1
Introduction
2 Characteristics
of radiocommunication services
2.1
Characteristics and protection criteria of radiocommunication services
2.2
Categories of victim receivers
3 UWB
characteristics
3.1
Characteristics of devices using UWB technology
3.1.1 Multi-carrier/multi-band
signalling
3.1.2 Time hopping
3.2
UWB applications
3.2.1 Applications of pervasive
ultra-wideband radio systems (PULSERS)
3.3
UWB characteristics and their impact on UWB capabilities
3.3.1 Introduction
3.3.2 UWB link budgets
3.3.3 Justification for a link
margin
3.3.4 Impact on UWB
capabilities
3.3.5 UWB operational criteria
3.3.6 Conclusion
3.4
Slope emission masks
4 Impact of UWB on
radiocommunication services
4.1
Methodologies
4.2
Propagation prediction models for UWB interference studies
4.2.1 Background
4.2.2 Radio modelling
4.2.3 Propagation models to
assess potential interference from devices using UWB technology into
conventional and relatively narrowband receivers
4.2.4 Propagation models to
assess compatibility between different devices using UWB technology
4.2.5 A theoretical UWB
multipath propagation model
4.3
Aggregate interference analysis
4.3.1 UWB deployment scenarios
for aggregate interference analysis
4.3.2 Aggregate interference
analysis in outdoor terrestrial urban environments
4.3.3 Aggregate interference
measurement results
5 Mitigation
techniques
5.1
Spectral control techniques
5.1.1 Cross polarization
5.1.2 Notch filtering
5.1.3 UWB modulation and
channelization schemes
5.1.4 Frequency hopping
5.1.5 Chirp signalling
5.1.6 Frequency
agile modulation
5.1.7 Carrier-leak-free burst
oscillator
5.2
Spatial radiation control techniques 82
5.2.1 Antenna directivity
5.2.2 Multiple antenna
diversity
5.2.3 Array antenna
5.3
Combined techniques
5.4
Detect and avoid technique
Annex 1 to § 5 Spectral control mitigation techniques
1 Smoothing the
PSD of UWB signals
2 Impact of the
pseudo-noise code sequence on UWB PSD
3 Effects of pulse
shapes on the PSD of UWB signals
4 Summary of
analytical studies
4.1
Impact of UWB on the mobile, radiodetermination, amateur and related
services
4.1.1 Land mobile services except IMT-2000
4.1.2 Maritime mobile service
4.1.3 Aeronautical service
4.1.4 IMT-2000
4.1.5 Wireless access systems
including RLANs
4.1.6 Amateur and amateur-satellite service
4.1.7 Meteorological radar
4.2
Impact of UWB on the fixed service
4.3
Impact of UWB on the fixed-satellite service
4.4
Impact of devices using UWB technology on the mobile-satellite services
and the radionavigation satellite service
4.4.1 Mobile-satellite service
(MSS)
Separation distances
Maximum permissible e.i.r.p. density in 1 MHz at 20 m distance
Maximum permissible e.i.r.p. density in 1 MHz at 0.36 m distance
Maximum permissible e.i.r.p. density in 1 MHz at 0.36 m distance
4.4.2 Radionavigation
satellite service (RNSS)
4.5
Impact of UWB on the broadcasting service
4.5.1 Terrestrial broadcasting 123
In indoor environment
In outdoor environment
In indoor environment
In outdoor environment
4.5.2 Broadcast-satellite service (BSS)
4.6
Impact of UWB on the science services 131
4.6.1 Earth
exploration-satellite service (EESS)
