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5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 8.1 Void | |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 8.2 Reference sensitivity level | |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 8.2.1 IAB-DU Reference sensitivity | The IAB-DU conducted reference sensitivity requirement is the same as the BS conducted sensitivity requirement. |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 8.2.2 IAB-MT Reference sensitivity | The IAB-MT uses similar assumptions for antenna architecture and gain as the IAB-DU, it is also assumed that the front end HW is similar and has the same NF.
As such the IAB-MT reference sensitivity will be derived using the same assumptions as the BS. The IAB-MT sensitivity is given by:
Where:
- BW is the maximum tran... |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 8.3 Dynamic range | The IAB-DU receiver dynamic range requirement is the same as the BS.
There is no IAB-MT receiver dynamic range requirement. |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 8.4 In-band selectivity and blocking | For IAB-MT it is agreed to reuse gNB requirement with update on interfering signal type as CP-OFDM. |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 8.5 Out-of-band blocking | Considering the deployment scenario of IAB node, it is agreed to reuse the same gNB requirement for both IAB-MT and IAB-DU. |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 8.6 Receiver spurious emissions | |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 8.6.1 IAB-MT Receiver spurious for IAB type 1-H | To protect the coexisting service, the spurious level generated from receiver should be limited. For example, for the synchronized protected service, this could be the case of protecting IAB-MT receiving from IAB node#1 as shown in Figure 8.6-1. The RX spurious generated from IAB-MT receiver at IAB node #2 will impact ... |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 8.7 Receiver intermodulation | For IAB-MT type 1-H, as IBB requirement is agreed to reuse BS requirements and interfering signal power of RX IMD requirement is close to that of IBB requirements in general, therefore it's agreed to reuse BS RX IMD requirement for IAB-MT. |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 8.8 In-channel selectivity | For IAB-MT, similar as legacy NR UE, there is no RX in-channel selectivity requirement defined in TS 38.101, therefore it is agreed that no in-channel selectivity will be defined for IAB-MT. |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 9 Radiated transmitter characteristics | |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 9.1 General | Radiated transmitter characteristics were defined for IAB-MT and IAB-DU types 1-O and 2-O. Additionally IAB-MT and IAB-DU type 1-H needs to meet the radiated transmit power requirement. IAB-DU type 1-O and type 2-O requirements are the same as defined for NR BS. For IAB-MT type 1-O no minimum number of transceivers hav... |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 9.2 Radiated transmit power | For configured maximum power it was discussed how the UE requirement is adapted to fit the characteristic of IAB-MT. The factors like MPR/A-MPR are included in the UE requirements, but they are not specified for the IAB-MT. Therefore, they do not need to be defined for the IAB-MT PCMAX. Similarly, as IAB-MT Tx power is... |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 9.3 IAB OTA output power | IAB OTA output power is a TRP requirement, defined for a RIB. For IAB-MT and IAB-DU type 1-O, the TRP limits are different for each class. IAB-DU type 1-O limits were defined to be the same as for NR BS. For local area IAB-MT, due to no minimum required number of transmitters, the rated carrier TRP limits can be scaled... |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 9.4 OTA output power dynamics | For IAB-MT to enable the adjustment UL transmission power to maintain proper link level, it is agreed to define 5dB power dynamaic range for Wide Area IAB-MT without corresponding power control requirement. And for Local Area IAB-MT the power dynamic range is agreed as 10dB with relative and aggregated power tolerance ... |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 9.5 OTA transmit ON/OFF power | According to the analysis in 7.4, both IAB-DU and IAB-MT reuse BS radiated ON/OFF power requirements including the OFF power and transient period. |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 9.6 OTA transmitted signal quality | |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 9.6.1 IAB-DU OTA transmitted signal quality | As the IAB-DU behavior is very similar with BS, all of the transmitted signal quality requirements can be imported from