 2014, Tel Aviv, Israel

Imagination highlights solutions for IoT and wearables at EE Live!

Featuring hands-on demonstrations of technologies
and end products

EE Live! Conference & Expo, San Jose, CA – 1st April, 2014 – Imagination Technologies (IMG.L) will highlight its expertise and momentum in IoT and wearables at the EE Live! Conference and Expo, being held March 31st – April 3rd at the McEnery Convention Center in San Jose, CA.

Imagination is working closely with partners to enable creation of SoCs for IoT and wearable devices that feature extended battery life and enhanced security, as well as device and infrastructure ecosystems, all driven by the right IP solutions.

Says Kevin Kitagawa, director of strategic marketing at Imagination: “Imagination has all of the IP needed to create complete, class-leading IoT and wearable solutions, and our technologies are already powering numerous SoCs designed for these applications. Through industry initiatives such as the AllSeen Alliance, and key partners including Google, Ineda, Ingenic, Microchip Technology and others, we are building the ecosystems and technologies needed for a new generation of IoT and wearable SoCs.”

In its booth number 816 at EE Live!, Imagination will feature hands-on demonstrations and highlight many of its technologies for IoT and wearables including:

  • MIPS Warrior CPUs: a highly scalable family of CPUs including the new MIPS M-class M51xx cores, which have features that make them ideal for IoT and wearables including DSP engine, small code size, hardware virtualization support and ultra-secure processing
  • PowerVR GPUs: the de facto standard for mobile and embedded graphics including the new PowerVR Rogue 6XE G6050, one of the industry’s smallest OpenGL ES 3.0-compliant GPUs delivering high fillrate and exceptional efficiency—perfect for a range of high-end IoT devices
  • Ensigma Series4 Explorer radio communications processors (RPUs): a unique universal and highly scalable solution for integrating global connectivity and broadcast communications capabilities into SoCs, including solutions for Wi-Fi and Bluetooth LE (low Energy)
  • FlowCloud: an application-independent technology platform for emerging IoT and cloud-connected devices, enabling rapid construction and management of device-to-device and device-to-cloud applications.
  • PowerVR Series5 video processors (VPUs): the most efficient multi-standard and multi-stream video decoders and encoders, which offer a range of solutions for video intensive IoT applications such as security cameras or wearable devices such as smart glasses
  • PowerVR Raptor imaging processor cores: scalable and highly-configurable solutions which join other PowerVR multimedia cores to form a complete, integrated vision platform that saves power and bandwidth for today’s camera applications and other smart sensors
  • Caskeid: unique, patented technology that delivers exceptionally accurate synchronized wireless multiroom connected audio streaming for audiophile-quality stereo playback with less than 25µs synchronization accuracy
  • Codescape: a complete, proven and powerful debug solution that supports the full range of MIPS CPUs, offers Linux and RTOS awareness features, and provides heterogeneous debug of SoCs using one or more MIPS and Ensigma processors

Imagination will also feature IoT and wearable related products and technologies including:

  • New MIPS-based IoT development platform “Newton” from Ingenic Semiconductor, which integrates CPU, Flash, LPDDR, Wi-Fi, Bluetooth, NFC, PMU and various sensors on a single board around the size of an SD card
  • imageDevelopment boards for MIPS including those for Microchip Technology’s 32-bit PIC32MZ MCUs and a new a complete low-cost MIPS-based Android and Linux platform for system developers
  • Comprehensive development tools for all MIPS CPUs, including the latest GNU tools for Linux and bare-metal embedded systems from Mentor Graphics’ Sourcery CodeBench, and Imperas’ high-speed instruction-accurate OVP models and QuantumLeap parallel simulation acceleration technology
  • Smartwatches that are shipping today based on the MIPS architecture, including the SpeedUp Smartwatch as well as those from Tomoon, HiWatch, SmartQ, Geak and others
  • Toumaz’ solutions for the SensiumVitals® System, an ultra-low power wireless patch remotely managed via Imagination’s FlowCloud technology
  • FlowTalk and FlowAudio – Imagination’s solutions for connected audio and cross-platform V.VoIP/VoLTE, leveraging the FlowCloud

Imagination’s vice president of strategic marketing, Amit Rohatgi, will participate in a Technology Workshop during EE Live!, “The Role of Embedded Systems in the Internet of Everything,” sponsored by the Chinese American Semiconductor Professionals Association (CASPA). The event will be held on Wednesday, April 2nd, from 5:00 p.m. – 8:00 p.m. For more information and to register, visit http://www.caspa.com/node/6349.

About Imagination Technologies
Imagination is a global technology leader whose products touch the lives of billions of people throughout the world. The company’s broad range of silicon IP (intellectual property) includes the key multimedia, communications and general purpose processors needed to create the SoCs (Systems on Chips) that power all mobile, consumer, automotive, enterprise, infrastructure, IoT and embedded electronics. These are complemented by its unique software and cloud IP and system solution focus, enabling its licensees and partners get to market quickly by creating and leveraging highly differentiated SoC platforms. Imagination’s licensees include many of the world’s leading semiconductor manufacturers, network operators and OEMs/ODMs who are creating some of the world’s most iconic and disruptive products. See:www.imgtec.com.

Creating next-generation chips from the ground-up for wearables and IoT [Imagination Blog, April 1, 2014]

There has been a lot of momentum lately around Imagination’s initiatives and technologies focused on creating a new generation of chips built specifically for IoT and wearable use cases. We thought we’d take a moment to fill you in.

The problem

Today, low-end IoT devices and wearables typically use multiple general purpose chips to achieve microcontroller, sensor and radio functionality, leading to expensive, compromised solutions. At the high end, devices such as smartwatches use existing smartphone chips, leading to overpowered, expensive devices.

The solution from Imagination

To reach the incredible volumes predicted by analysts, SoCs for wearable devices and IoT must be designed from the ground-up. Working with our partners, Imagination is enabling the design of new chips that extend battery life, enhance data and device security and feature the right CPU, graphics, video and multi-standard connectivity solutions. We’re also focused on building the needed standards, operating environments, and other ecosystem technologies to support these chips.

Imagination is proud to already have our IP in such SoCs, and our customers are giving us great feedback on our wearables roadmap. Together with industry initiatives such as the AllSeen Alliance or the cool new Android Wear from Google, and key partners includingIneda Systems, Ingenic Semiconductor, Microchip Technology and others, we are taking a leading role in building the ecosystems and technologies needed for a new generation of SoCs.