4.6.2 Space research service
4.6.3 Radio astronomy service (RAS)
Annex 1 Studies related to the impact
of devices using ultra‑wideband technology on systems operating within
the mobile service
1 Land mobile
service except IMT-2000
1.1
PCS land mobile services
1.1.1 Blocking probabilities in
a CDMA PCS system
1.1.2 Impact tests of devices
using UWB technology on PCS land mobile services
1.2
Interference effect of UWB mass deployment on GSM 900 MHz systems
1.2.1 UWB transmitter
distribution and resulting interference model 147
1.2.2 Results for GSM
935-960 MHz
1.3
Impact on the land mobile service
1.4
WiBro service
1.4.1 Introduction
1.4.1 Analysis of the impact of
single UWB device on single WiBro MS
1.4.2 Allowable maximum
e.i.r.p. density of UWB at reference distance 153
1.5 Cellular
mobile services (824-849 MHz/869-894 MHz)
1.5.1 Approach
1.5.2 Conducted tests
1.6
Impact of devices using UWB technology on both IMT-2000 and land mobile
except IMT-2000 terminals
1.6.1 Introduction
1.6.2 A study by one
Administration on the impact of UWB emissions on both IMT-2000 and other land
mobile devices operating in the 1 750-1 780/1 840-1 870 and
1 850‑1 910/1 930-1 990 MHz frequency band
1.6.3 Output of the
Radiocommunication TG 1/8 Correspondence Group (CG)
2 Maritime mobile
service
2.1
Introduction
2.1.1
Ship operations
2.1.2 Shore operations
2.1.3 Port operations
2.1.4 Maritime radionavigation
service
2.2
Assumptions and calculations
2.3
Results
2.4
Conclusions
3 Aeronautical
service
3.1.1 Indicative methodology
3.1.1.1 Based on a required I/N
ratio
3.1.2 Interference
assessment
3.2
Results
3.2.1 Specific studies
3.2.2 Studies using the
indicative methodology
4 IMT-2000 and
systems beyond IMT-2000
4.1
Introduction
4.2
Scope
4.3
Assumed UWB technical characteristics and usage
4.3.1 UWB
usage scenarios
Office
Home
Home Theatre
4.3.2 UWB channel propagation
models
4.3.3 UWB interference modelling
4.4
Victim IMT-2000 receiver characteristics and deployment scenarios
4.4.1 IMT-2000 overview
4.4.2 Base stations
4.4.3 Mobile station (user
terminals)
4.4.4 IMT-2000 environment and
scenarios
4.4.5 Propagation conditions
4.5
Interference scenarios
4.5.1 Scenarios involving
victim IMT-2000 mobile station receivers
4.5.2 Scenarios involving
victim IMT-2000 base station receivers
4.5.3 Scenarios involving
IMT-2000 (including base stations and mobile stations) and UWB networks
4.6
Methodologies for interference assessment
4.6.1 Scenarios involving
victim IMT-2000 mobile station receivers
– Input
parameters:
– Criterion:
– Output results:
4.6.2 Scenarios involving
victim IMT-2000 base station receivers
4.6.3 Scenarios involving IMT-2000
and UWB networks (Monte-Carlo simulations)
4.7
Studies and results
4.7.1 Scenarios involving
victim IMT-2000 mobile station receivers
4.7.2 Scenarios involving
victim IMT-2000 base station receivers
4.7.2.1 Single UWB interferer
into a single base station
– Simulation
“intermediate” results: effective path loss CDF graphs
– Criterion:
4.7.3 Results of the
Monte-Carlo analysis
– Input
parameters:
Mean path-loss
Variance on path loss
e.i.r.p.
