Wireless control that simply works CES January 9, Bob Heile Chairman, Zigbee Alliance

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Wireless control that simply works CES 2004 January 9, 2004 Bob Heile Chairman, Zigbee Alliance

2 What is the ZigBee Alliance? A rapidly growing, worldwide, non-profit industry consortium consisting of Leading semiconductor manufacturers Technology providers OEMs End-users An Organization with a mission to define reliable, cost-effective, low-power, wirelessly networked, monitoring and control products based on an open global standard

3 The ZigBee Alliance Solution Targeted at home and building automation and controls, consumer electronics, PC peripherals, medical monitoring, and toys Primary drivers are simplicity, long battery life, networking capabilities, reliability, and cost Alliance provides interoperability, certification testing, and branding

4 How is ZigBee related to IEEE 802.15.4? ZigBee takes full advantage of a powerful physical radio specified by IEEE 802.15.4 ZigBee adds logical network, security and application software ZigBee continues to work closely with the IEEE to ensure an integrated and complete solution for the market

5 Why do we need ZigBee technology? ONLY standards-based technology that Addresses the unique needs of most remote monitoring and control and sensory network applications Enables the broad-based deployment of wireless networks with low cost, low power solutions Provides the ability to run for years on inexpensive primary batteries for a typical monitoring application

6 History Proposals Initial MRD RSI/TRD v0.2 Proposal to IEEE ZigBee Alliance formed ZigBee IEEE 802.15.4 PAR Reviews Proposals 1998 1999 2000 2001 2002 Stand. Complete

7 Who is supporting the ZigBee Six promoter companies Alliance now? Honeywell, Invensys, Mitsubishi, Motorola,Samsung and Philips A rapidly growing list (now almost 60 participants) of industry leaders worldwide committed to providing ZigBee-compliant products and solutions Companies include semiconductor manufacturers, wireless IP providers, OEMs, and end users ZigBee's membership continues to grow as additional companies realize the market need for and benefits of standards-based interoperable wireless products

8 The Wireless Market SHORT < RANGE > LONG TEXT INTERNET COMPRESSED VIDEO ZigBee Bluetooth1 802.11b Bluetooth 2 MULTI-CHANNEL DIGITAL VIDEO 802.11a/HL2 & 802.11g 802.15.3/WIMEDIA LOW < ACTUAL THROUGHPUT > HIGH

9 Wireless Network Evolution Simple wire replacement Direct Connection between devices Limited communication Point to Point Centralized routing and control point Examples include: Wi-Fi, GSM, Bluetooth All data must flow through base station Point to Multi-Point Multi-hop/Mesh Full RF redundancy, with multiple data paths Self Configuring / Self Healing Distributed Intelligence

10 Frequencies and Data Rates BAND COVERAGE DATA RATE # OF CHANNEL(S) 2.4 GHz ISM Worldwide 250 kbps 16 868 MHz Europe 20 kbps 1 915 MHz ISM Americas 40 kbps 10

11 Basic Network Characteristics 65,536 network (client) nodes 1 fully functional network coordinator (master) Optimized for timing-critical applications New slave enumeration: 30 ms (typ) Sleeping slave changing to active: 15 ms (typ) Active slave channel access time: 15 ms (typ) Network coordinator Full Function node Reduced Function node Communications flow Virtual links

12 Initial Enumeration ZigBee Coordinator Bluetooth Coordinator

13 Topology Models Mesh Star Cluster Tree PAN coordinator Full Function Device Reduced Function Device

14 Traffic types Periodic data Application-defined rate (e.g. sensors) Intermittent data Application-defined rate or determined by external stimulus (e.g. light switch) Repetitive, low-latency data Allocation of time slots (e.g. mouse)

Protocol Stack Features 8-bit microcontroller (e.g. 80c51) Fullprotocolstack<32 k Simple node-only stack ~4k Coordinators require extra RAM Node device database Transaction table Pairing table Copyright 2003 The ZigBee Alliance, Inc. 15 APPLICATION/PROFILES APPLICATION FRAMEWORK NETWORK/SECURTIY LAYERS MAC LAYER PHY LAYER Application ZigBee Platform Stack Silicon ZigBee Alliance Platform IEEE

Wireless control that simply works Venkat Bahl Marketing Chair, Zigbee Alliance

17 What is the Alliance about Value Proposition: Wireless Control that Simply Works Mission Statement: To enable reliable, cost-effective, low-power, wirelessly networked, monitoring and control products based on an open global standard.

