doc IEEE 802 15 15 05 0643 01

  • Slides: 36
Download presentation
doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Project:

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Project: IEEE P 802. 15 Working Group for Wireless Personal Area Networks (WPANs) Submission Title: [UWB Interference Measurement Report of Japan] Date Submitted: [14 November, 2005 ] Source: [Yukitoshi Sanada] Company [UWB Demonstration Experiments Task Force in MMAC Forum] Voice: [+81 -45 -566 -1427], FAX: [+81 -45 -566 -1427], E-Mail: [sanada@elec. keio. ac. jp] Re: [] Abstract: [Results of the UWB Interference Measurement Conducted in UWB Demonstration Experiments Task Force in MMAC Forum] Purpose: [To provide the information related to the UWB spectrum mask in Japan] Notice: This document has been prepared to assist the IEEE P 802. 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 P 802. 15. Submission 1 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 UWB

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 UWB Interference Measurement Report of Japan MMAC (Multimedia Mobile Access Communication Systems) Forum http: //www. arib. or. jp/mmac/e/index. htm Submission 2 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 What

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 What is MMAC? MMAC are portable Wireless Access Systems which can transmit ultra high speed, high quality Multimedia Information "anytime and anywhere" with seamless connections to optical fiber networks Submission 3 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 -MMAC

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 -MMAC Forum. Objective The objective of the Forum is to realize MMAC as soon as possible through investigations of system specifications, demonstrative experiment, information exchange and popularization activities and thereby contribute to the efficient use of radio frequency spectrum. Activities 1. Investigation 2. Study on system specifications 3. Demonstrative experiment 4. Information exchange and popularization activities 5. Other business Establishment December 4, 1996 Submission 4 Y. Sanada (UWB Demonstration Experiments Task Force)

Nov. 2005 doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Organization

Nov. 2005 doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Organization UWB-WG (Working Group) mission 1. Planning and implementing UWB (Ultra Wide Band) demonstration experiments ⇒Ad-hoc ”UWB Demonstration Experiments Task Force “ organized 2. Grasping the UWB standardization situation in IEEE 802. 15 (committee that promotes the standardization of shortdistance wireless communication format (wireless PAN (Personal Area Network)) and situation of deliberations on UWB at the Telecommunications Council 3. Preparation of draft for domestic standardization of UWB Submission 5 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 UWB

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 UWB Demonstration Experiments Task Force Over 30 companies joined Leader Prof. Sanada, Keio University: Secretary Mr. Yuasa, ARIB Texas Instruments Japan Limited Intel Corporation WILLCOM, Inc Japan Aerospace Exploration Agency Space Communication Corporation NEC TOSHIBA Space Systems, Ltd. NHK Science & Technical Research Laboratories NTTDo. Co. Mo, Inc Tokyo FM Broadcasting Co. , Ltd. KDDI CORPORATION JSAT CORPORATION National Institute of Information and communication Technology (NICT) Advanced Space Business Corporation Sony Corporation TDK Corporation tv asahi corporation TV TOKYO Corporation TOKYO ELECTRIC POWER COMPANY Tokyo Broadcasting System, Inc. Submission NIPPON TELEVISION NETWORK CORPORATION NIPPON TELGRAPH AND TELEPHONE CORPORATION The National Association of Broadcasters in Japan (NAB) Japan Radio Co. , Ltd. Hitachi, Ltd. FUJITSU LIMITED Fuji Television Network, Inc. Freescale Semiconductor Japan Ltd. Furuno Systems Co. , Ltd. Furuno Electric Co. , Ltd. Nippon Cultural Broadcasting Inc. Matsushita Electric Works, Ltd. Mitsubishi Electric Corporation Mobile Broadcasting Corporation YOKOGAWA Electric Corporation *The name of the participants are listed on pp. 35 -36. 6 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 UWB

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 UWB Demonstration Experiments Task Force Victim systems are categorized to 5 groups to test ① Fixed Microwave radio systems ② Terrestrial Electronic News Gathering (ENG) ③ Satellite・Earth station ④ Cellular phones ⑤ Wireless Access The following interference signals are common ① MB-OFDM (made by Wisair , offered by Ti/Intel ) ② DS-UWB (made and offered by FSL) ③ IR (PRF =1 M& 10 MHz) (made and offerd by NICT) ④ AWGN Submission 7 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Tested

