Project: IEEE P Working Group for Wireless Personal Area Networks (WPANs)

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Project: IEEE P802.15 Working Group for Wireless Personal Area Networks (WPANs) Submission Title: WPAN Applications Operating in TV White Space Date Submitted: March, 2011 Source: Mi-Kyung Oh, Cheolho Shin and Sangsung Choi Electronics and Telecommunications Research Institute(ETRI) Voice: +82 42 860 5680, E-maill: ohmik@etri.re.kr Re: [802.15.SG 4TV] Abstract: WPAN Applications Operating in TV White Space Purpose: To discuss WPAN applications operating in TV white space Notice: This document has been prepared to assist the IEEE P802.15. It is offered as a basis for discussion and is not binding on the contributing individual(s) or organization(s). The material in this document is subject to change in form and content after further study. The contributor(s) reserve(s) the right to add, amend or withdraw material contained herein. Release: The contributor acknowledges and accepts that this contribution becomes the property of IEEE and may be made publicly available by P802.15. Slide 1

Outline The goal of this document is to help the SG4TV to determine next steps by presenting known service models and possible WPAN applications operating in TV white space This document includes TV white space introduction TV white space service model WPAN Applications operating in TV white space Possible scope and purpose for PAR Slide 2

TV White Space Introduction Slide 3

TV White Space TV White space (TVWS) Unused radio spectrum which has either never been used, or is becoming free as a result of technical changes TVWS Characteristics TVWS network operates in VHF/UHF band. The center frequencies are fixed and specified for each TV channel. The band may not be continuous. Bandwidth of each TV channel is 6MHz in US and 7MHz or 8MHz in other area. Slide 4

TV White Space Comparison of TVWS band with 2.4GHz and 5GHz Path loss smaller Number of multiple paths more Delay spread bigger Coherent bandwidth smaller Doppler frequency lower Coherent time larger Slide 5

TV White Space TVWS bands are attractive for the following reasons: The availability of a large amount of spectrum that can be used to provide connectivity Propagation qualities that provide for Line of Sight (LOS), Near Line of Sight (nlos) and Non Line of Sight (NLOS) performance Larger coverage areas due to excellent propagation characteristics that allow signals to reach farther and penetrate walls and other structures Slide 6

FCC Decision on TVWS On November 4, 2008, the FCC permitted both fixed and personal/portable unlicensed devices to operate in the TV bands. CH Frequency(MHz) Target device 2 54-60 Fixed device 5-6 76-88 Fixed device 7-13 174-216 Fixed device 14-20 470-512 Fixed device 21-36 512-608 Fixed device, personal/portable device 38-51 614-698 Fixed device, personal/portable device Slide 7

FCC Decision on TVWS On September 23, 2010 the FCC released a Memorandum Opinion and Order that determined the final rules for the use of white space for unlicensed wireless devices. The new rules removed mandatory sensing requirements which greatly facilitates the use of the spectrum with geolocation based channel allocation. The final rules adopt a proposal from the White Spaces Coalition for very strict emission rules that prevent the direct use of other TV band device (TVBD). Slide 8

Simple TV White Space Operation 1. On-air TV Transmitters and other protected users are listed in FCC Database. 2. TVWS Transmitter uses geolocation and reads FCC database to identify the unused channels that are available at its location. 3. TVWS system protects incumbent channel by communicating on an available channel. Slide 9

FCC Regulations Protection criteria for incumbent services: transmission power level and channel usage constraints Fixed and Mode II personal/portable devices operating with power levels greater than 40mW must operate outside the protected contours of both co-channel and adjacent channel TV stations at a sufficient separation distance. At least three continuous TVWS bands should be available. Personal/portable device operating with power levels of 40mW or less are permitted to operate within the protected contours of adjacent channel TV stations due to lower risk of causing harmful interference at that power level. Slide 10

Activities related with TVWS IEEE 802.22 - WRAN IEEE 802.11af - TVWS WiFi IEEE 802.16h-2010 - Unlicensed WiMAX IEEE 802.19.1 - Interoperability ECMA TC-48 TG1 White Spaces Coalition IEEE 802.15: SG4TV?? Slide 11

TV White Space Service Model Slide 12

TV White Space Service Model Fixed-to-fixed Model: IEEE 802.22 WRAN Service model to enable broadband wireless access in rural areas, farms and suburbs Wireless connection between fixed WRAN base station and fixed CPE with power level of 4W EIRP Protection of incumbent user Fixed device achieves the available channel information from the Geolocation database using fixed location CPE: Customer premises equipment Slide 13

