In
FDD Test
(frequency division duplex)
Operating Mode
, the test set does not send any signalling
information on the downlink. Any changes to the UE configuration,
such as channel, loopback type, or dedicated physical channel
(DPCH) scrambling code, must be accomplished by directly sending
commands to the UE from a system controller (usually a personal
computer) through a proprietary digital interface.
Upon entry into test mode, the test set begins continuously transmitting a downlink signal which consists of a dedicated physical channel (DPCH) configured as the specified symmetrical reference measurement channel (see Symmetrical RMCs ) and several overhead channels required to allow the UE to synchronize to the test set and decode transmitted data (see Downlink and Uplink Channels Overview ). When HSDPA is active ( for lab applications and feature-licensed test applications only ), the test set also transmits up to 5 HS-PDSCHs (as determined by the FDD Test "FRC Type" setting) and up to 4 HS-SCCHs (see HSDPA in FDD Test Operating Mode ).
The UE must synchronize to the transmitted downlink channels and transmit the proper corresponding uplink signal(s). The UE's performance can then be measured using the suite of measurements available in the test set. To emulate interference from other cells or users, two noise sources (OCNS and AWGN) can be added as desired.
The following
example selects FDD Test
operating
mode via GPIB:
OUTPUT 714;"CALL:OPERating:MODE FDDT"
The following test set controls must match your UE configuration to allow it to synchronize to the test set's downlink signal and transmit an uplink signal that the test set can receive and measure:
Cell Power - The power level out of the test set must be high enough for the UE to receive the downlink signal and decode the data.
Channel Type - The UE
must support Symmetrical RMCs . The UE
must be configured to transmit the RMC to which
Channel Type
is set.
Uplink DPCH Scrambling Code - You must set this to the scrambling code the UE is using to transmit its uplink signal. This setting tells the test set which scrambling code to use to decode the uplink signal from the UE.
RF Gen Freq Ctrl
The RF Gen Freq Ctrl
setting is
only applicable to the FDD Test
operating mode. When changing between operating modes,
the RF Gen Freq Ctrl
setting
is returned to its default value of
Auto
.
GPIB command: CALL[:CELL]:CONTrol:DOWNlink:FREQuency:AUTO .
Manual operation: F11 on the
Call Parms 3 of 3
menu.
The UE must
be set to receive the downlink signal on the proper frequency.
You can set the downlink frequency manually or automatically,
depending upon the RF Gen Freq
Ctrl
setting.
RF Gen Freq Ctrl
is set to
Auto
, the downlink frequency is determined by
the DL Channel setting.RF
Gen Freq
When RF Gen Freq Ctrl
is set
to Manual
, the downlink
frequency is determined by the
RF Gen Freq
setting. The
RF Gen Freq
setting is only applicable to FDD Test
operating mode
and CW
Operating Mode (in CW
operating mode, generator frequency control is
always manual).
GPIB command: CALL[:CELL]:RFGenerator:FREQuency .
Manual
operation: F7 under
Channel (UARFCN) Parms
( F12
on the Call Parms 1 of
3
menu).
Uplink Frequency / Uplink Channel - You must indicate at what frequency the UE is transmitting. You can specify the uplink frequency or uplink channel.
Measurement Frequency - You must indicate at what frequency the test set should perform measurements. You can specify this frequency manually, or automatically set the measurement frequency to match the Uplink Channel setting.
Downlink Channel Codes - The UE must be set to expect the following code settings from the test set on the downlink:
Shared
DL Channel Codes
: Primary Scrambling
Code - This value must match the downlink scrambling
code the UE expects in order for the UE to decode the
downlink channels and synchronize to the test set.Shared DL Channel Codes
: PICH Channelization Code - You
can not perform the Paging procedure while in FDD test
operating mode, but you may choose to send DL PICH Data on the PICH. If so, you
must specify the PICH channelization code the UE expects.WCDMA DL Channel Codes
:
DPCH channelization code - This value must match the DPCH
channelization code the UE expects.You can set the DPCH Frame Offset to 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10 x 256 chips (see Current DPCH Offset for more information about DPCH Frame Offset). Note, you must then also set this DPCH Frame Offset in the UE so that it can successfully decode the test set's signal; the test set does not provide any signalling to the UE in FDD test operating mode and thus will not signal the DPCH Frame Offset setting to the UE.
GPIB command: CALL:FDDTest:DPCHannel:FOFFset
Power Control / Manual Power / UE Target Power - You must indicate the power level at which the UE is expected to transmit, so the test set can properly range its receivers.
