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S M O S D a t a V i i e w e r

S D V

S o f f t t w a r e U s s e r r

’ s s M a n u a l l

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Issue :

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Prepared by

Reviewed by

Approved by

Name

Nuno Almeida

Bruno Fernandes

Function

Project Manager

Project Engineer

Nuno Almeida Project Manager

Signatures and approvals on original

Signature

DEIMOS Engenharia S.A.

Av. D. João II, Lote 1.17.01, Edifício Torre Zen, 10º

1998-023 Lisboa, PORTUGAL

Tel.: +351 21 893 3010 / Fax: +351 21 896 9099

E-mail: [email protected]

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D o c u m e n t t I

I n f f o r m a t t i i o n

Contract Data

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Internal Distribution

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DME-COV-POL05

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Confidential

Copies

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D o c u m e n t t S t t a t t u s L o g

Issue Date Change description

Draft 1 15/06/2006 First draft of the document

Draft 2 14/09/2006 Second draft of the document for FAT-V1

1.4 27/11/2006 Revision 4 of Issue 1:

Revision related to SMOS Data Viewer 1.2.

Some minor corrections (presentation, spelling and grammar)

Section 6 and 7: L1A and L1B features only apply to L1A and

L1B data

New paragraph in Appendix A (How to edit BinX files)

New Appendix B (Prerequisite on the system set-up for printing from SMOSView GUI)

New Appendix C (Phase calculations in SMOS Data Viewer plots)

New Appendix D about the transformations performed to switch from L1B Fourier components of BT to L1B reconstructed BT

1.5

2.0

12/03/2007 Revision 5 of Issue 1:

User Manual has been largely revised in each section. The current revision is related to SMOS Data Viewer version beta

1.3, including specific L1C and L2 visualization features. It also takes into account comments from ESA (from February

2007).

26/04/2007 Issue 2.0:

User Manual update for the official SMOS Data Viewer version 1.3.0.

Add L2 flag projection section

Change explanation for incidence angle selection

Add comment concerning the opening of files (.HDR or .DBL)

Add search function explanation

Add UDP – SM – OS acronyms

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2.1

2.3

2.4

2.5

2.6

2.7

2.8

14/06/2007 Revision 1 of Issue 2 :

Modifications to take into account comments from FAT-V2 meeting.

20/11/2007 Add Polarization filter for specific visualization plug-in

12/12/2008 Update the document in section 5 in order to clarify the SPR

SDV-PR-0041.

The installation process was further detailed in section 3.2

Updated the L2 Specific Visualization product table

06/03/2009 Update the document to reflect the new L1C plot functionality in section 8.1.

Clarify the IDL export limitations in section 3.5.

Updated the auxiliary files that are possible to visualize

Added an appendix with the new “Browse” structure of the

Level 0 products. This includes the correlations table.

Removed “Array Movie Viewer” section

Added new section explaining how to replace the product format plugin (section 3.3)

05/06/2009 Update the document to reflect updates on the color scale and visualization of AUX_SSS and AUX_DISTAN files.

Limitations of the Chart Plugin

Introduce the new functionality of DUMMY data display for

L2 product files

18/09/2009 Update the document to reflect new implementations on the

SMOS Data Viewer release 1.5.4.

New specific visualization available fo AUX_FARA products

Color scale can be adjusted for L1A and L1B specific visualization panels.

The L1B Reconstruction is now performed using the Blackman

Apodisation window.

14/12/2009 Update the document to reflect corrections and enchancements available on SMOS Data Viewer release 1.5.4.

Clarificarification of the specific visualization of

CRSx1A

Added section explaining the transformation from square to star domain.

Introduced the support of browsing intermediate products (CORN1A and UNCN1A)

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2.9

2.10

2.11

14/05/2010 Update the document to include information about the new specific visualization available for AUX_GAL products in the

SDV release 1.6.0.

Added information about the new information available in L1A and L1B specific visualization panel.

17/10/2013 Update the document to include information about the new specific visualization available for AUX_OTT products in the

SDV release 1.6.5.

26/02/2015 Update the document to include information about the new specific visualizations available for AUX_DTBCUR and

AUX_DTBXY products as part of the SDV release 1.7.0.

New section (3.1) with the Know Issues of the application

Corrected typos along the document.

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T a b l l e o f f C o n t t e n t t s

1. INTRODUCTION _______________________________________________________________ 16

1.1. Purpose and Scope _______________________________________________________________ 16

1.2. The SMOSView mission __________________________________________________________ 16

1.3. Structure of the Document ________________________________________________________ 16

1.4. Abbreviations and Acronyms ______________________________________________________ 17

2. The SMOSView application _______________________________________________________ 19

2.1. Limitations of SMOSView ________________________________________________________ 19

2.2. SMOSView data format __________________________________________________________ 19

2.3. User feedback and bug report _____________________________________________________ 19

3. Getting started with SMOSView ___________________________________________________ 21

3.1. Known Issues ___________________________________________________________________ 21

3.2. Your system setup _______________________________________________________________ 21

3.3. How do I install SMOSView? ______________________________________________________ 21

3.4. Update of New Product Schemas ___________________________________________________ 22

3.5. How do I start SMOSView? _______________________________________________________ 22

3.6. The SMOSView User Interface ____________________________________________________ 23

3.7. SMOSView buffers ______________________________________________________________ 25

3.8. The first steps ___________________________________________________________________ 26

3.9. SMOSView menu tour ____________________________________________________________ 26

3.10. SMOSView toolbar _____________________________________________________________ 30

3.11. SMOS View Known Problems and Limitations ______________________________________ 30

4. Viewing DATA content ___________________________________________________________ 31

4.1. File Chooser buffer ______________________________________________________________ 31

4.2. Format Manager Buffer __________________________________________________________ 32

4.3. Browser buffer __________________________________________________________________ 34

4.3.1. Search function _______________________________________________________________ 36

4.3.2. Data browsing in Normal mode __________________________________________________ 36

4.3.3. Interpreted data _______________________________________________________________ 37

4.3.4. Ignored data __________________________________________________________________ 38

4.3.5. Other data visualization modes ___________________________________________________ 38

4.4. Export a product subset to an ASCII file ____________________________________________ 43

4.4.1. Export data using the Browser buffer ______________________________________________ 43

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4.4.2. Export data using the New Subset selection _________________________________________ 44

5. Plotting Data ___________________________________________________________________ 48

5.1. 2D plots ________________________________________________________________________ 48

5.1.1. Plotting a data field against an auto-generated index __________________________________ 49

5.1.2. Plotting two data fields against each other __________________________________________ 52

5.1.3. Importing external data _________________________________________________________ 54

5.1.4. Multi plot visualization _________________________________________________________ 55

5.1.5. Deleting a plot or data selection __________________________________________________ 56

5.1.6. Saving a plot Template _________________________________________________________ 56

5.2. Plot settings _____________________________________________________________________ 56

6. L1A Specific visualization features _________________________________________________ 60

6.1. L1A visibility matrix _____________________________________________________________ 60

6.2. What the plot shows ______________________________________________________________ 61

6.2.1. Features available _____________________________________________________________ 62

6.2.1.1. Zoom in / Zoom out: ________________________________________________________ 62

6.2.1.2. Hide parameters to magnify visualized data: _____________________________________ 62

6.2.1.3. Plot Type _________________________________________________________________ 62

6.2.1.4. Snapshot and title settings ___________________________________________________ 63

6.2.1.5. Value details ______________________________________________________________ 64

6.2.1.6. Export ___________________________________________________________________ 64

6.2.1.7. Color Table _______________________________________________________________ 65

6.2.1.8. Stepping through the product _________________________________________________ 68

6.3. L1A Star Domain ________________________________________________________________ 69

7. L1B Specific visualization features _________________________________________________ 70

7.1. L1B Fourier Components of Brightness Temperature__________________________________ 70

7.2. L1B Reconstructed Brightness Temperature _________________________________________ 72

8. L1C Specific visualization features _________________________________________________ 74

8.1. L1C Dual polarization visualization _________________________________________________ 74

8.1.1. Plot type ____________________________________________________________________ 75

8.1.2. Pixel Attributes Projection ______________________________________________________ 76

8.1.2.1. Attributes ________________________________________________________________ 76

8.1.2.2. Geo Tools ________________________________________________________________ 77

8.1.2.3. Projections _______________________________________________________________ 78

8.1.2.4. Color Tables and Range _____________________________________________________ 78

8.1.2.5. Export ___________________________________________________________________ 79

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8.1.2.6. Zoom in / out / around ______________________________________________________ 80

8.1.2.7. Snapshot ID selector ________________________________________________________ 80

8.1.2.8. Polarization _______________________________________________________________ 81

8.1.2.9. Incidence angle selector _____________________________________________________ 81

8.1.3. Measurement Counter Projection _________________________________________________ 81

8.2. L1C Full polarization visualization _________________________________________________ 82

8.2.1. Polarization __________________________________________________________________ 83

8.2.1.1. Brightness Temperatures Specific Plot __________________________________________ 83

8.3. L1C browse products visualization _________________________________________________ 84

9. L2 Specific visualization features ___________________________________________________ 86

9.1. Controls from left pane ___________________________________________________________ 87

9.1.1. Field selection ________________________________________________________________ 89

9.1.2. Flags selection ________________________________________________________________ 89

9.1.3. Geo Tools ___________________________________________________________________ 91

9.1.4. Projections ___________________________________________________________________ 91

9.1.5. Field color Scale ______________________________________________________________ 91

9.1.6. Example _____________________________________________________________________ 92

9.2. Error mode _____________________________________________________________________ 93

9.2.1. Error color scale ______________________________________________________________ 93

9.2.2. Error mode example ___________________________________________________________ 93

9.2.3. Visualization Approach on AUX_SSS and AUX_DISTAN _____________________________ 94

9.2.4. Figure 105 AUX_SSS Zone PanelDummy Data Filtering ______________________________ 95

9.2.5. Visualization of AUX_FARA Products ____________________________________________ 95

9.2.6. Visualization of AUX_GAL_OS and AUX_GAL_SM ________________________________ 96

9.2.7. Visualization of AUX_OTTxD/F _________________________________________________ 98

9.2.8. Visualization of AUX_DTBCUR _________________________________________________ 99

9.2.9. Visualization of AUX_DTBXY _________________________________________________ 100

9.2.9.1. Plot Panel _______________________________________________________________ 100

9.2.9.2. World Map Panel _________________________________________________________ 100

9.2.9.3. Charts Panel _____________________________________________________________ 101

Appendix A Prerequisite for Printing _____________________________________________ 102

Appendix B Phase Calculations in SMOS Data Viewer plots__________________________ 103

Appendix C transformations performed to switch from L1B Fourier components of BT to L1B reconstructed BT _________________________________________________________________ 105

Appendix D: Star Domain Visualization ______________________________________________ 107

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Appendix E: Browse Structure of Level 0 Product Arrays _______________________________ 109

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L i i s t t o f f T a b l l e

Table 1: List of Terms Used in this Document................................................................................................ 17

Table 2: List of acronyms used in this document ............................................................................................ 18

Table 3 L1A products to which L1A Specific Visualization Features apply .................................................. 60

Table 4 L1B products to which L1B Specific Visualization Features apply ................................................... 70

Table 5 L1C products to which L1C Specific Visualization Features apply ................................................... 74

Table 6 L2 products to which L2 Specific Visualization Features apply ........................................................ 86

Table 7 L2 products to which L2 Specific Visualization Features apply ........................................................ 86

Table 8 L2 Ocean Salinity fields that can be projected on the geographical map ........................................... 88

Table 9 L2 Soil Moisture fields that can be projected on the geographical map ............................................ 88

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L i i s t t o f f P i i c t t u r e s s

Figure 1 SMOSView start window (From top to bottom: Menu bar, Tool Bar, Buffer) ................................ 23

Figure 2: Buffer selection box ......................................................................................................................... 24

Figure 3: How to split window ........................................................................................................................ 24

Figure 4: Multiple (x 4) windows opening ...................................................................................................... 25

Figure 5: File menu ......................................................................................................................................... 26

Figure 6 View Menu ........................................................................................................................................ 27

Figure 7 System Menu ..................................................................................................................................... 27

Figure 8: Window Menu ................................................................................................................................. 27

Figure 9: Help Menu ....................................................................................................................................... 28

Figure 10: Right-clicking example .................................................................................................................. 29

Figure 11: SMOSView Icons .......................................................................................................................... 30

Figure 12: New file chooser icon .................................................................................................................... 31

Figure 13: File Chooser buffer ........................................................................................................................ 31

Figure 14: File chooser icons .......................................................................................................................... 32

Figure 15: Folder icon ..................................................................................................................................... 32

Figure 16: Compatible file icon ....................................................................................................................... 32

Figure 17: Format manager icon ..................................................................................................................... 33

Figure 18: Format manager buffer................................................................................................................... 33

Figure 19: HTML format description example ............................................................................................... 34

Figure 20: HTML format description navigation icones ................................................................................. 34

Figure 21: New Browser icon .......................................................................................................................... 34

Figure 22: Browser buffer example ................................................................................................................. 35

Figure 23: Data browsing icons ....................................................................................................................... 36

Figure 24: Interpreted data representation ....................................................................................................... 38

Figure 25: Ignored data flag ............................................................................................................................ 38

Figure 26 Flat Mode ........................................................................................................................................ 39

Figure 27 Hex Mode ........................................................................................................................................ 40

Figure 28: Semantic mode display .................................................................................................................. 41

Figure 29 Tabular Mode .................................................................................................................................. 42

Figure 30 Transposed table from the tabular mode ......................................................................................... 42

Figure 31: "Export to ASCII" dialog box ........................................................................................................ 43

Figure 32: ASCII export example ................................................................................................................... 44

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Figure 33: Subset selection Window. .............................................................................................................. 45

Figure 34: Subset selection icons. ................................................................................................................... 45

Figure 35 New subset dialog box .................................................................................................................... 45

Figure 36: Selected data for export example ................................................................................................... 46

Figure 37: Selection of data with scroll bars ................................................................................................... 46

Figure 38: Plot default window ....................................................................................................................... 48

Figure 39: Plotter buffer icons ......................................................................................................................... 48

Figure 40 Plot Templates box .......................................................................................................................... 49

Figure 41 Data Panel ....................................................................................................................................... 49

Figure 42 Product Tree .................................................................................................................................... 50

Figure 43 Plot screen - Chart Panel ................................................................................................................. 50

Figure 44: Array Panel .................................................................................................................................... 52

Figure 45: Data value against data container index ......................................................................................... 52

Figure 46: XY series Plot template .................................................................................................................. 53

Figure 47: XY series example ......................................................................................................................... 53

Figure 48: XY series with external data .......................................................................................................... 54

Figure 49: Import file menu............................................................................................................................. 54

Figure 50: Import file example ........................................................................................................................ 54

Figure 51: Multi Plot example ........................................................................................................................ 55

Figure 52: All plots icon .................................................................................................................................. 56

Figure 53: Remove Node icon ......................................................................................................................... 56

Figure 54: Save Template Icon ........................................................................................................................ 56

Figure 55: Title renaming example ................................................................................................................. 56

Figure 56: color setting menu .......................................................................................................................... 57

Figure 57: Plotter properties color setting ....................................................................................................... 57

Figure 58: Plotter HSB color setting ............................................................................................................... 58

Figure 59: Plotter RGB color setting ............................................................................................................... 58

Figure 60: L1A visibility matrix example ....................................................................................................... 61

Figure 61: Plot Type drop down menu ............................................................................................................ 62

Figure 62: Snapshot setting details .................................................................................................................. 63

Figure 63: Data field drop down menu example ............................................................................................. 63

Figure 64: Value Details display ..................................................................................................................... 64

Figure 65: Export Box ..................................................................................................................................... 64

Figure 66 Export formats ................................................................................................................................. 65

Figure 67 JPG export result ............................................................................................................................. 65

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Figure 68: Color Tables menu ......................................................................................................................... 66

Figure 69: Color table example ....................................................................................................................... 66

Figure 70: L1A matrix representation using a color table ............................................................................... 66

Figure 71 “Display color scale in plot” selected ............................................................................................. 67

Figure 72 Min and max color scale range selection ........................................................................................ 68

Figure 73: Snapshot slider ............................................................................................................................... 68

Figure 74: Start Domain visualization example .............................................................................................. 69

Figure 75: L1B Fourier Components of BT example ...................................................................................... 71

Figure 76 L1B Plot type menu ........................................................................................................................ 71

Figure 77: L1B Spatial Representation example ............................................................................................. 72

Figure 78 L1C Specific Visualization Feature Window .................................................................................. 75

Figure 79 L1C Plot Type Menu ....................................................................................................................... 75

Figure 80 L1C Attributes Drop Down Menu .................................................................................................. 76

Figure 81 Example of L1C BT value field displayed. All pixels displayed refer to the same snapshot

(100619). ......................................................................................................................................................... 77

Figure 82 L1C Geo Tools Box Details ............................................................................................................ 77

Figure 83 Projections Drop Down Menu ........................................................................................................ 78

Figure 84 North Orthographic projection example ......................................................................................... 78

Figure 85 Color Tables Menu .......................................................................................................................... 79

Figure 86 Export Box ...................................................................................................................................... 79

Figure 87 Export formats drop down menu ..................................................................................................... 80

Figure 88 L1C Zoom in / out / around Tool .................................................................................................... 80

Figure 89 L1C Snapshot ID selector box ........................................................................................................ 81

Figure 90 L1C Incidence Angle Selector ........................................................................................................ 81

Figure 91 Measurement Counter Projection L1C example ............................................................................. 82

Figure 92: BT vs Incidence Angle Selection Menu......................................................................................... 83

Figure 93: BT vs Incidence Angle Chart ......................................................................................................... 84

Figure 94 L1C browse product visualization example (North orthographic projection) ................................. 85

Figure 95 L2 specific visualization feature window........................................................................................ 87

Figure 96 Field selection box (OS product on the left; SM product on the right) ........................................... 89

Figure 97 Flags selection box .......................................................................................................................... 89

Figure 98 Flags color transparency menu ........................................................................................................ 90

Figure 99 Flags transparency selection menu .................................................................................................. 91

Figure 100 L2 field color scale ........................................................................................................................ 92

Figure 101 L2 OS product visualization example ........................................................................................... 92

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Figure 102 Click on the “Error Mode” icon to start the error mode ................................................................ 93

Figure 103 Error color scale ............................................................................................................................ 93

Figure 104 Error mode display above SSS field ............................................................................................. 94

9.2.4. Figure 105 AUX_SSS Zone PanelDummy Data Filtering .................................................................... 95

Figure 106 Display DUMMY Values Option ................................................................................................. 95

Figure 107: AUX_FARA Specific Visualization ............................................................................................ 96

Figure 108: AUX_GAL_OS Specific Visualization ....................................................................................... 97

Figure 109: AUX_GAL_SM Specific Visualization ....................................................................................... 97

Figure 110: AUX_OTT Dual Pol Specific Visualization ................................................................................ 98

Figure 111: AUX_DTBCUR Specific Visualization .................................................................................... 100

Figure 112: AUX_DTBXY World Map ........................................................................................................ 101

Figure 113: AUX_DTBXY Charts Panel ...................................................................................................... 101

Figure 114: Star Domain Representation ...................................................................................................... 107

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P u r p o s s e a n d S c o p e

This document provides a detailed guide to using the SMOSView tool for viewing data from the Earth observation data products contained in binary files. It explains how this data can be extracted, decoded and displayed using various visual representations, including images where appropriate, and exported in a variety of formats.

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T h e S M O S V i i e w m i i s s i i o n

SMOS is an Earth Explorer mission dedicated to analyzing the soil moisture and ocean salinity. These parameters are two key variables used within models developed to study the meteorology and hydrology of the Earth. The European Space Agency launched a program aimed at deriving these parameters from

Earth satellite observation data, resulting in the SMOS mission.

The SMOS satellite will carry a specific payload named MIRAS (Microwave Imaging Radiometer with

Aperture Synthesis), a two dimensional L-band interferometer radiometer. This instrument will measure the brightness temperature field from which soil moisture and ocean salinity are derived.

INDRA is responsible for implementing the Data Processing Ground Segment (DPGS). This processing facility will ingest raw data down-linked from the SMOS satellite and produce data containing the ocean salinity and soil moisture parameters.

Developing a data processing ground segment is a complex task and requires a data visualization tool.

This tool is used to visualize the content of binary data files generated by the ground segment and verify their content. The SMOS Data Viewer is called SMOSView in the following part of this document.

SMOSView is a tool capable of opening and decoding SMOS data. It then displays the contents as tables, graphs as appropriate.

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S t t r u c t t u r e o f f t t h e D o c u m e n t t

After this introduction, the document is divided into a number of major sections, which are briefly described below:

Chapter 2 presents the SMOSView application and its functionalities.

Chapter 3 details the first steps to use SMOSView; installing the software, system set-up and the

User Interface.

Chapter 4 explains how to view product content and format description

Chapter 5 describes plotting capabilities of SMOSView

Chapter 6 details visualization features of L1A data

Chapter 7 details visualization specific features of L1B data

Chapter 8 details visualization features of L1C data

Chapter 9 details visualization features of L2 data

Appendix A is about the BinX to Xin converter

Appendix B gives the Prerequisite on the system set-up for printing from SMOSView GUI

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Appendix C details Phase calculations in SMOS Data Viewer plots

Appendix D may be useful to scientific users who want to understand how SMOSView performed the transformations to switch from L1B Fourier components of BT to L1B reconstructed BT

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A b b r e v i i a t t i i o n s a n d A c r o n y m s

The following terms have been used in this report with the meanings shown.

Data Set

Data Set Record

A collection of data set records in an SMOS product.

Dialog

A collection of data fields of certain sizes and data types.

A window that displays information or presents options to the user.

Focus

Java Runtime

Environment

Product

View

The destination of keyboard input.

The software required to run a Java application

An SMOS data file

A manner of visualizing data. E.g. a Graph View or an Image

View.

Table 1: List of Terms Used in this Document

The following acronyms have been used in this document:

ASCII American Standard Code for Information Interchange

ADS

BT

COTS

Annotation Data Set (time stamped processing data)

Brightness Temperature

Commercial Off The Shelf Software

DSD

ESA

GIF

GUI

HDF

HMI

HTML

ID

IDL

Data Set Descriptor

European Space Agency

Graphics Interchange Format

Graphical User Interface

Hierarchical Data Format

Human Machine Interface

Hyper-Text Mark-up Language (web page format)

IDentifier (of snapshot)

Interactive Data Language

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RGB

SDV

SM

SMOS

SPH

TIFF

UDP

VM

IEEE

JPEG

JVM data block

MPH

OS

PDS

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Institute of Electronic and Electrical Engineers

Joint Photographic Expert Group (image format)

Java Virtual Machine (also Java VM)

Measurement Data Record

Main Product Header

Ocean Salinity

SMOS Payload Data Segment (systems processing and archiving data)

An image format common on Unix

Red Green Blue

SMOS Data Viewer also named as “SMOSView”

Soil Moisture

Soil Moisture and Ocean Salinity

Specific Product Header

Tagged Image File Format

User Data Product

(Java) Virtual Machine (used to run java software. Also JVM)

Table 2: List of acronyms used in this document

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The SMOSView software enables a user to decode and display data from SMOS products, display the contents as images or graphs and export the data to a number of alternative formats.

SMOSView is a tool providing a quick and easy look at SMOS data products. Ease of use is emphasized through its simple graphical user interface for data exploration and visualization. This version is intended in particular for the following purposes:

Browse through data files and display their content (see section 4),

Provide plotting capabilities (see section 5)

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SMOSView is not intended for a detailed analysis, visualization and processing of Earth observation data. There are other commercial and proprietary tools providing these facilities and with many specialized options. However, SMOSView allows selected data to be exported to IDL to support more complex analysis.

Widely used commercial packages include:

IDL & ENVI http://www.ittvis.com/

Matlab http://www.mathworks.com

Mathematica http://www.wolfram.com/

Noesys http://www.ittvis.com/

PV-WAVE http://www.vni.com

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SMOSView is able to handle multiple versions of any Earth observation data products, as long as the product formats are described in the SMOSView format database.

SMOSView handles all these products thanks to the XIN language, an XML meta-data language used to describe the content and structure of any binary data file. The use of XIN language within SMOSView is fully described in the SMOSView Software Specification document.

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User feedback is essential for improving SMOSView and comments and bug reports can be sent directly to the ESA Earth Observation Missions Helpdesk: mailto:[email protected]?subject=SMOSView%20Bug%20Report

When making a bug report, please include the following information:

From the “About” SMOSView option in the Help menu:

Operating System & Machine Type

Java version, vendor name and vendor specific

SMOSView and data format version numbers

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Steps leading to problem

Any text sent to the terminal

We would like to thank all those who are kind enough to send bug reports and feedback. Every message helps to make the tool better for everyone in the future.

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This chapter presents the first steps to complete before using SMOSView, i.e. installing SMOSView on various platforms and starting the tool.

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The following list presents the known issues of SMOSView that may affect the user interaction with the application:

The tool has been tested and supported for Windows XP, Vista and 7 (32 and 64 bits installations).

For Windows 8 it is only possible to install the 32 bits installation package.

The Specific Visualization feature of the OTT data from AUX_DTBXY a AUX_DTBCUR products takes around 30 seconds to load. Please wait while the buttons are disbaled on the visualization panel.

During any Specific Visualization on the World Map the points projected may disappear on some zoom levels. If that happen please center again the map with a click on the center of the navigation arrows.

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SMOSView is a Java application; it can run on any platform. The main requirement for the usage of the tool is RAM memory.

The minimum amount of memory required to launch SMOSView is equal to 512 megabytes, this will allow to use the browse product feature and perform some basic plots (using the chart) of small products.

To use comfortably SMOS View and take advantage of the specific visualization feature up to Level 1C it is recommended to have at least 1 GB of memory. To use the specific visualization of L2 ADFs and

L2 products it is recommended to have 2GB dedicated to SMOS View.

SMOSView is fully supported only on Java 1.5, which is included in the installation package. For more information please refer to www.java.com

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NOTE: On 64 Bit operating systems installations, the library glibc-32 bits version is required to be installed.

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SMOSView provide installation packages for Microsoft Windows, Mac OS X, AIX, Solaris, Linux and

HP-UX operating systems.

Unzip the archive, open the file “install.htm” with your web browser and download the installation file for your architecture. The installation instructions presented below are also available in the page.

Windows XP, Vista, 7 :

After downloading, double-click “install.exe”

You do not need to install any other software. A Java virtual machine is included with this download.