BS. Therefore, the frequency error, modulation quality and time alignment error requirements in clause 9.6.1, 9.6.2 and 9.6.3 for BS type 1-O and type 2-O in TS 38.104 [2] apply to IAB-DU type 1-O an... |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 9.6.2 IAB-MT OTA transmitted signal quality | |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 9.6.2.1 Frequency error | IAB-MT OTA transmitted signal quality requirement analysis is the same as the conducted requirements in 7.5.2.1. The IAB-MT frequency must be within a certain error limit relative to of the parent node's center frequency. IAB-MT type 1-O and type 2-O OTA frequency error reuses UE requirements to be +/-0.1 PPM relative... |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 9.6.2.2 Error Vector Magnitude | IAB-MT OTA EVM requirement analysis is the same as the conducted requirement in 7.5.2.2. IAB-MT type1-O EVM requirements should be the same with conducted requirements. IAB-MT type2-O EVM requirement reuses UE FR2 EVM requirements with the exception that BPSK requirement is removed. The IAB-MT frequency must be within ... |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 9.7 OTA unwanted emissions | OTA Unwanted emissions cover the definitions and requirements for OOB boundary, occupied bandwidth, ACLR including also absolute ACLR, OBUE, and spurious emissions.
For IAB-DU all unwanted emissions requirements, except for the protection of the BS receiver of own or different BS, are the same as specified for NR BS. T... |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 9.8 OTA transmitter intermodulation | |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 9.8.1 IAB DU intermodulation | For FR1 the IAB node could be co-located if the IAB TDD pattern for transmission and receiving is the same for both IAB-DU and IAB-MT of both co-located nodes, i.e. just coordinating the UL/DL timeslots is not sufficient but the actual Tx and Rx time instants of both IAB-DU and IAB-MT need to be aligned. IAB DU intermo... |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 9.8.2 IAB MT intermodulation | The co-location scenario of IAB is listed below as:
- co-located with another IAB-Node in same band
This scenario shall be further considered as if the IAB-DU and IAB-MT of one IAB-Node don't transmit simultaneously, there will exist the scenario that during UL timeslot one is transmitting in the backhaul link and the ... |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 9.9 Beam correspondence for IAB-MT | For IAB-MT, it is agreed no explicitly RF core requirement will be defined for beam correspondence. |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 10 Radiated receiver characteristics | |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 10.1 Void | |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 10.2 OTA sensitivity | |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 10.2.1 IAB-DU OTA sensitivity | The IAB-DU OTA sensitivity for IAB-DU type 1-H and 1-O is the same as the BS.
There is no OTA sensitivity requirement for IAB-DU type 2-O. |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 10.2.2 IAB-MT OTA sensitivity | As with the conducted reference sensitivity requirements as the IAB-MT antenna and receiver front end is similar to the BS the BS OTA sensitivity requirement is derived using the same assumptions as the BS.
The FR1 OTA sensitivity requirement is declared over a declared RoAoA without any boundaries and is used as both ... |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 10.3 OTA reference sensitivity level | |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 10.3.1 IAB-DU OTA reference sensitivity | The IAB-DU OTA sensitivity for IAB-DU type 1-H, 2-O and 2-O is the same as the BS. |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 10.3.2 IAB-MT OTA reference sensitivity | |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 10.3.2.2 FR1 | The IAB-MT antenna and front end is similar to that of a BS so the OTA reference sensitivity requirements will be based upon the same assumptions as the BS. As with the other IAB-MT sensitivity requirements however the FRC's and the associated SNR requirement will be taken from the UE. The UE FRC's will be of the same ... |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 10.3.2.1 FR2 | The FR2 IAB-MT antenna and front end is similar to that of a BS so the OTA reference sensitivity requirements will be based upon the same assumptions as the BS.The BS FR2 OTA reference sensitivity level is based on a declared EIS value within a specified range, the range is calculated based on the useful range of anten... |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 10.4 OTA Dynamic range | The IAB-DU receiver dynamic range requirement is the same as the BS.