UE Loopback Type - When
performing receiver tests, you must set
UE Loopback Type
to the loopback type the UE is set
to use (the test set does not signal the loopback type to
the UE).
UL CL Power Ctrl Parameters
See Uplink Closed Loop Power Control Parameters and UE Target Power .
FDD Test UL CL Power Ctrl Mode
If you
set FDD Test UL CL Power
Ctrl Mode
to Active
bits
, be sure to set FDD Test
UL CL Power Ctrl Algorithm and FDD
Test UL CL Power Ctrl Stepsize to the values being
used by the UE, so that the test set can successfully
drive the UE's power to the UE Target
Power setting. The test set does not signal the power
control algorithm or step size to the UE. Also, if Uplink
DPCH Bc/Bd Control is set to
Manual
, ensure that Manual Uplink
DPCH Bc and Manual Uplink DPCH Bd
are set to match your UE's operation.
GPIB command: CALL:FDDTest:CLPControl:UPLink:MODE .
FDD
Test UL CL Power Ctrl Algorithm
GPIB command: CALL:FDDTest:CLPControl:UPLink:ALGorithm .
FDD
Test UL CL Power Ctrl Stepsize
GPIB command: CALL:FDDTest:CLPControl:UPLink:STEPsize .
Uplink Parameters
- Ensure that Bc and Bd are set to match your UE's configuration.
This setting
is only applicable to FDD Test
Operating Mode
.
You must
indicate what value the test set should transmit in the TFCI
field (see 3GPP TS 25.331 10.3.5.16). You can set
DL TFCI Pattern
to any value between
000
and 3FF
(0
to 1023). You must set DL TFCI
Pattern
to the value that corresponds to the RMC Transport
Format Combination in the Transport Combination Set (TFCS)
you've provided to the UE.
GPIB command: CALL:FDDTest:TFCIndicator .
This setting
is only applicable to FDD Test
Operating Mode
.
When Uplink TFCI Control
is set
to Auto
, the test set
uses the TFCI value sent by the UE on the DPCCH. The test
set uses the standard RMC TFCI table to interpret the received
TFCI:
When Uplink
TFCI Control is set to Manual
, the test set ignores the TFCI value sent by the UE and uses
the value specified by the Manual Uplink
TFCI setting.
GPIB command: CALL:FDDTest:UPLink:TFCIndicator:CONTrol:AUTO
Manual operation: Uplink Parameters
(F4) on the Call Control 2 of 2
menu.
This setting
is only applicable to FDD Test
Operating Mode
.
When Uplink TFCI Control is set to
Manual
, this setting determines whether the test set
expects just the DTCH ( DTCH
Only
) or the DTCH plus DCCH (
DTCH + DCCH
) on the uplink DPCH.
GPIB command: CALL:FDDTest:UPLink:TFCIndicator:MANual
Manual operation: Uplink Parameters
(F4) on the Call Control 2 of 2
menu.
DL PICH Data
This setting
is only applicable to FDD Test
Operating Mode
.
The paging indicator channel can be set to transmit either all zeroes or all ones.
GPIB command: CALL:FDDTest:PICHannel:DATA .
WCDMA
DL Channel Levels
FDD
Test CPICH Level
GPIB command: CALL:FDDTest:CPIChannel[:SLEVel] .
FDD Test P-CCPCH/SCH Level
GPIB command: CALL:FDDTest:CCPChannel:PRIMary[:SLEVel] .
FDD Test PICH Level
GPIB command: CALL:FDDTest:PICHannel[:SLEVel] .
FDD Test DPCH Level
GPIB command: CALL:FDDTest:DPCHannel[:SLEVel] .
FDD Test Antenna 2 P-CPICH
Level
GPIB command: CALL:FDDTest:ANTenna2:CPIChannel[:SLEVel]:HSDPa CALL:FDDTest:ANTenna2:CPIChannel[:SLEVel]:HSPA .
FDD Test Antenna 2 S-CPICH
Level
GPIB command: CALL:FDDTest:ANTenna2:CPIChannel:SECondary[:SLEVel]:HSDPa CALL:FDDTest:ANTenna2:CPIChannel:SECondary[:SLEVel]:HSPA .
Compressed Mode (lab application only) - see Compressed Mode Operation While in FDD Test Operating Mode .