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Windows 8

After downloading, right-click on “install.exe” and select "Properties"

On the "Compatibility" tab enable the Compatibility mode and select "Windows 7" and press

"Ok"

Double-click “install.exe”

Mac OS X:

After downloading, double-click “install”.

Requires Mac OS X 10.4 or later

Be sure you have Java 1.5 or later installed.

The compressed installer should be recognized by Stuffit Expander and should automatically be expanded after downloading. If it is not expanded, you can expand it manually using StuffIt

Expander 6.0 or later.

AIX / Linux / HP-UX:

After downloading open a shell and, “cd” to the directory where you downloaded the installer.

At the prompt type: “sh ./install.bin”

A Java virtual machine is included with this download. It will run automatically when you run the shell script.

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SMOS View install by default a “jar” file (smos-formats-plugin-SNAPSHOT.jar) containing the latest

XIN and XIS SMOS product schemas available on the date of the release, however new schemas releases may happen and this does not mean that a new version of the software shall also be distributed.

SMOS View has the possibility to replace the product schemas jar file with a newer version and the new products can instantanely be read. The process is very simple ; the user just need s to replace the old

“smos-formats-plugin-SNAPSHOT.jar” file with the new one.

The “smos-formats-plugin-SNAPSHOT.jar” is located in the directory where SMOS View was installed.

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In order to run SMOSView:

On Microsoft Windows: In the 'Start' menu, click on the SMOSView shortcut in the SMOSView group menu.

On an X Windows system (UNIX/Linux) or a BSD based system (Mac OS X): Open a terminal and cd in the SMOSView installation directory. Then type ./SMOSView.

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When SMOSView starts, a large window appears containing a menu bar, a tool bar and an area just

below known as a buffer, as shown in the Figure 1.

Menu

Bar

Buffer

Figure 1 SMOSView start window (From top to bottom: Menu bar, Tool Bar, Buffer)

A window may contain many buffers, and a drop down list at the top of the buffer area is used to switch

between buffers; the buffer selection box. To open this selection box as shown in the Figure 2, the user

has to click on its label. In this example, the buffer selection box is labeled:

[FILECHOOSER] C:\SMOSView\SMOS TEST PRODUCT\L1A-L1B.

The buffer selection box could also be labeled [BROWSER] followed by the product name if a product is being browsed or [SMOSSVF] followed by the name of the product if the product is being studied with the Specific Visualization Features.

After more than one buffer has been opened, it is possible to come back to a dedicated buffer by clicking the buffer selection box located under the main window icons and selecting the buffer of interest.

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Figure 2: Buffer selection box

Multiple buffers can be displayed in the window at the same time, by splitting the window horizontally and or vertically. It can be done by choosing “Split horizontally” or “Split vertically” in the “Window”

menu of the menu bar (see Figure 3 and also Section 3.9, Window Menu Figure 8).

Figure 3: How to split window

Split window sections can be closed by “Unsplit” in the “Window” menu of the menu bar.

The same list of buffers is available in each split window section.

Multiple windows may also be opened (see Figure 4, where 4 window-areas have been opened), and

within each window, an independent list of buffers may be opened.

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Figure 4: Multiple (x 4) windows opening

A buffer is a SMOSView window containing a set of functionalities/tools associated with a product.

Once a product data file is selected with the File Chooser buffer as described in section 4.1 of this

document, the user is able to use the SMOSView functionalities associated with the selected data product by opening a Lat/Long plot, a Plotter or an Image Viewer buffer.

The use of the Format Manager buffer does not require any product to be opened before using it.

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Interaction with data files and the various tools and views provided by the application is through buffers.

The current version of SMOSView provides the following buffers:

File Chooser buffer – presents a view of the file system, and identifies compatible files that can be opened with SMOSView

Export to ASCII – allows to export selected data to an ASCII file (.txt extension)

Export to IDL – allows to export selected data to IDL (2 files are created with .pro extension and .dat extension)

NOTE: There is a limitation on the export IDL feature on variable size arrays. IDL export works correctly if only one pixel is exported. When more than one pixel is exported only the first N-

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New Browser buffer – presents a view of the contents of a data file.

New Chart – allows the user to plot data

SMOS Specific Visualization features – allows the user to analyze SMOS L1A, L1B, L1C and L2 products

New Format Manager buffer – presents a description of each of the file formats supported by SMOSView.

New Subset Selection buffer – allows the user to select a data set inside the product

Help – opens the user guide in HTML format

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After starting SMOSView, the default window appears which contains a single File Chooser buffer.

This allows one to navigate the file system and select a file that can be opened in the application.

At this stage, all the available menus are displayed, but many of the menu items are disabled.

To start viewing data, select a compatible file in the File Chooser, and open a buffer to view the contents

(via the toolbar or the buffer menu).

It is also possible to view format descriptions for compatible files via the Format Manager.

The File Chooser buffer is described in section 4.1 and the Format Manager buffer is detailed in section

4.2.

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This section describes the menus available in SMOSView in version 1.5.2.

The File menu enables the user to open a File Chooser buffer or quit the program.

Figure 5: File menu

The View Menu enables the user to open a Browser buffer or a Plotter or specific visualisation features

buffers. The buffers are only available once a product has been selected (see section 4.1). The Browser,

Plotter and specific visualisation features will only be available if a compatible data file has been

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Figure 6 View Menu

The System menu enables the user to open the Format Manager buffer, providing a description of the formats contained within SMOSView, as well as a New Logger buffer, giving detailed information on the current SMOSView session as to memory usage, Java version and error reporting.

Figure 7 System Menu

The Window menu enables the user to open a new window, close a window, or split/unsplit a window.

Figure 8: Window Menu

Splitting a window is useful for working with more than one product, or visualizing an image and the related data product file at the same time. (i.e. two or more buffers simultaneously)

For example, a Format browser buffer and an Image Viewer buffer may be viewed side by side by clicking on the Split horizontally menu item, and then selecting the Image Viewer buffer in the second split section.

The sixth menu in the menu bar is buffer specific, it means it depends on the content of the current buffer. This 6 th

menu provides access to options specific to each buffer type:

When a file chooser is opened, the 6 th

menu proposes either to go to the home folder, or to the parent folder, or to refresh the current window :

When a browser is opened, the 6 th

menu proposes various options to visualize the content of the selected product: visualization mode selection (normal mode, flat mode, Hex mode, Semantic mode,

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When a Plotter buffer is opened, a Plotter menu appears. Depending on the selected field

(Plot/Series/Data), the selectable options are different. They could be: Add Plot, Add Series from product, Add XY series, Add data from file, Add data from product, Remove node, save template, export chart, or print chart:

When the specific visualization feature (SVF) buffer is opened, the 6 th

menu is not an SVF specific menu but the help menu:

The Help menu provides an access to the user guide (based on this document).

Figure 9: Help Menu

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After a buffer is opened, right clicking in a buffer will display additional context sensitive menu options, associated with that buffer as well as a shortcut to some the menus in the menu bar. For example after opening a Format Browser, right clicking in the buffer will display the following menu:

Figure 10: Right-clicking example

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Below the menu bar, a toolbar is provided as shortcuts for common tasks:

File chooser

Export to ASCII

Export to IDL

Format Browser

Plotter

SMOS Specific visualization features

New Subset Selection

HTML format description

User guide

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Figure 11: SMOSView Icons

Toolbar icons are only highlighted when the associated functionality is ready for use. For example, after opening SMOSView, the "Export to ASCII" is greyed, as there is no file open to export data from.

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Before the user starts to use SMOS View , it shall be clear that the tool have some limitations and some known problems specially on big product files. This section contains some important information related to these issues and will be updated along with the new releases of the tool.

The chart plugin have memory limitations, when the user tries to plot a variable from a product with a high number of points (more than 2 million) it is very slow and sometimes just freeze.

This happens on products such as LAI, AUX_SSS, AUX_DISTAN, and some L2 products.

In the browser plugin some indications that the data is loading is missing. Sometimes it is still loading data and no information is shown. This usually occurs on big product files.

The specific visualization panel has refresh problems, sometimes when the user tries to visualize

L2 flags they don’t appear in the world map, however if the user zoom an area the flags appear.

When the user try to use the specific visualization L2 data ( especially AUX DGG files) the specific visualization panel is loaded and became completely grey , user must resize the window view the content correctly.

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This chapter details the use of SMOSView for viewing products.

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In order to select a product for analysis in SMOSView, select a File Chooser buffer (one is opened by default at startup), or click on the "New Filechooser" icon.

Figure 12: New file chooser icon

Figure 13: File Chooser buffer

It is possible to navigate through to common directories using the “Home directory”, “Parent directory”, or “Drive selection” toolbar icons.

Home directory icon:

Parent directory icon:

Refresh view icon:

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Figure 14: File chooser icons

The “Refresh view” icon enables the user to update the view of the current folder if a file has been added/deleted from/to the folder since list was first displayed. The location bar provides the location of the selected directory/file. Folders are highlighted with a blue icon.

Figure 15: Folder icon

Double click on a folder to view its contents. Use the Parent directory toolbar icon to go up to the directory level above the current list.

Once the data is located, files compatible with SMOSView are highlighted with the following icon:

Figure 16: Compatible file icon

It is then possible to select the data of interest by simply clicking once on the file of interest. Once the file is selected, it is highlighted in yellow.

To open a compatible data, the user has to double click on its name. The data will then be automatically

opened in a new Browser buffer, displaying the content of that file (see section 4.3).

After selecting a product, a user can browse through its content using the format browser.

To open a file, the user can either double click on its header name (.HDR) or on its data block name

(.DBL).

It is also possible to browse some intermediate products such as CORN1A and UNCN1A in EEF format. In this case SDV automatically generate the corresponding HDR and DBL files allowing the user to browse the content.

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In order to view format descriptions of compatible data files, click on the "New FormatManager" icon.

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Figure 18: Format manager buffer

The FORMAT MANAGER buffer contains the list of file formats that are recognized by SMOSView and potentially multiple versions of each format.

The version gives the global version of the format, not the header or the datablock version.

The list is obtained by inspecting the formats shipped with SMOSView, therefore the list is always in line with the list of products that can actually be read using SMOSView.

Double click on any of the formats to visualize the detailed description.

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Figure 19: HTML format description example

Format information is available as a hierarchy, through which one navigates by clicking on blue links

“Details”, similar to a web page.

Once the “Details” page opened, it is also possible to navigate through the format descriptions using the

"Previous page", "Next page", or "Reload page" toolbar icons placed in the top left corner of the window.

Figure 20: HTML format description navigation icones

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Select a file in the File Chooser (section 4.1) and create a Browser buffer by either double clicking on

the product file, or clicking once on the highlighted "New Browser" icon.

Figure 21: New Browser icon

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Figure 22: Browser buffer example

The Browser buffer has a number of display modes; Normal mode, Flat mode, Hex mode, Semantic mode and Tabular mode. By default, the Browser buffer opens in Normal mode.

The buffer is divided in two panes: On the left-hand side we find a hierarchical view of the content of the file and on the right-hand side, we find the content of selected parameter or structure, and interpretation of the field values and description.

A tool bar is displayed at the top of the buffer with a number of toolbar icons to allow switching between the different modes and navigating through the selected file.

Normal mode

Flat mode

Hex mode

Semantic mode

Tabular mode

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Parent element

Previous element

Next element

Previous cousin

Next cousin

Print browser panel

Figure 23: Data browsing icons

There are two types of icons within the browser window:

Representing a data container.

A data container can contain other data containers or leaf nodes.

Representing a leaf node, containing data.

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The user can search for a field name or a value within the product with the search function at the bottom of the browser window.

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D a t a b r o w s i i n g i i n N o r m a l l m o d e

One single click on a container (blue-folder icon) in the left-hand pane will display the content of the container in the right-hand pane.

Double clicking on a container in the left-hand pane will provide the content of the container in the right-hand AND left-hand panes.

It is also possible to browse through a product with one single click on the tree opening symbols associated with a data container in the left hand pane:

tree opening symbol

Clicking on a leaf node in the left-hand pane will provide a view of the parent node in the right-hand pane; the selected leaf node will be highlighted in the right-hand pane.

It is also possible to visualize the content of a container by double clicking on it in the right-hand pane.

In this case, the container is highlighted in the left-hand pane.

It is possible to browse through the product using the “Parent element”, “Previous element” and “Next element” icon. Using the “Next” and “Previous” icons enables the user to view the next or previous element within a container. Using the “Parent” icon enables the user to view the higher-level data container.

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In the context of SMOSView, two cousins are data containers or leaf node belonging to a repeated structure within a data block. It is also possible to browse through the products clicking the Previous cousin and Next cousin Icons. When a leaf node or data container is selected within a data block, clicking on the next/previous cousin will provide same leaf node or data container view of the next/previous data block.

Example: for a SMOS L1B data product, the user selects and clicks on the Snapshot_ID in a container

“binary-data/Data_Block/Temp_Snapshot_dual/ Temp_Snapshot_dual/item 7”.

=> Clicking on the Next cousin icon, SMOSView will show the Snapshot_ID of “binarydata/Data_Block/Temp_Snapshot_dual/ Temp_Snapshot_dual/item 8”.

When a leaf node is selected, the location bar provides the path to the higher-level container. When a container is selected, the location bar provides the path of the container within the product.

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I n t e r p r e t e d d a t a

“Interpreted data” are elements of a data file whose numerical value is translated into human readable form.

For example, considering a SMOS L1B product, in the container:

“binary-data/Data_Block/Temp_Snapshot_dual/ Temp_Snapshot_dual/item 7”, the field “Flags” is interpreted. The field can have a number of integer values, but SMOSView is capable of decoding the meaning of those values. For instance the value 0 corresponds to H (horizontal polarization).

The same applies to an other field in this container: for example Snapshot_Time (day 2610 has been interpreted as 23-Feb-2007).

In the right-hand side window, interpreted data appear within a yellow box:

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Figure 24: Interpreted data representation

Interpreted data can apply to leaf nodes or containers.

For example, in the SMOS L1B data product, the Snapshot_Time container, consists of 3 fields: Day,

Seconds, and Microseconds, but can be interpreted as a human readable time.

It is also possible to read the numerical value associated with an interpreted data when a data container is interpreted. Double-click on the data container, SMOSView will display the numerical value of the interpreted fields. Clicking back on the parent data container changes the field back to the interpreted value.

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If SMOSView expects to read an integer, and read an unsigned integer the product, it is flagged in the following way:

Figure 25: Ignored data flag

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O t h e r d a t a v i i s u a l l i i z a t i i o n m o d e s

Data selected in “Normal” mode can be visualized in other modes using the icons placed on the top left hand side of the BROWSER.

"Flat mode”:

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If a container is selected, all data within the container are displayed in the right-hand pane down to the lowest leaf level in a hierarchical order. If a leaf node is selected, the parent container is displayed in flat mode in the right-hand pane.

Figure 26 Flat Mode

"Hex mode”:

In Hex mode the whole product file is displayed in hexadecimal format in the right-hand pane. The data selected in the browse tree is also highlighted in yellow in the right hand pane.

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Figure 27 Hex Mode

“Semantic mode”:

This mode shows all the semantic data contained within a field of interest. In the case of SMOSView, it should not be useful, except for L3 or L4. The semantic data is limited to images. If a product or a subset of a product contains an image, clicking on the semantic mode icon will display the available images and related channels in the right-hand pane.

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Figure 28: Semantic mode display

Using the semantic mode, it is possible to open an Image Viewer buffer by selecting one or more channels from the right-hand pane. The user can select to visualize a single channel of interest with a simple mouse click. To select multiple channels of interest hold the “Ctrl” key pressed and click on the additional channels until they are highlighted.

“Tabular mode”:

To use this mode, the user needs to select a sequence of data or an array (which could be a data container).

The tabular mode allows to visualize all the selected values (or the values contained in the array) in a

table that may be transposed (see Figure 29).

To transpose the matrix, click on the upper left cell labeled “tt”.

The elements of the transposed table (see Figure 30) can be copied/pasted in another application.

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Figure 29 Tabular Mode

Figure 30 Transposed table from the tabular mode

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I f f i i l l e

The Export to ASCII can be performed in two ways:

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E x p o r t d a t a u s i i n g t h e B r o w s e r b u f f e r

In order to export a product subset to an ASCII file, it is first necessary to select the data of interest inside a Browser buffer.

When the Browser is in “Normal mode” or “Flat mode”, use the right-hand pane to select containers and/or leaf nodes of interest that you would like to export.

To select multiple items, hold the “Ctrl” or “Shift” key while selecting containers and nodes. (CTLR +

Click for selecting non-consecutive items, Shift for selecting consecutive items).

Upon pressing the "Export to ASCII" icon in the toolbar , an "Export to ASCII" dialog box appears allowing you to perform an ASCII export.

Figure 31: "Export to ASCII" dialog box

You can then choose to perform a Hierarchical export or a Tabular export.

With the Hierarchical export, the user can choose to export:

the element name

the element offset

the element value

the element unit.

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Figure 32: ASCII export example

The example in Figure 32 shows the type of output that is produced by the "Export to ASCII"

Hierarchical option. Note that the file has a ".txt" extension.

With the Tabular ASCII, the user has the possibility to select the separator type as well as inserting a column header or not. The Tabular ASCII is very useful if the user wants to export its data in Excel for example. In that case, the user should set as a separator a single comma “,” and then save the file in the csv format. The user can then open the saved file using Excel.

It is important to notice that the Tabular ASCII export function needs to be used with properly selected coherent data. If you try to export a two dimensional array structure over a repeated number of data blocks along with data contained in the product header for example, there is no guarantee that the export will be satisfactory. On the contrary, if the selected data is coherent, i.e. the selected data is of the same hierarchical level, and containing no dummy data, the Tabular export to ASCII is the perfect tool for allowing further processing with other tools.

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E x p o r t d a t a u s i i n g t h e N e w S u b s e t s e l l e c t i i o n

It is also possible to select the data to export clicking on the “New Subset” icon. Select a file in the File

Chooser (section 4.1) and click on the “New Subset” icon. The following Window appears:

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Figure 33: Subset selection Window.

On the top left hand side window area, the user can find the following Icons:

Figure 34: Subset selection icons.

The user can then click on the New Subset blue icon : he has to enter a name for the new subset to be created and click OK:

Figure 35 New subset dialog box

Then the product structure will appear in the right-hand side window. The user can then select and browse through the product structure and select the data to export simply clicking in the selection box

attached to the data to be exported (see Figure 36).

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Figure 36: Selected data for export example

The user can then save the created subset, rename it or delete it clicking on the icons presented in Figure

34: Subset selection icons. The saved subset will be available next time the user opens the product.

When a product is made of repeated data structures, you can use scroll bars at the bottom of the selection window to select the subset of data to export, as shown in the example below:

Figure 37: Selection of data with scroll bars

The selected data product contained 2791 Scene_BT_Fourier items. For the scroll bars to be available, the user needs to click on the item array container Scene_BT_Fourier [1..2791] selection box. This

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To complete the export, the user must click on the Export to ASCII Icon in the tool bar and proceed in the same way as described in the previous paragraph.

Once more, the user must select data carefully to perform a valid Export in a Tabular format.

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SMOSView allows the user to perform 2D and 3D plots using the 2D plotter buffer and the 3D plotter buffer.

In order to avoid out of memory issues caused by the chart plugin, the maximum number of points that is possible to plot is limited to the first 600.000. If the user tries to plot a variable with a higher number of points a warning message is displayed and the limited plot is produced.

NOTE: It shall be noted that in versions of SDV prior to 1.5.2 the data is loaded in memory and then displayed. Any change on the display preferences will imply a reload of the data into memory.

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In order to use the 2D plot, the user must select first a file using the File Chooser buffer as presented in section 4.1 of this document.

The user can then click on the New Chart Icon ; the following window appears:

Figure 38: Plot default window

The following icons are available on the top left hand side of the plotter window:

Figure 39: Plotter buffer icons

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From left to the right, the following Icons provide the following functions:

Add plot

Add Series from Product

Add XY Series

Add data from File

Add data from Product

Remove Node

Save template

Export Chart

Print Chart

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P l l o t t i i n g a d a t a f i i e l l d a g a i i n s t a n a u t o g e n e r a t e d i i n d e x

In the “Plot Templates” Box (Figure 40), the user must click on the magnifier icon

then “Serie_1”, then “Data_1”.

of “Plot_1”,

Figure 40 Plot Templates box

A new panel, the “Data Panel” box becomes active (Figure 41), below the Plot Templates box.

Figure 41 Data Panel

The user must browse inside the data to select data field of interest to be plotted with the Product Tree

(See panel on the lower left, Figure 42): The user has then to click on the field of interest to plot it.

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Figure 42 Product Tree

While browsing the data deep inside the “Product Tree” another panel becomes active, which is the

“Chart Panel” (big window in the middle). It corresponds to the panel where the plot is displayed, as

seen in Figure 43.

The plotter will then try to display the selected data field. If the selected data field is contained within a repeated structure inside the data product file, the plotter will show the selected data field value against the repeated data structure index.

If the data field is contained inside two subsequent repeated data structures, the user has the option to select the index of one data structure or the other.

Figure 43 Plot screen - Chart Panel

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Let’s have a look at the following example:

Let’s assume that the field Y_TO_PLOT is contained within an array or structure called

CONTAINER_LEVEL_A of size N. Let’s assume that CONTAINER_LEVEL_A is contained within an array or structure CONTAINER_LEVEL_B of size M and so on.

CONTAINER_LEVEL_C 1

CONTAINER_LEVEL_B 1

CONTAINER_LEVEL_A 1

Y_TO_PLOT 1

Y_TO_PLOT 2

Y_TO_PLOT 3

…..

Y_TO_PLOT N

CONTAINER_LEVEL_A 2

Y_TO_PLOT 1

Y_TO_PLOT 2

Y_TO_PLOT 3

…..

Y_TO_PLOT N

…………..

In such a case, the user may want to plot:

Y_TO_PLOT data can be plotted against indices of the CONTAINER_LEVEL_A 1 array

Y_TO_PLOT 1 can be plotted against CONTAINER_LEVEL_A 1, CONTAINER_LEVEL_A 2 and so on.

Y_TO_PLOT 1 of CONTAINER_LEVEL_A 1 can be plotted against CONTAINER_LEVEL_B

1, CONTAINER_LEVEL_B 2 and so on.

Y_TO_PLOT of CONTAINER_LEVEL_A 1 in CONTAINER_LEVEL_B 1 can be plotted against CONTAINER_LEVEL_C 1, CONTAINER_LEVEL_C 2 and so on.

In all cases, the “Array” menu will offer the possibility to select different (X, Y) data sets at the following level of the data block: CONTAINER_LEVEL_A, CONTAINER_LEVEL_B or

CONTAINER_LEVEL.

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Figure 44: Array Panel

The user can also select the index range using the sliders under the array index selection box to modify the selected data. To change the slider position, set the mouse cursor over the slider icon, click left with the mouse and maintain the button clicked, drag then left or right the mouse.

Figure 45: Data value against data container index

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P l l o t t i i n g t w o d a t a f i i e l l d s a g a i i n s t e a c h o t h e r

The user can create an XY plot with data contained inside the product data file:

First, repeat the previous steps to select data to be set on the X axis.

To select data to be set on the Y axis, click on the Serie_1 Icon

, click then on the “add data from product” icon

. A Data_2 icon appears in the Plot Templates box, and the Plot_1 icon

changes as well to the “add XY series”. See Figure 46.

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X

Y

Figure 46: XY series Plot template

The user must then browse through the product tree to set data on the Y axis just as he did for the X axis, opening and browsing through the product tree.

Note that X-axis data always corresponds to the first (upper) icon in the Series list and the Y-axis always corresponds to the lower one.

Figure 47: XY series example

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I I m p o r t i i n g e x t e r n a l l d a t a

With the SMOSView data plotter, it is possible to import numerical data stored in a file on a computer.

If the user clicks on the Plot_1 icon appears:

, and then clicks on the add XY series , the following

Figure 48: XY series with external data

The Data_3 icon corresponds to X-axis data that must be imported from an external data file.

In this example, let’s click on the Data_3 icon: The following menu appears:

Figure 49: Import file menu

The user can then Click on the “Browse” tab and select a file containing numerical values. Data to be imported must be contained in an ASCII file with one single value per line.

As an example, let’s import the following file:

Figure 50: Import file example

The user can then complete the plot by clicking on the Serie_2 icon and then on the “Add

Data From Product Icon”

to select data to be set on the Y-axis as described in the previous section.

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Data can also be imported on the Y-axis. When the plotter is in the configuration described in section

5.1.2, instead of clicking on the “Add Series From Product” icon, the user can click on the “Add Data

From File”

icon and follow the same steps described here above to import the data file.

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M u l l t i i p l l o t v i i s u a l l i i z a t i i o n

The user can visualize several plots in the same chart within the Plot_1.

He must select the first series with the product tree following the steps detailed previously.

He will add another series in the chart by clicking on Plot_1 icon , and then clicking on the

“Add Series From Product” icon

. The user can follow the steps for data selection with the product tree as described in the section here above.

The user can see the resulting plots on the same graph by clicking on the Plot_1 icon .

Figure 51: Multi Plot example

For the multi-plot to be available and easy to read, the user shall take care about the data selected on the

X-axis and make sure that the ranges and X-axis units are coherent. For example, if the user creates a first curve whose X-axis values range from 1 to 10 (Index), and a second plot whose values range from

–100000 to +49000 (mm), there will be a visualization issue on the multi-plot display.

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As a rule, the multi-plot will use the unit (or index) of the first plot created within the Plot_N template and only show those curves whose unit (or index) is the same as the first plot.

Data on the Y-axis can be of any unit, the corresponding scale will be shown on the right hand side of the multi-plot.

The user can create any number of multi-plots by clicking on the “All plots” icon and then clicking on the “Add Plot” icon.

Figure 52: All plots icon

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D e l l e t i i n g a p l l o t o r d a t a s e l l e c t i i o n

The user can easily remove individual plots, by clicking on the plot icon (typically, Serie_N icon) and then clicking on the “Remove Node” icon.

Figure 53: Remove Node icon

He can also remove entirely a plot (typically, Plot_N icon), and click on the “Remove Node” icon.

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S a v i i n g a p l l o t T e m p l l a t e

The user may want to be able to plot the same data fields using different product files of the same type.

SMOSView allows the user to save a plot template and reuse it with other data products of the same type.

To save a plot template, click on the “All plots” or “Plot_N” icon and then on the “Save Template” icon.

Figure 54: Save Template Icon

The next time the user opens the data plotter buffer, the plot templates will be automatically loaded in the “Plot Templates” box and the related plots available for visualization.

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Plot settings are easily configurable.

Plot name:

Although the data container names (Plot_L, Serie_M, Data_N) are auto-generated, the user can change these names by clicking on the related icon the new desired, entering the name in the Title box and pressing enter.

