This section provides an overview of the R&S FSV/A user documentation. Unless
specified otherwise, you find the documents at:
www.rohde-schwarz.com/manual/FSVA3000
www.rohde-schwarz.com/manual/FSV3000
Further documents are available at:
www.rohde-schwarz.com/product/FSVA3000
www.rohde-schwarz.com/product/FSV3000
Introduces the R&S FSV/A and describes how to set up and start working with the
product. Includes basic operations, typical measurement examples, and general information, e.g. safety instructions, etc.
A printed version is delivered with the instrument. A PDF version is available for download on the Internet.
1.2User manuals and help
Separate user manuals are provided for the base unit and the firmware applications:
●
Base unit manual
Contains the description of all instrument modes and functions. It also provides an
introduction to remote control, a complete description of the remote control commands with programming examples, and information on maintenance, instrument
interfaces and error messages. Includes the contents of the getting started manual.
●
Firmware application manual
Contains the description of the specific functions of a firmware application, including remote control commands. Basic information on operating the R&S FSV/A is
not included.
The contents of the user manuals are available as help in the R&S FSV/A. The help
offers quick, context-sensitive access to the complete information for the base unit and
the firmware applications.
All user manuals are also available for download or for immediate display on the Internet.
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1.3Service manual
1.4Instrument security procedures
Documentation overview
Release notes and open-source acknowledgment (OSA)
Describes the performance test for checking the rated specifications, module replacement and repair, firmware update, troubleshooting and fault elimination, and contains
mechanical drawings and spare part lists.
The service manual is available for registered users on the global Rohde & Schwarz
information system (GLORIS):
R&S®FSVA3000/FSV3000 Service manual
Deals with security issues when working with the R&S FSV/A in secure areas. It is
available for download on the Internet.
1.5Printed safety instructions
Provides safety information in many languages. The printed document is delivered with
the product.
1.6Data sheets and brochures
The data sheet contains the technical specifications of the R&S FSV/A. It also lists the
firmware applications and their order numbers, and optional accessories.
The brochure provides an overview of the instrument and deals with the specific characteristics.
See www.rohde-schwarz.com/brochure-datasheet/FSV3000 /
www.rohde-schwarz.com/brochure-datasheet/FSVA3000
1.7Release notes and open-source acknowledgment
(OSA)
The release notes list new features, improvements and known issues of the current
firmware version, and describe the firmware installation.
The software makes use of several valuable open source software packages. An opensource acknowledgment document provides verbatim license texts of the used open
source software.
See www.rohde-schwarz.com/firmware/FSV3000 /
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1.8Application notes, application cards, white papers,
Documentation overview
Application notes, application cards, white papers, etc.
www.rohde-schwarz.com/firmware/FSVA3000
etc.
These documents deal with special applications or background information on particular topics.
See www.rohde-schwarz.com/application/FSV3000 /
www.rohde-schwarz.com/application/FSVA3000
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2Welcome to the LTE NB-IoT measurement
Welcome to the LTE NB-IoT measurement application
Starting the LTE NB-IoT measurement application
application
The LTE NB-IoT measurement application is a firmware application that adds functionality to measure on NB-IoT signals according to the 3GPP standard to the R&S FSV/A.
This user manual contains a description of the functionality that the application provides, including remote control operation. Functions that are not discussed in this manual are the same as in the spectrum application and are described in the R&S FSV/A
user manual. The latest versions of the manuals are available for download at the
product homepage.
●Starting the LTE NB-IoT measurement application.................................................10
●Understanding the display information....................................................................11
2.1Installation
Find detailed installing instructions in the getting started or the release notes of the
R&S FSV/A.
2.2Starting the LTE NB-IoT measurement application
The LTE NB-IoT measurement application adds a new application to the R&S FSV/A.
Starting the NB-IoT application
1. Press the [MODE] key on the front panel of the R&S FSV/A.
A dialog box opens that contains all operating modes and applications currently
available on your R&S FSV/A.
2. Select the "NB-IoT" item.
The R&S FSV/A opens a new measurement channel for the NB-IoT measurement
application.
The application is started with the default settings. It can be configured in the "Overview" dialog box, which is displayed when you select the "Overview" softkey from the
"Meas Setup" menu.