The test set can perform loopback bit error ratio (BER) measurements if the UE provides a loopback mode that conforms to 3GPP TS 34.109, section 5.3.2.6.2, Loopback of RLC SDUs . Additionally, the uplink DPDCH transport format must be set so both the dedicated traffic channel (DTCH) and dedicated control channel (DCCH) are present (however, the test set will ignore the contents of the DCCH so the actual content of this channel is not relevant).
When the test set and the UE are synchronized, the UE uplink frame starts 1024 chips after the receiving the corresponding downlink frame. Measurements that require synchronization will not trigger correctly (or at all) if this timing relationship does not exist.
In FDD Test operating mode, the test set does not negotiate with the UE to set up a call, or provide any other form of interactive control of the UE (other than uplink closed loop power control, see UL CL Power Ctrl Parameters ). You can select the transport format indication (TFCI) pattern sent to the UE on the downlink, but the test set does not assume or verify that the UE responded. The test set ignores transport format combination indicator (TFCI) and transmit power control (TPC) bits sent on the uplink.
This section is only applicable to the lab application or feature-licensed test application.
In
FDD Test
operating mode, HSDPA is active when
Channel Type
is set to 12.2k
RMC + HSDPA
.
When HSDPA is active, in addition to the 12.2k RMC and common channels, the test set transmits up to 5 HS-PDSCHs (as determined by the FDD Test "FRC Type" or FDDT "User Defined Number of Active HS-PDSCHs" settings) and up to 4 HS-SCCHs. The test set also generates a six-channel OCNS as specified by 3GPP TS 34.121 sE.5.2 (codes 122 - 127, spreading factor 128), rather than the OCNS defined in sE.3.6 (see OCNS in HSDPA/HSPA ).
When HSDPA is active, the test set expects the UE to transmit a 12.2k RMC as well as an HS-DPCCH that contains ACK/NACK information corresponding to the downlink HS-PDSCH data. The HSDPA Information window displays counters to help you monitor the HSDPA connection status. Note, the test set expects an uplink DPCCH to be present when an uplink HS-DPCCH is transmitted (otherwise the HS-DPCCH can not be decoded as there are no pilot bits in the HS-DPCCH).
In
FDD Test
operating mode, the test set does not signal the Ack-Nack Repetition Factor
to the
UE, you must set the value manually in the UE. To ensure valid
HSDPA BLER results, you must ensure that the minimum inter-TTI
of the active HSDPA channel is greater than or equal to 2 ms * Ack-Nack Repetition Factor
(so
that there is sufficient space on the uplink for the ACK/NACK
repeats to be transmitted). See Ack-Nack Repetition
Factor for more information about this requirement.
In
FDD Test
operating mode, the test set does not signal the CQI Feedback Cycle (k)
or CQI Repetition Factor
to the UE,
you must set the values manually in the UE. To ensure a valid
Median
CQI result, you must ensure that
CQI Feedback Cycle (k)
is greater than or equal to CQI Repetition Factor
* 2ms (so
that there are no collisions between new and repeated CQI information).
See CQI
Transmission Settings for more information about this requirement.
The following diagram illustrates the HSDPA FDD test mode configuration in the test set, as well as the expected channels from the UE:
To test HSDPA UEs in FDD test mode, you must synchronize the UE and test set as described in Synchronizing the UE to the Test Set's Downlink to Make Measurements .
Additionally, you must consider the following:
Channel
Type
must be set to 12.2k
RMC + HSDPA
( CALL:SERVice:RBTest:RAB
).
You must ensure that you have properly configured
the HSDPA Parameters
( F10 on the
HSPA Parameters
menu):
GPIB command: CALL:FDDTest:HSDSchannel:CONFig[:TYPE]
GPIB command: CALL:FDDTest:FRC:TYPE .
GPIB command: CALL:FDDTest:HSDSchannel:UDEFined:DCHSdpa[:STATe]
When
the FDD Test HS-DSCH Configuration
Type
is set to User
Defined
, and the FDD Test HS-DSCH MAC Entity is
MAC-ehs
, this setting
controls whether to configure the MIMO or not in the serving
cell when operating in the FDD Test Mode.
GPIB command: CALL:FDDTest:HSDSchannel:UDEFined:MIMO[:STATe]
GPIB command: CALL:FDDTest:HSDSchannel:MIMO:TBLock:COUNt
When
Current MIMO Configuration
State
is set to Active
, this setting specifies how the test set determines its
downlink primary precoding weight in FDD Test Mode FRC
configuration type.
