11.2CHANGE HISTORY OF THE SOFTWARE ..........................................................................155
Index
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1.INTRODUCTION
Thank you for purchasing this LEADER instrument. To use this instrument safely, read this
instruction manual thoroughly, and make sure that you know how to use the instrument properly.
If some point about the operation of this instrument is still unclear after you have read this
instruction manual, refer to the contact information on the back cover of the manual to contact
LEADER, or contact your local LEADER agent.
After you have finished reading this manual, keep it in a convenient place so that you can refer to
it when necessary.
1.1Scope of Warranty
This LEADER instrument has been manufactured under the strictest quality control guidelines.
LEADER shall not be obligated to furnish the following free services during the warranty
period.
1.Repair of malfunction or damages resulting from fire, natural calamity, or improper voltage
applied by the user.
2.Repair of an instrument that has been improperly repaired, adjusted, or modified by
personnel other than a factory-trained LEADER representative.
3.Repair of malfunctions or damages resulting from improper use.
4.Repair of malfunctions caused by devices other than this instrument.
5.Repair of malfunctions or damages without the presentation of a proof of purchase or
receipt bill for the instrument.
1. INTRODUCTION
1.2Operating Precautions
1.2.1Maximum Allowable Input Voltage
The maximum signal voltage that can be applied to the input connectors is indicated below.
Do not apply excessive voltage to the ports. Doing so may damage the device or lead to
injury.
Table 1-1 Maximum allowable input voltage
Input ConnectorMaximum Input Voltage
INPUT 3G-SDI A, INPUT 3G-SDI B±2V (DC + peak AC)
1.2.2Shorting and Applying External Input to the Output Connectors
Do not short the output connectors. Doing so may damage the instrument.
Do not apply an external signal to the output connectors. Doing so may damage the
instrument and devices that are connected to it.
1.3Notations Used in This Manual
The key and other operations explained in this manual apply to the LV 5800, but you can also
perform similar operations on the LV 7800.
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2.SPECIFICATIONS
2.1General
This 3G-SDI input unit can be installed into an input slot of an LV 5800 (multi monitor) or into an
LV 7800 (multi rasterizer). The LV 58SER06 supports 3G-SDI levels A and B as well as
HD-SDI, SD-SDI, and HD dual link. By operating the LV 5800 or LV 7800, you can use the LV
58SER06 to display information such as the video signal waveforms, vector waveforms,
pictures, and error detection results of SDI signals.
In addition, the following features can be achieved when used in combination with other units.
・Lissajous and level displays of the embedded audio signal (in combination with the LV
58SER40A).
・Eye pattern display of SDI signals (in combination with the LV 58SER07).
2.2Features
• Two Serial Digital Inputs
There are two 3G-SDI input connectors and two operation modes.
In Single Input mode, you can monitor one input by switching between the two inputs.
In Simultaneous Input mode, you can monitor the two inputs simultaneously.
3G-SDI and HD dual link signals are only supported by Single Input mode.
2. SPECIFICATIONS
• Two Serial Digital Outputs
The LV 58SER06 can reclock the input signals that are received by the input connector that
has been selected with the input key (3G-SDI A or 3G-SDI B) and transmit these reclocked
signals from the 3G-SDI A/B output connector.
From the 3G-SDI B output connector, the LV 5800 can transmit a reclocked version of the
SDI signal that is received by the 3G-SDI B input connector.
• Test Pattern Signal Output
The LV 58SER06 can operate as a 3G-SDI signal pattern generator and generate a 3G-SDI
signal from the two output connectors.
• Video Signal Display
The LV 58SER06 can be used to display input signals' video signal waveforms, vector
waveforms, and pictures on not only the 1-screen display, but 2- and 4-screen multi displays.
• Error Detection
The LV 58SER06 can detect CRC errors and other video signal errors as well as embedded
audio signal and ancillary data errors.
• Automatic Video Format Setting
The LV 58SER06 can automatically set the video format of 3G-SDI and HD dual link signals
according to the payload ID packet.
• Ancillary Data Analysis
The unit supports various types of ancillary data for analysis display.
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2. SPECIFICATIONS
• Phase Display Function
The relative phase between SDI inputs can be measured.
• 5 Bar Display
You can use the 5 bar display to simultaneously monitor component and composite gamut.
• CIE Chromaticity Diagram Display
The SDI video signal can be converted into CIE1931xy chromaticity coordinates and
displayed on a CIE chromaticity diagram.
• Embedded Audio Extraction
You can use the LV 58SER06 with the LV 58SER40A (DIGITAL AUDIO) to display Lissajous
curves and level meters. You can also generate AES/EBU signals.
• External Synchronization Signal
Allows tri-level sync signals or black burst signals of NTSC and PAL to be input.
• Closed Caption Data Display
The closed caption data that is multiplexed in the SDI signal can be overlaid on the picture
display in the following format.
1) CEA/EIA-608-B closed caption data embedded in the CDP packet as defined in
EIA-708-B
2) CEA/EIA-608-B closed caption data
3) VBI (CEA/EIA-608-B Line21) closed caption data
• Detailed Display of the CDP Packet
Displays the details of the CDP packet as defined in EIA-708-B.
1) Displays the header information of the CDP packet
2) Displays whether the time code packet is available and the time code
3) Displays whether closed caption packet is available and the closed caption data
4) Displays whether closed caption service information packet is available
5) Displays whether future packets are available.
• Detailed Display of the XDS Packet
Displays the content advisory information and copy management information of the XDS
packet as defined by EIA/CEA-608-B.
• Program Description Packet Detection
Detects the program description packet as defined by ATSC A/65.
• Simple Japanese Closed Caption Display
Displays simple HD, SD, analog, and mobile phone closed captions contained in
supplementary closed caption data packets.
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2.3Specifications
2.3.1Input Signal
Video Signal Format and Corresponding Standards
3G-SDI
YCBCR4:2:210 bit1080p60/59.94/50SMPTE 424M
HD-SDI, SD-SDI
YCBCR4:2:210 bit
2. SPECIFICATIONS
FormatColor SystemQuantization
ScanningFrame Frequency
FormatColor SystemQuantization
ScanningFrame (Field) Frequency
1080i60/59.94/50
1080p30/29.97/25/24/23.98
1080PsF30/29.97/25/24/23.98SMPTE RP211
720p60/59.94/50/30/29.97/25/24/23.98 SMPTE 292M
525i59.94
625i50
Corresponding
Standards
SMPTE 425M
Corresponding
Standards
SMPTE 274M
SMPTE 292M
SMPTE 292M
SMPTE 296M
SMPTE 259M
HD Dual Link
GBR 4:4:4
YCBCR4:2:2
FormatColor SystemQuantization
ScanningFrame (Field) Frequency
10 bit
12 bit
10 bit1080p60/59.94/50
12 bit
1080i60/59.94/50
1080p30/29.97/25/24/23.98
1080PsF30/29.97/25/24/23.98
1080i60/59.94/50
1080p30/29.97/25/24/23.98
1080PsF30/29.97/25/24/23.98
1080i60/59.94/50
1080p30/29.97/25/24/23.98
1080PsF30/29.97/25/24/23.98
1080p24/23.98GBR 4:4:4 (2k) 12 bit
1080PsF24/23.98
Corresponding
Standards
SMPTE 372M
2048×1080
Ancillary DataSMPTE 291M
Embedded AudioSMPTE 299M
Format SettingAutomatic and manual
Automatic
3G-SDI, HD Dual LinkThe LV58SER06 detects the format information within the
payload ID (SMPTE 325M) and automatically sets the
format.
HD-SDI, SD-SDIThe LV 58SER06 determines the format from the input
signal's synchronization information and automatically
sets the format.
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ManualThe video signal format is set manually.
2.3.2Output Signal
3G-SDI A/B Output Connector
When Input Reclocking Is Selected
When Test Pattern Generation Is Selected
3G-SDI B Output Connector
When Input Reclocking Is Selected
When Test Pattern Generation Is Selected
2. SPECIFICATIONS
Transmits a reclocked version of the signal received by
the LV 5800's input channel, or transmits a reclocked
version of the signal received by input channel A
Generates a test pattern signal
Transmits a reclocked version of the signal received by
input channel B
Generates a test pattern signal
Test Pattern Signals
FormatYCBCR4:2:2
Corresponding StandardsSMPTE 424M and 425M
Patterns100 % color bars, 75% color bars,
Embedded AudioNot supported
Bitrate2.97 Gbps or 2.97/1.001 Gbps
Oscillation ClockDriven by the internal oscillator
2.3.3I/O Connectors
3G-SDI Input Connectors
Input Connectors2 BNC connectors
Single Link2 connections (channels A and B)
Dual Link1 connection (links A and B)
Input Impedance75 Ω
Input Return Loss15 dB or greater (5 MHz to 1.485 GHz)
Ach/Bch switchable or Ach fixed 1 system
Bch fixed 1 system
When Test Pattern Generation Is Selected
1 system
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Output Impedance75 Ω
Output Return Loss15 dB or greater (5 MHz to 1.485 GHz)
Output Voltage800 mVp-p ± 10 %
2.3.4Waveform Display
Waveform Operations
Display ModesOverlay (overlays component signals)
Blanking IntervalShow or hide
YCBCRto GBR ConversionConverts the YCBCRsignal to GBR and displays it
Pseudo-Composite DisplayDisplays component signals artificially as composite
Timing DisplayUses a bowtie signal; displays the computed Y-CBand
Channel AssignmentDisplayed in GBR or RGB order (when GBR converted
Line SelectDisplays the selected line
Display AdjustmentBrightness adjustment and waveform color selection
2. SPECIFICATIONS
10 dB or greater (1.485 to 2.97 GHz)
Parade (displays component signals side by side)
signals
Y-CRresults
signals are displayed)
(white, green, or multi color)
(Multi color is only available on the 1-screen display)
Vertical Axis
Scales
V Scale0 to 0.7 V, or -0.3 to 0.7 V
% Scale0 to 100 % or -50 to 100 %
Decimal Scale64 to 940 (YGBR) and 64 to 960 (CbCr)
Hexadecimal Scale040 to 3AC (YGBR) and 040 to 3C0 (CbCr)
Gain×1, ×5, or variable
Variable Gain×0.2 to ×10
Amplitude Accuracy±0.5 %
Frequency Response
3G-SDI, HD Dual Link (1080p/60, 1080p/59.94, and 1080p/50)
Y Signal±0.5 % (1 to 60 MHz)
CBCRSignal±0.5 % (0.5 to 30 MHz)
Low-Pass Attenuation20 dB or greater (at 40 MHz)
HD-SDI, HD Dual Link (Excluding 1080p/60, 1080p/59.94, and 1080p/50)
Y Signal±0.5% (1 to 3 0MHz)
CBCRSignal±0.5% (0.5 to 15 MHz)
Low-pass Attenuation20 dB or greater (at 20 MHz)
SD-SDI
Y Signal±0.5% (1 to 5.75 MHz)
CBCRSignal±0.5% (0.5 to 2.75 MHz)
Low-pass Attenuation20 dB or greater (at 3.8 MHz)
Magnification×1, ×10, ×20, ACTIVE, or BLANK
Field Display
Display Formats1V, 2V (Overlay)
1V, 2V, 3V (Parade)
Magnification×1, ×20, or ×40
Time Accuracy±0.5 %
Cursor Measurement
Composition
Horizontal Cursors2 (REF and DELTA)
Vertical Cursors2 (REF and DELTA)
Amplitude MeasurementPercentage, voltage, DEC, or HEX displays
Time MeasurementSecond display
Frequency MeasurementComputes and displays the frequency with the length of
one period set to the time between two cursors
2.3.5Vectorscope Display
Scale75 % or 100 % (color bar)
Gain×1, ×5, IQ-MAG, or variable
Variable Gain×0.2 to ×10
Amplitude Accuracy±0.5 %
IQ AxisShow or hide
Pseudo-Composite DisplayConverts component signals into composite signals with
Display AdjustmentBrightness adjustment and waveform color selection
Histogram DisplayDisplays the luminance distribution
2.3.65 Bar Display
Bar DisplayDisplays the YGBR component and composite gamut
Error Level Setting
Component GamutThe same as the gamut error
Composite GamutThe same as the composite gamut error
Frequency ResponseThe same as the gamut error
artificially added burst and displays the results
(The color matrix is converted to SDTV)
(white or green)
(When you are using line select, only the component
gamut of the selected line is detected)
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2. SPECIFICATIONS
2.3.7CIE Chromaticity Diagram Display
ScaleColor triangle, color scale, black-body radiation curve
Display ModeFull color gamut, magnified display of the vicinity of the
white point
Cursor MeasurementDisplay of xy chromaticity coordinates
Inverse Gamma Correction Value
2.2 or 2.6
Low Pass FilterOn or Off
Line SelectDisplays the xy chromaticity coordinates of the selected
line
2.3.8Picture Display
Display Format
3G-SDI, HD-SDI, HD Dual Link
Samples pixels and displays them (R, G, and B each use
8 bits)
SD-SDIDisplayed by interpolating pixels (R, G, and B each use 8
bits)
Marker DisplaysAspect marker, center marker,
safe action marker, and safe title marker
Gamut Error DisplayMarks the areas of the picture where there are gamut
errors
Line SelectMarks the selected line
Display SizesCompressed, full frame, and actual size display
Histogram DisplayDisplays the luminance distribution
AFD DisplayDisplays abbreviations for SMPTE 2016-1-2007 standard
AFD codes
Image Quality AdjustmentGBR level, contrast, and brightness
Simple Japanese Closed Caption Display
Displays simple Japanese closed caption on the picture
screen
Closed Caption FormatHD, SD, analog, or mobile phone closed captions
Language1 or 2
Corresponding StandardsARIB STD B-37 short form data
Video Formats1080i/59.94, 525i/59.94
Display Location ControlOnly HD and SD closed captions are supported.
Displayable CharactersOnly kanji, roman numerals, katakana, hiragana,
additional characters (ARIB STD-B24), additional kanji
(ARIB STD-B24), and 1-byte DRCS are displayed
Character SizesCharacter sizes set to standard, medium, or small, or
determined by a size specification code can be displayed
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2.3.9Status Display
SDI Signal Status Display
Signal DetectionDetects the presence of a SDI signal
FormatDisplays the video signal format
Embedded Audio Channel (*1)
SDI Signal Error Detection
CRC ErrorDetects 3G-SDI, HD-SDI, and HD dual link signal
EDH ErrorDetects SD-SDI signal transmission errors
Phase Difference Error in Dual Link
TRS ErrorDetects TRS location and protection bit errors
Illegal Code ErrorDetects data within the range of 000h to 003h and 3FCh to
Line Number ErrorDetects 3G-SDI, HD-SDI, and HD dual link signal line
2. SPECIFICATIONS
Indicates the embedded audio channels
transmission errors
Measures the phase difference between link A and link B
to detect the error. It will be made the error if phase
difference exceeds 100 clocks.