For more information, see Chapter 4, "Configuration", on page 34.
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2.3Understanding the display information
Welcome to the LTE NB-IoT measurement application
Understanding the display information
The following figure shows a measurement diagram during NB-IoT operation. All different information areas are labeled. They are explained in more detail in the following
sections.
123456
1 = Toolbar
2 = Channel bar
3 = Diagram header
4 = Result display
5 = Status bar
6 = Softkeys
Channel bar information
In the LTE NB-IoT measurement application, the R&S FSV/A shows the following settings:
Table 2-1: Information displayed in the channel bar in the NB-IoT measurement application
Ref LevelReference level
AttMechanical and electronic RF attenuation
OffsetReference level offset
Freq
E-UTRA Freq
ModeNB-IoT standard
MIMONumber of Tx and Rx antennas in the measurement setup
Capture TimeLength of the signal that has been captured
Frequency
Center frequency of the LTE channel (in-band deployment only)
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Welcome to the LTE NB-IoT measurement application
Understanding the display information
Frame CountNumber of frames that have been captured
SubframeSubframe considered in the signal analysis
In addition, the channel bar displays information on instrument settings that affect the
measurement results even though this is not immediately apparent from the display of
the measured values (for example trigger settings). This information is displayed only
when applicable for the current measurement. For details, see the R&S FSV/A getting
started manual.
Window title bar information
The information in the window title bar depends on the result display.
The "Constellation Diagram", for example, shows the number of points that have been
measured.
Status bar information
Global instrument settings, the instrument status and any irregularities are indicated in
the status bar beneath the diagram. Furthermore, the progress of the current operation
is displayed in the status bar.
Regarding the synchronization state, the application shows the following labels.
●
"Sync OK"
The synchronization was successful. The status bar is green.
●
"Sync Failed"
The synchronization was not successful. The status bar is red.
There can be three different synchronization errors.
–"Sync Failed (Cyclic Prefix)": The cyclic prefix correlation failed.
–"Sync Failed (NPSS)": The NPSS correlation failed.
–"Sync Failed (NSSS)": The NSSS correlation failed.
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3Measurements and result displays
Measurements and result displays
Selecting measurements
The LTE NB-IoT measurement application measures and analyzes various aspects of
an NB-IoT signal.
It features several measurements and result displays. Measurements represent different ways of processing the captured data during the digital signal processing. Result
displays are different representations of the measurement results. They can be diagrams that show the results as a graph or tables that show the results as numbers.
The "Select Measurement" dialog box contains several buttons. Each button represents a measurement. A measurement in turn is a set of result displays that thematically belong together and that have a particular display configuration. If these predefined display configurations do not suit your requirements, you can add or remove
result displays as you like. For more information about selecting result displays, see
Chapter 3.2, "Selecting result displays", on page 14.
Depending on the measurement, the R&S FSV/A changes the way it captures and processes the raw signal data.
EVM
EVM measurements record, process and demodulate the signal's I/Q data. The result
displays available for EVM measurements show various aspects of the NB-IoT signal
quality.
For EVM measurements, you can combine the result displays in any way.
For more information on the result displays, see Chapter 3.4, "I/Q measurements",
on page 15.
Remote command:
CONFigure[:LTE]:MEASurement on page 113
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Measurements and result displays
Selecting result displays
Time alignment error
Time alignment error (TAE) measurements record, process and demodulate the signal's I/Q data. The result displays available for TAE measurements indicate how well
the antennas in a multi-antenna system are aligned.
For TAE measurements, you can combine the result displays in any way.
For more information on the result displays, see Chapter 3.5, "Time alignment error",
on page 29.
Remote command:
CONFigure[:LTE]:MEASurement on page 113
Channel power ACLR
ACLR measurements sweep the frequency spectrum instead of processing I/Q data.
The ACLR measurements evaluates the leakage ratio of neighboring channels and
evaluates if the signal is within the defined limits. The measurement provides several
result displays. You can combine the result displays in any way.
For more information on the result displays, see Chapter 3.6, "Frequency sweep mea-
surements", on page 30.
Remote command:
CONFigure[:LTE]:MEASurement on page 113
SEM
SEM measurements sweep the frequency spectrum instead of processing I/Q data.
