Wireless 100 Gbps and beyond: architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655
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245 | 1 | 0 | |a Wireless 100 Gbps and beyond |b architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655 |c Rolf Kraemer and Stefan Scholz (Editor) |
246 | 1 | 3 | |a Wireless hundred Gbps and beyond |
246 | 1 | 3 | |a Wireless on hundred Gbps and beyond |
264 | 1 | |a Frankfurt (Oder) |b IHP GmbH |c August 2020 | |
300 | |a xxix, 489 Seiten |b Illustrationen, Diagramme |c 23 cm | ||
336 | |b txt |2 rdacontent | ||
337 | |b n |2 rdamedia | ||
338 | |b nc |2 rdacarrier | ||
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700 | 1 | |a Scholz, Stefan |4 edt | |
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Datensatz im Suchindex
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adam_text | CONTENTS
PREFACE
I
LIST
OF
TABLES
XV
LIST
OF
FIGURES
XVII
1
LP100
*
OPTIMIZATION
OF
100
GB/S
SHORT
RANGE
WIRELESS
TRANSCEIVERS
UNDER
PROCESSING
ENERGY
CONSTRAINTS
1
GERD
ASCHEID,
GAOJIAN
WANG,
SEBASTIAN
BIRKE,
NORBERT
WEHN,
MATTHIAS
HERRMANN,
AND
YANLU
WANG,
ONER
HANAY,
ERKAN
BAYRAM,
RENATO
NEGRA
1.1
INTRODUCTION
...............................................................................
2
1.1.1
MOTIVATION
......................................................................
2
1.1.2
RELEVANT
BOUNDARY
CONDITIONS
.....................................
4
1.1.3
MOTIVATION
FOR
THE
CHOICE
OF
THE
SCENARIO
.....................
5
1.2
SYSTEM
CONCEPT
.........................................................................
6
1.2.1
ENERGY
CONSIDERATIONS
....................................................
6
1.2.2
CHANNEL
MODEL
......................................................
6
1.2.3
SYSTEM
ARCHITECTURE
.......................................................
7
1.2.4
BEAMFORMING
WITH
TIME
DELAY
COMPENSATION
............
8
1.3
RF
FRONT-END
ARCHITECTURE
.......................................................
10
1.3.1
POWER
MODELING
AND
ENERGY
BUDGETING
........................
11
1.3.2
POWER
LIMITED
REGION
.......................................................
11
1.3.2.1
POWER
LIMITED
SYSTEM
.....................................
11
1.3.2.2
CPFSK
TRANSMITTER
.........................................
12
1.3.2.3
CPFSK
RECEIVER
..............................................
14
1.3.3
BANDWIDTH
LIMITED
REGION
..............................................
15
1.3.3.1
INTRODUCTION
TO
FBMC
...................................
16
1.3.3.2
FREQUENCY
SYNTHESIS
......................................
17
1.3.3.3
RADIO-FREQUENCY
DIGITAL-TO-ANALOG-CONVERTER
(RF-
DAC)
DESIGN
....................................................
18
1.3.4
PROPOSALS
OF
RF-ARCHITECTURES
........................................
19
1.4
FRONTEND
PROCESSING
...................................................................
19
1.4.1
JOINT
PRE-/POST-PROCESSING
..............................................
20
1.4.2
CHANNEL
ESTIMATION
-
BEAMFORMING
TRAINING
............
23
1.5
DIGITAL
BASEBAND
SIGNAL
PROCESSING
BEYOND
100
GB/S
....
24
1.5.1
HIGH-THROUGHPUT
CHANNEL
DECODER
ARCHITECTURES
...
25
VI
CONTENTS
1.5.1.1
HIGH
THROUGHPUT
TURBO
AND
LDPC
DECODERS
26
1.5.1.2
POLAR
DECODERS
.................................................
27
1.5.1.3
IMPLEMENTATION
RESULTS
..................................
28
1.5.2
HIGH-THROUGHPUT
MIMO
RECEIVER
..................................
29
1.5.3
IMPROVING
ENERGY
EFFICIENCY
FOR
PIPELINED
RECEIVER
AR
CHITECTURES
..........................................................
32
1.6
POWER
ESTIMATION
......................................................................
33
1.7
SUMMARY
AND
CONCLUSIONS
.......................................................
34
2
SPARS
*
SIMULTANEOUS
PHASE
AND
AMPLITUDE
REGENERATIVE
SAMPLING
37
CHRISTIAN
CARLOWITZ,
MARTIN
VOSSIEK,
T.
GIRG,
M.
DIETZ,
A.-M.
SCHROTZ,
T.
MAIWALD,
A.
HAGELAUER,
R.
WEIGEL,
HATEM
GHALEB,
CORRADO
CARTA,
FRANK
ELLINGER,
AND
XUAN-QUANG
DU,
MARKUS
GRAZING,
MANFRED
BERROTH
2.1
INTRODUCTION
...............................................................................
38
2.2
SYSTEM
CONCEPT
AND
DEMONSTRATOR
........................................
39
2.2.1
SPARS
CONCEPT
.............................................................
39
2.2.2
THEORY
AND
SYSTEM
ANALYSIS
........................................
41
2.2.3
HOMODYNE
SYSTEM
DEMONSTRATOR
..................................
43
2.2.4
HETERODYNE
SYSTEM
..........................................................
45
2.3
TRANSMITTER
COMPONENTS
..........................................................
46
2.3.1
GENERATION
OF
THE
CARRIER
FREQUENCY
...........................
47
2.3.1.1
QUINTUPLER
STAGE
..............................................
47
2.3.1.2
GILBERT-CELL
MULTIPLIER
..................................
48
2.3.2
BPSK
MODULATORS
AND
RF-DACS
..................................
50
2.3.3
SUMMARY
.........................................................................
53
2.4
MM-WAVE
FRONTEND
COMPONENTS
..............................................
54
2.4.1
180-GHZ
SUPER-REGENERATIVE
OSCILLATOR
WITH
58
DB
RE
GENERATIVE
GAIN
................................................................
54
2.4.1.1
SRO
PRINCIPLES
..................................................
54
2.4.1.2
CIRCUIT
DESIGN
..................................................
55
2.4.1.3
EXPERIMENTAL
RESULTS
......................................
58
2.4.1.4
WAVEGUIDE
MODULE
AND
WIRELESS
DATA
TRANS
MISSION
.............................................................
62
2.4.2
180-GHZ
DOWN-CONVERSION
MIXER
WITH
BROADBAND
RAT-
RACE
COUPLER
...................................................................
63
2.4.2.1
PASSIVE
MIXER
.................................................
63
2.4.2.2
CIRCUIT
DESIGN
.................................................
63
2.4.2.3
EXPERIMENTAL
RESULTS
.....................................
65
2.5
ANALOG
BASEBAND
RECEIVER
COMPONENTS
..................................
66
2.5.1
INDRODUCTION
...................................................................
66
2.5.2
A
112
GS/S
L-TO-4
ADC
FRONTEND
..................................
67
2.5.2.1
VOLTAGE
VERSUS
CHARGE
SAMPLING
.....................
67
2.5.2.2
CIRCUIT
DESIGN
..................................................
68
2.5.2.3
EXPERIMENTAL
RESULTS
........................................
70
CONTENTS
VII
2.5.3
A
40
GS/S
4
BIT
FLASH
ADC
...........................................
70
2.5.3.1
*
TRAVELING-WAVE
*
ARCHITECTURE
.......................
70
2.5.3.2
CIRCUIT
DESIGN
..................................................
72
2.5.3.3
EXPERIMENTAL
RESULTS
........................................
73
3
TERA50H
----
SUB-MM-WAVE
100
GBIT/S
FIBER-WIRELESS
TRANS
MISSION
SYSTEM
75
MATTHIAS
STEEG,
JONAS
TEBART,
SEBASTIAN
DULME,
ANDREAS
STOHR,
FLORIAN
EXNER,
ANDREAS
CZYLWIK,
AND
MAI
ALISSA,
THOMAS
KAISER
3.1
INTRODUCTION
...............................................................................
76
3.2
COHERENT
RADIO-OVER-FIBER
THZ
TRANSMISSION
SYSTEM
....
77
3.2.1
TRANSMISSION
SYSTEM
ARCHITECTURE
..............................
78
3.2.1.1
MACH-ZEHNDER
MODULATOR
..............................
79
3.2.1.2
ERBIUM-DOPED-FIBER
AMPLIFIER
.....................
81
3.2.1.3
THZ
PHOTODIODES
AND
DUAL-POLARIZATION
PHO
TOMIXER
INTEGRATION
........................