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Tested Systems Operation Frequency of MB-OFDM and DS-UWB Modules in the Experiment IR without BPF 1 GHz 3 GHz 2 GHz 4 GHz 5 GHz Freq. A-FPU 3. 4 GHz D-FPU 4 GHz(*1) 4430 MHz ① Fixed Microwave ② Terrestrial Electronic News Gathering radio systems PDC /1 x. EV-DO 800 MHz Band PDC WCDMA /1 x. EV-DO 2 GHz Band 1. 5 GHz Band 11 j 4. 92 GHz ⑤ Wireless Access ④ Cellular phones GPS 1. 575 GHz Mobile Broadcasting 2. 64 GHz FSS 3. 6 -4. 2 GHz *1 )Digital FPU Operation frequency is 7 GHz. It is down converted to 4 GHz for the test. ③ Satellite・Earth station Submission 8 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 TEST

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 TEST TIME TABLE Group Tested system Test Done at Fixed Microwave radio systems Fixed Microwave radio system Mar. 22 -24 Terrestrial Electronic News Gathering Digital FPU Analog FPU July 19 -20 Cellular phones 1 x. EV-DO May 23 -26 PDC&WDCMA July 4 -6 GPS April 19 -20 Mobile Broadcasting July 11 -12 FSS August 2 -5 11 j June 7 -9 Satellite・Earth station (Common test done April 11 th) Wireless Access March April 2005 Submission May June Reported to Telecommunication council Done at August 25 th. Therefore, the report is open to the public. Done at October 27 th. Therefore, the report is open to the public. July August September Fixed Microwave systems GPS 1 x. EV-DO(CDMA 2000) Wireless Access PDC& WCDMA Mobile Broadcasting Terrestrial Electronic News Gathering FSS 9 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Simplified

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Simplified Common Experiment Scheme The wired set up is selected to measure the stable and accurate interference power so that the quantitative measurements are performed rather easily. General test flow PER or BER measurement Victim Tx systems ATT 1 + Victim Rx systems Set Desired signal to a certain level from ‘Minimum sensitivity’, Measure PER/BER By adding various level of Interference signals ATT 2 ○ AWGN DS- UWB MB-OFDM ‘Minimum sensitivity’ is measured by desired signal only IR (1 M, 10 M) The output is C/N vs. BER (PER) Submission 10 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Interference

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Interference Signal Characteristics Table. 1 NICT UWB Testbed (IR) Item condition 1 Tx freq. range 3100 MHz - 5000 MHz 2 Tx power -41. 3 d. Bm/MHz 3 Pulse shaping Root raised cosine & modulated cosine 4 Mapping 5 Pulse width 1 n. S 6 PRF 1 PRF 2 1 MHz 10 MHz Note FCC limit value programmable Table 2 DS-UWB Module item condition note 1 Tx freq, range 3100 MHz - 4900 MHz 4104 MHz center 2 Tx power -41. 3 d. Bm/MHz FCC limit value 3 mode Test mode Continuous Tx 4 rate 114 Mbps (12 chips ) 5 modulation BPSK(ternary code) + CDMA 6 Chip rate 1368 Mbps Submission 11 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Interference

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Interference Signal Characteristics Table 4 -3 MB-OFDM Module item condition 1 Tx freq. range 3164 MHz – 4752 MHz f 1: 3432 MHz f 2: 3960 MHz f 3: 4488 MHz 2 Channel BW 528 MHz 3 Tx power -41. 3 d. Bm/MHz FCC limit value 4 mode Test mode Continuous Tx 5 rate 100 Mbps 6 Hopping pattern f 1⇒f 2⇒f 3⇒f 1⇒f 2 ⇒f 3 7 Modulation QPSK/OFDM 8 Gain Control ON Submission note Time Frequency Code (TFC)=1 12 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Reminder