Figure 55: Title renaming example

When the plot is renamed, the new name will appear on top of the plot.

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NOTE: The names shall be different between all chart panels otherwise the references to the panels will be lost. This issue will be corrected on future release of SDV.

Plot color:

The user can also change the plot color, clicking on the Serie_N icon, the color menu appears.

Figure 56: color setting menu

Clicking on the Browse tab allows the user to select a color from the color table.

When setting the title color, the following dialog appears:

Figure 57: Plotter properties color setting

Select a color by clicking on one of color boxes. Then press OK to set the title to the selected color.

Clicking on the HSB tab, the following dialog appears:

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Figure 58: Plotter HSB color setting

The user can then set HSB color components by clicking in the H, S, or B menu box. To select the appropriate value, the user must maintain the left mouse button pressed on the cursor and drag it up or down.

Clicking OK will apply the color settings to the title.

Clicking on the RGB selection box will cause the following menu to appear:

Figure 59: Plotter RGB color setting

The user can then set the RGB components of the color by dragging the RGB cursors using the mouse button.

Clicking Ok will apply the color settings to the title.

Zoom in / Zoom out:

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It is possible to “Zoom-In” on a graph by clicking in the graph pane, maintaining the left mouse button clicked and dragging the mouse cursor down and to the right. The zoom-out can be performed dragging the mouse cursor upwards and to the left while maintaining the left mouse button clicked in.

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This section presents the L1A specific visualization features implemented by SMOSView. There are two L1A visualization features: the L1A visibility matrix and the star domain representation. The L1A specific visualization features apply only to the following L1A products:

L1A products

SM_XXXX_MIR_AFWD1A

SM_XXXX_MIR_AFWU1A

SM_XXXX_MIR_CRSD1A

SM_XXXX_MIR_CRSU1A

SM_XXXX_MIR_FWSD1A

SM_XXXX_MIR_FWSU1A

SM_XXXX_MIR_SC_D1A

SM_XXXX_MIR_SC_F1A

SM_XXXX_MIR_TARD1A

SM_XXXX_MIR_TARF1A

SM_XXXX_MIR_UAVD1A

SM_XXXX_MIR_UAVU1A

SM_XXXX_MIR_UNCD1A

SM_XXXX_MIR_UNCU1A

Table 3 L1A products to which L1A Specific Visualization Features apply

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In order to use the L1A visibility matrix, the user must select first a L1A product file using the File

Chooser buffer as presented in section 4.1 of this document.

The user can then click on the SMOS Specific Visualization Features Icon, the following window appears:

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Figure 60: L1A visibility matrix example

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The plot shows four rectangular matrixes representing the complex data displayed in the Data Field drop down menu, in this case CALIB_VISIB. The plot corresponds to the L1A calibrated visibilities presented in the SMOS Level 1 and Auxiliary Data Products Specifications. The plots show:

Upper left plot: Real part of the complex L1A data

Upper right plot: Imaginary part of the complex L1A data

Lower left plot: Amplitude of the complex L1A data

Lower right plot: Phase of the complex L1A data

Four rectangular matrixes are displayed, one matrix per real / imaginary / amplitude or phase of the complex number selected by the drop down menu of the selector field. The lower part of each matrix is filled out with the complex conjugate part of the upper part. Each value extracted from the product is represented using a grey level scale.

NOTE:

In the case of CRSx1A products, the Amplitude matrix shows the consolidated averaged FWF Origin amplitude (Cons_Ampl_FWF_Origin), and shall consist of 1 data set record. This structure shall

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(FWF Origin amplitude only).

The Phase matrix shows the Cons_Phase_FWF_Origin structure consisting in a number of data set records with parameters obtained after correlated noise injection in odd and even sources during FWF

Origin or Local Oscillator Calibration Sequences. There shall be as many Data Set Records as LO Phase

Tracking events plus FWF Origin Sequences.

User will be able to navigate through all the phase measurements, however the Amplitude shall remain constant.

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It is possible to “Zoom-In” on a graph by clicking in the graph pane, maintaining the left mouse button clicked and dragging the mouse cursor down and to the right. The zoom-out can be performed dragging the mouse cursor upwards and to the left while maintaining the left mouse button clicked in.

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H i i d e p a r r a m e t t e r r s s t t o m a g n i i f f y v i i s s u a l l i i z e d d a t a

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Each feature has such a magnifying glass sign before: . The user can hide/unhide the functionality’s parameters by clicking on this magnifying glass. It allows the user to save space on the screen to better observe the data. When the functionality’s parameters are hidden the icon slightly turns:

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Figure 61: Plot Type drop down menu

The user can select two different plot types using this drop down menu, Square Matrix or Star Domain visualization.

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Figure 62: Snapshot setting details

Snapshot settings give information concerning the current snapshot to the user:

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Universal Time Coordinated (UTC) of the snapshot

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Polarization of the snapshot (H: Horizontal, V: Vertical)

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Data field: plotted data fields are predefined. In the case of MIR SC D1A, the L1A specific visualization features, only the data field CALIB_VISIB is available. But the user can select a

UNC 1A product. In this case, the Data field drop down menu offers two predefined data fields to be visualized using the L1A specific visualization features: MEAN_OFFSETS and

UNC_OFFSET_CORRECTION. The user simply needs to click on the data fields he wants to visualize.

Figure 63: Data field drop down menu example

- Title settings: allow the user to overwrite the title displayed above the real, imaginary, amplitude, and phase matrices. It is useful especially to export these matrices towards various formats (see next paragraph).

In the release 1.6.0 of SDV it has been included in this panel further more information regarding the product.

MIR_UAVx1A

Start_Time, Stop_Time, Correlator_Layer, Samples, Software_Error_Counter,

Instrument_Error_Counter, ADF_Error_Counter, Calibration_Error_Counter

MIR_CRSx1A

Start_Time, Stop_Time, Correlator_Layer, Samples, Time_From_ANX ,Software_Error_Counter,

Instrument_Error_Counter, ADF_Error_Counter, Calibration_Error_Counter

MIR_SC_x1A / MIR_TARx1A

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Snapshot_Time, Snapshot_ID Snapshot_OBET , Antenna_Boresight, Max_Mkj_module, X –Band,

Software_Error_flag, Instrument_Error_flag, ADF_Error_flag, Calibration_Error_flag

MIR_SC_x1B / MIR_TARx1B

Snapshot_Time, Snapshot_ID Snapshot_OBET , Antenna_Boresight, X

–Band,

Software_Error_flag, Instrument_Error_flag, ADF_Error_flag, Calibration_Error_flag

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Figure 64: Value Details display

When the user drags the mouse over the plot, the complex values corresponding to the point under the mouse cursor are displayed in the Value Details box.

R: real part; I : Imaginary part; M: Magnitude (Amplitude); P: Phase.

X and Y are the line and column number.

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The user can use the Export box to export the displayed screen in various image, postscript, or PDF formats.

Figure 65: Export Box

Click on “Export”. An export format box opens (Figure 66); then select the path and name of the file to

be created, and the format to which you would like to export the matrices. An example of the JPG result

is given in Figure 67.

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Figure 66 Export formats

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Figure 67 JPG export result

The user can step through the product and visualize consecutive snapshots contained inside the product, as explained at the end of this section. One way of identifying snapshots is the OBET, associated with a snapshot.

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The matrix values are displayed using a grey level scale, but the user can use color tables to display matrixes using false color. Clicking on the Color Tables tab in each matrix will display a predefined selection of color tables:

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Figure 68: Color Tables menu

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Figure 69: Color table example

Clicking on the selected color table will assign the selected color table to the plot. The matrix plot is then updated.

Figure 70: L1A matrix representation using a color table

The user can visualize the color scale just next to the plot, by ticking the box “Display color scale in

plot”. As shown in Figure 71, the color scale appears on the right of the plot with the range of values.

The user can display or not this color scale in the plot by ticking / unticking the option. It allows the user to save screen space to visualize the data.

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Figure 71 “Display color scale in plot” selected

The user can also select the minimum and maximum of the range to be displayed within the color table:

- by moving the sliders located above and below the table color or

- by entering new minimum and maximum values in the box and pressing “Enter”

- by entering new minimum and maximum values and selection “Scale” option. This way the color values will be redefined according to the user defined range instead of the minimum and maximum of the product.

An example of the same matrix than above is given in Figure 72, instead of the whole range [-6.427;

2.978], only the values between 1 and 2 (see color scale in plot) are displayed within the whole dynamic of the color scale.

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Figure 72 Min and max color scale range selection

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The user can step through the data product and plot the next snapshot using the slider at the bottom of the plot. The user can also use the two buttons “-“ / “+” to step through the product and visualize consecutive snapshots.

Figure 73: Snapshot slider

To use the slider, click with the left mouse button on the slider, maintain the button clicked and drag the mouse cursor along the slider bar. To use the - / + buttons to step though the product and see consecutive snapshots, click on the – or + buttons.

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Using the Plot Type tab, select the Star Domain visualization, the following plot appears:

Figure 74: Start Domain visualization example

The plot shows Start Domain representation of the selected Data Field (in this case CALIB_VISIB).

The features available for the “star domain visualization” are the same as the ones available for the

“square matrix” representation:

Zoom in / Zoom out: see page 62

Hide parameters to magnify visualized data: see page 62

Functions on the left hand side pane are the same:

Plot Type: see page 62(To Change to Spatial Representation)

Snapshot and title settings: see page 63

Value details: see page 64

Export to image or postscript formats: see page 64

The Color Table function under each plot is also the same: see page 65.

The Stepping through the product with the Snapshot slider is also the same: see page 68.

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This section presents the L1B specific visualization features implemented by SMOSView. There are two L1B visualization features:

- the Fourier components of Brightness Temperature (BT) representation (or L1B star domain)

- the reconstructed BT (or L1B spatial representation)

The mathematical details associated with these representations are fully detailed in the SMOSView specification document. The L1B specific visualization features apply only to the following L1B products:

L1B products

SM_XXXX_MIR_SC_D1B

SM_XXXX_MIR_SC_F1B

SM_XXXX_MIR_TARD1B

SM_XXXX_MIR_TARF1B

Table 4 L1B products to which L1B Specific Visualization Features apply

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In order to visualize the Fourier components of BT, the user must select first a L1B product file using

the File Chooser buffer as presented in section 4.1 of this document.

The user can then click on the SMOS Specific Visualization Features Icon , the following window appears:

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Figure 75: L1B Fourier Components of BT example

This plot is of the same type as the Star Domain plot for L1A.

The controls associated with this plot are the same than the previous ones:

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Zoom in / Zoom out: see page 62

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Hide parameters to magnify visualized data: see page 62

Functions on the left hand side pane are the same:

Plot Type:

For L1B data, the plot type menu allows the user to switch between Fourier Components of BT representation and the spatial reconstructed BT:

Figure 76 L1B Plot type menu

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Snapshot and title settings: see page 63

Value details: see page 64

Export to image or postscript formats: see page 64

The Color Table function under each plot is also the same: see page 65.

The Stepping through the product with the Snapshot slider is also the same: see page 68.

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Using the Plot Type menu, the user can select the Spatial Representation of L1B: “Reconstructed_BT”.

This plot type is not a simple visualization of L1B data but show features that have been derived from the L1B data by a procedure described in Appendix C.

Figure 77: L1B Spatial Representation example

The reconstructed BT plot type shows four hexagonal spatial representations of the L1B complex data field displayed in the Snapshot Settings box.

The controls associated with this plot are the same than the previous ones:

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Zoom in / Zoom out: see page 62

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Hide parameters to magnify visualized data: see page 62

Functions on the left hand side pane are the same:

Plot Type: see page 71

Snapshot and title settings: see page 63

Value details: see page 64

Export to image or postscript formats: see page 64

The Color Table function under each plot is also the same as for L1A: see page 65.

The Stepping through the product with the Snapshot slider is also the same: see page 68.

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This section presents the L1C specific visualization features implemented by SMOSView. The L1C specific visualization features apply only to the following L1C products:

L1C products

SM_XXXX_MIR_SCLD1C

SM_XXXX_MIR_SCSD1C

SM_XXXX_MIR_SCLF1C

SM_XXXX_MIR_SCSF1C

SM_XXXX_MIR_BWLD1C

SM_XXXX_MIR_BWLF1C

SM_XXXX_MIR_BWSD1C

SM_XXXX_MIR_BWSF1C

Dual Polarization reconstructed BT swath

Full Polarization reconstructed BT swath

Browse BT products

Table 5 L1C products to which L1C Specific Visualization Features apply

Note from the SMOS Level 1 and Auxiliary Data Products Specifications:

The dual polarization reconstructed brightness temperature swaths are L1C products obtained from

L1B products in dual polarization mode. It is organized in grid points (belonging to the Digital

Global Grid DGG).

The full polarization reconstructed brightness temperature swaths are L1C products obtained from

L1B products in full polarization mode. It is organized in grid points (belonging to the Digital

Global Grid DGG).

The Browse Brightness Temperature L1 data products are arranged in pole-to-pole swaths according to ascending and descending passes. Each grid point contains a brightness temperature sample interpolated from MIRAS measurements at an incidence angle of 42.5º.

The values of the Incidence Angles, Azimuth Angle, Faraday Rotation Angle and Geometric

Rotation Angle are now presented in Engineering units in the Browser and also in the Visualization panel.

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In order to use the L1C Dual polarization specific visualization features, the user must select first a L1C dual polarization product file using the File Chooser buffer as presented in section 4.1 of this document.

The user can then click on the SMOS Specific Visualization Features Icon , the following window appears:

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Figure 78 L1C Specific Visualization Feature Window

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On the left panel, there are several controls. The upper left one is the plot type. For L1C products, there are two options: Pixel Attributes Projection or Measurement Counter Projection, as shown in the Plot type menu below:

Figure 79 L1C Plot Type Menu

In case of Pixel Attributes Projection, it is possible to select the field to be plotted, and to request its projection for a given snapshot or for a given range of incidence angle. The relevant field to be plotted

has to be chosen from the "Attributes" menu (see Figure 80), the snapshot has to be selected from the

snapshot ID selector (see Figure 89), the incidence angle range has to be chosen from the incidence angle selector (see Figure 90).

In case of Measurement Counter Projection, there is no selection of incidence angle nor snapshot. The value displayed gives the number of snapshots in the product over each grid point.

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WARNING: For big products (around 250 Mb) the time needed to project the data is quite long…

Please be patient!

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By default, the selected plot type is pixel attributes projection. It allows the user to visualize all the following L1C fields projected on the Earth map:

- FLAGS: indicate the polarization (H: Horizontal, V: Vertical),

- SNAPSHOT_ID: Unique identifier for the snapshot,

- BTVALUE: Brightness Temperature value over the current Earth fixed grid point (in K),

- RAD_ACC PIX: pixel radiometric accuracy

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Azimuth angle (0º if local North)

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Incidence Angle (0° if vertical)

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FARADY ROT ANGLE: Faraday Rotation Angle

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GEO ROT ANGLE: Geometric Rotation Angle

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Footprint axis 1: Elliptical footprint major semi-axis value.

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Footprint axis 2: Elliptical footprint minor semi-axis value.

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Footprint ratio: Ratio between footprint axis 1 and footprint axis 2.

Even if selected by default, to visualize such parameters projected on the Earth, the user must select it

by the “Attributes” drop down menu:

Figure 80 L1C Attributes Drop Down Menu

The value of the selected attribute is given inside the main pane in a little box next to the pixel covered by the mouse and the value is updated (with a less than 1 second refreshing time) when the mouse moves. After some 4 seconds over the same pixel, the value and the little box disappear, they can be

visualized again by moving the mouse. See example in Figure 81.

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All the pixels displayed in this figure refer to the same snapshot selected from the GUI.

The values of the field plotted correspond to the polarization of the snapshot. The polarization of the product is displayed lower part of the window, below the Snapshot ID.

Figure 81 Example of L1C BT value field displayed. All pixels displayed refer to the same snapshot (100619).

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G e o T o o l l s s

When the mouse is moving through the projected data, the “Geo Tools” give the user useful geographical information about the current mouse position: Latitude, longitude, and about the grid information: Grid ID, grid latitude, grid longitude, and grid mask.

Note: the latitude/longitude grid information gives the position of the center of the grid ID, while the

“geo info” gives the exact cursor latitude/longitude.

Figure 82 L1C Geo Tools Box Details

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The default projection used is the Mercator projection. However, it is possible to visualize the data through other geographical projections such as Orthographic (North/South) or Gnomonic projections.

For example if data are located northern than 50° latitude North or southern than 50° latitude South, it is

much more suitable to use a North/South Orthographic projection (see Figure 84). The projection can be

selected through the Projections drop down menu:

Figure 83 Projections Drop Down Menu

Figure 84 North Orthographic projection example

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C o l l o r T a b l l e s s a n d

R a n g e

The L1C products are displayed using a grey level scale, but the user can use color tables to display L1C product using false color. Clicking on the Color Tables tab will display a predefined selection of color tables:

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Figure 85 Color Tables Menu

Clicking on the selected color table will assign the selected color table to the plot. The plot is then updated.

The color range is loaded by default with the Min and Max values calculated directly from the points displayed on the map, however the user can set those values using the Min and Max text fields and then clicking on the “Scale” tick box. Afterwards the points are redisplayed according to the new range.

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E x p o r r t t

The user can use the Export box to export the displayed screen in various image, postscript, or PDF formats.

Click on “Export”. An export format box opens (Figure 86); then select the path and name of the file to

be created, and the format to which you would like to export the matrices. An example of the JPG result

is given in Figure 87.

Figure 86 Export Box

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Figure 87 Export formats drop down menu

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Z o o m i i n

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It is possible to “Zoom In”, to “Zoom out” on the product, and to move in each direction by using the

zoom in / out/ around tool (Figure 88):

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Zoom in: use the (+) magnifier (upper one) OR without the tool: directly in the graph pane maintain the left mouse button clicked and drag the mouse cursor down and to the right

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Zoom out: use the (-) magnifier (lower one)

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Go to the North / South: use the upper / lower arrow

- Go to the West / East: use the left / right arrow

- Center the plot on 0° latitude; 0° longitude: click on the point in the center of the tool.

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Center the plot on a point within the map: left-click once over the desired center

Figure 88 L1C Zoom in / out / around Tool

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The user can step through the data product and plot the next snapshot using the snapshot IF slider at the

bottom of the plot (Figure 89). The user can also use the two buttons “-“ / “+” to step through the

product and visualize consecutive snapshots. The user can also visualize only the data corresponding to the polarization of choice. Values for full polarization products are: HH, VV, HV_Real and HV_Img.

Values for dual polarization products are HH and VV.

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Figure 89 L1C Snapshot ID selector box

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The polarization information is given inside the snapshot ID selector box. For L1C dual product, the polarization can be HH or VV.

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I n c i i d e n c e a n g l l e s s e l l e c t t o r

The user can select a range of incidence angle (0° if vertical incidence) by filling the L1C incidence

angle selector (Figure 90). The unit of the angle selector is millidegree (10

-3

degree), it means the same unit used inside the product. To define the incidence angle range, the user has to enter a minimum, a maximum value and the “central value”. In case multiple values fit inside the [min, max] range for a single pixel, the application will choose the data that are the nearest to the central value. To display only the data acquired with an incidence angle within the range, the user has then to click on “Display”.

Additionally, the user can narrow down the number of points to visualize by selecting the desired polarization. Values for full polarization products are: HH, VV, HV_Real and HV_Img. Values for dual polarization products are HH and VV.

Once the user has selected an incidence angle range, the image will display all the pixels of the file having the incidence angle within the range.

Figure 90 L1C Incidence Angle Selector

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M e a s u r e m e n t C o u n t e r

P r o j j e c t i i o n

WARNING: For big products (around 250 Mb) the time needed to project the data is quite long…

Please be patient!

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If the user selects the “Measurement Counter Projection” plot type, he will then visualize the field

“Counter” of the Swath_Snapshot_List data set. The field “Counter” specifies the number of Data Set

Record contained in it.

The value displayed in the small box when moving the mouse over the product gives the number of

snapshots in the product over each grid point. An example of such a counter is given in Figure 91.

Figure 91 Measurement Counter Projection L1C example

Note: The lower control pane for “Measurement Counter Projection” plot type only has the zoom in / out / around control.

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L 1 C F u l l l l p o l l a r i i z a t t i i o n v i i s u a l l i i z a t t i i o n

In order to use the L1C Full polarization specific visualization features, the user must select first a L1C

Full polarization product file using the File Chooser buffer as presented in section 4.1 of this document.

The user can then click on the SMOS Specific Visualization Features Icon , to use these features.

The L1C full polarization visualization features are exactly the same as the ones described in the

previous L1C dual polarization specific visualization features section. Please refer to section 8.1.

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The only parameter that changes compared to L1C dual product is the polarization. This information is also given inside the snapshot ID selector box. For L1C full product, the polarization can be HH, VV,

HV_real or HV_imaginary.

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B r r i i g h t t n e s s s T e m p e r a t t u r r e s s S p e c i i f f i i c P l l o t t

Once a brightness temperature map is obtained there is the possibility to display a graph showing the evolution of the BT vs the incidence angle for a selected grid point. This grid point is selected through the left click of the mouse.

Figure 92: BT vs Incidence Angle Selection Menu

There is the possibility to plot three different types of chart:

1. BT ToA: Brightness Temperature on Top of Atmosphere vs Incidence Angle

2. BT ToA + GR: Brightness Temperature on Top of Atmosphere with the Geometric Rotation vs

Incidence Angle.

3. BT ToA + GFR: Brightness Temperature on Top of Atmosphere with the Geometric Rotation and Fararday Rotation vs Incidence Angle

The of the geometric and faraday rotations where performed based on the multiplication presented below. The T3’ and T4’ is the real and imaginary part of the BT value present in the product. G is the geometric rotation and F the Faraday rotation angles.

Full Pol:

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Dual Pol:

The graphs obtained are composed by two curves, one for the H polarization and another for the V polarization. Each curve has different colours and unique Y-axis scale to allow comparison. In the Full

Polarization case two extra curves are plotted. One for the HV_real and another for the HV_imaginary also as function of the incidence angle.

Figure 93: BT vs Incidence Angle Chart

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L 1 C b r o w s e p r o d u c t t s v i i s s u a l l i i z a t t i i o n

In order to use the L1C browse products specific visualization features, the user must select first a L1C browse product file using the File Chooser buffer as presented in section 4.1 of this document. The user can then click on the SMOS Specific Visualization Features Icon , the L1C browse products

visualization window opens. Figure 94 shows a L1C browse product for which the North orthographic

projection has been selected and a “blue-red” color table chosen):

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Figure 94 L1C browse product visualization example (North orthographic projection)

Note that for browse products, the controls in the lower pane are slightly different than the dual/full polarization ones. There is no incidence angle selection (all browse products have the same incidence angle) nor snapshot_ID selection.

The controls in the lower panel deal with:

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Zoom in / out / around tool (see page 80).

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Polarisation selector: allow the user to visualize products only from the selected polarization

(select the required polarization with the drop down menu).

WARNING: For big products (around 250 Mb) the time needed to project the data is quite long…

Please be patient!

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This section presents the L2 specific visualization features implemented by SMOSView. The L2 specific visualization features apply only to the following L2 products:

L2 products

SM_XXXX_MIR_OSUDP2

SM_XXXX_MIR_SMUDP2

Table 6 L2 products to which L2 Specific Visualization Features apply

Except two functionalities (the selection flags and the error mode) the L2 specific visualization features

apply also to auxiliary data files listed in Table 7.

WARNING: However the user should know that due to the incredible points to project on the map, the auxiliary files could take about 30 minutes to be displayed.

Auxiliary data products

AUX_DGG___ (Geodetic Product)

AUX_ECMWF (ECMWF Product)

AUX_DFFLAI_ (LAI Product)

AUX_DFFLMX (LAI MAX Product)

AUX_DGGTLV (Current Tau Nadir LV Product)

AUX_DGGTFO (Current Tau Nadir FO Product)

AUX_DGGROU (Current Roughness H Product)

AUX_DGGRFI_SPH (RFI Product)

AUX_DGGFLO_SPH (Current Flood Product)

AUX_GAL_SM_SPH (Galaxy Map Product convolved with the AUX_MN_WEF)

AUX_SOIL_P_SPH (Soil Properties Product)

AUX_BIGBWF_SPH (Big water body flag Product)

AUX_RFI______SPH (L1 RFI Product)

AUX_GAL_OS_SPH (Galactic Map Product convolved with the AUX_WEF)

AUX_DISTAN_SPH (Land Sea Mask) AUX_SSS____SPH (SSS Climatological LUT)

AUX_FARA_ (Faraday Rotation)

AUX_GAL_OS (Ocean Salinity Galaxy Map)

AUX_GAL_SM (Soil Moisture Galaxy Map)

AUX_OTTxD/F (Ocean target transformation)

AUX_DTBCUR (Current Delta TB Product)

AUX_DTBXY (Delta TBs for the L2OS post-processor)

Table 7 L2 products to which L2 Specific Visualization Features apply

In order to use the L2 specific visualization features, the user must select first a L2 Soil Moisture or

Ocean Salinity product file using the File Chooser buffer as presented in section 4.1 of this document.

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The user can then click on the SMOS Specific Visualization Features Icon , the following window appears:

Figure 95 L2 specific visualization feature window

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C o n t t r o l l s f f r r o m l l e f f t t p a n e

The controls of the control panel on the left are described hereafter:

SMOSView allows projecting all fields and their associated errors from Level 2 Ocean Salinity User

Data Product (MIR_OSUDP2) and Level 2 Soil Moisture User Data Product (MIR_SMUDP2). The tables below list all these fields:

OSUDP2 Field Description

SSS1

SSS2

SSS3

WS

SST

Tb_42.5H

Sea surface salinity using roughness model 1

Sea surface salinity using roughness model 2

Sea surface salinity using roughness model 3

Equivalent neutral wind speed as derived from ECMWF

Sea Surface Temperature as derived from ECMWF

Brightness Temperature at surface level derived with default

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Tb_42.5V Brightness Temperature at surface level derived with default forward model and Retrieved geophysical parameters, V polarisation direction.

Table 8 L2 Ocean Salinity fields that can be projected on the geographical map

L2 SM Field Description

Soil_Moisture

Optical_Thickness_Nad

Physical_Temperature

TTH

RTT

Scattering_Albedo_H

DIFF_Albedos

Retrieved soil moisture value

Nadir optical thickness estimate for vegetation layer

Surface equivalent temperature – may be a retrieved value or from an external source

Optical thickness coefficient for polarisation H

Ratio of optical thickness coefficients TTH/TTV

Scattering albedo for horizontal polarisation

Difference of albedos ωH-ωV

Roughness_Param

Dielect_Const_MD_RE

Dielect_Const_MD_ IM

Dielect_Const_Non_MD_RE

Roughness parameter estimate

Real part of the dielectric constant from MD retrieval.

