Mobile and Embedded/IoT market Overview and Trends. June 2014

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Transcription:

Mobile and Embedded/IoT market Overview and Trends June 2014 2

Ubiquitous Connectivity Quantified Self Ultra HD Media Streaming Global Wireless Broadband Wearables 3 Contactless Payments

Wearable Momentum Built on ARM Oakley Airwave 80+ devices in development or already in commercial deployment 4

ARM at the Heart of Your Smartphone WiFi Cortex-M4 Cellular Modem Cortex -R4 Cortex-R5 Cortex-R7 Apps Processor Cortex-A5 Cortex-A7 Cortex-A9 Cortex-A15 Cortex-A17 Mali -300 Mali-400 Mali-T604 Mali-T628 Mali-T720 Mali-T760 Touchscreen & Sensor Hub Cortex-M0 Cortex-M3 Cortex-M4 Camera Cortex-M3 SIM SecurCore SC300 Sensor Hub Cortex-M0+ 5 Bluetooth Cortex-M3 Cortex-M0 GPS Cortex-M3 Cortex-M0 Flash Controller Cortex-M3 Power Mgmt Cortex-M3 Cortex-M0

Consumer Trends Driving Embedded Innovation Rich UI Fast responsiveness Consumer Embedded Trends Innovation Connectivity Personalization Content On Demand Commerce Security Low Power 6

Celebrating 50 Billion ARM-Powered Chips http://www.50billionchips.com 7

Volume IoT: Making Things Smart, Connected and Interactive Shaping business and consumer focused strategies Key enablers include: Tiny, low-cost sensors Secure, standardized Internet and web to the tiniest of devices Authentication and trust Universal data model semantics Easy, open web-based development 26 Billion Installed Units by 2020* Device Categories *Gartner 8

ARM Cortex-M: Ultra Low Power, Size, Cheap + Internet Connected this is how to get to 10s of Billions Over 2 Billion ARM Cortex-M devices shipped in 2013 by leading semiconductor companies MCUs radios sensors 9 Think Powered by Watch Batteries & Energy Harvesting

Strong Embedded Adoption since ARM7 Cortex-M3 was announced in 2004; First product released in 2006 ARM7 ARM9 Cortex-M3 Cortex-M0 Cortex-M4 Cortex-M0+ 1993 1997 2004 2009 2010 2012 10

ARM Cortex-M Processors proven success 212+ licensees of Cortex-M processors Over 3,000 Cortex-M based MCU types Tens of thousands Cortex-M based applications Tele-parking Intelligent toys Utility Meters Wearables IR Fire Detectors Exercise Machines Energy Efficient Appliances Intelligent Vending 11

Requirements always go higher 32-bit 16-bit 8-bit log n + - n x sin 12

Price of ARM Microcontrollers Comparable price level to 8/16-bit products Save cost by using ARM MCUs Competitive microcontroller prices Reducing time to market Better software reusability Better ecosystem Development time Toolchain and debugger cost Development Cost Software reusability Third party software solution Training Risks Testing and QA 13

MCU Code Density Cortex-M shows smaller code size than 8/16-bit devices Best in-class code density, reducing flash size and power consumption Reach smallest form factor and cost Sensors Mobile equipment Medical CoreMark code compiled optimized for size CSP16 (2x2mm) QFN20 (3x3mm) 14

ARM Cortex Processor family Cortex-M0 8/16-bit applications Lowest cost Cortex-M0+ 8/16-bit applications Lowest power Outstanding Energy efficiency Cortex-M3 16/32-bit applications Performance efficiency Feature rich connectivity Cortex-M4 32-bit/DSC applications MCU plus DSP Accelerated SIMD, FP & SP Cortex-M Energy Efficient Ease of Use Configurable Deterministic Low Silicon Area WIDELY ADOPTED MARKET PROVEN HIGH VOLUME 15

Cortex-M Performance & Power considerations Dynamic power (µw/mhz) 90nm (7-track, typical 1.2v, 25C)** 28nm (9-track C35 HVt, typical 0.9v, 25C)** Cortex-M0 20 4 Cortex-M0+ 17 3 Cortex-M3 40 7 Cortex-M4 45 9 * *Feature rich configuration CoreMark and Dhrystone (per MHz) Dhrystone (official) Dhrystone (max opt) CoreMark Cortex-M0 0.84 1.21 2.33 Cortex-M0+ 0.94 1.31 2.42 Cortex-M3 1.25 1.89 3.32 Cortex-M4 1.25 1.95 3.40 * CoreMark data from ARM website and CoreMark.org website 16