There is no IAB-MT receiver dynamic range requirement. |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 10.5 OTA in-band selectivity and blocking | |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 10.5.1 ACS for IAB MT of IAB type 2-O | The ACS requirement for IAB-MT is agreed as 24 dB in 24.25 – 33.4 GHz BS and 23 dB in 37 – 52.6 GHz. IAB-MT is expected to have better adjacent carrier selectivity than UE ACS due to the limited physical separation distance to the aggressor BS. Generically BS has higher ACS selectivity compared to UE thus BS type of AC... |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 10.5.2 In-band blocking for IAB-MT | Traditionally for UTRA the in-band blocker is set according to the 99.99% probability of interferer cdf curve. It is recommended in [7] that between 99% and 99.9% could be considered due to the NR OFDMA scheme does not suffer greatly as for WCDMA.
As the interfere level to IAB-MT receiver relates to the distance betwee... |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 10.6 OTA Out-of-band blocking | Considereing the deployment scenario of IAB node, it is agreed to reuse the same gNB requirement for both IAB-MT and IAB-DU. |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 10.7 OTA receiver spurious emissions | |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 10.7.1 IAB-MT OTA Receiver spurious for IAB type 1-O and 2-O | The UE receiver spurious requirement can be relaxed as the distance to the protected service will be increased and this follows the same analysis in chapter 8.6.1. For protecting unsynchronized coexisting service, IAB-MT OTA spurious level does not need to be tighter than IAB-DU receiver requirement and as such the BS ... |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 10.8 OTA receiver intermodulation | For IAB-MT type 2-O, similar as legacy FR2 NR UE, there is no RX intermodulation requirement defined in TS 38.101-2[4], therefore it is agreed that no RX intermodulation is defined for FR2 IAB-MT.
For IAB-MT type 1-O similar as IAB-MT type 1-H, as IBB requirement is agreed to reuse BS requirements and interfering signa... |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 10.9 OTA in-channel selectivity | For IAB-MT, similar as legacy NR UE, there is no RX in-channel selectivity requirement defined in TS 38.101-1/2[3][4], therefore it is agreed that no in-channel selectivity will be defined for IAB-MT. |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 11 IAB RRM requirements | |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 11.1 General | In Rel-16, the WI on IAB is considered for physically fixed deployment only. In light of the characteristic of Rel-16 IAB (e.g. fixed operation) and the differences between UE and IAB-MT (e.g. power saving consideration and seeking for higher throughput), selected RRM requirements in TS 38.133 are considered fundamenta... |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 12 IAB EMC requirements | |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 12.1 IAB EMC Emission requirements | EMC emissions testing covers both conducted and radiated emissions. . Test methods and levels for conducted emissions, harmonic and voltage fluctuations and flicker testing defined by IEC/CISPR are independent of the product (IAB) characteristics and features, including the operating frequency or the Radio Access Tech... |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 12.2 IAB EMC immunity requirements | |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 12.2.1 Radiated Immunity requirements | |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 12.2.1.1 One enclosure case | The IAB node is a network node with similar outside radio frequency electromagnetic environment as base station. So in this case, it is reasonable to apply base station test levels to the IAB node. |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 12.2.1.2 Different enclosure case | For different enclosure cases, the radiated immunity requirement apply for each enclosure. Still the test level as reusing the base station requirement applies as the electromagnetic environment is similar to BS. |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 12.2.1.4 Summary | The base station requirement as 3V/m from 80MHz to 6000MHz is used as a starting point and the exclusion band for Radiated immunity test is FFS. |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 12.2.2 Other Immunity requirements | It is agreed that similar working environment as for a base station applies to an IAB node. So it is agreed to reuse the BS requirements for IAB node, for the following immunity requirements as listed below.