The SEM measurements tests the signal against a spectrum emission mask and eval-
uates if the signal is within the defined limits. The measurement provides several result
displays. You can combine the result displays in any way.
For more information on the result displays, see Chapter 3.6, "Frequency sweep mea-
surements", on page 30.
Remote command:
CONFigure[:LTE]:MEASurement on page 113
3.2Selecting result displays
Access:
The R&S FSV/A opens a menu (the SmartGrid) to select result displays. For more
information on the SmartGrid functionality, see the R&S FSV/A Getting Started.
In the default state of the application, it shows several conventional result displays.
●
Capture Buffer
●
Power vs Symbol X Carrier
●
Constellation Diagram
●
Power Spectrum
●
Result Summary
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3.3Performing measurements
Measurements and result displays
I/Q measurements
From that predefined state, add and remove result displays as you like from the SmartGrid menu.
Remote command: LAYout:ADD[:WINDow]?on page 79
By default, the application measures the signal continuously. In "Continuous Sweep"
mode, the R&S FSV/A captures and analyzes the data again and again.
●
For I/Q measurements, the amount of captured data depends on the capture time.
●
For frequency sweep measurement, the amount of captured data depends on the
sweep time.
In "Single Sweep" mode, the R&S FSV/A stops measuring after it has captured the
data once. The amount of data again depends on the capture time.
Refreshing captured data
You can also repeat a measurement based on the data that has already been captured
with the "Refresh" function. Repeating a measurement with the same data can be useful, for example, if you want to apply different modulation settings to the same I/Q data.
For more information, see the documentation of the R&S FSV/A.
The "Capture Buffer" shows the complete range of captured data for the last data capture.
The x-axis represents time. The maximum value of the x-axis is equal to the Capture
Time.
The y-axis represents the amplitude of the captured I/Q data in dBm (for RF input).
The capture buffer uses the auto peak detector to evaluate the measurement data. The
auto peak detector determines the maximum and the minimum value of the measured
levels for each measurement point and combines both values in one sample point.
Figure 3-1: Capture buffer without zoom
A colored bar at the bottom of the diagram represents the frame that is currently analyzed. Different colors indicate the OFDM symbol type.
●
Indicates the data stream.
●
Indicates the reference signal and data.
●
Indicates the NPSS and data.
●
Indicates the NSSS and data.
A green vertical line at the beginning of the green bar in the capture buffer represents
the subframe start. The diagram also contains the "Start Offset" value. This value is the
time difference between the subframe start and capture buffer start.
When you zoom into the diagram, you will see that the bar is interrupted at certain
positions. Each small bar indicates the useful parts of the OFDM symbol.
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Measurements and result displays
I/Q measurements
Figure 3-2: Capture buffer after a zoom has been applied
The "EVM vs Carrier" result display shows the error vector magnitude (EVM) of the
subcarriers. With the help of a marker, you can use it as a debugging technique to
identify any subcarriers whose EVM is too high.
The results are based on an average EVM that is calculated over the resource elements for each subcarrier. This average subcarrier EVM is determined for each analyzed subframe in the capture buffer.
If you analyze all subframes, the result display contains three traces.
●
Average EVM
This trace shows the subcarrier EVM, averaged over all subframes.
●
Minimum EVM
This trace shows the lowest (average) subcarrier EVM that has been found over
the analyzed subframes.
●
Maximum EVM
This trace shows the highest (average) subcarrier EVM that has been found over
the analyzed subframes.
If you select and analyze one subframe only, the result display contains one trace that
shows the subcarrier EVM for that subframe only. Average, minimum and maximum
values in that case are the same. For more information, see "Subframe Selection"
on page 64.
The x-axis represents the center frequencies of the subcarriers. The y-axis shows the
EVM in % or in dB, depending on the EVM Unit.
The "EVM vs Symbol" result display shows the error vector magnitude (EVM) of the
OFDM symbols. You can use it as a debugging technique to identify any symbols
whose EVM is too high.
The results are based on an average EVM that is calculated over all subcarriers that
are part of a certain OFDM symbol. This average OFDM symbol EVM is determined for
all OFDM symbols in each analyzed subframe.