Static
, FDD
Test Static Primary Precoding Weight is used as
the primary precoding weight.34.121-1
s9.2.4
, the downlink primary precoding weight
will be determined as per the specification in the
3GPP TS 34.121-1 section 9.2.4 (TTI basis).GPIB command: CALL:FDDTest:FRC:MIMO:PPWeight:CONFig
When
Current MIMO Configuration
State
is set to Active
and FDD
Test Primary Precoding Weight is set to Static
, this setting specifies the downlink primary precoding
weight in FDD Test Mode.
GPIB command: CALL:FDDTest:HSDSchannel:MIMO:PPWeight[:STATic]
GPIB command: CALL:FDDTest:HSDSchannel:MIMO:NMRatio
GPIB Command: CALL:FDDTest:HSDSchannel:UDEFined:MAC
GPIB Command: CALL:FDDTest:HSDSchannel:UDEFined:QAM64:STATe
GPIB Command: CALL:FDDTest:HSDSchannel:UDEFined:MACEHS:TBSTable:ALIGnment
GPIB command: CALL:FDDTest:HSDSchannel:UDEFined:HSPDschannel:COUNt
GPIB command: CALL:FDDTest:HSDSchannel:UDEFined:TBSize:INDex
GPIB command: CALL:FDDTest:HSDSchannel:UDEFined:MODulation[:TYPE]
GPIB command: CALL:FDDTest:HSDSchannel:UDEFined:STBSize:INDex
GPIB command: CALL:FDDTest:HSDSchannel:UDEFined:STBLock:MODulation[:TYPE]
GPIB command: CALL:FDDTest:HSDSchannel:UDEFined:ITTI[:INTerval]
GPIB command: CALL:FDDTest:HSDSchannel:UDEFined:HARQ:PROCess:COUNt
Sets
the number of HARQ processes that are active in the MAC-ehs
layer when FDD Test HSDPA MIMO State
is set to On
.
GPIB command: CALL:FDDTest:HSDSchannel:UDEFined:MIMO:HARQ:PROCess:COUNt
FDD
Test User Defined UE IR Buffer Allocation
Controls how the IR buffer size for each active HARQ process is determined.
When FDD Test User Defined UE IR Buffer
Allocation
is set to
Implicit
, the total IR buffer size for the FDD
Test UE HS-DSCH Category ("total number of soft
channel bits" in 3GPP TS 25.306 Table 5.1a) is divided
equally among the active HARQ processes. Note that to
configure the user defined downlink to emulate an FRC,
you may need to set User
Defined UE IR Buffer Allocation
to
Explicit
, and then set FDDT
"User Defined Explicit UE IR Buffer Size"
accordingly (see Example User Defined
Configuration: Configuring the Downlink as an FRC
).
When FDD Test User Defined UE IR Buffer
Allocation
is set to
Explicit
, the IR buffer size allocated to each
active HARQ process is determined directly by the FDDT "User Defined Explicit UE IR Buffer
Size" setting. This setting allows you to allocate
less than your UE's maximum total IR buffer size (which
may be required if you wish to emulate an FRC, see Example User Defined Configuration: Configuring
the Downlink as an FRC ).
GPIB command: CALL:FDDTest:HSDSchannel:UDEFined:MS:IREDundancy:BUFFer:ALLocation
GPIB command: CALL:FDDTest:HSDSchannel:UDEFined:MS:IREDundancy:BUFFer:SIZE[:EXPLicit]
FDD
Test UE HS-DSCH Category
When
FDD
Test User Defined UE IR Buffer Allocation is set to Implicit
, this setting
specifies the UE category to use for determining the IR
buffer size.
GPIB command: CALL:FDDTest:HSDSchannel:MS:CATegory
GPIB command: CALL:FDDTest:HSDSchannel:DATA
FDD
Test F-DPCH State
When
the Channel Type
is
set to HSPA
, this
setting controls whether the F-DPCH is configured instead
of the associated DPCH in the downlink while operating
in FDD Test Mode.
When FDD Test "RB Test User Defined DC-HSDPA State" is "ON", you can not set this parameter to "ON" because F-DPCH is not available with MAC-ehs.
GPIB Command: CALL:FDDTest:FDPChannel:STATe
FDD
Test User Def Secondary Cell 64QAM State
This
parameter controls whether the 64QAM encoding format defined
in 3GPP TS 25.212 v8.6.0 s4.6 should be used for the secondary
serving cell HS-SCCH. This setting is also used to determine
the actual transport block size as described in the Test Mode Def TB Size--Secondary
Serving Cell
.
This setting is also involved in determining the HS-DSCH TB size table.
If FDD Test User Def Secondary Cell Modulation Type is "64QAM", you can not set this parameter to "Off".
