1680 lines
87 KiB
Matlab
Executable File
1680 lines
87 KiB
Matlab
Executable File
function report_appendix_ENG(yesTL,yesIPL,yesTLH,yesPCL,yesTLHR,yesTLHRH,yesPCLHR,...
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yesPL,yesBL,yesTuL,yesRaL,yesThL,yesKL,yesKLHR,yesRL,yesLL,yesPrL,yesPT100,...
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yesCrL,yes3DCrL,yesEL,yes3DEL,yesWEL,yesMPBEL,PL_A,PL_D,Font_section,...
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Font_caption,Font_tools,FIG,dim,appendice,colonna6,rpt,FileName)
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import mlreportgen.dom.*
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import mlreportgen.report.*
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% Make sure DOM is compilable
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makeDOMCompilable()
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%% Appendice - Data elaboration
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partecomune = 0;
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ElabTitle = 0;
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Titolo = Section();
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testoTilt = Paragraph(['ADC points stored in the SD card are defined ''raw data'' and they need '...
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'to be properly elaborated in order to convert acceleration data into displacement values. '...
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'Moreover, in this stage it is also possible to identify and correct any issue related to '...
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'data drifting, spike and/or instrumental noises. These results are achieved thanks to a '...
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'dedicated MATLAB-based software, named ''Tilt''. It should be taken into account that traditional '...
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'monitoring devices usually feature a sampling frequency that is too low to allow the '...
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'application of statistical analyses aimed to reduce any tool-related data noise. On the '...
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'other hand, the definition of a database including a great number of monitoring data permits '...
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'to evaluate the phenomena evolution over time and to assess the results reliability.']);
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testoATD = Paragraph(['ADC points stored in the SD card are defined ''raw data'' and they need '...
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'to be properly elaborated in order to convert acceleration data into displacement values. '...
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'Moreover, in this stage it is also possible to identify and correct any issue related to '...
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'data drifting, spike and/or instrumental noises. These results are achieved thanks to a '...
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'dedicated MATLAB-based software, named ''ATD''. It should be taken into account that traditional '...
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'monitoring devices usually feature a sampling frequency that is too low to allow the '...
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'application of statistical analyses aimed to reduce any tool-related data noise. On the '...
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'other hand, the definition of a database including a great number of monitoring data permits '...
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'to evaluate the phenomenon evolution over time and to assess the results reliability.']);
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testoRIS = Paragraph(['After collecting the monitoring data on-site, the datalogger sends them '...
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'to the ASE database, from where the software imports raw data and calibration parameters. '...
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'This is a completely automatic procedure: after receiving new data, a dedicated procedure '...
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'converts them into physical units, thus obtaining the actual displacement measured on-site. '...
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'After the results uploading phase, which takes a very short amount of time, the user can access '...
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'and download all monitoring data through the web-based platform.']);
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testoTilt.HAlign = 'justify';
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testoATD.HAlign = 'justify';
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testoRSN.HAlign = 'justify';
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testoMUSA.HAlign = 'justify';
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testoRIS.HAlign = 'justify';
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% --- Vertical Array ---
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if sum(yesTL) >= 1 || sum(yesTLHR) >= 1
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elabTL = Section();
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if ElabTitle == 0
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app = Heading2('Data elaboration');
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app.Style = {OuterMargin('0in','0in','0.2in','0.2in'),FontSize(Font_section),HAlign('justify')}; % Sx-Dx-Alto-Basso
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Titolo.Title = app;
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ElabTitle = 1;
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end
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sezVA = Heading3('Vertical Array');
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sezVA.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
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elabTL.Title = sezVA;
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testo = Paragraph(['When a displacement occurs, the node changes its position in order to '...
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'follow the slope movement. After been read, every tilt sensor records the new position '...
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'as an electrical signal (raw data) and sends the information to the control unit. '...
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'The datalogger saves the information on a volatile memory (SD card) and then transmits '...
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'them to the elaboration centre, where a software processes the electrical signals (ADC points) '...
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'to return information about the real displacement of the node (physical units). The accelerometer '...
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'gives information about the rotation of the node, referring to the constant gravity acceleration g. '...
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'The magnetometer allows to obtain the displacement direction of each node, referring to NED '...
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'reference system (North-East-Down). Finally, the on-board thermometer is necessary to correct the '...
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'thermal effects on the accelerometer, using the calibration values. This sensor also provides '...