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Reminder The following data are just sampled cases of various equipments that serve for Fixed Microwave radio systems, GPS, Cellular phones, Broadcasting, Mobile broadcasting, Fixedsatellite service, Wireless access, respectively. The mission of this Task Force is to perform the demonstration test and submit the data to the upper level council for the discussion of the acceptable UWB interference level. Therefore, the Task Group does not make any evaluation on UWB interference acceptance level. Submission 13 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Fixed

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Fixed Microwave Radio Systems Fixed Microwave radio system Test set AWGN SA Tx frequency A 1: 4430 MHz 2 Tx power +26 d. Bm 3 Modulation 64 QAM 4 Demodulation Synchronized detection 5 Rx Single Rx 6 Transversal Equalizer ON 7 Cross wave Interference compensation OFF 8 FEC ON or OFF 9 Rate 155. 2 Mbps 1 Fixed Microwave radio system and etc Submission 14 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Fixed

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Fixed Microwave Radio Systems -66. 4 d. Bm Above power values are 27. 9 MHz Band power, which is the assumed BW of Fixed Microwave radio systems Received Signal Power (d. Bm) Submission 15 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 GPS

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 GPS 1575. 42 MHz CW Signal Gen. PN Gen. GPS signal ATT-1 1575. 42 MHz ④ ① 10 MHz clock OUT左 cable UWB 3 GPS OSC 3 d. B 6 d. B SA Or 50Ω termination SMA-F Pre-amp SMA-M ⑤ ATT-2 Gain=19. 1 d. B NF=1. 3 d. B GP-IB Air space loss La= 43 d. B (2 m) tester Pseudo server PC Test set 16 pin Level change cable UWB 7 Shield box UWB-1 IR-UWB Testbed + - UWB-1 Submission 16 PRF=1 MHz、 10 MHz Cable loss : UWB 6+UWB 3=2. 0 d. B @ GPS band UWB-3 MB-OFDM cable UWB 6 800 MHz multi power Circu. ②-① loss: 9. 6 d. B @GPS 、 @ATT 2=0 d. B ② IN UWB-2 DS-UWB FCC ATT-3 LNA 2 20 d. B ③ IN LPF 10 GHz AWGN -41. 3 d. Bm/MHz @ 3. 1 ~ 10. 6 GHz -75. 3 d. Bm/MHz @ GPS Band Y. Sanada (UWB Demonstration Experiments Task Force)

Nov. 2005 doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a GPS

Nov. 2005 doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a GPS signal power is set to -130 d. Bm. In the left figure, the power level is as is, in both DS and MB, due to too small output to set -75 d. Bm/MHz (FCC Mask). The right figure is set to -75 d. Bm/MHz by removing IR BPF. The X-axis value is from -75 d. Bm/MHz. For example, 45 d. B means -(75 + 45) = - 120 d. Bm/MHz equivalent. Submission 17 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Cellular

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Cellular Phones (1) PDC (3) 1 x. EV-DO Items settings Use Band 800 M 1. 5 G Receive Band 810~ 818 MHz 870~ 885 MHz 1487~ 1491 MHz BW 21 k. Hz Speed 11. 2 kbps BER observe line 0. 01 (1%) Receiver sensitivity [requirement] 4 d. Bμ(-109 d. Bm/21 k. Hz) items settings Cell Band ・Japan CDMA (Band Class 3: 800 MHz Band) ・IMT-2000 (Band Class 6: 2 GHz Band) Channel 968(800 MHz. Band) 150(2 GHz Band) Rate 153. 6 kbps、2457. 6 kbps (2) WCDMA Items settings Type of User Information 12. 2 kbps reference measurement channel User bit rate 12. 2 kbps DL DPCH symbol rate 30 ksps UL DPCH bit rate 60 kbps Operating Band (UL) 1920 -1980 MHz Operating Band (DL) 2110 -2170 MHz Bandwidth 3. 84 MHz BER target 10 -3 (0. 1%) Submission 18 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Cellular