GPIB Command: CALL:FDDTest:HSDSchannel:UDEFined:QAM64:STATe
FDD
Test User Def Secondary Cell HS-DSCH TBS Table
This setting selects the HS-DSCH TB size table when FDD Test User Def Secondary Cell 64QAM State is "Off". This setting is also used to determine the actual transport block size as described in Test Mode Def TB Size--Secondary Serving Cell.
GPIB Command: CALL:FDDTest:HSDSchannel:UDEFined:MACEHS:TBSTable:ALIGnment
FDD
Test User Def Secondary Cell Active HS-PDSCHs
This setting controls how many HS-PDSCHs are active on the secondary serving cell.
You can not change this setting to a value that when added to the FDD Test First HS-PDSCH Channelization Code is greater than 16.
If you changes this setting to a new value results in a change the number of HS-PDSCHs such that there would be a collision in code-space, the test set will not block your operation and will still transmit using requested number of HS-PDSCHs, but the test set should detect collision and issue persistent error message. The persistent error message will be removed once the test set detected no collisions currently active channels.
GPIB Command: CALL:FDDTest:SSCell:HSDSchannel:UDEFined:HSPDschannel:COUNt
FDD
Test User Def Secondary Cell TB Size Index
This
setting controls the transport block size index of the
secondary serving cell and is used to determine the actual
transport block size as described in Test
Mode Def TB Size--Secondary Serving Cell
.
GPIB Command: CALL:FDDTest:SSCell:HSDSchannel:UDEFined:TBSize:INDex
FDD
Test User Def Secondary Cell Modulation Type
This setting controls the modulation type of the currently active HS-PDSCH channels on the secondary serving cell and is used to determine the actual transport block size as described in Test Mode Def TB Size--Secondary Serving Cell.
If FDD Test User Def Secondary Cell 64QAM State is "Off", setting this parameter to "64QAM" will be rejected.
GPIB Command: CALL:FDDTest:SSCell:HSDSchannel:UDEFined:MODulation[:TYPE]
FDD Test Def Sec Cell Inter-TTI
Interval
This setting controls the absolute inter-TTI interval between transmitting blocks to the UE on the secondary serving cell HS-PDSCHs.
GPIB Command: CALL:FDDTest:SSCell:HSDSchannel:UDEFined:ITTI[:INTerval]
FDD Test Number of Transmissions
GPIB command: CALL:FDDTest:MACHs:NTRans
FDD Test RV Sequence
GPIB command: CALL:FDDTest:MACHs:RVSequence
FDD Test RV Sequence for MIMO Primary Transport Block
GPIB command: CALL:FDDTest:MACEHS:PTBLock:RVSequence
FDD Test RV Sequence for MIMO Secondary Transport Block
GPIB command: CALL:FDDTest:MACEHS:STBLock:RVSequence
MAC-hs
Transmit Window Size
This
setting is only used when MAC-hs Header
is set to Present
(when MAC-hs Header
is set to Data
, the transmit window
size is infinite).
MAC-hs Transmit Window Size
can
be set to 4, 6, 8, 12, 16, 24, or 32. In accordance with
3GPP TS 25.321 11.6.2.3.2, the test set will not retransmit
a block with a TSN that is outside the transmit window.
GPIB command: CALL:FDDTest:MACHs:WSIZe:TRANsmit
MAC-hs
Header
You may choose to fill the MAC-hs header with dummy data (such as PRBS, to ensure that there are no repeating patterns of data in each MAC-hs frame, or simply to provide an uninterrupted stream of PRBS data) or include a header with valid content.
Present
When MAC-hs Header
is set
to Present
, each
MAC-hs block contains a valid MAC-hs header formatted
with the following values (see 3GPP TS 25.321 9.2.2):
The
TSN (Transmission Sequence Number) field is incremented
each time a new block is sent by a HARQ process. When MAC-hs Header
is set
to Present
, the
test set uses the MAC-hs Transmit
Window Size to control its window size.
Data
When MAC-hs Header
is set
to Present
, the
MAC-hs header space for each block is filled with
FDD
Test "HS-DSCH Data Pattern" data.
GPIB command: CALL:FDDTest:MACHs:HEADer .
FDD Test statDTX Reception Behavior
GPIB command: CALL:FDDTest:MACHs:SDTX:RBEHavior
FDD Test Mode statDTX Reception Behavior for Two Trans Blks
GPIB command: CALL:FDDTest:MACEHS:DTBLocks:SDTX:RBEHavior
These values are not signalled to the UE in FDD Test mode; rather, you must ensure that the UE is using the same values as these settings.