82
3.2.1.4
SCHOTTKY-BARRIER
DIODE
ENVELOPE
DETECTOR
.
84
3.2.2
TRANSMISSION
SYSTEM
MODELING
.....................................
85
3.2.2.1
TRANSMITTER
MODEL
...........................................
85
3.2.2.2
RECEIVER
MODEL
.................................................
87
3.2.2.3
SYSTEM
MODEL
.................................................
88
3.2.3
SIMULATION
AND
OPTIMAL
PARAMETER
..............................
90
3.3
WIRELESS
MM-WAVE
AND
THZ
CHANNELS
....................................
92
3.3.1
CHANNEL
SOUNDING
EXPERIMENTS
.....................................
92
3.3.1.1
MEASUREMENT
EQUIPMENT
................................
93
3.3.1.2
MEASUREMENT
ENVIRONMENT
.............................
94
3.3.1.3
MEASUREMENT
SCENARIOS
...................................
95
3.3.2
CHANNEL
PROPERTIES
AND
MODELING
..................................
96
3.3.2.1
CHANNEL
CHARACTERISTICS
...................................
96
3.3.2.2
CHANNEL
MODELING
............................................
97
3.4
HIGH
BANDWIDTH
OFDM
MEASUREMENT
SYSTEM
.....................
99
3.4.1
EXPERIMENTAL
RESULTS
FOR
60
GHZ
TRANSMISSION
....
100
3.4.2
BEYOND
100
GBIT/S
&
THZ
TRANSMISSION
DEMONSTRATION
102
3.5
CONCLUSION
..................................................................................
107
4
DAAB
*
ON-CHIP
INTEGRATED
DISTRIBUTED
AMPLIFIER
AND
AN
TENNA
SYSTEMS
IN
LOCALLY-BACKSIDE-ETCHED
SIGE
BICMOS
FOR
RECEIVERS
WITH
ULTRA-LARGE
BANDWIDTH
109
PAOLO
VALERIO
TESTA,
CORRADO
CARTA,
FRANK
ELLINGER
AND
BERNHARD
KLEIN,
RONNY
HAHNEL,
DIRK
PLETTEMEIER
4.1
INTRODUCTION
TO
THE
CHAPTER
....................................................
110
4.2
BROADBAND
DISTRIBUTED
AMPLIFIERS
...........................................
110
4.2.1
TRAVELING-WAVE
AMPLIFIERS
..............................................
ILL
4.2.2
CASCADED
SINGLE-STAGE
DISTRIBUTED
AMPLIFIERS
............
114
4.2.3
TRAVELING-WAVE
COMBINERS
AND
DIVIDERS
.....................
117
VIII
CONTENTS
4.3
ANTENNA
DESIGN
REQUIREMENTS
.................................................
124
4.3.1
SYSTEMS-ON-CHIP
AND
SYSTEMS-IN-PACKAGE
..................
124
4.3.2
SEMICONDUCTOR
TECHNOLOGY
...........................................
125
4.3.3
TECHNOLOGY
CONSTRAINTS
.................................................
126
4.4
INTEGRATED
ANTENNA
DESIGNS
....................................................
127
4.4.1
LINEAR
POLARIZED
ANTENNAS
..............................................
127
4.4.1.1
LOG-SPIRAL
ANTENNA
........................................
127
4.4.1.2
STACKED
VIVALDI-SHAPED
OPEN-SLOT
ANTENNA
.
128
4.4.2
DUAL-POLARIZED
ANTENNAS
..............................................
129
4.4.2.1
CROSSED
VIVALDI-SHAPED
OPEN-SLOT
ANTENNA
.
129
4.4.2.2
COMBINED
SLOT
FRACTAL
BOWTIE
ANTENNA
...
130
5
MAXIMUMMIMO
*
MILLIMETER
WAVE
LINE-OF-SIGHT
SPATIAL
MULTIPLEXING
139
XIAOHANG
SONG,
WOLFGANG
RAVE,
GERHARD
FETTWEIS,
TIM
HDLSIG,
BERTHOLD
LANKL,
AND
DARKO
CVETKOVSKI,
ECKHARD
GRASS
5.1
INTRODUCTION
................................................................................
140
5.1.1
CONVENTIONAL
BACKHAUL
TECHNOLOGIES
...........................
140
5.1.2
BENEFITS
AND
CHALLENGES
OF
THE
LOS
MIMO
TECHNIQUE
141
5.2
LOS
MIMO
BASICS
......................................................................
142
5.2.1
PARALLEL
ANTENNA
TOPOLOGIES
...........................................
142
5.2.2
MMWAVE
LOS
MIMO
AS
A
BACKHAUL
TECHNIQUE
....
146
5.3
LOS
MIMO
CHANNEL
EQUALIZATION
...........................................
148
5.3.1
LOS
MIMO
CHANNEL
FACTORIZATION
..............................
148
5.3.2
CONVENTIONAL
LINEAR
SIGNAL
ESTIMATION
ALGORITHMS
.
.
149
5.3.3
SEQUENTIAL
CHANNEL
EQUALIZATION
..................................
150
5.4
SYNCHRONIZATION
FOR
LOS
MIMO
SYSTEMS
...............................
152
5.4.1
CORRELATION
BASED
ESTIMATORS
........................................
153
5.4.2
COMBINING
EQUALIZATION
AND
SYNCHRONIZATION
............
154
5.4.3
ADAPTIVE
EQUALIZATION
....................................................
155
5.5
BASEBAND
PROCESSING
ARCHITECTURES
........................................
158
5.5.1
RECEIVER
BASEBAND
ARCHITECTURES
...............................
158
5.5.2
COMPUTATIONAL
COMPLEXITY
ANALYSIS
........................
159
5.6
CHANNEL
MEASUREMENTS
AND
DEMONSTRATION
...........................
160
5.6.1
MM
WAVE
LOS
MIMO
EXPERIMENTAL
SETUP
...............
160
5.6.2
LOS
MIMO
CHANNEL
ESTIMATION
RESULTS
..................
161
5.6.3
ADAPTIVE
EQUALIZATION
RESULTS
.....................................
164
5.7
CONCLUSION
AND
EXTENSIONS
.......................................................
165
6
M4
*
MULTI-MODE
MASSIVE
MIMO
167
NILS
L.
JOHANNSEN,
PETER
A.
HOEHER
AND
NIKOLAI
PEITZMEIER,
DIRK
MAN
TEUFFEL
6.1
INTRODUCTION
................................................................................
167
6.2
FUNDAMENTALS
............................................................................
169
CONTENTS
IX
6.2.1
APPLICATION
OF
CHARACTERISTIC
MODES
TO
MIMO
ANTENNA
DESIGN
...............................................................................
169
6.2.2
BASEBAND
CHANNEL
MODELING
.......................................
172
6.2.3
DEFINITION
OF
SYSTEM
PARAMETERS
.................................
175
6.3
SYSTEMATIC
MULTI-MODE
ANTENNA
DESIGN
BASED
ON
SYMMETRY
PROPERTIES
OF
CHARACTERISTIC
MODES
...........................................
178
6.3.1
MODAL
ANALYSIS
OF
ELECTRICALLY
LARGE
RECTANGULAR
PLATE
179
6.3.2
SYMMETRY
ANALYSIS
OF
CHARACTERISTIC
MODES
...............
182
6.3.3
MULTI-MODE
ANTENNA
DESIGN
AND
ARRAY
ARRANGEMENT
187
6.4
BASEBAND
PROCESSING
SYSTEM
DESIGN
.......................................
192
6.4.1
SYSTEM
ARCHITECTURE
OF
BASEBAND
SIGNAL
PROCESSING
.
192
6.4.2
JOINT
PRECODING
AND
POWER
CONTROL
..............................
193
6.4.3
IMPACT
OF
INTER-PORT
COUPLING
.......................................
201
6.4.4
BEAMFORMING
ARCHITECTURES
...........................................
203
6.4.5
SINGLE-ELEMENT
BEAMFORMING
........................................
206
6.4.6
ACKNOWLEDGEMENT
..........................................................
210
7
REALLOOG
*
ULTRABROADBAND
WIRELESS
COMMUNICATION
AT
HIGH
MM-WAVE
FREQUENCIES
213
J.
CHRISTOPH
SCHEYTT,
ABDUL
REHMAN
JAVED,
AKANKSHA
BHUTANI,
THOMAS
ZWICK,
INGMAR
KALLFASS,
ESWARA
RAO
BAMMIDI,
AND
KARTHIK
KRISHNEGOWDA,
ROLF
KRAEMER
7.1
INTRODUCTION
...............................................................................