The x-axis represents the OFDM symbols, with each symbol represented by a dot on
the line. Any missing connections from one dot to another mean that the R&S FSV/A
could not determine the EVM for that symbol.
The number of displayed symbols depends on the subframe selection.
On the y-axis, the EVM is plotted either in % or in dB, depending on the EVM Unit.
The "EVM vs Subframe" result display shows the Error Vector Magnitude (EVM) for
each subframe. You can use it as a debugging technique to identify a subframe whose
EVM is too high.
The result is an average over all subcarriers and symbols of a specific subframe.
The x-axis represents the subframes, with the number of displayed subframes being
10.
On the y-axis, the EVM is plotted either in % or in dB, depending on the EVM Unit.
Th e "Frequency Error vs Symbol" result display shows the frequency error of each
symbol. You can use it as a debugging technique to identify any frequency errors within
symbols.
The result is an average over all subcarriers in the symbol.
On the y-axis, the frequency error is plotted in Hz.
Note that the variance of the measurement results in this result display can be much
higher compared to the frequency error display in the numerical result summary,
depending on the NPDSCH and control channel configuration. The potential difference
is caused by the number of available resource elements for the measurement on symbol level.
This "Group Delay" shows the group delay of each subcarrier.
The measurement is evaluated over the currently selected slot in the currently selected
subframe.
The currently selected subframe depends on your selection.
The x-axis represents the frequency. On the y-axis, the group delay is plotted in ns.
The "Complementary Cumulative Distribution Function (CCDF)" shows the probability
of an amplitude exceeding the mean power. For the measurement, the complete capture buffer is used.
The x-axis represents the power relative to the measured mean power. On the y-axis,
the probability is plotted in %.
In addition to the diagram, the results for the CCDF measurement are summarized in
the CCDF table.
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Measurements and result displays
I/Q measurements
MeanMean power
PeakPeak power
CrestCrest factor (peak power – mean power)
10 %10 % probability that the level exceeds mean power + [x] dB
1 %1 % probability that the level exceeds mean power + [x] dB
0.1 %0.1 % probability that the level exceeds mean power + [x] dB
0.01 %0.01 % probability that the level exceeds mean power + [x] dB
The "Allocation Summary" shows various parameters of the measured allocations in a
table.
Each row in the allocation table corresponds to an allocation. A set of several allocations make up a subframe. A horizontal line indicates the beginning of a new subframe.
Special allocations summarize the characteristics of all allocations in a subframe
("ALL") and the complete frame (allocation "ALL" at the end of the table).
The columns of the table show the following properties for each allocation.
●
The location of the allocation (subframe number).
●
The ID of the allocation (channel type).
●
Number of resource blocks used by the allocation.
●
The relative power of the allocation in dB.
●
The modulation of the allocation.
●
The power of each resource element in the allocation in dBm.
●
The EVM of the allocation.
The unit depends on the EVM unit
●
The EVM over all codewords in a layer. The layer EVM is calculated for all data
allocations, and not for the DMRS or other physical signals.
The unit depends on the EVM unit
The "Bitstream" shows the demodulated data stream for the data allocations.
At the end of the table is a summary of all total number of bits, total number of coded
bits, total number of bit errors and bit error rate in %. The totals are calculated over all
NPDSCH allocations that contribute to the bitstream. The results are shown under the
following circumstances.
●
Descramble the coded bits.
●
Select NPDSCH reference data = "All 0".
●
Turn off automatic demodulation of the NPDSCH to define the location of the
NPDSCH (subframes and N_RNTI).
Depending on the bitstream format, the numbers represent either bits (bit order) or
symbols (symbol order).
●
For the bit format, each number represents one raw bit.
●
For the symbol format, the bits that belong to one symbol are shown as hexadecimal numbers with two digits.
Resource elements that do not contain data or are not part of the transmission are represented by a "-".
The table contains the following information:
●
Subframe
Number of the subframe the bits belong to.
●
Allocation ID
Channel the bits belong to.
●
Codeword
Code word of the allocation.
●
Modulation
Modulation type of the channels.
●
Symbol Index or Bit Index
Indicates the position of the table row's first bit or symbol within the complete
stream.
The "EVM vs Symbol x Carrier" result display shows the EVM for each carrier in each
symbol.