3FFh in locations other than the TRS and ADF headers
number errors
Ancillary Data Error Detection
Checksum ErrorDetects ancillary data transmission errors
Parity ErrorDetects ancillary data header parity errors
Image Quality Error Detection
Frequency ResponseRemoves transient gamut and composite gamut errors
due to overshoot and other anomalies
3G-SDI, HD-SDI, HD Dual Link
Approx. 1 MHz LPF (IEEE STD 205), approx. 2.8 MHz
LPF, or OFF
SD-SDIApprox. 1MHz LPF (EBU R103-2000) or OFF
Gamut ErrorDetects gamut errors
Upper Limit90.8 to 109.4%
Lower Limit-7.2 to 6.1 %
Area Specification0.0 to 5.0 %
Time Specification1 to 60 frames
Composite Gamut ErrorDetects level errors that occur when component signals
are converted to composite signals
Upper Limit90.0 to 135.0 %
Lower Limit-40.0 to 20.0 %
Area Specification0.0 to 5.0 %
Time Specification1 to 60 frames
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2. SPECIFICATIONS
Freeze Error (*2)Detects video freeze according to the specified time
Detection MethodChecksum of the video period
Time Specification2 to 300 flames
Black Error (*2)Detects blackouts in the video
Black Level Designation0 to 100 %
Area Specification1 to 100 %
Time Specification1 to 300 flames
Level Error (*2)Detects YCBCRlevel errors
Y Upper Limit-51 to 766 mV
Y Lower Limit-51 to 766 mV
CBCRUpper Limit-400 to 399 mV
CBCRLower Limit-400 to 399 mV
Embedded Audio Error Detection (*1)
BCH ErrorDetects transmission errors in the audio packets
embedded in 3G-SDI, HD-SDI, and HD dual link signals
Parity ErrorDetects parity errors in the audio packets embedded in
3G-SDI, HD-SDI, and HD dual link signals
DBN ErrorDetects audio packet continuity errors
Embedded Position ErrorDetects the presence of audio in lines where it should not
be embedded
Event Log
Recorded EventsErrors, changes in the input channel, and time stamps
*1 If the input signal is 3G-SDI level B, only stream 1 is supported. If the input signal is HD dual link, only
link A is supported.
*2 This is not supported when the input signal is 3G-SDI or HD dual link.
2.3.10Analysis Features
Data Dump Display
Display FormatDisplays data separated by serial data sequence or by
3G-SDI Level BStream 1, stream 2, both streams displayed at the same
Dual LinkLink A, link B, both links displayed at the same time
Line SelectDisplays the selected line
Sample SelectDisplays from the selected sample
Jump FeatureMoves to EAV or SAV with the press of a single button
Data OutputSaved in text format to USB memory
EDH Display
Corresponding StandardsSMPTE RP-165
Displayed ContentsAnalyzes and displays EDH packets and displays
Display DetailsDisplays audio control packet analysis
Display FormatsText, hexadecimal, and binary
Group SelectionSelect one group from four available groups
Closed Caption Display (*1)
Corresponding StandardsARIB STD-B37
Displayed ContentsAnalyzes and displays closed caption signals
Display FormatsText, hexadecimal, and binary
Inter-Stationary Control Signal (NET-Q) (*1)
Corresponding StandardsARIB STD-B39
Displayed ContentsAnalyzes and displays inter-stationary control signals
Display FormatsText, hexadecimal, and binary
Log FunctionLogs Q signals
Data Broadcasting Trigger Signal Display (*1)
Corresponding StandardsARIB STD-B35
Display FormatsText, hexadecimal, and binary
V-ANC User Data Display (*1)
Corresponding StandardsARIB TR-B23
Display FormatsHexadecimal and binary
ADF Packet Display (*1)
Corresponding StandardsSMPTE 2016-1-2007
Display FormatsText, hexadecimal, and binary
ANC Packet Display (*2)
ANC Specification Method:DID/SDID
Display FormatsHexadecimal and binary
Time Code Display (*2)
Supported Time CodesLTC (SMPTE 12M-2), VITC (SMPTE 12M-2), and
D-VITC (SMPTE 266M)
Display ModeThe instrument's internal clock or the time code
*1 This is not supported when the input signal is 3G-SDI or HD dual link.
*2 If the input signal is 3G-SDI level B, only stream 1 is supported. If the input signal is HD dual link, only
• Presence of the closed caption packet and validity
• Presence of the caption service information packet and
validity
• Presence of the future data packet
Time code (when the time code packet is available)
Closed caption data (when the closed caption packet is
available and is valid)
Presence of CC1 to CC4, TEXT1 to TEXT4, and XDS
packet
Copy management information
AC3 Audio Descriptor
Caption Service Descriptor
Content Advisory Descriptor
Extended Channel Name Descriptor
Service Location Descriptor
Time-Shifted Service Descriptor
Component Name Descriptor
DCC Departing Request Descriptor
DCC Arriving Request Descriptor
Redistribution Control Descriptor
2.3.12Phase Difference Display
Display
Phase Difference Measurement
Phase Difference Measurement in Dual Link
Displays the phase difference between the SDI signal and
external sync signal numerically and graphically
Holds and displays eight phase difference values being
measured
Displays the phase difference between link A and link B in
terms of parallel clocks number
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External Synchronization Signal HD tri-level sync signal or B. B signal
Display Range
V DirectionApproximately ±1/2 frame
H Direction (*1)±1 line
*1 The H axis phase difference display may fluctuate within the following ranges in cases such as when
the signal is switched.
±3 clocks (for 3G-SDI level A, HD-SDI, SD-SDI, and HD dual link signals)
±6 clocks (for 3G-SDI level B signals)
2.3.13Embedded Audio Processing
Clock GenerationGenerated from the video clock
SynchronizationAll audio channels must be synchronized to the video
PhasesAll phases must be in-sync
Channel SeparationYou may select a maximum of 4 groups of 16 channels
2. SPECIFICATIONS
clock
each (for 3G-SDI level B signals, only stream 1 is
supported; for HD dual link signals, only link A is
supported)
*You need an LV 58SER40A (DIGITAL AUDIO) unit to display and generate audio.
2.3.14Frame Capture Feature
FunctionCaptures frame data
Capture TimingManual and automatic (error capture)
DisplayDisplays the captured frame data or superimposes the
MediaInternal memory (RAM) and USB memory
Data OutputFrame captures can be saved to USB memory as .dpx
Data InputData saved to USB memory can be loaded and displayed
Error CapturingAutomatically captures frame data when an error occurs
*1 This cannot be displayed if the input signal is not the same format as the captured data.
2.3.15General Specifications
captured frame data over the input signal
You can only record one frame of data to the internal
memory
files, .tif files, or in a file format that the instrument can
load
on the instrument (*1)
Environmental ConditionsConforms to those for the LV 5800
Power ConsumptionSupplied from the LV 5800; 18 W max.
Weight0.24 kg
These are the SDI signal input connectors. To switch to a particular measurement channel,
press A or B on the front panel.
When Input Mode is set to Single Input in the unit setup, all input formats are supported,
but you cannot monitor channels A and B at the same time.
When Input Mode is set to Simultaneous Input, you can monitor channels A and B at the
same time, but 3G-SDI and HD dual link signals are not supported.
Reference: Section 4.2, “SDI Signal Input,” and section 5.2, ”General Setup (GENERAL SETUP)”
2OUTPUT 3G-SDI A/B
This is an output connector for a reclocked input signal or a test pattern signal.
When you have selected to transmit a reclocked input signal, you can press the A or B key
on the front panel to choose to transmit the reclocked INPUT 3G-SDI A or INPUT 3G-SDI
B signal. When Input Mode is set to Simultaneous Input in the unit setup, you can also
transmit a fixed reclocked version of the signal that is applied to INPUT 3G-SDI A.
When you have selected to transmit a test pattern signal, a 3G-SDI test pattern signal is
transmitted from this connector.
Reference: Section 4.3, “SDI Signal Output,” section 5.2, “General Setup (GENERAL SETUP),” and
section 5.3, “Output Setup (SDI OUT SETUP)”
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3OUTPUT 3G-SDI B
This is an output connector for a reclocked input signal or a test pattern signal.
When you have selected to transmit a reclocked input signal, the reclocked INPUT
3G-SDI B signal is transmitted from this connector.
When you have selected to transmit a test pattern signal, a 3G-SDI test pattern signal is
transmitted from this connector.
Reference: Section 4.3, “SDI Signal Output,” and section 5.3, “Output Setup (SDI OUT SETUP)”
3.2Display Screen
This section explains the information about this unit that appears on the top of the screen.
3. NAMES AND FUNCTIONS OF PARTS
Figure 3-2 Display screen
1Format
The input signal's scanning and frame (field) rate appear here.
2Link format
The input signal format—3GA, 3GB, D, or a blank—appears here.
3Color system
The color system and quantization (only when the signal is 3G-SDI or HD dual link)
appear here.
4Input signal
The selected unit/channel appear here.
5Sync signal
When the measurement mode is set to WFM, VECT, PIC, or STATUS, the sync signal
type—INT or EXT—appears here. However, when the input signal is 3G-SDI, the sync
signal type is fixed to INT, and nothing appears here (for all displays excluding the phase
difference display).
When the measurement mode is AUDIO and this unit is selected, EMB appears.
6Time
The time that you have selected for Time Code in the unit setup appears here.
The LV 58SER06 is an input unit. Refer to the LV 5800 instruction manual, and install the LV
58SER06 in a slot from 1 to 4. You can install up to four LV 58SER06 units.
• Installing the Unit in the LV 7800
For the LV 7800, the LV 58SER06 is a factory option. You cannot install or uninstall units.
Contact your local LEADER agent. You can install up to four LV 58SER06 units.
4.2SDI Signal Input
The signals that can be applied vary (as shown below) depending on the Input Mode setting in
the unit setup. Apply a signal with an appropriate format to the LV 58SER06.
The input connectors are terminated internally at 75 Ω, so there is no need to connect
terminators to them.
Connect each of the external reference input connectors to a cable with a characteristic
impedance of 75 Ω. If you use a cable longer than 70 m, errors may occur as a result of signal
degradation.
It has been confirmed that errors do not occur when the LV 5800 receives an 800 mVp-p stress
pattern through the following cables.
3G-SDI:LS-5CFB cable, 70 m
HD-SDI:LS-5CFB cable, 110 m
SD-SDI:L-5C2V cable, 260 m
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4.3SDI Signal Output
The signals that can be transmitted vary (as shown below) depending on the settings in the
unit setup. Regardless of the types of signals that are transmitted, connect the signals to SDI
compatible picture monitors or other devices. You must terminate the receiving connectors at
75 Ω.
SDI OUT → Section 5.3, “Output Setup (SDI OUT SETUP)”
Table 4-2Output Signal
A/Bch OutputBch Output
Single Input
Input
Input ThroughInput ThroughINPUT A/BINPUT B
Input Through3G Test SignalINPUT A/B3G Test Signal
3G Test SignalInput Through3G Test SignalINPUT B
3G Test Signal3G Test Signal
Cannot be set
4. BEFORE YOU BEGIN MEASURING
Unit Setup SettingsOutput Signal
SDI OUTInput Mode
SDI Select
Output
Cannot be set
Ach/BchINPUT A/BINPUT BSimultaneous
AchINPUT AINPUT B
OUTPUT A/BOUTPUT B
3G Test Signal3G Test Signal
4.3.1Reclocked Input Signal Output
You can transmit reclocked input signals by setting SDI OUT to Input Through in the unit
setup.
The OUTPUT 3G-SDI A/B connector transmits the reclocked version of the signal that has
been received by the connector, either INPUT 3G-SDI A or INPUT 3G-SDI B, that you
choose by pressing the A or B key on the front panel. When Input Mode is set to
Simultaneous Input in the unit setup, you can also transmit a fixed reclocked version of the
signal that is applied to INPUT 3G-SDI A.
The OUTPUT 3G-SDI B connector transmits the reclocked version of the signal that has
been received by INPUT 3G-SDI B.
You can transmit 3G-SDI test pattern signals by setting SDI OUT to Test Signal in the unit
setup.
You can select from eight test patterns. You can also choose to switch between patterns
automatically.
Applying a signal to an input connector will increase the timing jitter in the output signal.
Do not apply a signal to an input connector when you want to keep the timing jitter to a value
within the range specified by SMPTE 424M.
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4. BEFORE YOU BEGIN MEASURING
4.4Switching Input Channels
To switch to a particular input channel, press A or B on the front panel. If you have set SDI
Select Output to Ach/Bch or A/Bch Output to Input Through in the unit setup, the signal for the
channel that you have selected is transmitted.
If you set Input Mode to Single Input in the unit setup, you cannot monitor channels A and B
simultaneously. If you switch the input channel within a selected area, the input channel will
also be switched in all the areas that are displaying the signal of the unit whose input channel
you switched.
4.5External Sync Signal Input
On the video signal waveform display,(*1) vector display,(*1) and status display (phase
difference display), you can display waveforms by applying an external sync signal. Apply an
external sync signal to an external sync signal input connector, and then press EXT on the
front panel. The LV 5800 determines the sync signal format automatically.
As shown in the figure below, the external sync signal input connectors are loop-through. Apply
the input signal to one of the two connectors, and terminate the other connector at 75 Ω, or
connect it to another 75 Ω device. If you connect to another device, be sure to terminate the
device at the end of the chain at 75 Ω. Connect cables with a characteristic impedance of 75 Ω
to the input connectors.
Figure 4-1 Loop Through
If you display the phase difference between the external sync signal (the reference) and the
video signal waveform, the phase difference may fluctuate within the following ranges in cases
such as when the signal is switched.
±3 clocks (for 3G-SDI level A, HD-SDI, SD-SDI, and HD dual link signals)
±6 clocks (for 3G-SDI level B signals)
*1 When the input signal is 3G-SDI, you cannot display waveforms using an external sync signal You can
only use the internal sync signal.
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4. BEFORE YOU BEGIN MEASURING
External sync signals that are compatible with each input signal are indicated with a check
mark in the following table.
Table 4-3External sync signal formats
Input Signal Format
525i/59.94
625i/50
1080i/60
1080i/59.94
1080i/50
1080PsF/30
1080PsF/29.97
1080PsF/25
1080PsF/24
1080PsF/23.98
1080p/30
1080p/29.97
1080p/25
1080p/24
1080p/23.98
720p/60
720p/59.94
720p/50
720p/30
720p/29.97
720p/25
720p/24
720p/23.98
NTSC with 10 field ID
(59.94Hz)(*2)
NTSC (59.94Hz)
PAL (50Hz)
1080i/60
1080i/59.94
1080i/50
1080PsF/30
1080PsF/29.97
1080PsF/25
1080PsF/24
1080PsF/23.98
1080p/30
1080p/29.97
1080p/25
1080p/24
External Sync Signal Format
1080p/23.98
720p/60
720p/59.94
720p/50
720p/30
720p/29.97
720p/25
720p/24
720p/23.98
1080p/60 (*1)
1080p/59.94 (*1)
1080p/50 (*1)
*1 You cannot use the external sync signal to display the video signal waveform display and vector display.
*2 If the input signal is 1080PsF/23.98 or 1080p/23.98, the 10 field ID is automatically detected.
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5.UNIT SETUP
In the unit setup, you can specify the input format, error detection settings, and other settings for
individual units. If there is more than one LV 58SER06 installed in the LV 5800, you must set
each LV 58SER06 individually.
The settings that you configure in the unit setup apply to both LV 58SER06 channels (A and B).
You cannot configure settings for each channel individually.
To open the unit setup, in the system menu, press F•1 UNIT SETUP, and then press the function
key (F•1 to F•4) of the unit number that corresponds to the slot that the LV 58SER06 is installed
in.
SYS → F•1 UNIT SETUP →
Figure 5-1 UNIT SETUP menu
5. UNIT SETUP
5.1Tab Menu Operations
You can usually use the function menu to change the settings, but the unit setup settings
appear on a tab menu.
The list below explains how to perform different operations in the tab menu.
• To Move the Cursor
Turn the function dial (F•D). Depending on what you are setting, you may not be able to
move the cursor.