214
7.2
APPLICATIONS
AND
BASIC
SYSTEM
ARCHITECTURES
FOR
LOOGBPS
WIRELESS
COMMUNICATIONS
..........................................................
214
7.3
DEFINITION
OF
TARGET
SYSTEM
PARAMETERS
OF
THE
REALLOOG
SYS
TEM
..............................................................................................
215
7.3.1
CARRIER
FREQUENCY
..........................................................
215
7.3.2
BANDWIDTH
AND
SPECTRUM
EFFICIENCY
...........................
216
7.3.3
BASEBAND
SIGNAL
PROCESSING
...........................................
217
7.3.4
LINK
BUDGET
AND
ACHIEVABLE
RANGE
..............................
219
7.4
CHALLENGES
AND
PROPOSED
SOLUTIONS
.........................................
222
7.4.1
PSSS
SYSTEM
ARCHITECTURE
....................................
222
7.4.1.1
SYSTEM
PARAMETERS
FOR
MIXED-SIGNAL
PSSS
BASEBAND
..........................................................
224
7.4.2
RF
FRONTEND
...................................................................
225
7.4.3
RECEIVER
SYNCHRONIZATION
..............................................
226
7.5
REALLOOG
OVERALL
SYSTEM
ARCHITECTURE
.................................
226
7.5.1
REALLOOG
TRANSMITTER
ARCHITECTURE
...........................
227
7.5.2
REALLOOG
RECEIVER
ARCHITECTURE
.................................
228
8
REALLOOG.COM
231
ABDUL
REHMAN
JAVED,
J.
CHRISTOPH
SCHEYTT,
ESWARA
RAO
BAMMIDI,
INGMAR
KALLFASS,
AND
KARTHIK
KRISHNEGOWDA,
ROLF
KRAEMER
8.1
MIXED-SIGNAL
PSSS
RECEIVER
BASEBAND
..................................
233
X
CONTENTS
8.1.1
SEMICONDUCTOR
TECHNOLOGY
...........................................
233
8.1.2
PSSS
RECEIVER
BASEBAND
UNIT-SLICE
.........................
233
8.1.3
MIXED-SIGNAL
PROGRAMMABLE
WEIGHTED
CODE
GENERATOR
CIRCUIT
..........................................................................
235
8.1.3.1
PROGRAMMABLE
DIFFERENTIAL
CURRENT
SOURCES
.
236
8.1.3.2
ONE-HOT
PULSE
GENERATION
CIRCUIT
(MUX
SE
LECT
SIGNAL)
.................................
236
8.1.3.3
HIGH-SPEED
DIFFERENTIAL
CURRENT
SWITCHES
.
.
238
8.1.3.4
6-TO-L
DIFFERENTIAL
CURRENT
SUMMATION
TRANS
IMPEDANCE
STAGE
........................
239
8.1.3.5
DIFFERENTIAL
TRANSADMITTANCE
STAGE
................
240
8.1.3.6
3-TO-L
DIFFERENTIAL
CURRENT
SUMMATION
TRANS
IMPEDANCE
STAGE
........................
240
8.1.3.7
CHARACTERIZATION
OF
THE
PROGRAMMABLE
WEIGHTED
CODE
GENERATOR
CIRCUIT
............................
241
8.1.4
BROADBAND
ANALOG
CORRELATOR
WITH
FAST
RESET
....
242
8.1.4.1
FOUR
QUADRANT
MULTIPLIER
..........................
242
8.1.4.2
BROADBAND
INTEGRATOR
................................
242
8.1.4.3
CHARACTERIZATION
OF
THE
CORRELATOR
CIRCUIT
.
.
245
8.1.5
CHARACTERIZATION
OF
THE
PSSS
RECEIVER
BASEBAND
UNIT-
SLICE
CIRCUIT
......................................................................
246
8.1.5.1
M-SEQUENCE
CORRELATION
TEST
........................
249
8.1.5.2
TEST
WITH
ACTUAL
PSSS
DATA
WITH
BPSK
MODU
LATED
DATA
..........................................
250
8.1.5.3
TEST
WITH
ACTUAL
PSSS
DATA
WITH
PAM-4
MODULATED
DATA
..............................................
251
8.1.6
SUMMARY
.........................................................................
253
8.2
RECEIVER
SYNCHRONIZATION
..........................................................
253
8.2.1
BPSK
COSTAS
LOOP
..........................................................
254
8.2.1.1
BPSK
COSTAS
LOOP
-
SYSTEM
LEVEL
SIMULA
TIONS
...................................................
257
8.2.1.2
BPSK
COSTAS
LOOP
-
MEASUREMENTS
............
259
8.2.2
QPSK
COSTAS
LOOP
.......................................................
261
8.2.2.1
QPSK
COSTAS
LOOP
-
SYSTEM
LEVEL
SIMULATIONS
265
8.2.2.2
QPSK
COSTAS
LOOP
-
MEASUREMENTS
............
266
8.2.3
APPLICATION
TO
MMW
RECEIVERS
.....................................
268
8.2.4
IQ
RECOVERY
FOR
PSSS
MODULATED
SIGNALS
......................
270
8.2.5
SUMMARY
.........................................................................
273
8.3
SPREADING
CODES
.........................................................................
274
8.3.1
KASAMI
CODES
FOR
TRANSMISSION
ON
I/Q
CHANNELS
....
274
8.4
MEASUREMENT
EXPERIMENTS
.......................................................
277
8.4.1
HIL
MODEL
FOR
A
PSSS-15
TRANSMITTER
........................
277
8.4.2
HIL
MODEL
FOR
A
PSSS-15
RECEIVER
...............................
278
8.4.3
DEMONSTRATOR
SETUP
.......................................................
278
8.4.4
SYNCHRONIZATION
IN
HIL
EXPERIMENTS
.............................
280
CONTENTS
XI
8.4.4.1
SYNCHRONIZATION
LAYERS
OF
COHERENT
/
NON-COHERENT
SYSTEMS
.............................................................
281
8.4.5
PERFORMANCE
RESULTS
.......................................................
282
8.4.5.1
CHANNEL
ESTIMATION
AND
EQUALIZATION
.............
282
8.4.5.2
PSSS
MODULATED
DATA
WITH
BPSK
................
283
8.4.5.3
PSSS
MODULATED
DATA
WITH
PAM-16
.............
284
8.4.6
KASAMI
CODES
TRANSMISSION
ON
I/Q
CHANNELS
...............
286
8.4.6.1
I-Q
TRANSCEIVER
SYSTEM
WITH
KASAMI
CODES
.
.
286
8.4.6.2
MEASUREMENT
SETUP
OF
THE
230
GHZ
COMMUNI
CATION
LINK
WITH
KASAMI
CODES
.....
287
8.4.6.3
CHANNEL
ESTIMATION
WITH
KASAMI
CODES
.
.
.
288
8.4.6.4
KASAMI
CODES
WITH
PAM-
16
..............................
289
8.4.7
SUMMARY
.........................................................................
292
8.5
CONCLUSION
...................................................................................
293
9
REALLOOG.RF:
A
FULLY
INTEGRATED,
MULTI-PURPOSE
RADIO
FRONT-END
FOR
WIRELESS
100
GBPS
295
A.
BHUTANI,
F.
BOES,
B.
GOETTEL,
J.
SCHAEFER,
J.
EISENBEIS,
T.
ZWICK
AND
STEFAN
MALZ,
PEDRO
RODRIGUEZ
VAZQUEZ,
JANUSZ
GRZYB,
ULRICH
PFEIFFER
9.1
INTRODUCTION
...............................................................................
296
9.1.1
STATE-OF-THE-ART
................................................................
297
9.2
FULLY
INTEGRATED
MILLIMETER
WAVE
TRANSCEIVER
CONCEPTS
.
.
.
298
9.2.1
PACKAGE
CONCEPT
.............................................................
301
9.2.1.1
SYSTEM-IN-PACKAGE
(SIP)
..............................
301
9.2.1.2
SYSTEM-ON-CHIP
(SOC)
.....................................
301
9.2.1.3
INTEGRATED
LENS
ANTENNA
CONCEPT
...............
302
9.2.2
QUAD
FLAT
NO
LEAD
TYPE
PACKAGE
CONFIGURATION
.
.
.
303
9.2.2.1
ELECTRICAL
PACKAGE
REQUIREMENTS
..................
304
9.2.2.2
MECHANICAL
PACKAGE
REQUIREMENTS
................
306
9.2.2.3
THERMAL
PACKAGE
REQUIREMENTS
......................