The x-axis represents the symbols. The y-axis represents the subcarriers. Different colors in the diagram area represent the EVM. A color map in the diagram header indicates the corresponding power levels.
The "Power vs Symbol x Carrier" result display shows the power for each carrier in
each symbol.
The x-axis represents the symbols. The y-axis represents the subcarriers. Different colors in the diagram area represent the power. A color map in the diagram header indicates the corresponding power levels.
The "Allocation ID vs Symbol x Carrier" result display is a graphical representation of
the structure of the analyzed frame. It shows the allocation type of each subcarrier in
each symbol of the received signal.
The x-axis represents the OFDM symbols. The y-axis represents the subcarriers.
Each type of allocation is represented by a different color. The legend above the dia-
gram indicates the colors used for each allocation. You can also use a marker to get
more information about the type of allocation.
The Result Summary shows all relevant measurement results in numerical form, combined in one table.
Remote command:
LAY:ADD ? '1',LEFT,RSUM
Contents of the result summary
The table shows results that refer to the complete frame. For each result, the minimum,
mean and maximum values are displayed. It also indicates limit values as defined in
the NB-IoT standard and limit check results where available. The font of 'Pass' results
is green and that of 'Fail' results is red.
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Measurements and result displays
I/Q measurements
In addition to the red font, the application also puts a red star () in front of
failed results.
By default, all EVM results are in %. To view the EVM results in dB, change the EVM
Unit.
The second part of the table shows results that refer to a specific selection of the
frame.
The statistic is always evaluated over the subframes.
The header row of the table contains information about the selection you have made
(like the subframe).
EVM AllShows the EVM for all resource elements in the analyzed frame.
FETCh[:CC<cc>]:SUMMary:EVM[:ALL][:AVERage]? on page 103
EVM Phys ChannelShows the EVM for all physical channel resource elements in the analyzed
frame.
A physical channel corresponds to a set of resource elements carrying infor-
mation from higher layers. NPDSCH, NPBCH or NPDCCH, for example, are
physical channels. For more information, see 3GPP 36.211.
FETCh[:CC<cc>]:SUMMary:EVM:PCHannel[:AVERage]? on page 104
EVM Phys SignalShows the EVM for all physical signal resource elements in the analyzed
frame.
The reference signal, for example, is a physical signal. For more information,
see 3GPP 36.211.
FETCh[:CC<cc>]:SUMMary:EVM:PSIGnal[:AVERage]? on page 104
Frequency ErrorShows the difference in the measured center frequency and the reference
center frequency.
FETCh[:CC<cc>]:SUMMary:FERRor[:AVERage]? on page 104
Sampling ErrorShows the difference in measured symbol clock and reference symbol clock
relative to the system sampling rate.
FETCh[:CC<cc>]:SUMMary:SERRor[:AVERage]? on page 107
RSTPShows the reference signal transmit power as defined in 3GPP TS 36.141. It
is required for the "DL RS Power" test.
It is an average power and accumulates the powers of the reference symbols
within a subframe divided by the number of reference symbols within a subframe.
FETCh[:CC<cc>]:SUMMary:RSTP[:AVERage]? on page 106
OSTPShows the OFDM symbol transmit power as defined in 3GPP TS 36.141.
It accumulates all subcarrier powers of the 4th OFDM symbol. The 4th (out of
14 OFDM symbols within a subframe (for frame type 1, normal CP length))
contains exclusively NPDSCH.
FETCh[:CC<cc>]:SUMMary:OSTP[:AVERage]? on page 105
RSSIShows the Received Signal Strength Indicator. The RSSI is the complete sig-
nal power of the channel that has been measured, regardless of the origin of
the signal.
FETCh[:CC<cc>]:SUMMary:RSSI[:AVERage]? on page 106
PowerShows the average time domain power of the analyzed signal.
FETCh[:CC<cc>]:SUMMary:POWer[:AVERage]? on page 105
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Measurements and result displays
I/Q measurements
NB-IoT PowerShows the power of all resource elements used by NB-IoT.
FETCh[:CC<cc>]:SUMMary:NBPower[:AVERage]? on page 106
Crest FactorShows the peak-to-average power ratio of captured signal.