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'the temperature along the vertical.']);
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img = Image(('vert.jpg'));
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img.Style = {Height('7cm'),HAlign('center')};
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ionhcaption = Paragraph(['Fig. ' num2str(FIG) ' - Effect of displacement on the tool and new configuration of the Array']);
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FIG = FIG+1;
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ionhcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
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testo.HAlign = 'justify';
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add(elabTL,testo);
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add(elabTL,testoTilt);
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add(elabTL,img);
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add(elabTL,ionhcaption);
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add(elabTL,testoRIS);
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partecomune = 1;
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add(appendice,elabTL);
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br = PageBreak();
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add(appendice,br);
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end
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% --- In Place Array ---
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if sum(yesIPL) >= 1
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elabIPL = Section();
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if ElabTitle == 0
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app = Heading2('Data elaboration');
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app.Style = {OuterMargin('0in','0in','0.2in','0.2in'),FontSize(Font_section),HAlign('justify')}; % Sx-Dx-Alto-Basso
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Titolo.Title = app;
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ElabTitle = 1;
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end
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sezIPA = Heading3('In Place Array');
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sezIPA.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
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elabIPL.Title = sezIPA;
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testo = Paragraph(['When a displacement occurs, the node changes its position in order to '...
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'follow the slope movement. After been read, every tilt sensor records the new position '...
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'as an electrical signal (raw data) and sends the information to the control unit. '...
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'The datalogger saves the information on a volatile memory (SD card) and then transmits '...
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'them to the elaboration centre, where a software processes the electrical signals (ADC points) '...
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'to return information about the real displacement of the node (physical units). The accelerometer '...
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'gives information about the rotation of the node, referring to the constant gravity acceleration g. '...
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'The magnetometer allows to obtain the displacement direction of each node, referring to NED '...
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'reference system (North-East-Down). Finally, the on-board thermometer is necessary to correct the '...
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'thermal effects on the accelerometer, using the calibration values. This sensor also provides '...
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'the temperature along the vertical.']);
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img = Image(('vert.jpg'));
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img.Style = {Height('7cm'),HAlign('center')};
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imgcaption = Paragraph(['Fig. ' num2str(FIG) ' - Effect of displacement on the tool and new configuration of the Array']);
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FIG = FIG+1;
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imgcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
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testo.HAlign = 'justify';
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add(elabIPL,testo);
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add(elabIPL,img);
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add(elabIPL,imgcaption);
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if partecomune == 0
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add(elabIPL,testoTilt);
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add(elabIPL,testoRIS);
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partecomune = 1;
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end
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add(appendice,elabIPL);
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br = PageBreak();
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add(appendice,br);
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end
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nodoTunnel = 0;
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% --- Cir Array ---
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if sum(yesTuL) >= 1
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elabCIR = Section();
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if ElabTitle == 0
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app = Heading2('Data elaboration');
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app.Style = {OuterMargin('0in','0in','0.2in','0.2in'),FontSize(Font_section),HAlign('justify')}; % Sx-Dx-Alto-Basso
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Titolo.Title = app;
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ElabTitle = 1;
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end
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sezCA = Heading3('Cir Array');
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sezCA.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
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elabCIR.Title = sezCA;
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testo = Paragraph(['When a displacement occurs, the node changes its position in order to '...
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'follow the section movement. After been read, every tilt sensor records the new position '...
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'as an electrical signal (raw data) and sends the information to the control unit. '...
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'The datalogger saves the information on a volatile memory (SD card) and then transmits '...
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'them to the elaboration centre, where a software processes the electrical signals (ADC points) '...
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'to return information about the real displacement of the node (physical units). The accelerometer '...
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'gives information about the rotation of the node, referring to the constant gravity acceleration g. '...
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'The on-board thermometer is necessary to correct the '...
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'thermal effects on the accelerometer, using the calibration values. This sensor also provides '...
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'the temperature along the array.']);
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testo2 = Paragraph(['MEMS sensor is located at the centre of each Link and measures the three '...
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'components of the gravitational field in its own reference system, starting from an initial '...
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'configuration (zero reading). When a movement arises, the variation of the different gravity '...
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'components gives back the information about the displacement. In this way, it is possible to '...
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'calculate the tunnel rotation and the local displacement of each Link, and finally compute '...
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'a curve of cumulated displacements and the three-dimensional variation of the monitored section. '...
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'Moreover, the software determines the length variation of predefined convergence segments, created '...
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'by connecting specific calculation points with an approach similar to topography applications. '...