Extending battery life

With the always-on requirement for sensors in most wearables and IoT devices, together with their tiny form factors, battery life is a more critical concern for designers than ever before. Using power and area efficient silicon IP is therefore a must.

In wearable and IoT applications that require a CPU, an intelligent hierarchy of CPUs optimized for specific tasks can lead to extremely low power consumption. For example, an SoC can use a MIPS CPU such as a new Warrior M-class core, which achieves the highest CoreMark/MHz scores for MCU-class processors, to perform the function of monitoring sensors and also to manage the connectivity peripherals. When the SoC needs to process or analyze data, the system can wake up other CPUs in the system to perform their dedicated tasks. Such an implementation offers key benefits for extending battery life in wearables and IoT devices.

Ineda, a developer of low-power SoCs, is uniting various Imagination IP cores in its ultra-low power Wearable Processing Units (WPUs) designed to reduce power consumption in a variety of devices, including fitness bands, smartwatches and IoT. With unique combinations of Imagination’s MIPS CPUs and highly efficient PowerVR GPUs, the new Ineda WPUs represent one of the first SoC architectures built specifically for this new generation of devices.

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Ineda Systems’ WPUs will address the wearable platforms from a ground-up manner

Enhancing security

As more and more devices are connected to the cloud and each other, security becomes an ever-growing concern. Imagination has the right IP for public key infrastructure and crypto functions needed to provide trusted execution environments, secure boot, secure code updates, key protection, device authentication and IP/transport layer data security to transmit data to the cloud. Virtualization and security features across the range of MIPS Series5 Warrior CPU cores make them ideal for meeting next-generation security needs.

In space-constrained, low-power systems such as IoT or wearable devices, a virtualization based approach could be used to implement a multiple-guest environment where one guest running a real-time kernel manages the secure transmission of sensor data, while another guest, under RTOS control, can provide the multimedia capabilities of the system. For applications that demand an even higher level of security, the new MIPS Warrior M-class cores include tamper resistant features that provide countermeasures to unwanted access to the processor operating state. A secure debug feature increases the benefit by preventing external debug probes from accessing and interrogating the core internals.

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MIPS M51xx CPUs support multiple guest operating systems

Driving new ecosystems and standardization efforts

Due to small device size, as well as a new and different functionality required in emerging IoT and wearable devices, much of the device and infrastructure ecosystems will be different than what’s needed for smartphones and other connected products. This includes standards in the areas of APIs, device-to-device communications, data analytics, device authentication, low-power connectivity and protocols, and even operating environments, which are critical to driving consumer and industry adoption.

At Imagination we are partnering with Google and other industry players on Android Wear, a project that extends Android to wearables, beginning with smartwatches. Already a strong player in the Android ecosystem, MIPS is one of the three CPU architectures fully supported by Google in each Android release, including the latest Android 4.4 KitKat.

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Images from the Android Wear Developer Preview site

To drive ecosystem development for IoT, we’ve also recently joined the AllSeen Alliance, which has been formed to create an open, universal development framework to drive the widespread adoption of products, systems and services that support IoT. The goal is to enable companies and individuals to create interoperable products that can discover, connect and interact directly with other nearby devices, systems and services regardless of transport layer, device type, platform, operating system or brand.

Imagination’s own application-independent FlowCloud technology platform enables rapid construction and management of M2M connected services. Designed to address the needs of emerging IoT and cloud-connected devices, FlowCloud enables easy product registration and updates as well as access to partner-enabled services including FlowAudio, a cloud-based music and radio service that includes hundreds of thousands of radio stations, on-demand programs, podcasts and more. Imagination intends for FlowCloud to be easily integrated with products using the AllSeen Alliance framework.

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Imagination’s FlowCloud enables device-centric services including registration, security, storage, notifications, updates and remote control

Flexible, multi-standard connectivity

Wearables and IoT devices today use existing connectivity standards, such as Wi-Fi or Bluetooth LE (Low Energy), but new standards, such as ultra-low power Wi-Fi extensions, are still in development. This means that choosing future-proofed, flexible solutions is a must for companies who want to create a product today that will still be viable when new standards are ratified.

Imagination’s programmable, multi-standard Ensigma radio processors (RPUs) can accommodate such emerging standards with a powerful and uniquely optimized balance of programmability and hardware configurability, delivering impressive functionality in compact silicon area.

image

The right IP for the application

Imagination’s IP is already integrated into wearable and IoT products that are shipping today. This includes a number of smartwatches that leverage the MIPS architecture and smart glasses with PowerVR graphics and video.

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Imagination’s IP is already integrated into wearable products such as the SpeedUp Smartwatch, the world’s first Android 4.4 KitKat smartwatch

For example, Ingenic Semiconductor is offering a new MIPS-based IoT development platform called Newton. The Ingenic Newton platform integrates a MIPS-based XBurst CPU, multimedia (2D graphics, multi-standard VPU) low-power memory (mobile DDR3/DDR2/LPDDR and flash) 4-in-1 connectivity (Wi-Fi, Bluetooth, NFC, FM) and various sensors on a single board around the size of an SD card (find out more about Ingenic Newton here).

In addition, MIPS-based 32-bit PIC32MZ MCUs from Microchip Technology [all details are given here in the 2nd half of this post] are ideal for a number of wearable and IoT applications.

For designers of next-generation SoCs, Imagination’s broad IP portfolio offers scalable solutions for their specific application. This includes our MIPS Series5 Warrior CPUs including the new MIPS M-class M51xx cores, PowerVR Rogue GPUs including the PowerVR G6050, Ensigma Series4 Explorer RPUs with solutions for Wi-Fi, Bluetooth LE and more, PowerVR Series5 video processors (VPUs), PowerVR Raptor imaging processor cores, our unique Caskeid audio synchronization technology, and of course FlowCloud.

MIPS Powered Wearables from Imagination Technologies [RCR Wireless News YouTube channel, Jan 15, 2014]

Mike Hopkins, Marketing Manager for Imagination Technologies talks about their innovation of their MIPS processor in creating smart wearable devices. All of the watches in the video are running full Android operating systems, capable of running any Android app.These smart watches are available now to the general public.

