antennas, propagation 1 and transceiver ic · pdf filesystem (sony) system spec. ic ... (tokyo...
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Antennas, Propagation and Transceiver IC Technologies
for Millimeter Wave Radio Systems for 5G Networks.
- the Tokyo Tech Wireless Fiber Project-.
Makoto AndoTokyo Institute of Technology
1
1km
Multi-Band HetNet
7/2/2013
3
• Macro-pico interference management is necessary • Spectrum splitting loss occurs in single-band HetNet(e.g. ABS)
• Multi-band HetNet achieves BW enhancement without interference
Single-Band Multi-band
2GHz bandMacro:
Pico:
3GHz bandMacro:
Pico:
60GHz bandMacro:
Pico:
Center freq: 2GHzBW: ρ×10MHzTx power: 46dBm
Center freq: 2GHzBW: (1-ρ)×10MHzTx power: 24dBm
Center freq: 2GHzBW: 10MHzTx power: 46dBm
Center freq: 3.5GHzBW: 100MHzTx power: 30dBm
Center freq: 2GHzBW: 10MHzTx power: 46dBm
Center freq: 60GHzBW: 2.16GHzTx power: 10dBm
C-RAN with MM-Wave Fronthaul
7/2/2013
4
• Integrate 60G pico BSs as RRHs of C-RAN based cellular network• mm-wave fronthaul based on enhanced CPRI to reduce deployment cost
60G pico BSs are connected to C-RAN as RRHs to integrate into 3GPP standards
Macro BS
Enhanced RRHbased 60G pico BS
Mm-wave fronthaul is introduced to reduce deployment cost
“Tokyo Tech Wireless-Fiber Project”2007.4-2012.3-2016.3
Background of MMBackground of MM--wave Project wave Project
The 5 year (2007The 5 year (2007--2012) project 2012) project ““RF Coexisting RF Coexisting Technology on High Speed Baseband IC for Technology on High Speed Baseband IC for Millimeter Wave Radio SystemsMillimeter Wave Radio Systems”” was supported by was supported by Government (MIC) as well as IndustryGovernment (MIC) as well as Industry’’s s participation. The objective was to develop RF participation. The objective was to develop RF coexisting technology on high speed baseband coexisting technology on high speed baseband CMOS for Millimeter wave radio systems. Outdoor CMOS for Millimeter wave radio systems. Outdoor and indoor beyond and indoor beyond GbpsGbps were designed, the former were designed, the former of which was installed in Tokyo Tech campus.of which was installed in Tokyo Tech campus.
75 mm
32 m
m
Post-wall planar antenna
Connector (for DC and IF)
MMICPackage
(cm)
IF
VDD
VGG
Thickness of the antenna substrate : 1.2 mm
Upper side
Backside
Outdoor
Indoor
10 50 10010 50 100Frequency (GHz)
( Gbps )0.1 1.0 10
( m )
101
102
103
104
エントランス
デジタル家電動 画
WIPAS B-WIPAS
USB2.0無線
デジタル家電
( Gbps )0.1 1.0 10
( m )
101
102
103
104
エントランス
デジタル家電動
B-WIPAS
USB2.0無線
デジタル家電
( m )
101
102
103
104( m
)
101
102
103
104
Backhaul
デジタル家電動
B-WIPASB-WIPAS
USB2.0Radio
Digital ElectricalEquipment
Data Rate
Dist
ance
Digital Electrical Equipment(Movie)
1Gbps
3.5Gbps
Radio Entrance
Mobile Network Backhaul
Fixed Wireless Access
Outdoor
File Transfer( 0~10m)
target usage imagetarget usage image
Kiosk download
Indoor
Peer-to-peer
Time required for contents download via wireless systems
2011年1月Measured average speed
WiMAX 12MbpsLTE 4Mbps
A社FTTH 40MbpsB社FTTH 120Mbps
雑誌・漫画
音楽CD
映像DVD
新聞
単行本
MicroUHF
MM-wave
X 60GHzX 40GHz
Contents Size [MB]
Dow
nloa
d Ti
me
[sec
]
1GB: 3sec->1.5sec DVD: 13sec->7sec
“RF Coexisting Technology on Silicon CMOS High Speed Baseband IC for Millimeter Wave Radio Systems” (Tokyo Tech)
Medium Range Outdoor Entrance Radio Systems (JRC)
Short Range Indoor Wireless Access System (Sony)
System Spec. IC System Spec. IC
Phase Noise Compensation by Digital Signal Processing (Tokyo Tech)
Packaging, MMIC,RF Module(AMSYS)
GaNHPA (NEC)
High Gain Arrays (Tokyo Tech.)