307
9.3
240
GHZ
TRANSCEIVER
CIRCUITS
....................................................
308
9.3.1
TRANSMITTER
......................................................................
308
9.3.2
RECEIVER
............................................................................
310
9.3.3
CIRCUIT
BLOCKS
...................................................................
311
9.3.3.1
UP-CONVERSION
MIXER
....................................
311
9.3.3.2
POWER
AMPLIFIER
..............................................
311
9.3.3.3
QUADRATURE
DOWN-CONVERSION
MIXER
............
314
9.4
ON-CHIP
INTEGRATED
LENS
ANTENNAS
.......................................
315
9.4.1
IN
ANTENNA
POWER
COMBINING
........................................
315
9.4.2
BROADBAND
ON-CHIP
ANTENNA
DESIGN
...........................
317
9.4.2.1
ANTENNA
POLARIZATION
.................................
.
317
9.4.2.2
POWER
COMBINING
LIMIT
.................................
318
9.4.2.3
AMPLITUDE
AND
PHASE
IMBALANCE
..................
318
9.4.2.4
POWER-SPLITTER
NETWORK:
DISTRIBUTED
TRANS
FORMER
................................................
320
XII
CONTENTS
9.4.2.5
FOUR-FEED
DIFFERENTIAL
ANTENNA
WITH
6
MM
SI
LICON
LENS
..........................................
322
9.4.2.6
FOUR-FEED
DIFFERENTIAL
ANTENNA
WITH
12
MM
SI
LENS
AND
POWER
AMPLIFIERS
...........................
323
9.5
PACKAGING
OF
MINIATURIZED
240
GHZ
TRANSCEIVER
FRONTEND
.
.
324
9.5.1
BANDWIDTH
LIMITATIONS
....................................................
324
9.5.2
THERMAL
MANAGEMENT
....................................................
326
9.5.3
COMPACT
CUBE
................................................................
328
9.5.3.1
BANDWIDTH
OF
COMPACT
CUBE
........................
330
9.5.3.2
ACTIVE
COOLING
CONCEPT
..................................
330
9.6
TRANSMITTER
&
RECEIVER
CHARACTERIZATION
...............................
332
9.6.1
TRANSMITTER
CHARACTERIZATION
........................................
332
9.6.1.1
TX
CHARACTERIZATION
SETUP
...........................
332
9.6.1.2
TX
CHARACTERIZATION
RESULTS
........................
332
9.6.2
RECEIVER
CHARACTERIZATION
..............................................
333
9.6.2.1
RX
CHARACTERIZATION
SETUP
...........................
333
9.6.2.2
RX
CHARACTERIZATION
RESULTS
........................
333
9.6.3
COMMUNICATION
DEMONSTRATION
.....................................
333
9.6.3.1
MEASUREMENT
SETUP
........................................
333
9.6.3.2
MEASURED
RESULTS
...........................................
334
9.7
CONCLUSION
...................................................................................
335
10
END2ENDL00
*
COMMUNICATION
PROTOCOL
PROCESSING
FOR
ULTRA
HIGH
DATA
RATES
359
STEFFEN
BUCHNER,
JORG
NOLTE,
ALIREZA
HASANI,
ROLF
KRAEMER,
AND
LUKASZ
LOPACINSKI
10.1
A
PARALLELIZABLE
DATA
LINK
PROTOCOL
........................................
363
10.1.1
PROTOCOL
DESCRIPTION
.......................................................
364
10.1.2
PROTOCOL
PIPELINES
..........................................................
365
10.2
PARALLEL
PROTOCOL
PROCESSING
....................................................
366
10.2.1
STREAM
PROCESSING
BASED
PROTOCOL
DESIGN
..................
367
10.2.2
PROCESSING
ENGINE
TEMPLATE
LANGUAGE
........................
370
10.2.3
RECONFIGURATION
OF
A
DEPLOYED
PROCESSING
ENGINE
.
.
.
374
10.3
FORWARD
ERROR
CORRECTION
(FEC)
..............................................
376
10.3.1
INTERLEAVED
RS
(IRS)
CODING
........................................
377
10.3.2
ENERGY
EFFICIENT
FEC
SCHEMES
.....................................
379
10.3.3
LINK
ADAPTATION
.............................................................
382
10.4
EVALUATION
...................................................................................
383
10.4.1
STREAM
PROCESSING
APPROACH
........................................
383
10.4.1.1
OVERHEAD
AND
SCALABILITY
...............................
384
10.4.1.2
PROTOCOL
REPLACEMENT
.....................................
384
10.4.1.3
PROTOCOL
RECONFIGURATION
AND
DYNAMIC
CHAN
NEL
BONDING
....................................
386
10.4.2
FEC
RESULTS
...................................................................
388
10.4.2.1
DLL
FRAME
FORMAT
.......................................
390
CONTENTS
XIII
10.4.2.2
ENERGY
CONSUMPTION
.......................................
390
10.4.2.3
VOLTAGE
SCALING
.................................................
392
10.4.2.4
COMPARISON
WITH
OTHER
PUBLISHED
WORK
.
.
.
392
10.5
CONCLUSION
................................................................................
395
11
POLYDATA/DATARACE
*
POLYMER-INTEGRATED
CMOS-BASED
HIGH-SPEED
COMMUNICATION
SYSTEMS
AT
W-BAND
397
BJORN
DEUTSCHMANN,
MALTE
GIESE,
ARNE
F.
JACOB,
NIMA
LOFTI,
FRIEDEL
GER-
FERS,
AND
SONKE
VEHRING,
GEORG
BOCK
11.1
INTRODUCTION
...............................................................................
398
11.2
CONCEPT
AND
SYSTEM
ANALYSIS
.................................................
400
11.3
W-BAND
FRONT-END
...................................................................
402
11.3.1
FULL
W-BAND
CMOS
PA
.................................................
403
11.3.2
ANTENNAS
AND
POLARIZER
.................................................
406
11.3.2.1
ADVANCED
SEPTUM
POLARIZER
...........................
406
11.3.2.2
HORN
ANTENNAS
WITH
TRIANGULAR
FEED
....
409
11.3.3
TRANSITIONS
......................................................................
410
11.3.3.1
VERTICAL
WAVEGUIDE-TO-MICROSTRIP
TRANSITION
410
11.3.3.2
MICROSTRIP-TO-CHIP
TRANSITION
.....................
412
11.3.4
LOW-NOISE
AMPLIFIER
.......................................................
413
11.3.5
RESISTIVE
MIXER
................................................................
417
11.3.6
TRULY
BALANCED
LO
QUADRUPLER
.....................................
418
11.3.7
DIGITAL
PHASE-SHIFTER
.......................................................
423
11.3.8
BALANCED
DISTRIBUTED
AMPLIFIER
....................................
424
11.3.9
POWER
COMBINING
NETWORK
...........................................
426
11.3.10
TIME-INTERLEAVED
TRACK-&-HOLD
....................................
429
11.3.11
ANALOG-TO-DIGITAL
CONVERTER
...........................................
435
11.3.12
DIGITAL
ENCODER
................................................................
441
11.4
CONCLUSION
..................................................................................
444
BIBLIOGRAPHY
445
|
adam_txt |
CONTENTS
PREFACE
I
LIST
OF
TABLES
XV
LIST
OF
FIGURES
XVII
1
LP100
*
OPTIMIZATION
OF
100
GB/S
SHORT
RANGE
WIRELESS
TRANSCEIVERS
UNDER
PROCESSING
ENERGY
CONSTRAINTS
1
GERD
ASCHEID,
GAOJIAN
WANG,
SEBASTIAN
BIRKE,
NORBERT
WEHN,
MATTHIAS
HERRMANN,
AND
YANLU
WANG,
ONER
HANAY,
ERKAN
BAYRAM,
RENATO
NEGRA
1.1
INTRODUCTION
.
2
1.1.1
MOTIVATION
.
2
1.1.2
RELEVANT
BOUNDARY
CONDITIONS
.
4
1.1.3
MOTIVATION
FOR
THE
CHOICE
OF
THE
SCENARIO
.
5
1.2
SYSTEM
CONCEPT
.
6
1.2.1
ENERGY
CONSIDERATIONS
.
6
1.2.2
CHANNEL
MODEL
.
6
1.2.3
SYSTEM
ARCHITECTURE
.
7
1.2.4
BEAMFORMING
WITH
TIME
DELAY
COMPENSATION
.
8
1.3
RF
FRONT-END
ARCHITECTURE
.
10
1.3.1
POWER
MODELING
AND
ENERGY
BUDGETING
.
11
1.3.2
POWER
LIMITED
REGION
.