densityUWB
4.8
Summary and conclusions
5 Wireless access
systems including RLANs
5.1
Introduction and summary
5.2
Model and scenario
5.2.1 UWB interference model
5.2.2 RLAN cell coverage
5.3
UWB interference effects on IEEE 802.11a
5.3.1 IEEE 802.11a cell
coverage
5.3.2 UWB emission limit in the
IEEE 802.11a band
5.3.3 Interference as a
function of UWB transmitter density
5.3.4 UWB density resulting in
1 dB degradation in the S/N
5.3.5 Minimum distance with one
UWB transmitter
5.3.6 Maximum possible UWB
transmission power in order to have a UWB density of
0.2 users/m2
5.3.7 Summary IEEE 802.11a
5.4
UWB interference effects on IEEE 802.11b
5.4.1
IEEE 802.11b coverage
5.4.2 UWB emission limit in the
IEEE 802.11b band
5.4.3 UWB interference as a
function of transmitter density
5.4.4 UWB density resulting in
1 dB degradation in the S/N
5.4.5 Minimum distance with one
UWB transmitter
5.4.6 Maximum possible UWB
transmission power in order to have a UWB density of
0.2 users/m2
5.4.7 Summary IEEE 802.11b
5.5
Interference distances for IEEE 802.11a derived from measured C/I
5.5.1 Description of
measurement of C/I for RLAN tolerable
RLAN infrastructure:
RLAN ad hoc:
5.5.2 Interference distance for
UWB interference to R-LAN
5.5.3 Impact of peak power UWB
emission on DFS mechanisms
5.5.4 Implementation of DFS
mechanism in RLAN devices
5.5.5
Analysis of DFS mechanism with UWB emissions
5.5.6 Summary
6 Amateur and
amateur-satellite service
6.1
Amateur and amateur-satellite services in 420 MHz – 10.5 GHz
6.2
Deployment scenarios
6.3
Activity factor
6.3.1 Amateur transmission
6.3.2 UWB activity factor
6.4
Technical characteristics of amateur systems
6.5
Aggregation
6.6
Mitigation techniques
6.7
Frequency bands of interest
6.8
Characteristics of amateur stations
6.8.1 Terrestrial communications 294
6.8.2 Earth-Moon-Earth
communications
6.9
Particular scenarios for study – Amateur service
6.9.1 Terrestrial propagation
6.9.2 Minimum separation
distances – Scenario 3 – Earth/Moon/Earth
6.10 Amateur
satellite service
6.10.1 Amateur-satellite service frequencies
6.10.2 Technical
characteristics of amateur-satellite systems 301
6.10.3 Effects of UWB
deployment on the space segment of the amateur-satellite service
6.10.4 Space-to-Earth
6.11
Overall conclusions
7 Meteorological
ground based radars
7.1
System characteristics
7.1.1 UWB devices
7.1.2 Meteorological radar
7.2
Impact studies
7.2.1 Study A
7.2.2 Study B
7.3
Conclusion
Appendix 1 to Annex 1 (Ref: § 1.6.2) Characterization of a
mobile handset in multipath environments
1 Measurement
approaches
2 Reverberation
chamber
3 The total
isotropic sensitivity (TIS) measurements of cdma2000 mobile phones
4 The average
fading sensitivity (AFS) measurements of cdma2000 mobile phones
5 Comparison
between TIS and AFS sensitivities
Appendix 2 to Annex 1 (Ref: § 1.62)
Appendix 3 to Annex 1 (Ref: § 1.6.3)
1 Input to the
Correspondence Group by Sector Members
Appendix 4 to Annex 1 (Ref: § 1.6.3)
1 Input to the
Correspondence Group by one Administration
Appendix 5 to Annex 1 (Ref: § 1.6.3)
1 Input to the
Correspondence Group by a Sector Member
2 Mobile
forward/reverse antenna gain
3 Transmit
4 Receive
Annex 2 Studies related to the impact of devices using
ultra-wideband technology on systems operating within the fixed service
1 Summary
1.1
Fixed service objectives and characteristics
1.1.1 Fixed service protection
objectives
Long-term objectives for bands where multipath is the dominant aspect of
adverse propagation
Long-term objectives for bands where precipitation is the dominant fade
mechanism
1.1.2 Fixed service
characteristics
1.2
Representative scenarios for bands below 11 GHz
1.2.1 Scenario 1 –
Uniformly or randomly distributed UWB emissions
Scenario A:
Scenario B:
1.2.2 Scenario 3a – Hot
spots UWB emissions
1.2.3 Single entry outdoor UWB
to an outdoor FS station
1.2.4 Minimum distance of an
UWB device to indoor FWA TS
1.2.5 Vertical plane decoupling
scenario and FS antenna heights
1.3
Initial evaluations of upper-bounds of UWB interference to FWA and P-P
systems in the selected scenarios below ~11 GHz
1.3.1 Introduction
1.3.2 Single entry outdoor UWB
emission r.m.s. interference
1.3.3 Uniformly and randomly
distributed UWB emission aggregate r.m.s. interference (Scenario 1)
Step 1
Step 2
Step 3
Step 4
Step 5
1.3.4 “Hot-spot” UWB
emission r.m.s. aggregate interference (scenario 3a)