Imaginary part of dielectric constant from MD retrieval

Real part of dielectric constant from retrieval models other than MD

Dielect_Const_Non_MD_IM Imaginary part of dielectric constant from retrieval models other than MD

TB_ASL_Theta_B_H Surface level TB (corrected from sky/atmosphere contribution) computed from forward model with specific incidence angle

θ_B (42.5 °), and for H polarisation.

TB_ASL_Theta_B_V

TB_TOA_Theta_B_H

Surface level TB (corrected from sky/atmosphere contribution) computed from forward model a specific incidence angle θ_B

(42.5 °), and for V polarisation

Top of the atmosphere TB computed from forward model at specific incidence angle θ_B (42.5º), for H polarisation

TB_TOA_Theta_B_V Top of the atmosphere TB computed from forward model at specific incidence angle θ_B (42.5º), for V polarisation

Table 9 L2 Soil Moisture fields that can be projected on the geographical map

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A field selection drop down menu allows the user to select the field to project on the map as shown in

Figure 96. Even if selected by default, to visualize such parameters projected on the Earth, the user

must select the field to be projected on the map by the “Field selection” drop down menu:

Figure 96 Field selection box (OS product on the left; SM product on the right)

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F l l a g s s e l l e c t i i o n

The user can select one or more flags available from the L2 product and overlay them to the displayed product. The available flags for the chosen product can be visualized in the flags selection box, as

displayed in Figure 97.

Figure 97 Flags selection box

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To select a flag to be overlaid to the image, the user must click in the left column box of the flag. The colour of the fag and the transparency are configurable.

To choose the color and the transparency of the flag to display the user must click in the second column starting left. The following menu is then displayed:

Figure 98 Flags color transparency menu

The user can choose the color of the flag in the “Swatches” tab: by clicking on the desired color (see

Figure 98). He can then select the transparency level in the “Transparency selection” tab: by moving the

slider to the transparency level desired (see Figure 99).

NOTE: Due to the use of a different point layer to display flags in the world map, sometimes during the zoom operations they may appear outside of the original position. In this case the zoom shall be performed prior to the display of the flags.

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Figure 99 Flags transparency selection menu

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G e o T o o l l s

When the mouse is moving through the projected data, the “Geo Tools” give the user useful geographical information about the current mouse position: Latitude, longitude, and about the grid information: Grid ID, grid latitude, grid longitude, and grid mask.

Note: the latitude/longitude grid information gives the position of the center of the grid ID, while the

“geo info” gives the exact cursor latitude/longitude.

See Figure 82.

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P r o j e c t i i o n s

The default projection used is the Mercator projection. However, it is possible to visualize the data through other geographical projections such as Orthographic (North/South) or Gnomonic projections.

See more details in section 8.1.2.3.

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F i i e l l d c o l l o r

S c a l l e

The user can select the color table that will be affected to the field to be projected thanks to the Field

color scale. The user has to select a color table within the drop down menu of Figure 100.

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Figure 100 L2 field color scale

The color range is loaded by default with the Min and Max values calculated directly from the points displayed on the map, however the user can set those values using the Min and Max text fields and then clicking on the “Scale” tick box. Afterwards the points are redisplayed according to the new range.

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E x a m p l l e

Once the field, the color tables and the projections selected, the following window displays the L2 data on the geographical map:

Figure 101 L2 OS product visualization example

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L2 specific visualization features include an “error mode” that allows the user to display and project on the map the associated error contained in the L2 product (e.g. DQX) to the field selected (e.g. soil moisture), above the field itself. To use the error mode, the user has to choose the error mode by clicking on the “Error mode” icon below the main panel:

Figure 102 Click on the “Error Mode” icon to start the error mode

Once displayed, the user can as previously navigate through the projected data using the zoom in / out /

around tool of Figure 102.

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E r r o r c o l l o r s c a l l e

The color scale of the error displayed above the field projected can be chosen among various color tables thanks to the “Error color scale” drop down menu:

Figure 103 Error color scale

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E r r o r m o d e e x a m p l l e

To use the error mode, the user has first to project one field using the features of the previous section

“Field selection”, page 89.

Once the error mode selected and the color table selected, the user can simply left-click on the area where he would like the error to be displayed above the projected data. The error is then displayed

above the data, all around the clicked position as seen in Figure 104 hereafter.

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Figure 104 Error mode display above SSS field

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Due to the fact that this AUX_SSS and AUX_DISTAN files have a huge number of points (cover the whole DGG grid) and SMOS View visualization plugin memory limitations don’t allow the simultaneous display of a so large number of points, the display of data is perfo r med zone by zone. In total there are 6 zones available

A new panel was created below the world map containing the available zones.

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F i i l l t e r i i n g

Some SMOS products like L2 and AUX are filled with dummy data, which is initialization values that are kept in the final product. In most of the cases those values don’t have a n important meaning, therefore it was found the need of don’t display them in the world map.

The values considered as dummy are the following:

-999

-99999

-99998

By default, the specific visualization feature do es n’t consider this values on the world map, however the user is able to display them.

To display the dummy values on the world map the user must select the option “Display DUMMY

Values” present on the “Tools” panel, located below the world map.

Figure 106 Display DUMMY Values Option

The values are then displayed in the world map with color “Black”, in order to clearly idetify them, the color scale shall be different than the “Black and White”, if for some reason the “Black and White” scale its set it should be changed to another that doesn’t contains the black colour. The dummy values are then added and shown within the values layer. If the user unselect s the option, then world map will be repainted without the dummy values.

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The main purpose of this ADF is to provide the L2OP with a more precise computation of the Faraday angle based on algorithm improvements and refined VTEC background field (i.e the combined VTEC).

In addition the Faraday rotation auxiliary file can be used in any of the DPGS sub/system, and allows de-coupling L1 reprocessing activity for algorithm upgrades and availability of a more precise Faraday rotation (i.e. VTEC combined, usage of refined geomagnetic model).This ADF has the following types:

AUX_FARA_C (Consolidated Faraday Rotation)

AUX_FARA_P (Predicted Faraday Rotation)

AUX_FARA_R (Rapid Faraday Rotation)

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SMOS Data Viewer provides the possibility for the user to perform a specific visualization in a panel similar to L1C (snapshot by snapshot basis) but without the polarization filter. The following figure present s a screenshot of a visualization showing on the left side the variables available for the user.

Figure 107: AUX_FARA Specific Visualization

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The specifi c visualization of AUX_GAL_OS and AUX_GAL_SM is performed on a (Ra, De) chart with

721x1441 elements. On the AUX_GAL_OS the chart will display the corresponding TB_Sky_H (Sky

TB for Horizontal Polarization) and TB_Sky_V (Sky_TB for Vertical Polarization) values for each

Right Ascension (Ra), Declination (De) pair of coordinates.

For the AUX_GAL_SM the visualization panel is divided in four charts:

I_CSWeF (First Stokes Parameter)

Q_CSWeF (Second Stokes Parameter)

U_CSWeF (Third Stokes Parameter)

Delta_I (Potential Error Due to Strong Noise Sources)

Due to jFreeChart limitations the Ra and De coordinates have a step of 0,5. The Ra ranges are from 0.0 to 360.0 while the De are from -90.0 to 90.0.

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It must be noted that due to performance issues, the zoom and color scale operati o ns are performed slowly.

Figure 108: AUX_GAL_OS Specific Visualization

Figure 109: AUX_GAL_SM Specific Visualization

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The specific visualizatio n of AUX_OTT data is performed on (Xi, Eta) charts divided by ascending and descending orbit. The visualization panel is divided in four plots, the two on the left have the Ascending orbit and the two on the right the Descending orbit.

The values shown on the “Value Details” panel are according to the organization of the visualization panel.

By default the color scale range is set to [-10.0, 10.0], if the user uncheck the “Scale” option the scale range will be set to the minimum and maximum values of the plots.

For dual polarization products the only four plots displayed are:

LUT_offset_HH_A on the top left panel.

LUT_offset_HH_D on the top right panel.

LUT_offset_VV_A on the bottom left panel.

LUT_offset_VV_D on the bottom right panel.

The following picture shows the visualization panel for the dual polarization product.

Figure 110: AUX_OTT Dual Pol Specific Visualization

For the Dual Polarization case the user is able to select the following polarization filters:

HH VV

Same plots as the dual polarization case

HH_short VV_short

LUT_offset_HH_short_A on the top left panel.

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LUT_offset_HH_short_D on the top right panel.

LUT_offset_VV_short_A on the bottom left panel.

LUT_offset_VV_short_D on the bottom right panel.

HH HH_short

LUT_offset_HH_A on the top left panel.

LUT_offset_HH_D on the top right panel.

LUT_offset_HH_short_A on the bottom left panel.

LUT_offset_HH_short_D on the bottom right panel.

VV VV_short

LUT_offset_VV_A on the top left panel.

LUT_offset_VV_D on the top right panel.

LUT_offset_VV_short_A on the bottom left panel.

LUT_offset_VV_short_D on the bottom right panel.

T3_HHV T4_HHV

LUT_offset_T3_HHV_A on the top left panel.

LUT_offset_T3_HHV_D on the top right panel.

LUT_offset_T4_HHV_A on the bottom left panel.

LUT_offset_T4_HHV_D on the bottom right panel.

T3_VVH T4_VVH

LUT_offset_T3_VVH_A on the top left panel.

LUT_offset_T3_VVH_D on the top right panel.

LUT_offset_T4_VVH_A on the bottom left panel.

LUT_offset_T4_VVH_D on the bottom right panel.

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The specific visualization of AUX_DTBCUR data is performed on (Xi, Eta) charts divided in four plots,

XX, YY (top) and XX Short, YY Short (bottom). The user can select other polarization filter (XY) where the four plots will be XXY Stokes 3 and XXY Stokes 4 (top), YYX Stokes 3 and YYX Stokes 4

(bottom).

Apart from the polarization, the user is able to select as well the orbit, model and variable

(count_deltaTB, deltaTB, std_deltaTB or flags) to plot.

The values shown on the “Value Details” panel are according to the organization of the visualization panel.

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By default the color scale is range is “Blue-White-Red” and the range is set to [-10.0, 10.0], if the user uncheck the “Scale” option the scale range will be set to the minimum and maximum values of the plots.

Figure 111 : AUX_DTBCUR Specific Visualization

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The specific visualization of AUX_DTBXY can be performed through three different panels selected by the user on the Graphics Type box:

Plot Panel (Default): Showing the OTTs as it is done for the AUX_DTBCUR.

World Map Panel: Showing the Snapshot through a ground track representation.

Charts Panel: Show the A3TEC variables through four X-Y plots.

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W o r l l d M a p P a n e l l

On this panel the user is able to see several snapshot variables over the world map. The user can select the Region ID, FOV Zone, Polarization and Model. The supported variables are meas_count, delta_TB, model_TB and flags.

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Figure 112 : AUX_DTBXY World Map

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In this specific visualization the user is able to select the A3TEC variables (latTEC, l1cTEC, tecres, signpost) to be plotted against fovlatitude (top-left), fovLongitude (top-right), geoLatitude (bottom-left), geoLongitude (bottom-right).

Figure 113 : AUX_DTBXY Charts Panel

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Windows, MacOS X

No particular requirements should be needed.

Linux, UNIX

It is necessary to have the CUPS package installed.

This package is by default installed on most UNIXes and it is freely downloadable from the following website: http://www.cups.org/

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Phase is calculated using the atan2 function provided by the standard Java library.

The code that executes this operation is the following:

if (_realPart != 0.0 || _imaginaryPart != 0.0)

_phase = Math.atan2(_imaginaryPart, _realPart);

else

_phase = 0.0f;

To comply with Enhancement 8 (ref. SO-MN-VEG-GS-0050 page 5), the value of the phase is set to 0 when real and imaginary values are 0.

The documentation of the atan2 routine is the following:

The routine converts rectangular coordinates (x, y) to polar (r, theta). This method computes the phase

theta by computing an arc tangent of y/x in the range of -pi to pi. Special cases:

If either argument is NaN, then the result is NaN.

If the first argument is positive zero and the second argument is positive, or the first argument is positive and finite and the second argument is positive infinity, then the result is positive zero.

If the first argument is negative zero and the second argument is positive, or the first argument is negative and finite and the second argument is positive infinity, then the result is negative zero.

If the first argument is positive zero and the second argument is negative, or the first argument is positive and finite and the second argument is negative infinity, then the result is the double value closest to pi.

If the first argument is negative zero and the second argument is negative, or the first argument is negative and finite and the second argument is negative infinity, then the result is the double value closest to -pi.

If the first argument is positive and the second argument is positive zero or negative zero, or the first argument is positive infinity and the second argument is finite, then the result is the double value closest to pi/2.

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If the first argument is negative and the second argument is positive zero or negative zero, or the first argument is negative infinity and the second argument is finite, then the result is the double value closest to -pi/2.

If both arguments are positive infinity, then the result is the double value closest to pi/4.

If the first argument is positive infinity and the second argument is negative infinity, then the result is the double value closest to 3*pi/4.

If the first argument is negative infinity and the second argument is positive infinity, then the result is the double value closest to -pi/4.

If both arguments are negative infinity, then the result is the double value closest to -

3*pi/4.

Parameters:

y - the ordinate coordinate x - the abscissa coordinate

Returns:

the theta component of the point (r, theta) in polar coordinates that corresponds to the point (x, y) in

Cartesian coordinates.

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Technical note provided by Indra:

The visualization of the L1B product in (chi,eta) domain requires some transformations. The steps to be followed are these:

1. The starting point are the L1B product’s fields:

Scene_BT_Fourier (field number 17), which contains the information to be plotted,

and Flags (field number 16) which contains information on the polarization of

Scene_BT_Fourier.

2. Scene_BT_Fourier has a number of elements that varies depending on the product and polarization mode:

1. Dual polarization product (SM_XXXX_MIR_SC_D1B or SM_XXXX_MIR_TARD1B): o the Scene_BT_Fourier field in this product has only pure polarizations, HH or VV.

It has 1395 complex values and one real in the centre of the star. These are contained in the product as 2791 double elements.

2. Full polarization product (SM_XXXX_MIR_SC_F1B or SM_XXXX_MIR_TARF1B): the

Scene_BT_Fourier field in this product has 4 possibilities o HH or VV: it has 1395 complex values and one real in the centre of the star (2791 doubles totally). o HV_real or HV_imag: it has 2791 real values (doubles) covering all the star, either the real part of HV polarization or the imaginary part.

3. In dual polarization products it must be performed the complex conjugate of the

Scene_BT_Fourier fields in pure polarizations to complete the star in the hexagonal domain.

In case of a full polarization product instead of the complex conjugate, the real part is obtained through the 2791 real values of HV_real and the imaginary part is obtained through the 2791 real values of HV_imag.

I call this Scene_BT_Fourier*. This follows the same order as Scene_BT_Fourier.

4. The resulting variable, which I call CompleteStar_Scene_BT_Fourier, is a list of values to be visualized in the hexagonal star domain plot (this is the variable to be visualized by feature specified in SOW’s Req. SDV-T-6.1.6-120). The order and coordinates for the complete list of points in the star is specified in LUT L1B_STARVIS_LUT.txt.

5. The variable CompleteStar_Scene_BT_Fourier is the origin for the Brightness Temperature image in the (chi,eta) domain in whatever resolution (specified by Xi_Eta_Resolution field

#64 in Table 4-28 of L1OP Specs), although obviously some transformations are needed in

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Inverse FFT procedure.

6. In order to use standard FFT techniques, the CompleteStar_Scene_BT_Fourier variable must be fitted into a square matrix of the specified Xi_Eta_Resolution, I call this matrix

Rectangular_Scene_BT_Fourier. To do this, the following procedure must be performed:

Create the variable Rectangular_Scene_BT_Fourier whose size is Xi_Eta_Resolution rows by Xi_Eta_Resolution columns, filled with all zeroes. There are 3 possible resolutions, 64x64, 128x128, and 256x256.

Use the look up table (L1B_UV_STAR2RECT_LUT_***.txt) to find the positions in

Rectangular_Scene_BT_Fourier rectangular matrix on which the elements of

CompleteStar_Scene_BT_Fourier have to be placed. First 2 columns contain the row and column indexes in the rectangular grid, the 3 rd

and 4 th

columns contain the corresponding

(u,v) coordinates values, and the 5 th

column contains the position of the corresponding element of CompleteStar_Scene_BT_Fourier variable. In fact, you don’t need columns

3 rd

and 4 th

, they are only included for clarification purposes.

Note that some of this column 5’s positions values are set to -001: this must be understood as that the Rectangular_Scene_BT_Fourier must be kept with zero values. In fact,

Rectangular_Scene_BT_Fourier is zero-padded rectangular version of

CompleteStar_Scene_BT_Fourier. The hexagonal-grid variable is always the same size, the change in resolution in the rectangular-grid variable is achieved by zero-padding.

7. Once you have the rectangular-grid variable, you must perform an Inverse FFT. The L1PP project has used the FFTW library methods:

p = fftw_plan_dft_2d(nx, ny, bt_freq_matrix, bt_temp_snapshot,

FFTW_BACKWARD,FFTW_ESTIMATE);

Where nx and ny are the number of rows and columns in the rectangular grid, bt_freq_matrix is the Rectangular_Scene_BT_Fourier and bt_temp_snapshot the resulting variable in the

(chi,eta) domain, which I call from now on Rectangular_Scene_XiEta.

8. The variable Rectangular_Scene_XiEta has the same size of

Rectangular_Scene_BT_Fourier. Rectangular_Scene_XiEta has to be plotted against the coordinates specified in look-up tables L1B_FFT_XIETA_LUT_***.txt. The first 2 columns give the indexes in the rectangular matrix, and columns 3 rd

and 4 th

give the corresponding Xi and Eta positions.

9. You have to plot all values in the Rectangular_Scene_XiEta variable, as scientists are interested in everything that is retrieved by the SMOS instrument, even if it is hardly usable with current algorithms.

10. The reconstruction in the xi,eta domain is implemented using the Blackman apodisation window, therefore the brightness temperature is calculated by the following approach:

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The Star Domain representation is performed based on the Square Matrix. The ordering is based on reporting only the baselines with positive v coordinate and u positive for v=0:

The v coordinate for the upper half of the baselines goes continuously from 0 to sqrt(3)*NEL*d, where NEL=21 and d=0.875, in incremental steps of sqrt(3)*d/2

The u coordinate of the upper half of the baselines shall follow the mathematical rules defined as:

If v=0, then u goes from d to 24*d in incremental steps of d

If v>0 and v<=sqrt(3)*NEL*d/2, then u goes from –(NEL*d +v/sqrt(3)) to +(NEL*d +v/sqrt(3)) in incremental steps of d

If v=sqrt(3)*(NEL+1)*d/2, then u goes from –11*d to +11*d in incremental steps of d

If v=sqrt(3)*(NEL+2)*d/2, then u has the values –23*d/2, –19*d/2 to +19*d/2 in incremental steps of d and +23*d/2. Notice that the elements ±21*d/2 are not present.

If v=sqrt(3)*(NEL+3)*d/2, then u has the values –12*d, –9*d to +9*d in incremental steps of d and +12*d. Notice that the elements ±11*d and ±10*d are not present.

Finally, if v>sqrt(3)*(NEL+3)*d/2 and v<=sqrt(3)*NEL*d, then u goes from –(NEL*d – v/sqrt(3)) to +(NEL*d –v/sqrt(3)) in incremental steps of d

The order followed is shown in the next picture. For the 1395 element vector, the baselines shall be taken first from left to right, then from bottom to top. I.e. the first 24 elements are the ones with v=0 and ordered by increasing u; the next 42 elements are the ones with v=sqrt(3)*d/2 and ordered by increasing u (from negative to positive), and so on until the 1395 elements are covered.

Figure 114: Star Domain Representation

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For the case of HV polarisation, where the vector is 2791 elements long, the complete star must be covered. In this case, the ordering shall be similar to the one adopted above. The first element shall be the zero baseline (u=0, v=0); the next 1395 elements shall be ordered like it has been described (left to right, then bottom to top); and the remaining 1395 element shall be ordered in the same way as well, but inverting the sign of the resulting u and v coordinates (i.e. it changes to ordering from right to left, then top to bottom).

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In order to be possible to correctly browse and plot variables for level 0 products, some changes have been made to the XIN schema to split the I Q correlations in smaller arrays. The following table presents the array index number and the corresponding correlation.

Array Index Correlation

25 I24_I3 51 I23_I3

26 I24_I2 52 I23_I2

Correlator_Counts_1

1 1_1-0 27 I24_I1 53 I23_I1

I24_I18

I24_I17

I24_I16

I24_I15

I24_I14

I24_I13

I24_I12

I24_I11

1_0-0

I24_1

I24_Q24

I24_I23

I24_I22

I24_I21

I24_I20

I24_I19

I24_I10

I24_I9

I24_I8

I24_I7

I24_I6

I24_I5

I24_I4

14

15

16

17

10

11

12

13

8

9

6

7

4

5

2

3

22

23

24

18

19

20

21

I23_I18

I23_I17

I23_I16

I23_I15

I23_I14

I23_I13

I23_I12

I23_I11

I24_0

I23_1

I23_Q24

I23_Q23

I23_I22

I23_I21

I23_I20

I23_I19

I23_I10

I23_I9

I23_I8

I23_I7

I23_I6

I23_I5

I23_I4

40

41

42

43

36

37

38

39

32

33

34

35

28

29

30

31

48

49

50

44

45

46

47

66

67

68

69

62

63

64

65

58

59

60

61

54

55

56

57

74

75

76

70

71

72

73

I22_I18

I22_I17

I22_I16

I22_I15

I22_I14

I22_I13

I22_I12

I22_I11

I23_0

I22_1

I22_Q24

I22_Q23

I22_Q22

I22_I21

I22_I20

I22_I19

I22_I10

I22_I9

I22_I8

I22_I7

I22_I6

I22_I5

I22_I4

© DEIMOS Engenharia S.A.

DME-DQS-QRE0609-SUM-10-E

105

106

107

108

101

102

103

104

97

98

99

100

93

94

95

96

89

90

91

92

85

86

87

88

81

82

83

84

77

78

79

80

I21_I5

I21_I4

I21_I3

I21_I2

I21_I1

I21_0

I20_1

I20_Q24

I21_I13

I21_I12

I21_I11

I21_I10

I21_I9

I21_I8

I21_I7

I21_I6

I21_Q21

I21_I20

I21_I19

I21_I18

I21_I17

I21_I16

I21_I15

I21_I14

I22_I3

I22_I2

I22_I1

I22_0

I21_1

I21_Q24

I21_Q23

I21_Q22

S o

S

f f t

M

t w

O

a

S

r e

D a

U s

t

s

a

e r r

V

s

i i e

M

w

a

e

n

r

u a l l

137

138

139

140

133

134

135

136

129

130

131

132

125

126

127

128

121

122

123

124

117

118

119

120

113

114

115

116

109

110

111

112

© DEIMOS Engenharia S.A.

I19_1

I19_Q24

I19_Q23

I19_Q22

I19_Q21

I19_Q20

I19_Q19

I19_I18

I20_I7

I20_I6

I20_I5

I20_I4

I20_I3

I20_I2

I20_I1

I20_0

I20_I15

I20_I14

I20_I13

I20_I12

I20_I11

I20_I10

I20_I9

I20_I8

I20_Q23

I20_Q22

I20_Q21

I20_Q20

I20_I19

I20_I18

I20_I17

I20_I16

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

Page :

2.11

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169

170

171

172

165

166

167

168

161

162

163

164

157

158

159

160

153

154

155

156

149

150

151

152

145

146

147

148

141

142

143

144

I18_Q19

I18_Q18

I18_I17

I18_I16

I18_I15

I18_I14

I18_I13

I18_I12

I19_I1

I19_0

I18_1

I18_Q24

I18_Q23

I18_Q22

I18_Q21

I18_Q20

I19_I9

I19_I8

I19_I7

I19_I6

I19_I5

I19_I4

I19_I3

I19_I2

I19_I17

I19_I16

I19_I15

I19_I14

I19_I13

I19_I12

I19_I11

I19_I10

DME-DQS-QRE0609-SUM-10-E

185

186

187

188

181

182

183

184

177

178

179

180

173

174

175

176

189

190

191

Array Index Correlation

Correlator_Counts_2

1

2

I16_I7

I16_I6

5

6

3

4

I16_I5

I16_I4

I16_I3

I16_I2

7

8

9

10

I16_I1

I16_0

I15_1

I15_Q24

I18_I3

I18_I2

I18_I1

I18_0

I17_1

I17_Q24

I17_Q23

I17_Q22

I18_I11

I18_I10

I18_I9

I18_I8

I18_I7

I18_I6

I18_I5

I18_I4

I17_Q21

I17_Q20

I17_Q19

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

15

16

17

18

11

12

13

14

19

20

21

22

204

205

206

207

200

201

202

203

196

197

198

199

192

193

194

195

208

209

210

© DEIMOS Engenharia S.A.

I15_Q23

I15_Q22

I15_Q21

I15_Q20

I15_Q19

I15_Q18

I15_Q17

I15_Q16

I15_Q15

I15_I14

I15_I13

I15_I12

I17_I10

I17_I9

I17_I8

I17_I7

I17_I6

I17_I5

I17_I4

I17_I3

I17_Q18

I17_Q17

I17_I16

I17_I15

I17_I14

I17_I13

I17_I12

I17_I11

I17_I2

I17_I1

I17_0

27

28

29

30

23

24

25

26

31

32

33

34

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

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223

224

225

226

219

220

221

222

227

228

215

216

217

218

211

212

213

214

I16_Q17

I16_Q16

I16_I15

I16_I14

I16_I13

I16_I12

I16_I11

I16_I10

I16_I9

I16_I8

I16_1

I16_Q24

I16_Q23

I16_Q22

I16_Q21

I16_Q20

I16_Q19

I16_Q18

I15_I11

I15_I10

I15_I9

I15_I8

I15_I7

I15_I6

I15_I5

I15_I4

I15_I3

I15_I2

I15_I1

I15_0

DME-DQS-QRE0609-SUM-10-E

63

64

65

66

59

60

61

62

55

56

57

58

51

52

53

54

47

48

49

50

43

44

45

46

39

40

41

42

35

36

37

38

I14_I1

I14_0

I13_1

I13_Q24

I13_Q23

I13_Q22

I13_Q21

I13_Q20

I14_I9

I14_I8

I14_I7

I14_I6

I14_I5

I14_I4

I14_I3

I14_I2

I14_Q17

I14_Q16

I14_Q15

I14_Q14

I14_I13

I14_I12

I14_I11

I14_I10

I14_1

I14_Q24

I14_Q23

I14_Q22

I14_Q21

I14_Q20

I14_Q19

I14_Q18

S o

S

f f t

M

t w

O

a

S

r e

D a

U s

t

s

a

e r r

V

s

i i e

M

w

a

e

n

r

u a l l

95

96

97

98

91

92

93

94

87

88

89

90

83

84

85

86

79

80

81

82

75

76

77

78

71

72

73

74

67

68

69

70

© DEIMOS Engenharia S.A.