• To Change the Tab
Press F•2 PREV or F•3 NEXT. Even if you switch to another tab, the settings are not
confirmed until you press F•1 COMPLETE.
• To Select a Checkbox
Press the function dial (F•D).
• To Enter a Value
When you push the function dial (F•D), the color of the cursor changes from blue to green,
and you can set the value by turning the function dial (F•D). To confirm the value that you
have set, press the function dial (F•D) again.
• To Apply the Tab Settings
Press F•1 COMPLETE to apply the settings from all the tabs and return to the screen that is
one level up.
• To Cancel the Tab Settings
Press F•7 CANCEL to cancel the settings from all the tabs and return to the screen that is
one level up.
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5. UNIT SETUP
5.2General Setup (GENERAL SETUP)
In the GENERAL SETUP tab, configure input mode, input signal format, and time code
settings.
Figure 5-2 GENERAL SETUP display
• Input Mode
Select the input mode. When you switch to a different input mode, “System reconfiguration”
is displayed. It takes a few seconds for the input mode to be applied to the LV 5800.
Single Input:All input formats are supported, but channels A and B cannot be
monitored at the same time. The transmitted signal is a reclocked
version of the input signal or a 3G-SDI test pattern. This is the
default setting.
Simultaneous Input:SD-SDI and HD-SDI input signals are supported. Channels A and B
can be monitored at the same time. The transmitted signal is a
reclocked version of the input signal.
• Auto/Manual
Select the method for detecting the format.
Auto:The format is automatically detected from the input signal.
If the input signal is 3G-SDI or HD dual link, the format is automatically
detected from the payload ID (SMPTE 325M). If there is no payload ID, the
format indicated by the payload ID is not supported by the LV 58SER06, or the
format indicated by the payload ID is different from the detected format of the
input signal, “UNKNOWN” appears as an error message. This is the default
setting.
Manual:You must set the format manually. If the format that you set is different from the
detected format of the input signal, the error message “UNKNOWN” appears.
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5. UNIT SETUP
• i/PsF Select
When Auto/Manual is set to Auto, select the display format for the following input formats.
This setting cannot be chosen when Auto/Manual is set to Manual.
• 1080i/60 and 1080PsF/30
• 1080i/59.94 and 1080PsF/29.97
• 1080i/50 and 1080PsF/25
Interlace:The input format is displayed as interlaced. This is the default
setting.
Segmented Frame:The input format is displayed as segmented frame.
• Format
When Auto/Manual is set to Manual, select the input format. This setting cannot be chosen
when Auto/Manual is set to Auto.
The combinations shown below are the formats that you can select. (The cells in the table
that are shaded in are fixed values. You cannot change these settings.) If you specify a
format that is not one of the following combinations, “ILLEGAL FORMAT” will be displayed.
Specify a correct format.
When Input Mode is set to Simultaneous Input, Link Format is set to HD or SD.
*1 Note that when i/PsF Select is set to Interlace, the frame rate is displayed. For example, if the field rate
is 59.94, set the frame rate to 29.97.
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5. UNIT SETUP
• Time Code
Select the type of clock that you want to display in places such as the top of the screen and
the event log.
Real Time:The time set in the system settings is displayed. This is the default setting.
LTC:The LTC timecode embedded in the input signal is displayed.
VITC:The VITC timecode embedded in the input signal is displayed.
D-VITC:The D-VITC timecode embedded in the input signal is displayed. D-VITC
timecodes are enabled when the input signal is SD-SDI.
• SDI Select Output
When Input Mode is set to Simultaneous Input, select the signal that is transmitted from
OUTPUT A/B. This setting cannot be chosen when Input Mode is set to Single Input.
Ach/Bch:The OUTPUT A/B connector transmits the reclocked version of the signal that
has been received by the connector, either INPUT A or INPUT B, that you
choose by pressing the A or B key on the front panel.
Ach:The OUTPUT A/B connector transmits the reclocked version of the signal that
has been received by the INPUT A connector. This is the default setting.
5.3Output Setup (SDI OUT SETUP)
In the SDI OUT SETUP tab, configure settings for the LV 58SER06 output connectors.
When Input Mode is set to Simultaneous Input, this tab is not displayed. The transmitted signal
is a reclocked version of the input signal.
Figure 5-3 SDI OUT SETUP display
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5. UNIT SETUP
• A/Bch Output
You can select what kind of signal to transmit from the 3G-SDI A/B output connector.
Input Through:The OUTPUT 3G-SDI A/B connector transmits the reclocked version of
the signal that has been received by the connector, either INPUT
3G-SDI A or INPUT 3G-SDI B, that you choose by pressing the A or B
key on the front panel. This is the default setting.
3G Test Signal:The OUTPUT 3G-SDI A/B connector transmits a 3G-SDI test pattern
signal.
• Bch Output
You can select what kind of signal to transmit from the 3G-SDI B output connector.
Input Through:The OUTPUT 3G-SDI B connector transmits the reclocked version of
the signal that has been received by the INPUT 3G-SDI B connector.
This is the default setting.
3G Test Signal:The OUTPUT 3G-SDI B connector transmits a 3G-SDI test pattern
signal.
• 3G-Level
Select the SMPTE 425M-specified level (level A or level B). The test pattern's transmission
structure varies depending on the level.
A or B. The default setting is B.
• Frame Rate
Select the test pattern signal frame rate.
60, 59.94 (default setting), or 50
• Pattern
Select the test pattern signal output pattern. You cannot select an output pattern when
Pattern Change is set to ON.
100% Color Bar:100 % color bar (100 % white, 100 % saturation). This is the default
setting.
75% Color Bar:75 % color bar (100 % white, 75 % saturation)
100 % White:100 % white
50 % White:50 % white
Black:Black
Check Field:Check field pattern (EQ + PLL)
EQ:Equalizer test pattern
PLL:PLL test pattern
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5. UNIT SETUP
• Pattern Change
You can select whether or not to automatically switch the test pattern.
OFF:The test pattern is not automatically switched. This is the default setting.
ON:The test pattern is automatically switched.
You can set the switching time within the range of 5 to 300 frames.
(Default setting: 30 frames.)
For example, if the frame rate is 60 and you set the switching time to 30 frames,
the pattern will switch every 0.5 seconds when the 3G-Level is A or every
second when the level is B.
5.4Error Setup 1 (ERROR SETUP1)
In the ERROR SETUP1 tab, configure SDI error detection settings.
Figure 5-4 ERROR SETUP1 display
• TRS Error
Select whether or not to detect TRS Pos and TRS Code errors.
ON or OFF. The default setting is ON.
• Line Number Error
Select whether or not to detect line number errors. This setting is valid when the input signal
is 3G-SDI, HD-SDI, or HD dual link.
ON or OFF. The default setting is ON.
• CRC Error
Select whether or not to detect CRC errors. This setting is valid when the input signal is
3G-SDI, HD-SDI, or HD dual link.
ON or OFF. The default setting is ON.
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5. UNIT SETUP
• EDH Error
Select whether or not to detect EDH errors. This setting is valid when the input signal is
SD-SDI.
ON or OFF. The default setting is ON.
• Illegal Code Error
Select whether or not to detect illegal code errors.
ON or OFF. The default setting is ON.
5.5Error Setup 2 (ERROR SETUP2)
In the ERROR SETUP2 tab, configure ancillary data and embedded audio error detection
settings.
Figure 5-5 ERROR SETUP2 display
• Parity Error
Select whether or not to detect parity errors in the ancillary data.
ON or OFF. The default setting is ON.
• Checksum Error
Select whether or not to detect checksum errors in the ancillary data.
ON or OFF. The default setting is ON.
• BCH Error
Select whether or not to detect BCH errors in the embedded audio. This setting is valid when
the input signal is 3G-SDI, HD-SDI, or HD dual link.
ON or OFF. The default setting is ON.
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5. UNIT SETUP
• DBN Error
Select whether or not to detect DBN errors in the embedded audio.
ON or OFF. The default setting is ON.
• Parity Error
Select whether or not to detect parity errors in the embedded audio. This setting is valid
when the input signal is 3G-SDI, HD-SDI, or HD dual link.
ON or OFF. The default setting is ON.
• Inhibit Line Error
Select whether or not to detect embedding errors in the embedded audio.
ON or OFF. The default setting is ON.
5.6Error Setup 3 (ERROR SETUP3)
In the ERROR SETUP3 tab, configure gamut error settings.
Figure 5-6 ERROR SETUP3 display
• LowPass Frequency
Select the frequency response of the low-pass filter used for gamut error and composite
gamut error detection.
Set the low-pass frequency to remove transient errors caused by overshoot and other
anomalies.
ALL:1MHz:A 1 MHz low-pass filter is applied (IEEE STD 205).
This is the default setting.
SD:1MHz Others:2.8MHz:When the input signal is SD-SDI, a 1 MHz low-pass filter is
applied. For all other signals, a 2.8 MHz low-pass filter is
applied.
OFF:No low-pass filter is applied.
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5. UNIT SETUP
• Gamut Error
Select whether or not to detect gamut errors.
ON or OFF. The default setting is ON.
• Gamut Upper
Set the gamut error upper limit. An error occurs when the input signal level exceeds the
specified value.
In the 5 bar GBR display, levels that exceed the specified value are displayed in red.
90.8 to 109.4 % (default setting: 109.4 %)
• Gamut Lower
Set the gamut error lower limit. An error occurs when the input signal level goes below the
specified value.
In the 5 bar GBR display, levels that go below the specified value are displayed in red.
-7.2 to 6.1 % (default setting: -7.2 %)
• Area
Specify the percentage of the active picture area over which errors must occur to be
recognized. You cannot configure this setting when Gamut Error is set to OFF.
0.0 to 5.0 % (default setting: 0.1 %)
• Duration
Set the number of consecutive frames over which errors must occur to be recognized. You
cannot configure this setting when Gamut Error is set to OFF.
1 to 60 frames (default setting: 1 frame)
• Composite Gamut Error
Select whether or not to detect composite gamut errors.
ON or OFF. The default setting is ON.
• Setup
Select the setup level to add when converting component signals to composite signals.
0%:No setup level is added. This is the default setting.
7.5%:A setup level of 7.5 % is added.
• Composite Upper
Set the composite gamut error upper limit. An error occurs when the input signal level
exceeds the specified value.
In the 5 bar CMP display, levels that exceed the specified value are displayed in red.
90.0 to 135.0 % (default setting: 135.0 %)
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5. UNIT SETUP
• Composite Lower
Set the composite gamut error lower limit. An error occurs when the input signal level goes
below the specified value.
In the 5 bar CMP display, levels that go below the specified value are displayed in red.
-40.0 to 20.0 % (default setting: -40 %)
• Area
Specify the percentage of the active picture area over which errors must occur to be
recognized. You cannot configure this setting when Composite Gamut Error is set to OFF.
0.0 to 5.0 % (default setting: 0.1 %)
• Duration
Set the number of consecutive frames over which errors must occur to be recognized. You
cannot configure this setting when Composite Gamut Error is set to OFF.
1 to 60 frames (default setting: 1 frame)
5.7Error Setup 4 (ERROR SETUP4)
In the ERROR SETUP4 tab, configure freeze error and black error settings.
The settings that you configure here are valid when the input signal is HD-SDI or SD-SDI.
Figure 5-7 ERROR SETUP4 display
• Freeze Error
Select whether or not to detect freeze errors.
ON or OFF. The default setting is OFF.
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5. UNIT SETUP
• Area Upper, Area Lower, Area Left, and Area Right
Set what percent of each active picture area (the upper, lower, left, and right areas) will not
be subject to error detection. You cannot configure this setting when Freeze Error is set to
OFF.
0 to 100 % (default setting: 0 %)
• Duration
Set the number of consecutive frames over which errors must occur to be recognized. You
cannot configure this setting when Freeze Error is set to OFF.
2 to 300 Frames (default setting: 2 Frames)
• Black Error
Select whether or not to detect black errors.
ON or OFF. The default setting is OFF.
• Level
Set the black error level. Any signals that are less than or equal to the specified value will be
detected as errors. You cannot configure this setting when Black Error is set to OFF.
0 to 100% (default setting: 0 %)
• Area
Specify the percentage of the active picture area over which errors must occur to be
recognized. You cannot configure this setting when Black Error is set to OFF.
1 to 100 % (default setting: 100 %)
• Duration
Set the number of consecutive frames over which errors must occur to be recognized. You
cannot configure this setting when Black Error is set to OFF.
1 to 300 Frames (default setting: 1 Frames)
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5. UNIT SETUP
5.8Error Setup 5 (ERROR SETUP5)
In the ERROR SETUP5 tab, configure level error settings.
The settings that you configure here are valid when the input signal is HD-SDI or SD-SDI.
Figure 5-8 ERROR SETUP5 display
• Level Error
Select whether or not to detect level errors.
ON or OFF. The default setting is OFF.
• Luminance Upper
Set the luminance error upper limit. An error occurs when the input signal level exceeds the
specified value. You cannot configure this setting when Level Error is set to OFF.
-51 to 766 mV (default setting: 766 mV)
• Luminance Lower
Set the luminance error lower limit. An error occurs when the input signal level goes below
the specified value. You cannot configure this setting when Level Error is set to OFF.
-51 to 766 mV (default setting: -51 mV)
• Chroma Upper
Set the chroma error upper limit. An error occurs when the input signal level exceeds the
specified value. You cannot configure this setting when Level Error is set to OFF.
-400 to 399 mV (default setting: 39 mV)
• Chroma Lower
Set the chroma error lower limit. An error occurs when the input signal level goes below the
specified value. You cannot configure this setting when Level Error is set to OFF.
-400 to 399 mV (default setting: -400 mV)
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6. VIDEO SIGNAL WAVEFORM DISPLAY
6.VIDEO SIGNAL WAVEFORM DISPLAY
To display video signal waveforms, press the WFM key on the front panel.
Figure 6-1 Video signal waveform display
6.1Setting the Waveform Display Position
Use the V POS and H POS knobs on the front panel to adjust the display position of video
signal waveforms.
LV 5800LV 7800
Figure 6-2 V POS and H POS knobs
• V POS Knob
Adjusts the vertical position of the video signal waveform.
Pressing the knob returns the waveform to its default position.
• H POS Knob
Adjusts the horizontal position of the video signal waveform.
Pressing the knob returns the waveform to its default position.
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6. VIDEO SIGNAL WAVEFORM DISPLAY
6.2Setting the Display Mode
The video signal waveform display mode changes each time you press OVLAY on the front
panel.
When the OVLAY key is lit, the display mode is Overlay (waveforms are overlaid), when the
OVLAY key is not lit, the display mode is Parade (waveforms are shown side by side). The
default setting is parade mode.
This setting is invalid when COLOR MATRIX is set to COMPOSITE or when the timing display
or 4Y parade display is in use.
Reference: COLOR MATRIX → Section 6.9.1, “Selecting the Color Matrix”
LV 5800LV 7800
Figure 6-3 OVLAY key
OVLAY = ONOVLAY = OFF
Figure 6-4 Overlay and parade displays
6.3Selecting Which Channels to Display
Pressing a key from CH1 to CH3 turns on and off the display of the video signal waveform
assigned to that key. The video signal waveform display is on when a key is lit and off when the
key is not lit. By default, all of the video signal waveform displays are on.
This setting is invalid when COLOR MATRIX is set to COMPOSITE, when YGBR or YRGB is
set to ON, or when the timing display or 4Y parade display is in use. You cannot turn the
displays for all the keys off.
