THE FUTURE OF INTERNET OF EVERYTHING - Dr. Jeffrey H. Reed
←
→
Page content transcription
If your browser does not render page correctly, please read the page content below
Overview of IoE (or IoT) 2 IoE envisions a world that is fully interconnected through the internet Internet of IoE creates a cyber-physical Everything universe around us IoE will change the way we live, work and play IoE will transform the characteristics and operation of homes, cars, hospitals, factories, businesses and etc
Overview of Presentation Why do we need IoE? IoE architectures Development environments Industrial IoE Remaining challenges
Overview of Presentation Why do we need IoE? IoE architectures Development environments Industrial IoE Remaining challenges
Why do we need IoE? IoE is applied in: Industrial domain Public domain: Ex. Smart cities Health and wellness … http://www.sciencedirect.com/science/ article/pii/S0140366414003168
Why do we need IoE? IoE add productivity and comfort to our daily lives Comfort While I am driving back to home, dinner starts and thermostat adjusts Productivity the temperature of the home My electric blanket adjusts its heat by communicating with a body temperature measuring wrist-band I can locate my keys using my phone TI’s NFC powered tempe rature sensor (https://www.youtube.com/watch ?v=qBCfB5JMbHE)
Example of Today’s IoT Devices v Fork -- let’s you know if v Egg Tray your eating too fast. v Lighting Control v Smart toothbrush – how v Slow Cooker long do you brush v Trash Can v Watering System v Pet Feeder v Propane Tank v Socks v Washing Machine v Locks v Piggy Bank v Shirt http://www.slideshare.net/ValaAfshar/internet-of-thingsslideshare
Why do we need IoE? IoE has industrial benefits Examples: Improving the efficiency of energy consumption through extensive machine instrumentation and data- analytics Proactive maintenance Asset tracking Remote control and monitoring Agriculture Healthcare Source: www.gesoftware.com/predix
Big Picture of Growth GE Estimates the “Industrial Internet” will add $10 to $15 trillion to global GDP over the next 20 years Cisco forecast $19 trillion to economic value created by 50B IoE devices in 2020 Gartner estimates IoE products, services and suppliers will generate incremental revenue exceeding $300 billion in 2020 IDC forecast world market for IoE solutions grow from $1.9 trillion in 2013 to $7.1 trillion in 2020
Overview of Presentation Why do we need IoE? IoE architectures Development environments Industrial IoE Remaining challenges
Basic IoE Architecture e-health, smart home, smart city, energy management, etc…. Applications Service platform P2P, Cloud computing, etc Internet IP Collect and Backhaul (Ethernet, 3G, 4G, satellite, dialup, fiber, etc) Gateway/hub Zigbee, Bluetooth, WiFi, White space, NFC, etc Short-range communication IoE Edges Sensors, GPS, actuators, thermostats, light bulb, electric blanket etc
Alternative Architecture: IP-at-the-edge e-health, smart home, smart city, energy management, etc…. Applications Service platform P2P, Cloud computing, etc Internet IP IoE Edges Sensors, GPS, actuators, thermostats, light bulb, electric blanket etc IP-at-the-edge = no Gateways
Overview of Presentation Why do we need IoE? IoE architectures Development environments Industrial IoE Remaining challenges
Development Environments 1/3 Apple’s HomeKit Platform (https://developer.apple.com/homekit/ ) HomeKit is a framework in iOS 8 that allows IoE app and hardware developers to easily configure and control IoE accessories from iOS devices Bluetooth and WiFi are used for short range communication(Designing Accessories for iOS and OS X,WWDC14, https://developer.apple.com/videos/wwdc/2014/ , http://www.macrumors.com/2014/11/03/homekit-chips-device-makers/ ) Gateway for remote control is likely going to be AppleTV , http://www.macworld.com/article/2364315/apples-homekit-hub-may-already-be-in-your-house.html http://www.pcmag.com/article2/0,2817,2474991,00.asp Chip making (Apple-approved) partners are Broadcom, TI, and Marvel. The chips are loaded with Homekit firmware http://www.forbes.com/sites/aarontilley/2014/11/03/apple-homekit-enabled-chips- are-already-shipping-to-smart-home-device-makers/, https://mfi.apple.com/MFiWeb/getFAQ.action
