The Internet of Things in a Cellular World

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The Internet of Things in a Cellular World Everything is connected!!! John Bews

The Internet of Things in a Cellular World Agenda IoT Concept Cellular Networks and IoT LTE Refresher Reducing Cost and Complexity Improving Coverage Lowering Power Consumption Cellular IoT Gotcha s Summary

What is the Internet of Things Concept? If you can. identify the thing capture data from it send that data to a server Then you can.. offer a range of services to all kinds of applications using that data Things include. machines, people, animals, cars, etc. Some Things have high data rate requirements. security systems, telemedicine Some Things have low data rate requirements...telemetry Some Things need real time feedback.smart cars Some Things don t care about delays.smart meters So how do Cellular Networks do IoT?

Where does Cellular IoT sit in this range of services.. 4G LTE does M2M high speed data rates well Cat-4 to Cat-16 Upto 1Gbps DL. 4G LTE has wide area coverage 700MHz, 850Mhz, 900MHz 4G LTE has good latency less than 100ms Current LTE devices are costly for low speed data compared to Zigbee & LoRa. Zigbee & LoRa have limited coverage compared to LTE LTE needs a cheap solution for low speed data applications. 3GPP is the standards body for LTE. - 3GPP have introduced new IoT features to the LTE standards. The IoT requirements were for:- Low Cost/Low Complexity Enhanced Coverage Low Power Consumption Cellular Networks and IoT New 4G LTE IoT Standards & Devices Fastest Network (M2M) Slowest Network

Lets look at this in detail Low Cost Low Complexity IoT How do we achieve Low Cost/Low Complexity? How do we achieve Enhanced Coverage? How do we achieve Low Power Consumption? What are the gotcha s? But first a LTE refresher!!!

15kHz Subcarriers CAT-NB1 1 x 180kHz Resource Block Time Downlink OFDMA Air Interface: Managed by a scheduler that allocates frequency and time domain resources for maximum efficiency Uplink SC-FDMA A quick LTE Refresher CAT-M1 6 x 180kHz Resource Blocks Timeslots 1ms TTI Frequency Bands: 700, 850, 900, 1800, 2100, 2300, 2600MHz Bandwidth: 1.4MHz up to 20MHz Channel Usage: Uses 12 x 15kHz subcarriers for a Resource Block CAT-1 Up to 100 x 180kHz Resource Blocks Up to 100 Resource Blocks Transmits Data in 1ms Timeslots Modulation: QPSK, 16QAM, 64QAM, 256QAM Downlink: OFDMA Uplink: SC-FDMA Power: +23dBm Full Duplex on FDD DL MIMO: Typically 4x2 MIMO or 2x2 MIMO UL MIMO: Typically 1x4 SIMO or 1x2 SIMO Device Antennas: Typically 2 Rx + 1 Tx The IoT standard is going to modify many of these

How do we reduce cost and complexity? Reduce Bands: Less switches and filters Only do L700 or L700+L1800 Reduce Bandwidth: Less compute power Use 1.4MHz or 200kHz segment Reducing Complexity Reduces Performance Reduce Modulation Complexity: Less compute power QPSK or QPSK+16QAM Make Half Duplex: Less filters + less compute power Full Duplex Optional Reduce Antennas: Less antennas are cheaper Feature Cat-4 Cat-1 Cat-M1 Cat-NB1 Supported duplex modes FD FD FD or HD HD Only UE bandwidth (inc guard band) [MHz] 20 MHz 20 MHz 1.4 MHz (6 RB s) 200 khz (1 RB) DL peak rate [Mbps] 150 Mbps 10 Mbps 800kbps / 300kbps 230kbps (~20kbps) UL peak rate [Mbps] 50 Mbps 5 Mbps 1 Mbps / 375 kbps 250kbps (~60kbps) Highest DL modulation scheme 64QAM 64QAM 16QAM QPSK Highest UL modulation scheme 16QAM 16QAM QPSK QPSK Maximum number of DL Spatial layers 2 1 1 1 Number of receive antennas 2 2 2 or 1 1 Maximum transmit power [dbm] 23 dbm 23 dbm 23 dbm or 20 dbm 23 dbm or 20 dbm Speed Impact Coverage Impact