Reference: COLOR MATRIX → Section 6.9.1, “Selecting the Color Matrix”
Waveforms are assigned to the CH1 to CH3 keys as indicated below.
Table 6-1Waveform assignments
COLOR MATRIXCH 1CH 2CH 3
YCbCrYCbCr
GBRGBR
RGBRGB
6.4Configuring the Intensity and Scale Settings
To configure the intensity and scale settings, press F•1 INTEN / SCALE in the video signal
waveform menu.
You can set the intensities and display colors of the video signal waveforms and scales.
WFM → F•1 INTEN / SCALE →
Figure 6-6 INTEN/SCALE menu
6.4.1Adjusting the Waveform Intensity
To adjust the video signal waveform intensity, follow the procedure shown below.
Press the function dial (F•D) to return the setting to its default value (0).
• Procedure
WFM → F•1 INTEN / SCALE → F•1 WFM INTEN
• Settings
Range:-128 to 127 (default setting: 0)
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6. VIDEO SIGNAL WAVEFORM DISPLAY
6.4.2Selecting the Waveform Color
To select the video signal waveform color, follow the procedure shown below.
• Procedure
WFM → F•1 INTEN / SCALE → F•2 WFM COLOR
• Settings
WHITE:The video signal waveforms are displayed in white. This is the default setting.
GREEN:The video signal waveforms are displayed in green.
Waveforms are displayed in white when PERSISTENCE is set to ON or
INFINIT.
MULTI:The following colors are assigned to the YCbCr and GBR component
waveforms.
Y: yellow, Cb: cyan, Cr: magenta, G: green, B: blue, R: red
When COLOR MATRIX is set to COMPOSITE or when the timing display or 4Y
parade display is in use, the video signal waveforms are displayed in white.
This option is not selectable when the multi screen display is in use.
6.4.3Adjusting the Scale Intensity
To adjust the scale intensity, follow the procedure shown below.
Press the function dial (F•D) to return the setting to its default value (4).
• Procedure
WFM → F•1 INTEN / SCALE → F•3 SCALE INTEN
• Settings
Range:-8 to 7 (default setting: 4)
6.4.4Selecting the Scale Unit
To select the scale unit, follow the procedure shown below.
When COLOR MATRIX is set to COMPOSITE, the unit for NTSC signals will be set to % and
the unit for PAL signals will be set to V, regardless of the unit you choose here.
White 100 % on the video signal will fall on the 0.7 V or 100 % scale line.
Black 0 % on the video signal will fall on the 0 V or 0 % scale line.
Reference: COLOR MATRIX → Section 6.9.1, “Selecting the Color Matrix”
• Procedure
WFM → F•1 INTEN / SCALE → F•4 SCALE UNIT
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6. VIDEO SIGNAL WAVEFORM DISPLAY
• Settings
V:The scale shows voltages. This setting cannot be chosen when the input signal
is HD-SDI or SD-SDI. This is the default setting.
%:The scale shows percentages. This setting cannot be chosen when the input
signal is HD-SDI or SD-SDI.
HDV, SD%: The scale shows voltages when the input signal is HD-SDI and percentages
when the input signal is SD-SDI.
This setting cannot be chosen when the input signal is 3G-SDI or HD dual link.
HDV, SDV:The scale shows voltages. This setting cannot be chosen when the input signal
is 3G-SDI or HD dual link.
HD%, SD%: The scale shows percentages. This setting cannot be chosen when the input
signal is 3G-SDI or HD dual link.
150%:The scale shows percentages. (Starting from -50 %.) This setting cannot be
selected when COLOR MATRIX is set to YCbCr or COMPOSITE.
1023:The scale shows 0 to 100 % as 64 to 940 (YGBR) or 64 to 960 (CbCr).
This setting cannot be chosen when COLOR MATRIX is set to COMPOSITE.
3FF:The scale shows 0 to 100 % as 040 to 3AC (YGBR) or 040 to 3C0 (CbCr).
This setting cannot be chosen when COLOR MATRIX is set to COMPOSITE.
SCALE UNIT = VSCALE UNIT = %
SCALE UNIT = 150%SCALE UNIT = 1023
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6. VIDEO SIGNAL WAVEFORM DISPLAY
SCALE UNIT = 3FF
Figure 6-7 Selecting the scale unit
6.4.5Displaying a Scale for 75 % Intensity Color Bars
To display a scale that matches the peak levels of the color difference signals for 75 %
intensity color bars, follow the procedure shown below.
This menu item appears when COLOR MATRIX is set to YCbCr.
Reference: COLOR MATRIX → Section 6.9.1, “Selecting the Color Matrix”
• Procedure
WFM → F•1 INTEN / SCALE → F•5 75%COLOR SCALE
• Settings
ON:A scale for 75 % intensity color bars is displayed.
OFF:A scale for 75 % intensity color bars is not displayed. This is the default setting.
75%COLOR SCALE = ON75%COLOR SCALE = OFF
Figure 6-8 Displaying a scale for 75 % intensity color bars
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6. VIDEO SIGNAL WAVEFORM DISPLAY
6.4.6Selecting the Scale Color
To select the scale color, follow the procedure shown below.
• Procedure
WFM → F•1 INTEN / SCALE → F•6 SCALE COLOR
• Settings
WHITE:The scale is displayed in white.
YELLOW:The scale is displayed in yellow. This is the default setting.
CYAN:The scale is displayed in cyan.
GREEN:The scale is displayed in green.
MAGENTA: The scale is displayed in magenta.
RED:The scale is displayed in red.
BLUE:The scale is displayed in blue.
6.5Gain and Sweep Settings
To set the gain and sweep, press F•2 GAIN/SWEEP in the video signal waveform menu.
You can configure the video signal waveform magnification.
WFM → F•2 GAIN / SWEEP →
Figure 6-9 GAIN / SWEEP menu
6.5.1Selecting the Fixed Gain
To select the fixed video signal waveform gain, follow the procedure shown below.
• Procedure
WFM → F•2 GAIN / SWEEP → F•2 GAIN MAG
• Settings
X1:Waveforms are displayed at ×1 magnification. This is the default setting.
X5:Waveforms are displayed at ×5 magnification.
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6. VIDEO SIGNAL WAVEFORM DISPLAY
6.5.2Setting the Variable Gain
To set the video signal waveform gain, follow the procedure shown below.
• Procedure
WFM → F•2 GAIN / SWEEP → F•1 GAIN VARIABLE
• Settings
CAL:The gain is fixed. This is the default setting.
VARIABLE: You can adjust the waveform gain by turning the function dial (F•D). Press the
function dial (F•D) to return the setting to its default value (1.000 or 5.000).
The adjusted gain value (the combination of F•1 GAIN VARIABLE and F•2
GAIN MAG) appears in the upper right of the screen.
0.200 to 2.000 (when GAIN MAG = ×1)
1.000 to 10.000 (when GAIN MAG = ×5)
GAIN MAG = X5 / GAIN VARIABLE = CALGAIN MAG = X1 / GAIN VARIABLE = VARIABLE
6.5.3Selecting the Sweep Method
To select the video signal waveform sweep method, follow the procedure shown below.
• Procedure
WFM → F•2 GAIN / SWEEP → F•3 SWEEP
• Settings
H:Lines are displayed. This is the default setting.
V:Fields or frames are displayed. Because the sampled data is downsampled,
aliasing distortion occurs.
SWEEP = HSWEEP = V
Figure 6-10 Gain settings
Figure 6-11Selecting the sweep method
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6. VIDEO SIGNAL WAVEFORM DISPLAY
6.5.4Selecting the Line Display Format
To select the line display sweep time, follow the procedure shown below.
When the OVLAY key is not lit (Parade display), this setting is fixed at 1H and does not
appear on the menu.
• Procedure
WFM → F•2 GAIN / SWEEP → F•5 H_SWEEP
• Settings
1H:The sweep time is set to that of one line. This is the default setting.
2H:The sweep time is set to that of two lines.
H_SWEEP = 1HH_SWEEP = 2H
Figure 6-12 Selecting the line display format
6.5.5Selecting the Field Display Format
To select the field display sweep time, follow the procedure shown below.
When the OVLAY key is not lit (when the parade display is in use) or when the input signal is
progressive, this setting is fixed at 1V and does not appear on the menu.
• Procedure
WFM → F•2 GAIN / SWEEP → F•5 V_SWEEP
• Settings
1V:The sweep time is set to that of one field. This is the default setting.
2V:The sweep time is set to that of one frame.
V_SWEEP = 1VV_SWEEP = 2V
Figure 6-13 Selecting the field display format
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6. VIDEO SIGNAL WAVEFORM DISPLAY
In addition, when F•5 V_SWEEP is set to 1V, follow the procedure shown below to select
which field is displayed.
• Procedure
WFM → F•2 GAIN / SWEEP → F•6 FIELD
• Settings
FIELD1:Field 1 is displayed. This is the default setting.
FIELD2:Field 2 is displayed.
6.5.6Selecting the Horizontal Magnification
To select the horizontal magnification, follow the procedure shown below. The magnifications
that you can select vary as shown below depending on how you configure settings such as
COLOR MATRIX.
X1:The video signal waveforms are displayed so that they fit in the screen. This is
the default setting.
X10:The waveforms are magnified from the center of the display to 10 times X1.
X20:The waveforms are magnified from the center of the display to 20 times X1.
X40:The waveforms are magnified from the center of the display to 40 times X1.
ACTIVE:Everything but the video signal waveform blanking interval is magnified.
BLANK:The video signal waveform blanking interval is magnified.
SWEEP MAG = X1SWEEP MAG = X10
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SWEEP MAG = ACTIVESWEEP MAG = BLANK
6.6Selecting Lines
To configure the line select settings, press F•3 LINE SELECT in the video signal waveform
menu. You can display the waveforms of the selected line.
F•3 LINE SELECT does not appear when SWEEP is set to V.
Reference: SWEEP → Section 6.5.3, “Selecting the Sweep Method”
6. VIDEO SIGNAL WAVEFORM DISPLAY
Figure 6-14 Horizontal magnifications
WFM → F•3 LINE SELECT →
Figure 6-15 LINE SELECT menu
6.6.1Turning Line Selection On and Off
To display the waveforms of the selected line, follow the procedure shown below.
• Procedure
WFM → F•3 LINE SELECT → F•1 LINE SELECT
• Settings
ON:The waveforms of the selected line are displayed. You can select a line with
the function dial (F•D). The number of the selected line appears in the bottom
left of the display.
OFF:The waveforms of all lines are displayed on top of each other. This is the
default setting.
LINE SELECT = ONLINE SELECT = OFF
Figure 6-16 Turning line selection on and off
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6.6.2Setting the Line Selection Range
To set the line selection range, follow the procedure shown below.
This menu item does not appear when the input signal is progressive.
• Procedure
WFM → F•3 LINE SELECT → F•2 FIELD
• Settings
FIELD1:A line from field 1 can be selected. (Example: 1 to 563)
FIELD2:A line from field 2 can be selected. (Example: 564 to 1125)
FRAME:All lines can be selected. This is the default setting. (Example: 1 to 1125)
6.7Configuring Cursor Settings
To configure cursor settings, press F•4 CURSOR in the video signal waveform menu.
You can display cursors and use them to make measurements.
WFM → F•4 CURSOR →
Figure 6-17 CURSOR menu
6.7.1Displaying Cursors
To display cursors, follow the procedure shown below.
The REF cursor is displayed in blue, and the DELTA cursor is displayed in green. The value
of DELTA - REF appears as a measured value in the bottom right of the screen. (When Y
UNIT is set to DEC or HEX, absolute values are displayed.)
• Procedure
WFM → F•4 CURSOR → F•1 CURSOR
• Settings
ON:Cursors are displayed.
OFF:Cursors are not displayed. This is the default setting.
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6.7.2Selecting X or Y Cursors
To select X (time measurement) or Y (amplitude measurement) cursors, follow the
procedure shown below. When COLOR MATRIX is set to COMPOSITE, the cursor type is
fixed at Y regardless of the setting you make here.
Reference: COLOR MATRIX → Section 6.9.1, “Selecting the Color Matrix”
• Procedure
WFM → F•4 CURSOR → F•2 XY SEL
• Settings
X:X cursors are displayed for measuring time.
Y:Y cursors are displayed for measuring amplitude. This is the default setting.
XY SEL = XXY SEL = Y
6.7.3Moving Cursors
To move a cursor, follow the procedure shown below to select a cursor. Then, move the
cursor by turning the function dial (F•D). Triangles appear on both sides of the selected
cursor.
You can also select a cursor by pressing the function dial (F•D). Each time you press the
function dial (F•D), the selected cursor switches from REF, to DELTA, to TRACK, and so on.
• Procedure
WFM → F•4 CURSOR → F•4 FD VAR
• Settings
REF:The REF cursor (blue) is selected. This is the default setting.
DELTA:The DELTA cursor (green) is selected.
TRACK:The REF cursor and DELTA cursor are both selected.
Figure 6-18 Selecting X or Y cursors
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6.7.4Selecting the Unit of Measurement
To select the units used in cursor measurement, follow the procedure shown below.
• Procedure
WFM → F•4 CURSOR → F•3 Y UNIT (when XY SEL is set to Y)
F•3 X UNIT (when XY SEL is set to X)
• Settings for Y UNIT
mV:Measurements are made in units of voltage. This setting cannot be chosen
when COLOR MATRIX is set to COMPOSITE. This is the default setting.
%:Measurements are made as percentages. When COLOR MATRIX is set to
COMPOSITE (NTSC), 714 mV is 100 %. Otherwise, 700 mV is 100 %.
R%:Measurements are made as percentages, with the amplitude where REF SET
is pressed set to 100 %.
This setting cannot be chosen when COLOR MATRIX is set to COMPOSITE.
DEC:The scale shows 0 to 100 % in decimal as 64 to 940.
This setting cannot be chosen when COLOR MATRIX is set to COMPOSITE.
HEX:The scale shows 0 to 100 % in hexadecimal as 040 to 3AC.
This setting cannot be chosen when COLOR MATRIX is set to COMPOSITE.
• Settings for X UNIT
sec:Measurements are made in units of time. This is the default setting.
Hz:Measurements are made in units of frequency, with the length of one period set
to the distance between the two cursors.
6.7.5Setting the Reference Amplitude
When Y UNIT is set to R%, follow the procedure shown below to set the amplitude at the
location of your choice to 100 %.
This menu item is available when Y UNIT is set to R%.
• Procedure
WFM → F•4 CURSOR → F•5 REF SET
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6.8Configuring Display Settings
To configure display settings, press F•5 ARRANGE in the video signal waveform menu.
You can configure filter, blanking display, waveform persistence, timing display, and 4Y parade
display settings.
WFM → F•5 ARRANGE →
Figure 6-19 ARRANGE menu
6.8.1Selecting the Filter
To select the filter to apply to video signal waveforms, follow the procedure shown below.
The filters that you can select vary depending on how COLOR MATRIX is set.
Reference: COLOR MATRIX → Section 6.9.1, “Selecting the Color Matrix”
• Procedure
WFM → F•5 ARRANGE → F•1 FILTER
• Settings When COLOR MATRIX Is Set to YCbCr, GBR, or RGB
FLAT:A filter with a flat frequency response over the entire bandwidth of the input
signal is used. This is the default setting.
LOW PASS: A low-pass filter with the following characteristics is used.
Attenuation of 20 dB or more at 40 MHz (When the input signal is HD-SDI and
the video format is 1080p/60, 59.94, or 50.)