Development Environments 2/3 Google’s Nest developer program ( https://developer.nest.com/ ) Provides the APIs developers can user to communicate with nest thermostat and smoke https://developer.nest.com/ detectors (https://developer.nest.com/documentation/cloud/nest-api-intro ) Google-Nest is pushing for a mesh-network based network protocol called Thread ( http://www.threadgroup.org/About.aspx ) Remove gateways. No single point of failure. Short-range communication is through WiFi and IEEE 802.15.4 Companies such as Mercedes-Benz have signed up into the program (They make “works with nest” products)
Development Environments 3/3 Qualcomm development network : Qualcomm provides hardware and software tools for building IoE apps Qualcomm led the establishment of the https://developer.qualcomm.com/dragonboard-809 Allseen Alliance under the Linux Foundation 4-development-kit-based-snapdragon-810-processor -apq8094 Allseen Alliance (https://allseenalliance.org/ ) has more than 100 member companies is less than 2 years old Alljoyn: Open-source software framework for interoperable IoE Lets developers write applications that can discover and communicate with near-by devices regardless of brand and operating system Meant to be the “language of IoE”
IoT Standardization Efforts EPCglobal Thread ICC IETS OIC ALLSEEN 3GPP IEEE oneM2M Interoperability ISO ISA IETF
IoT Standards (1/4) RFID related standards RFID based Electronic Product Code (EPC) standard from EPCglobal ISO/IEC 15961-1:2013, ISO/IEC 15962:2013 (address data protocol between RFID tag and RFIC reader)
IoT Standards (2/4) Wireless communication standards IEEE 802.15.4 (PHY for Zigbee, ISA100.11a, etc) IEEE 802.15.1 (Bluetooth) IEEE 802.11 a/b/g/n/ af (WiFi) IEEE 802.15.7 (Visible light communication) IEEE 1901 (Broadband over power line) 3GPP’s LTE (LTE has provision in for “Machine- type-communications”) IEEE 801.16p/b (WiMax enhancements to support M2M) etc
IoT Standards (3/4) Network and Data-link layer standards Thread Supported by Google-nest and partners It pushes for a mesh-type network architecture IETF’s 6LoWPAN (IPv6 over low-power Wireless Personal Networks) IP for is applied even for small devices IP based IEEE 802.15.4 ISA100.11a Industrial use IETF 6LOWPAN network layer IEEE 802.15.4 physical layer Modified IEEE 802.15.4 MAC
IoT Standards (4/4) Service layer standardization efforts: Allseen alliance Open-Internet Consortium (OIC) Industrial-Internet Consortium (IIC) oneM2M Consortium of ICT-related standardization bodies and companies
Overview of Presentation Why do we need IoE? IoE architectures Development environments Industrial IoE Remaining challenges
Industrial IoE Industrial IoE is driven by improvement of efficiency, reliability, and productivity Currently, only 37% of the currently connected “things” are industrial equipment Cisco expects the share of industrial IoE to surpass consumer IoE in 2017 ttp://blogs.cisco.com/news/the-internet-of-things-moving- beyond-the-hype/ Industrial IoE appears to have https://www.ihs.com/articles/insights/things- explodes.html stronger momentum for growth
Data Analytics and Industrial IoE Data analytics plays a huge role in Industrial IoE Data analytics uses row data to examine and draw conclusions. GE is transforming itself from industrial machinery maker, to an advanced data analytics company ( https://hbr.org/2014/11/digital-ubiquity-how- connections-sensors-and-data-are-revolutionizing-business) GE is developing a proprietary industrial IoE and big data analytics software called Pardix Alternative platforms exist Example: IzoT IzoT Industrial IoE Platform (http://www.echelon.com/izot-platform)
Data Analytics and Industrial IoE Most corporate executives believe big data analytics is important (http://www.accenture.com/SiteCollectionDocuments/PDF/Accenture-Industrial-Internet- Changing-Competitive-Landscape-Industries.pdf)
Industrial Internet Consortium (IIC) The goal is to create reference architectures, use- cases and test-beds for the industrial internet Plans to release technology and security guidelines Founded by five companies by March, 2014 Currently, more than 120 members Source: http://www.echelon.com/izot-platform
IoE in the Oil and Gas Industry Predictive maintenance Pipeline monitoring Automated field operation Real-data based managerial and financial decisions Asset tracking Environmental monitoring People monitoring Closed-loop control Health and safety Oil and Gas Industry have implemented Outcomes: aspects for the IoE for many years, but Reduces down time scope and integration will improve with time. Improves safety