1.3.5 Minimum UWB distance from
indoor TS applications
1.3.6
Peak power limits requirement
1.3.7 Summary of parametric
formulas from aggregate interference study in bands from 3 to 11 GHz
1.4
Determination of UWB e.i.r.p. levels for FS protection considering
mitigation parameters and multiple scenarios aggregation in bands below 10.6
GHz
1.4.1 Bands from ~ 3 GHz to 10.
6 GHz
Propagation related factors
UWB implementation related factors
Method A
Method B
1.4.2 Bands below 3 GHz –
Qualitative considerations
1.5
Studies on impact of short range radars for automotive applications on
FS in bands around 24 GHz
1.5.1 Introduction
1.5.2 Frequency bands
1.5.3 Fixed service protection
objectives
1.5.4 FS characteristics in
bands around 24 GHz
1.5.5 SRR parameters
1.5.6 Additional
parameters for interference calculations
Gating
Activity factor
1.5.7 Methodology and scenarios
1.5.8 Calculation results
1.5.9 Test results
1.5.10 Conclusions
Deployment Case 1 study
Deployment Case 2 study
Further considerations
Appendix 1 to Annex 2 Evaluation of mitigation factors
KB and KLoS
1 KB
factor
1.1
Evaluation
1.1.2 KB
conclusions
2 KLoS
factor
2.1
Evaluation
2.1.1 KLoS
conclusions
Appendix 2 to Annex 2 One practical test for evaluating
reflection impact
Annex 3 Studies related to the impact of devices using
ultra-wideband technology on systems operating within the fixed-satellite
service
1 FSS earth
stations characteristics
2 UWB interference
into FSS uplinks
Conclusions (Earth-to-space)
3 UWB interference
into FSS downlinks
3.1
Single interferer
3.2
Aggregate interference
3.2.1 Interference power
density to noise ratio from UWB systems into FSS earth station receiver
3.2.2 Means to mitigate the
impact of aggregate UWB emissions
3.2.3 Further studies
Obstacles
Model and characterization of different scenarios
Different types of distributions
Results
3.3
Conclusion for FSS downlink
4 Conclusions for
FSS studies (uplink and downlink)
Annex 4 Studies related to the impact of devices using ultra‑wideband
technology on systems operating within the mobile-satellite service and the
radionavigation satellite service
1 Mobile-satellite
service (MSS)
1.1
Search and rescue systems
1.1.1 Computation of the
protection distances for the band 1 544-1 545 MHz for the LEO case
1.1.2 Computation of the
protection distances for the band 1 544-1 545 MHz for the GSO case
1.1.3 Results of the
interference analysis for the band 406-406.1 MHz
1.1.4 1 544-1 545
MHz (space-to-Earth)
1.1.5 406-406.1 MHz
(Earth-to-space)
1.2
Mobile-satellite services – Service links of GSO MSS systems
1.2.1 Introduction
1.2.2 Scenarios
of interference from UWB systems into service links of GSO MSS systems
1.2.3 Maximum permissible
interference levels
1.2.4 Victim receiver antenna characteristics
1.2.5
Reference UWB emission levels
1.2.6 Propagation models for
the interference analysis
1.2.7 Categories of victim
receivers
Interference Scenario A (1.5 GHz) in the service downlink
Interference Scenario B (1.6 GHz) in the service uplink
1.2.8 Deployment scenario for
aggregate interference analysis
1.2.9 Other assumptions
1.2.10 Results of the
interference analysis – Scenario A (1.5 GHz) 489
Type-1 MES terminal
Type-2 MES terminal
1.2.11 Results of the
interference analysis – GSO MSS satellite receiver (Scenario B)
1.2.12 Conclusions
Separation distances
Maximum permissible e.i.r.p. density in 1 MHz at 20 m distance