Outdoor System Equipment (JRC)
Propagation Test (Willcom,KDDI lab)
Antennas on PCB / Chip (Tokyo Tech)
Indoor System Equipment (Sony)
Indoor Demonstration (Sony)
Phase Noise Compensation by Digital
Signal Processing (Tokyo Tech)
電波透過窓
ミリ波吸収リッド
ポスト壁導波路平面アンテナ
MMIC
MMIC 電波透過窓
ミリ波吸収リッド
ポスト壁導波路平面アンテナ
MMIC
MMIC
Radome
Slot plateWaveguide
RF/IF/ASIC modules
Packaging, MMIC,RF Module(AMSYS)
CMOS chips development
Step 1
Step 2
FutureStudy
chip size (mm x mm)power consumption (mW)
RF(Tokyo Tech)
BB(Tokyo Tech + Company)
90 nm43 mm2
600 mW
90 nm98 mm2
450 mW
65 nm38 mm2
560 mW
65 nm53 mm2
300 mW
40 nm35 mm2
560 mW
40 nm30 mm2
200 mW
2008
2009~ 2009~
F.Y.200938 GHz600 Mbps1 km
F.Y.201160GHz2.5 Gbps1 m
40 nm(system integrated as including CPU, MAC, interface)30 mm2, 500mW
2007 Outdoor syst.
Indoor syst.
feasibility studyfor indoor syst.
8 9 101112 1 2 3 4 5 6 7 8 9 10 1112 1 2 3 4 5 6 7 8 9 1011 12 1 2 3 4 5 6 7 8 9 10 1112 1 2 3 4 5 6 7 8 9 1011 12 1富士通株式会社製90nmCMOSプロセステクノロジLSI試作 1ブロック富士通株式会社製90nmCMOSプロセステクノロジLSI試作 1ブロック富士通株式会社製90nmCMOSプロセステクノロジLSI試作 1ブロック富士通(株)製90nmCMOSプロセステクノロジLSI試作 1ブロック65nmCMOSプロセステクノロジを用いたチップ製作1ブロック90nm/65nm CMOSプロセステクノロジを用いたチップ作成65nm/90nmCMOSプロセステクノロジを用いたチップ作成90nmCMOSプロセスLSI試作
65nmCMOSプロセスLSI試作(65nm1区画)
65nmCMOSプロセスLSI試作
90nmCMOSプロセスLSI試作(90nm 2区画)
90nm/65nmCMOSプロセスLSI試作
屋外システム検討用65CMOSプロセスLSI
65nmCMOSチップ試作
65nmCMOSチップ試作
65nmCMOSチップ試作
65nmCMOSチップ試作
65nmCMOSチップ試作RF 性能向上
65nmCMOSチップ試作Multi-Gbps 要素
65nmCMOSチップ試作RF 性能向上2
65nmCMOSチップ試作Multi-Gbps 要素 改良
23年度19年度 20年度 21年度 22年度
History of CMOS Fabrication
ShortShort--range system spec. range system spec. exampleexample
Item Specification Unit Note
Ch./Transmit mode IEEE802.15.3c base Symbol rate:1.728Gsps
Transfer distance ≦1 m Max. distance ≦ 3m
Modulationπ/2 – QPSKSingle carrier
Transmission rate: 3.456Gbps
Error correction LDPC(1440, 1344) Information rate: 3.225Gbps
Tx. Output power 3 mW (4.8dBm), @3dB back-off
Tx /Rx Antenna gain >6 dBi Each (for bi-directional transmission)
Rx NF <10 dB
Rx input level -60 ~ -25 dBm 5cm~3m transmit distance range
Phase noise < -85 dBc/Hz @1MHz offset
ADC effective bit >5 bit
power consumption <500 mW Module power total (RF+BB)
Chip size <3 x3 mm2 RF/BB each chip
Required C/N 8.5 dB @BER=1e-6, LDPC(1440, 1344)
Global COE International SymposiumGlobal COE International Symposium
The International Workshop of The International Workshop of Millimeter Wave Wireless Millimeter Wave Wireless
Technology and Applications Technology and Applications
December 6, 2010, Tokyo Institute of Technology, JapanIn corporation with Ministry of Internal Affairs and Communications