- ESD test
- Fast transient common mode
- RF common mode 0.15 – 80 MHz
- Voltage dips and interruption
- Surge |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 13 Conformance testing aspects | |
5d80416bb8e462e97be7acb8f332ff7e | 38.809 | 13.1 General | BS conformance testing framework is reused mainly for IAB conformance testing in [13][14] with necessary modifications as summaried in Table 13.1-1.
Table 13.1-1: Summary on IAB conformance testing
Items
Summary
Test configuration
Existing BS Test configuration is reused for IAB with update on FR1 channel bandwidth as ... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 1 Scope | The present document contains definitions of reference conditions and test signals, default parameters, reference radio bearer configurations used in radio bearer interoperability testing, common radio bearer configurations for other test purposes, common requirements for test equipment and generic set-up procedures fo... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 2 References | The following documents contain provisions which, through reference in this text, constitute provisions of the present document.
• References are either specific (identified by date of publication, edition number, version number, etc.) or non‑specific.
• For a specific reference, subsequent revisions do not apply.
• Fo... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 3 Definitions, abbreviations and symbols | |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 3.1 Definitions | For the purposes of the present document, the terms and definitions given in 3GPP TR 21.905 [9], 3GPP TR 25.990 [10] and the following apply:
maximum average power: average transmitter output power obtained over any specified time interval, including periods with no transmission, when the transmit time slots are at the... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 3.2 Abbreviations | For the purposes of the present document, the abbreviations given in 3GPP TR 21.905 [9], 3GPP TR 25.990 [10] and the following apply:
4C-HSDPA Four-Carrier HSDPA. HSDPA operation configured on 3 or 4 DL carriers
AFC Automatic Frequency Control
A-GPS Assisted - Global Positioning System
AM Acknowledgement Mode
ATT ATTen... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 3.3 Symbols | For the purposes of the present document, the following symbols apply:
Ioc The power spectral density of a band limited white noise source (simulating interference from other cells) as measured at the UE antenna connector. |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 4 Common requirements of test equipment | Mobile conformance testing can be categorized into 3 distinct areas:
• RF Conformance Testing.
• EMC Conformance Testing.
• Signalling Conformance Testing.
The test equipment required for each category of testing may or not be different, depending on the supplier of the test equipment. However, there will be some gener... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 4.1 General Functional Requirements | NOTE: This clause has been written such that it does not constrain the implementation of different architectures and designs of test equipment.
All test equipment used to perform conformance testing on a UE shall provide a platform suitable for testing UE's that are either:
a) FDD Mode; or
b) TDD Mode; or
c) both FDD/T... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 4.2 Minimum performance levels | |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 4.2.1 Supported Cell Configuration | The System Simulator shall provide the capability to simulate a minimum number of cells (of the appropriate UTRA Mode) whose number and capabilities are governed by the test cases that need to be performed (test cases are defined in 3GPP TS 34.123-1 [1] (Signalling), 3GPP TS 34.121 [2] (RF-FDD) and 3GPP TS 34.122 [5] (... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 4.2.1.1 Supported Channels for FDD Mode | |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 4.2.1.1.1 Logical channels | Logical channel
Minimum number
Comments
BCCH
1
CCCH
1
DCCH
4
2 for RRC testing, 2 for NAS testing
PCCH
1
DTCH
n <FFS>
Depending on SS's support for RB service testing (See clause 14 of 3GPP TS 34.123-1 [1]) |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 4.2.1.1.2 Transport channels | Transport channel
Minimum number
Comments
BCH
1
FACH
1
PCH
1
DCH
n <FFS>
DSCH
1
Release 99 and Release 4 only.
RACH
2
CPCH
1
Release 99 and Release 4 only.
FAUSCH
N/A
Not in Release 1999 |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 4.2.1.1.3 Physical channels | Physical channel
Minimum number
Comments
P-CCPCH
1
Primary Common Control Physical channel. This is used by the Cell to Broadcast System Information messages; it is transmitted using the Primary Scrambling Code for the Cell.