The parameter
specifies whether
the primary and secondary serving cell downlink UARFCN
should use UARFCNs in the Single Band or Dual Band or
any customized band.
This
parameter can only be set when the Data/Call
Status
is Idle
.
GPIB command: CALL:FDDTest:HSDPa:MCARrier:BAND:CONFig[:TYPE]
GPIB command: CALL:SSCell:POWer:AMPLitude
The parameter
sets whether to use FDD Test Secondary
Cell DL Adjacent UARFCN , or FDD Test
Secondary Cell DL Manual UARFCN as the secondary serving
cell downlink UARFCN when FDD Test
Dual Carrier Band Configuration is set to Single
Band
.
This
parameter can only be set when the Data/Call
Status
is Idle
.
GPIB command: CALL:FDDTest:SSCell:CHANnel:CONFig[:TYPE]
When
FDD
Test Dual Carrier Band Configuration is set to Single Band
, and FDD Test Secondary Cell DL Channel Config
is set to Adjacent
, this parameter sets the downlink adjacent UARFCN of
the secondary serving cell.
GPIB command: CALL:SSCell:CHANnel:ADJacent
This parameter sets the downlink manual UARFCN of the secondary serving cell when:
Single
Band
, and FDD Test Secondary
Cell DL Channel Config is set to Manual
Dual Band
or User Defined
GPIB command: CALL:FDDTest:SSCell:CHANnel:MANual:UARFcn
This parameter determines whether the test set sends a Band V or Band VI Frequency Band Indicator when the FDD Test Secondary Cell DL Manual UARFCN is used as the secondary serving cell's UARFCN. This setting FDD Test Secondary Cell DL Manual UARFCN is set to a value (1037, 1062, 4387 to 4413) shared by Band V and Band VI UARFCNs
GPIB command: CALL:FDDTest:SSCell:CHANnel:MANual:BARBitrator
Secondary Serving Cell Primary
Scrambling Code
GPIB command: CALL:SSCell:SCODe[:PRIMary] .
GPIB command: CALL:FDDTest:HRNTi[:PRIMary]
GPIB command: CALL:FDDTest:HRNTi:ALTernate
GPIB command: CALL:FDDTest:HRNTi:ALTernate:HSSCCH1
GPIB command: CALL:FDDTest:HRNTi:ALTernate:HSSCCH2
GPIB command: CALL:FDDTest:HRNTi:ALTernate:HSSCCH3
GPIB command: CALL:FDDTest:HRNTi:ALTernate:HSSCCH4
GPIB command: CALL:HSDPa:SSCell:HRNTi
You must set the HSDPA/HSPA
DL Channel Codes ( Generator
Info
( F2 )>>
Downlink Channel Codes
( F2 ), F4 ).
FDD Test First HS-PDSCH Channelization
Code
This parameter sets the channelization code of the first HS-PDSCH when on an FDD Test Mode connection. If more than one HS-PDSCH is being generated, the other HS-PDSCHs are assigned to the subsequent channelization codes.
This
parameter cannot be set to 5 when
HSDPA DPCH 12.2k RMC Channelization Code
is set
to 45 or 54, and cannot be set to 6 when
HSDPA DPCH 12.2k RMC Channelization Code
is set
to 54. Also, the number of HS-PDSCHs specified by the
FDD
Test "FRC Type" or FDDT
"User Defined Number of Active HS-PDSCHs"
settings, when added to the
FDD Test First HS-PDSCH Channelization Code
cannot
exceed 15 (otherwise the HS-PDSCHs would collide with
the downlink OCNS channels).
GPIB command: CALL:FDDTest:HSPDschannel:CCODe
To set the downlink channel levels, you must
use the HSDPA Connected DL Channel Levels
settings ( Generator Info
( F2 )>>
Downlink Channel Levels
( F3
), F4 ).