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'Each Tunnel Link has a Segment of Relevance, which is assumed as infinitely rigid, that starts from the middle '...
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'point between the considered and the previous Link and ends at the medium distance between the '...
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'considered and the following Link. It is possible to customize the distance between Links according to '...
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'specific monitoring necessities (smaller distances lead to more reliable and accurate results).']);
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img = Image(('cir_ENG.png'));
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img.Style = {Height('7cm'),HAlign('center')};
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imgcaption = Paragraph(['Fig. ' num2str(FIG) ' - Tunnel Link Segment of Relevance and '...
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'installation system']);
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FIG = FIG+1;
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imgcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
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testo.HAlign = 'justify';
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testo2.HAlign = 'justify';
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add(elabCIR,testo);
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nodoTunnel = 1;
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add(elabCIR,testo2);
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add(elabCIR,img);
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add(elabCIR,imgcaption);
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if partecomune == 0
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add(elabCIR,testoATD);
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add(elabCIR,testoRIS);
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partecomune = 1;
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end
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add(appendice,elabCIR);
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end
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% --- Rad Array ---
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if sum(yesRaL) >= 1
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elabRAD = Section();
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if ElabTitle == 0
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app = Heading2('Data elaboration');
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app.Style = {OuterMargin('0in','0in','0.2in','0.2in'),FontSize(Font_section),HAlign('justify')}; % Sx-Dx-Alto-Basso
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Titolo.Title = app;
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ElabTitle = 1;
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end
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sezRA = Heading3('Rad Array');
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sezRA.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
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elabRAD.Title = sezRA;
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testo = Paragraph(['When a displacement occurs, the node changes its position in order to '...
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'follow the rock mass movement. After been read, every tilt sensor records the new position '...
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'as an electrical signal (raw data) and sends the information to the control unit. '...
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'The datalogger saves the information on a volatile memory (SD card) and then transmits '...
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'them to the elaboration centre, where a software processes the electrical signals (ADC points) '...
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'to return information about the real displacement of the node (physical units). The accelerometer '...
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'gives information about the rotation of the node, referring to the constant gravity acceleration g. '...
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|
'The on-board thermometer is necessary to correct the '...
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'thermal effects on the accelerometer, using the calibration values. This sensor also provides '...
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'the temperature along the array.']);
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testo2 = Paragraph(['MEMS sensor is located at the centre of each Link and measures the three '...
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'components of the gravitational field in its own reference system, starting from an initial '...
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'configuration (zero reading). When a movement arises, the variation of the different gravity '...
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'components gives back the information of the displacement. In this way, it is possible to '...
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'calculate the 3D displacement surrounding the monitored section. '...
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'Each single node provides a local information according to the 3D reference system X-Y-Z (respectively '...
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'width, depth and height). The resultant of these components allows to determine the cumulative displacement '...
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'and the three-dimensional position variation of the monitored element. Moreover, it is possible to couple a Rad '...
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'Array with a multi-point borehole extensometer in order to separate radial deformations from components acting '...
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'along other directions. '...
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'Each Radial Link has a Segment of Relevance, which is assumed as infinitely rigid, that starts from the middle '...
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'point between the considered and the previous Link and ends at the medium distance between the '...
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'considered and the following Link. It is possible to customize the distance between Links according to '...
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'specific monitoring necessities (smaller distances lead to more reliable and accurate results).']);
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img = Image(('rad.png'));
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img.Style = {Height('7.5cm'),HAlign('center')};
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imgcaption = Paragraph(['Fig. ' num2str(FIG) ' - Graphical illustration of two Rad Arrays located '...
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'on the upper part of the monitorign section and installed with a 45-degree tilt.']);
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FIG = FIG+1;
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imgcaption.Style = {HAlign('justify'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
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testo.HAlign = 'justify';
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testo2.HAlign = 'justify';
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if nodoTunnel==0
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add(elabRAD,testo);
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nodoTunnel = 1;
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end
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add(elabRAD,testo2);
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add(elabRAD,img);
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add(elabRAD,imgcaption);
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if partecomune == 0
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add(elabRAD,testoATD);
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add(elabRAD,testoRIS);
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partecomune = 1;
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end
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add(appendice,elabRAD);
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end
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% --- PreConv Array ---
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if sum(yesPCL) >= 1
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elabPCL = Section();
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if ElabTitle == 0
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app = Heading2('Data elaboration');
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app.Style = {OuterMargin('0in','0in','0.2in','0.2in'),FontSize(Font_section),HAlign('justify')}; % Sx-Dx-Alto-Basso
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Titolo.Title = app;
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ElabTitle = 1;
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end
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sezPCA = Heading3('PreConv Array');
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sezPCA.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
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elabPCL.Title = sezPCA;
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testo = Paragraph(['When a displacement occurs, the node changes its position in order to '...