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Cellular Phones Power measurements The cellular receiver frequencies are located at the out of band of DS-UWB and MB-OFDM. Therefore, these powers are not measured and it means their power at that frequency is under the SA measurement limit of -153 d. Bm/Hz. Interference Power at each desired signal strength point Next Table shows the comparison between AWGN and UWB at each desired signal strength points. The “path-loss” in Table means the total loss from Tx terminal to Rx terminal. The values shown are calculated from ATT set, system loss and receiver internal loss. Also “Signal group A” means the grouped data, where the power measurement was not done due to SA limit. The most outstanding “path-loss” is listed from the data of the group. Submission 19 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Cellular

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Cellular Phones 1) PDC 800 MHz, Power at BER=0. 01 PDC 800 MHz Smin+0. 4 (I/N=-10) Smin+1 (I/N=-6) Smin+3 (I/N=0) AWGN -137. 5 d. Bm -132. 5 d. Bm -126. 5 d. Bm IR PRF=1 MHz -136. 0 d. Bm -131. 5 d. Bm -125. 5 d. Bm IR PRF=1 MHzpath-loss(*1) 66 d. B 61 d. B 55 d. B AWGN -135. 0 d. Bm -131. 5 d. Bm -126. 5 d. Bm IR PRF=10 MHz -137. 5 d. Bm -132. 5 d. Bm -126. 7 d. Bm IR PRF=10 MHzpath-loss(*1) 79 d. B 74 d. B 68 d. B Max. path-loss of group A(*2) 11dB <8dB Smin+0. 4 (I/N=-10) Smin+1 (I/N=-6) Smin+3 (I/N=0) AWGN -134. 2 d. Bm -129. 5 d. Bm -124. 2 d. Bm IR PRF=1 MHz -135. 0 d. Bm -130. 5 d. Bm -125. 0 d. Bm 59 d. B 55 d. B 50 d. B AWGN -134. 2 d. Bm -129. 5 d. Bm -124. 2 d. Bm IR PRF=10 MHz -134. 0 d. Bm -128. 5 d. Bm -122. 5 d. Bm IR PRF=10 MHzpath-loss(*1) 64 d. B 59 d. B 53 d. B Max path-loss of group A(*2) <8dB (2) PDC 1. 5 MHz, Power at BER=0. 01 PDC 1. 5 GHz IR PRF=1 MHz path-loss(*1) Submission 20 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Cellular

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Cellular Phones (3) WCDMA, Power at BER=0. 001 (4) 1 x. EV-DO 800 MHz, Power at PER=0. 05 WCDMA Smin+0. 4 (I/N=-10) Smin+1 (I/N=-6) Smin+3 (I/N=0) AWGN(*3) -120. 4 d. Bm -117. 8 d. Bm IR PRF=1 MHz(*3) -121. 7 d. Bm IR PRF=1 MHz path-loss(*1) CDMA 2000 Smin+3 (I/N=0) -112. 4 d. Bm AWGN -98 d. Bm -117. 1 d. Bm -110. 9 d. Bm IR PRF=1 MHz -101 d. Bm 50 d. B 46 d. B 39 d. B AWGN(*3) -120. 4 d. Bm -117. 8 d. Bm -112. 4 d. Bm AWGN -98 d. Bm IR PRF=10 MHz(*3) -120. 5 d. Bm -116. 5 d. Bm -111. 5 d. Bm IR PRF=10 MHz -101 d. Bm IR PRF=10 MHz path-loss(*1) 58 d. B 54 d. B 49 d. B IR PRF=10 MHz path-loss(*1) 36 d. B Max path-loss of group A(*2) 22 d. B 17 d. B 10 d. B Max path-loss of group A (*2) 10 d. B IR PRF=1 MHz path-loss(*1) 27 d. B (5) 1 x. EV-DO 2 GHz. Hz, Power at PER=0. 05 (*1) ATT set + system loss (wire, etc. ) (*2) Group A is the UWBs that their power of Cellular Band are not measured due to SA limit. The listed value is the largest required attenuation. (*3) Converted values complied with 3 GPP specification Submission 21 CDMA 2000 Smin+3 (I/N=0) AWGN -102 d. Bm IR PRF=1 MHz -112 d. Bm IR PRF=1 MHz path-loss(*1) 39 d. B AWGN -102 d. Bm IR PRF=10 MHz -110 d. Bm IR PRF=10 MHz path-loss(*1) 44 d. B Max path-loss of group A (*2) 8 d. B Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Terrestrial