Smart watches: The first wave of wearable and connected devices integrating Imagination IP [Imagination Blog, Jan 27, 2014]

Over the past few months, we’ve seen a new wave of announcements related to Internet of Things (IoT) and other ultra-portable devices integrating Imagination IP. One of the biggest buzz words right now is wearable devices; there were several wearable concepts introduced at CES 2014, covering any and every use case, from augmented and virtual reality or entertainment to fitness, health, and many more.

At Imagination, we are well prepared to deliver innovative hardware and software IP that has been specifically designed to address the rapid growth in demand for these applications. Imagination is the only IP company that can deliver a full suite of low-power, feature-rich technologies encompassing CPU, graphics, video, vision, connectivity, cloud services and beyond. Our market-leading PowerVR GPUs and VPUs, efficient MIPS CPUs, innovative Ensigma RPUs and other IP solutions create the perfect  foundation for developing new processors for ultra low-power wearables that will be soon find their way into a myriad of devices such as smart watches, health and fitness devices and more.

MIPS and smart watches

One of the companies that have been at the forefront of innovation in the mobile and wearable market is Ingenic. Their MIPS-based XBurst SoC is an innovative MIPS32-based apps processor which redefines the performance and power consumption criteria for modern embedded SoCs.

Among the recent design wins, one interesting use case for the MIPS architecture is the smart watch. There were several smart watch designs on display on our booth at CES 2014; this article is a quick summary of what we and our partners were showcasing on the show floor.

  • imageThe GEAK smart watch runs stock Android 4.1 out of the box, can be used to monitor your heartbeat and blood pressure, and acts as a pedometer or smartphone remote to snap pictures. The GEAK smart watch is a water-resistant (IP3X) device and comes with a 1.55″ color IPS screen.
  • The NextONE smart watch from YiFang Digital uses the Android 4.1 OS to create imagean open architecture system that can run any verified third party applications. The smart watch is customizable to every aspect of a user’s life, from communicating with work and friends to health and fitness. The NextONE smartwatch improves the smartphone experience by making the information a user wants accessible at any time.
  • Tomoon T-Fire is another exciting smart watch design coming out of China. It has an innovative curved E-ink screen measuring 1.73″, it runs Android 4.3 and is expected to ship soon. It currently comes in three colors and promises to deliver on the fitness front, with a trio of sensors (gyroscope, g-sensor, compass).
    image
  • SmartQ Z Watch promises to deliver an incredible standby time, can record motion data and even analyzes the quality of your sleep. It provides good water resistance, can pair up with your smartphone and tablet and doubles as an MP3 player too.image

The smart wearables of the future

Wearable electronics cannot accommodate the larger batteries of their bigger counterparts (smartphones, tablets) so ultra-portable devices must use SoCs that have low power consumption. Because our technologies have been built around efficiency, we can help our partners design highly competitive solutions that enable them to achieve design wins in multiple markets. Companies looking for proven, low power multimedia and connectivity IP can rely on Imagination to provide the building blocks for IoT-ready chips.

A recent example is Ineda who have licensed PowerVR GPU and MIPS CPU IP to design System-on-Chip solutions for portable consumer electronics like wearable devices. Ineda CEO Dasaradha Gude says that Imagination’s IP cores provide the power efficiency required for wearable devices to succeed but also accelerate time to market, since everything they needed was provided by Imagination which simplified all the integration work.

Smart glasses: The first wave of wearable and connected devices integrating Imagination IP [Imagination Blog, Jan 23 2014]

Over the past few months, we’ve seen a new wave of announcements related to Internet of Things (IoT) and other ultra-portable devices integrating Imagination IP. One of the biggest buzz words right now is wearable devices; there were several wearable concepts introduced at CES 2014, covering any and every use case, from augmented and virtual reality or entertainment to fitness, health, and many more.

At Imagination, we are well prepared to deliver innovative hardware and software IP that has been specifically designed to address the rapid growth in demand for these applications. Imagination is the only IP company that can deliver a full suite of low-power, feature-rich technologies encompassing CPU, graphics, video, vision, connectivity, cloud services and beyond. Our market-leading PowerVR GPUs and VPUs, efficient MIPS CPUs, innovative Ensigma RPUs and other IP solutions create the perfect  foundation for developing new processors for ultra low-power wearables that will be soon find their way into a myriad of devices such as smart watches, health and fitness devices and more.

PowerVR and smart glasses

An example of a type of wearable device that has benefited from Imagination’s IP is smart glasses. Google Glass has been the first; featuring a Texas Instruments OMAP4430 processor with a PowerVR SGX540 GPU, Glass is able to take pictures, record videos, search the internet, and navigate maps.

But in the hand of ingenious developers, it can do so much more. For example, a recent article in the MIT Technology Review highlights an app that can recognize objects in front of a person wearing a Google Glass device.

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This type of functionality opens up a whole new range of applications related to computer vision and augmented reality, two applications where wearables have clear potential.

However, there were multiple PowerVR-based smart glasses introduced at CES 2014:

  • Recon Instruments introduced Snow2, an iPhone-connected HUD (Heads-Up Display) for winter sports. The Recon Snow2 project is a collaboration between Recon and Oakley and can be found as a complete kit called Oakley Airwave 1.5. Recon however is working with multiple companies to build several products that are tuned to their requirements. Recon Snow2 features an integrated GPS and can can display your speed, altitude, location, and act as a navigation instrument. For example, there is an iOS app that allows you to share your position on a map and locate your friends or family on the slopes.

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  • XOne is the first product from startup XOEye Technologies and took five years to design. XOne is a pair of safety glasses designed to improve efficiency and enhance safety for skilled labor jobs. The glasses rely entirely on audio and LEDs to communicate messages to the wearer. XOne integrates two 5MPx cameras (one inside each lens), speakers and a microphone, a gyroscope, and an accelerometer; the system is powered by a TI OMAP 4460 processor, running a custom version of Linux designed for enterprise use.image
  • The Vuzix M100 is one of the first commercially available smart glasses. They are an Android-based wearable computer, featuring a monocular display, recording features and wireless connectivity capabilities. Vuzis M100 has been designed to cover a range of applications; powerful, small and light, the M100 is well suited for a variety of industrial, medical, retail and prosumer users.image
  • The Epson Moverio BT-200 smart glasses are designed for users who like to enjoy their multimedia and do their gaming on a pair of glasses. Epson have put a lot of effort into integrating the technology (an OMAP processor) with the physical design. Even better, the smart glasses run Android 4.0.4 and apps from the Epson store; another unique feature is how users interact with the device, which is mainly done via a hand-held touchpad controller wired to the glasses. Epson has been named a 2014 CES Innovations Awards honoree in wearable tech for its Moverio BT-200 smart glasses.image
  • Lumus generated a lot of attention around its DK-40 wearable smart glasses at CES. They were very eager to show off the new developer unit in public focusing on how the monocular headset overlays a full VGA digital image over the right eye instead of using a small window for notifications. Lumus DK-40 runs Android, includes an OMAP processor and comes in multiple colors.image

I hope you’ve enjoyed our recap of some of the most interesting smart glass designs revealed at CES 2014. If you are interested in this category of devices and want to know more about the wearable gadgets that use our IP, make sure you follow us on Twitter (@ImaginationPR) and keep coming back to our blog.