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'follow the rock mass movement. After been read, every tilt sensor records the new position '...
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|
'as an electrical signal (raw data) and sends the information to the control unit. '...
|
|
'The datalogger saves the information on a volatile memory (SD card) and then transmits '...
|
|
'them to the elaboration centre, where a software processes the electrical signals (ADC points) '...
|
|
'to return information about the real displacement of the node (physical units). The accelerometer '...
|
|
'gives information about the rotation of the node, referring to the constant gravity acceleration g. '...
|
|
'The on-board thermometer is necessary to correct the '...
|
|
'thermal effects on the accelerometer, using the calibration values. This sensor also provides '...
|
|
'the temperature along the array.']);
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|
testo2 = Paragraph(['MEMS sensor is located at the centre of each Link and measures the three '...
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'components of the gravitational field in its own reference system, starting from an initial '...
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'configuration (zero reading). When a movement arises, the variation of the different gravity '...
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|
'components gives back the information of the displacement. In this way, it is possible to '...
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'calculate the pre-convergence component ahead of the tunnel face and the local displacement of each Link, '...
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'thus allowing to compute a curve of cumulated displacements. '...
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'Each PreConv Link has a Segment of Relevance, which is assumed as infinitely rigid, that starts from the middle '...
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'point between the considered and the previous Link and ends at the medium distance between the '...
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'considered and the following Link. It is possible to customize the distance between Links according to '...
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'specific monitoring necessities (smaller distances lead to more reliable and accurate results).']);
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img1 = Image(('PCA.png'));
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img2 = Image(('PCA2_ENG.jpg'));
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img1.Style = {Height('6cm'),HAlign('center')};
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imgcaption = Paragraph(['Fig. ' num2str(FIG) ' - Graphical representation '...
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'of the expected deformation behaviour induced by the underground excavation']);
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FIG = FIG+1;
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imgcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
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img2.Style = {Height('14cm'),HAlign('center')};
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img2caption = Paragraph(['Fig. ' num2str(FIG) ' - MUMS PreConv Array installation example']);
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FIG = FIG+1;
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img2caption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
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testo.HAlign = 'justify';
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testo2.HAlign = 'justify';
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if nodoTunnel == 0
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add(elabPCL,testo);
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nodoTunnel = 1;
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end
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add(elabPCL,img1);
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add(elabPCL,imgcaption);
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add(elabPCL,testo2);
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add(elabPCL,img2);
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add(elabPCL,img2caption);
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if partecomune == 0
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add(elabPCL,testoATD);
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add(elabPCL,testoRIS);
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partecomune = 1;
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end
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add(appendice,elabPCL);
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end
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% --- Analog Array ---
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if sum(yesLL)>=1 || sum(yesPrL)>=1 || sum(yesPT100)>=1 || sum(yesCrL)>=1 || ...
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sum(yes3DCrL)>=1 || sum(yesEL)>=1 || sum(yes3DEL)>=1 || sum(yesWEL)>=1 || sum(yesMPBEL)>=1
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elabAA = Section();
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if ElabTitle == 0
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app = Heading2('Data elaboration');
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app.Style = {OuterMargin('0in','0in','0.2in','0.2in'),FontSize(Font_section),HAlign('justify')}; % Sx-Dx-Alto-Basso
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Titolo.Title = app;
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ElabTitle = 1;
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end
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sezAA = Heading3('Analog Array');
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sezAA.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
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elabAA.Title = sezAA;
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testo = Paragraph(['Analog Arrays are composed of traditional analog sensors, connected to the ASE801 '...
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'datalogger thanks to a dedicated GMUX module that converts an analog '...
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'signal into a digital one, or by installing an ASE201 control unit. This datalogger is able to read any traditional sensors featuring different '...
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'output signals (e.g. Hz, mV/V, 0-5 V, 0-10 V, VW, 4-20 mA, NTC, PT100, etc.).']);
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img = Image(('G201.png'));
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img.Style = {Height('3.5cm'),HAlign('center')};
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imgcaption = Paragraph(['Fig. ' num2str(FIG) ' - ASE201 control unit, designed to read any traditional analog '...