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Terrestrial Electronic News Gathering Table :Analog FPU Table:Digital FPU item condition IF center freq. (Fc) 130 MHz Fc 3400 MHz BW 17. 5 MHz BW 400 k. Hz Fc, after up-conversion 4. 0 GHz Output power 1 W Tx signal PN 23 order Modulation FM FEC rate 5/6 I/F Analog audio 600Ω 0 d. Bm std. Carrier modulation 64 QAMOFDM -60 d. Bm Interleave 0 ms or 80 ms Receiver power set for test (Path loss included) Data rate 59. 648 Mbps BPF BER Tester FPU Tx Submission SG AMP FPU Rx 22 Y. Sanada (UWB Demonstration Experiments Task Force)

Required D/U Ratio [d. B] Nov. 2005 Digital FPU doc. : IEEE 802. 15

Required D/U Ratio [d. B] Nov. 2005 Digital FPU doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Points show BER=1 e-4: Y-axis: D/U X-axis: Min. Sensitivity + x Interleave 0 ms (Fixed circumstance) Required D/U Ratio [d. B] Desired Signal Power normalized by the Minimum Sensitivity [d. B] Interference: UWB, Desired Signal: Digital FPU (Full Mode, 64 QAM, Time Interleave=0 ms) Desired Signal Power normalized by the Minimum Sensitivity [d. B] Interference: UWB, Desired Signal: Digital FPU (Full Mode, 64 QAM, Time Submission 23 Interleave=80 ms) Y. Sanada Interleave 80 ms (Mobile, ex. Marathon) (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Terrestrial

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Terrestrial Electronic News Gathering Table Required DU Reuqired DU* (d. B) () shows the referenced value to that of AWGN (d. B) victim AWGN DS-UWB IR(PRF-1 M) IR(PRF-10 M) MB-OFDM Digital FPU Interleave 0 ms 22. 4 (-) 22. 8 (+0. 4) 25. 6 (+3. 2) 26. 3 (+3. 9) 22. 9 (+0. 5) Digital FPU Interleave 80 ms 22. 5 (-) 22. 7 (+0. 2) 22. 4 (-0. 1) 22. 9 (+0. 4) 23. 4 (+0. 9) Analog FPU 48* (-) 37. 3 (-10. 7) 49. 8 (+1. 8) 59. 3 (+11. 3) 43. 6 (-4. 4) Note:Digital FPU’s DUs are the value observed when FPU receiver power is set at Minimum sensitivity +10 d. B. Analog FPU’s DUs are the value observed when FPU receiver power is set to -59. 9 d. Bm. Also the Analog FPU’s value is by hearing evaluation. *AWGN in analog FPU test utilizes the BPF of BW 40 MHz. Submission 24 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Mobile

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Mobile Broadcasting System Parameter Carrier Frequency 2. 6425 GHz Bandwidth 25 MHz Modulation Scheme CDM Chip Rate 16. 384 MHz Process Gain 64 Spreading Code Walsh Code and Shortened M Sequence FEC Convolutional Code and RS Code (204, 188) Interleave Byte Interleave:Convolutional Interleaver Bit Interleave:Convolutional Interleaver with 3 -Segmental Groups MBCO Broadcasting Signal Generator (Part 1) Submission MBCO Broadcasting Signal Generator (Part 2) 25 MBCO Terminal Y. Sanada (UWB Demonstration Experiments Task Force)

Nov. 2005 doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Mobile

Nov. 2005 doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Mobile Broadcasting Degradation @BER=1. 0 E-3 Evaluation IR_1 M Off the register Different performance from AWGN IR_10 M +0. 05 d. B No degradation Same performance as AWGN MB_OFDM -0. 17 d. B No degradation Same performance as AWGN These results are obtained under the condition of the specific single UWB signal sources. Therefore it can NOT be said that the results obtained here applicable to other UWB signals and/or its operation under the different conditions from specified here. Submission 26 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Fixed-Satellite