18 Applications security HVAC AMR lighting control access control BUILDING AUTOMATION CONSUMER ELECTRONICS TV VCR DVD/CD remote patient monitoring fitness monitoring PERSONAL HEALTH CARE ZigBee Wireless Control that Simply Works PC & PERIPHERALS mouse keyboard joystick asset mgt process control environmental energy mgt INDUSTRIAL CONTROL RESIDENTIAL/ LIGHT COMMERCIAL CONTROL security HVAC lighting control access control lawn & garden irrigation

19 Case Study of Mom s House Easily create networks Add devices to networks Merge applications Extend range

20 Mom s House September 2004 Mom s House LIGHT SWITCH DESK LAMP Son installs a retail two-pack ZigBee lamp controller and lamp module Mom likes it, allows her to stay warm in bed without having to get up to turn out lamp

21 Mom s House October 2004 Mom s House LIGHT SWITCH PANIC BUTTON DESK LAMP PHONE LINE Son worried about her health, so adds wearable panic button and phone line connection New PAN coordinator assumes coordination master function from lamp module; network auto-reconfigures for star topology

22 Mom s House December 2004 Mom s House DOOR SENSOR LIGHT SWITCH Mom likes it, son worried about her neighborhood, so adds door and window security sensor PAN Coordinator locates these new devices and adds them PAN Coordinator offers to alert police via phone line if window sensor is tripped, turns on lamp by bed PANIC BUTTON DESK LAMP PHONE LINE WINDOW SENSOR

23 Mom s House February 2005 Mom s House DOOR SENSOR LIGHT SWITCH Mom now worries about mail being stolen from roadside box, so wants to know when mailman delivers mail Son buys ZigBee Mailbox Alert finds that range is exceeded, purchases ZigBee Range Extender, finds it also allows her Panic Button to work outside in the garden PANIC BUTTON DESK LAMP PHONE LINE WINDOW SENSOR MAILBOX ALERT

24 Mom s House December 2005 Mom s House DOOR SENSOR KEYBOARD COMPUTER MOUSE LIGHT SWITCH PANIC BUTTON DESK LAMP PHONE LINE WINDOW SENSOR MAILBOX ALERT For Christmas, Mom gets new computer with ZigBee Human Interface Devices (HID) Comes with software to allow her to automate her house via ZigBee

25 Application of products - Residential

26 Application of products Convenience Store

27 Application of products Supermarket

Application of products Commercial Buildings Heating and Cooling HVAC Air-Handling Unit Heating and Cooling Pumps Fans Energy Control Fan Coils/ VAV Utility Monitoring (Elec./Water/Gas/Oil Integration Solutions Product Pull Through Copyright 2003 The ZigBee Alliance, Inc. 28

29 Why ZigBee? Reliable Mesh networking Low data-rate applications Very long battery life Secure Scalable Low cost Global applicability

30 What is the advantage of the ZigBee solution over proprietary solutions? Main advantages Product interoperability Vendor independence Expectation of increased product innovation as a result of the industry standardization of the physical radio and logical networking layers No more having to invest resources to create a new proprietary solution from scratch every time Companies now can leverage these industry standards to instead focus their energies on finding and serving customers

31 A Primer to ZigBee And 802.15.4 Jon Adams Director, Technology Strategy Motorola Wireless and Mobile Systems Tempe, Arizona

32 Introduction to the IEEE 802.15.4 Standard IEEE 802.15.4 standard released May 2003 Semiconductor manufacturers Sampling Transceiver ICs and platform hardware/software to Alpha Customers now Users of the technology Defining application profiles for the first products, an effort organized by the ZigBee Alliance

33 IEEE 802.15.4 Basics 802.15.4 is a simple packet data protocol for lightweight wireless networks Channel Access is via Carrier Sense Multiple Access with collision avoidance and optional time slotting Message acknowledgement and an optional beacon structure Multi-level security Works well for Long battery life, selectable latency for controllers, sensors, remote monitoring and portable electronics Configured for maximum battery life, has the potential to last as long as the shelf life of most batteries

34 Frequencies and Data Rates BAND COVERAGE DATA RATE # OF CHANNEL(S) 2.4 GHz ISM Worldwide 250 kbps 16 868 MHz Europe 20 kbps 1 915 MHz ISM Americas 40 kbps 10

35 Direct Sequence and Frequency Agility Interferer Desired Signal Over the Air After DS correlation 2.4 GHz PHY Channels 11-26 5 MHz 2.4 GHz 2.4835 GHz

36 IEEE 802.15.4 standard Includes layers up to and including Link Layer Control LLC is standardized in 802.1 Supports multiple network topologies including Star, Cluster Tree and Mesh Low complexity: 26 primitives versus 131 primitives for 802.15.1 (Bluetooth) ZigBee is developing the upper layers of the Stack and application profiles ZigBee Application Framework Networking App Layer (NWK) Data Link Controller (DLC) IEEE 802.15.4 LLC IEEE 802.2 LLC, Type I IEEE 802.15.4 MAC IEEE 802.15.4 868/915 MHz PHY IEEE 802.15.4 2400 MHz PHY

37 IEEE 802.15.4 MAC Overview Employs 64-bit IEEE & 16-bit short addresses Ultimate network size can reach 2 64 nodes (more than we ll probably need ) Using local addressing, simple networks of more than 65,000 (2^16) nodes can be configured, with reduced address overhead Three devices specified Network Coordinator Full Function Device (FFD) Reduced Function Device (RFD) Simple frame structure Association/disassociation AES-128 security CSMA-CA channel access Optional superframe structure with beacons GTS mechanism

38 IEEE 802.15.4 Device Types Three device types Network Coordinator Maintains overall network knowledge; most sophisticated of the three types; most memory and computing power Full Function Device Carries full 802.15.4 functionality and all features specified by the standard Additional memory, computing power make it ideal for a network router function Could also be used in network edge devices (where the network touches the real world) Reduced Function Device Carriers limited (as specified by the standard) functionality to control cost and complexity General usage will be in network edge devices All of these devices can be no more complicated than the transceiver, a simple 8-bit MCU and a pair of AAA batteries!