I12_Q21

I12_Q20

I12_Q19

I12_Q18

I12_Q17

I12_Q16

I12_Q15

I12_Q14

I13_I3

I13_I2

I13_I1

I13_0

I12_1

I12_Q24

I12_Q23

I12_Q22

I13_I11

I13_I10

I13_I9

I13_I8

I13_I7

I13_I6

I13_I5

I13_I4

I13_Q19

I13_Q18

I13_Q17

I13_Q16

I13_Q15

I13_Q14

I13_Q13

I13_I12

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

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127

128

129

130

123

124

125

126

119

120

121

122

115

116

117

118

111

112

113

114

107

108

109

110

103

104

105

106

99

100

101

102

I11_Q15

I11_Q14

I11_Q13

I11_Q12

I11_Q11

I11_I10

I11_I9

I11_I8

I11_Q23

I11_Q22

I11_Q21

I11_Q20

I11_Q19

I11_Q18

I11_Q17

I11_Q16

I12_I5

I12_I4

I12_I3

I12_I2

I12_I1

I12_0

I11_1

I11_Q24

I12_Q13

I12_Q12

I12_I11

I12_I10

I12_I9

I12_I8

I12_I7

I12_I6

DME-DQS-QRE0609-SUM-10-E

159

160

161

162

155

156

157

158

151

152

153

154

147

148

149

150

143

144

145

146

139

140

141

142

135

136

137

138

131

132

133

134

I10_I9

I10_I8

I10_I7

I10_I6

I10_I5

I10_I4

I10_I3

I10_I2

I10_Q17

I10_Q16

I10_Q15

I10_Q14

I10_Q13

I10_Q12

I10_Q11

I10_Q10

I10_1

I10_Q24

I10_Q23

I10_Q22

I10_Q21

I10_Q20

I10_Q19

I10_Q18

I11_I7

I11_I6

I11_I5

I11_I4

I11_I3

I11_I2

I11_I1

I11_0

S o

S

f f t

M

t w

O

a

S

r e

D a

U s

t

s

a

e r r

V

s

i i e

M

w

a

e

n

r

u a l l

191

192

193

194

187

188

189

190

183

184

185

186

179

180

181

182

175

176

177

178

171

172

173

174

167

168

169

170

163

164

165

166

© DEIMOS Engenharia S.A.

I9_I3

I9_I2

I9_I1

I9_0

I8_1

I8_Q24

I8_Q23

I8_Q22

I9_Q11

I9_Q10

I9_Q9

I9_I8

I9_I7

I9_I6

I9_I5

I9_I4

I9_Q19

I9_Q18

I9_Q17

I9_Q16

I9_Q15

I9_Q14

I9_Q13

I9_Q12

I10_I1

I10_0

I9_1

I9_Q24

I9_Q23

I9_Q22

I9_Q21

I9_Q20

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

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223

224

225

226

219

220

221

222

215

216

217

218

211

212

213

214

207

208

209

210

203

204

205

206

199

200

201

202

195

196

197

198

I7_Q23

I7_Q22

I7_Q21

I7_Q20

I7_Q19

I7_Q18

I7_Q17

I7_Q16

I8_I5

I8_I4

I8_I3

I8_I2

I8_I1

I8_0

I7_1

I7_Q24

I8_Q13

I8_Q12

I8_Q11

I8_Q10

I8_Q9

I8_Q8

I8_I7

I8_I6

I8_Q21

I8_Q20

I8_Q19

I8_Q18

I8_Q17

I8_Q16

I8_Q15

I8_Q14

DME-DQS-QRE0609-SUM-10-E

227

228

I7_Q15

I7_Q14

19

20

21

22

15

16

17

18

23

24

25

26

27

11

12

13

14

7

8

9

10

Array Index Correlation

Correlator_Counts_3

1

2

I7_Q10

I7_Q9

5

6

3

4

I7_Q8

I7_Q7

I7_I6

I7_I5

I7_I4

I7_I3

I7_I2

I7_I1

I7_0

I6_1

I6_Q24

I6_Q23

I6_Q22

I6_Q21

I6_Q20

I6_Q19

I6_Q18

I6_Q17

I6_Q16

I6_Q15

I6_Q14

I6_Q13

I6_Q12

I6_Q11

I6_Q10

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

229

230

48

49

50

51

44

45

46

47

52

53

54

55

56

40

41

42

43

36

37

38

39

32

33

34

35

28

29

30

31

© DEIMOS Engenharia S.A.

I7_Q13

I7_Q12

I5_Q19

I5_Q18

I5_Q17

I5_Q16

I5_Q15

I5_Q14

I5_Q13

I5_Q12

I5_Q11

I5_Q10

I5_Q9

I5_Q8

I5_Q7

I6_I1

I6_0

I5_1

I5_Q24

I5_Q23

I5_Q22

I5_Q21

I5_Q20

I6_Q9

I6_Q8

I6_Q7

I6_Q6

I6_I5

I6_I4

I6_I3

I6_I2

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

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231 I7_Q11

77

78

79

80

73

74

75

76

81

82

83

84

85

69

70

71

72

65

66

67

68

61

62

63

64

57

58

59

60

I4_Q16

I4_Q15

I4_Q14

I4_Q13

I4_Q12

I4_Q11

I4_Q10

I4_Q9

I4_Q8

I4_Q7

I4_Q6

I4_Q5

I4_Q4

I4_Q24

I4_Q23

I4_Q22

I4_Q21

I4_Q20

I4_Q19

I4_Q18

I4_Q17

I5_Q6

I5_Q5

I5_I4

I5_I3

I5_I2

I5_I1

I5_0

I4_1

DME-DQS-QRE0609-SUM-10-E

114

115

116

117

110

111

112

113

106

107

108

109

102

103

104

105

98

99

100

101

94

95

96

97

90

91

92

93

86

87

88

89

I3_Q5

I3_Q4

I3_Q3

I3_I2

I3_I1

I3_0

I2_1

I2_Q24

I3_Q13

I3_Q12

I3_Q11

I3_Q10

I3_Q9

I3_Q8

I3_Q7

I3_Q6

I3_Q21

I3_Q20

I3_Q19

I3_Q18

I3_Q17

I3_Q16

I3_Q15

I3_Q14

I4_I3

I4_I2

I4_I1

I4_0

I3_1

I3_Q24

I3_Q23

I3_Q22

S o

S

f f t

M

t w

O

a

S

r e

D a

U s

t

s

a

e r r

V

s

i i e

M

w

a

e

n

r

u a l l

146

147

148

149

142

143

144

145

138

139

140

141

134

135

136

137

130

131

132

133

126

127

128

129

122

123

124

125

118

119

120

121

© DEIMOS Engenharia S.A.

I1_1

I1_Q24

I1_Q23

I1_Q22

I1_Q21

I1_Q20

I1_Q19

I1_Q18

I2_Q7

I2_Q6

I2_Q5

I2_Q4

I2_Q3

I2_Q2

I2_I1

I2_0

I2_Q15

I2_Q14

I2_Q13

I2_Q12

I2_Q11

I2_Q10

I2_Q9

I2_Q8

I2_Q23

I2_Q22

I2_Q21

I2_Q20

I2_Q19

I2_Q18

I2_Q17

I2_Q16

Code :

SDV-DME-TEC-SUM01-E-R

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178

179

180

181

174

175

176

177

170

171

172

173

166

167

168

169

162

163

164

165

158

159

160

161

154

155

156

157

150

151

152

153

0_Q19

0_Q18

0_Q17

0_Q16

0_Q15

0_Q14

0_Q13

0_Q12

I1_Q1

I1_0

0_1-0

0_Q24

0_Q23

0_Q22

0_Q21

0_Q20

I1_Q9

I1_Q8

I1_Q7

I1_Q6

I1_Q5

I1_Q4

I1_Q3

I1_Q2

I1_Q17

I1_Q16

I1_Q15

I1_Q14

I1_Q13

I1_Q12

I1_Q11

I1_Q10

DME-DQS-QRE0609-SUM-10-E

182

183

184

185

0_Q11

0_Q10

0_Q9

0_Q8

Array Index Correlation

Correlator_Counts_4

1

2

1_1-1

1_Q48

5

6

3

4

1_Q47

1_Q46

1_Q45

1_Q44

7

8

9

10

11

1_Q43

1_Q42

1_Q41

1_Q40

1_Q39

Array Index Correlation

Correlator_Counts_5

1 I24_Q39

4

5

2

3

I24_Q38

I24_Q37

I24_Q36

I24_Q35

8

9

6

7

10

11

I24_Q34

I24_Q33

I24_Q32

I24_Q31

I24_Q30

I24_Q29

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

16

17

18

19

12

13

14

15

20

21

22

23

24

186

187

188

189

16

17

18

19

12

13

14

15

20

21

22

23

24

© DEIMOS Engenharia S.A.

0_Q7

0_Q6

0_Q5

0_Q4

1_Q38

1_Q37

1_Q36

1_Q35

1_Q34

1_Q33

1_Q32

1_Q31

1_Q30

1_Q29

1_Q28

1_Q27

1_Q26

I24_Q28

I24_Q27

I24_Q26

I24_Q25

I23_Q48

I23_Q47

I23_Q46

I23_Q45

I23_Q44

I23_Q43

I23_Q42

I23_Q41

I23_Q40

29

30

31

32

25

26

27

28

33

34

35

36

37

Code :

SDV-DME-TEC-SUM01-E-R

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29

30

31

32

25

26

27

28

33

34

35

190

191

192

193

0_Q3

0_Q2

0_Q1

0_0-0

1_Q25

1_0-1

I24_Q48

I24_Q47

I24_Q46

I24_Q45

I24_Q44

I24_Q43

I24_Q42

I24_Q41

I24_Q40

I23_Q39

I23_Q38

I23_Q37

I23_Q36

I23_Q35

I23_Q34

I23_Q33

I23_Q32

I23_Q31

I23_Q30

I23_Q29

I23_Q28

I23_Q27

DME-DQS-QRE0609-SUM-10-E

66

67

68

69

62

63

64

65

58

59

60

61

54

55

56

57

50

51

52

53

46

47

48

49

42

43

44

45

38

39

40

41

I22_Q26

I22_Q25

I21_Q48

I21_Q47

I21_Q46

I21_Q45

I21_Q44

I21_Q43

I22_Q34

I22_Q33

I22_Q32

I22_Q31

I22_Q30

I22_Q29

I22_Q28

I22_Q27

I22_Q42

I22_Q41

I22_Q40

I22_Q39

I22_Q38

I22_Q37

I22_Q36

I22_Q35

I23_Q26

I23_Q25

I22_Q48

I22_Q47

I22_Q46

I22_Q45

I22_Q44

I22_Q43

S o

S

f f t

M

t w

O

a

S

r e

D a

U s

t

s

a

e r r

V

s

i i e

M

w

a

e

n

r

u a l l

98

99

100

101

94

95

96

97

90

91

92

93

86

87

88

89

82

83

84

85

78

79

80

81

74

75

76

77

70

71

72

73

© DEIMOS Engenharia S.A.

I20_Q42

I20_Q41

I20_Q40

I20_Q39

I20_Q38

I20_Q37

I20_Q36

I20_Q35

I21_Q26

I21_Q25

I20_Q48

I20_Q47

I20_Q46

I20_Q45

I20_Q44

I20_Q43

I21_Q34

I21_Q33

I21_Q32

I21_Q31

I21_Q30

I21_Q29

I21_Q28

I21_Q27

I21_Q42

I21_Q41

I21_Q40

I21_Q39

I21_Q38

I21_Q37

I21_Q36

I21_Q35

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

Page :

2.11

26/02/2015

117 of 170

130

131

132

133

126

127

128

129

122

123

124

125

118

119

120

121

114

115

116

117

110

111

112

113

106

107

108

109

102

103

104

105

I19_Q34

I19_Q33

I19_Q32

I19_Q31

I19_Q30

I19_Q29

I19_Q28

I19_Q27

I19_Q42

I19_Q41

I19_Q40

I19_Q39

I19_Q38

I19_Q37

I19_Q36

I19_Q35

I20_Q26

I20_Q25

I19_Q48

I19_Q47

I19_Q46

I19_Q45

I19_Q44

I19_Q43

I20_Q34

I20_Q33

I20_Q32

I20_Q31

I20_Q30

I20_Q29

I20_Q28

I20_Q27

DME-DQS-QRE0609-SUM-10-E

162

163

164

165

158

159

160

161

154

155

156

157

150

151

152

153

146

147

148

149

142

143

144

145

138

139

140

141

134

135

136

137

I18_Q26

I18_Q25

I17_Q48

I17_Q47

I17_Q46

I17_Q45

I17_Q44

I17_Q43

I18_Q34

I18_Q33

I18_Q32

I18_Q31

I18_Q30

I18_Q29

I18_Q28

I18_Q27

I18_Q42

I18_Q41

I18_Q40

I18_Q39

I18_Q38

I18_Q37

I18_Q36

I18_Q35

I19_Q26

I19_Q25

I18_Q48

I18_Q47

I18_Q46

I18_Q45

I18_Q44

I18_Q43

S o

S

f f t

M

t w

O

a

S

r e

D a

U s

t

s

a

e r r

V

s

i i e

M

w

a

e

n

r

u a l l

194

195

196

197

190

191

192

193

186

187

188

189

182

183

184

185

178

179

180

181

174

175

176

177

170

171

172

173

166

167

168

169

© DEIMOS Engenharia S.A.

I16_Q42

I16_Q41

I16_Q40

I16_Q39

I16_Q38

I16_Q37

I16_Q36

I16_Q35

I17_Q26

I17_Q25

I16_Q48

I16_Q47

I16_Q46

I16_Q45

I16_Q44

I16_Q43

I17_Q34

I17_Q33

I17_Q32

I17_Q31

I17_Q30

I17_Q29

I17_Q28

I17_Q27

I17_Q42

I17_Q41

I17_Q40

I17_Q39

I17_Q38

I17_Q37

I17_Q36

I17_Q35

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

Page :

2.11

26/02/2015

118 of 170

226

227

228

229

222

223

224

225

218

219

220

221

214

215

216

217

210

211

212

213

206

207

208

209

202

203

204

205

198

199

200

201

I15_Q34

I15_Q33

I15_Q32

I15_Q31

I15_Q30

I15_Q29

I15_Q28

I15_Q27

I15_Q42

I15_Q41

I15_Q40

I15_Q39

I15_Q38

I15_Q37

I15_Q36

I15_Q35

I16_Q26

I16_Q25

I15_Q48

I15_Q47

I15_Q46

I15_Q45

I15_Q44

I15_Q43

I16_Q34

I16_Q33

I16_Q32

I16_Q31

I16_Q30

I16_Q29

I16_Q28

I16_Q27

DME-DQS-QRE0609-SUM-10-E

230

231

I15_Q26

I15_Q25

19

20

21

22

15

16

17

18

23

24

25

26

27

11

12

13

14

7

8

9

10

Array Index Correlation

Correlator_Counts_6

1

2

I14_Q48

I14_Q47

5

6

3

4

I14_Q46

I14_Q45

I14_Q44

I14_Q43

I14_Q42

I14_Q41

I14_Q40

I14_Q39

I14_Q38

I14_Q37

I14_Q36

I14_Q35

I14_Q34

I14_Q33

I14_Q32

I14_Q31

I14_Q30

I14_Q29

I14_Q28

I14_Q27

I14_Q26

I14_Q25

I13_Q48

I13_Q47

I13_Q46

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

48

49

50

51

44

45

46

47

52

53

54

55

56

40

41

42

43

36

37

38

39

32

33

34

35

28

29

30

31

© DEIMOS Engenharia S.A.

I13_Q29

I13_Q28

I13_Q27

I13_Q26

I13_Q25

I12_Q48

I12_Q47

I12_Q46

I12_Q45

I12_Q44

I12_Q43

I12_Q42

I12_Q41

I13_Q37

I13_Q36

I13_Q35

I13_Q34

I13_Q33

I13_Q32

I13_Q31

I13_Q30

I13_Q45

I13_Q44

I13_Q43

I13_Q42

I13_Q41

I13_Q40

I13_Q39

I13_Q38

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

Page :

2.11

26/02/2015

119 of 170

I11_Q48

I11_Q47

I11_Q46

I11_Q45

I11_Q44

I11_Q43

I11_Q42

I11_Q41

I11_Q40

I11_Q39

I11_Q38

I11_Q37

I11_Q36

I12_Q32

I12_Q31

I12_Q30

I12_Q29

I12_Q28

I12_Q27

I12_Q26

I12_Q25

I12_Q40

I12_Q39

I12_Q38

I12_Q37

I12_Q36

I12_Q35

I12_Q34

I12_Q33

77

78

79

80

73

74

75

76

81

82

83

84

85

69

70

71

72

65

66

67

68

61

62

63

64

57

58

59

60

DME-DQS-QRE0609-SUM-10-E

I10_Q35

I10_Q34

I10_Q33

I10_Q32

I10_Q31

I10_Q30

I10_Q29

I10_Q28

I10_Q43

I10_Q42

I10_Q41

I10_Q40

I10_Q39

I10_Q38

I10_Q37

I10_Q36

I11_Q27

I11_Q26

I11_Q25

I10_Q48

I10_Q47

I10_Q46

I10_Q45

I10_Q44

I11_Q35

I11_Q34

I11_Q33

I11_Q32

I11_Q31

I11_Q30

I11_Q29

I11_Q28

114

115

116

117

110

111

112

113

106

107

108

109

102

103

104

105

98

99

100

101

94

95

96

97

90

91

92

93

86

87

88

89

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

146

147

148

149

142

143

144

145

138

139

140

141

134

135

136

137

130

131

132

133

126

127

128

129

122

123

124

125

118

119

120

121

© DEIMOS Engenharia S.A.

I9_Q27

I9_Q26

I9_Q25

I8_Q48

I8_Q47

I8_Q46

I8_Q45

I8_Q44

I9_Q35

I9_Q34

I9_Q33

I9_Q32

I9_Q31

I9_Q30

I9_Q29

I9_Q28

I9_Q43

I9_Q42

I9_Q41

I9_Q40

I9_Q39

I9_Q38

I9_Q37

I9_Q36

I10_Q27

I10_Q26

I10_Q25

I9_Q48

I9_Q47

I9_Q46

I9_Q45

I9_Q44

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

Page :

2.11

26/02/2015

120 of 170

178

179

180

181

174

175

176

177

170

171

172

173

166

167

168

169

162

163

164

165

158

159

160

161

154

155

156

157

150

151

152

153

I7_Q43

I7_Q42

I7_Q41

I7_Q40

I7_Q39

I7_Q38

I7_Q37

I7_Q36

I8_Q27

I8_Q26

I8_Q25

I7_Q48

I7_Q47

I7_Q46

I7_Q45

I7_Q44

I8_Q35

I8_Q34

I8_Q33

I8_Q32

I8_Q31

I8_Q30

I8_Q29

I8_Q28

I8_Q43

I8_Q42

I8_Q41

I8_Q40

I8_Q39

I8_Q38

I8_Q37

I8_Q36

DME-DQS-QRE0609-SUM-10-E

194

195

196

197

190

191

192

193

186

187

188

189

182

183

184

185

198

Array Index Correlation

Correlator_Counts_7

1

2

I5_Q33

I5_Q32

5

6

3

4

I5_Q31

I5_Q30

I5_Q29

I5_Q28

7

8

9

10

11

12

I5_Q27

I5_Q26

I5_Q25

I4_Q48

I4_Q47

I4_Q46

I7_Q27

I7_Q26

I7_Q25

I6_Q48

I6_Q47

I6_Q46

I6_Q45

I6_Q44

I6_Q43

I7_Q35

I7_Q34

I7_Q33

I7_Q32

I7_Q31

I7_Q30

I7_Q29

I7_Q28

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

21

22

23

24

25

26

17

18

19

20

13

14

15

16

211

212

213

214

215

207

208

209

210

203

204

205

206

199

200

201

202

© DEIMOS Engenharia S.A.

I4_Q45

I4_Q44

I4_Q43

I4_Q42

I4_Q41

I4_Q40

I4_Q39

I4_Q38

I4_Q37

I4_Q36

I4_Q35

I4_Q34

I4_Q33

I4_Q32

I6_Q34

I6_Q33

I6_Q32

I6_Q31

I6_Q30

I6_Q29

I6_Q28

I6_Q27

I6_Q26

I6_Q42

I6_Q41

I6_Q40

I6_Q39

I6_Q38

I6_Q37

I6_Q36

I6_Q35

35

36

37

38

39

40

31

32

33

34

27

28

29

30

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

Page :

2.11

26/02/2015

121 of 170

228

229

230

231

224

225

226

227

220

221

222

223

216

217

218

219

I5_Q41

I5_Q40

I5_Q39

I5_Q38

I5_Q37

I5_Q36

I5_Q35

I5_Q34

I6_Q25

I5_Q48

I5_Q47

I5_Q46

I5_Q45

I5_Q44

I5_Q43

I5_Q42

I4_Q31

I4_Q30

I4_Q29

I4_Q28

I4_Q27

I4_Q26

I4_Q25

I3_Q48

I3_Q47

I3_Q46

I3_Q45

I3_Q44

I3_Q43

I3_Q42

DME-DQS-QRE0609-SUM-10-E

I2_Q41

I2_Q40

I2_Q39

I2_Q38

I2_Q37

I2_Q36

I2_Q35

I3_Q25

I2_Q48

I2_Q47

I2_Q46

I2_Q45

I2_Q44

I2_Q43

I2_Q42

I3_Q33

I3_Q32

I3_Q31

I3_Q30

I3_Q29

I3_Q28

I3_Q27

I3_Q26

I3_Q41

I3_Q40

I3_Q39

I3_Q38

I3_Q37

I3_Q36

I3_Q35

I3_Q34

69

70

71

65

66

67

68

61

62

63

64

57

58

59

60

53

54

55

56

49

50

51

52

45

46

47

48

41

42

43

44

96

97

98

99

100

101

102

92

93

94

95

88

89

90

91

84

85

86

87

80

81

82

83

76

77

78

79

72

73

74

75

S o

S

f f t

M

t w

O

a

S

r e

D a

U s

t

s

a

e r r

V

s

i i e

M

w

a

e

n

r

u a l l

I1_Q34

I1_Q33

I1_Q32

I1_Q31

I1_Q30

I1_Q29

I1_Q28

I1_Q42

I1_Q41

I1_Q40

I1_Q39

I1_Q38

I1_Q37

I1_Q36

I1_Q35

I2_Q26

I2_Q25

I1_Q48

I1_Q47

I1_Q46

I1_Q45

I1_Q44

I1_Q43

I2_Q34

I2_Q33

I2_Q32

I2_Q31

I2_Q30

I2_Q29

I2_Q28

I2_Q27

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

Page :

2.11

26/02/2015

122 of 170

123

124

125

126

119

120

121

122

127

128

129

130

131

115

116

117

118

111

112

113

114

107

108

109

110

103

104

105

106

0_Q36

0_Q35

0_Q34

0_Q33

0_Q32

0_Q31

0_Q30

0_Q29

0_Q28

0_Q27

0_Q26

0_Q25

0_0-1

0_Q44

0_Q43

0_Q42

0_Q41

0_Q40

0_Q39

0_Q38

0_Q37

I1_Q27

I1_Q26

I1_Q25

0_1-1

0_Q48

0_Q47

0_Q46

0_Q45

© DEIMOS Engenharia S.A.

DME-DQS-QRE0609-SUM-10-E

27

28

29

30

23

24

25

26

19

20

21

22

15

16

17

18

11

12

13

14

7

8

9

10

Array Index Correlation

Correlator_Counts_8

1

2

1_1-2

1_Q72

5

6

3

4

1_Q71

1_Q70

1_Q69

1_Q68

1_Q67

1_Q66

1_Q65

1_Q64

1_Q63

1_Q62

1_Q61

1_Q60

1_Q51

1_Q50

1_Q49

1_0-2

I24_Q72

I24_Q71

I24_Q70

I24_Q69

1_Q59

1_Q58

1_Q57

1_Q56

1_Q55

1_Q54

1_Q53

1_Q52

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

59

60

61

62

55

56

57

58

51

52

53

54

47

48

49

50

43

44

45

46

39

40

41

42

35

36

37

38

31

32

33

34

© DEIMOS Engenharia S.A.

I23_Q68

I23_Q67

I23_Q66

I23_Q65

I23_Q64

I23_Q63

I23_Q62

I23_Q61

I24_Q52

I24_Q51

I24_Q50

I24_Q49

I23_Q72

I23_Q71

I23_Q70

I23_Q69

I24_Q60

I24_Q59

I24_Q58

I24_Q57

I24_Q56

I24_Q55

I24_Q54

I24_Q53

I24_Q68

I24_Q67

I24_Q66

I24_Q65

I24_Q64

I24_Q63

I24_Q62

I24_Q61

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

Page :

2.11

26/02/2015

123 of 170

91

92

93

94

87

88

89

90

83

84

85

86

79

80

81

82

75

76

77

78

71

72

73

74

67

68

69

70

63

64

65

66

I22_Q60

I22_Q59

I22_Q58

I22_Q57

I22_Q56

I22_Q55

I22_Q54

I22_Q53

I22_Q68

I22_Q67

I22_Q66

I22_Q65

I22_Q64

I22_Q63

I22_Q62

I22_Q61

I23_Q52

I23_Q51

I23_Q50

I23_Q49

I22_Q72

I22_Q71

I22_Q70

I22_Q69

I23_Q60

I23_Q59

I23_Q58

I23_Q57

I23_Q56

I23_Q55

I23_Q54

I23_Q53

DME-DQS-QRE0609-SUM-10-E

95

96

I22_Q52

I22_Q51

19

20

21

22

15

16

17

18

23

24

25

26

27

11

12

13

14

7

8

9

10

Array Index Correlation

Correlator_Counts_9

1

2

I22_Q49

I21_Q72

5

6

3

4

I21_Q71

I21_Q70

I21_Q69

I21_Q68

I21_Q67

I21_Q66

I21_Q65

I21_Q64

I21_Q63

I21_Q62

I21_Q61

I21_Q60

I21_Q59

I21_Q58

I21_Q57

I21_Q56

I21_Q55

I21_Q54

I21_Q53

I21_Q52

I21_Q51

I21_Q50

I21_Q49

I20_Q72

I20_Q71

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

97 I22_Q50

48

49

50

51

44

45

46

47

52

53

54

55

56

40

41

42

43

36

37

38

39

32

33

34

35

28

29

30

31

© DEIMOS Engenharia S.A.