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'monitoring device by converting its signal into a digital output']);
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FIG = FIG+1;
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imgcaption.Style = {HAlign('justify'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
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testo.HAlign = 'justify';
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add(elabAA,testo);
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|
add(elabAA,img);
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|
add(elabAA,imgcaption);
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if partecomune == 0
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add(elabAA,testoATD);
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add(elabAA,testoRIS);
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partecomune = 1;
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end
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add(appendice,elabAA);
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end
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%% Appendice sensori
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% ---Tilt Link HR 3D V---
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elabSE = Section();
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SE = Section();
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app = Heading2('Sensors description');
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|
app.Style = {OuterMargin('0in','0in','0.2in','0.2in'),FontSize(Font_section),HAlign('justify')}; % Sx-Dx-Alto-Basso
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elabSE.Title = app;
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add(appendice,elabSE);
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TL3D = 0;
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for a = 1:dim
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[dimC,~] = size(colonna6{a,1});
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if dimC == 1
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|
if strcmp(colonna6(a,1),'Tilt Link HR 3D V') == 1
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if TL3D == 0
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SE = Section();
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end
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|
sezTilt = Heading3('Tilt Link HR 3D V');
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|
sezTilt.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
SE.Title = sezTilt;
|
|
text = Paragraph(['Tilt Link HR 3D V follows the same working principle of Tilt Link V. '...
|
|
'The main improvement refers to the 2D electrolytic cell, which permits to monitor small '...
|
|
'displacements with a 10 times higher accuracy. Contrary to the MEMS sensor, which has a theoretically '...
|
|
'infinite measure range, the electrolytic cell is limited to a ' char(177) '25' char(186) ' absolute tilt range. Since the '...
|
|
'instrumental axes X and Y of this sensor coincide '...
|
|
'with the two corresponding MEMS axes, the MEMS magnetometer can be used to define also the electrolytic cell '...
|
|
'orientation. The simultaneous presence of two different '...
|
|
'type of sensors in the same Link gives redundancy to results, which is fundamental to reduce '...
|
|
'the uncertainties and have a robust interpretation of the occurring phenomenon.']);
|
|
text.HAlign = 'justify';
|
|
if TL3D == 0
|
|
add(SE,text);
|
|
imgTL = Image(('Tilt Link HR 3D V.tif'));
|
|
add(SE,imgTL);
|
|
imgTL.Style = {Height('6.5cm'),HAlign('center')};
|
|
imgTLcaption = Paragraph(['Fig. ' num2str(FIG) ' - Tilt Link HR 3D V sensor']);
|
|
add(SE,imgTLcaption);
|
|
FIG = FIG+1;
|
|
imgTLcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
TL3D = 1;
|
|
end
|
|
break
|
|
end
|
|
else
|
|
for aC = 1:dimC
|
|
if strcmp(colonna6{a, 1}{aC, 1},'Tilt Link HR 3D V') == 1
|
|
if TL3D == 0
|
|
SE = Section();
|
|
end
|
|
sezTilt = Heading3('Tilt Link HR 3D V');
|
|
sezTilt.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
SE.Title = sezTilt;
|
|
text = Paragraph(['Tilt Link HR 3D V follows the same working principle of Tilt Link V. '...
|
|
'The main improvement refers to the 2D electrolytic cell, which permits to monitor small '...
|
|
'displacements with a 10 times higher accuracy. Contrary to the MEMS sensor, which has a theoretically '...
|
|
'infinite measure range, the electrolytic cell is limited to a ' char(177) '25' char(186) ' absolute tilt range. Since the '...
|
|
'instrumental axes X and Y of this sensor coincide '...
|
|
'with the two corresponding MEMS axes, the MEMS magnetometer can be used to define also the electrolytic cell '...
|
|
'orientation. The simultaneous presence of two different '...
|
|
'type of sensors in the same Link gives redundancy to results, which is fundamental to reduce '...