P-CPICH
1
Primary Common Pilot Channel using the Primary Scrambling Code for the Cell.
S-CPICH
... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 4.2.1.2 Supported Channels for TDD Mode | |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 4.2.1.2.1 Logical channels | Logical channel
Minimum number
Comments
Control channels
BCCH
1
Broadcast Control Channel: DL channel for broadcasting system control information.
CCCH
1
Common Control Channel: Bi-directional channel for transmitting control information between network and UEs. This channel is commonly used by the UEs having no RRC co... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 4.2.1.2.2 Transport channels | Transport channel
Minimum number
Comments
BCH
1
Broadcast Channel: DL channel used to broadcast system and cell-specific information.
FACH
1
Forward Access Channel: DL channel used to carry control information to a mobile station when the system knows the location cell of the mobile station (may also carry short user p... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 4.2.1.2.3 Physical channels (3.84 Mcps option) | Physical channel
Minimum number
Comments
P-CCPCH
1
Primary Common Control Physical channel. . The BCH as described in clause 4.2.1 is mapped onto the P-CCPCH. The position (time slot / code) of the P-CCPCH is known from PSCH.
SCH
1
Synchronization Channel. Code group of a cell can be derived from the synchronization ch... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 4.2.1.2.4 Physical channels (1.28 Mcps option) | Physical channel
Minimum number
Comments
P-CCPCH
2
Primary Common Control Physical channel. The BCH as described in clause 4.2.1 is mapped onto the P‑CCPCH1 and P-CCPCH2. The position (time slot / code) of the P-CCPCHs is fixed in the 1.28 Mcps TDD. The P-CCPCHs are mapped onto the first two code channels of timeslot#0... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 4.2.1.3 Support of Tcell timing offset | In test case parameter declarations, the parameter Tcell may be specified between 0 to 38 399, to allow for extensibility. However, the system simulator is required only to support a maximum Tcell value of 2 304, with a step resolution of 256. The SS may limit a Tcell value of greater than 2 304, and may round Tcell to... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 4.2.2 RF Performance | |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 4.2.2.1 Frequency of Operation | The System Simulator shall be capable of adjusting the Carrier Frequency of the DL channels to any frequency allowed in the DL frequency band. The DL frequency shall be accurate to the level of accuracy set by the core specifications 3GPP TS 25.104 [20] for FDD and 3GPP TS 25.105 [21] for TDD.
For RF tests, the require... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 4.2.2.2 Power Level Setting Accuracy | The system simulator shall be able to adjust the average power output of the DL Channels to meet the absolute accuracy of the system simulator DL power levels covered in clause 5.4.1 Downlink Signal Levels.
For RF tests, the requirement of Test Equipment is described in 3GPP TS 34.121 [2] annex F for FDD and 3GPP TS 34... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 4.2.2.3 Uplink Power Control | The system simulator shall be able to command the UE to transmit at the maximum level for its power class or a lower level required for specific tests. The system simulator shall also provide the capability of generating the Layer 1 Signalling information to set the power levels of the Uplink Dedicated Channels from th... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 4.2.2.4 Uplink Signal Handling | For FDD mode, the System Simulator shall not be damaged by a Power Class 1 UE transmitting at the maximum power level permitted in 3GPP TS 25.101 [11] and for TDD mode by a Power Class 2 UE transmitting at the maximum power level permitted in 3GPP TS 25.102 [12]. |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 4.2.2.5 Uplink Sensitivity | The simulator shall be able to receive uplink transmissions from the UE when it is transmitting at the minimum power level defined in 3GPP TS 25.101 [11] for FDD mode, and 3GPP TS 25.102 [12] for TDD mode.
Editor's note: this is obviously a useful feature for the system simulator; however it is <ffs> if it should be an... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 4.2.3 Timers Tolerances | All the timers used during testing are within a tolerance margin given by the equation below. If for a specific test a different tolerance value is required then this should be specified in the relevant test document (i.e. the document where the test is described).