How do we achieve Enhanced Coverage Concept: Introducing low data rate repetition of data blocks allows energy accumulation at UE. Lower data rates give more sensitivity More repetitions gives more sensitivity Introduces inefficiency and increases latency Standard LTE: Most channels are intended for single transmission only Maximises the efficiency and minimises latency IoT LTE: Most channels use repetitive transmissions to improve the sensitivity This reduces efficiency and increases latency Only do as much repetitions as necessary Cat-M1 has Standard Mode, Enhanced Mode A and Enhanced Mode B 16QAM or QPSK Cat-NB1 uses even more enhancement + data rate limited to QPSK only Standard Mode Link Budget: The IoT Link budget matches that for Zigbee and LoRa Network Coverage: LTE has a much bigger network coverage so you probably won t need all of it. Cat-M1 device must support:- 2 x Rx antennas +23dBm Tx power.or get reduced coverage!!!! 1 x Rx antenna reduces coverage by ~4dB +20dBm reduces coverage ~3dB

How do we achieve Low Power Consumption? Reduce Device Tx Power: Standard LTE: +23dBm Max LTE IoT: Choice of +23dBm or +20dBm Max Mainly set by the manufacturer LTE IoT: Introduces Power Saving Mode (PSM) Standard LTE uses Discontinuous Rx but still Idle Discontinuous Rx..plus Power Saving Mode (PSM) Device goes into deep sleep for periods Extended Long Discontinuous Rx PSM Devices goes into deep sleep for extended periods Battery Life: Target for Cat-NB1: 10+ years of battery life.

What are the Gotcha s Reduced Bands: Make sure your IoT device uses the band used by your carrier for IoT (700 or 900MHz) Reduced Tx Power: 20dBm reduces coverage by ~3dB. Cat-M1 & Cat-NB1 could be 23 dbm or 20dBm Make sure you get the right version. Half Duplex: Cat-M1 - Half duplex means reduced speed If you want greater than 375kbps then you need full duplex or a Cat-1 device Reduced Antennas: Cat-M1 1 antenna reduces downlink coverage by 3-4dB no impact on uplink If you need better coverage get the 2 antenna device.or go to CAT-NB1 Stationary Fading Impact: Devices may not move - Could be sitting in a null reduced coverage Multi band devices might be in a null on one band but ok in another band.

What are the Gotcha s Poor Antennas: Compact antennas in small devices will have reduced coverage Some devices have external antenna option something external will be a lot better than an integral antenna buried in the a device. Understand your environment. Poorly Located Devices: Make sure you understand your environment Devices may be located deep inside building or even underground in a water meter. Battery Life: If you transmit a lot of data you won t get 10 years of battery life. Only Cat-NB1 low data rate devices are really suitable for battery operation. Try and make them go into power saving mode for as long as possible. IoT Device Modules: Some modules are interchangeable. Some module manufacturers use the same daughterboard for Cat-1, Cat-M1 & Cat-NB1 Note some chip manufactures use the same hardware for Cat-M1 & Cat-NB1 If you find you need more speed just change up a device category.

Cellular IoT Summary Range of Devices: Cellular IoT offers a complete range of devices from ultra high speed to ultra low speed not just low speed Coverage: Cellular IoT coverage is everywhere you have 4G coverage - and more!!! Operating Environment: Cellular IoT uses the extra sensitivity of the device to make up for the poor operating environment Cost: Cellular IoT devices will be cheap due to reduced complexity effectively competing with Zigbee and LoRa Gotcha s: You need to understand the performance trade-offs

Thank You