Session 1: Key Note Speech Chair: Prof. K. AraSession 1: Key Note Speech Chair: Prof. K. Arakiki•• ((9:009:00--9:20)9:20) Prof. Makoto Ando (Tokyo Tech., Japan)Prof. Makoto Ando (Tokyo Tech., Japan)•• (9:20(9:20--9:40)9:40) Prof. Akira Matsuzawa (Tokyo Tech., Japan)Prof. Akira Matsuzawa (Tokyo Tech., Japan)•• (9:40(9:40--10:15) 10:15) Prof. Asad Abidi (UCLA, USA)Prof. Asad Abidi (UCLA, USA)
Session 2: Research & Development in the World Chair: Prof. K. Session 2: Research & Development in the World Chair: Prof. K. OkadaOkada•• (10:35(10:35--11:10)11:10) Prof. Roberto Prof. Roberto SorrentinoSorrentino (Univ., Perugia, Italy)(Univ., Perugia, Italy)•• (11:10(11:10--11:45)11:45) Prof. Shuzo Kato (Tohoku Univ., Japan)Prof. Shuzo Kato (Tohoku Univ., Japan)•• (11:45(11:45--12:20)12:20) Prof. Wei Hong (Southeast Univ., China)Prof. Wei Hong (Southeast Univ., China)
•• (12:20(12:20--13:40)13:40) Poster SessionPoster Session (Royal Blue Hall) (Royal Blue Hall) and and Technical Demo (Corridor) Technical Demo (Corridor)
Session 3: MillimeterSession 3: Millimeter--wave Comm. Systems Chair: Mr. Taniguchiwave Comm. Systems Chair: Mr. Taniguchi•• (13:40(13:40--14:15)14:15) Ph.D Yorgos Palaskas (Intel, USA)Ph.D Yorgos Palaskas (Intel, USA)•• (14:15(14:15--14:50)14:50) Prof. Prof. ShibanShiban K. K. KoulKoul (IIT Delhi, India)(IIT Delhi, India)•• (14:50(14:50--15:15)15:15) Mr. Fumio Ozawa (JRC, Japan)Mr. Fumio Ozawa (JRC, Japan)•• (15:15(15:15--15:40)15:40) Dr. Dr. Makoto Makoto Noda (Sony, Japan)Noda (Sony, Japan)
Session 4: Constituent Technologies Chairs: Prof. J. Session 4: Constituent Technologies Chairs: Prof. J. HirokawaHirokawaProf. K. FukawaProf. K. Fukawa
•• (16:00(16:00--16:35)16:35) Dr. Sohrab Emami (Sibeam, USA)Dr. Sohrab Emami (Sibeam, USA)•• (16:35(16:35--17:10)17:10) Prof. Prof. JriJri Lee (Natl. Taiwan Univ., Taiwan)Lee (Natl. Taiwan Univ., Taiwan)•• (17:10(17:10--17:45)17:45) Dr. Duixian Liu (IBM Watson, USA) Dr. Duixian Liu (IBM Watson, USA) •• (17:45(17:45--18:05)18:05) Prof. Prof. JiroJiro HirokawaHirokawa (Tokyo Tech., Japan)(Tokyo Tech., Japan)•• (18:05(18:05--18:25)18:25) Prof. Kenichi Okada (Tokyo Tech., Japan)Prof. Kenichi Okada (Tokyo Tech., Japan)•• (18:25(18:25--18:45)18:45) Dr. Satoshi Dr. Satoshi SuyamaSuyama (Tokyo Tech., Japan)(Tokyo Tech., Japan)
“Tokyo Tech Wireless-Fiber Project”2007.4-2012.3-2016.3
contents viewer with 60GHz chip
MM-wave Gigabit network image 40GHz & 60GHz
RF-CMOS chip image東工大 松澤・岡田研 提供
Antenna PKG imageアムシス 提供
データ閲覧端末
新聞 音楽 書籍 映像
Home server
ß-ßßCamera
Provider Personal Big data transferPersonal Big data transfer
GATEGATE
GATEGATE
40GHz 40GHz
40GHz40GHz
40GHz
40GHz
40GHz
40GHz Active Mesh40GHz Active Mesh
60GHz GATE60GHz GATE
Contents Deliver Contents Deliver
光幹線網光幹線網
GATEGATE
Transfer to Target GATE
Mobile GATEMobile GATE
40GHz
GATEGATE
60GH帯通信用モジュール
60GH帯通信用モジュール搭
載型情報端末(次世代iPad?)
60GH帯通信用モジュール
60GH帯通信用モジュール搭
載型情報端末(次世代iPad?)