Overview of Presentation Why do we need IoE? IoE architectures Development environments Industrial IoE Remaining challenges ¤ Complexity ¤ Privacy/Security ¤ Spectrum
Security: Major Challenge in IoE All devices and sensors will have cyber presence Traditional cybersecurity approaches not sufficient Multi-layer security is necessary Gateways should be secured IoE edges should be secured
Increasing Supply Chain & SCADA • SCADA Security Security T hreats – DHS: US u:lity's control systems hit by advanced cyber aAack – Eugene Kaspersky: Stuxnet has gone rogue. Russian nuclear power plant was reportedly “badly infected” by the rogue Stuxnet virus. – NY Times reports cousins of Stuxnet: Duqu, Flame and Gauss • Counterfeit is a Security Concern – APEX & Designer Summit: Current value of counterfeit electronic components is es:mated at approximately $10b annually. Counterfei:ng costs the US economy between $200b -‐ $250b annually. Overall global counterfeit goods es:mated at $3.9T – U.S. Senate CommiAee on Armed Services iden:fied suspect components in the supply chains for the CH-‐46 Sea Knight helicopter, the C-‐17 military transport aircraa, the P-‐8A Poseidon sub hunter, and the F-‐16 fighter 30
Why SCADA/ICS Need New Security Solutions for IoE Attack surfaces are greatly increased. Too many variations of hardware and software Legacy equipment 20+ years (don’t fix it if it isn’t broken) Threats from manipulating input data Real-time protection needed Threats are behind the firewall Dormant threats are hard to find Signature techniques are dead
Example of Security Approach Developed and Spun Out from Virginia Tech ❑ Power Fingerprinting (PFP) detects anomaly with power analysis and signal processing Compare with Power Analysis PFP Signal Non-‐Contact Processing the Baseline Quantitative 12 Metrics for 10 6 Probe 8 6 4 4 2 2 0 0 -2 Security 2 4 6 8 10 12 14 8 Frequency x 10 0 2 4 6 8 10 12 Acquire Power or RF Signal Anomaly? yes Alert no Acquire New Baseline? For more info. see http://www.pfpcyber.com http://www.darkreading.com/perimeter/power-consumption-technology-could-help-enterprises-identify- counterfeit-devices/a/d-id/1318782?
Communication Challenges Integrated networks (probably a characteristic of 5G) Machine-to-Machine Communications in later 4G Very long battery life Automated deployment and de-confliction Spectrum availability and uniformity across national boundries
Spectrum Scarcity: Another Challenge for IoE Each IoE connection is expected to generate small amount of traffic But the number of connection is very high Additional spectrum is needed to carry IoE We are already under spectrum deficit including for LMR. Spectrum sharing with government may be the solution Source: FCC http://www.hightechforum.org/spectrum-deficit-disorder/ Example: The 3.5 GHz band, where military radars operate, is now open for shared use May be possible for private LTE networks Wireless@VT is deeply involved in research studying the technical and regulatory issues related to spectrum sharing
Towards Software-Defined IoT Devices Interoperability a challenge in IoT Interoperability One solution is making IoT devices highly flexible to support multiple protocols Software-Defined-Radio (SDR) is a good candidate to implement flexible IoT devices SDRs present their own challenges: SDR Challenge Our Solution Research Status Poor RF performance •Spectrum sensing - Prototype is developed supported, intelligent RF and tested Prototype of MIMO capable Software-defined IoT GW control assembled at W@VT • Addresses potential RF issues through intelligent control Poor handling of high-data • Firmware/OS level - Prototype is under rate waveforms waveform development development Cognitively controlled RF Front-end’s prototype
Conclusions Technology is about to transform the world through IoE Industrial IoE will help pave the way for consumer IoE Standards will be a HUGE issue IoE presents unique communication challenges: Integration with various wireless network Low data-rate, large volume of links -- the “one-bit” challenge Power Spectrum resources Security Automatic deployment and maintenance.
You can also read