Imagination and Google partner up for Android Wear and the wearable revolution [Imagination Blog, March 24, 2014]

Earlier this week Google announced a developer preview of Android Wear, a mobile operating system designed to extend the Android experience to wearable devices. This initiative will help jumpstart developers building innovative applications specifically targeting the next generation of innovation in wearables. The initial focus is on the smartwatch space and leverages the rich notification APIs already defined in Android.

Android Wear extends the Android platform to wearables, starting with a familiar form factor — watches. Download the developer preview at: developer.android.com/wear

Google is using this developer preview to give app developers the chance to experiment with enhanced notifications (e.g. weather, sports scores, navigation, etc.) for their applications to display on the smaller screen of smartwatches. For example, Android Wear supports notifications on a watch similar to how Google Now displays notifications on the smartphone. The next step for Google is to publish a full SDK that allows app developers to create complete, smartwatch-centric applications.

Delivering the ultimate wearable experience with MIPS  processor IP

Imagination has been a pioneer in delivering ultra-low power technologies across its entire IP portfolio. Following the acquisition of MIPS, one of the first things we did was to scrutinize all the CPUs from low end to high end to ensure we applied our leadership in low power design to MIPS CPUs. As a result, we believe MIPS is the ideal CPU for wearables, enabling our partners to build some of the most innovative solutions around for this growing market.

This year at MWC, wearables-focused startup Ineda demonstrated its ultra-low power Wearable Processor Unit (WPU) SoCs which deliver exceptional low power consumption. Ineda’s SoC devices integrate multiple IP processors from Imagination, including MIPS CPUs and PowerVR GPUs. Also, SpeedUp Technology announced its first wearable technology product, the SpeedUp SmartWatch, a revolutionary wearable device which incorporates an ultra-low power MIPS-based CPU from Ingenic.

Imagination is a Google launch partner for Android Wear – something we’re pretty proud of. Already a strong player in the Android ecosystem, Imagination’s MIPS architecture is one of the three CPU architectures fully supported by Google in every Android release including the latest Android 4.4 KitKat.

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All MIPS CPUs are optimized to offer the best Android experience on smartphones, tablets, wearables and other mobile devices

Low power, high performance MIPS CPUs already power billions of products around the globe. Thanks to a flexible architecture that scales from entry-level 32-bit embedded processors to some of the industry’s highest performing 64-bit CPUs, MIPS CPUs pave the way for next-generation embedded designs, including a growing presence in wearables. The Series5 Warrior generation includes two new processors (MIPS M5100 and M5150) that provide key features ideal for wearables such as a high-performance DSP engine, small code size, virtualization, and ultra-secure processing. All Series5 Warrior CPUs deliver industry-leading CoreMark performance in a very efficient area and power envelope.

Look for a MIPS-based smartwatch in a store near you

Several of our licensees are working very hard to deliver MIPS-based, Android Wear-compliant devices that will be available in the market once the operating system is officially released.

By being a launch partner, we will work very closely to ensure that Android Wear will be optimized for MIPS CPUs as well as our other IP technologies such as PowerVR graphics, video and vision, and Ensigma RPUs.

The list of members in the Android Wear alliance includes several leading consumer electronics manufacturers (Asus, HTC, LG, Motorola and Samsung), chip makers (Broadcom, Intel, Mediatek and Qualcomm) and fashion brands (the Fossil Group), all keen to bring you watches powered by the new operating system later this year.

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The list of official Android Wear partners

For more info about Android Wear and what was announced, visit:

Make sure you follow Imagination on Twitter (@ImaginationPR, @MIPSGuru) for the latest news and announcements from the wearable ecosystem.



I. Microchip Technology

From: IoT Era excites Semiconductor Players [Electronics Maker, May 6, 2014]
(other than Microsochip Technology companies are covered in the Wearables Trend and Supply Chain, Samsung Gear Fit as the state-of-the-art wristband wearable, i.e. the hybrid of a smartwatch and a fitness band, as a demonstration [‘Experiencing the Cloud’, May 17, 2014] post)

image


Linear Technology

STMicroelectronics
(see in Wearables Trend and Supply Chain, Samsung Gear Fit as the state-of-the-art wristband wearable, i.e. the hybrid of a smartwatch and a fitness band, as a demonstration [‘Experiencing the Cloud’, May 17, 2014])

InvenSense, Inc.
(see in Wearables Trend and Supply Chain, Samsung Gear Fit as the state-of-the-art wristband wearable, i.e. the hybrid of a smartwatch and a fitness band, as a demonstration [‘Experiencing the Cloud’, May 17, 2014])

Texas Instruments

Microchip Technology [https://www.facebook.com/microchiptechnology]

Mike Ballard, Senior Manager, Home Appliance Solutions Group, Microchip Technology Inc.

Microchip has many devices that are well situated to enable IoT functionality, such as 8, 16 and 32-bit PIC® microcontrollers, analog, mixed-signal, memory, and embedded Wi-Fi® and Bluetooth® modules.  In addition, IoT designers can take advantage of Microchip’s flexible development environment, broad connectivity solutions and product longevity.

Microchip is so broad based, with 80,000+ global customers, that we do not see any singular market or application that will drive our growth in IoT.  Our customer value proposition is that we provide a very broad embedded portfolio, including both the hardware and software solutions to help companies create their IoT products.

Microchip has a significant number of products that fit well into the IoT markets.  We have close relationships with our customers and have been incorporating these technologies into our products, based on their feedback.  Technologies such as XLP in our MCUs (which enables low-power designs), Wi-Fi Modules (Microchip offers two approaches, giving customers flexibility), and power-measurement devices, all enable our customers to meet their design and cost goals.  In addition, we have been acquiring companies and technologies to ensure that we continue to meet these markets’ needs today and in the future.