|
|
'the uncertainties and have a robust interpretation of the occurring phenomenon.']);
|
|
text.HAlign = 'justify';
|
|
if TL3D == 0
|
|
add(SE,text);
|
|
imgTL = Image(('Tilt Link HR 3D V.tif'));
|
|
add(SE,imgTL);
|
|
imgTL.Style = {Height('6.5cm'),HAlign('center')};
|
|
imgTLcaption = Paragraph(['Fig. ' num2str(FIG) ' - Tilt Link HR 3D V sensor']);
|
|
add(SE,imgTLcaption);
|
|
FIG = FIG+1;
|
|
imgTLcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
TL3D = 1;
|
|
end
|
|
break
|
|
end
|
|
end
|
|
end
|
|
end
|
|
add(appendice,SE);
|
|
|
|
% --- Tilt Link V ---
|
|
TL = 0;
|
|
ST = Section();
|
|
for a = 1:dim
|
|
[dimC,~] = size(colonna6{a,1});
|
|
if dimC == 1
|
|
if strcmp(colonna6(a,1),'Tilt Link V') == 1
|
|
if TL == 0
|
|
ST = Section();
|
|
end
|
|
sezTilt = Heading3('Tilt Link V');
|
|
sezTilt.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
ST.Title = sezTilt;
|
|
text = Paragraph(['Each Tilt Link V features a 3D MEMS sensor, which equips an accelerometer, a '...
|
|
'magnetometer, and a thermometer. The first element is able to record the sensor tilt, '...
|
|
'while the second one defines its direction. The thermometer provides the sensor temperature, and it '...
|
|
'is used to correct the thermal effects on the accelerometer. From a theoretical point of view, '...
|
|
'MEMS features an infinite range of tilt measure, while small variations '...
|
|
'are influenced by electrical noises.']);
|
|
if TL == 0
|
|
text.HAlign = 'justify';
|
|
add(ST,text);
|
|
img = Image(('Tilt Link V.tif'));
|
|
img.Style = {Height('5.5cm'),HAlign('center')};
|
|
add(ST,img);
|
|
ionhcaption = Paragraph(['Fig. ' num2str(FIG) ' - Tilt Link V sensor']);
|
|
FIG = FIG+1;
|
|
ionhcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(ST,ionhcaption);
|
|
TL = 1;
|
|
end
|
|
break
|
|
end
|
|
else
|
|
for aC = 1:dimC
|
|
if strcmp(colonna6{a, 1}{aC, 1},'Tilt Link V') == 1
|
|
if TL == 0
|
|
ST = Section();
|
|
end
|
|
sezTilt = Heading3('Tilt Link V');
|
|
sezTilt.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
ST.Title = sezTilt;
|
|
text = Paragraph(['Each Tilt Link V features a 3D MEMS sensor, which equips an accelerometer, a '...
|
|
'magnetometer, and a thermometer. The first element is able to record the sensor tilt, '...
|
|
'while the second one defines its direction. The thermometer provides the sensor temperature, and it '...
|
|
'is used to correct the thermal effects on the accelerometer. From a theoretical point of view, '...
|
|
'MEMS features an infinite range of tilt measure, while small variations '...
|
|
'are influenced by electrical noises.']);
|
|
if TL == 0
|
|
text.HAlign = 'justify';
|
|
add(ST,text);
|
|
img = Image(('Tilt Link V.tif'));
|
|
img.Style = {Height('5.5cm'),HAlign('center')};
|
|
add(ST,img);
|
|
ionhcaption = Paragraph(['Fig. ' num2str(FIG) ' - Tilt Link V sensor']);
|
|
FIG = FIG+1;
|
|
ionhcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(ST,ionhcaption);
|
|
TL = 1;
|
|
end
|
|
break
|
|
end
|
|
end
|
|
end
|
|
end
|
|
add(appendice,ST);
|
|
|
|
% --- In Place Link HR 3D ---
|
|
SIPI3D = Section();
|
|
IPL3D = 0;
|
|
for a = 1:dim
|
|
[dimC,~] = size(colonna6{a,1});
|
|
if dimC == 1
|
|
if strcmp(colonna6(a,1),'In Place Link HR 3D') == 1
|
|
if IPL3D == 0
|
|
SIPI3D = Section();
|
|
end
|
|
sezIPI = Heading3('In Place Link HR 3D');
|
|
sezIPI.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
SIPI3D.Title = sezIPI;
|
|
text = Paragraph(['In Place HR 3D follows the same working principle of In Place Link. '...
|
|
'The main improvement refers to the 2D electrolytic cell, which permits to monitor small '...
|
|
'displacements with a 10 times higher accuracy. Contrary to the MEMS sensor, which has a theoretically '...
|
|
'infinite measure range, the electrolytic cell is limited to a ' char(177) '25' char(186) ' absolute tilt range. Since the '...
|
|
'instrumetal axes X and Y of this sensor coincide '...
|
|
'with the two corresponding MEMS axes, the MEMS magnetometer can be used to define also the electrolytic cell '...