11
1.3.2.1
POWER
LIMITED
SYSTEM
.
11
1.3.2.2
CPFSK
TRANSMITTER
.
12
1.3.2.3
CPFSK
RECEIVER
.
14
1.3.3
BANDWIDTH
LIMITED
REGION
.
15
1.3.3.1
INTRODUCTION
TO
FBMC
.
16
1.3.3.2
FREQUENCY
SYNTHESIS
.
17
1.3.3.3
RADIO-FREQUENCY
DIGITAL-TO-ANALOG-CONVERTER
(RF-
DAC)
DESIGN
.
18
1.3.4
PROPOSALS
OF
RF-ARCHITECTURES
.
19
1.4
FRONTEND
PROCESSING
.
19
1.4.1
JOINT
PRE-/POST-PROCESSING
.
20
1.4.2
CHANNEL
ESTIMATION
-
BEAMFORMING
TRAINING
.
23
1.5
DIGITAL
BASEBAND
SIGNAL
PROCESSING
BEYOND
100
GB/S
.
24
1.5.1
HIGH-THROUGHPUT
CHANNEL
DECODER
ARCHITECTURES
.
25
VI
CONTENTS
1.5.1.1
HIGH
THROUGHPUT
TURBO
AND
LDPC
DECODERS
26
1.5.1.2
POLAR
DECODERS
.
27
1.5.1.3
IMPLEMENTATION
RESULTS
.
28
1.5.2
HIGH-THROUGHPUT
MIMO
RECEIVER
.
29
1.5.3
IMPROVING
ENERGY
EFFICIENCY
FOR
PIPELINED
RECEIVER
AR
CHITECTURES
.
32
1.6
POWER
ESTIMATION
.
33
1.7
SUMMARY
AND
CONCLUSIONS
.
34
2
SPARS
*
SIMULTANEOUS
PHASE
AND
AMPLITUDE
REGENERATIVE
SAMPLING
37
CHRISTIAN
CARLOWITZ,
MARTIN
VOSSIEK,
T.
GIRG,
M.
DIETZ,
A.-M.
SCHROTZ,
T.
MAIWALD,
A.
HAGELAUER,
R.
WEIGEL,
HATEM
GHALEB,
CORRADO
CARTA,
FRANK
ELLINGER,
AND
XUAN-QUANG
DU,
MARKUS
GRAZING,
MANFRED
BERROTH
2.1
INTRODUCTION
.
38
2.2
SYSTEM
CONCEPT
AND
DEMONSTRATOR
.
39
2.2.1
SPARS
CONCEPT
.
39
2.2.2
THEORY
AND
SYSTEM
ANALYSIS
.
41
2.2.3
HOMODYNE
SYSTEM
DEMONSTRATOR
.
43
2.2.4
HETERODYNE
SYSTEM
.
45
2.3
TRANSMITTER
COMPONENTS
.
46
2.3.1
GENERATION
OF
THE
CARRIER
FREQUENCY
.
47
2.3.1.1
QUINTUPLER
STAGE
.
47
2.3.1.2
GILBERT-CELL
MULTIPLIER
.
48
2.3.2
BPSK
MODULATORS
AND
RF-DACS
.
50
2.3.3
SUMMARY
.
53
2.4
MM-WAVE
FRONTEND
COMPONENTS
.
54
2.4.1
180-GHZ
SUPER-REGENERATIVE
OSCILLATOR
WITH
58
DB
RE
GENERATIVE
GAIN
.
54
2.4.1.1
SRO
PRINCIPLES
.
54
2.4.1.2
CIRCUIT
DESIGN
.
55
2.4.1.3
EXPERIMENTAL
RESULTS
.
58
2.4.1.4
WAVEGUIDE
MODULE
AND
WIRELESS
DATA
TRANS
MISSION
.
62
2.4.2
180-GHZ
DOWN-CONVERSION
MIXER
WITH
BROADBAND
RAT-
RACE
COUPLER
.
63
2.4.2.1
PASSIVE
MIXER
.
63
2.4.2.2
CIRCUIT
DESIGN
.
63
2.4.2.3
EXPERIMENTAL
RESULTS
.
65
2.5
ANALOG
BASEBAND
RECEIVER
COMPONENTS
.
66
2.5.1
INDRODUCTION
.
66
2.5.2
A
112
GS/S
L-TO-4
ADC
FRONTEND
.
67
2.5.2.1
VOLTAGE
VERSUS
CHARGE
SAMPLING
.
67
2.5.2.2
CIRCUIT
DESIGN
.
68
2.5.2.3
EXPERIMENTAL
RESULTS
.
70
CONTENTS
VII
2.5.3
A
40
GS/S
4
BIT
FLASH
ADC
.
70
2.5.3.1
*
TRAVELING-WAVE
*
ARCHITECTURE
.
70
2.5.3.2
CIRCUIT
DESIGN
.
72
2.5.3.3
EXPERIMENTAL
RESULTS
.
73
3
TERA50H
----
SUB-MM-WAVE
100
GBIT/S
FIBER-WIRELESS
TRANS
MISSION
SYSTEM
75
MATTHIAS
STEEG,
JONAS
TEBART,
SEBASTIAN
DULME,
ANDREAS
STOHR,
FLORIAN
EXNER,
ANDREAS
CZYLWIK,
AND
MAI
ALISSA,
THOMAS
KAISER
3.1
INTRODUCTION
.
76
3.2
COHERENT
RADIO-OVER-FIBER
THZ
TRANSMISSION
SYSTEM
.
77
3.2.1
TRANSMISSION
SYSTEM
ARCHITECTURE
.
78
3.2.1.1
MACH-ZEHNDER
MODULATOR
.
79
3.2.1.2
ERBIUM-DOPED-FIBER
AMPLIFIER
.
81
3.2.1.3
THZ
PHOTODIODES
AND
DUAL-POLARIZATION
PHO
TOMIXER
INTEGRATION
.
82
3.2.1.4
SCHOTTKY-BARRIER
DIODE
ENVELOPE
DETECTOR
.
84
3.2.2
TRANSMISSION
SYSTEM
MODELING
.
85
3.2.2.1
TRANSMITTER
MODEL
.
85
3.2.2.2
RECEIVER
MODEL
.
87
3.2.2.3
SYSTEM
MODEL
.
88
3.2.3
SIMULATION
AND
OPTIMAL
PARAMETER
.
90
3.3
WIRELESS
MM-WAVE
AND
THZ
CHANNELS
.
92
3.3.1
CHANNEL
SOUNDING
EXPERIMENTS
.
92
3.3.1.1
MEASUREMENT
EQUIPMENT
.
93
3.3.1.2
MEASUREMENT
ENVIRONMENT
.
94
3.3.1.3
MEASUREMENT
SCENARIOS
.
95
3.3.2
CHANNEL
PROPERTIES
AND
MODELING
.
96
3.3.2.1
CHANNEL
CHARACTERISTICS
.
96
3.3.2.2
CHANNEL
MODELING
.
97
3.4
HIGH
BANDWIDTH
OFDM
MEASUREMENT
SYSTEM
.
99
3.4.1
EXPERIMENTAL
RESULTS
FOR
60
GHZ
TRANSMISSION
.
100
3.4.2
BEYOND
100
GBIT/S
&
THZ
TRANSMISSION
DEMONSTRATION
102
3.5
CONCLUSION
.
107
4
DAAB
*
ON-CHIP
INTEGRATED
DISTRIBUTED
AMPLIFIER
AND
AN
TENNA
SYSTEMS
IN
LOCALLY-BACKSIDE-ETCHED
SIGE
BICMOS
FOR
RECEIVERS
WITH
ULTRA-LARGE
BANDWIDTH
109
PAOLO
VALERIO
TESTA,
CORRADO
CARTA,
FRANK
ELLINGER
AND
BERNHARD
KLEIN,
RONNY
HAHNEL,
DIRK
PLETTEMEIER
4.1
INTRODUCTION
TO
THE
CHAPTER
.
110
4.2
BROADBAND
DISTRIBUTED
AMPLIFIERS
.
110
4.2.1
TRAVELING-WAVE
AMPLIFIERS
.
ILL
4.2.2
CASCADED
SINGLE-STAGE
DISTRIBUTED
AMPLIFIERS
.
114
4.2.3
TRAVELING-WAVE
COMBINERS
AND
DIVIDERS
.
117
VIII
CONTENTS
4.3
ANTENNA
DESIGN
REQUIREMENTS
.
124
4.3.1
SYSTEMS-ON-CHIP
AND
SYSTEMS-IN-PACKAGE
.