What is Deep Sleep [MicrochipTechnology YouTube channel, April 22, 2009] with which the minimal power consumption could be as low as 20 nA which allows years of operation on a single battery:

http://www.microchip.com/xlp Learn about Microchip’s extreme low power mode that can drop microcontroller currents to virtually zero. This webseminar provides an introduction to Deep Sleep mode found on these microcontrollers.

Microchip Technology Inc., December 12, 2013

Our Home Appliance Solutions Group can help you implement the new features and functionality needed for your next design. This short video introduces you to our Induction Cooktop Reference Design, which can significantly shorten your design cycle: http://mchp.us/1hI8kip

Induction Cooktop Reference Design [MicrochipTechnology YouTube channel, Dec 5, 2013]

In this video we will introduce the Microchip Induction Cooktop Reference Design. http://microchip.com/appliance

microchip.com/appliance: Home Appliance

Appliance manufacturers face numerous challenges in today’s ever-changing global market. Government regulations, customer expectations, competitive forces and application innovations are fueling the integration of new technologies into many appliances. Bringing these technology advancements to market can be even more challenging with shorter deadlines, the pressure to maintain and grow market share and the constant need to innovate. In addition, finding partners with technical solutions to enable these goals can be daunting and drain your resources.

Microchip Technology can help you implement the new features and functionality required for your next appliance design. By providing Microchip’s solutions for user interface, motor control, sensing, connectivity and more, your design teams can focus on implementing the application.

Microchip’s cost-effective tools enable your design to reach the market faster.  Our free, award winning MPLAB®X Integrated Design Environment (IDE) provides a single development platform for all of our 8-, 16- and 32-bit microcontrollers and 16-bit Digital Signal Controllers (DSCs). Microchip makes it easy to develop your code and migrate to higher performance solutions as needed. Learning curves are minimized even when changing cores due to additional features, increased code size or the need for more computing power.

MIPS MCUs Outrun ARM [Processor Watch from The Linley Group, Feb 18, 2014]

Author: Tom R. Halfhill

Microchip’s newest 32-bit microcontrollers not only match the features of their Cortex-M4 competitors but also achieve higher EEMBC CoreMark scores. The new PIC32MZ EC family is powered by a MIPS microAptiv CPU core running at 200MHz—a speed demon by MCU standards.

These MCUs have more memory than comparable chips (up to 2MB of flash and 512KB of SRAM) plus Ethernet, Hi-Speed USB2.0, an LCD interface, and a cryptography accelerator. An early sample scored 654 CoreMarks—the highest EEMBC-certified score for any 32-bit MCU executing from internal flash memory.

Microchip’s earlier PIC32MX family uses the smaller MIPS32 M4K core running at a maximum clock speed of 100MHz. The microAptiv CPU in the new family not only runs twice as fast but also supports the microMIPS 32-bit instruction-set architecture. MicroMIPS combines 16- and 32-bit instructions to achieve better code density than previous MIPS32 cores or even Cortex-M cores using 16/32-bit Thumb-2 instructions. Microchip claims the PIC32MZ family has 30% better code density than similar ARM-based MCUs. Also, microAptiv adds 159 new signal-processing instructions.

The PIC32MZ family is designed for high-end controller applications, such as vehicle dashboard systems, building environmental controls, and consumer-appliance control modules. Some PIC32MZ chips will begin volume production in March, and the remainder by mid-year. Prices for 10,000-unit volumes will range from $6.68 to about $10—relatively expensive for MCUs but reasonable for the performance and features.

Leading performance and superior code density for new microAptiv-based PIC32MZ 32-bit MCU family from Microchip [Imagination Blog, Nov 25, 2013]

Although mainly known for our leadership position in CPU IP for digital home and networking, the MIPS architecture has recently seen rapid growth in the 32-bit microcontroller space thanks to the expanding list of silicon partners that are offering high-performance, feature-rich and low-power solutions at affordable price points.

The most recent example of our expansion into MCUs is the 200MHz 32-bit PIC32MZ family from Microchip. PIC32MZ MCUs integrate our microAptiv UP CPU IP core which enables Microchip to offer industry-leading performance at 330 DMIPS and 3.28 CoreMark™/MHz.

The PIC32MZ comes fully loaded with up to 2MB of Dual-Panel Flash with Live Update, 512KB SRAM and 16KB Instruction cache and 4KB data cache memories. This newest family in the PIC32 portfolio also offers a full suite of embedded connectivity options and peripherals, including 10/100 Ethernet MAC, Hi-Speed USB MAC/PHY (a first for PIC® MCUs), audio, graphics, crypto engine (supporting AES, 3DES, SHA) and dual CAN ports, all vital in supporting today’s complex applications.

By transitioning to the new MIPS microAptiv core, the PIC32MZ family offers a more than 3x increase in performance and better signal processing capabilities over the previous M4K-based PIC32MX families. In addition, the microAptiv core includes an Instruction Set Architecture (ISA) called microMIPS that reduces code size by up to 30% compared to executing 32-bit only code. This enables the PIC32MZ to load and execute application software in less memory.

The MIPS microAptiv family is available in two versions: microAptiv UC and microAptiv UP. microAptiv UC includes a SRAM controller interface and Memory Protection Unit designed for use in real-time, high performance low power microcontroller applications that are controlled by a Real Time OS (RTOS) or application-specific kernel. microAptiv UP contains a high performance cache controller and Memory Management Unit which enables it to be designed into Linux based systems.

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A block diagram of the microAptiv UP CPU IP core inside PIC32MZ MCUs

Why choose MIPS32-based CPU IP for your MCUs?

MIPS-based MCUs are used in a wide and very diverse set of applications including industrial, office automation, automotive, consumer electronic systems and leading-edge technologies such as wireless communications. Furthermore, we’ve recently seen growing demand from the wearable and ultra-portable market; companies targeting these markets are looking to silicon IP providers like Imagination to deliver performance and power efficient solutions that can be easily integrated in fully-featured products.

CPU IP cores for microcontrollers need to be all-round flexible designs that are able to deliver higher levels of performance efficiency, improved real-time response, lower power and a broad tools and developer ecosystem. And the requirements continue to grow, especially with the new challenges presented by designing for the Internet of Things: better security, the ability to create more complex RTOS-controlled software and the ability to support a growing number of interfaces.