Separation distances
Maximum permissible e.i.r.p. density in 1 MHz at 20 m distance
2 Radionavigation
satellite service
2.1
Introduction
2.1.1 Noise-like effect
2.1.2 CW-like effect
2.2
The global positioning system (GPS)
2.2.1 GPS usage
2.2.2 GPS signal
characteristics
2.2.3 Technical and performance
characteristics of RNSS (space-to-Earth) systems and augmentation systems
2.2.4 Emissions limitations and
associated technical requirements on UWB devices in order to protect RNSS
systems and augmentation systems in the 1 165-1 215 MHz, 1 215‑1 300 MHz,
and 1 559-1 610 MHz bands
A Technical
requirements for ground penetrating radars and wall imaging systems
B Technical
requirements for through-wall imaging systems 508
C Technical
requirements for surveillance systems
D Technical
requirements for medical imaging use
E Technical
requirements for vehicular radar systems
F Technical
requirements for indoor UWB systems
G Technical
requirements for hand held UWB systems
H Technical
requirements applicable to all UWB devices
I Coordination
requirements
2.2.5 Study of UWB impact on
GPS-enabled phones
GPS protection requirement
GPS antenna gain in direction of UWB source
Propagation path loss at 2 m
UWB uncertainty factor
Summary
2.2.6 Global positioning system
(GPS) of the global navigation satellite system (GNSS)
2.3
Galileo
2.3.1 Introduction
2.3.2 Galileo services
2.3.3 Galileo signal
characteristics
2.3.4 Operational scenarios
2.3.5 UWB
transmitter-to-Galileo receiver link budget analyses
2.3.6 Single UWB
transmitter-to-Galileo receiver link budget analyses: noise-like effect only
2.3.7 Study on noise-like and
CW-like effects on Galileo
2.4
GLONASS
2.4.1 Introduction
2.4.2 Employment of the GLONASS
system
2.4.3 Characteristics of
signals in the GLONASS system
2.4.4 Scenarios of interference
effect on the GLONASS RNSS receivers
2.4.5 Protection criteria for
the GLONASS system
2.4.6 Analysis of UWB systems
interfering with a GLONASS receiver
2.4.7 Protection requirements
of airborne GLONASS receivers
2.4.8 Requirements of
protecting the commercial GLONASS receivers from interference caused by a
single UWB device
Annex 5 Studies related to the impact of devices using
ultra-wideband technology on systems operating within the broadcasting service
and the broadcasting‑satellite service
1 Impact of UWB
systems on terrestrial broadcasting
1.1 Assessment
of the impact of UWB systems on the T‑DAB system
1.1.1 Summary
1.1.2 Introduction
1.1.3 System characteristics
and propagation models
1.1.4 Considered scenarios
1.1.5 UWB emission limits
1.1.6 T‑DAB/UWB
interference scenario results
1.1.7 Maximum UWB e.i.r.p
density to provide adequate protection to the T-DAB system
1.1.8 Conclusion
1.2
ISDB-TSB system
1.2.1 Application system
description
1.2.2 Conclusions
1.3
Assessment of the impact of UWB systems on the DVB‑T system
1.3.1 Summary
1.3.2 Introduction
1.3.3 System characteristics
and propagation models
1.3.4 Considered scenarios
1.3.5 UWB emission limits
1.3.6 DVB‑T/UWB
interference scenario results
1.3.8 Conclusion
1.4
Assessment of the impact of UWB systems on ATSC digital television
1.4.1 Abstract
1.4.2 Introduction
1.4.3 Purpose
1.4.4 Assumptions
1.4.5 Procedure
1.4.6 Results
1.4.7 Conclusions
1.5
ISDB-T system
1.5.3 Further information about
the calculation for protection of the ISDB-T system
1.6 Analogue television