124
4.3.2
SEMICONDUCTOR
TECHNOLOGY
.
125
4.3.3
TECHNOLOGY
CONSTRAINTS
.
126
4.4
INTEGRATED
ANTENNA
DESIGNS
.
127
4.4.1
LINEAR
POLARIZED
ANTENNAS
.
127
4.4.1.1
LOG-SPIRAL
ANTENNA
.
127
4.4.1.2
STACKED
VIVALDI-SHAPED
OPEN-SLOT
ANTENNA
.
128
4.4.2
DUAL-POLARIZED
ANTENNAS
.
129
4.4.2.1
CROSSED
VIVALDI-SHAPED
OPEN-SLOT
ANTENNA
.
129
4.4.2.2
COMBINED
SLOT
FRACTAL
BOWTIE
ANTENNA
.
130
5
MAXIMUMMIMO
*
MILLIMETER
WAVE
LINE-OF-SIGHT
SPATIAL
MULTIPLEXING
139
XIAOHANG
SONG,
WOLFGANG
RAVE,
GERHARD
FETTWEIS,
TIM
HDLSIG,
BERTHOLD
LANKL,
AND
DARKO
CVETKOVSKI,
ECKHARD
GRASS
5.1
INTRODUCTION
.
140
5.1.1
CONVENTIONAL
BACKHAUL
TECHNOLOGIES
.
140
5.1.2
BENEFITS
AND
CHALLENGES
OF
THE
LOS
MIMO
TECHNIQUE
141
5.2
LOS
MIMO
BASICS
.
142
5.2.1
PARALLEL
ANTENNA
TOPOLOGIES
.
142
5.2.2
MMWAVE
LOS
MIMO
AS
A
BACKHAUL
TECHNIQUE
.
146
5.3
LOS
MIMO
CHANNEL
EQUALIZATION
.
148
5.3.1
LOS
MIMO
CHANNEL
FACTORIZATION
.
148
5.3.2
CONVENTIONAL
LINEAR
SIGNAL
ESTIMATION
ALGORITHMS
.
.
149
5.3.3
SEQUENTIAL
CHANNEL
EQUALIZATION
.
150
5.4
SYNCHRONIZATION
FOR
LOS
MIMO
SYSTEMS
.
152
5.4.1
CORRELATION
BASED
ESTIMATORS
.
153
5.4.2
COMBINING
EQUALIZATION
AND
SYNCHRONIZATION
.
154
5.4.3
ADAPTIVE
EQUALIZATION
.
155
5.5
BASEBAND
PROCESSING
ARCHITECTURES
.
158
5.5.1
RECEIVER
BASEBAND
ARCHITECTURES
.
158
5.5.2
COMPUTATIONAL
COMPLEXITY
ANALYSIS
.
159
5.6
CHANNEL
MEASUREMENTS
AND
DEMONSTRATION
.
160
5.6.1
MM
WAVE
LOS
MIMO
EXPERIMENTAL
SETUP
.
160
5.6.2
LOS
MIMO
CHANNEL
ESTIMATION
RESULTS
.
161
5.6.3
ADAPTIVE
EQUALIZATION
RESULTS
.
164
5.7
CONCLUSION
AND
EXTENSIONS
.
165
6
M4
*
MULTI-MODE
MASSIVE
MIMO
167
NILS
L.
JOHANNSEN,
PETER
A.
HOEHER
AND
NIKOLAI
PEITZMEIER,
DIRK
MAN
TEUFFEL
6.1
INTRODUCTION
.
167
6.2
FUNDAMENTALS
.
169
CONTENTS
IX
6.2.1
APPLICATION
OF
CHARACTERISTIC
MODES
TO
MIMO
ANTENNA
DESIGN
.
169
6.2.2
BASEBAND
CHANNEL
MODELING
.
172
6.2.3
DEFINITION
OF
SYSTEM
PARAMETERS
.
175
6.3
SYSTEMATIC
MULTI-MODE
ANTENNA
DESIGN
BASED
ON
SYMMETRY
PROPERTIES
OF
CHARACTERISTIC
MODES
.
178
6.3.1
MODAL
ANALYSIS
OF
ELECTRICALLY
LARGE
RECTANGULAR
PLATE
179
6.3.2
SYMMETRY
ANALYSIS
OF
CHARACTERISTIC
MODES
.
182
6.3.3
MULTI-MODE
ANTENNA
DESIGN
AND
ARRAY
ARRANGEMENT
187
6.4
BASEBAND
PROCESSING
SYSTEM
DESIGN
.
192
6.4.1
SYSTEM
ARCHITECTURE
OF
BASEBAND
SIGNAL
PROCESSING
.
192
6.4.2
JOINT
PRECODING
AND
POWER
CONTROL
.
193
6.4.3
IMPACT
OF
INTER-PORT
COUPLING
.
201
6.4.4
BEAMFORMING
ARCHITECTURES
.
203
6.4.5
SINGLE-ELEMENT
BEAMFORMING
.
206
6.4.6
ACKNOWLEDGEMENT
.
210
7
REALLOOG
*
ULTRABROADBAND
WIRELESS
COMMUNICATION
AT
HIGH
MM-WAVE
FREQUENCIES
213
J.
CHRISTOPH
SCHEYTT,
ABDUL
REHMAN
JAVED,
AKANKSHA
BHUTANI,
THOMAS
ZWICK,
INGMAR
KALLFASS,
ESWARA
RAO
BAMMIDI,
AND
KARTHIK
KRISHNEGOWDA,
ROLF
KRAEMER
7.1
INTRODUCTION
.
214
7.2
APPLICATIONS
AND
BASIC
SYSTEM
ARCHITECTURES
FOR
LOOGBPS
WIRELESS
COMMUNICATIONS
.
214
7.3
DEFINITION
OF
TARGET
SYSTEM
PARAMETERS
OF
THE
REALLOOG
SYS
TEM
.
215
7.3.1
CARRIER
FREQUENCY
.
215
7.3.2
BANDWIDTH
AND
SPECTRUM
EFFICIENCY
.
216
7.3.3
BASEBAND
SIGNAL
PROCESSING
.
217
7.3.4
LINK
BUDGET
AND
ACHIEVABLE
RANGE
.
219
7.4
CHALLENGES
AND
PROPOSED
SOLUTIONS
.
222
7.4.1
PSSS
SYSTEM
ARCHITECTURE
.
222
7.4.1.1
SYSTEM
PARAMETERS
FOR
MIXED-SIGNAL
PSSS
BASEBAND
.
224
7.4.2
RF
FRONTEND
.
225
7.4.3
RECEIVER
SYNCHRONIZATION
.
226
7.5
REALLOOG
OVERALL
SYSTEM
ARCHITECTURE
.
226
7.5.1
REALLOOG
TRANSMITTER
ARCHITECTURE
.
227
7.5.2
REALLOOG
RECEIVER
ARCHITECTURE
.
228
8
REALLOOG.COM
231
ABDUL
REHMAN
JAVED,
J.
CHRISTOPH
SCHEYTT,
ESWARA
RAO
BAMMIDI,
INGMAR
KALLFASS,
AND
KARTHIK
KRISHNEGOWDA,
ROLF
KRAEMER
8.1
MIXED-SIGNAL
PSSS
RECEIVER
BASEBAND
.
233
X
CONTENTS
8.1.1
SEMICONDUCTOR
TECHNOLOGY
.
233
8.1.2
PSSS
RECEIVER
BASEBAND
UNIT-SLICE
.
233
8.1.3
MIXED-SIGNAL
PROGRAMMABLE
WEIGHTED
CODE
GENERATOR
CIRCUIT
.
235
8.1.3.1
PROGRAMMABLE
DIFFERENTIAL
CURRENT
SOURCES
.
236
8.1.3.2
ONE-HOT
PULSE
GENERATION
CIRCUIT
(MUX
SE
LECT
SIGNAL)
.
236
8.1.3.3
HIGH-SPEED
DIFFERENTIAL
CURRENT
SWITCHES
.
.
238
8.1.3.4
6-TO-L
DIFFERENTIAL
CURRENT
SUMMATION
TRANS
IMPEDANCE
STAGE
.
239
8.1.3.5
DIFFERENTIAL
TRANSADMITTANCE
STAGE
.
240
8.1.3.6
3-TO-L
DIFFERENTIAL
CURRENT
SUMMATION
TRANS
IMPEDANCE
STAGE
.
240
8.1.3.7
CHARACTERIZATION
OF
THE
PROGRAMMABLE
WEIGHTED
CODE
GENERATOR
CIRCUIT
.