The microAptiv and future MIPS Series5 ‘Warrior’ M-class cores are perfectly positioned to provide an ideal 32-bit MCU solution for these next-generation applications. We understand that picking the right processor architecture is a key decision criterion to achieving performance, cost and time-to-market objectives in a MCU product. This is why we’ve made sure that the MIPS32 architecture enables our partners to design higher performance, lower power solutions with more advanced features and superior development support.

In the words of Jim Turley from his “Micro-Super-Computer-Chip‘ article inside the EE Journal: “With sub-$10 chips and sub-$150 computer boards, it looks like MIPS took over the world after all.”

We will be demonstrating the PIC32MZ on a Microchip multimedia board at the Embedded World 2014 event (February 25th – 27th) in in Nürnberg, Germany, so make sure you drop by our booth if you are attending the conference. In the meantime, follow us on Twitter (@ImaginationPR and @MIPSGuru) for the latest news and announcements from Imagination and its partners.

Microchip’s PIC32MZ 32-bit MCUs Have Class-Leading Performance of 330 DMIPS and 3.28 CoreMarks™/MHz; 30% Better Code Density [Microchip press release, Nov 18, 2013]

New 24-Member Family Integrates 2 MB Flash, 512 KB RAM,
28 Msps ADC, Crypto Engine, Hi-Speed USB,
10/100 Ethernet, CAN and Many Serial Channels

image

Microchip Technology Inc., a leading provider of microcontroller, mixed-signal, analog and Flash-IP solutions, today announced the new 24-member PIC32MZ Embedded Connectivity (EC) family of 32-bit MCUs.  It provides class-leading performance of 330 DMIPS and 3.28 CoreMarks™/MHz, along with dual-panel, live-update Flash (up to 2 MB), large RAM (512 KB) and the connectivity peripherals—including a 10/100 Ethernet MAC, Hi-Speed USB MAC/PHY (a first for PIC® MCUs) and dual CAN ports—needed to support today’s demanding applications.  The PIC32MZ also has class-leading code density that is 30% better than competitors, along with a 28 Msps ADC that offers one of the best throughput rates for 32-bit MCUs.  Rounding out this family’s high level of integration is a full-featured hardware crypto engine with a random number generator for high-throughput data encryption/decryption and authentication (e.g., AES, 3DES, SHA, MD5 and HMAC), as well as the first SQI interface on a Microchip MCU and the PIC32’s highest number of serial channels.

image

View a brief presentation:  http://www.microchip.com/get/1WEC

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Embedded designers are faced with ever-increasing demands for additional features that require more MCU performance and memory.  At the same time, they are looking to lower cost and complexity by utilizing fewer MCUs.  The PIC32MZ family provides 3x the performance and 4x the memory over the previous-generation PIC32MX families, along with a high level of advanced peripheral integration.  For applications requiring embedded connectivity, the family includes Hi-Speed USB, Ethernet and CAN, along with a broad set of wired and wireless protocol stacks.  Many embedded applications are adding better graphics displays, and the PIC32MZ can support up to a WQVGA [400×240] display without any external graphics chips.  Streaming/digital audio applications can take advantage of this family’s 159 DSP instructions, large memory, peripherals such as I2S, and available software.

Field updates are another growing challenge for design engineers and managers.  The PIC32MZ’s 2 MB of internal Flash enables live updates via dual independent panels that provide a fail-safe way to conduct field updates while operating at full speed.

image

“Our new PIC32MZ family was designed for high-end and next-generation embedded applications that require high levels of performance, memory and advanced-peripheral integration,” said Rod Drake, director of Microchip’s MCU32 Division.  “The PIC32MZ enables designers to add features such as improved graphics displays, faster real-time performance and increased security with a single MCU, lowering both cost and complexity.”

The PIC32MZ is Microchip’s first MCU to employ Imagination’s MIPS microAptiv™ core, which adds 159 new DSP instructions that enable the execution of DSP algorithms at up to 75% fewer cycles than the PIC32MX families.  This core also provides the microMIPS® instruction-set architecture, which improves code density while operating at near full rate, instruction and data cache, and its 200 MHz/330 DMIPS offers 3x the performance of the PIC32MX.

Microchip is a flag-bearer for the MIPS architecture in microcontrollers, having created its performance-leading PIC32 line around MIPS.  Additionally, Microchip was a valued partner in defining the feature set for the new MIPS microAptiv CPU, which is designed to fulfill next-generation application demands for increased performance and functionality,” said Tony King-Smith, EVP Marketing, Imagination Technologies.  “With its new microAptiv-based PIC32MZ family, Microchip is again taking MCU performance and feature innovation to new levels.  Imagination is delighted with this latest achievement of our strategic relationship with Microchip to address ever-evolving market needs.”

Development Support

Microchip is making four new PIC32MZ development tools available today.  The complete, turn-key PIC32MZ EC Starter Kit costs $119, and comes in two flavors to support family members with the integrated crypto engine (Part # DM320006-C) and those without (Part # DM320006).  The Multimedia Expansion Board II (Part # DM320005-2), which is available at the introductory rate of $299 for the first six months and can be used with either Starter Kit to develop graphics HMI, connectivity and audio applications.  The 168-pin to132-pin Starter Kit Adapter (Part # AC320006, $59) enables development with Microchip’s extensive portfolio of application-specific daughter boards.  The PIC32MZ2048EC Plug-in Module (Part # MA320012, $25) is available for existing users of the Explorer 16 Modular Development Board.  For more information and to purchase these tools, visit http://www.microchip.com/get/JDVB.

Pricing & Availability

The first 12 members of the PIC32MZ family are expected starting in December for sampling and volume production, while the remaining 12, along with additional package options, are expected to become available at various dates through May 2014.  The crypto engine is integrated into eight of the PIC32MZ MCUs, and there is an even split of 12 MCUs with 1 MB of Flash and 12 MCUs with 2 MB of Flash.  Pricing starts at $6.68 each in 10,000-unit quantities.  The superset family members and their package options are the 64-pin QFN (9×9 mm) and TQFP (9×9 mm) for the PIC32MZ2048ECH064; 100-pin TQFP (12×12 and 14×14 mm) for the PIC32MZ2048ECH100; 124-pin VTLA (9×9 mm) for the PIC32MZ2048ECH124; and 144-pin TQFP (16×16 mm) and LQFP (20×20 mm) for the PIC32MZ2048ECH144.  The superset versions with an integrated crypto engine are the PIC32MZ2048ECM064, PIC32MZ2048ECM100, PIC32MZ2048ECM124 and PIC32MZ2048ECM144.