Attenuation of 20 dB or more at 20 MHz (When the input signal is HD-SDI and
the video format is not 1080p/60, 59.94, or 50.)
Attenuation of 20 dB or more at 3.8 MHz (When the input signal is SD-SDI.)
FILTER = FLATFILTER = LOW PASS
Figure 6-20 Selecting the filter (component)
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• Settings When COLOR MATRIX Is Set to COMPOSITE
FLAT:Only the pseudo-composite signal is displayed. This is the default
setting.
FLAT+LUM:The pseudo-composite signal and the luminance signal are displayed
side by side. A filter with an attenuation of 20 dB or more at 40 MHz is
applied to the luminance signal.
LUM+CHROMA:The luminance and chrominance signals are displayed side by side. A
filter with an attenuation of 20 dB or more at 40 MHz is applied to the
luminance signal.
FILTER = FLATFILTER = FLAT+LUM
FILTER = LUM+CHROMA
Figure 6-21 Selecting the filter (composite)
6.8.2Displaying the Blanking Interval
To set how the waveforms in the blanking interval are displayed, follow the procedure shown
below.
• Procedure
WFM → F•5 ARRANGE → F•2 BLANKING
• Settings
REMOVE:Only the active interval is displayed. This is the default setting.
H VIEW:The active interval and the horizontal blanking interval are displayed.
This setting cannot be chosen when COLOR MATRIX is set to COMPOSITE.
V VIEW:The active interval and the vertical blanking interval are displayed.
ALL VIEW:The entire input signal is displayed.
This setting cannot be chosen when COLOR MATRIX is set to COMPOSITE.
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BLANKING = REMOVEBLANKING = ALL VIEW
Figure 6-22 Blanking interval displays
6.8.3Setting Waveform Persistence
To set waveform persistence, press F•3 PERSISTENCE in the video signal waveform menu.
By making waveforms persistent, you can display past waveforms and present waveforms
together.
WFM → F•5 ARRANGE → F•3 PERSISTENCE →
Figure 6-23 PERSISTENCE menu
To set waveform persistence, follow the procedure shown below.
ON:Waveform persistence is enabled.
OFF:Waveform persistence is disabled. This is the default setting.
INFINIT:Waveforms are displayed on top of each other.
6.8.4Clearing Persistent Waveforms
When F•1 PERSISTENCE is set to INFINIT, you can clear persistent waveforms by following
the procedure shown below.
To show the timing or 4Y parade display, follow the procedure shown below. When these
displays are in use, the OVLAY key and the CH1 to CH3 keys are disabled.
• Procedure
WFM → F•5 ARRANGE → F•4 SPECIAL FORM
• Settings
NORMAL:Shows the video signal waveform display. This is the default setting.
TIMING:Shows the timing display.
4Y PARADE: Shows the 4Y parade display. This setting cannot be chosen when the multi
screen display is in use.
SPECIAL FORM = TIMINGSPECIAL FORM = 4Y PARADE
Figure 6-24 Timing and 4Y parade displays
• Timing Display Explanation
The time and amplitude differences between the Y(G) signal and the CB(B) and CR(R)
signals can be measured by using a bowtie signal(*1) as the signal source. The two timing
displays are shown side by side. The left display shows the differences between the Y(G)
signal and the CB(B) signal. The right display shows the differences between the Y(G) signal
and the CR(R) signal.
To measure the time difference, examine the space between the pinched area of the
waveform, referred to as the null, and the long reference marker in the center of the
waveform. If you use an LT 443D signal as the signal source, the marker spacing indicates a
time difference of 1 ns. If the null is to the left of the reference marker, it indicates that the
CB(B) or CR(R) signal is ahead of the Y(G) signal. If null is to the right of the reference marker,
it indicates that these signals are behind the Y(G) signal.
To measure the amplitude difference, examine the width of the pinched area of the waveform.
When there is an amplitude difference compared to the Y(G) signal, the pinched area is
wide.
*1 Permission to use patented technology granted by Tektronix, Inc.
• 4Y Parade Display Explanation
The luminance signals from areas 1 to 4 are displayed in order from left to right. The input
units and channels are displayed at the bottom of the screen.
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Note the following points about the 4Y parade display.
• The four input signals must be of the same format, and they must be synchronized.
• Any areas (from area 1 to 4) whose MODE settings are not set to WFM will not be
displayed.
• Frame-captured waveforms are not displayed.
• You cannot switch the input channels (A and B) and the display areas (1 to 4).
6.9Configuring the Color System Settings
To configure the color system settings, press F•6 COLOR SYSTEM in the video signal
waveform menu.
You can set the color matrix and configure other settings that relate to the color system.
WFM → F•6 COLOR SYSTEM →
Figure 6-25 COLOR SYSTEM menu
6.9.1Selecting the Color Matrix
The LV 58SER06 can use matrix calculation to display a YCBCRsignal as a GBR, RGB, or
pseudo-composite signal. The signal components are assigned to CH1 to CH3, and they
can be turned on and off. (This does not apply to pseudo-composite signals.)
Follow the procedure shown below to select a waveform display format. The selected
display format is indicated in the lower right of the display.
• Procedure
WFM → F•6 COLOR SYSTEM → F•1 COLOR MATRIX
• Settings
YCbCr:The YCBCRsignal is displayed without changes. This setting cannot be
chosen when the input signal is GBR (4:4:4). This is the default setting.
GBR:The YCBCRsignal is converted into a GBR signal and displayed.
RGB:The YCBCRsignal is converted into an RGB signal and displayed.
COMPOSITE: The YCBCRsignal is converted into a pseudo NTSC or PAL composite signal
and displayed.
• Color burst frequencies do not match those of PAL and NTSC.
• Color burst and sync signal widths and locations are different from those
of PAL and NTSC.
• The signal bandwidth is that of the original signal.
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COLOR MATRIX = YCbCrCOLOR MATRIX = GBR
COLOR MATRIX = RGBCOLOR MATRIX = COMPOSITE
Figure 6-26 Selecting the color matrix
6.9.2Enabling YGBR (or YRGB) Display
To simultaneously display a luminance signal (Y) when COLOR MATRIX is set to GBR or
RGB, follow the procedure shown below. When YGBR or YRGB is enabled, the CH1 to CH3
keys are disabled.
These settings are available when F•1 COLOR MATRIX is set to GBR or RGB.
• Procedure
WFM → F•6 COLOR SYSTEM → F•2 YGBR
→ F•2 YRGB
• Settings
ON:YGBR or YRGB display waveforms are displayed.
OFF:GBR or RGB waveforms are displayed. This is the default setting.
YGBR = ONYRGB = ON
Figure 6-27 YGBR and YRGB displays
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6.9.3Setting the Composite Display Format
To select the format for the pseudo-composite display, follow the procedure shown below.
• Procedure
WFM → F•6 COLOR SYSTEM → F•4 COMPOSITE FORMAT
• Settings
AUTO:When the input signal frame rate is 50 Hz, the format is PAL. Otherwise, the
format is NTSC. This is the default setting.
NTSC:The format is NTSC. The scale shows percentages.
PAL:The format is PAL. The scale shows voltages.
COMPOSITE FORMAT = NTSCCOMPOSITE FORMAT = PAL
Figure 6-28 Setting the composite display format
6.9.4Setting the Setup Level
To select the setup level for the pseudo-composite display, follow the procedure shown
below. This menu item does not appear when the composite display format is PAL.
• Procedure
WFM → F•6 COLOR SYSTEM → F•5 SETUP
• Settings
0%:No setup level is added. This is the default setting.
7.5%:A setup level of 7.5 % is added.
SETUP = 0%SETUP = 7.5%
Figure 6-29 Setting the setup level
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7.VECTOR DISPLAY
To display vectors, press the VECT key on the front panel.
Component signal vector displays are X-Y displays based on CB(horizontal) and CR(vertical).
The vector display scale has the following qualities.
• Border:±3 % of the full scale value of 0.7 V
• Circle:+20 % of green
7. VECTOR DISPLAY
Figure 7-1 Vector display
7.1Configuring the Intensity and Scale Settings
To configure the intensity and scale settings, press F•1 INTEN / SCALE in the vector menu.
You can set the intensities and colors of the vector and scale.
F•1 INTEN / SCALE does not appear when DISPLAY is set to an option other than VECTOR.
Reference: DISPLAY → Section 7.6, “Switching the Display Mode”
VECT → F•1 INTEN / SCALE →
Figure 7-2 INTEN/SCALE menu
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7.1.1Adjusting the Vector Intensity
To adjust the intensity of vectors and CIE chromaticity diagram waveforms, follow the
procedure shown below.
Press the function dial (F•D) to return the setting to its default value (0).
• Procedure
VECT → F•1 INTEN / SCALE → F•1 VECTOR INTEN
• Settings
Range:-128 to 127 (default setting: 0)
7.1.2Selecting the Vector Color
To select the color of vectors and CIE chromaticity diagram waveforms, follow the procedure
shown below.
• Procedure
VECT → F•1 INTEN / SCALE → F•2 VECTOR COLOR
7. VECTOR DISPLAY
• Settings
WHITE:Vectors are displayed in white. This is the default setting.
GREEN:Vectors are displayed in green.
7.1.3Adjusting the Scale Intensity
To adjust the scale intensity, follow the procedure shown below.
Press the function dial (F•D) to return the setting to its default value (4).
• Procedure
VECT → F•1 INTEN / SCALE → F•3 SCALE INTEN
• Settings
Range:-8 to 7 (default setting: 4)
7.1.4Displaying the I and Q Axes
To display the I and Q axes, follow the procedure shown below.
When the full scale value of 0.7 V is 100 %, the I and Q axes are displayed at the following
values.
Table 7-1Displaying the I and Q axes
I-axisQ-axis
G44.559 %37.056 %
B27.865 %84.085 %
R69.120 %62.417 %
• Procedure
VECT → F•1 INTEN / SCALE → F•4 IQ AXIS
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• Settings
ON:The I and Q axes are displayed.
OFF:The I and Q axes are not displayed. This is the default setting.
IQ AXIS = OFFIQ AXIS = ON
Figure 7-3 Displaying the I and Q axes
7.1.5Selecting the Scale Color
7. VECTOR DISPLAY
To select the scale color, follow the procedure shown below.
• Procedure
VECT → F•1 INTEN / SCALE → F•5 SCALE COLOR
• Settings
WHITE:The scale is displayed in white.
YELLOW:The scale is displayed in yellow. This is the default setting.
CYAN:The scale is displayed in cyan.
GREEN:The scale is displayed in green.
MAGENTA: The scale is displayed in magenta.
RED:The scale is displayed in red.
BLUE:The scale is displayed in blue.
7.2Setting the Gain
To set the gain, press F•2 GAIN in the vector menu.
F•2 GAIN does not appear when DISPLAY is set to an option other than VECTOR.
Reference: DISPLAY → Section 7.6, “Switching the Display Mode”
VECT → F•2 GAIN →
Figure 7-4 GAIN menu
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7.2.1Selecting the Fixed Gain
To select the fixed vector gain, follow the procedure shown below.
• Procedure
VECT → F•2 GAIN→ F•2 GAIN MAG
• Settings
X1:Vectors are displayed at ×1 magnification. This is the default setting.
X5:Vectors are displayed at ×5 magnification.
IQ-MAG:Vectors are displayed at ×3.140 magnification.
(The gain is set so that the IQ signal fits within the perimeter of the vector scale
when NTSC SMPTE color bars are up-converted to HDTV.)
7.2.2Setting the Variable Gain
To set the variable vector gain, follow the procedure shown below.
• Procedure
VECT → F•2 GAIN→ F•1 GAIN VARIABLE
7. VECTOR DISPLAY
• Settings
CAL:The gain is fixed. This is the default setting.
VARIABLE: You can adjust the vector gain by turning the function dial (F•D). Press the
function dial (F•D) to return the setting to its default value (1.000, 3.140, or
5.000).
The adjusted gain value (the combination of F•1 GAIN VARIABLE and F•2
GAIN MAG) appears in the upper right of the screen.
0.200 to 2.000 (when GAIN MAG is set to X1)
1.000 to 10.000 (when GAIN MAG is set to X5)
0.628 to 6.280 (when GAIN MAG is set to IQ-MAG)
GAIN MAG = X1GAIN MAG = IQ-MAG
GAIN VARIABLE = VARIABLEGAIN VARIABLE = CAL
Figure 7-5 Gain Settings
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7. VECTOR DISPLAY
7.3Selecting Lines
To configure the line select settings, press F•3 LINE SELECT in the vector menu.
You can display the vectors of the selected line.
F•3 LINE SELECT does not appear when DISPLAY is set to HISTOGRAM.
Reference: DISPLAY → Section 7.6, “Switching the Display Mode”
VECT → F•3 LINE SELECT →
Figure 7-6 LINE SELECT menu
7.3.1Turning Line Selection On and Off
To display the vectors of the selected line, follow the procedure shown below.
• Procedure
VECT → F•3 LINE SELECT → F•1 LINE SELECT
• Settings
ON:The vectors of the selected line are displayed. You can select a line with the
function dial (F•D). The number of the selected line appears in the bottom left
of the display.
OFF:The vectors of all lines are displayed on top of each other. This is the default
setting.
LINE SELECT = ONLINE SELECT = OFF
Figure 7-7 Turning line selection on and off
7.3.2Setting the Line Selection Range
To set the line selection range, follow the procedure shown below.
This menu item does not appear when the input signal is progressive.
• Procedure
VECT → F•3 LINE SELECT → F•2 FIELD
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7. VECTOR DISPLAY
• Settings
FIELD1:A line from field 1 can be selected. (Example: 1 to 563)
FIELD2:A line from field 2 can be selected. (Example: 564 to 1125)
FRAME:All lines can be selected. This is the default setting. (Example: 1 to 1125)
7.4Configuring the Color System Settings
To configure the color system settings, press F•4 COLOR SYSTEM in the vector menu.
You can set the color matrix and configure other settings that relate to the color system.
F•4 COLOR SYSTEM does not appear when DISPLAY is set to an option other than VECTOR.
Reference: DISPLAY → Section 7.6, “Switching the Display Mode”
VECT → F•4 COLOR SYSTEM →
Figure 7-8 COLOR SYSTEM menu
7.4.1Selecting the Color Matrix
To select the vector display format, follow the procedure shown below. The selected display
format is indicated in the lower right of the display.
• Procedure
VECT → F•4 COLOR SYSTEM → F•1 COLOR MATRIX
• Settings
COMPONENT: The component chrominance signal is displayed on the X and Y axes. This
is the default setting.
COMPOSITE:The component signal is converted into a pseudo-composite signal, and
the composite signal's chrominance signal is displayed on the X and Y
axes.
COLOR MATRIX = COMPONENTCOLOR MATRIX = COMPOSITE
Figure 7-9 Selecting the color matrix
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7. VECTOR DISPLAY
7.4.2Selecting the Composite Display Format
To select the format for the pseudo-composite display, follow the procedure shown below.
• Procedure
VECT → F•4 COLOR SYSTEM → F•2 COMPOSITE FORMAT
• Settings
AUTO:When the input signal frame rate is 50 Hz, the format is PAL. Otherwise, the
format is NTSC. This is the default setting.
NTSC:All input signals are converted into NTSC pseudo-composite signals.
PAL:All input signals are converted into PAL pseudo-composite signals.
COMPOSITE FORMAT = NTSCCOMPOSITE FORMAT = PAL
Figure 7-10 Selecting the Composite Display Format
7.4.3Selecting the Setup Level
To select the setup level for the pseudo-composite display, follow the procedure shown
below.