broadcasting
1.6.1 Introduction
1.6.2 Assessment of the impact
of UWB systems on analogue television
1.6.3 Conclusion
2 Impact of
devices using UWB technology on satellite broadcasting systems
2.1
Satellite broadcasting service in the bands
1 452-1 492 MHz and 2 320-2 345 MHz
2.1.1 Introduction
2.1.2 Scope
2.1.3 Summary of studies
2.1.4 Conclusion
Indoor communication UWB systems
Hand-held UWB systems
Surveillance devices
2.2
BSS(S) satellite system in the band 1 467-1 492 MHz
2.3
Satellite broadcasting service using code division multiplexing
technology in the band 2 605-2 655 MHz
2.3.1 Introduction
2.3.2 Power received by an SDMB
receiver
2.3.3 Noise spectral density (N0)
2.3.4 Impact of single UWB
interferer
2.3.5 Impact of aggregate UWB
interferers
2.3.6 Conclusion
2.4
Satellite broadcasting services in the bands 1 452-1 492 MHz, 2 310-2
360 MHz and 2 535‑2 655 MHz
2.5
Satellite broadcasting service in the 12 GHz and 17 GHz range
Annex 6 Studies related to the impact of devices using ultra‑wideband
technology on systems operating within the Earth exploration satellite, space
research service
1 Earth
exploration-satellite service (EESS)
1.1
EESS (active) in the 5 GHz band
1.1.1 Spaceborne altimeter at 5
GHz
1.1.2 Synthetic aperture radar
at 5 GHz
1.1.3 Conclusion for
interference between EESS (active) and UWB
1.2
Earth exploration-satellite
1.2.1 Earth
exploration-satellite, space research and space operation in
2 025-2 110 MHz and 2 200-2 290 MHz frequency
bands
1.2.2 Earth
exploration-satellite (space-to-Earth) in the band 8 025-8 400 MHz
1.3
Description of an EESS (passive) system
1.3.1 Conical scan passive
sensors
1.3.2
Cross track passive sensors
1.4
EESS (passive) except the band 23.6-24 GHz
1.4.1 1 400-1 427 MHz band
1.4.2 Interference study around
6.9 GHz
1.4.3 10.6-10.7 GHz band
1.5
Interference analysis between EESS (passive) and vehicular radar systems
at 24 GHz
1.5.1 Status of the 23.6-24 GHz
frequency band
1.5.2 Use of the band 23.6-24
GHz by EESS
1.5.3 Protection criteria for
EESS (passive)
1.5.4 24 GHz automotive
short-range radars (SRR) characteristics
1.5.5 Interference assessment
1.5.6 Other aspects not
considered in the interference analysis
1.5.7 Summary of interference
studies between EESS and 24 GHz SRR, conclusion
2 Space research
service (including deep space) and space operation service
2.1
Interference analysis in the 2 025-2 110 MHz band
2.2
2 200-2 290 MHz band
2.3
Preliminary conclusion about the bands 2 025-2 110 and
2 200-2 290 MHz
2.4
8 400-8 450 MHz band, SRS (deep space) 690
2.5
Conclusion about the SRS bands
3 Studies related
to the impact of devices using UWB technology on systems operating within the
radio astronomy service
3.1
Impact on the radio astronomy service 692
3.1.1 RAS and UWB in the range 0.6-10.6
GHz
3.1.2 RAS and automotive SRR
around 24 GHz
3.1.3 RAS and automotive SRR
around 79 GHz
Annex 7 Test measurements related to the impact of devices using
ultra-wideband technology on systems operating within radiocommunication
services
1 Test measurements related to the impact on
systems operating within the land mobile services except IMT-2000
1.1
Laboratory test measurements: GSM-based land mobile
1.1.1 Approach
1.1.2 UWB transmitter set-up
1.1.3 Test set-up
1.1.4 GSM (1 800 MHz)
1.1.5 GPRS (1 800 MHz)
1.1.6 OFDM transmitter test
1.2
Field test for 1 device using UWB technology
1.2.1 Approach