I20_Q54

I20_Q53

I20_Q52

I20_Q51

I20_Q50

I20_Q49

I19_Q72

I19_Q71

I19_Q70

I19_Q69

I19_Q68

I19_Q67

I19_Q66

I20_Q62

I20_Q61

I20_Q60

I20_Q59

I20_Q58

I20_Q57

I20_Q56

I20_Q55

I20_Q70

I20_Q69

I20_Q68

I20_Q67

I20_Q66

I20_Q65

I20_Q64

I20_Q63

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

Page :

2.11

26/02/2015

124 of 170

77

78

79

80

73

74

75

76

81

82

83

84

85

69

70

71

72

65

66

67

68

61

62

63

64

57

58

59

60

I19_Q49

I18_Q72

I18_Q71

I18_Q70

I18_Q69

I18_Q68

I18_Q67

I18_Q66

I18_Q65

I18_Q64

I18_Q63

I18_Q62

I18_Q61

I19_Q57

I19_Q56

I19_Q55

I19_Q54

I19_Q53

I19_Q52

I19_Q51

I19_Q50

I19_Q65

I19_Q64

I19_Q63

I19_Q62

I19_Q61

I19_Q60

I19_Q59

I19_Q58

DME-DQS-QRE0609-SUM-10-E

I17_Q60

I17_Q59

I17_Q58

I17_Q57

I17_Q56

I17_Q55

I17_Q54

I17_Q53

I17_Q68

I17_Q67

I17_Q66

I17_Q65

I17_Q64

I17_Q63

I17_Q62

I17_Q61

I18_Q52

I18_Q51

I18_Q50

I18_Q49

I17_Q72

I17_Q71

I17_Q70

I17_Q69

I18_Q60

I18_Q59

I18_Q58

I18_Q57

I18_Q56

I18_Q55

I18_Q54

I18_Q53

114

115

116

117

110

111

112

113

106

107

108

109

102

103

104

105

98

99

100

101

94

95

96

97

90

91

92

93

86

87

88

89

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

146

147

148

149

142

143

144

145

138

139

140

141

134

135

136

137

130

131

132

133

126

127

128

129

122

123

124

125

118

119

120

121

© DEIMOS Engenharia S.A.

I16_Q52

I16_Q51

I16_Q50

I16_Q49

I15_Q72

I15_Q71

I15_Q70

I15_Q69

I16_Q60

I16_Q59

I16_Q58

I16_Q57

I16_Q56

I16_Q55

I16_Q54

I16_Q53

I16_Q68

I16_Q67

I16_Q66

I16_Q65

I16_Q64

I16_Q63

I16_Q62

I16_Q61

I17_Q52

I17_Q51

I17_Q50

I17_Q49

I16_Q72

I16_Q71

I16_Q70

I16_Q69

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

Page :

2.11

26/02/2015

125 of 170

178

179

180

181

174

175

176

177

170

171

172

173

166

167

168

169

162

163

164

165

158

159

160

161

154

155

156

157

150

151

152

153

I14_Q68

I14_Q67

I14_Q66

I14_Q65

I14_Q64

I14_Q63

I14_Q62

I14_Q61

I15_Q52

I15_Q51

I15_Q50

I15_Q49

I14_Q72

I14_Q71

I14_Q70

I14_Q69

I15_Q60

I15_Q59

I15_Q58

I15_Q57

I15_Q56

I15_Q55

I15_Q54

I15_Q53

I15_Q68

I15_Q67

I15_Q66

I15_Q65

I15_Q64

I15_Q63

I15_Q62

I15_Q61

DME-DQS-QRE0609-SUM-10-E

194

195

196

197

190

191

192

193

186

187

188

189

182

183

184

185

198

Array Index Correlation

Correlator_Counts_10

1

2

I12_Q58

I12_Q57

5

6

3

4

I12_Q56

I12_Q55

I12_Q54

I12_Q53

7

8

9

10

11

12

I12_Q52

I12_Q51

I12_Q50

I12_Q49

I11_Q72

I11_Q71

I14_Q52

I14_Q51

I14_Q50

I14_Q49

I13_Q72

I13_Q71

I13_Q70

I13_Q69

I13_Q68

I14_Q60

I14_Q59

I14_Q58

I14_Q57

I14_Q56

I14_Q55

I14_Q54

I14_Q53

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

21

22

23

24

25

26

17

18

19

20

13

14

15

16

211

212

213

214

215

207

208

209

210

203

204

205

206

199

200

201

202

© DEIMOS Engenharia S.A.

I11_Q70

I11_Q69

I11_Q68

I11_Q67

I11_Q66

I11_Q65

I11_Q64

I11_Q63

I11_Q62

I11_Q61

I11_Q60

I11_Q59

I11_Q58

I11_Q57

I13_Q59

I13_Q58

I13_Q57

I13_Q56

I13_Q55

I13_Q54

I13_Q53

I13_Q52

I13_Q51

I13_Q67

I13_Q66

I13_Q65

I13_Q64

I13_Q63

I13_Q62

I13_Q61

I13_Q60

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

Page :

2.11

26/02/2015

126 of 170

228

229

230

231

224

225

226

227

220

221

222

223

216

217

218

219

I12_Q66

I12_Q65

I12_Q64

I12_Q63

I12_Q62

I12_Q61

I12_Q60

I12_Q59

I13_Q50

I13_Q49

I12_Q72

I12_Q71

I12_Q70

I12_Q69

I12_Q68

I12_Q67

35

36

37

38

39

40

31

32

33

34

27

28

29

30

I11_Q56

I11_Q55

I11_Q54

I11_Q53

I11_Q52

I11_Q51

I11_Q50

I11_Q49

I10_Q72

I10_Q71

I10_Q70

I10_Q69

I10_Q68

I10_Q67

DME-DQS-QRE0609-SUM-10-E

69

70

71

72

65

66

67

68

61

62

63

64

57

58

59

60

53

54

55

56

49

50

51

52

45

46

47

48

41

42

43

44

I9_Q66

I9_Q65

I9_Q64

I9_Q63

I9_Q62

I9_Q61

I9_Q60

I9_Q59

I10_Q50

I10_Q49

I9_Q72

I9_Q71

I9_Q70

I9_Q69

I9_Q68

I9_Q67

I10_Q58

I10_Q57

I10_Q56

I10_Q55

I10_Q54

I10_Q53

I10_Q52

I10_Q51

I10_Q66

I10_Q65

I10_Q64

I10_Q63

I10_Q62

I10_Q61

I10_Q60

I10_Q59

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

101

102

103

104

97

98

99

100

93

94

95

96

89

90

91

92

85

86

87

88

81

82

83

84

77

78

79

80

73

74

75

76

© DEIMOS Engenharia S.A.

I8_Q58

I8_Q57

I8_Q56

I8_Q55

I8_Q54

I8_Q53

I8_Q52

I8_Q51

I8_Q66

I8_Q65

I8_Q64

I8_Q63

I8_Q62

I8_Q61

I8_Q60

I8_Q59

I9_Q50

I9_Q49

I8_Q72

I8_Q71

I8_Q70

I8_Q69

I8_Q68

I8_Q67

I9_Q58

I9_Q57

I9_Q56

I9_Q55

I9_Q54

I9_Q53

I9_Q52

I9_Q51

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

Page :

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133

134

135

136

129

130

131

132

125

126

127

128

121

122

123

124

117

118

119

120

113

114

115

116

109

110

111

112

105

106

107

108

I7_Q50

I7_Q49

I6_Q72

I6_Q71

I6_Q70

I6_Q69

I6_Q68

I6_Q67

I7_Q58

I7_Q57

I7_Q56

I7_Q55

I7_Q54

I7_Q53

I7_Q52

I7_Q51

I7_Q66

I7_Q65

I7_Q64

I7_Q63

I7_Q62

I7_Q61

I7_Q60

I7_Q59

I8_Q50

I8_Q49

I7_Q72

I7_Q71

I7_Q70

I7_Q69

I7_Q68

I7_Q67

DME-DQS-QRE0609-SUM-10-E

I5_Q66

I5_Q65

I5_Q64

I5_Q63

I5_Q62

I5_Q61

I5_Q60

I5_Q59

I6_Q50

I6_Q49

I5_Q72

I5_Q71

I5_Q70

I5_Q69

I5_Q68

I5_Q67

I6_Q58

I6_Q57

I6_Q56

I6_Q55

I6_Q54

I6_Q53

I6_Q52

I6_Q51

I6_Q66

I6_Q65

I6_Q64

I6_Q63

I6_Q62

I6_Q61

I6_Q60

I6_Q59

161

162

163

164

165

166

167

157

158

159

160

153

154

155

156

149

150

151

152

145

146

147

148

141

142

143

144

137

138

139

140

168

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

197

198

199

200

193

194

195

196

189

190

191

192

185

186

187

188

181

182

183

184

177

178

179

180

173

174

175

176

169

170

171

172

© DEIMOS Engenharia S.A.

I4_Q58

I4_Q57

I4_Q56

I4_Q55

I4_Q54

I4_Q53

I4_Q52

I4_Q51

I4_Q66

I4_Q65

I4_Q64

I4_Q63

I4_Q62

I4_Q61

I4_Q60

I4_Q59

I5_Q50

I5_Q49

I4_Q72

I4_Q71

I4_Q70

I4_Q69

I4_Q68

I4_Q67

I5_Q58

I5_Q57

I5_Q56

I5_Q55

I5_Q54

I5_Q53

I5_Q52

I5_Q51

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

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225

226

227

228

229

230

231

221

222

223

224

217

218

219

220

213

214

215

216

209

210

211

212

205

206

207

208

201

202

203

204

I3_Q50

I3_Q49

I2_Q72

I2_Q71

I2_Q70

I2_Q69

I2_Q68

I3_Q58

I3_Q57

I3_Q56

I3_Q55

I3_Q54

I3_Q53

I3_Q52

I3_Q51

I3_Q66

I3_Q65

I3_Q64

I3_Q63

I3_Q62

I3_Q61

I3_Q60

I3_Q59

I4_Q50

I4_Q49

I3_Q72

I3_Q71

I3_Q70

I3_Q69

I3_Q68

I3_Q67

DME-DQS-QRE0609-SUM-10-E

19

20

21

15

16

17

18

11

12

13

14

7

8

9

10

Array Index Correlation

Correlator_Counts_11

1

2

I2_Q67

I2_Q66

5

6

3

4

I2_Q65

I2_Q64

I2_Q63

I2_Q62

I2_Q61

I2_Q60

I2_Q59

I2_Q58

I2_Q57

I2_Q56

I2_Q55

I2_Q54

I2_Q53

I2_Q52

I2_Q51

I2_Q50

I2_Q49

I1_Q72

I1_Q71

I1_Q70 22

Array Index Correlation

Correlator_Counts_12

1

2

1_1-3

1_0-3

3

4

5

I48_1

I48_I24

I48_I23

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

35

36

37

38

31

32

33

34

27

28

29

30

23

24

25

26

43

44

45

46

39

40

41

42

10

11

12

8

9

6

7

© DEIMOS Engenharia S.A.

I1_Q61

I1_Q60

I1_Q59

I1_Q58

I1_Q57

I1_Q56

I1_Q55

I1_Q54

I1_Q69

I1_Q68

I1_Q67

I1_Q66

I1_Q65

I1_Q64

I1_Q63

I1_Q62

I1_Q53

I1_Q52

I1_Q51

I1_Q50

I1_Q49

0_1-2

0_Q72

0_Q71

I48_I22

I48_I21

I48_I20

I48_I19

I48_I18

I48_I17

I48_I16

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

Page :

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59

60

61

62

55

56

57

58

51

52

53

54

47

48

49

50

67

68

69

63

64

65

66

0_Q62

0_Q61

0_Q60

0_Q59

0_Q58

0_Q57

0_Q56

0_Q55

0_Q70

0_Q69

0_Q68

0_Q67

0_Q66

0_Q65

0_Q64

0_Q63

0_Q54

0_Q53

0_Q52

0_Q51

0_Q50

0_Q49

0_0-2

17

18

19

13

14

15

16

I48_I15

I48_I14

I48_I13

I48_I12

I48_I11

I48_I10

I48_I9

DME-DQS-QRE0609-SUM-10-E

48

49

50

51

44

45

46

47

40

41

42

43

36

37

38

39

32

33

34

35

28

29

30

31

24

25

26

27

20

21

22

23

I47_I10

I47_I9

I47_I8

I47_I7

I47_I6

I47_I5

I47_I4

I47_I3

I47_I18

I47_I17

I47_I16

I47_I15

I47_I14

I47_I13

I47_I12

I47_I11

I48_0

I47_1

I47_I24

I47_I23

I47_I22

I47_I21

I47_I20

I47_I19

I48_I8

I48_I7

I48_I6

I48_I5

I48_I4

I48_I3

I48_I2

I48_I1

S o

S

f f t

M

t w

O

a

S

r e

D a

U s

t

s

a

e r r

V

s

i i e

M

w

a

e

n

r

u a l l

80

81

82

83

76

77

78

79

72

73

74

75

68

69

70

71

64

65

66

67

60

61

62

63

56

57

58

59

52

53

54

55

© DEIMOS Engenharia S.A.

I46_I4

I46_I3

I46_I2

I46_I1

I46_0

I45_1

I45_I24

I45_I23

I46_I12

I46_I11

I46_I10

I46_I9

I46_I8

I46_I7

I46_I6

I46_I5

I46_I20

I46_I19

I46_I18

I46_I17

I46_I16

I46_I15

I46_I14

I46_I13

I47_I2

I47_I1

I47_0

I46_1

I46_I24

I46_I23

I46_I22

I46_I21

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

Page :

2.11

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112

113

114

115

108

109

110

111

104

105

106

107

100

101

102

103

96

97

98

99

92

93

94

95

88

89

90

91

84

85

86

87

I44_I24

I44_I23

I44_I22

I44_I21

I44_I20

I44_I19

I44_I18

I44_I17

I45_I6

I45_I5

I45_I4

I45_I3

I45_I2

I45_I1

I45_0

I44_1

I45_I14

I45_I13

I45_I12

I45_I11

I45_I10

I45_I9

I45_I8

I45_I7

I45_I22

I45_I21

I45_I20

I45_I19

I45_I18

I45_I17

I45_I16

I45_I15

DME-DQS-QRE0609-SUM-10-E

124

125

126

127

128

129

130

120

121

122

123

116

117

118

119

11

12

13

14

7

8

9

10

Array Index Correlation

Correlator_Counts_13

1

2

I42_I24

I42_I23

5

6

3

4

I42_I22

I42_I21

I42_I20

I42_I19

I42_I18

I42_I17

I42_I16

I42_I15

I42_I14

I42_I13

I42_I12

I42_I11

I44_I8

I44_I7

I44_I6

I44_I5

I44_I4

I44_I3

I44_I2

I44_I16

I44_I15

I44_I14

I44_I13

I44_I12

I44_I11

I44_I10

I44_I9

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

27

28

29

30

23

24

25

26

19

20

21

22

15

16

17

18

139

140

141

142

143

144

145

135

136

137

138

131

132

133

134

© DEIMOS Engenharia S.A.

I42_I2

I42_I1

I42_0

I41_1

I41_I24

I41_I23

I41_I22

I41_I21

I42_I10

I42_I9

I42_I8

I42_I7

I42_I6

I42_I5

I42_I4

I42_I3

I43_I19

I43_I18

I43_I17

I43_I16

I43_I15

I43_I14

I43_I13

I44_I1

I44_0

I43_1

I43_I24

I43_I23

I43_I22

I43_I21

I43_I20

43

44

45

46

39

40

41

42

35

36

37

38

31

32

33

34

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

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155

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157

158

159

150

151

152

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146

147

148

149

I43_I4

I43_I3

I43_I2

I43_I1

I43_0

I42_1

I43_I12

I43_I11

I43_I10

I43_I9

I43_I8

I43_I7

I43_I6

I43_I5

I41_I12

I41_I11

I41_I10

I41_I9

I41_I8

I41_I7

I41_I6

I41_I5

I41_I20

I41_I19

I41_I18

I41_I17

I41_I16

I41_I15

I41_I14

I41_I13

DME-DQS-QRE0609-SUM-10-E

75

76

77

78

71

72

73

74

67

68

69

70

63

64

65

66

59

60

61

62

55

56

57

58

51

52

53

54

47

48

49

50

I40_I6

I40_I5

I40_I4

I40_I3

I40_I2

I40_I1

I40_0

I39_1

I40_I14

I40_I13

I40_I12

I40_I11

I40_I10

I40_I9

I40_I8

I40_I7

I40_I22

I40_I21

I40_I20

I40_I19

I40_I18

I40_I17

I40_I16

I40_I15

I41_I4

I41_I3

I41_I2

I41_I1

I41_0

I40_1

I40_I24

I40_I23

S o

S

f f t

M

t w

O

a

S

r e

D a

U s

t

s

a

e r r

V

s

i i e

M

w

a

e

n

r

u a l l

107

108

109

110

103

104

105

106

99

100

101

102

95

96

97

98

91

92

93

94

87

88

89

90

83

84

85

86

79

80

81

82

© DEIMOS Engenharia S.A.

I39_0

I38_1

I38_I24

I38_I23

I38_I22

I38_I21

I38_I20

I38_I19

I39_I8

I39_I7

I39_I6

I39_I5

I39_I4

I39_I3

I39_I2

I39_I1

I39_I16

I39_I15

I39_I14

I39_I13

I39_I12

I39_I11

I39_I10

I39_I9

I39_I24

I39_I23

I39_I22

I39_I21

I39_I20

I39_I19

I39_I18

I39_I17

Code :

SDV-DME-TEC-SUM01-E-R

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Date :

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127

128

129

130

123

124

125

126

119

120

121

122

115

116

117

118

111

112

113

114

I37_I20

I37_I19

I37_I18

I37_I17

I37_I16

I37_I15

I37_I14

I37_I13

I38_I2

I38_I1

I38_0

I37_1

I37_I24

I37_I23

I37_I22

I37_I21

I38_I10

I38_I9

I38_I8

I38_I7

I38_I6

I38_I5

I38_I4

I38_I3

I38_I18

I38_I17

I38_I16

I38_I15

I38_I14

I38_I13

I38_I12

I38_I11

DME-DQS-QRE0609-SUM-10-E

I36_I22

I36_I21

I36_I20

I36_I19

I36_I18

I36_I17

I36_I16

I36_I15

I36_I14

I36_I13

I36_I12

I36_I11

I36_I10

I36_I9

I37_I4

I37_I3

I37_I2

I37_I1

I37_0

I36_1

I36_I24

I36_I23

I37_I12

I37_I11

I37_I10

I37_I9

I37_I8

I37_I7

I37_I6

I37_I5

167

168

169

170

171

172

163

164

165

166

159

160

161

162

155

156

157

158

151

152

153

154

147

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185

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183

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177

178

179

180

173

174

175

176

I35_I18

I35_I17

I35_I16

I35_I15

I35_I14

I35_I13

I35_I12

I35_I11

I35_I10

I35_I9

I35_I8

I35_I7

I35_I6

I35_I5

I36_0

I35_1

I35_I24

I35_I23

I35_I22

I35_I21

I35_I20

I35_I19

I36_I8

I36_I7

I36_I6

I36_I5

I36_I4

I36_I3

I36_I2

I36_I1

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207

208

209

210

203

204

205

206

I34_I14

I34_I13

I34_I12

I34_I11

I34_I10

I34_I9

I34_I8

I34_I7

I34_I6

I34_I5

I34_I4

I34_I3

I34_I2

I34_I22

I34_I21

I34_I20

I34_I19

I34_I18

I34_I17

I34_I16

I34_I15

I35_I4

I35_I3

I35_I2

I35_I1

I35_0

I34_1

I34_I24

I34_I23

DME-DQS-QRE0609-SUM-10-E

27

28

29

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23

24

25

26

19

20

21

22

15

16

17

18

11

12

13

14

7

8

9

10

Array Index Correlation

Correlator_Counts_14

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2

I34_I1

I34_0

5

6

3

4

I33_1

I33_I24

I33_I23

I33_I22

I33_I21

I33_I20

I33_I19

I33_I18

I33_I17

I33_I16

I33_I15

I33_I14

I33_I5

I33_I4

I33_I3

I33_I2

I33_I1

I33_0

I32_1

I32_I24

I33_I13

I33_I12

I33_I11

I33_I10

I33_I9

I33_I8

I33_I7

I33_I6

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

59

60

61

62

55

56

57

58

51

52

53

54

47

48

49

50

43

44

45

46

39

40

41

42

35

36

37

38

31

32

33

34

© DEIMOS Engenharia S.A.

I31_1

I31_I24

I31_I23

I31_I22

I31_I21

I31_I20

I31_I19

I31_I18

I32_I7

I32_I6

I32_I5

I32_I4

I32_I3

I32_I2

I32_I1

I32_0

I32_I15

I32_I14

I32_I13

I32_I12

I32_I11

I32_I10

I32_I9

I32_I8

I32_I23

I32_I22

I32_I21

I32_I20

I32_I19

I32_I18

I32_I17

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79

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81

82

75

76

77

78

71

72

73

74

67

68

69

70

63

64

65

66

I30_I19

I30_I18

I30_I17

I30_I16

I30_I15

I30_I14

I30_I13

I30_I12

I31_I1

I31_0

I30_1

I30_I24

I30_I23

I30_I22

I30_I21

I30_I20

I31_I9

I31_I8

I31_I7

I31_I6

I31_I5

I31_I4

I31_I3

I31_I2

I31_I17

I31_I16

I31_I15

I31_I14

I31_I13

I31_I12

I31_I11

I31_I10

DME-DQS-QRE0609-SUM-10-E

123

124

125

126

119

120

121

122

115

116

117

118

111

112

113

114

107

108

109

110

103

104

105

106

99

100

101

102

95

96

97

98

I29_I13

I29_I12

I29_I11

I29_I10

I29_I9

I29_I8

I29_I7

I29_I6

I29_I21

I29_I20

I29_I19

I29_I18

I29_I17

I29_I16

I29_I15

I29_I14

I30_I3

I30_I2

I30_I1

I30_0

I29_1

I29_I24

I29_I23

I29_I22

I30_I11

I30_I10

I30_I9

I30_I8

I30_I7

I30_I6

I30_I5

I30_I4

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155

156

157

158

151

152

153

154

147

148

149

150

143

144

145

146

139

140

141

142

135

136

137

138

131

132

133

134

127

128

129

130

© DEIMOS Engenharia S.A.

I28_I7

I28_I6

I28_I5

I28_I4

I28_I3

I28_I2

I28_I1

I28_0

I28_I15

I28_I14

I28_I13

I28_I12

I28_I11

I28_I10

I28_I9

I28_I8

I28_I23

I28_I22

I28_I21

I28_I20

I28_I19

I28_I18

I28_I17

I28_I16

I29_I5

I29_I4

I29_I3

I29_I2

I29_I1

I29_0

I28_1

I28_I24

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177

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171

172

173

174

167

168

169

170

163

164

165

166

159

160

161

162

I27_I1

I27_0

I26_1

I26_I24

I26_I23

I26_I22

I26_I21

I26_I20

I27_I9

I27_I8

I27_I7

I27_I6

I27_I5

I27_I4

I27_I3

I27_I2

I27_I17

I27_I16

I27_I15

I27_I14

I27_I13

I27_I12

I27_I11

I27_I10

I27_1

I27_I24

I27_I23

I27_I22

I27_I21

I27_I20

I27_I19

I27_I18

DME-DQS-QRE0609-SUM-10-E

199

200

201

202

203

204

205

195

196

197

198

191

192

193

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Array Index Correlation

Correlator_Counts_15

1

2

I25_I4

I25_I3

5

6

3

4

7

I25_I2

I25_I1

I25_0

0_1-3

0_0-3

I26_I11

I26_I10

I26_I9

I26_I8

I26_I7

I26_I6

I26_I5

I26_I19

I26_I18

I26_I17

I26_I16

I26_I15

I26_I14

I26_I13

I26_I12

Array Index Correlation

Correlator_Counts_16

1 1_1-4

2

3

4

1_0-4

I48_Q48

I48_I47

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S o f f t t w a r e U s s e r r

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217

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210

211

212

213

206

207

208

209

I25_I22

I25_I21

I25_I20

I25_I19

I25_I18

I25_I17

I25_I16

I26_I4

I26_I3

I26_I2

I26_I1

I26_0

I25_1

I25_I24

I25_I23

7

8

5

6

9

10

I48_I46

I48_I45

I48_I44

I48_I43

I48_I42

I48_I41

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223

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I25_I15

I25_I14

I25_I13

I25_I12

I25_I11

I25_I10

I25_I9

I25_I8

I25_I7

I25_I6

I25_I5

11

12

13

14

15

16

I48_I40

I48_I39

I48_I38

I48_I37

I48_I36

I48_I35

DME-DQS-QRE0609-SUM-10-E

45

46

47

48

41

42

43

44

37

38

39

40

33

34

35

36

29

30

31

32

25

26

27

28

21

22

23

24

17

18

19

20

I47_I34

I47_I33

I47_I32

I47_I31

I47_I30

I47_I29

I47_I28

I47_I27

I47_I42

I47_I41

I47_I40

I47_I39

I47_I38

I47_I37

I47_I36

I47_I35

I48_I26

I48_I25

I47_Q48

I47_Q47

I47_I46

I47_I45

I47_I44

I47_I43

I48_I34

I48_I33

I48_I32

I48_I31

I48_I30

I48_I29

I48_I28

I48_I27

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77

78

79

80

73

74

75

76

69

70

71

72

65

66

67

68

61

62

63

64

57

58

59

60

53

54

55

56

49

50

51

52

© DEIMOS Engenharia S.A.