|
|
'orientation. The simultaneous presence of two different '...
|
|
'type of sensors in the same link gives redundancy to results, which is fundamental to reduce '...
|
|
'the uncertainties and have a robust interpretation of the occurring phenomenon.']);
|
|
text.HAlign = 'justify';
|
|
if IPL3D == 0
|
|
add(SIPI3D,text);
|
|
imgIPL = Image(('Tilt Link HR 3D V.tif'));
|
|
add(SIPI3D,imgIPL);
|
|
imgIPL.Style = {Height('5.5cm'),HAlign('center')};
|
|
imgIPLcaption = Paragraph(['Fig. ' num2str(FIG) ' - In Place Link HR 3D sensor']);
|
|
add(SIPI3D,imgIPLcaption);
|
|
FIG = FIG+1;
|
|
imgIPLcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
IPL3D = 1;
|
|
end
|
|
break
|
|
end
|
|
else
|
|
for aC = 1:dimC
|
|
if strcmp(colonna6{a, 1}{aC, 1},'In Place Link HR 3D') == 1
|
|
if IPL3D == 0
|
|
SIPI3D = Section();
|
|
end
|
|
sezIPI = Heading3('In Place Link HR 3D');
|
|
sezIPI.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
SIPI3D.Title = sezIPI;
|
|
text = Paragraph(['In Place HR 3D follows the same working principle of In Place Link. '...
|
|
'The main improvement refers to the 2D electrolytic cell, which permits to monitor small '...
|
|
'displacements with a 10 times higher accuracy. Contrary to the MEMS sensor, which has a theoretically '...
|
|
'infinite measure range, the electrolytic cell is limited to a ' char(177) '25' char(186) ' absolute tilt range. Since the '...
|
|
'instrumetal axes X and Y of this sensor coincide '...
|
|
'with the two corresponding MEMS axes, the MEMS magnetometer can be used to define also the electrolytic cell '...
|
|
'orientation. The simultaneous presence of two different '...
|
|
'type of sensors in the same link gives redundancy to results, which is fundamental to reduce '...
|
|
'the uncertainties and have a robust interpretation of the occurring phenomenon.']);
|
|
text.HAlign = 'justify';
|
|
if IPL3D == 0
|
|
add(SIPI3D,text);
|
|
imgIPL = Image(('Tilt Link HR 3D V.tif'));
|
|
add(SIPI3D,imgIPL);
|
|
imgIPL.Style = {Height('5.5cm'),HAlign('center')};
|
|
imgIPLcaption = Paragraph(['Fig. ' num2str(FIG) ' - In Place Link HR 3D sensor']);
|
|
add(SIPI3D,imgIPLcaption);
|
|
FIG = FIG+1;
|
|
imgIPLcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
IPL3D = 1;
|
|
end
|
|
break
|
|
end
|
|
end
|
|
end
|
|
end
|
|
add(appendice,SIPI3D);
|
|
|
|
% --- In Place Link ---
|
|
IPL = 0;
|
|
SIPI = Section();
|
|
for a = 1:dim
|
|
[dimC,~] = size(colonna6{a,1});
|
|
if dimC == 1
|
|
if strcmp(colonna6(a,1),'In Place Link') == 1
|
|
if IPL == 0
|
|
SIPI = Section();
|
|
end
|
|
sezIPI = Heading3('In Place Link');
|
|
sezIPI.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
SIPI.Title = sezIPI;
|
|
text = Paragraph(['Each In Place Link features a 3D MEMS sensor, which equips an accelerometer, a '...
|
|
'magnetometer, and a thermometer. The first element is able to record the node tilt, '...
|
|
'while the second one defines its direction. The thermometer provides the sensor temperature, and it '...
|
|
'is used to correct the thermal effects on the accelerometer. From a theoretical point of view, '...
|
|
'the MEMS features an infinite range of tilt measure, while small variations in its '...
|
|
'position are influenced by electrical noises.']);
|
|
if IPL == 0
|
|
text.HAlign = 'justify';
|
|
add(SIPI,text);
|
|
img = Image(('Tilt Link V.tif'));
|
|
img.Style = {Height('5.5cm'),HAlign('center')};
|
|
add(SIPI,img);
|
|
ionhcaption = Paragraph(['Fig. ' num2str(FIG) ' - In Place Link sensor']);
|
|
FIG = FIG+1;
|
|
ionhcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(SIPI,ionhcaption);
|
|
IPL = 1;
|
|
end
|
|
break
|
|
end
|
|
else
|
|
for aC = 1:dimC
|
|
if strcmp(colonna6{a, 1}{aC, 1},'In Place Link') == 1
|
|
if IPL == 0
|
|
SIPI = Section();
|
|
end
|
|
sezIPI = Heading3('In Place Link');
|
|
sezIPI.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
SIPI.Title = sezIPI;
|
|
text = Paragraph(['Each In Place Link features a 3D MEMS sensor, which equips an accelerometer, a '...