241
8.1.4
BROADBAND
ANALOG
CORRELATOR
WITH
FAST
RESET
.
242
8.1.4.1
FOUR
QUADRANT
MULTIPLIER
.
242
8.1.4.2
BROADBAND
INTEGRATOR
.
242
8.1.4.3
CHARACTERIZATION
OF
THE
CORRELATOR
CIRCUIT
.
.
245
8.1.5
CHARACTERIZATION
OF
THE
PSSS
RECEIVER
BASEBAND
UNIT-
SLICE
CIRCUIT
.
246
8.1.5.1
M-SEQUENCE
CORRELATION
TEST
.
249
8.1.5.2
TEST
WITH
ACTUAL
PSSS
DATA
WITH
BPSK
MODU
LATED
DATA
.
250
8.1.5.3
TEST
WITH
ACTUAL
PSSS
DATA
WITH
PAM-4
MODULATED
DATA
.
251
8.1.6
SUMMARY
.
253
8.2
RECEIVER
SYNCHRONIZATION
.
253
8.2.1
BPSK
COSTAS
LOOP
.
254
8.2.1.1
BPSK
COSTAS
LOOP
-
SYSTEM
LEVEL
SIMULA
TIONS
.
257
8.2.1.2
BPSK
COSTAS
LOOP
-
MEASUREMENTS
.
259
8.2.2
QPSK
COSTAS
LOOP
.
261
8.2.2.1
QPSK
COSTAS
LOOP
-
SYSTEM
LEVEL
SIMULATIONS
265
8.2.2.2
QPSK
COSTAS
LOOP
-
MEASUREMENTS
.
266
8.2.3
APPLICATION
TO
MMW
RECEIVERS
.
268
8.2.4
IQ
RECOVERY
FOR
PSSS
MODULATED
SIGNALS
.
270
8.2.5
SUMMARY
.
273
8.3
SPREADING
CODES
.
274
8.3.1
KASAMI
CODES
FOR
TRANSMISSION
ON
I/Q
CHANNELS
.
274
8.4
MEASUREMENT
EXPERIMENTS
.
277
8.4.1
HIL
MODEL
FOR
A
PSSS-15
TRANSMITTER
.
277
8.4.2
HIL
MODEL
FOR
A
PSSS-15
RECEIVER
.
278
8.4.3
DEMONSTRATOR
SETUP
.
278
8.4.4
SYNCHRONIZATION
IN
HIL
EXPERIMENTS
.
280
CONTENTS
XI
8.4.4.1
SYNCHRONIZATION
LAYERS
OF
COHERENT
/
NON-COHERENT
SYSTEMS
.
281
8.4.5
PERFORMANCE
RESULTS
.
282
8.4.5.1
CHANNEL
ESTIMATION
AND
EQUALIZATION
.
282
8.4.5.2
PSSS
MODULATED
DATA
WITH
BPSK
.
283
8.4.5.3
PSSS
MODULATED
DATA
WITH
PAM-16
.
284
8.4.6
KASAMI
CODES
TRANSMISSION
ON
I/Q
CHANNELS
.
286
8.4.6.1
I-Q
TRANSCEIVER
SYSTEM
WITH
KASAMI
CODES
.
.
286
8.4.6.2
MEASUREMENT
SETUP
OF
THE
230
GHZ
COMMUNI
CATION
LINK
WITH
KASAMI
CODES
.
287
8.4.6.3
CHANNEL
ESTIMATION
WITH
KASAMI
CODES
.
.
.
288
8.4.6.4
KASAMI
CODES
WITH
PAM-
16
.
289
8.4.7
SUMMARY
.
292
8.5
CONCLUSION
.
293
9
REALLOOG.RF:
A
FULLY
INTEGRATED,
MULTI-PURPOSE
RADIO
FRONT-END
FOR
WIRELESS
100
GBPS
295
A.
BHUTANI,
F.
BOES,
B.
GOETTEL,
J.
SCHAEFER,
J.
EISENBEIS,
T.
ZWICK
AND
STEFAN
MALZ,
PEDRO
RODRIGUEZ
VAZQUEZ,
JANUSZ
GRZYB,
ULRICH
PFEIFFER
9.1
INTRODUCTION
.
296
9.1.1
STATE-OF-THE-ART
.
297
9.2
FULLY
INTEGRATED
MILLIMETER
WAVE
TRANSCEIVER
CONCEPTS
.
.
.
298
9.2.1
PACKAGE
CONCEPT
.
301
9.2.1.1
SYSTEM-IN-PACKAGE
(SIP)
.
301
9.2.1.2
SYSTEM-ON-CHIP
(SOC)
.
301
9.2.1.3
INTEGRATED
LENS
ANTENNA
CONCEPT
.
302
9.2.2
QUAD
FLAT
NO
LEAD
TYPE
PACKAGE
CONFIGURATION
.
.
.
303
9.2.2.1
ELECTRICAL
PACKAGE
REQUIREMENTS
.
304
9.2.2.2
MECHANICAL
PACKAGE
REQUIREMENTS
.
306
9.2.2.3
THERMAL
PACKAGE
REQUIREMENTS
.
307
9.3
240
GHZ
TRANSCEIVER
CIRCUITS
.
308
9.3.1
TRANSMITTER
.
308
9.3.2
RECEIVER
.
310
9.3.3
CIRCUIT
BLOCKS
.
311
9.3.3.1
UP-CONVERSION
MIXER
.
311
9.3.3.2
POWER
AMPLIFIER
.
311
9.3.3.3
QUADRATURE
DOWN-CONVERSION
MIXER
.
314
9.4
ON-CHIP
INTEGRATED
LENS
ANTENNAS
.
315
9.4.1
IN
ANTENNA
POWER
COMBINING
.
315
9.4.2
BROADBAND
ON-CHIP
ANTENNA
DESIGN
.
317
9.4.2.1
ANTENNA
POLARIZATION
.
.
317
9.4.2.2
POWER
COMBINING
LIMIT
.
318
9.4.2.3
AMPLITUDE
AND
PHASE
IMBALANCE
.
318
9.4.2.4
POWER-SPLITTER
NETWORK:
DISTRIBUTED
TRANS
FORMER
.
320
XII
CONTENTS
9.4.2.5
FOUR-FEED
DIFFERENTIAL
ANTENNA
WITH
6
MM
SI
LICON
LENS
.
322
9.4.2.6
FOUR-FEED
DIFFERENTIAL
ANTENNA
WITH
12
MM
SI
LENS
AND
POWER
AMPLIFIERS
.
323
9.5
PACKAGING
OF
MINIATURIZED
240
GHZ
TRANSCEIVER
FRONTEND
.
.
324
9.5.1
BANDWIDTH
LIMITATIONS
.
324
9.5.2
THERMAL
MANAGEMENT
.
326
9.5.3
COMPACT
CUBE
.
328
9.5.3.1
BANDWIDTH
OF
COMPACT
CUBE
.
330
9.5.3.2
ACTIVE
COOLING
CONCEPT
.
330
9.6
TRANSMITTER
&
RECEIVER
CHARACTERIZATION
.
332
9.6.1
TRANSMITTER
CHARACTERIZATION
.
332
9.6.1.1
TX
CHARACTERIZATION
SETUP
.
332
9.6.1.2
TX
CHARACTERIZATION
RESULTS
.
332
9.6.2
RECEIVER
CHARACTERIZATION
.
333
9.6.2.1
RX
CHARACTERIZATION
SETUP
.
333
9.6.2.2
RX
CHARACTERIZATION
RESULTS
.
333
9.6.3
COMMUNICATION
DEMONSTRATION
.
333
9.6.3.1
MEASUREMENT
SETUP
.
333
9.6.3.2
MEASURED
RESULTS
.
334
9.7
CONCLUSION
.
335
10
END2ENDL00
*
COMMUNICATION
PROTOCOL
PROCESSING
FOR
ULTRA
HIGH
DATA
RATES
359
STEFFEN
BUCHNER,
JORG
NOLTE,
ALIREZA
HASANI,
ROLF
KRAEMER,
AND
LUKASZ
LOPACINSKI
10.1
A
PARALLELIZABLE
DATA
LINK
PROTOCOL
.
363
10.1.1
PROTOCOL
DESCRIPTION
.
364
10.1.2
PROTOCOL
PIPELINES
.
365
10.2
PARALLEL
PROTOCOL
PROCESSING
.
366
10.2.1
STREAM
PROCESSING
BASED
PROTOCOL
DESIGN
.
367
10.2.2
PROCESSING
ENGINE
TEMPLATE
LANGUAGE
.