HSDPA
FDD Test CPICH Level
: CALL:FDDTest:CPIChannel[:SLEVel]:HSDPa
.HSDPA FDD Test P-CCPCH/SCH Level
: CALL:FDDTest:CCPChannel:PRIMary[:SLEVel]:HSDPa
.HSDPA FDD Test PICH Level
: CALL:FDDTest:PICHannel[:SLEVel]:HSDPa
.HSDPA FDD Test DPCH Level
: CALL:FDDTest:DPCHannel[:SLEVel]:HSDPa
.HSDPA FDD Test HS-PDSCHs Level
(Sum)
: CALL:FDDTest:HSPDschannel[:SLEVel]
.HSDPA FDD Test HS-SCCH 1 Level
: CALL:FDDTest:HSSCchannel[1][:SLEVel]
.HSDPA FDD Test HS-SCCH 2 Level
: CALL:FDDTest:HSSCchannel2[:SLEVel]
.HSDPA FDD Test HS-SCCH 3 Level
: CALL:FDDTest:HSSCchannel3[:SLEVel]
.HSDPA FDD Test HS-SCCH 4 Level
: CALL:FDDTest:HSSCchannel4[:SLEVel]
.HSDPA FDD Test Secondary Cell CPICH
Level
: CALL:FDDTest:SSCell:CPIChannel[:SLEVel]:HSDPa
HSDPA FDD Test Secondary Cell P-CCPCH/SCH
Level
: CALL:FDDTest:SSCell:CCPChannel:PRIMary:STATe:HSDPa
.HSDPA FDD Test Secondary Cell PICH
Level
: CALL:FDDTest:SSCell:PICHannel[:SLEVel]:HSDPa
.HSDPA FDD Test Secondary Cell HS-PDSCHs
Level(Sum)
: CALL:FDDTest:SSCell:HSPDschannel[:SLEVel]:HSDPa
.HSDPA FDD Test Secondary Cell HS-SCCH
1 Level
: CALL:FDDTest:SSCell:HSSCchannel1[:SLEVel]:HSDPa
.HSDPA FDD Test Secondary Cell HS-SCCH
2 Level
: CALL:FDDTest:SSCell:HSSCchannel2[:SLEVel]:HSDPa
.HSDPA FDD Test Secondary Cell HS-SCCH
3 Level
: CALL:FDDTest:SSCell:HSSCchannel3[:SLEVel]:HSDPa
.HSDPA FDD Test Secondary Cell HS-SCCH
4 Level
: CALL:FDDTest:SSCell:HSSCchannel4[:SLEVel]:HSDPa
.HSDPA FDD Test Antenna 2 P-CPICH
Level
: CALL:FDDTest:ANTenna2:CPIChannel:LEVel:HSDPa
.HSDPA FDD Test Antenna 2 S-CPICH
Level
: CALL:FDDTest:ANTenna2:CPIChannel:SECondary:LEVel:HSDPa
.This section is only applicable to the lab application or feature-licensed test application.
In
FDD Test
operating mode, HSPA is active when
Channel Type
is set to 12.2k
RMC + HSPA
.
When HSPA is active, the test set operates a fully functional Layer1 plus MAC-e solution, in that E-DCH blocks are decoded according to the E-TFCI and the appropriate ack or nack is sent on the E-HICH. The test set discards any blocks received on the E-DCH after transmitting the ack or nack. This means that the UE may use any value it likes for the DDI, N and TSN fields in the MAC-e/es PDU. There is no signaling on the control plane above MACe/es.
While on an HSPA channel in FDD Test Mode, the HSDPA downlink operates much as it does for an HSDPA-only channel type. The primary difference is that while on an HSPA channel the HS-DSCH transmits RLC PDUs that contain valid RLC UM headers. This is in contrast to HSDPA-only FDD test mode where there are no RLC headers sent on the HS-DSCH (PRBS data is sent instead). The headers are necessary so that the UE can loop back the downlink data received on the HS-DSCH back onto the uplink E-DCH. The loopback point in HSPA FDD test mode is expected to be immediately above the UE's RLC layer (which is the same place as for active cell). This means the RLC layer must deliver complete blocks to the loopback entity for there to be data on the E-DCH. The UE's RLC UM entity can only deliver blocks up to its loopback entity if it is receiving consistent header data (not PRBS data) that allows it to recreate complete SDUs. While operating on an HSPA channel type in FDD test mode the test set therefore transmits valid RLC UM headers. The RLC PDU size is 336 bits when an HSDPA FRC is configured (this matches the specification for FRCs in 3GPP TS 34.121) or 112 bits when an HSDPA user defined configuration is used. The downlink RLC SDU size is set to 2936 bits (just like in active cell operating mode). As many RLC PDUs are packed in a single MAC-hs PDU as will fit, subject to the same limits as described in HSPA Radio Bearer Test Mode . The same MAC-hs header format as described in MAC-hs Header above is used with the exception that the N field is set to the actual number of RLC PDUs packed in the MAC-hs PDU.
To test HSPA UEs in FDD test mode, you must synchronize the UE and test set as described in Synchronizing the UE to the Test Set's Downlink to Make Measurements .