60GHz 60GHz60GHz 60GHz
44GHz Track Approach44GHz Track Approach
60GHz GATE60GHz GATE
MM-wave Gigabit network for mobile CloudMM-wave Gigabit network for mobile Cloud
40GHz P-P40GHz P-P
Down
Up
ß-ßßSmart phone
Outdoor
Indoor
10 50 10010 50 100Frequency (GHz)
( Gbps )0.1 1.0 10
( m )
101
102
103
104
エントランス
デジタル家電動 画
WIPAS B-WIPAS
USB2.0無線
デジタル家電
( Gbps )0.1 1.0 10
( m )
101
102
103
104
エントランス
デジタル家電動
B-WIPAS
USB2.0無線
デジタル家電
( m )
101
102
103
104( m
)
101
102
103
104
Backhaul
デジタル家電動
B-WIPASB-WIPAS
USB2.0Radio
Digital ElectricalEquipment
Data Rate
Dist
ance
Digital Electrical Equipment(Movie)
2Gbps
6Gbps
接続が持続しやすい
60GHz 60GHz60GHz 60GHz
WiLAN(先行接続⇒大容量データ授受準備)
60GHz60GHz
60GHz60GHz
40GHz40GHz
接続が持続しやすい
60GHz 60GHz60GHz 60GHz
WiLAN(先行接続⇒大容量データ授受準備)
60GHz60GHz
60GHz60GHz
40GHz40GHz40GHz40GHz
Gigabit Access Trans. Equip. (GATE)
- 2 0 0 - 1 0 0 0 1 0 0 2 0 0h o r i z o n t a l p o s i t i o n [ m m ]
1 0 0
2 0 0
3 0 0
4 0 0
5 0 0
6 0 0
7 0 0
8 0 0
9 0 0
1 0 0 0
dista
nce
[mm
]
5dBi 5dBi AntennaAntenna
- 2 0 0 - 1 0 0 0 1 0 0 2 0 0h o r i z o n t a l p o s i t i o n [ m m ]
1 0 0
2 0 0
3 0 0
4 0 0
5 0 0
6 0 0
7 0 0
8 0 0
9 0 0
1 0 0 0
dista
nce
[mm
]
5dBi 5dBi AntennaAntenna
-200 -100 0 100 200horizontal position [mm]
100
200
300
400
500
600
700
800
900
1000
distan
ce [m
m]
-6 dB-2 dB2 dB6 dB10 dB14 dB18 dB22 dB26 dB30 dB34 dB38 dB
45dBi 45dBi AntennaAntenna
-200 -100 0 100 200horizontal position [mm]
100
200
300
400
500
600
700
800
900
1000
distan
ce [m
m]
-6 dB-2 dB2 dB6 dB10 dB14 dB18 dB22 dB26 dB30 dB34 dB38 dB
45dBi 45dBi AntennaAntenna
60GHz in
60GHz out
D out
D in
CTLCTL
A out
A in
RX
TX
LO
制御
部
制御
部
DBB
DBB
ABB
ABB
RF FE chip B/B chip
60GHz in
60GHz out
D out
D in
CTLCTL
A out
A in
RX
TX
LO
制御
部
制御
部
DBB
DBB
ABB
ABB
RF FE chip B/B chipベースバンドプロセス変動
環境温度・印加
電圧変化 雑音信号重畳
自律性能補償機能、セルフテスト機能等による無線特性の向上
RF フロントエンド
無線アクセスゲート携帯端末
○ 高度インテリジェンス性を備えた60GHz帯RFフロントエンド/ベーズバンドCMOS集積回路
実装
搭載
60GHz in
60GHz out
D out
D in
CTLCTL
A out
A in
RX
TX
LO
制御
部
制御
部
DBB
DBB
ABB
ABB
RF FE chip B/B chip
60GHz in
60GHz out
D out
D in
CTLCTL
A out
A in
RX
TX
LO
制御
部
制御
部
DBB
DBB
ABB
ABB
RF FE chip B/B chipベースバンドプロセス変動
環境温度・印加
電圧変化 雑音信号重畳
自律性能補償機能、セルフテスト機能等による無線特性の向上
RF フロントエンド
無線アクセスゲート携帯端末
○ 高度インテリジェンス性を備えた60GHz帯RFフロントエンド/ベーズバンドCMOS集積回路
実装
搭載
High efficiency modulation/demodulation 16QAM –CMOS Phase noise, IQ-imb., Propagation
Highly Intelligent CMOS 60GHz RF Frontend and BB Chip
6Gbps, 0.5W, GATE
0102030405060708090
100110120130140150
19:00 19:30 20:00 20:30 21:00
Rain
rate
(mm
/h)
Time
Estimation by Rx Level by 4 paths
Tipping-bucket Rain Gauge at W8
Tipping-bucket Rain Gauge at I6
September 12, 2009
Different Rain Rates for Strong rain
Similar Rain Rates for Weak rain
1無線アクセスゲート
基幹通信網
低速網
高速網
ファイルを断片(チャンク)に分割し, チャンク単位で
ユーザ端末に送信
ダウ
ンロ
ード
要求複数のゲートを通過す
ることで、すべてのチャンクを受信し, ファ
イルを合成可能
どのチャンクをどこのゲートで受信すべきかをネット
ワーク側で制御
Network operation, Gate data handling in the network
Low Jitter PLL
System on Chip for 38G-1Gbps System
Dual 10bit ADC (Improved version)
実績10bit ADC
Network operation, Proactive routing against Rain 40GHz 64QAM DDD System1Gbps x 2
AD Cov. 12bit 800Msps for DDD System 1.6wà0.15w
Throughput reduction < 10%
1Gbps x2, 260MHz
6Gbps, Network Data < 1.5 times