This menu item does not appear when F•1 COLOR MATRIX is set to COMPONENT or the
composite display format is set to PAL.
• Procedure
VECT → F•4 COLOR SYSTEM → F•3 SETUP
• Settings
0%:No setup level is added. This is the default setting.
7.5%:A setup level of 7.5 % is added.
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7.4.4Displaying a Scale for 75 % Intensity Color Bars
To display a scale for 75 % intensity color bars, follow the procedure shown below.
• Procedure
VECT → F•4 COLOR SYSTEM → F•4 COLOR BAR
• Settings
100%:A scale that matches the peak levels of 100 % intensity color bars is displayed.
This is the default setting.
75%:A scale that matches the peak levels of 75 % intensity color bars is displayed.
COLOR BAR = 100%COLOR BAR = 75%
Figure 7-11Displaying a scale for 75 % intensity color bars
(when receiving a 75 % intensity color bar signal)
7.5Setting Vector Persistence
To set vector persistence, press F•6 PERSISTENCE in the vector menu.
By making vectors persistent, you can display past vectors and present vectors together.
F•6 PERSISTENCE does not appear when DISPLAY is set to an option other than VECTOR.
Reference: DISPLAY → Section 7.6, “Switching the Display Mode”
VECT → F•6 PERSISTENCE →
Figure 7-12 PERSISTENCE menu
7.5.1Setting Vector Persistence
To set vector persistence, follow the procedure shown below.
• Procedure
VECT → F•6 PERSISTENCE → F•1 PERSISTENCE
• Settings
ON:Vector persistence is enabled.
OFF:Vector persistence is disabled. This is the default setting.
INFINIT:Vectors are displayed on top of each other.
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7.5.2Clearing Persistent Vectors
When F•1 PERSISTENCE is set to INFINIT, you can clear persistent vectors by following the
procedure shown below.
• Procedure
VECT → F•6 PERSISTENCE → F•2 PERSIST CLEAR
7.6Switching the Display Mode
To switch between the vectorscope display, 5 bar display, histogram display, and CIE
chromaticity diagram display, follow the procedure shown below.
Reference: 5 bar display → Section 7.7, “Configuring the 5 Bar Display”
Histogram display → Section 7.8, “Configuring the Histogram Display”
VECTOR:The vector display is shown. This is the default setting.
5BAR:The 5 bar display is shown.
HISTOGRAM:The histogram display is shown.
CIE1931:The CIE chromaticity diagram display is shown.
DISPLAY = 5BARDISPLAY = HISTOGRAM
DISPLAY = CIE1931
Figure 7-13 Switching the display mode
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7.7Configuring the 5 Bar Display
7.7.15 Bar Display Explanation
In the 5 bar display, the YCBCRsignal is converted into a GBR or pseudo-composite signal,
and the peak levels of the converted signal's Y, G, B, R, and CMP (composite) components
are displayed simultaneously using five bars.
The five bars are typically displayed in cyan, but portions that exceed their limits are
displayed in red.
• Y:Levels less than 0 % or greater than 100 % are displayed in red.
• GBR:Levels that fall outside of the range that you set using Gamut Upper and Lower in
the unit setup display are displayed in red.
• CMP:Levels that fall outside of the range that you set using Composite Upper and
Lower in the unit setup display are displayed in red.
When you set F•5 DISPLAY to 5BAR, F•4 5BAR SETUP appears, and you can press it to
configure the 5 bar display settings. When F•5 DISPLAY is set to an option other than 5BAR,
this menu item does not appear.
7. VECTOR DISPLAY
VECT → F•4 5BAR SETUP →
Figure 7-14 5 bar display
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7.7.2Selecting the Display Order
To select the 5 bar display order, follow the procedure shown below.
• Procedure
VECT → F•4 5BAR SETUP → F•1 SEQUENCE
• Settings
GBR:The signals are displayed in this order: Y, G, B, R, CMP. This is the default
setting.
RGB:The signals are displayed in this order: Y, R, G, B, CMP.
SEQUENCE = GBRSEQUENCE = RGB
7. VECTOR DISPLAY
Figure 7-15 Selecting the display order
7.7.3Selecting the Scale Unit
To select the scale unit, follow the procedure shown below.
Reference: Section 7.4.2, “Selecting the Composite Display Format”
• Procedure
VECT → F•4 5BAR SETUP → F•2 SCALE
• Settings
%:A percentage scale is displayed for YGBR, and an IRE scale is displayed for
CMP. This is the default setting.
mV:A millivolt scale is displayed. Depending on the composite display format, the
Figure 7-16 Selecting the scale unit (with an NTSC signal)
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7. VECTOR DISPLAY
7.8Configuring the Histogram Display
The histogram shows the distribution of the image data by plotting brightness on the horizontal
axis and the number of pixels at each brightness level on the vertical axis. Dark points are
displayed on the left of the histogram and bright points are displayed on the right.
To configure histogram display settings, set DISPLAY to HISTOGRAM on the vector menu.
If DISPLAY is set to an option other than HISTOGRAM, F•1 MODE, F•2 R, F•3 G, and F•4 B
do not appear.
Reference: Section 7.6, “Switching the Display Mode”
VECT →
Figure 7-17 Vector menu
7.8.1Selecting the Display Mode of the Histogram
Carry out the procedure below to select the display mode.
• Procedure
VECT → F•1 MODE
• Settings
LUMA:The histogram of the Y (luminance) signal is displayed. This is the default
setting.
ALIGN:The histograms of the Y, R, G, and B signals (in this order) are displayed side
by side.
MIX:The histograms of the Y, R, G, and B signals are displayed on top of each other
as lines.
MODE = LUMAMODE = ALIGN
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7. VECTOR DISPLAY
MODE = MIX
Figure 7-18 Selecting the display mode of the histogram
7.8.2Turning the RGB Signals On and Off
When F•1 MODE is set to MIX, carry out the procedure below to turn the R, G, and B signals
on and off separately.
• Procedure
VECT → F•2 R
→ F•3 G
→ F•4 B
• Settings
ON:The R, G, or B signal is displayed. This is the default setting.
OFF:The R, G, or B signal is not displayed.
7.9Configuring the CIE Chromaticity Diagram Display
On the CIE chromaticity diagram display, YCBCRor GBR signals are converted into CIE1931xy
chromaticity coordinates and displayed.
To configure CIE chromaticity diagram display settings, set DISPLAY to CIE1931 on the vector
menu.
If DISPLAY is set to an option other than CIE1931, F•1 SCALE, F•2 MODE, F•4 CURSOR,
F•6 GAMMA, and F•7 FILTER do not appear.
Reference: Section 7.6, “Switching the Display Mode”
VECT →
Figure 7-19 Vector menu
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7.9.1Displaying the Color Triangle
Carry out the procedure below to display a color triangle that has R, G, and B at its three
vertices.
• Procedure
VECT → F•1 SCALE → F•1 TRIANGLE
• Settings
NTSC:A color triangle that corresponds to the ITU-R BT.470-6 NTSC specifications is
displayed.
EBU:A color triangle that corresponds to the ITU-R BT.470-6 EBU specifications is
displayed.
ITU-R 709:A color triangle that corresponds to ITU-R BT.709-5 is displayed.
DCI:A color triangle that corresponds to SMPTE EG432-1 is displayed.
OFF:The color triangle is not displayed. This is the default setting.
TRIANGLE = NTSC
7. VECTOR DISPLAY
Figure 7-20 Displaying the color triangle
7.9.2Displaying the Color Scale
Carry out the procedure below to turn the horseshoe-shaped color scale on and off. This
color scale conforms to CIE1931, and it displays color approximations for chromaticity
coordinates.
• Procedure
VECT → F•1 SCALE → F•2 COLOR
• Settings
ON:The color scale is displayed. This is the default setting.
OFF:The color scale is not displayed.
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7. VECTOR DISPLAY
7.9.3Displaying the Black-Body Radiation Curve
Carry out the procedure below to turn the black-body radiation curve on and off. This
black-body radiation curve conforms to CIE1960, and it displays changes to color
temperatures.
• Procedure
VECT → F•1 SCALE → F•3 TEMP SCALE
• Settings
ON:The Black-Body radiation curve is displayed.
OFF:The Black-Body radiation curve is not displayed. This is the default setting.
TEMP SCALE = ON
Figure 7-21 Displaying the black-body radiation curve
7.9.4Selecting the Display Mode of the Chromaticity Diagram
Carry out the procedure below to select the display mode.
• Procedure
VECT → F•2 MODE
• Settings
DIAGRAM:Nearly all of the CIE chromaticity diagram is displayed. This is the default
setting.
TEMP:The vicinity of the white point is magnified by a factor of two in the horizontal
and vertical directions and displayed. Only the black-body radiation curve and
the correlated color temperature lines are displayed. F•1 SCALE is not
displayed.
MODE = DIAGRAMMODE = TEMP
Figure 7-22 Selecting the display mode of the chromaticity diagram
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7.9.5Cursor Measurement
Carry out the procedure below to turn cursors on and off.
If you select “ON,” the cursors and the coordinates of the intersection of the cursors are
displayed. To move the X axis cursor, turn the H POS knob. To move the Y axis cursor, turn
the V POS knob. If you press both knobs, the cursors move to the D65 white point.
• Procedure
VECT → F•4 CURSOR → F•1 CURSOR
• Settings
ON:The cursor is displayed.
OFF:The cursor is not displayed. This is the default setting.
CURSOR = ON (DIAGRAM)CURSOR = ON (TEMP)
7. VECTOR DISPLAY
Figure 7-23 Cursor measurement
7.9.6Selecting the Inverse Gamma Correction Value
On the CIE chromaticity diagram display, when the input signal is converted into xy
chromaticity coordinates, inverse gamma correction is performed. Carry out the procedure
below to select the inverse gamma correction value.
• Procedure
VECT → F•6 GAMMA
• Settings
2.2:The inverse gamma correction value is set to 2.2. This corresponds to ITU-R
BT.1361. This is the default setting.
2.6:The inverse gamma correction value is set to 2.6. This corresponds to SMPTE
EG432-1.
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7.9.7Selecting the Filter
Carry out the procedure below to select the filter to apply to input signals.
• Procedure
VECT → F•7 FILTER
• Settings
LOW PASS: A low-pass filter with the following characteristics is used.
Attenuation of 20 dB or more at 40 MHz (When the input signal is HD-SDI and
the video format is 1080p/60, 59.94, or 50.)
Attenuation of 20 dB or more at 20 MHz (When the input signal is HD-SDI and
the video format is not 1080p/60, 59.94, or 50.)
Attenuation of 20 dB or more at 3.8 MHz (When the input signal is SD-SDI.)
FLAT:A filter with a flat frequency response over the entire bandwidth of the input
signal is used. This is the default setting.
7. VECTOR DISPLAY
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8.PICTURE DISPLAY
To display the picture, press the PIC key on the front panel.
8. PICTURE DISPLAY
Figure 8-1 Picture display
*Notes about the picture display:
•Because the sampled data is downsampled, aliasing distortion occurs.
•Data is processed in 8 bits.
•The two lines of pixels farthest to the left, right, top and bottom may not be displayed, depending on the
picture processing circumstances.
8.1Adjusting the Picture
To adjust the picture, press F•1 ADJUST in the picture menu.
You can adjust the picture brightness, contrast, gain, and bias.
PIC → F•1 ADJUST →
Figure 8-2 ADJUST menu
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8.1.1Adjusting the Brightness
To adjust the picture brightness, follow the procedure shown below. (Set the value as a
percentage.)
Press the function dial (F•D) to return the setting to its default value (0).
• Procedure
PIC → F•1 ADJUST → F•1 BRIGHTNESS
• Settings
Range:-30 to 30 (default setting: 0)
8.1.2Adjusting the Contrast
To adjust the picture contrast, follow the procedure shown below. (Set the value to multiply
by.)
Press the function dial (F•D) to return the setting to its default value (1.00).
• Procedure
PIC → F•1 ADJUST → F•2 CONTRAST
8. PICTURE DISPLAY
• Settings
Range:0.70 to 1.30 (default setting: 1.00)
8.1.3Adjusting the Gain
To adjust the picture gain for R, G, and B, follow the procedure shown below. (Set the value
to multiply by.)
Press the function dial (F•D) to return the setting to its default value (1.00).
• Procedure
PIC → F•1 ADJUST → F•3 GAIN → F•1 R GAIN
→ F•2 G GAIN
→ F•3 B GAIN
• Settings
Range:0.70 to 1.30 (default setting: 1.00)
8.1.4Adjusting the Bias
To adjust the picture bias for R, G, and B, follow the procedure shown below.
(Set the value as a multiple of 100 %.)
Press the function dial (F•D) to return the setting to its default value (0.00).
• Procedure
PIC → F•1 ADJUST → F•4 BIAS → F•1 R BIAS
→ F•2 G BIAS
→ F•3 B BIAS
• Settings
Range:-0.30 to 0.30 (default setting: 0.00)
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8.2Configuring Marker Settings
To configure marker settings, press F•2 MARKER in the picture menu.
You can display various types of markers on the picture display.
F•2 MARKER does not appear when SIZE is set to REAL or FULL_FRM.
Reference: SIZE → Section 8.4.1, “Selecting the Display Size”
PIC → F•2 MARKER →
Figure 8-3 MARKER menu
8.2.1Aspect Marker
To display the aspect marker, follow the procedure shown below.
• Procedure
PIC → F•2 MARKER → F•1 ASPECT MARKER
8. PICTURE DISPLAY
• Settings
OFF:An aspect marker is not displayed. This is the default setting.
4:3 :A 4:3 aspect marker is displayed.
This setting cannot be chosen when the input signal is SD-SDI.
16:9 :A 16:9 aspect marker is displayed.
This setting cannot be chosen when the input signal is 3G-SDI, HD-SDI, or HD
dual link.
AFD:The area around the active area that is written in the AFD (Active Format
Description) is indicated with a shadow. (If there are no AFD packets
embedded in the input signal, the aspect marker is not displayed.)
This setting cannot be chosen when the input signal is 3G-SDI or HD dual link.
8.2.2AFD Marker Settings
When F•1 ASPECT MARKER is set to AFD, follow the procedure shown below to select the
darkness of the shadow. The larger the number, the darker the shadow. If you specify 0, the
active area specified by the AFD is indicated with a line. If there are no AFD packets
embedded in the signal and you specify 0, the picture frame is indicated with a line.
Press the function dial (F•D) to return the setting to its default value (0).
• Procedure
PIC → F•2 MARKER → F•6 SHADOW
• Settings
Range:0 to 100 (default setting: 0)
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SHADOW = 0SHADOW = 50
8.2.3Safe Action Marker
To display a safe action marker, follow the procedure shown below.
The size of the safe action marker is 90 % that of the frame (or aspect marker if an aspect
marker is being displayed).
When F•1 ASPECT MARKER is set to AFD, this menu item does not appear.
8. PICTURE DISPLAY
Figure 8-4 AFD marker settings
• Procedure
PIC → F•2 MARKER → F•2 SAFE ACTION
• Settings
ON:A safe action marker is displayed.
OFF:A safe action marker is not displayed. This is the default setting.
8.2.4Safe Title Marker
To display a safe title marker, follow the procedure shown below.
The size of the safe title marker is 80 % that of the frame (or aspect marker if an aspect
marker is being displayed).
When F•1 ASPECT MARKER is set to AFD, this menu item does not appear.
• Procedure
PIC → F•2 MARKER → F•3 SAFE TITLE
• Settings
ON:A safe title marker is displayed.