370
10.2.3
RECONFIGURATION
OF
A
DEPLOYED
PROCESSING
ENGINE
.
.
.
374
10.3
FORWARD
ERROR
CORRECTION
(FEC)
.
376
10.3.1
INTERLEAVED
RS
(IRS)
CODING
.
377
10.3.2
ENERGY
EFFICIENT
FEC
SCHEMES
.
379
10.3.3
LINK
ADAPTATION
.
382
10.4
EVALUATION
.
383
10.4.1
STREAM
PROCESSING
APPROACH
.
383
10.4.1.1
OVERHEAD
AND
SCALABILITY
.
384
10.4.1.2
PROTOCOL
REPLACEMENT
.
384
10.4.1.3
PROTOCOL
RECONFIGURATION
AND
DYNAMIC
CHAN
NEL
BONDING
.
386
10.4.2
FEC
RESULTS
.
388
10.4.2.1
DLL
FRAME
FORMAT
.
390
CONTENTS
XIII
10.4.2.2
ENERGY
CONSUMPTION
.
390
10.4.2.3
VOLTAGE
SCALING
.
392
10.4.2.4
COMPARISON
WITH
OTHER
PUBLISHED
WORK
.
.
.
392
10.5
CONCLUSION
.
395
11
POLYDATA/DATARACE
*
POLYMER-INTEGRATED
CMOS-BASED
HIGH-SPEED
COMMUNICATION
SYSTEMS
AT
W-BAND
397
BJORN
DEUTSCHMANN,
MALTE
GIESE,
ARNE
F.
JACOB,
NIMA
LOFTI,
FRIEDEL
GER-
FERS,
AND
SONKE
VEHRING,
GEORG
BOCK
11.1
INTRODUCTION
.
398
11.2
CONCEPT
AND
SYSTEM
ANALYSIS
.
400
11.3
W-BAND
FRONT-END
.
402
11.3.1
FULL
W-BAND
CMOS
PA
.
403
11.3.2
ANTENNAS
AND
POLARIZER
.
406
11.3.2.1
ADVANCED
SEPTUM
POLARIZER
.
406
11.3.2.2
HORN
ANTENNAS
WITH
TRIANGULAR
FEED
.
409
11.3.3
TRANSITIONS
.
410
11.3.3.1
VERTICAL
WAVEGUIDE-TO-MICROSTRIP
TRANSITION
410
11.3.3.2
MICROSTRIP-TO-CHIP
TRANSITION
.
412
11.3.4
LOW-NOISE
AMPLIFIER
.
413
11.3.5
RESISTIVE
MIXER
.
417
11.3.6
TRULY
BALANCED
LO
QUADRUPLER
.
418
11.3.7
DIGITAL
PHASE-SHIFTER
.
423
11.3.8
BALANCED
DISTRIBUTED
AMPLIFIER
.
424
11.3.9
POWER
COMBINING
NETWORK
.
426
11.3.10
TIME-INTERLEAVED
TRACK-&-HOLD
.
429
11.3.11
ANALOG-TO-DIGITAL
CONVERTER
.
435
11.3.12
DIGITAL
ENCODER
.
441
11.4
CONCLUSION
.
444
BIBLIOGRAPHY
445 |
any_adam_object | 1 |
any_adam_object_boolean | 1 |
author2 | Kraemer, Rolf Scholz, Stefan |
author2_role | edt edt |
author2_variant | r k rk s s ss |
author_facet | Kraemer, Rolf Scholz, Stefan |
building | Verbundindex |
bvnumber | BV047123793 |
classification_rvk | ZN 6400 |
ctrlnum | (OCoLC)1237597504 (DE-599)DNB1222274779 |
discipline | Elektrotechnik / Elektronik / Nachrichtentechnik |
discipline_str_mv | Elektrotechnik / Elektronik / Nachrichtentechnik |
format | Book |
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id | DE-604.BV047123793 |
illustrated | Illustrated |
index_date | 2024-07-03T16:30:19Z |
indexdate | 2024-07-10T09:03:17Z |
institution | BVB |
isbn | 9783964390035 |
language | English |
oai_aleph_id | oai:aleph.bib-bvb.de:BVB01-032530041 |
oclc_num | 1237597504 |
open_access_boolean | |
owner | DE-29T DE-634 DE-83 |
owner_facet | DE-29T DE-634 DE-83 |
physical | xxix, 489 Seiten Illustrationen, Diagramme 23 cm |
publishDate | 2020 |
publishDateSearch | 2020 |
publishDateSort | 2020 |
publisher | IHP GmbH |
record_format | marc |
spelling | Wireless 100 Gbps and beyond architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655 Rolf Kraemer and Stefan Scholz (Editor) Wireless hundred Gbps and beyond Wireless on hundred Gbps and beyond Frankfurt (Oder) IHP GmbH August 2020 xxix, 489 Seiten Illustrationen, Diagramme 23 cm txt rdacontent n rdamedia nc rdacarrier Antenne (DE-588)4002210-9 gnd rswk-swf Terahertzbereich (DE-588)4346673-4 gnd rswk-swf Drahtloses Sensorsystem (DE-588)4789222-5 gnd rswk-swf Hochfrequenztechnik (DE-588)4025202-4 gnd rswk-swf Energieeffizienz (DE-588)7660153-5 gnd rswk-swf Drahtloses Sensorsystem (DE-588)4789222-5 s Hochfrequenztechnik (DE-588)4025202-4 s Antenne (DE-588)4002210-9 s Terahertzbereich (DE-588)4346673-4 s Energieeffizienz (DE-588)7660153-5 s DE-604 Kraemer, Rolf edt Scholz, Stefan edt B:DE-101 application/pdf https://d-nb.info/1222274779/04 Inhaltsverzeichnis DNB Datenaustausch application/pdf http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=032530041&sequence=000001&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA Inhaltsverzeichnis 1\p dnb 20201215 DE-101 https://d-nb.info/provenance/plan#dnb |
spellingShingle | Wireless 100 Gbps and beyond architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655 Antenne (DE-588)4002210-9 gnd Terahertzbereich (DE-588)4346673-4 gnd Drahtloses Sensorsystem (DE-588)4789222-5 gnd Hochfrequenztechnik (DE-588)4025202-4 gnd Energieeffizienz (DE-588)7660153-5 gnd |
subject_GND | (DE-588)4002210-9 (DE-588)4346673-4 (DE-588)4789222-5 (DE-588)4025202-4 (DE-588)7660153-5 |
title | Wireless 100 Gbps and beyond architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655 |
title_alt | Wireless hundred Gbps and beyond Wireless on hundred Gbps and beyond |
title_auth | Wireless 100 Gbps and beyond architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655 |
title_exact_search | Wireless 100 Gbps and beyond architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655 |
title_exact_search_txtP | Wireless 100 Gbps and beyond architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655 |
title_full | Wireless 100 Gbps and beyond architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655 Rolf Kraemer and Stefan Scholz (Editor) |
title_fullStr | Wireless 100 Gbps and beyond architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655 Rolf Kraemer and Stefan Scholz (Editor) |
title_full_unstemmed | Wireless 100 Gbps and beyond architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655 Rolf Kraemer and Stefan Scholz (Editor) |
title_short | Wireless 100 Gbps and beyond |
title_sort | wireless 100 gbps and beyond architectures approaches and findings of german research foundation dfg priority programme spp1655 |
title_sub | architectures, approaches and findings of German Research Foundation (DFG) Priority Programme SPP1655 |
topic | Antenne (DE-588)4002210-9 gnd Terahertzbereich (DE-588)4346673-4 gnd Drahtloses Sensorsystem (DE-588)4789222-5 gnd Hochfrequenztechnik (DE-588)4025202-4 gnd Energieeffizienz (DE-588)7660153-5 gnd |
topic_facet | Antenne Terahertzbereich Drahtloses Sensorsystem Hochfrequenztechnik Energieeffizienz |
url | https://d-nb.info/1222274779/04 http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=032530041&sequence=000001&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA |
work_keys_str_mv | AT kraemerrolf wireless100gbpsandbeyondarchitecturesapproachesandfindingsofgermanresearchfoundationdfgpriorityprogrammespp1655 AT scholzstefan wireless100gbpsandbeyondarchitecturesapproachesandfindingsofgermanresearchfoundationdfgpriorityprogrammespp1655 AT kraemerrolf wirelesshundredgbpsandbeyond AT scholzstefan wirelesshundredgbpsandbeyond AT kraemerrolf wirelessonhundredgbpsandbeyond AT scholzstefan wirelessonhundredgbpsandbeyond |
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