Ready to Connect the IoT ARM Cortex-M processors enables the leading low power RF SoCs Broadcom BCM20736 Bluetooth LE + wireless charging ARM Cortex-M3 Processor Dialog Semiconductor DA14580 Bluetooth LE ARM Cortex-M0 Processor Freescale KW01 / KW20 Sub-1 GHz / Zigbee ARM Cortex-M0+/M4 Processor GainSpan GS2000 WiFi & ZigBee IP (6LoWPAN) 2x ARM Cortex-M3 Processors Linear LTC5800-IMP 2.4GHz (802.15.4 / 6LoWPAN) ARM Cortex-M3 Processor Nordic Semi nrf51822 Bluetooth LE ARM Cortex-M0 Processor Sierra Wireless AirPrime WP6 2G EDGE system-on-chip ARM Cortex-M0 Processor Silicon Labs EM35x ZigBee system-on-chip ARM Cortex-M3 Processor TI EM35x CC2538 ZigBee system-on-chip ARM Cortex-M3 Processor 17

ECB is another key carrier board solution for IoT deployment 18

Buy vs. Make Embedded Computing Boards Customer Challenges Time-to-Market BOM Costs Full Custom (Make) Longer time required to do hardware development Lowest Standard Board (Buy) Shorter period as hardware and BSP is ready immediately allowing faster reaction to market needs. Potentially lower as R&D cost can be amortized over a larger customer base per board Lowering development costs as system complexity increases Increase value through internal IP development Long product life cycles Dedicated resources need to keep up with each technologies in the system translates into more costs for human capital Some IP may not be differentiating or valued by the customer OEM takes responsibility for all elements of design Complex boards designed by module vendors reduces risky, complexity and costly for OEM Limits the OEM investments and allows critical resources to be applied to IP that creates value. OEM off loads some of the responsibility to system board maker 19

ARM in Embedded Computing Board (not limited) 20

ARM for ECB market is about Energy Efficiency Performance per watt; Small form factor Simpler power electronics to reduce BOM and weight Save cost for heat sink, transport and installation Broader application space such as battery powered Increased Customer Choice Embedded computing spans diverse applications Peripherals to meet application needs Competition and constant innovation More are Coming!!! 21

Platform Era of Embedded Development Assembler C Platform 1990s 2000s 2010s 22

Make the creation of billions of connected devices possible mbed TM will enable IoT device creation on a massive scale An open source platform for Cortex-M Microcontrollers Opening up IoT to a vast new audience of professional developers Consolidating fundamental embedded building blocks Microcontrollers, Radios, Sensors, Software stacks Bluetooth, 802.15.4/6LoWPAN, WiFi, Cellular Embedded agents and APIs for cloud services With the right tools and ecosystem 23

ARM mbed for connected device creation See mbed.org/platforms 3G / LTE IEEE 802.15.4 24

mbed Community Operators e.g. Cloud IoT Services e.g. 3G / LTE Manufacturers e.g. Developers e.g. Microcontrollers e.g. Peripheral Components e.g. 25

ARM IoT Architecture ARM Offering Local Processing Security Communication Discovery Data Storage & Analytics Management Applications End-to-End Security, Web, Data Objects & Management Little Data BIG DATA 26

27 Building the Embedded Web

Sensinode: Building the Embedded Web Vision The Internet of Things (IoT) is the next evolution of the Internet where devices of all types and capabilities are connected through Internet Protocol and Web Services Mission Create value for customers and partners through innovative software solutions that enable the Internet of Things by optimizing the way businesses and consumers collect, manage and leverage information Heritage Leading supplier of end-to-end SW solutions for M2M applications since 2005 Led the creation of 6LoWPAN and CoAP essential technologies for the IoT Key player and contributor to all major IoT-relevant standards bodies Acquired by ARM in August 2013 28

Protocols for constrained IOT devices Application 1000s of bytes Web Object HTTP TLS (TCP) IPv6 IPv6 6LoWPAN Header compression on sensor networks TCP UDP No guarantee of packet delivery or order HTTP CoAP HTTP-like (REST) semantics for constrained devices TLS DTLS TLS over UDP stateless one packet at a time Proxy IOT Backhaul 100s of bytes Binary Web Object CoAP DTLS (UDP) IPv6 Router IOT Sensor Network 10s of bytes Binary Web Object CoAP DTLS (UDP) 6LoWPAN 29

Web Application SDK Reference Applications for rapid development of customer application that controls/monitors the M2M nodes. Lighting, Connected Home, Asset Management NodeView Network Management NanoService Platform IoT application and data management platform, may be deployed in private or public server infrastructure. NanoService Clients (C/C++, Java ME, Java SE) NanoService Edge NanoMesh Leading 6LoWPAN protocol stack for low-power RF and power line networks. 30

NanoService TM An End-to-End Solution Illustrative WSN and Cellular Deployments Web Applications Smart City Applications Internet 6LoWPAN, DTLS, CoAP, Binary IPv6, DTLS, CoAP, Binary IPv6, TLS, HTTP, JSON 31 Telematics Asset Tracking Applications

Business Model Enables Expanding Experience Expanding connectivity ARM Ecosystem Enables Global Innovation Expanding markets Expanding user experiences Expanding global reach Expanding device choice Expanding form factors 32

Thank You The trademarks featured in this presentation are registered and/or unregistered trademarks of ARM Limited (or its subsidiaries) in the EU and/or elsewhere. All rights reserved. Any other marks featured may be trademarks of their respective owners 33