OFF:A safe title marker is not displayed. This is the default setting.
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8.2.5Center Marker
To display a crosshair at the center of the picture display, follow the procedure shown below.
When F•1 ASPECT MARKER is set to AFD, this menu item does not appear.
• Procedure
PIC → F•2 MARKER → F•4 CENTER
• Settings
ON:A center marker is displayed.
OFF:A center marker is not displayed. This is the default setting.
8.3Selecting Lines
To configure line selection settings, press F•3 LINE SELECT in the picture menu.
The line selection feature allows you to display a marker on the selected line.
F•3 LINE SELECT does not appear when SIZE is set to REAL or FULL_FRM.
Reference: SIZE → Section 8.4.1, “Selecting the Display Size”
8. PICTURE DISPLAY
PIC → F•3 LINE SELECT →
Figure 8-5 LINE SELECT menu
8.3.1Turning Line Selection On and Off
To display a marker on the selected line, follow the procedure shown below.
• Procedure
PIC → F•3 LINE SELECT → F•1 LINE SELECT
• Settings
ON:A marker appears on the selected line. You can select a line with the function
dial (F•D). The number of the selected line appears in the bottom left of the
display.
OFF:A marker does not appear on the selected line. This is the default setting.
LINE SELECT = ONLINE SELECT = OFF
Figure 8-6 Turning line selection on and off
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8. PICTURE DISPLAY
8.3.2Setting the Line Selection Range
To set the line selection range, follow the procedure shown below.
This menu item does not appear when the input signal is progressive.
• Procedure
PIC → F•3 LINE SELECT → F•2 FIELD
• Settings
FIELD1:A line from field 1 can be selected. (Example: 1 to 563)
FIELD2:A line from field 2 can be selected. (Example: 564 to 1125)
FRAME:All lines can be selected. This is the default setting. (Example: 1 to 1125)
8.4Configuring Display Settings
To configure the display settings, press F•4 DISPLAY in the picture menu.
You can configure the display size, histogram, gamut error display, and AFD display settings.
PIC → F•4 DISPLAY →
Figure 8-7 DISPLAY menu
8.4.1Selecting the Display Size
To select the picture display size, follow the procedure shown below.
The LV 58SER06 uses simple filtering to enlarge and reduce the picture.
• Procedure
PIC → F•4 DISPLAY → F•1 SIZE
• Settings
FIT:The picture is displayed at the optimal size for the screen. This is the default
setting.
REAL:A single sample of the video signal is displayed with a single pixel on the
screen.
When the input signal is HD-SDI or HD dual link, you can use the V POS and H
POS knobs to adjust the picture's display position. Press a knob to return the
picture to the corresponding default location.
This setting cannot be chosen when the input signal is 3G-SDI, 1080p/60,
59.94, or 50.
FULL_FRM: A single frame, including the blanking interval, is displayed.
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8. PICTURE DISPLAY
SIZE = FITSIZE = REAL
SIZE = FULL_FRM
8.4.2Displaying a Histogram
To display a histogram in the bottom right of the picture display, follow the procedure shown
below.
The histogram shows the distribution of the image data by plotting brightness on the
horizontal axis and the number of pixels at each brightness level on the vertical axis. Dark
points are displayed on the left of the histogram and bright points are displayed on the right.
• Procedure
PIC → F•4 DISPLAY → F•2 HISTOGRAM
• Settings
ON:A histogram is displayed.
OFF:A histogram is not displayed. This is the default setting.
HISTOGRAM = ONHISTOGRAM = OFF
Figure 8-8 Selecting the display size
Figure 8-9 Displaying a histogram
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8.4.3Gamut Error Display
To display the locations of gamut errors and level errors (only for luminance signals) on the
picture, follow the procedure shown below. Any values that are outside of the Gamut
Upper/Lower, Composite Upper/Lower, and Luminance Upper/Lower ranges specified in the
unit set up are detected as errors.
This menu item does not appear when, in the unit setup display, Gamut Error, Composite
Gamut Error, and Level Error are all set to OFF.
*The display of level errors is not supported when the input signal is 3G-SDI or HD dual link.
• Procedure
PIC → F•4 DISPLAY → F•3 GAMUT ERROR
• Settings
ON:Gamut errors are displayed.
OFF:Gamut errors are not displayed. This is the default setting.
8. PICTURE DISPLAY
8.4.4Selecting the Gamut Error Display Format
To select the gamut error display format, follow the procedure shown below. This setting is
valid when F•3 GAMUT ERROR is set to ON.
This menu item does not appear when, in the unit setup display, Gamut Error, Composite
Gamut Error, and Level Error are all set to OFF.
WHITE:The picture brightness is halved, and gamut error locations are marked in
white.
This is the default setting.
RED:The picture brightness is halved, and gamut error locations are marked in red.
MESH:Gamut error locations are filled with a mesh pattern.
8.4.5Displaying AFDs
To display abbreviations for SMPTE 2016-1-2007 standard AFD (Active Format Description)
codes in the upper left of the display, follow the procedure shown below. If there are no AFD
packets embedded in the input signal, “---------” is displayed.
This is not supported when the input signal is 3G-SDI or HD dual link, so this menu item is
not displayed.
• Procedure
PIC → F•4 DISPLAY → F•6 AFD ASPECT INFO
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8. PICTURE DISPLAY
• Settings
ON:AFD code abbreviations are displayed.
OFF:AFD code abbreviations are not displayed. This is the default setting.
AFD ASPECT INFO = ON
Figure 8-10 Displaying AFDs
The AFD is abbreviated according to the coded frame or the AFD code. The displayed
abbreviations are shown in the following table.
Table 8-1Displaying AFD
Coded
Frame
0 (4:3)00000000- UNDEFINEDUndefined
0 (4:3)00010001- RESERVEDReserved
0 (4:3)00100010- 16:9LBTopLetterbox 16:9 image, at top of the coded frame
0 (4:3)00110011- 14:9LBTopLetterbox 14:9 image, at top of the coded frame
0 (4:3)01000100- >16:9LBoxLetterbox image with an aspect ratio greater than 16:9,
0 (4:3)01010101- RESERVEDReserved
0 (4:3)01100110- RESERVEDReserved
0 (4:3)01110111- RESERVEDReserved
0 (4:3)10001000- FullFrameFull frame 4:3 image, the same as the coded frame
0 (4:3)10011001- Full FrameFull frame 4:3 image, the same as the coded frame
0 (4:3)10101010- 16:9LBoxLetterbox 16:9 image, vertically centered in the coded
0 (4:3)10111011- 14:9LBoxLetterbox 14:9 image, vertically centered in the coded
0 (4:3)11001100- RESERVEDReserved
0 (4:3)11011101-4:3Full14:9Full frame 4:3 image, with alternative 14:9 center
0 (4:3)11101110-16:9LB14:9Letterbox 16:9 image, with alternative 14:9 center
0 (4:3)11111111-16:9LB4:3Letterbox 16:9 image, with alternative 4:3 center
1 (16:9)00000000w UNDEFINEDUndefined
1 (16:9)00010001w RESERVEDReserved
1 (16:9)00100010w Full FrameFull frame 16:9 image, the same as the coded frame
1 (16:9)00110011w 14:9PillboxPillarbox 14:9 image, horizontally centered in the coded
1 (16:9)01000100w >16:9LBoxLetterbox image with an aspect ratio greater than 16:9,
AFD
Code
Displayed AFDExplanation
vertically centered in the coded frame
frame with all image areas protected
frame
frame
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8. PICTURE DISPLAY
Coded
Frame
1 (16:9)01010101w RESERVEDReserved
1 (16:9)01100110w RESERVEDReserved
1 (16:9)01110111w RESERVEDReserved
1 (16:9)10001000w FullFrameFull frame 16:9 image, the same as the coded frame
1 (16:9)10011001w 4:3PillboxPillarbox 4:3 image, horizontally centered in the coded
1 (16:9)10101010w FullNoCropFull frame 16:9 image, with all image areas protected
1 (16:9)10111011w14:9PillboxPillarbox 14:9 image, horizontally centered in the coded
1 (16:9)11001100w RESERVEDReserved
1 (16:9)11011101w4:3PB14:9Pillarbox 4:3 image, with alternative 14:9 center
1 (16:9)11101110wFul14:9SafeFull frame 16:9 image, with alternative 14:9 center
1 (16:9)11111111wFull4:3SafeFull frame 16:9 image, with alternative 4:3 center
AFD
Code
Displayed AFDExplanation
vertically centered in the coded frame
frame
frame
8.5Configuring Closed Caption Information Settings
To display the closed caption information, press F•5 SUPER IMPOSE on the picture menu.
You can display closed captions in English and Japanese.
Note the following points about the closed caption display.
• The closed caption display is not supported when the input signal is 3G-SDI or HD dual link,
so F•5 SUPER IMPOSE is not displayed.
•If you leave the SUPER IMPOSE menu, closed captions will not be displayed.
•The various markers and line select markers will not be displayed on the SUPER IMPOSE
menu.
•In the multi display, you cannot display closed-caption information in multiple areas.
PIC → F•5 SUPER IMPOSE →
Figure 8-11SUPER IMPOSE menu
8.5.1Displaying the Closed Caption Information
To display closed caption information, follow the procedure shown below.
• Procedure
PIC → F•5 SUPER IMPOSE → F•1 STANDARD
• Settings
OFF:Closed caption information is not displayed.
CC SMPTE: SMPTE closed caption information is displayed in English.
CC ARIB:Simple ARIB closed caption information is displayed in Japanese.
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8. PICTURE DISPLAY
• CS Display on the Japanese Closed Caption Display
If a clear screen packet is received, “CS” is displayed in cyan for approximately 0.5 seconds
in the upper right of the screen.
8.5.2Selecting the Format of English Closed Captions
When F•1 STANDARD is set to CC SMPTE, follow the procedure shown below to select the
format of English closed captions.
• Procedure
PIC → F•5 SUPER IMPOSE → F•2 FORMAT
• Settings
608(708):CEA/EIA-608-B closed caption information that is embedded in EIA-708-B
CDP packets is displayed. This is the default setting.
608(608):CEA/EIA-608-B closed caption information is displayed.
VBI:CEA/EIA-608-B closed caption information that is embedded in vertical
blanking intervals is displayed.
708:EIA-708 closed caption information that is embedded in EIA-708-B CDP
packets is displayed.
8.5.3Selecting the Display Details of English Closed Captions
When F•1 STANDARD is set to CC SMPTE, follow the procedure shown below to select the
display details of English closed captions.
When F•2 FORMAT is set to an option other than 708, press F•3 LANGUAGE to select the
setting.
• Procedure
PIC → F•5 SUPER IMPOSE → F•3 LANGUAGE
• Settings
Range:CC1 to CC4, TEXT1 to TEXT4 (default setting: CC1)
When F•2 FORMAT is set to 708, press F•4 SERVICE DATA to select the setting.
Press the function dial (F•D) to return the setting to its default value (1).
• Procedure
PIC → F•5 SUPER IMPOSE → F•4 SERVICE DATA
• Settings
Range:1 to 63 (default setting: 1)
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8. PICTURE DISPLAY
8.5.4Selecting the Format of Japanese Closed Captions
When F•1 STANDARD is set to CC ARIB, follow the procedure shown below to select the
format of Japanese closed captions. A border is displayed around the name of the selected
format of Japanese closed captions in the upper right of the screen.
The closed caption format names are displayed in green when packets of the corresponding
closed caption format are being received and in white otherwise.
• Procedure
PIC → F•5 SUPER IMPOSE → F•2 FORMAT
• Settings
HD:HD closed caption information is displayed. This is the default setting.
SD:SD closed caption information is displayed.
ANALOG:Analog closed caption information is displayed.
CELLULAR: Cellular closed caption information is displayed.
8.5.5Selecting the Display Details of Japanese Closed Captions
When F•1 STANDARD is set to CC ARIB, follow the procedure shown below to select the
display details of Japanese closed captions.
• Procedure
PIC → F•5 SUPER IMPOSE → F•3 LANGUAGE
• Settings
1:Language 1 is displayed. This is the default setting.
2:Language 2 is displayed.
8.5.6Clearing Japanese Closed Captions
When F•1 STANDARD is set to CC ARIB, follow the procedure shown below to clear
Japanese closed captions.
• Procedure
PIC → F•5 SUPER IMPOSE → F•6 CLEAR
8.6Hiding Menus and Markers
To hide the display of items other than the picture, such as menus and markers, follow the
procedure shown below. To redisplay the hidden items, press a key on the front panel.
This menu item does not appear when the multi screen display is in use.
• Procedure
PIC → F•6 MENU OFF
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9.STATUS DISPLAY
To show the status display, press the STATUS key on the front panel. The status display shows
various error counters, the embedded audio channels, and other information.
Switching video formats or input channels may cause disturbances in the signal that will cause
errors to be counted.
9. STATUS DISPLAY
Figure 9-1 Status display
9.1Status Display Explanation
• Signal
Whether or not an SDI signal is being applied to one of the SDI input connectors is indicated
here. When SDI signal input has been detected, “DETECT” appears. Otherwise, “NO
SIGNAL” appears. “NO SIGNAL” may appear even when a signal is applied to a connector if
the signal amplitude is small or if there is a lot of jitter. If “NO SIGNAL” appears, the rest of
the information listed below will be blank.
• Format
The input signal video format is indicated here. “-----” appears when the input signal format is
not supported by the LV 58SER06 or when it is different than the format specified in the unit
setup. When this happens, the rest of the information will be blank.
An error is counted when the CRC embedded in the input signal is different from the CRC
that the LV 58SER06 detects.
When CRC Error is set to OFF in the unit setup, errors are not counted.
• CRC Ych, CRC Cch (When the input signal is HD-SDI or HD dual link)
An error is counted when the CRC embedded in the input signal is different from the CRC
that the LV 58SER06 detects. Errors are counted separately for the luminance signal (Ych)
and the chrominance signal (Cch).
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9. STATUS DISPLAY
When CRC Error is set to OFF in the unit setup, errors are not counted.
An error is counted when the EDH packet contains an ancillary data error flag, an active
picture error flag, or a full-field error flag and when the CRC in the EDH packet is different
from the CRC that the LV 58SER06 calculates from the video data.
When EDH Error is set to OFF in the unit setup, errors are not counted.
• A/B Delay (When the input signal is HD dual link)
An error is counted if the phase difference between links A and B exceeds 100 clocks.
(There is an error of ±3 clocks.)
• TRS Pos
Input signal TRS (Timing Reference Signal) errors are displayed here.
An error is counted when the EAV (End of Active Video) and SAV (Start of Active Video)
header word (3FFh, 000h, and 000h) locations are wrong and when the F, V, and H TRS
protection bits do not conform to the video standard.
When TRS Error is set to OFF in the unit setup, errors are not counted.
Input signal TRS (Timing Reference Signal) protection bit errors are displayed here.
An error is counted when the F, V, and H protection bits in the XYZ word in the EAV (End of
Active Video) and SAV (Start of Active Video) packets and the response to the P3, P2, P1,
and P0 error correction flags do not conform to the video standard.
When TRS Error is set to OFF in the unit setup, errors are not counted.
An error is counted when the input signal data falls within the timing reference signal (TRS)
range or the range specified for the ancillary data flag (ADF).
In SDI signals, 10-bit levels 000h through 003h and 3FCh through 3FFh are reserved for the
timing reference signal and the ancillary data flag, so they cannot be used for video signal
data or ancillary data. When data other than TRS and ADF data is found in these bits, an
error is counted.