Timer tolerance = 10%, or 2 TTI + tdelta, whichever ... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 5 Reference test conditions | |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 5.1 Test frequencies | The test frequencies are based the UMTS frequency bands defined in the core specifications.
To avoid interference with adjacent frequency bands the lowest test frequency (downlink and uplink) needs to be offset upwardly by at least 2.6 MHz since the channel's width is 5 MHz for FDD and 3.84 Mcps TDD option, and 0.8 MHz... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 5.1.1 FDD Mode Test frequencies | UTRA/FDD is designed to operate in one or more paired bands specified in 3GPP TS 25.101 [11]. The reference test frequencies for the common test environment for each operating bands are defined in the following tables.
In DC-HSDPA mode UE receives two cells simultaneously, the serving HS-DSCH cell and the secondary ser... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 5.1.1.1 FDD reference test frequencies for Operating Band I | Test Frequency ID
UARFCN
Frequency of Uplink
UARFCN
Frequency of Downlink
Low Range
9613
1922.6 MHz
10563
2112.6 MHz
Mid Range
9750
1950.0 MHz
10700
2140.0 MHz
High Range
9887
1977.4 MHz
10837
2167.4 MHz
For DC-HSDPA mode:
Test Frequency ID
HS-DSCH Cell
UARFCN
Frequency of Uplink
UARFCN
Frequency of Downlink
Low Range
... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 5.1.1.2 FDD reference test frequencies for Operating Band II | Test Frequency ID
UARFCN
Frequency of Uplink
UARFCN
Frequency of Downlink
Low Range
9263
1852.6 MHz
9663
1932.6 MHz
Mid Range
9400
1880.0 MHz
9800
1960.0 MHz
High Range
9537
1907.4 MHz
9937
1987.4 MHz
For DC-HSDPA mode:
Test Frequency ID
HS-DSCH Cell
UARFCN
Frequency of Uplink
UARFCN
Frequency of Downlink
Low Range
Ser... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 5.1.1.3 FDD reference test frequencies for Operating Band III | Test Frequency ID
UARFCN
Frequency of Uplink
UARFCN
Frequency of Downlink
Low Range
938
1712.6 MHz
1163
1807.6 MHz
Mid Range
1112
1747.4 MHz
1337
1842.4 MHz
High Range
1287
1782.4 MHz
1512
1877.4 MHz
For DC-HSDPA mode:
Test Frequency ID
HS-DSCH Cell
UARFCN
Frequency of Uplink
UARFCN
Frequency of Downlink
Low Range
Serv... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 5.1.1.4 FDD reference test frequencies for Operating Band IV | Test Frequency ID
UARFCN
Frequency of Uplink
UARFCN
Frequency of Downlink
Low Range
1313
1712.6 MHz
1538
2112.6 MHz
Mid Range
1450
1740.0 MHz
1675
2140.0 MHz
High Range
1512
1752.4 MHz
1737
2152.4 MHz
For DC-HSDPA mode:
Test Frequency ID
HS-DSCH Cell
UARFCN
Frequency of Uplink
UARFCN
Frequency of Downlink
Low Range
Ser... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 5.1.1.5 FDD reference test frequencies for Operating Band V | Test Frequency ID
UARFCN
Frequency of Uplink
UARFCN
Frequency of Downlink
Low Range
4133
826.6 MHz
4358
871.6 MHz
Mid Range
4175
835.0 MHz
4400
880.0 MHz
High Range
4232
846.4 MHz
4457
891.4 MHz
For DC-HSDPA mode:
Test Frequency ID
HS-DSCH Cell
UARFCN
Frequency of Uplink
UARFCN
Frequency of Downlink
Low Range