Additionally, you must consider the following:
Channel
Type
must be set to 12.2k
RMC + HSPA
( CALL:SERVice:RBTest:RAB
).
HSDPA Parameters
as described above in HSDPA Operation in FDD Test .You must ensure that you have properly configured
the HSUPA Parameters
( HSPA Parameters
( F10 ), F9
): Common HSUPA Parameters , Serving Grant , E-TFCI Recording
, E-RNTI
Parameters and
This setting is used to inform the test set (while operating in FDD Test mode) what value the UE is using for E-DPDCH Max Channelisation Codes. Knowledge of this value is necessary to be able to translate the E-TFCI value that the UE transmits on the E-DPCCH to the spreading factor and number of channels used on the E-DPDCH.
GPIB command: CALL:FDDTest:EDPDchannel:CCODes:MAX
You must set the HSDPA/HSPA
DL Channel Codes ( Generator
Info
( F2 )>>
Downlink Channel Codes
( F2 ), F4 ). See FDD Test
First HS-PDSCH Channelization Code above.
To set the downlink channel levels, you must
use the HSPA Connected DL Channel Levels
settings ( Generator Info
( F2 )>>
Downlink Channel Levels
( F3
), F5 ).
HSPA
FDD Test CPICH Level
: CALL:FDDTest:CPIChannel[:SLEVel]:HSPA
.HSPA FDD Test P-CCPCH/SCH Level
: CALL:FDDTest:CCPChannel:PRIMary[:SLEVel]:HSPA
.HSPA FDD Test PICH Level
: CALL:FDDTest:PICHannel[:SLEVel]:HSPA
.HSPA FDD Test DPCH Level
: CALL:FDDTest:DPCHannel[:SLEVel]:HSPA
.HSPA FDD Test E-AGCH Level
: CALL:FDDTest:EAGChannel[:SLEVel]
.HSPA FDD Test E-HICH Level
: CALL:FDDTest:EHIChannel[:SLEVel]
.HSPA FDD Test E-RGCH Level
: CALL:FDDTest:ERGChannel[:SLEVel]
.HSPA FDD Test HS-PDSCHs Level (Sum)
: CALL:FDDTest:HSPDschannel[:SLEVel]:HSPA
.HSPA FDD Test HS-SCCH 1 Level
: CALL:FDDTest:HSSCchannel[1][:SLEVel]:HSPA
.HSPA FDD Test HS-SCCH 2 Level
: CALL:FDDTest:HSSCchannel2[:SLEVel]:HSPA
.HSPA FDD Test HS-SCCH 3 Level
: CALL:FDDTest:HSSCchannel3[:SLEVel]:HSPA
.HSPA FDD Test HS-SCCH 4 Level
: CALL:FDDTest:HSSCchannel4[:SLEVel]:HSPA
.HSPA FDD Test Secondary Cell CPICH
Level
: CALL:FDDTest:SSCell:CPIChannel:STATe:HSPA
HSPA FDD Test Secondary Cell P-CCPCH/SCH
Level
: CALL:FDDTest:SSCell:CCPChannel:PRIMary[:SLEVel]:HSPA
.HSPA FDD Test Secondary Cell PICH
Level
: CALL:FDDTest:SSCell:PICHannel[:SLEVel]:HSPA
.HSPA FDD Test Secondary Cell HS-PDSCHs
Level(Sum)
: CALL:FDDTest:SSCell:HSPDschannel[:SLEVel]:HSPA
.HSPA FDD Test Secondary Cell HS-SCCH
1 Level
: CALL:FDDTest:SSCell:HSSCchannel1[:SLEVel]:HSPA
.HSPA FDD Test Secondary Cell HS-SCCH
2 Level
: CALL:FDDTest:SSCell:HSSCchannel2[:SLEVel]:HSPA
.HSPA FDD Test Secondary Cell HS-SCCH
3 Level
: CALL:FDDTest:SSCell:HSSCchannel3[:SLEVel]:HSPA
.HSPA FDD Test Secondary Cell HS-SCCH
4 Level
: CALL:FDDTest:SSCell:HSSCchannel4[:SLEVel]:HSPA
.HSPA FDD Test Antenna 2 P-CPICH
Level
: CALL:FDDTest:ANTenna2:CPIChannel:LEVel:HSPA
.HSPA FDD Test Antenna 2 S-CPICH
Level
: CALL:FDDTest:ANTenna2:CPIChannel:SECondary:LEVel:HSPA
.