When Illegal Code Error is set to OFF in the unit setup, errors are not counted.
• Line Number (When the input signal is 3G-SDI, HD-SDI, or HD dual link)
An error is counted when the line number that is embedded in the input signal does not
match the line number that has been counted by the LV 58SER06.
When Line Number Error is set to OFF in the unit setup, errors are not counted.
Reference: Line Number Error → Section 5.4, “Error Setup 1 (ERROR SETUP1)”
• Checksum
The LV 58SER06 uses the checksum in the input signal's ancillary data header to count
errors.
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9. STATUS DISPLAY
When Checksum Error is set to OFF in the unit setup, errors are not counted.
The LV 58SER06 uses the parity bit in the input signal's ancillary data header to count
errors.
When Parity Error is set to OFF in the unit setup, errors are not counted.
The gamut error count is displayed here.
You can specify the error search range under Gamut Error in the unit setup. When Gamut
Error is set to OFF, errors are not counted.
Even when each of the component signals is within the specified limits, the limits may be
exceeded when the signal is converted into a composite signal. An error is counted here
when the conversion of the component signal into a composite signal results in a gamut
error.
You can specify the error search range under Composite Gamut Error in the unit setup.
When Composite Gamut Error is set to OFF, errors are not counted.
• Freeze (When the input signal is HD-SDI or SD-SDI)
An error is counted when a pause is detected in the video data. The LV 58SER06 detects
these errors by finding the checksum of one frame of video data from the point when signal
processing began, and then comparing that checksum between frames.
You can specify the error detection range under Area and Duration in the unit setup. When
Freeze Error is set to OFF, errors are not counted.
• Black (When the input signal is HD-SDI or SD-SDI)
An error is counted when, in a single frame, a given amount of Y video data at or lower than
the black level exists.
You can specify the error detection range under Level, Area, and Duration in the unit setup.
When Black Error is set to OFF, errors are not counted.
• Level Ych, Level Cch (When the input signal is HD-SDI or SD-SDI)
An error is counted when the video data exceeds the specified level. Errors are counted
separately for the luminance signal (Ych) and the chrominance signal (Cch).
You can specify the error detection range under Luminance and Chroma in the unit setup.
When Level Error is set to OFF, errors are not counted.
• BCH (When the input signal is 3G-SDI, HD-SDI, or HD dual link)
Errors in the BCH code in the input signal's embedded audio are displayed here. When the
input signal is 3G-SDI level B, only stream 1 errors are counted. When the input signal is HD
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9. STATUS DISPLAY
dual link, only link A errors are counted.
When BCH Error is set to OFF in the unit setup, errors are not counted.
• Parity (When the input signal is 3G-SDI, HD-SDI, or HD dual link)
Parity errors in the input signal's embedded audio are displayed here. When the input signal
is 3G-SDI level B, only stream 1 errors are counted. When the input signal is HD dual link,
only link A errors are counted.
When Parity Error is set to OFF in the unit setup, errors are not counted.
Continuity errors in the input signal's embedded audio are displayed here. When the input
signal is 3G-SDI level B, only stream 1 errors are counted. When the input signal is HD dual
link, only link A errors are counted.
Embedded audio packets contain data block number (DBN) words that indicate the packet's
continuity. Packets are cyclically numbered from 1 to 255. An error is counted when a
packet's DBN is out of sequence.
When DBN Error is set to OFF in the unit setup, errors are not counted.
An error is counted when embedded audio packets are found in lines where they should not
be embedded. When the input signal is 3G-SDI level B, only stream 1 errors are counted.
When the input signal is HD dual link, only link A errors are counted.
When Inhibit Line Error is set to OFF in the unit setup, errors are not counted.
The channels of the audio packets embedded in the input signal are displayed here.
When audio control packets are embedded, the LV 58SER06 detects the channels from the
ACT bit. Otherwise, it detects the channels from the audio data packet.
When the input signal is 3G-SDI level B, only the stream 1 channel is detected. When the
input signal is HD dual link, only the link A channel is detected.
• From Reset
The time that has elapsed since the errors were cleared is displayed here.
Errors are cleared when you press F•7 ERROR CLEAR, initialize the system settings, or
turn the power on and off.
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9.2Switching the Error Count Unit
To switch the error count unit, follow the procedure shown below.
• Procedure
STATUS → F•6 COUNTER
• Settings
SEC:Errors are counted in units of seconds. Even if multiple errors occur within the
same second, only a single error is counted. This is the default setting.
FIELD:Errors are counted in units of fields. The number of fields that have errors in them
is displayed.
%FIELD:The percentage of the fields since the start of error counting that contain errors is
displayed.
9.3Clearing the Error Count
To reset the error count and From Reset values to zero, follow the procedure shown below.
9. STATUS DISPLAY
• Procedure
STATUS → F•7 ERROR CLEAR
9.43G-SDI Line Numbers
When the input signal is level B, line numbers are indicated differently depending on the
display as shown below.
The DATA DUMP LINE No. indicated in the data dump display is the Original Picture source
raster Line Number. (*1)
The INTERFACE LINE No. indicated in the format ID, control packet, and custom search
displays is the Digital Interface Line Number. (*2) On the format ID and control packet screens,
if a line number that has packets embedded in it is outside of the standards, it is displayed in
red.
Table 9-1Level B line numbers
Original Picture Source Raster Line NumberDigital Interface
Stream 1Stream 2Line Number
231
452
11221123561
11241125562
12563
34564
112111221123
112311241124
112511125
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9. STATUS DISPLAY
When the input signal is level A, the Original Picture source raster Line Number and the Digital
Interface Line Number are the same, so the line number is not indicated differently depending
on the display.
*1 Original Picture source raster Line Number: An original video line number
*2 Digital Interface Line Number: A line number that the transmission structure has
• Explanation
The LV 58SER06 also handles level B signals, which are 3G-SDI signals mapped from HD
dual link (SMPTE 372M-compliant) signals. In HD dual link, two HD-SDI signals (link A and link
B) are transmitted over two coaxial cables. The 1125-line progressive scans of the 1080p/60
(50, 59.94) original video are mapped into the second line of link A, the third line of link B, etc.,
and are transmitted. In this manner, you can transmit videos that have twice the frame rate of
signals that are handled with HD-SDI. However, because the lines of the original video are
mapped into the lines of the line numbers that each transmission structure, link A and link B,
has, there will be differences in the two line number values.
Packets such as ANC packets are managed by the line numbers of the transmission structures.
Videos must be managed by their original line numbers. Therefore, the line select numbers of
videos are managed by the original line numbers, and the data dumps that are linked to the
line select numbers of videos are also managed by the original line numbers.
When you want to map HD dual link to 3G-SDI level B, map link A to stream 1 and link B to
stream 2. Therefore, there will be differences in the line numbers in the same manner as was
described above for HD dual link.
9.5Configuring Event Log Settings
To view the event log, follow the procedure shown below.
You can view a log of the events that have occurred on each unit.
• Procedure
STATUS → F•1 EVENT LOG
Figure 9-2 Event log
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9.5.1Event Log Explanation
Events are listed in the event log by the time of their occurrence.
By turning the function dial (F•D) to the right, you can scroll the screen to view older events
in the log. Also, by pressing the function dial (F•D), you can display the latest events in the
log.
The times that are displayed in the event log are determined by the time that you select for
Time Code in the unit setup.
Reference: Time Code → Section 5.2, “General Setup (GENERAL SETUP)”
Precautions
• If Input Mode is set to Single Input in the unit setup, only the events from the currently
selected channel are displayed. You cannot log the events of channels A and B
simultaneously.
• Even if multiple units are installed on the LV 5800, there is only one log file. For example, if
both an LV 58SER06 and an LV 58SER01A are installed, the events from up to four
channels are displayed as one file.
• When the same event occurs successively and when multiple events occur at the same
time, they are treated as a single event.
• When multiple events occur at the same time, you may not be able to check all of the
events on the screen. When this happens, you can view all of the events by saving them
to USB memory.
• The event display is cleared when you initialize the system settings or turn the power on
and off.
• Switching video formats or input channels may cause disturbances in the signal that will
cause errors to be displayed.
9. STATUS DISPLAY
The events that are displayed in the event log are listed below.
Out of the events listed below, only the events that have been set to ON in the 5 unit setup
are displayed.
Table 9-2Events
Event NameDescription
CRCCRC error (Only 3G-SDI signals)
CRC_YYch CRC error (Only HD-SDI and HD dual link signals)
CRC_CCch CRC error (Only HD-SDI and HD dual link signals)
EDHEDH error (Only SD-SDI signals)
SDI_DELAYA/B delay error (Only HD dual link signals)
TRS_PTRS position error
TRS_CTRS code error
ILLEGALIllegal code error
LINELine number error (Only 3G-SDI, HD-SDI, and HD dual link signals)
CHKAncillary data checksum error
PRTYAncillary data parity error
GMUTGamut error
CGMUTComposite gamut error
FRZFreeze error (Only HD-SDI and SD-SDI signals)
BLKBlack error (Only HD-SDI and SD-SDI signals)
LVL_YYch level error (Only HD-SDI and SD-SDI signals)
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Event NameDescription
LVL_CCch level error (Only HD-SDI and SD-SDI signals)
A_BCHEmbedded audio BCH error (Only 3G-SDI, HD-SDI, and HD dual link signals)
A_PRTYEmbedded audio parity error (Only 3G-SDI, HD-SDI, and HD dual link signals)
A_DBNEmbedded audio DBN error
A_INHEmbedded audio INHIBIT error
NO_SIGNALNo signal
UnKnownThe input signal format is not supported or is different from the specified format.
9.5.2Starting Event Logging
To start event logging, follow the procedure shown below.
• Procedure
STATUS → F•1 EVENT LOG → F•2 LOG
• Settings
START:Event logging is started. “NOW LOGGING” appears in upper right of the event
log.
STOP:Event logging is stopped. “LOGGING STOPPED” appears in upper right of the
event log. This is the default setting.
9. STATUS DISPLAY
9.5.3Clearing the Event Log
To clear the event log, follow the procedure shown below.
• Procedure
STATUS → F•1 EVENT LOG → F•3 CLEAR
9.5.4Selecting the Overwrite Mode
The LV 5800 can display up to 5000 events. To select the action to perform when more than
5000 events occur, follow the procedure shown below.
• Procedure
STATUS → F•1 EVENT LOG → F•4 LOG MODE
• Settings
OVER WR: When more than 5000 events occur, the LV 5800 writes over older events. This
is the default setting.
STOP:Events after the 5000th event are not logged.
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9.5.5Saving to USB Memory
You can save the event log to USB memory as a text file.
To do so, follow the procedure shown below.
1.Connect a USB memory device to the USB port.
2.Press F•6 USB MEMORY.
The file list display appears.
This menu item appears when USB memory is connected.
9. STATUS DISPLAY
Figure 9-3 File list display
3.Press F•1 NAME INPUT.
The file name input display appears.
Figure 9-4 File name input display
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9. STATUS DISPLAY
4.Enter a file name using up to 20 characters.
The key operations on the file name input display are explained below.
Spaces are invalid. The spaces that you enter are ignored.
F•1 CLEAR ALL:Deletes all characters.
F•2 DELETE:Deletes the character at the cursor position.
F•3 INSERT:Inserts an underscore (_) at the cursor position.
F•4 <=:Moves the cursor to the left.
F•5 =>:Moves the cursor to the right.
F•6 CHAR SET:Enters the selected character.
F•D:Turn to select a character, and press to enter the character.
You can copy the file name of an already saved file. To copy a file name, move the
cursor to the file in the file list whose name you want to copy, and then press the
function dial (F•D). If F•5 FILENAME AUTO INC is set to ON, a two-digit number will
automatically be added to the end of the copied file name.
5.Press F•7 up menu.
6.Press F•2 STORE.
When the message “Saving file - Please wait.” disappears, the file has been
successfully saved.
If there is more than one file with the same name in the USB memory, an overwrite
confirmation menu appears. If you want to overwrite the current file, press F•1 OVER
WR YES. Otherwise, press F•3 OVER WR NO.
• Deleting an Event Log
To delete an event log that has been saved to USB memory, select the log file in the file list
display, and then press F•4 FILE DELETE. To delete the file, press F•1 DELETE YES. To
cancel the delete operation, press F•3 DELETE NO.
• Setting File Numbering
When you set F•5 FILENAME AUTO INC in the file list display to ON, a two-digit number
is automatically added to the entered file name (starting with 00). The default setting is
OFF.
This number returns to 00 if you initialize the settings or turn the power on and off.
• USB Memory Folder Structure
Event logs are saved in the LOG folder. If there is no LOG folder in the USB memory, the
LV 5800 will create a folder automatically.
USB memory
└LOG
└****.TXT
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9.6Data Dump Settings
To view the data dump, follow the procedure shown below.
In the data dump, the data of the selected line is listed.
• Procedure
STATUS → F•3 SDI ANALYSIS → F•1 DATA DUMP
9. STATUS DISPLAY
Figure 9-5 Data dump
9.6.1Data Dump Explanation
In the data dump, the input signal's embedded ancillary data is detected, and the following
detection codes are displayed.
Table 9-3Detection code list
Detection CodeDisplay ColorDescription
ADFCyanAncillary data flags (000h, 3FFh, and 3FFh)
DIDCyanData identification (the data after ADF)
SDIDCyanSecondary data identification
DBNCyanData block numbers
DCCyanData count (the data after the SDID/DBN)
UDWCyanUser data words (the user data words of the data count length
CSMagentaChecksum (the data immediately after UDW)
APYellowActive picture
(the secondary format data when the DID is smaller than 80H)
(the primary data format when the DID is larger than 80H)
after ADF)
(the active picture from after the SAV to just before the EAV
when the selected line is within the active video area)
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9. STATUS DISPLAY
9.6.2Selecting the Display Mode
To select the data dump display mode, follow the procedure shown below.
STATUS → F•3 SDI ANALYSIS → F•1 DATA DUMP → F•1 MODE
• Settings
RUN:The input signal data is automatically updated and displayed. This is the
default setting.
HOLD:The input signal data is displayed statically.
You cannot change lines.
FRM CAP:The frame capture data is displayed.
You cannot select this option when there is no frame capture data in the LV
5800 or when the frame capture data and the input signal format are different.
9.6.3Selecting the Content to Display
To select the content to display in the data dump, follow the procedure shown below.
When the input signal is 3G-SDI level A, this menu item is not displayed.
• Procedure
STATUS → F•3 SDI ANALYSIS → F•1 DATA DUMP → F•2 DISPLAY
• Settings (When the input signal is 3G-SDI level B)
STREAM 1:Stream 1 are displayed. This is the default setting.
STREAM 2:Stream 2 are displayed.
STREAM 1/2: Streams 1 and 2 are combined, and their data sequences are displayed.
• Settings (When the input signal is HD dual link)
LINK A:The parallel converted data sequences of link A are displayed. This is the
default setting.
LINK B:The parallel converted data sequences of link B are displayed.
LINK A/B:Links A and B are combined, and their parallel data sequences are displayed.
When you select LINK A/B, the content that is displayed varies, as shown below, depending
on the format of the input signal.
• YCbCr (4:2:2) 10 bits
Because the selected line in the picture is embedded alternately in links A and B for each
frame, the LV 58SER06 switches between links A and B at an irregular interval to display
the information of the selected line.
• YCbCr (4:2:2) 12 bits
The lower 2 bits that have been assigned to link B are appended to the Y and CbCr
channels, and these channels are displayed in 12 bits.
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