1.2.2 Test procedure
1.2.3 Overview of power control
mechanism
1.2.4 Results and findings
1.3
Field tests for 1, 2 and 4 devices using UWB technology
1.3.1 Overview
1.3.2 Results and analysis
2 Test
measurements related to the impact on systems operating within IMT-2000 and
systems beyond IMT-2000
2.1
Experimental data on IMT-DS and UWB impact
2.1.1 Laboratory test
2.1.2
Field test
3 Test measurements related to the impact on
systems operating within wireless access including RLAN 726
3.1
Field measurement of interference to IEEE 802.11a from device using UWB
technology
3.2
Lab measurements of the impact of short-pulse ultra-wideband emissions
on IEEE 802.11a systems
3.2.1 Introduction
3.2.2 Description of setup
3.2.3 UWB transmitter
description
3.2.4 Chariot configuration
3.2.5 Measurement results
(Cellonics)
3.2.6 Measurement results
(multispectral)
3.2.7 Conclusions
4 Test
measurements related to fixed service degradation due to UWB interference
4.1
Introduction
4.1.2 Test background
4.1.3 Test results
Note on possible regulatory framework 743
5 Test
measurements on FSS degradation due to UWB interference
5.1
Measurements
5.1.1 First study on measurements
5.1.2 Second study on
measurement
5.1.3 Third study on
measurement
5.1.4 Impact of UWB
interference on a C-band FSS receiver
5.1.4.3.2.2 Measuring C/I
5.1.4.3.3.3 Use of Reed-Solomon
coding to mitigate impact of low-PRF UWB
6 Experimental
measurement of interference from UWB to satellite digital multimedia
broadcasting
Appendix 1 to Annex 7 Lab measurements of the impact of
short-pulse UWB emissions on IEEE
802.11a systems UWB spectral plots
(Cellonics, PRF = 25 MHz)
Appendix 2 to Annex 7 (Ref: § 7.4) Fixed service receiver
characteristics used for test in § 7.4
1 Spectral
characteristics
2 Other relevant
FS system characteristics
Appendix 3 to Annex 7 (Ref: § 7.5) UWB signals – Additional
information
1 Implementation
overview
2 Signal
parameters used in experiments
3 Spectral plots
Appendix 4 to Annex 7 (Ref: § 7.5) Short-pulse UWB transmitter –
Additional information
1 Summary
2 Signal
parameters used in experiments
3 Spectral plots
Appendix 5 to Annex 7 (Ref: § 7.5) MB-OFDM UWB transmitter –
Additional information
Annex 8 Characteristics and protection criteria
of radiocommunication services
1
Mobile services
1.1
Land mobile services except IMT-2000 780
1.2 Maritime mobile
service
1.3 Aeronautical
service
1.3.1 System characteristics
1.4
Terrestrial IMT-2000 and systems beyond
1.5
Wireless access systems, including radio local area networks (WAS/RLAN),
operating in the mobile service in the bands 5 150-5 250 MHz,
5 250‑5 350 MHz and 5 470‑5 725 MHz
1.6
Amateur and amateur-satellite services
1.6.1 Operational characteristics
1.6.2 Technical characteristics
1.7 Meteorological
radars
2
Fixed service 803
3
Fixed satellite service
4
Mobile satellite service and radionavigation satellite
service
4.1
MSS systems
4.2
Radionavigation satellite services
4.2.1 GPS protection criteria
4.2.2 Galileo protection
criteria
4.2.3 GLONASS protection criteria
4.2.4 RNSS signal
characteristics
4.2.5 RNSS systems parameters
5
Broadcasting 820
5.1
Characteristics
5.2
Interference criteria for broadcasting 821
6
Earth exploration-satellite service and radioastronomy
6.1
Earth exploration-satellite service
6.2
Space research (including deep space) and space operation services
6.3
Radioastronomy