TV White Space Service Model Fixed-to-Fixed Ad-hoc Extended Model In addition to WRAN model, in-home devices such as PC and IPTV can be connected to fixed CPE with interface of Wi-Fi AP. Transmission power of personal/portable device For outside adjacent channel: Max.100mW For outside co-channel: Max. 40mW Protection for incumbent users Potable devices use the same channel with the fixed CPE Slide 14

TV White Space Service Model Fixed-to-Fixed Public Access Point Model Wi-Fi 2.0: Nationwide Wi-Fi networks Using the same Wi-Fi MAC over newly developed TVWS PHY, the conventional IP-based services can be directly deployed Fixed CPE: used as AP In the public area # of available TV channels in metropolitan area might be small (1~2 channels) TX Power: Max. 40mW Wi-Fi Coverage is limited Slide 15

TV White Space Service Model In-house Multimedia Streaming Model Triple play service: telephone/internet/cabletv Conventional wireless solution (WLAN) Penetration loss is too high (floor-to-floor or room-to-room) Cable based wired solution High installation cost Standardization Wireless solution based on TVWS channel ECMA TC-38 TG1 Slide 16

TV White Space Service Model Wireless Sensor Network Model Wireless sensor network operating in TVWS Extended coverage & low-cost deployment Robust & secure connection Applications Infrastructure related sensor network Human related sensor network Wireless Medical Telemetry Service (WMTS) is currently available in CH37 Remote monitoring and control of life-critical equipments (e.g. pacemaker, drug pump) Slide 17

Demonstration Project A number of TV bands device applications are already operating on an experimental basis Wilmington (North Carolina): Smart City applications, including public hot spots, low-cost broadband to a low-income housing development, and water level and water purity sensors. Claudville (Virginia): broadband access to a rural elementary school, as well as to consumers in their homes, and newly established public hot spots. Plumas County (California): Smart Grid trial for electricity network, which allows the electric cooperative to manage the electrical system, obtain data from substation, and manage power flow. Slide 18

WPAN Applications operating in TVWS Slide 19

WPAN Applications In accordance with wireless sensor network model, any WPAN applications can operate in TV white space. Smart utility network (SUN) Wireless sensor network Home network Surveillance, control and monitoring network Infrastructure monitoring network Local Network in Machine to Machine (M2M) Scenario Slide 20

WPAN Applications WPAN usage on M2M scenario Slide 21

Extension of WPAN to TVWS Why is the extension of WPAN to TVWS required? Scalable data rate on dynamic request basis Additional bandwidth over crowded WPAN band due to increasing personal devices Low power and power-efficient WPAN devices Cost-effective WPAN deployment and management Extended coverage Enabling the effective use of TV white space Unlike WLAN, WPAN in TVWS can allow small, powerefficient, inexpensive solutions to be implemented for a wide range of devices Slide 22

Effective Use of TV White Space According to FCC regulation, personal/portable device operating with power level 40mW or less are permitted to operate in adjacent channel Low power class only: WPAN devices Fixed and personal/portable devices with high transmission power must avoid co-channel and firstadjacent channels. All power classes: WRAN, WLAN, WPAN devices Although WRAN and WLAN can easily fail to operate in scarce TVWS due to regulation, WPAN still have opportunity to operate in TVWS due to lower risk of causing harmful interference at the low power level. Slide 23

Effective Use of TV White Space Example of TV channel allocation WRAN and WLAN can use CH23, 24 and 28. WPAN can use CH22, 25, 27, 29, 31, 32, 34, 35, as well as 23, 24, 28. Slide 24

Possible Scope and Purpose for PAR Slide 25

IEEE 802.15.4g Smart Utility Network SUN is a principally outdoor, low rate wireless network that supports two-way communications among sensing measurements and control devices in the smart grid. 3 PHY technologies MR-FSK, MR-OFDM, MR-OQPSK Various data rate modes 4.8Kbps~800Kbps Therefore, SUN can cover many applications in WPAN areas. Slide 26

Possible Scope and Purpose for PAR Scope: An amendment that defines modifications to the 802.15.4 low rate WPAN for Smart Utility Networks to meet the legal requirements for channel access and coexistence in the TV White Space Purpose: The purpose of this amendment is to allow 802.15.4 low rate WPAN for Smart Utility Networks to be used in the TV white space Slide 27

References [1]IEEE802-sg-whitespace-09-0007-07-0000 ECSG ADHOC USE CASE SLIDE DECK, Jan. 2009 [2]11-10-0261-02-00af, March 2010 [3]FCC Second Memorandum and Order, Sept., 2010 [4] TV whitespace service model in the US, 2009 [5] Analyzing the new TV white space rules, 2010 Slide 28