PIC32MZ EC Family
Device Details (Non Crypto)
image

Device Details (Crypto Engine)
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For more information, contact any Microchip sales representative or authorized worldwide distributor, or visit Microchip’s Web site athttp://www.microchip.com/get/ESJG.  To purchase products mentioned in this press release, go to microchipDIRECT or contact one of Microchip’s authorized distributors.

Follow Microchip

RSS Feed for Microchip Product News: http://www.microchip.com/get/E09A

Twitter:  http://www.microchip.com/get/VR8V

Facebook:  http://www.microchip.com/get/H7DH

YouTube:  http://www.microchip.com/get/KMKU

Microchip’s New Cloud-Based Development Platform Now Available on Amazon Web Services Marketplace [Microchip press release, Oct 22, 2013]

Allows Embedded Engineers to Easily Connect Designs
to Amazon EC2 Instances;
Bridges Cloud and Embedded Worlds, Enabling Internet of Things

imageMicrochip Technology Inc., a leading provider of microcontroller, mixed-signal, analog and Flash-IP solutions, today announced a simple Cloud Development Platform that is available on the Amazon Web Services (AWS) Marketplace and enables embedded engineers to quickly learn cloud based communication.  Microchip’s platform provides designers with the ability to easily create a working demo that connects an embedded application with the Amazon Elastic Compute Cloud (EC2) service.  At the heart of this platform is Microchip’s Wi-Fi® Client Module Development Kit (Part # DM182020), which offers developers a simple way to bridge the embedded world and the cloud, to create applications encompassing the Internet of Things.

A rapidly growing number of embedded engineers need to add cloud connectivity to their designs, but have limited experience in this area.  Microchip’s new Cloud Development Platform builds designer confidence by making it quick and easy for them to get up and running on the proven Amazon EC2 cloud infrastructure.

Amazon EC2 is a Web service that provides scalable, pay-as-you-go compute capacity in the cloud.  It is designed to make Web-scale computing easier for developers.

“I view this as a huge step forward for corporations who produce embedded products, to quickly develop infrastructure and connect their devices to the cloud,” said Mike Ballard, senior manager of Microchip’s Home Appliance Solutions Group and leader of its Cloud Enablement Team.  “With the vast amount of expertise and scalability provided by AWS, developers can easily customize their connectivity instances and the user’s experience.”

“With Microchip’s Wi-Fi Client Module Development Kit available via our AWS Marketplace, customers can easily learn to connect embedded products to AWS,” said Sajai Krishnan, GM, AWS Marketplace.  “This is an effective step to help bridge the embedded world and the cloud.”

Pricing & Availability

Microchip’s Cloud Development Platform is available today at http://www.microchip.com/get/R837.  As part of this platform, its Wi-Fi Client Module Development Kit (Part # DM182020) is available for purchase today for $99, at http://www.microchip.com/get/0D84.  For additional information, contact any Microchip sales representative or authorized worldwide distributor, or visit Microchip’s Web site athttp://www.microchip.com/get/ST1C.  To purchase products mentioned in this press release, go to microchipDIRECT or contact one of Microchip’s authorized distribution partners.



Ineda Systems

Smart Move [Business Today [India], May 11, 2014]

Why venture funds are rushing to back Ineda, maker of chips for wearable devices.

image

Ineda Systems is just the sort of company you’d expect from Dasaradha R. Gude, who has spent a large part of his career in the world of processors. “We are processors” is how he describes himself and his team of nearly 200 people.

Gude, or GD as he is known to many of his colleagues and business associates, is clearly excited about the power of wearable chips. Ineda – the name is derived from ‘integrated electronics designs for advanced systems’ – designs chips for use in wearable devices.

From 2007 to 2010, Gude was Corporate Vice President at Advanced Micro Devices (AMD) Inc, and later Managing Director at AMD India. He founded Ineda in 2011, and members of his team have previously worked in global companies such as AMD and Intel. He says: “They are people with courage to leave big companies and step out to do something innovative.”

To his customers, he plans to offer chips in sizes of five, seven, nine and 12 square millimetres, which can fit into wearable devices such as smart watches, health and fitness trackers, and pretty much anything that needs to be connected to the emerging ‘Internet of things’ which allows users to monitor connected devices from a long distance.

He promises chips that not only go easy on battery life, but also versions that can provide a range of features, almost like a smartphone. He says his potential customers are leaders in wearable technology, who would need tens of millions of chips a year, and this would bring his costs down.

The going has been good so far for Ineda. The company has just received funding from the US-based Walden Riverwood Ventures, from the venture capital arms of Samsung and Qualcomm, and a UK-based research and development company called Imagination Technologies. The total funding is to the tune of $17 million or Rs 103 crore, and Gude intends to use the money to ensure that the chips attain stability for mass production. In April 2013, Ineda raised $10 million (more than Rs 60 crore), with Imagination Technologies as the lead investor.

imageThe chips will be manufactured in Taiwan, and Gude is in talks with about two dozen potential customers, big names in the wearable technology market such as Nike and Fitbit. “Because we have a unique proposition and will need huge volumes, we are talking to the really big guys,” he says.

Clearly, wearable technology is a growing market. Gude says it is already worth a couple of billion dollars globally, and is expected to be a $10-billion industry by 2016. Everyone, from Google to Intel to fitness companies, has its eye on this market. For instance, Theatro, a US-based company, is developing voice-controlled wearable computers for the retail and hospitality segments of the enterprise market. It emerged from stealth mode in December 2013 when it announced its product’s commercial availability and relationship with its first customer, The Container Store. Its tiny 35-gm WiFi-based wearable device enables voice-controlled human-to-human interaction (one-to-one, group and store-to-store) and replaces two-way radios. It also enables voice-controlled human-to-machine interaction with, say, in-store systems for inventory, pricing and loyalty programmes. Another potential use is in-store employee location-based services and analytics.

There is so much excitement about wearable technology that some companies are even crowdsourcing ideas. For instance, Intel has launched its ‘Make It Wearable’ challenge, which offers prize money to the best real-world applications submitted by designers, scientists and innovators.

So Ineda’s chips could be used in devices such as Google Glass, smart watches, and Nike’s FuelBand. And when does Ineda expect its chips to become commercially available? “End of this year or the by the first quarter of 2015,” says Gude.