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Fixed-Satellite Service System Parameter Center Frequency (Rx) 3. 868 GHz (Tx=6. 093 GHz (2. 225 GHz)) Modulation Scheme QPSK Convolutional Code 3/4 Read Solomon None Turbo Coding None Header Received Signal Power LOW (-55 d. Bm) Experiment Conditions Common Parameters Data Rate Comments D/C Input Power QPSK FEC=3/4 64 kbps Only 1 condition each can be measured with UWB-C and UWB-D*. -53~-56 d. Bm 128 kbps Measurements are conducted only for UWB-A* and UWB-B*. D/C input level is set to about 10 d. B lower than that with the data rate of 64 kbps or 2, 048 kbps. -59~-61 d. Bm 512 kbps UWB-D* can not be measured due to the input signal level. D/C input level is set to 5 d. B larger when UWB-C* and UWBD* are measured. -44. 5~-48 d. Bm 2, 048 kbps The signal pattern, "(112) 2047"-1, is employed. -56~-60 d. Bm *UWB-A/B/C/D corresponds to one of DS-UWB, MB-OFDM, IR-UWB(PRF 1 MHz) or IR-UWB(PRF 10 MHz), but not specified in this document. Submission 27 Y. Sanada (UWB Demonstration Experiments Task Force)

BER Performance (UWB-A, QPSK, FEC=3/4) BER Performance (White Noise, QPSK, FEC=3/4) doc. : IEEE

BER Performance (UWB-A, QPSK, FEC=3/4) BER Performance (White Noise, QPSK, FEC=3/4) doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 BER Performance (UWB-C, UWB-D, QPSK, FEC=3/4) BER Performance (UWB-B, QPSK, FEC=3/4) Submission 28 Y. Sanada (UWB Demonstration Experiments Task Force)

SYNC LOSS Performance (UWB-A, QPSK, FEC=3/4) SYNC LOSS Performance (White Noise, QPSK, FEC=3/4) doc.

SYNC LOSS Performance (UWB-A, QPSK, FEC=3/4) SYNC LOSS Performance (White Noise, QPSK, FEC=3/4) doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 SYNC LOSS Performance (UWB-B, QPSK, FEC=3/4) Submission SYNC LOSS Performance (UWB-C, UWB-D, QPSK, FEC=3/4) 29 Y. Sanada (UWB Demonstration Experiments Task Force)

Nov. 2005 Fixed-Satellite Service doc. : IEEE 802. 15 -15 -05 -0643 -01 -003

Nov. 2005 Fixed-Satellite Service doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Interference Source BER Performance White Noise Similar as the typical performance of the modem (CDM-550 T) tested UWB-A Depending on the data rate, the BER performance curves show 1 -1. 5 d. B difference. The maximum difference from the performance curve with the white noise is about 2 d. B. UWB-B Depending on the data rate, the BER performance curves show maximum 4 d. B difference. The maximum difference from the performance curve with the white noise is about 2 d. B. UWB-C Depending on the data rate, the BER performance curves show 0. 5 -1. 0 d. B difference. The maximum difference from the performance curve with the white noise is about 2 d. B. UWB-D The difference from the performance curve with the white noise is about 2 d. B. The limited number of measurement results are available due to synchronization loss. BER Performance: ・The BER performance as compared to that with the white noise depends on the data rate of the fixed-satellite service system. When the data rate is 2 Mbps, the BER performance is about 2 d. B worse than that with the AWGN. From the figures, more degradation can be observed as the data rate increases. ・When the white noise is used as the interference source, the BER performance does not change even if the data rate is changed. On the other hand, the BER performance changes depending on the data rate when the UWB signal source is employed as the interference (Maximum 4 d. B). Sync Loss Performance: Because the step of the attenuator is 1 d. B, the accurate measurement was not possible. From the figures, the sync loss point is almost same with the white noise with different data rates. However, there is at most 2 d. B difference with the UWB as the interference source. Submission 30 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Fixed-Satellite