I46_I26

I46_I25

I45_Q48

I45_Q47

I45_Q46

I45_Q45

I45_I44

I45_I43

I46_I34

I46_I33

I46_I32

I46_I31

I46_I30

I46_I29

I46_I28

I46_I27

I46_I42

I46_I41

I46_I40

I46_I39

I46_I38

I46_I37

I46_I36

I46_I35

I47_I26

I47_I25

I46_Q48

I46_Q47

I46_Q46

I46_I45

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100

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89

90

91

92

85

86

87

88

81

82

83

84

I44_I42

I44_I41

I44_I40

I44_I39

I44_I38

I44_I37

I44_I36

I44_I35

I45_I26

I45_I25

I44_Q48

I44_Q47

I44_Q46

I44_Q45

I44_Q44

I44_I43

I45_I34

I45_I33

I45_I32

I45_I31

I45_I30

I45_I29

I45_I28

I45_I27

I45_I42

I45_I41

I45_I40

I45_I39

I45_I38

I45_I37

I45_I36

I45_I35

DME-DQS-QRE0609-SUM-10-E

141

142

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137

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140

133

134

135

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129

130

131

132

125

126

127

128

121

122

123

124

117

118

119

120

113

114

115

116

I43_I34

I43_I33

I43_I32

I43_I31

I43_I30

I43_I29

I43_I28

I43_I27

I43_I42

I43_I41

I43_I40

I43_I39

I43_I38

I43_I37

I43_I36

I43_I35

I44_I26

I44_I25

I43_Q48

I43_Q47

I43_Q46

I43_Q45

I43_Q44

I43_Q43

I44_I34

I44_I33

I44_I32

I44_I31

I44_I30

I44_I29

I44_I28

I44_I27

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173

174

175

176

169

170

171

172

165

166

167

168

161

162

163

164

157

158

159

160

153

154

155

156

149

150

151

152

145

146

147

148

© DEIMOS Engenharia S.A.

I42_I26

I42_I25

I41_Q48

I41_Q47

I41_Q46

I41_Q45

I41_Q44

I41_Q43

I42_I34

I42_I33

I42_I32

I42_I31

I42_I30

I42_I29

I42_I28

I42_I27

I42_Q42

I42_I41

I42_I40

I42_I39

I42_I38

I42_I37

I42_I36

I42_I35

I43_I26

I43_I25

I42_Q48

I42_Q47

I42_Q46

I42_Q45

I42_Q44

I42_Q43

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199

200

193

194

195

196

189

190

191

192

185

186

187

188

181

182

183

184

177

178

179

180

I40_Q42

I40_Q41

I40_Q40

I40_I39

I40_I38

I40_I37

I40_I36

I40_I35

I41_I26

I41_I25

I40_Q48

I40_Q47

I40_Q46

I40_Q45

I40_Q44

I40_Q43

I41_I34

I41_I33

I41_I32

I41_I31

I41_I30

I41_I29

I41_I28

I41_I27

I41_Q42

I41_Q41

I41_I40

I41_I39

I41_I38

I41_I37

I41_I36

I41_I35

DME-DQS-QRE0609-SUM-10-E

209

210

211

212

213

I40_I34

I40_I33

I40_I32

I40_I31

I40_I30

19

20

21

22

15

16

17

18

23

24

11

12

13

14

7

8

9

10

Array Index Correlation

Correlator_Counts_17

1

2

I39_Q45

I39_Q44

5

6

3

4

I39_Q43

I39_Q42

I39_Q41

I39_Q40

I39_Q39

I39_I38

I39_I37

I39_I36

I39_I35

I39_I34

I39_I33

I39_I32

I39_I31

I39_I30

I39_I29

I39_I28

I39_I27

I39_I26

I39_I25

I38_Q48

I38_Q47

I38_Q46

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

214

215

216

217

218

I40_I29

I40_I28

I40_I27

I40_I26

I40_I25

I38_I37

I38_I36

I38_I35

I38_I34

I38_I33

I38_I32

I38_I31

I38_I30

I38_Q45

I38_Q44

I38_Q43

I38_Q42

I38_Q41

I38_Q40

I38_Q39

I38_Q38

I38_I29

I38_I28

I38_I27

I38_I26

I38_I25

I37_Q48

I37_Q47

I37_Q46

I37_Q45

I37_Q44

37

38

39

40

33

34

35

36

29

30

31

32

25

26

27

28

45

46

47

48

41

42

43

44

49

50

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I39_Q48

I39_Q47

I39_Q46

63

64

65

66

59

60

61

62

55

56

57

58

51

52

53

54

71

72

73

74

67

68

69

70

75

76

I37_I35

I37_I34

I37_I33

I37_I32

I37_I31

I37_I30

I37_I29

I37_I28

I37_Q43

I37_Q42

I37_Q41

I37_Q40

I37_Q39

I37_Q38

I37_Q37

I37_I36

I37_I27

I37_I26

I37_I25

I36_Q48

I36_Q47

I36_Q46

I36_Q45

I36_Q44

I36_Q43

I36_Q42

DME-DQS-QRE0609-SUM-10-E

105

106

107

108

101

102

103

104

97

98

99

100

93

94

95

96

89

90

91

92

85

86

87

88

81

82

83

84

77

78

79

80

I35_Q41

I35_Q40

I35_Q39

I35_Q38

I35_Q37

I35_Q36

I35_Q35

I35_I34

I36_I25

I35_Q48

I35_Q47

I35_Q46

I35_Q45

I35_Q44

I35_Q43

I35_Q42

I36_I33

I36_I32

I36_I31

I36_I30

I36_I29

I36_I28

I36_I27

I36_I26

I36_Q41

I36_Q40

I36_Q39

I36_Q38

I36_Q37

I36_Q36

I36_I35

I36_I34

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137

138

139

140

133

134

135

136

129

130

131

132

125

126

127

128

121

122

123

124

117

118

119

120

113

114

115

116

109

110

111

112

© DEIMOS Engenharia S.A.

I34_I33

I34_I32

I34_I31

I34_I30

I34_I29

I34_I28

I34_I27

I34_I26

I34_Q41

I34_Q40

I34_Q39

I34_Q38

I34_Q37

I34_Q36

I34_Q35

I34_Q34

I35_I25

I34_Q48

I34_Q47

I34_Q46

I34_Q45

I34_Q44

I34_Q43

I34_Q42

I35_I33

I35_I32

I35_I31

I35_I30

I35_I29

I35_I28

I35_I27

I35_I26

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

Page :

2.11

26/02/2015

140 of 170

169

170

171

172

165

166

167

168

161

162

163

164

157

158

159

160

153

154

155

156

149

150

151

152

145

146

147

148

141

142

143

144

I33_I25

I32_Q48

I32_Q47

I32_Q46

I32_Q45

I32_Q44

I32_Q43

I32_Q42

I33_Q33

I33_I32

I33_I31

I33_I30

I33_I29

I33_I28

I33_I27

I33_I26

I33_Q41

I33_Q40

I33_Q39

I33_Q38

I33_Q37

I33_Q36

I33_Q35

I33_Q34

I34_I25

I33_Q48

I33_Q47

I33_Q46

I33_Q45

I33_Q44

I33_Q43

I33_Q42

DME-DQS-QRE0609-SUM-10-E

185

186

187

188

181

182

183

184

189

190

191

192

177

178

179

180

173

174

175

176

Array Index Correlation

Correlator_Counts_18

1

2

I30_Q30

I30_I29

5

6

3

4

I30_I28

I30_I27

I30_I26

I30_I25

7

8

9

I29_Q48

I29_Q47

I29_Q46

I32_Q33

I32_Q32

I32_I31

I32_I30

I32_I29

I32_I28

I32_I27

I32_I26

I32_Q41

I32_Q40

I32_Q39

I32_Q38

I32_Q37

I32_Q36

I32_Q35

I32_Q34

I32_I25

I31_Q48

I31_Q47

I31_Q46

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

14

15

16

17

10

11

12

13

18

19

20

I29_Q45

I29_Q44

I29_Q43

I29_Q42

I29_Q41

I29_Q40

I29_Q39

I29_Q38

I29_Q37

I29_Q36

I29_Q35

I31_Q37

I31_Q36

I31_Q35

I31_Q34

I31_Q33

I31_Q32

I31_Q31

I31_I30

I31_Q45

I31_Q44

I31_Q43

I31_Q42

I31_Q41

I31_Q40

I31_Q39

I31_Q38

I31_I29

I31_I28

I31_I27

I31_I26

205

206

207

208

201

202

203

204

209

210

211

212

197

198

199

200

193

194

195

196

© DEIMOS Engenharia S.A.

25

26

27

28

21

22

23

24

29

30

31

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

Page :

2.11

26/02/2015

141 of 170

225

226

227

228

221

222

223

224

217

218

219

220

213

214

215

216

229

230

231

I30_Q41

I30_Q40

I30_Q39

I30_Q38

I30_Q37

I30_Q36

I30_Q35

I30_Q34

I31_I25

I30_Q48

I30_Q47

I30_Q46

I30_Q45

I30_Q44

I30_Q43

I30_Q42

I30_Q33

I30_Q32

I30_Q31

I29_Q34

I29_Q33

I29_Q32

I29_Q31

I29_Q30

I29_Q29

I29_I28

I29_I27

I29_I26

I29_I25

I28_Q48

DME-DQS-QRE0609-SUM-10-E

60

61

62

63

56

57

58

59

52

53

54

55

48

49

50

51

44

45

46

47

40

41

42

43

36

37

38

39

32

33

34

35

I27_Q47

I27_Q46

I27_Q45

I27_Q44

I27_Q43

I27_Q42

I27_Q41

I27_Q40

I28_Q31

I28_Q30

I28_Q29

I28_Q28

I28_I27

I28_I26

I28_I25

I27_Q48

I28_Q39

I28_Q38

I28_Q37

I28_Q36

I28_Q35

I28_Q34

I28_Q33

I28_Q32

I28_Q47

I28_Q46

I28_Q45

I28_Q44

I28_Q43

I28_Q42

I28_Q41

I28_Q40

S o

S

f f t

M

t w

O

a

S

r e

D a

U s

t

s

a

e r r

V

s

i i e

M

w

a

e

n

r

u a l l

92

93

94

95

88

89

90

91

84

85

86

87

80

81

82

83

76

77

78

79

72

73

74

75

68

69

70

71

64

65

66

67

© DEIMOS Engenharia S.A.

I26_Q39

I26_Q38

I26_Q37

I26_Q36

I26_Q35

I26_Q34

I26_Q33

I26_Q32

I26_Q47

I26_Q46

I26_Q45

I26_Q44

I26_Q43

I26_Q42

I26_Q41

I26_Q40

I27_Q31

I27_Q30

I27_Q29

I27_Q28

I27_Q27

I27_I26

I27_I25

I26_Q48

I27_Q39

I27_Q38

I27_Q37

I27_Q36

I27_Q35

I27_Q34

I27_Q33

I27_Q32

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

Page :

2.11

26/02/2015

142 of 170

124

125

126

127

120

121

122

123

116

117

118

119

112

113

114

115

108

109

110

111

104

105

106

107

100

101

102

103

96

97

98

99

I25_Q31

I25_Q30

I25_Q29

I25_Q28

I25_Q27

I25_Q26

I25_Q25

0_1-4

I25_Q39

I25_Q38

I25_Q37

I25_Q36

I25_Q35

I25_Q34

I25_Q33

I25_Q32

I25_Q47

I25_Q46

I25_Q45

I25_Q44

I25_Q43

I25_Q42

I25_Q41

I25_Q40

I26_Q31

I26_Q30

I26_Q29

I26_Q28

I26_Q27

I26_Q26

I26_I25

I25_Q48

DME-DQS-QRE0609-SUM-10-E

128 0_0-4

23

24

25

26

27

28

19

20

21

22

15

16

17

18

11

12

13

14

7

8

9

10

Array Index Correlation

Correlator_Counts_19

1

2

1_1-5

1_0-5

5

6

3

4

I48_Q72

I48_Q71

I48_Q70

I48_Q69

I48_Q68

I48_Q67

I48_Q66

I48_Q65

I48_Q64

I48_Q63

I48_Q62

I48_Q61

I48_Q60

I48_Q59

I48_Q58

I48_Q57

I48_Q56

I48_Q55

I48_Q54

I48_Q53

I48_Q52

I48_Q51

I48_Q50

I48_Q49

I47_Q72

I47_Q71

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

I47_Q54

I47_Q53

I47_Q52

I47_Q51

I47_Q50

I47_Q49

I46_Q72

I46_Q71

I46_Q70

I46_Q69

I46_Q68

I46_Q67

I46_Q66

I46_Q65

I47_Q62

I47_Q61

I47_Q60

I47_Q59

I47_Q58

I47_Q57

I47_Q56

I47_Q55

I47_Q70

I47_Q69

I47_Q68

I47_Q67

I47_Q66

I47_Q65

I47_Q64

I47_Q63

53

54

55

56

57

58

49

50

51

52

45

46

47

48

41

42

43

44

37

38

39

40

33

34

35

36

29

30

31

32

© DEIMOS Engenharia S.A.

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

Page :

2.11

26/02/2015

143 of 170

83

84

85

86

87

88

79

80

81

82

75

76

77

78

71

72

73

74

67

68

69

70

63

64

65

66

59

60

61

62

I45_Q72

I45_Q71

I45_Q70

I45_Q69

I45_Q68

I45_Q67

I45_Q66

I45_Q65

I45_Q64

I45_Q63

I45_Q62

I45_Q61

I45_Q60

I45_Q59

I46_Q56

I46_Q55

I46_Q54

I46_Q53

I46_Q52

I46_Q51

I46_Q50

I46_Q49

I46_Q64

I46_Q63

I46_Q62

I46_Q61

I46_Q60

I46_Q59

I46_Q58

I46_Q57

DME-DQS-QRE0609-SUM-10-E

89

90

91

92

I45_Q58

I45_Q57

I45_Q56

I45_Q55

19

20

21

22

15

16

17

18

23

24

25

11

12

13

14

7

8

9

10

Array Index Correlation

Correlator_Counts_20

1

2

I44_Q70

I44_Q69

5

6

3

4

I44_Q68

I44_Q67

I44_Q66

I44_Q65

I44_Q64

I44_Q63

I44_Q62

I44_Q61

I44_Q60

I44_Q59

I44_Q58

I44_Q57

I44_Q56

I44_Q55

I44_Q54

I44_Q53

I44_Q52

I44_Q51

I44_Q50

I44_Q49

I43_Q72

I43_Q71

I43_Q70

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

93

94

95

96

I45_Q54

I45_Q53

I45_Q52

I45_Q51

I43_Q53

I43_Q52

I43_Q51

I43_Q50

I43_Q49

I42_Q72

I42_Q71

I42_Q70

I42_Q69

I42_Q68

I42_Q67

I43_Q61

I43_Q60

I43_Q59

I43_Q58

I43_Q57

I43_Q56

I43_Q55

I43_Q54

I43_Q69

I43_Q68

I43_Q67

I43_Q66

I43_Q65

I43_Q64

I43_Q63

I43_Q62

46

47

48

49

42

43

44

45

50

51

52

38

39

40

41

34

35

36

37

30

31

32

33

26

27

28

29

© DEIMOS Engenharia S.A.

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

Page :

2.11

26/02/2015

144 of 170

73

74

75

76

69

70

71

72

77

78

79

65

66

67

68

61

62

63

64

57

58

59

60

53

54

55

56

97

98

99

100

I45_Q50

I45_Q49

I44_Q72

I44_Q71

I42_Q50

I42_Q49

I41_Q72

I41_Q71

I41_Q70

I41_Q69

I41_Q68

I41_Q67

I41_Q66

I41_Q65

I41_Q64

I42_Q58

I42_Q57

I42_Q56

I42_Q55

I42_Q54

I42_Q53

I42_Q52

I42_Q51

I42_Q66

I42_Q65

I42_Q64

I42_Q63

I42_Q62

I42_Q61

I42_Q60

I42_Q59

DME-DQS-QRE0609-SUM-10-E

108

109

110

111

104

105

106

107

100

101

102

103

96

97

98

99

92

93

94

95

88

89

90

91

84

85

86

87

80

81

82

83

I40_Q63

I40_Q62

I40_Q61

I40_Q60

I40_Q59

I40_Q58

I40_Q57

I40_Q56

I40_Q71

I40_Q70

I40_Q69

I40_Q68

I40_Q67

I40_Q66

I40_Q65

I40_Q64

I41_Q55

I41_Q54

I41_Q53

I41_Q52

I41_Q51

I41_Q50

I41_Q49

I40_Q72

I41_Q63

I41_Q62

I41_Q61

I41_Q60

I41_Q59

I41_Q58

I41_Q57

I41_Q56

S o

S

f f t

M

t w

O

a

S

r e

D a

U s

t

s

a

e r r

V

s

i i e

M

w

a

e

n

r

u a l l

140

141

142

143

136

137

138

139

132

133

134

135

128

129

130

131

124

125

126

127

120

121

122

123

116

117

118

119

112

113

114

115

© DEIMOS Engenharia S.A.

I39_Q55

I39_Q54

I39_Q53

I39_Q52

I39_Q51

I39_Q50

I39_Q49

I38_Q72

I39_Q63

I39_Q62

I39_Q61

I39_Q60

I39_Q59

I39_Q58

I39_Q57

I39_Q56

I39_Q71

I39_Q70

I39_Q69

I39_Q68

I39_Q67

I39_Q66

I39_Q65

I39_Q64

I40_Q55

I40_Q54

I40_Q53

I40_Q52

I40_Q51

I40_Q50

I40_Q49

I39_Q72

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

Page :

2.11

26/02/2015

145 of 170

172

173

174

175

168

169

170

171

164

165

166

167

160

161

162

163

156

157

158

159

152

153

154

155

148

149

150

151

144

145

146

147

I37_Q71

I37_Q70

I37_Q69

I37_Q68

I37_Q67

I37_Q66

I37_Q65

I37_Q64

I38_Q55

I38_Q54

I38_Q53

I38_Q52

I38_Q51

I38_Q50

I38_Q49

I37_Q72

I38_Q63

I38_Q62

I38_Q61

I38_Q60

I38_Q59

I38_Q58

I38_Q57

I38_Q56

I38_Q71

I38_Q70

I38_Q69

I38_Q68

I38_Q67

I38_Q66

I38_Q65

I38_Q64

DME-DQS-QRE0609-SUM-10-E

188

189

190

191

184

185

186

187

180

181

182

183

176

177

178

179

192

193

194

Array Index Correlation

Correlator_Counts_21

1

2

I35_Q55

I35_Q54

5

6

3

4

I35_Q53

I35_Q52

I35_Q51

I35_Q50

7

8

9

10

I35_Q49

I34_Q72

I34_Q71

I34_Q70

I37_Q55

I37_Q54

I37_Q53

I37_Q52

I37_Q51

I37_Q50

I37_Q49

I36_Q72

I37_Q63

I37_Q62

I37_Q61

I37_Q60

I37_Q59

I37_Q58

I37_Q57

I37_Q56

I36_Q71

I36_Q70

I36_Q69

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

15

16

17

18

11

12

13

14

19

20

21

22

I34_Q69

I34_Q68

I34_Q67

I34_Q66

I34_Q65

I34_Q64

I34_Q63

I34_Q62

I34_Q61

I34_Q60

I34_Q59

I34_Q58

I36_Q60

I36_Q59

I36_Q58

I36_Q57

I36_Q56

I36_Q55

I36_Q54

I36_Q53

I36_Q68

I36_Q67

I36_Q66

I36_Q65

I36_Q64

I36_Q63

I36_Q62

I36_Q61

I36_Q52

I36_Q51

I36_Q50

207

208

209

210

203

204

205

206

199

200

201

202

195

196

197

198

211

212

213

© DEIMOS Engenharia S.A.

27

28

29

30

23

24

25

26

31

32

33

34

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

Page :

2.11

26/02/2015

146 of 170

226

227

228

229

222

223

224

225

230

231

218

219

220

221

214

215

216

217

I35_Q65

I35_Q64

I35_Q63

I35_Q62

I35_Q61

I35_Q60

I35_Q59

I35_Q58

I35_Q57

I35_Q56

I36_Q49

I35_Q72

I35_Q71

I35_Q70

I35_Q69

I35_Q68

I35_Q67

I35_Q66

I34_Q57

I34_Q56

I34_Q55

I34_Q54

I34_Q53

I34_Q52

I34_Q51

I34_Q50

I34_Q49

I33_Q72

I33_Q71

I33_Q70

DME-DQS-QRE0609-SUM-10-E

63

64

65

66

59

60

61

62

55

56

57

58

51

52

53

54

47

48

49

50

43

44

45

46

39

40

41

42

35

36

37

38

I32_Q69

I32_Q68

I32_Q67

I32_Q66

I32_Q65

I32_Q64

I32_Q63

I32_Q62

I33_Q53

I33_Q52

I33_Q51

I33_Q50

I33_Q49

I32_Q72

I32_Q71

I32_Q70

I33_Q61

I33_Q60

I33_Q59

I33_Q58

I33_Q57

I33_Q56

I33_Q55

I33_Q54

I33_Q69

I33_Q68

I33_Q67

I33_Q66

I33_Q65

I33_Q64

I33_Q63

I33_Q62

S o

S

f f t

M

t w

O

a

S

r e

D a

U s

t

s

a

e r r

V

s

i i e

M

w

a

e

n

r

u a l l

95

96

97

98

91

92

93

94

87

88

89

90

83

84

85

86

79

80

81

82

75

76

77

78

71

72

73

74

67

68

69

70

© DEIMOS Engenharia S.A.

I31_Q61

I31_Q60

I31_Q59

I31_Q58

I31_Q57

I31_Q56

I31_Q55

I31_Q54

I31_Q69

I31_Q68

I31_Q67

I31_Q66

I31_Q65

I31_Q64

I31_Q63

I31_Q62

I32_Q53

I32_Q52

I32_Q51

I32_Q50

I32_Q49

I31_Q72

I31_Q71

I31_Q70

I32_Q61

I32_Q60

I32_Q59

I32_Q58

I32_Q57

I32_Q56

I32_Q55

I32_Q54

Code :

SDV-DME-TEC-SUM01-E-R

Issue :

Date :

Page :

2.11

26/02/2015

147 of 170

127

128

129

130

123

124

125

126

119

120

121

122

115

116

117

118

111

112

113

114

107

108

109

110

103

104

105

106

99

100

101

102

I30_Q53

I30_Q52

I30_Q51

I30_Q50

I30_Q49

I29_Q72

I29_Q71

I29_Q70

I30_Q61

I30_Q60

I30_Q59

I30_Q58

I30_Q57

I30_Q56

I30_Q55

I30_Q54

I30_Q69

I30_Q68

I30_Q67

I30_Q66

I30_Q65

I30_Q64

I30_Q63

I30_Q62

I31_Q53

I31_Q52

I31_Q51

I31_Q50

I31_Q49

I30_Q72

I30_Q71

I30_Q70

DME-DQS-QRE0609-SUM-10-E

159

160

161

162

155

156

157

158

151

152

153

154

147

148

149

150

143

144

145

146

139

140

141

142

135

136

137

138

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I28_Q67

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I29_Q53

I29_Q52

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I28_Q72

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I29_Q61

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I29_Q56

I29_Q55

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I29_Q69

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I27_Q60

I27_Q59

I27_Q58

I27_Q57

I27_Q56

I27_Q55

I27_Q54

I27_Q69

I27_Q68

I27_Q67

I27_Q66

I27_Q65

I27_Q64

I27_Q63

I27_Q62

I28_Q53

I28_Q52

I28_Q51

I28_Q50

I28_Q49

I27_Q72

I27_Q71

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I28_Q59

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I26_Q49

I25_Q72

I25_Q71

I25_Q70

I26_Q61

I26_Q60

I26_Q59

I26_Q58

I26_Q57

I26_Q56

I26_Q55

I26_Q54

I26_Q69

I26_Q68

I26_Q67

I26_Q66

I26_Q65

I26_Q64

I26_Q63

I26_Q62

I27_Q53

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I27_Q51

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I25_Q64

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I25_Q62

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I71_I6

I71_I5

I71_I4

I71_I3

I71_I2

I71_I1

I71_0

I71_I15

I71_I14

I71_I13

I71_I12

I71_I11

I71_I10

I71_I9

I71_I8

I71_I23

I71_I22

I71_I21

I71_I20

I71_I19

I71_I18

I71_I17

I71_I16

I72_I5

I72_I4

I72_I3

I72_I2

I72_I1

I72_0

I71_1

I71_I24

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I70_I8

I70_I7

I70_I6

I70_I5

I70_I4

I70_I3

I70_I2

I70_I17

I70_I16

I70_I15

I70_I14

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I70_I11

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I68_I20

I68_I19

I68_I18

I68_I17

I68_I16

I68_I15

I68_I14

I69_I3

I69_I2

I69_I1

I69_0

I68_1

I68_I24

I68_I23

I68_I22

I69_I11

I69_I10

I69_I9

I69_I8

I69_I7

I69_I6

I69_I5

I69_I4

I69_I19

I69_I18

I69_I17

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I67_I23

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I67_I20

I67_I19

I67_I18

I67_I17

I67_I16

I68_I5

I68_I4

I68_I3

I68_I2

I68_I1

I68_0

I67_1

I67_I24

I68_I13

I68_I12

I68_I11

I68_I10

I68_I9

I68_I8

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I66_I24

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I65_I9

I65_I8

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I65_I21

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I65_I18

I65_I17

I65_I16

I65_I15

I65_I14

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I66_I2

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I64_I12

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I63_1

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I63_I23

I63_I22

I64_I11

I64_I10

I64_I9

I64_I8

I64_I7

I64_I6

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I63_I8

I63_I7

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I61_I15

I61_I14

I61_I13

I61_I12

I61_I11

I61_I10

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I61_I24

I61_I23

I61_I22

I61_I21

I61_I20

I61_I19

I61_I18

I62_I7

I62_I6

I62_I5

I62_I4

I62_I3

I62_I2

I62_I1

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I62_I15

I62_I14

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I59_I8

I59_I7

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I58_I7

I58_I6

I58_I5

I58_I4

I58_I3

I58_I2

I58_I1

I58_0

I58_I15

I58_I14

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I58_I12

I58_I11

I58_I10

I58_I9

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I58_I23

I58_I22

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I57_I17

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I54_1

I55_I14

I55_I13

I55_I12

I55_I11

I55_I10

I55_I9

I55_I8

I55_I7

I56_I20

I56_I19

I56_I18

I56_I17

I56_I16

I56_I15

I56_I14

I57_I2

I57_I1

I57_0

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I56_I24

I56_I23

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I54_I14

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I54_I23

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DME-DQS-QRE0609-SUM-10-E

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I53_I24

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I53_I21

I53_I20

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I52_I4

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I51_I24

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I52_I11

I52_I10

I52_I9

I52_I8

I52_I7

I52_I6

I52_I5

I52_I20

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I52_I18

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I52_I15

I52_I14

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I51_I2

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146

11

12

13

7

8

9

10

Array Index Correlation

Correlator_Counts_26

1

2

1_1-7

1_0-7

5

6

3

4

I72_I48

I72_I47

I72_I46

I72_I45

I72_I44

I72_I43

I72_I42

I72_I41

I72_I40

I72_I39

I72_I38

I50_I8

I50_I7

I50_I6

I50_I5

I50_I4

I50_I3

I50_I2

I50_I16

I50_I15

I50_I14

I50_I13

I50_I12

I50_I11

I50_I10

I50_I9

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

26

27

28

22

23

24

25

18

19

20

21

14

15

16

17

166

167

168

169

170

171

172

162

163

164

165

158

159

160

161

I72_I29

I72_I28

I72_I27

I72_I26

I72_I25

I71_I48

I71_I47

I72_I37

I72_I36

I72_I35

I72_I34

I72_I33

I72_I32

I72_I31

I72_I30

I49_I19

I49_I18

I49_I17

I49_I16

I49_I15

I49_I14

I49_I13

I50_I1

I50_0

I49_1

I49_I24

I49_I23

I49_I22

I49_I21

I49_I20

© DEIMOS Engenharia S.A.