FETCh[:CC<cc>]:SUMMary:CRESt[:AVERage]? on page 103
Marker Table
Displays a table with the current marker values for the active markers.
This table is displayed automatically if configured accordingly.
WndShows the window the marker is in.
TypeShows the marker type and number ("M" for a nor-
mal marker, "D" for a delta marker).
TrcShows the trace that the marker is positioned on.
RefShows the reference marker that a delta marker
refers to.
X- / Y-ValueShows the marker coordinates (usually frequency
and level).
Z-EVM
Z-Power
Z-Alloc ID
Shows the "EVM", power and allocation type at the
marker position.
Only in 3D result displays (for example "EVM vs
Symbol x Carrier").
Tip: To navigate within long marker tables, simply scroll through the entries with your
finger on the touchscreen.
Remote command:
LAY:ADD? '1',RIGH, MTAB, see LAYout:ADD[:WINDow]? on page 79
Results:
CALCulate<n>:MARKer<m>:X on page 109
CALCulate<n>:MARKer<m>:Y on page 110
CALCulate<n>:MARKer<m>:Z? on page 111
CALCulate<n>:MARKer<m>:Z:ALL? on page 111
The time alignment error measurement captures and analyzes new I/Q data when you
select it.
The time alignment error measurement only works under the following conditions:
●
It is only available in a MIMO setup (2 antennas).
Therefore, you have to mix the signal of the antennas into one cable that you can
connect to the R&S FSV/A. For more information on configuring and performing a
time alignment measurement, see Chapter A, "Performing time alignment mea-
surements", on page 156.
●
It is only available for the stand alone deployment.
In addition to the result displays mentioned in this section, the time alignment measurement also supports the following result displays described elsewhere.
●
"Capture Buffer"on page 16
●
"Power Spectrum"on page 20
●
"Marker Table"on page 28
You can select the result displays from the evaluation bar and arrange them as you like
with the SmartGrid functionality.
Result display selection: LAYout:ADD[:WINDow]?on page 79
Time Alignment Error.................................................................................................... 29
Time Alignment Error
The time alignment is an indicator of how well the transmission antennas in a MIMO
system are synchronized. The time alignment error is the time delay between a reference antenna (for example antenna 1) and another antenna.
The application shows the results in a table.
Each row in the table represents one antenna. The reference antenna is not shown.
For each antenna, the maximum, minimum and average time delay that has been
measured is shown. The minimum and maximum results are calculated only if the
measurement covers more than one subframe.
In any case, results are only displayed if the transmission power of both antennas is
within 15 dB of each other. Likewise, if only one antenna transmits a signal, results will
not be displayed (for example if the cabling on one antenna is faulty).
For more information on configuring this measurement, see Chapter 4.3, "Time align-
ment error measurements", on page 56.
The "Limit" value shown in the result display is the maximum time delay that may occur
for each antenna (only displayed for systems without carrier aggregation).
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Measurements and result displays
Frequency sweep measurements
You can select the reference antenna from the dropdown menu in the result display.
You can also select the reference antenna in the MIMO Setup - if you change them in
one place, they are also changed in the other.
In the default layout, the application also shows the "Capture Buffer" and "Power Spectrum" result displays for each component carrier.
The NB-IoT aplication supports the following frequency sweep measurements.
●
Adjacent channel leakage ratio (ACLR)
●
Spectrum emission mask (SEM)
Instead of using I/Q data, the frequency sweep measurements sweep the spectrum
every time you run a new measurement. Therefore, it is mandatory to feed a signal into
the RF input for these measurements. Using previously acquired I/Q data for the frequency sweep measurements is not possible (and vice-versa).
Because each of the frequency sweep measurements uses different settings to obtain
signal data it is also not possible to run a frequency sweep measurement and view the
results in another frequency sweep measurement.
Make sure to have sufficient bandwidth to be able to capture the whole signal, including neighboring channels.
Features of the frequency sweep measurements:
●
Frequency sweep measurements are only available for the stand alone deploy-
ment.
In addition to the specific diagrams and table (see description below), frequency sweep
measurements support the following result displays.
●
"Marker Table"on page 28
●
Marker peak list
Both result displays have the same contents as the spectrum application.
30User Manual 1178.9232.02 ─ 06
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