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Fixed-Satellite Service Because the influence of the UWB signal sources is different from that of the white noise, additional experiments are required in order to obtain the detailed results. The additional experiments should be conducted with the following conditions; ・ Different combinations of the system parameters (modulation schemes, FEC parameters, etc. ) ・ Different signal levels ・ Receivers from different manufactures ・ With multiple UWB signal sources ・ Different frequencies offsets between UWB signals and FSS (as the UWB signal sources have ripples on their frequency spectrum) ・ More realistic transmission environments ・ As the bandwidth of the LNA is 575 MHz, the FSS should be considered as a wideband system. Submission 31 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Wireless

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Wireless Access System Parameter Submission Center Frequency 4. 92 GHz Transmission Power 18 d. Bm Bandwidth 17. 2 MHz Modulation Scheme 64 QAM Data Rate 54 Mbps Packet Length 802. 11j (1000 bytes) 32 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 802.

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 802. 11 j System vs UWB C/I Performance(Receiver Sensitivity@54 Mbps PER=10% +3 d. B) Submission 33 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 802.

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 802. 11 j System vs UWB C/I Performance(Receiver Sensitivity@54 Mbps PER=10% +6 d. B) Submission 34 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 -Acknowledgement.

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 -Acknowledgement. To those who offered test equipments and those who participated to actual experiments Prof. Sanada of Keio University Mr. Yuasa of ARIB Mr. Shouno, Mr. Miura and Mr. Ameyama of Intel Corporation Mr. Uemura and Mr. Horibe of WILLCOM, Inc Mr. Okawara, Mr. Kogure and Mr. Imaoka of Japan Aerospace Exploration Agency Mr. Kohno of Space Communication Corporation Mr. Maeda of NEC TOSHIBA Space Systems, Ltd. Mr. Ikeda, Mr. kanbara and Mr. Suginoshita of NHK Science & Technical Research Laboratories Mr. Okada and Mr. Tsueda of NTTDo. Co. Mo, Inc Mr. Oda of Tokyo FM Broadcasting Co. , Ltd. Mr. Youkai, Mr. Tani, Mr. Kawai, Mr. Takahasi, Mr. Nomura of KDDI CORPORATION Mr. Inada and Mr. Tsuchiya of JSAT CORPORATION Mr. Nishiyama and Mr. Lee of National Institute of Information and communication Technology (NICT) Mr. Mitome, Mr. Kazekami and Mr. Tanaka of Advanced Space Business Corporation Mr. Iwasaki of Sony Corporation Mr. Misawa and Mr. Yata of TDK Corporation Mr. Yoshino of tv asahi corporation Mr. Nakabayashi of TV TOKYO Corporation List continues ---Submission 35 Y. Sanada (UWB Demonstration Experiments Task Force)

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Mr.

doc. : IEEE 802. 15 -15 -05 -0643 -01 -003 a Nov. 2005 Mr. Akashi of TOKYO ELECTRIC POWER COMPANY Mr. Saito and Mr. Miki of Tokyo Broadcasting System, Inc. Mr. Yamaguchi and Ms. Arai of Texas Instruments Japan Limited Mr. Hayashi of NIPPON TELEVISION NETWORK CORPORATION Mr. Shindo and Mr. Kagami of NIPPON TELGRAPH AND TELEPHONE CORPORATION Mr. Watanabe of The National Association of Broadcasters in Japan (NAB) Mr. Kida of Japan Radio Co. , Ltd. Mr. Noda of Hitachi, Ltd. Mr. Sakane and Mr. Ichii of FUJITSU LIMITED Mr. Sato of FUJITSU NETOWORK SOLUTIONS LIMITED Mr. Nakayama of Fuji Television Network, Inc. Mr. Kuramochi and Mr. Arai of Freescale Semiconductor Japan Ltd. Mr. Fujii and Mr. Sanada of Furuno Systems Co. , Ltd. Mr. Yamashita of Furuno Electric Co. , Ltd. Mr. Watanabe of Nippon Cultural Broadcasting Inc. Mr. Kuboyama and Mr. Yoshiki of Matsushita Electric Works, Ltd. Mr. Hayashi and Mr. Takayama of Mitsubishi Electric Corporation Mr. Fujita and Mr. Ishikawa of Mobile Broadcasting Corporation Mr. Shimada of YOKOGAWA Electric Corporation Submission 36 Y. Sanada (UWB Demonstration Experiments Task Force)