39 System Simplicity and Flexibility Motorola RF Packet Radio Motorola 8-Bit MCU

40 MAC Options Two channel access mechanisms Non-beacon network Standard ALOHA CSMA-CA communications Positive acknowledgement for successfully received packets Beacon-enabled network Superframe structure For dedicated bandwidth and low latency Set up by network coordinator to transmit beacons at predetermined intervals» 15ms to 252sec (15.38ms*2n where 0 n 14)» 16 equal-width time slots between beacons» Channel access in each time slot is contention free Three security levels specified None Access control lists Symmetric key employing AES-128

41 ISM Band Interference and Coexistence Potential for interference exists in every ISM band, not just 2.4GHz IEEE 802.11 and 802.15.2 committees are addressing coexistence issues ZigBee/802.15.4 Protocol is very robust Clear channel checking before transmission Backoff and retry if no acknowledgement received Duty cycle of a ZigBee-compliant device is usually extremely low It s the cockroach that survives the nuclear war Waits for an opening in otherwise busy RF spectrum Waits for acknowledgements to verify packet reception at other end

42 ZigBee and Mesh Networking ZigBee Coordinator (FFD) ZigBee Router (FFD) ZigBee End Device (RFD or FFD) Mesh Link Star Link

43 ZigBee and Bluetooth Comparison Overview Bluetooth ZigBee AIR INTERFACE FHSS DSSS PROTOCOL STACK 250 kb 28 kb BATTERY rechargeable non-rechargeable DEVICES/NETWORK 8 2^16 LINK RATE 1 Mbps 250 kbps RANGE ~10 meters ~30meters (w/o power amp) (w/o power amp)

44 Transceiver Comparisons Instantaneous Power Consumption of ZigBee Transceivers are similar to Bluetooth without protocol ZigBee OQPSK with shaping -- Max data rate 128kbps over the air -90 dbm sensitivity -- 40ppm xtal Bluetooth FSK -- Max data rate 720kbps over the air -85dBm sensitivity -- 20ppm xtal Bluetooth s frequency hop makes it extremely difficult to create extended networks without large synchronization cost

45 Protocol Makes the Difference Bluetooth Moderate duty cycle, secondary battery operation where battery lasts about the same as master unit Wire replacement for consumer devices that need moderate data rates with very high QoS and very low, guaranteed latency Quasi-static star network structure with up to 7 clients (and ability to participate in more than one network simultaneously) Generally used in applications where either power is cycled (headsets, cellphones) or mains-powered (printers, car kits)

46 Protocol Makes the Difference ZigBee Very low duty cycle, very long primary battery life applications Static and dynamic star and mesh network structures with potentially a very large number (>>65534) of client units, low latency available but not necessary Ability to remain quiescent for long periods of time without communicating to the network ZigBee Protocol was developed to serve very different applications than Bluetooth and leads to tremendous optimizations in power consumption

47 Security Mechanisms IEEE 802.15.4 Standards based algorithms AES 128-CTR CCM/CBC-MAC Authenticity Replay Attack resistant (freshness check) Bluetooth Proprietary algorithms Safer+ CRC(error control) No authenticity Replay attack susceptible (no freshness check)

48 Comparison of key features of complementary protocols Feature(s) IEEE 802.11b Bluetooth IEEE 802.15.4 Power Profile Hours 1 Week 1Year+ BOM $9 $6 $3 Complexity Complex Very Complex Simple Nodes/Master 32 7 64000 Latency Enumeration upto 3 Enumeration upto 10 seconds seconds Enumeration 30ms Range 100 m 10m 70m Extendability Roaming possible No YES Data Rate 11Mbps 1Mbps 250Kbps Security Authentication Service Set ID (SSID) 64 bit, 128 bit 128 bit AES and Application Layer user defined HVAC control in building automation

49 Conclusion Bluetooth and ZigBee transceiver physical characteristics are very similar Protocols are substantially different and designed for different purposes ZigBee designed for low to very low duty cycle static and dynamic environments with many active nodes Bluetooth designed for high QoS, variety of duty cycles, moderate data rates in fairly static simple networks with limited active nodes

50 More Information ZigBee Alliance web site http://www.zigbee.org IEEE 802.15.4 web site http://www.ieee802.org/15/pub/tg4.html Bob Heile, ZigBee Alliance Chairman bheile@ieee.org