He says that at the moment, he has no direct competitor with whom he can do an apples-to-apples comparison. His rivals are either too big and expensive, or too small with few functionality options. He positions Ineda somewhere in between in terms of functionality and price. How the market will respond remains to be seen, but investors are clearly interested.

Ineda Systems Delivers Breakthrough Power Consumption for Wearable Devices and the Internet of Things [press release, April 8, 2014]

Extends Battery Life for Wearable Devices Up to a Month

Ineda Systems, a leader of low-power SoCs (system on a chip) for use in both consumer and enterprise applications, today announced its Dhanush family of Wearable Processing Units (WPU™). The Dhanush WPU family supports a large range of wearable devices including fitness bands, smart watches, glasses, athletic video recorders and the Internet of Things. The Dhanush WPUs will enable a new industry milestone for always-on battery life of up to one month.

image

The Dhanush WPU is powered by Ineda’s patent pending Hierarchical Computing architecture. Dhanush is sampling to tier-one customers now, and will be available in volume production in the second half of 2014.

The Hierarchical Computing architecture, along with low power, high-performance MIPS-based microprocessor cores and PowerVR mobile graphics and video processors, enable the Dhanush WPU to offer leading performance with unprecedented low power consumption. The Dhanush family of SoCs also supports a scalable range of connectivity from Bluetooth LE through Bluetooth and Wi-Fi to address a range of applications.

“The Ineda engineering team in India has developed an innovative, low-power architecture designed specifically for wearable devices,” said Dasaradha Gude, CEO of Ineda Systems.

“The Dhanush family of WPUs offers better power consumption by an order of magnitude than smart phone processors that are currently being retrofitted for wearable devices.”

“The smart phone market grew substantially with the advent of smartphone-specific dedicated application processors. Dhanush WPU SoCs will enable a similar transformation in the wearable market segment,” Gude added.

Dhanush WPU

imageThe Dhanush WPU is an industry-first wearable SoC that addresses all the needs of the wearable device market. It features Hierarchical Computing architecture that allows applications and tasks to run at the right power optimized performance and memory footprint and has an always-on sensor hub optimized for wearable devices. The Dhanush WPU family consists of products – Nano, Micro, Optima and Advanced – which are designed for specific applications and product segments. Each of these products will aim to provide 30-day always-on battery life, up to 10x power consumption reduction compared to the current generation of application processors and be available at consumer price points.

“Ineda Systems is bringing the first wearable-specific chipset design to market,” said Chris Jones, VP and principal analyst at Canalys. “Strict power constraints are the greatest technological challenge for smart wearables, and Ineda is the first company taking this challenge truly seriously at the SoC level with Dhanush. Always-on sensor functionality is also critical and inherent to its design.”

The Dhanush family of SoCs comes in four different tiers that are designed for specific implementations:

  • Dhanush Advanced: Designed to include all the features required in a high-end wearable device – rich graphic and user interface – along with the capability to run a mobile class operating system such as Android™.
  • Dhanush Optima: This is a subset of the Dhanush Advanced and retains all the same features except the capability of running a mobile class operating system. It offers enough compute and memory footprint required to run mid-range wearable devices.
  • Dhanush Micro: Designed for use in low-end smartwatches that have increased compute and memory footprint. This contains a sensor hub CPU subsystem that takes care of the always-on functionality of wearable devices.
  • Dhanush Nano: Designed for simple wearable devices that require microcontroller-class compute and memory footprint.

Hierarchical Computing Architecture

Hierarchical Computing is a tiered multi-CPU architecture with shared peripherals and memory. This architecture allows multiple CPUs to run independently and together to create a unified application experience for the user – allowing optimal use of CPUs per use-case for power efficient performance.

With Hierarchical Computing, all the CPUs can be individually or simultaneously active, working in sync while handling specific tasks assigned to them independently. Based on the mode of operation and the applications being used, the corresponding CPU is enabled to provide optimal performance at optimal power consumption. Resource sharing further enables Hierarchical Computing to work on the same hardware resources at different performance and power levels.

Ineda’s reference design, SDK and APIs enable OEMs and third-party application developers to seamlessly realize the benefits of the Hierarchical Computing architecture and provide a better user experience for their end products.

Ineda Systems plans to begin producing its WPU this year and will offer multiple SoC variations that will correspond with a specific class of wearable device. Ineda’s development kits are available for evaluation to select customers today.

About Ineda Systems

Ineda Systems, Inc. (pronounced “E-ne-da”) is a startup company founded by industry veterans from the United States and India with an ultimate goal of becoming a leader in developing low power SoCs for use in both consumer and enterprise applications. The advisory and management team has world-class experience working in both blue chip companies as well as fast-paced technology startups. Ineda’s expertise is in the area of SoC/IP development, architecture and software that is necessary to design silicon and systems for next generation of low power consumer and enterprise applications.

The company has offices in Santa Clara, California, USA and Hyderabad, India.

Ineda Systems, Inc. has applied for the trademark of WPU. Android is a trademark of Google Inc. All other trademarks used herein are the property of their respective owners.

About Nacsa Sándor

Lazure Kft. • infokommunikációs felhő szakértés • high-tech marketing • elérhetőség: snacsa@live.com Okleveles villamos és automatizálási mérnök (1971) Munkahelyek: Microsoft, EMC, Compaq és Digital veterán. Korábban magyar cégek (GDS Szoftver, Computrend, SzáMOK, OLAJTERV). Jelenleg Lazure Kft. Amire szakmailag büszke vagyok (időrendben visszafelé): – Microsoft .NET 1.0 … .NET 3.5 és Visual Studio Team System bevezetések Magyarországon (2000 — 2008) – Digital Alpha technológia vezető adatközponti és vállalati szerver platformmá tétele (másokkal együttes csapat tagjaként) Magyarországon (1993 — 1998) – Koncepcionális modellezés (ma használatos elnevezéssel: domain-driven design) az objektum-orientált programozással kombinált módon (1985 — 1993) – Poszt-graduális képzés a miniszámítógépes szoftverfejlesztés, konkurrens (párhuzamos) programozás és más témákban (1973 — 1984) Az utóbbi időben általam művelt területek: ld. lazure2.wordpress.com (Experiencing the Cloud) – Predictive strategies based on the cyclical nature of the ICT development (also based on my previous findings during the period of 1978 — 1990) – User Experience Design for the Cloud – Marketing Communications based on the Cloud
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