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33

34

35

36

29

30

31

32

37

38

39

40

41

181

182

183

184

185

186

187

177

178

179

180

173

174

175

176

I71_I46

I71_I45

I71_I44

I71_I43

I71_I42

I71_I41

I71_I40

I71_I39

I71_I38

I71_I37

I71_I36

I71_I35

I71_I34

I49_I4

I49_I3

I49_I2

I49_I1

I49_0

0_1-6

0_0-6

I49_I12

I49_I11

I49_I10

I49_I9

I49_I8

I49_I7

I49_I6

I49_I5

DME-DQS-QRE0609-SUM-10-E

27

28

29

30

23

24

25

26

19

20

21

22

15

16

17

18

11

12

13

14

7

8

9

10

Array Index Correlation

Correlator_Counts_27

1

2

I71_I33

I71_I32

5

6

3

4

I71_I31

I71_I30

I71_I29

I71_I28

I71_I27

I71_I26

I71_I25

I70_I48

I70_I47

I70_I46

I70_I45

I70_I44

I70_I35

I70_I34

I70_I33

I70_I32

I70_I31

I70_I30

I70_I29

I70_I28

I70_I43

I70_I42

I70_I41

I70_I40

I70_I39

I70_I38

I70_I37

I70_I36

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

59

60

61

62

55

56

57

58

51

52

53

54

47

48

49

50

43

44

45

46

39

40

41

42

35

36

37

38

31

32

33

34

© DEIMOS Engenharia S.A.

I69_I27

I69_I26

I69_I25

I68_I48

I68_I47

I68_I46

I68_I45

I68_I44

I69_I35

I69_I34

I69_I33

I69_I32

I69_I31

I69_I30

I69_I29

I69_I28

I69_I43

I69_I42

I69_I41

I69_I40

I69_I39

I69_I38

I69_I37

I69_I36

I70_I27

I70_I26

I70_I25

I69_I48

I69_I47

I69_I46

I69_I45

I69_I44

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93

94

87

88

89

90

83

84

85

86

79

80

81

82

75

76

77

78

71

72

73

74

67

68

69

70

63

64

65

66

I67_I43

I67_I42

I67_I41

I67_I40

I67_I39

I67_I38

I67_I37

I67_I36

I68_I27

I68_I26

I68_I25

I67_I48

I67_I47

I67_I46

I67_I45

I67_I44

I68_I35

I68_I34

I68_I33

I68_I32

I68_I31

I68_I30

I68_I29

I68_I28

I68_I43

I68_I42

I68_I41

I68_I40

I68_I39

I68_I38

I68_I37

I68_I36

DME-DQS-QRE0609-SUM-10-E

123

124

125

126

119

120

121

122

115

116

117

118

111

112

113

114

107

108

109

110

103

104

105

106

99

100

101

102

95

96

97

98

I66_I35

I66_I34

I66_I33

I66_I32

I66_I31

I66_I30

I66_I29

I66_I28

I66_I43

I66_I42

I66_I41

I66_I40

I66_I39

I66_I38

I66_I37

I66_I36

I67_I27

I67_I26

I67_I25

I66_I48

I66_I47

I66_I46

I66_I45

I66_I44

I67_I35

I67_I34

I67_I33

I67_I32

I67_I31

I67_I30

I67_I29

I67_I28

S o

S

f f t

M

t w

O

a

S

r e

D a

U s

t

s

a

e r r

V

s

i i e

M

w

a

e

n

r

u a l l

155

156

157

158

151

152

153

154

147

148

149

150

143

144

145

146

139

140

141

142

135

136

137

138

131

132

133

134

127

128

129

130

© DEIMOS Engenharia S.A.

I65_I27

I65_I26

I65_I25

I64_I48

I64_I47

I64_I46

I64_I45

I64_I44

I65_I35

I65_I34

I65_I33

I65_I32

I65_I31

I65_I30

I65_I29

I65_I28

I65_I43

I65_I42

I65_I41

I65_I40

I65_I39

I65_I38

I65_I37

I65_I36

I66_I27

I66_I26

I66_I25

I65_I48

I65_I47

I65_I46

I65_I45

I65_I44

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188

189

190

183

184

185

186

179

180

181

182

175

176

177

178

171

172

173

174

167

168

169

170

163

164

165

166

159

160

161

162

I63_I43

I63_I42

I63_I41

I63_I40

I63_I39

I63_I38

I63_I37

I63_I36

I64_I27

I64_I26

I64_I25

I63_I48

I63_I47

I63_I46

I63_I45

I63_I44

I64_I35

I64_I34

I64_I33

I64_I32

I64_I31

I64_I30

I64_I29

I64_I28

I64_I43

I64_I42

I64_I41

I64_I40

I64_I39

I64_I38

I64_I37

I64_I36

DME-DQS-QRE0609-SUM-10-E

199

200

201

202

203

204

205

195

196

197

198

191

192

193

194

11

12

13

14

7

8

9

10

Array Index Correlation

Correlator_Counts_28

1

2

I61_I42

I61_I41

5

6

3

4

I61_I40

I61_I39

I61_I38

I61_I37

I61_I36

I61_I35

I61_I34

I61_I33

I61_I32

I61_I31

I61_I30

I61_I29

I63_I27

I63_I26

I63_I25

I62_I48

I62_I47

I62_I46

I62_I45

I63_I35

I63_I34

I63_I33

I63_I32

I63_I31

I63_I30

I63_I29

I63_I28

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

27

28

29

30

23

24

25

26

19

20

21

22

15

16

17

18

214

215

216

217

218

219

220

210

211

212

213

206

207

208

209

I60_I44

I60_I43

I60_I42

I60_I41

I60_I40

I60_I39

I60_I38

I60_I37

I61_I28

I61_I27

I61_I26

I61_I25

I60_I48

I60_I47

I60_I46

I60_I45

I62_I36

I62_I35

I62_I34

I62_I33

I62_I32

I62_I31

I62_I30

I62_I44

I62_I43

I62_I42

I62_I41

I62_I40

I62_I39

I62_I38

I62_I37

© DEIMOS Engenharia S.A.

43

44

45

46

39

40

41

42

35

36

37

38

31

32

33

34

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225

226

227

228

221

222

223

224

229

230

231

I62_I29

I62_I28

I62_I27

I62_I26

I62_I25

I61_I48

I61_I47

I61_I46

I61_I45

I61_I44

I61_I43

I60_I28

I60_I27

I60_I26

I60_I25

I59_I48

I59_I47

I59_I46

I59_I45

I60_I36

I60_I35

I60_I34

I60_I33

I60_I32

I60_I31

I60_I30

I60_I29

DME-DQS-QRE0609-SUM-10-E

75

76

77

78

71

72

73

74

67

68

69

70

63

64

65

66

59

60

61

62

55

56

57

58

51

52

53

54

47

48

49

50

I58_I44

I58_I43

I58_I42

I58_I41

I58_I40

I58_I39

I58_I38

I58_I37

I59_I28

I59_I27

I59_I26

I59_I25

I58_I48

I58_I47

I58_I46

I58_I45

I59_I36

I59_I35

I59_I34

I59_I33

I59_I32

I59_I31

I59_I30

I59_I29

I59_I44

I59_I43

I59_I42

I59_I41

I59_I40

I59_I39

I59_I38

I59_I37

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

107

108

109

110

103

104

105

106

99

100

101

102

95

96

97

98

91

92

93

94

87

88

89

90

83

84

85

86

79

80

81

82

© DEIMOS Engenharia S.A.

I57_I36

I57_I35

I57_I34

I57_I33

I57_I32

I57_I31

I57_I30

I57_I29

I57_I44

I57_I43

I57_I42

I57_I41

I57_I40

I57_I39

I57_I38

I57_I37

I58_I28

I58_I27

I58_I26

I58_I25

I57_I48

I57_I47

I57_I46

I57_I45

I58_I36

I58_I35

I58_I34

I58_I33

I58_I32

I58_I31

I58_I30

I58_I29

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140

141

142

135

136

137

138

131

132

133

134

127

128

129

130

123

124

125

126

119

120

121

122

115

116

117

118

111

112

113

114

I56_I28

I56_I27

I56_I26

I56_I25

I55_I48

I55_I47

I55_I46

I55_I45

I56_I36

I56_I35

I56_I34

I56_I33

I56_I32

I56_I31

I56_I30

I56_I29

I56_I44

I56_I43

I56_I42

I56_I41

I56_I40

I56_I39

I56_I38

I56_I37

I57_I28

I57_I27

I57_I26

I57_I25

I56_I48

I56_I47

I56_I46

I56_I45

DME-DQS-QRE0609-SUM-10-E

I55_I28

I55_I27

I55_I26

I55_I25

I54_I48

I54_I47

I54_I46

I54_I45

I54_I44

I54_I43

I54_I42

I54_I41

I54_I40

I54_I39

I55_I36

I55_I35

I55_I34

I55_I33

I55_I32

I55_I31

I55_I30

I55_I29

I55_I44

I55_I43

I55_I42

I55_I41

I55_I40

I55_I39

I55_I38

I55_I37

167

168

169

170

171

172

163

164

165

166

159

160

161

162

155

156

157

158

151

152

153

154

147

148

149

150

143

144

145

146

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

I53_I46

I53_I45

I53_I44

I53_I43

I53_I42

I53_I41

I53_I40

I53_I39

I53_I38

I53_I37

I53_I36

I53_I35

I53_I34

I53_I33

I54_I30

I54_I29

I54_I28

I54_I27

I54_I26

I54_I25

I53_I48

I53_I47

I54_I38

I54_I37

I54_I36

I54_I35

I54_I34

I54_I33

I54_I32

I54_I31

© DEIMOS Engenharia S.A.

197

198

199

200

201

202

193

194

195

196

189

190

191

192

185

186

187

188

181

182

183

184

177

178

179

180

173

174

175

176

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224

225

226

219

220

221

222

227

228

229

230

231

215

216

217

218

211

212

213

214

207

208

209

210

203

204

205

206

I52_I40

I52_I39

I52_I38

I52_I37

I52_I36

I52_I35

I52_I34

I52_I33

I52_I32

I52_I31

I52_I30

I52_I29

I52_I28

I52_I48

I52_I47

I52_I46

I52_I45

I52_I44

I52_I43

I52_I42

I52_I41

I53_I32

I53_I31

I53_I30

I53_I29

I53_I28

I53_I27

I53_I26

I53_I25

DME-DQS-QRE0609-SUM-10-E

19

20

21

22

15

16

17

18

23

24

25

11

12

13

14

7

8

9

10

Array Index Correlation

Correlator_Counts_29

1

2

I52_I27

I52_I26

5

6

3

4

I52_I25

I51_I48

I51_I47

I51_I46

I51_I45

I51_I44

I51_I43

I51_I42

I51_I41

I51_I40

I51_I39

I51_I38

I51_I37

I51_I36

I51_I35

I51_I34

I51_I33

I51_I32

I51_I31

I51_I30

I51_I29

I51_I28

I51_I27

Array Index Correlation

Correlator_Counts_30

1

2

1_1-8

1_0-8

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

5

6

3

4

I50_I34

I50_I33

I50_I32

I50_I31

I50_I30

I50_I29

I50_I28

I50_I27

I50_I26

I50_I25

I49_I48

I50_I42

I50_I41

I50_I40

I50_I39

I50_I38

I50_I37

I50_I36

I50_I35

I51_I26

I51_I25

I50_I48

I50_I47

I50_I46

I50_I45

I50_I44

I50_I43

I72_Q72

I72_I71

I72_I70

I72_I69

46

47

48

49

42

43

44

45

50

51

52

38

39

40

41

34

35

36

37

30

31

32

33

26

27

28

29

© DEIMOS Engenharia S.A.

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65

66

67

68

61

62

63

64

57

58

59

60

53

54

55

56

73

74

75

76

77

69

70

71

72

I49_I39

I49_I38

I49_I37

I49_I36

I49_I35

I49_I34

I49_I33

I49_I32

I49_I47

I49_I46

I49_I45

I49_I44

I49_I43

I49_I42

I49_I41

I49_I40

I49_I31

I49_I30

I49_I29

I49_I28

I49_I27

I49_I26

I49_I25

0_1-7

0_0-7

7

8

9

10

I72_I68

I72_I67

I72_I66

I72_I65

DME-DQS-QRE0609-SUM-10-E

39

40

41

42

35

36

37

38

31

32

33

34

27

28

29

30

23

24

25

26

19

20

21

22

15

16

17

18

11

12

13

14

I71_I64

I71_I63

I71_I62

I71_I61

I71_I60

I71_I59

I71_I58

I71_I57

I71_Q72

I71_Q71

I71_I70

I71_I69

I71_I68

I71_I67

I71_I66

I71_I65

I72_I56

I72_I55

I72_I54

I72_I53

I72_I52

I72_I51

I72_I50

I72_I49

I72_I64

I72_I63

I72_I62

I72_I61

I72_I60

I72_I59

I72_I58

I72_I57

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

71

72

73

74

67

68

69

70

63

64

65

66

59

60

61

62

55

56

57

58

51

52

53

54

47

48

49

50

43

44

45

46

© DEIMOS Engenharia S.A.

I70_I56

I70_I55

I70_I54

I70_I53

I70_I52

I70_I51

I70_I50

I70_I49

I70_I64

I70_I63

I70_I62

I70_I61

I70_I60

I70_I59

I70_I58

I70_I57

I70_Q72

I70_Q71

I70_Q70

I70_I69

I70_I68

I70_I67

I70_I66

I70_I65

I71_I56

I71_I55

I71_I54

I71_I53

I71_I52

I71_I51

I71_I50

I71_I49

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104

105

106

99

100

101

102

95

96

97

98

91

92

93

94

87

88

89

90

83

84

85

86

79

80

81

82

75

76

77

78

I68_Q72

I68_Q71

I68_Q70

I68_Q69

I68_Q68

I68_I67

I68_I66

I68_I65

I69_I56

I69_I55

I69_I54

I69_I53

I69_I52

I69_I51

I69_I50

I69_I49

I69_I64

I69_I63

I69_I62

I69_I61

I69_I60

I69_I59

I69_I58

I69_I57

I69_Q72

I69_Q71

I69_Q70

I69_Q69

I69_I68

I69_I67

I69_I66

I69_I65

DME-DQS-QRE0609-SUM-10-E

115

116

117

118

119

120

121

111

112

113

114

107

108

109

110

11

12

13

14

7

8

9

10

Array Index Correlation

Correlator_Counts_31

1

2

I66_Q67

I66_Q66

5

6

3

4

I66_I65

I66_I64

I66_I63

I66_I62

I66_I61

I66_I60

I66_I59

I66_I58

I66_I57

I66_I56

I66_I55

I66_I54

I68_I56

I68_I55

I68_I54

I68_I53

I68_I52

I68_I51

I68_I50

I68_I64

I68_I63

I68_I62

I68_I61

I68_I60

I68_I59

I68_I58

I68_I57

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

130

131

132

133

134

135

136

126

127

128

129

122

123

124

125

I65_Q69

I65_Q68

I65_Q67

I65_Q66

I65_Q65

I65_I64

I65_I63

I65_I62

I66_I53

I66_I52

I66_I51

I66_I50

I66_I49

I65_Q72

I65_Q71

I65_Q70

I67_I65

I67_I64

I67_I63

I67_I62

I67_I61

I67_I60

I67_I59

I68_I49

I67_Q72

I67_Q71

I67_Q70

I67_Q69

I67_Q68

I67_Q67

I67_I66

27

28

29

30

23

24

25

26

19

20

21

22

15

16

17

18

© DEIMOS Engenharia S.A.

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43

44

45

46

39

40

41

42

35

36

37

38

31

32

33

34

145

146

147

148

149

150

151

141

142

143

144

137

138

139

140

I65_I53

I65_I52

I65_I51

I65_I50

I65_I49

I64_Q72

I64_Q71

I64_Q70

I65_I61

I65_I60

I65_I59

I65_I58

I65_I57

I65_I56

I65_I55

I65_I54

I67_I50

I67_I49

I66_Q72

I66_Q71

I66_Q70

I66_Q69

I66_Q68

I67_I58

I67_I57

I67_I56

I67_I55

I67_I54

I67_I53

I67_I52

I67_I51

DME-DQS-QRE0609-SUM-10-E

75

76

77

78

71

72

73

74

67

68

69

70

63

64

65

66

59

60

61

62

55

56

57

58

51

52

53

54

47

48

49

50

I63_Q69

I63_Q68

I63_Q67

I63_Q66

I63_Q65

I63_Q64

I63_Q63

I63_I62

I64_I53

I64_I52

I64_I51

I64_I50

I64_I49

I63_Q72

I63_Q71

I63_Q70

I64_I61

I64_I60

I64_I59

I64_I58

I64_I57

I64_I56

I64_I55

I64_I54

I64_Q69

I64_Q68

I64_Q67

I64_Q66

I64_Q65

I64_Q64

I64_I63

I64_I62

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

107

108

109

110

103

104

105

106

99

100

101

102

95

96

97

98

91

92

93

94

87

88

89

90

83

84

85

86

79

80

81

82

© DEIMOS Engenharia S.A.

I62_I61

I62_I60

I62_I59

I62_I58

I62_I57

I62_I56

I62_I55

I62_I54

I62_Q69

I62_Q68

I62_Q67

I62_Q66

I62_Q65

I62_Q64

I62_Q63

I62_Q62

I63_I53

I63_I52

I63_I51

I63_I50

I63_I49

I62_Q72

I62_Q71

I62_Q70

I63_I61

I63_I60

I63_I59

I63_I58

I63_I57

I63_I56

I63_I55

I63_I54

Code :

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139

140

141

142

135

136

137

138

131

132

133

134

127

128

129

130

123

124

125

126

119

120

121

122

115

116

117

118

111

112

113

114

I61_I53

I61_I52

I61_I51

I61_I50

I61_I49

I60_Q72

I60_Q71

I60_Q70

I61_Q61

I61_I60

I61_I59

I61_I58

I61_I57

I61_I56

I61_I55

I61_I54

I61_Q69

I61_Q68

I61_Q67

I61_Q66

I61_Q65

I61_Q64

I61_Q63

I61_Q62

I62_I53

I62_I52

I62_I51

I62_I50

I62_I49

I61_Q72

I61_Q71

I61_Q70

DME-DQS-QRE0609-SUM-10-E

I60_I53

I60_I52

I60_I51

I60_I50

I60_I49

I59_Q72

I59_Q71

I59_Q70

I59_Q69

I59_Q68

I59_Q67

I59_Q66

I59_Q65

I59_Q64

I60_Q61

I60_Q60

I60_I59

I60_I58

I60_I57

I60_I56

I60_I55

I60_I54

I60_Q69

I60_Q68

I60_Q67

I60_Q66

I60_Q65

I60_Q64

I60_Q63

I60_Q62

167

168

169

170

171

172

163

164

165

166

159

160

161

162

155

156

157

158

151

152

153

154

147

148

149

150

143

144

145

146

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

I58_Q71

I58_Q70

I58_Q69

I58_Q68

I58_Q67

I58_Q66

I58_Q65

I58_Q64

I58_Q63

I58_Q62

I58_Q61

I58_Q60

I58_Q59

I58_Q58

I59_I55

I59_I54

I59_I53

I59_I52

I59_I51

I59_I50

I59_I49

I58_Q72

I59_Q63

I59_Q62

I59_Q61

I59_Q60

I59_Q59

I59_I58

I59_I57

I59_I56

197

198

199

200

201

202

193

194

195

196

189

190

191

192

185

186

187

188

181

182

183

184

177

178

179

180

173

174

175

176

© DEIMOS Engenharia S.A.

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223

224

225

226

219

220

221

222

227

228

229

230

231

215

216

217

218

211

212

213

214

207

208

209

210

203

204

205

206

I57_Q65

I57_Q64

I57_Q63

I57_Q62

I57_Q61

I57_Q60

I57_Q59

I57_Q58

I57_Q57

I57_I56

I57_I55

I57_I54

I57_I53

I58_I49

I57_Q72

I57_Q71

I57_Q70

I57_Q69

I57_Q68

I57_Q67

I57_Q66

I58_I57

I58_I56

I58_I55

I58_I54

I58_I53

I58_I52

I58_I51

I58_I50

DME-DQS-QRE0609-SUM-10-E

27

28

29

30

23

24

25

26

19

20

21

22

15

16

17

18

11

12

13

14

7

8

9

10

Array Index Correlation

Correlator_Counts_32

1

2

I57_I52

I57_I51

5

6

3

4

I57_I50

I57_I49

I56_Q72

I56_Q71

I56_Q70

I56_Q69

I56_Q68

I56_Q67

I56_Q66

I56_Q65

I56_Q64

I56_Q63

I56_I54

I56_I53

I56_I52

I56_I51

I56_I50

I56_I49

I55_Q72

I55_Q71

I56_Q62

I56_Q61

I56_Q60

I56_Q59

I56_Q58

I56_Q57

I56_Q56

I56_I55

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

59

60

61

62

55

56

57

58

51

52

53

54

47

48

49

50

43

44

45

46

39

40

41

42

35

36

37

38

31

32

33

34

© DEIMOS Engenharia S.A.

I54_Q70

I54_Q69

I54_Q68

I54_Q67

I54_Q66

I54_Q65

I54_Q64

I54_Q63

I55_I54

I55_I53

I55_I52

I55_I51

I55_I50

I55_I49

I54_Q72

I54_Q71

I55_Q62

I55_Q61

I55_Q60

I55_Q59

I55_Q58

I55_Q57

I55_Q56

I55_Q55

I55_Q70

I55_Q69

I55_Q68

I55_Q67

I55_Q66

I55_Q65

I55_Q64

I55_Q63

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Issue :

Date :

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91

92

93

94

87

88

89

90

83

84

85

86

79

80

81

82

75

76

77

78

71

72

73

74

67

68

69

70

63

64

65

66

I53_Q62

I53_Q61

I53_Q60

I53_Q59

I53_Q58

I53_Q57

I53_Q56

I53_Q55

I53_Q70

I53_Q69

I53_Q68

I53_Q67

I53_Q66

I53_Q65

I53_Q64

I53_Q63

I54_Q54

I54_I53

I54_I52

I54_I51

I54_I50

I54_I49

I53_Q72

I53_Q71

I54_Q62

I54_Q61

I54_Q60

I54_Q59

I54_Q58

I54_Q57

I54_Q56

I54_Q55

DME-DQS-QRE0609-SUM-10-E

123

124

125

126

119

120

121

122

115

116

117

118

111

112

113

114

107

108

109

110

103

104

105

106

99

100

101

102

95

96

97

98

I52_Q54

I52_Q53

I52_Q52

I52_I51

I52_I50

I52_I49

I51_Q72

I51_Q71

I52_Q62

I52_Q61

I52_Q60

I52_Q59

I52_Q58

I52_Q57

I52_Q56

I52_Q55

I52_Q70

I52_Q69

I52_Q68

I52_Q67

I52_Q66

I52_Q65

I52_Q64

I52_Q63

I53_Q54

I53_Q53

I53_I52

I53_I51

I53_I50

I53_I49

I52_Q72

I52_Q71

S o

S

f f t

M

t w

O

a

S

r e

D a

U s

t

s

a

e r r

V

s

i i e

M

w

a

e

n

r

u a l l

155

156

157

158

151

152

153

154

147

148

149

150

143

144

145

146

139

140

141

142

135

136

137

138

131

132

133

134

127

128

129

130

© DEIMOS Engenharia S.A.

I50_Q70

I50_Q69

I50_Q68

I50_Q67

I50_Q66

I50_Q65

I50_Q64

I50_Q63

I51_Q54

I51_Q53

I51_Q52

I51_Q51

I51_I50

I51_I49

I50_Q72

I50_Q71

I51_Q62

I51_Q61

I51_Q60

I51_Q59

I51_Q58

I51_Q57

I51_Q56

I51_Q55

I51_Q70

I51_Q69

I51_Q68

I51_Q67

I51_Q66

I51_Q65

I51_Q64

I51_Q63

Code :

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187

188

189

190

183

184

185

186

179

180

181

182

175

176

177

178

171

172

173

174

167

168

169

170

163

164

165

166

159

160

161

162

I49_Q62

I49_Q61

I49_Q60

I49_Q59

I49_Q58

I49_Q57

I49_Q56

I49_Q55

I49_Q70

I49_Q69

I49_Q68

I49_Q67

I49_Q66

I49_Q65

I49_Q64

I49_Q63

I50_Q54

I50_Q53

I50_Q52

I50_Q51

I50_Q50

I50_I49

I49_Q72

I49_Q71

I50_Q62

I50_Q61

I50_Q60

I50_Q59

I50_Q58

I50_Q57

I50_Q56

I50_Q55

DME-DQS-QRE0609-SUM-10-E

191

192

193

I49_Q54

I49_Q53

I49_Q52

S o

S

f f t

M

t w

O

a

S

r e

D a

U s

t

s

a

e r r

V

s

i i e

M

w

a

e

n

r

u a l l

194

195

196

I49_Q51

I49_Q50

I49_Q49

Code :

SDV-DME-TEC-SUM01-E-R

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197

198

0_1-8

0_0-8

© DEIMOS Engenharia S.A.

DME-DQS-QRE0609-SUM-10-E

S M O S D a t a V i i e w e r

S o f f t t w a r e U s s e r r

’ s M a n u a l l

End of Document

Code :

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Issue :

Date :

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26/02/2015

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© DEIMOS Engenharia S.A.

DME-DQS-QRE0609-SUM-10-E

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