Serving C... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 5.1.1.6 FDD reference test frequencies for Operating Band VI | Test Frequency ID
UARFCN
Frequency of Uplink
UARFCN
Frequency of Downlink
Low Range
812
832.5 MHz
1037
877.5 MHz
Mid Range
4175
835.0 MHz
4400
880.0 MHz
High Range
837
837.5 MHz
1062
882.5 MHz
For DC-HSDPA mode:
Test Frequency ID
HS-DSCH Cell
UARFCN
Frequency of Uplink
UARFCN
Frequency of Downlink
Low Range
Serving Cel... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 5.1.1.7 FDD reference test frequencies for Operating Band VII | Test Frequency ID
UARFCN
Frequency of Uplink
UARFCN
Frequency of Downlink
Low Range
2013
2502.6 MHz
2238
2622.6 MHz
Mid Range
2175
2535.0 MHz
2400
2655.0 MHz
High Range
2337
2567.4 MHz
2562
2687.4 MHz
For DC-HSDPA mode:
Test Frequency ID
HS-DSCH Cell
UARFCN
Frequency of Uplink
UARFCN
Frequency of Downlink
Low Range
Ser... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 5.1.1.8 FDD reference test frequencies for Operating Band VIII | Test Frequency ID
UARFCN
Frequency of Uplink
UARFCN
Frequency of Downlink
Low Range
2713
882.6 MHz
2938
927.6 MHz
Mid Range
2788
897.6 MHz
3013
942.6 MHz
High Range
2862
912.4 MHz
3087
957.4 MHz
For DC-HSDPA mode:
Test Frequency ID
HS-DSCH Cell
UARFCN
Frequency of Uplink
UARFCN
Frequency of Downlink
Low Range
Serving C... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 5.1.1.9 FDD reference test frequencies for Operating Band IX | Test Frequency ID
UARFCN
Frequency of Uplink
UARFCN
Frequency of Downlink
Low Range
8 762
1752.4 MHz
9 237
1847.4 MHz
Mid Range
8 837
1767.4MHz
9 312
1862.4 MHz
High Range
8 912
1782.4 MHz
9 387
1877.4 MHz
For DC-HSDPA mode:
Test Frequency ID
HS-DSCH Cell
UARFCN
Frequency of Uplink
UARFCN
Frequency of Downlink
Low Rang... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 5.1.1.10 FDD reference test frequencies for Operating Band X | Test Frequency ID
UARFCN
Frequency of Uplink
UARFCN
Frequency of Downlink
Low Range
2888
1712.6 MHz
3113
2112.6 MHz
Mid Range
3025
1740.0 MHz
3250
2140.0 MHz
High Range
3162
1767.4 MHz
3387
2167.4 MHz
For DC-HSDPA mode:
Test Frequency ID
HS-DSCH Cell
UARFCN
Frequency of Uplink
UARFCN
Frequency of Downlink
Low Range
Ser... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 5.1.1.11 FDD reference test frequencies for Operating Band XI | Test Frequency ID
UARFCN
Frequency of Uplink
UARFCN
Frequency of Downlink
Low Range
3487
1430.4 MHz
3712
1478.4 MHz
Mid Range
3525
1438.0 MHz
3750
1486.0MHz
High Range
3562
1445.4 MHz
3787
1493.4MHz
For DC-HSDPA mode:
Test Frequency ID
HS-DSCH Cell
UARFCN
Frequency of Uplink
UARFCN
Frequency of Downlink
Low Range
Servi... |
3a85e454e39f475ca4cc8cf8d274b2b4 | 34.108 | 5.1.1.12 FDD reference test frequencies for Operating Band XII | Test Frequency ID
UARFCN
Frequency of Uplink
UARFCN
Frequency of Downlink
Low Range
3618
701.6 MHz
3843
731.6 MHz
Mid Range
3645
707.0 MHz
3870
737.0 MHz
High Range
3677
713.4 MHz
3902
743.4 MHz
For DC-HSDPA mode:
Test Frequency ID
HS-DSCH Cell
UARFCN
Frequency of Uplink
UARFCN
Frequency of Downlink
Low Range
Serving C... |
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