|
|
'magnetometer, and a thermometer. The first element is able to record the node tilt, '...
|
|
'while the second one defines its direction. The thermometer provides the sensor temperature, and it '...
|
|
'is used to correct the thermal effects on the accelerometer. From a theoretical point of view, '...
|
|
'the MEMS features an infinite range of tilt measure, while small variations in its '...
|
|
'position are influenced by electrical noises.']);
|
|
if IPL == 0
|
|
text.HAlign = 'justify';
|
|
add(SIPI,text);
|
|
img = Image(('Tilt Link V.tif'));
|
|
img.Style = {Height('5.5cm'),HAlign('center')};
|
|
add(SIPI,img);
|
|
ionhcaption = Paragraph(['Fig. ' num2str(FIG) ' - In Place Link sensor']);
|
|
FIG = FIG+1;
|
|
ionhcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(SIPI,ionhcaption);
|
|
IPL = 1;
|
|
end
|
|
break
|
|
end
|
|
end
|
|
end
|
|
end
|
|
add(appendice,SIPI);
|
|
|
|
if sum(yesPL) >= 1
|
|
% --- Piezo Link ---
|
|
PL = 0;
|
|
if sum(PL_A) > 0 && sum(PL_D) > 0
|
|
tipoPL = 'absolute (digital) and relative (analog) ';
|
|
figuraPL = 'Piezo Link DA.jpg';
|
|
capPL = 'digital (left) and analog (right) models';
|
|
baroPL = ' ';
|
|
elseif sum(PL_A) > 0
|
|
tipoPL = 'relative ';
|
|
figuraPL = 'Piezo Link A.png';
|
|
capPL = 'analog model';
|
|
baroPL = ' ';
|
|
elseif sum(PL_D) > 0
|
|
tipoPL = 'absolute ';
|
|
figuraPL = 'Piezo Link D.jpg';
|
|
capPL = 'digital model';
|
|
baroPL = ', when coupled with a barometer, it also allows ';
|
|
end
|
|
for a = 1:dim
|
|
[dimC,~] = size(colonna6{a,1});
|
|
if dimC == 1
|
|
if strcmp(colonna6(a,1),'Piezo Link') == 1
|
|
if PL == 0
|
|
PE = Section();
|
|
end
|
|
sezTilt = Heading3('Piezo Link');
|
|
sezTilt.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
PE.Title = sezTilt;
|
|
text = Paragraph(['Piezo Link is a sensor able to measure the ' tipoPL 'pressure and' baroPL ...
|
|
'to calculate the water table level.']);
|
|
if PL == 0
|
|
text.HAlign = 'justify';
|
|
add(PE,text);
|
|
imgPL = Image(figuraPL);
|
|
imgPL.Style = {Height('5.5cm'),HAlign('center')};
|
|
add(PE,imgPL);
|
|
FIG = FIG+1;
|
|
PLcaption = Paragraph(['Fig. ' num2str(FIG) ' - Piezo Link sensor, ' capPL]);
|
|
PLcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(PE,PLcaption);
|
|
PL = 1;
|
|
end
|
|
break
|
|
end
|
|
else
|
|
for aC = 1:dimC
|
|
if strcmp(colonna6{a, 1}{aC, 1},'Piezo Link') == 1
|
|
if PL == 0
|
|
PE = Section();
|
|
end
|
|
sezTilt = Heading3('Piezo Link');
|
|
sezTilt.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
PE.Title = sezTilt;
|
|
text = Paragraph(['Piezo Link is a sensor able to measure the ' tipoPL 'pressure and' baroPL ...
|
|
'to compute the water table level.']);
|
|
if PL == 0
|
|
text.HAlign = 'justify';
|
|
add(PE,text);
|
|
imgPL = Image(figuraPL);
|
|
imgPL.Style = {Height('5.5cm'),HAlign('center')};
|
|
add(PE,imgPL);
|
|
PLcaption = Paragraph(['Fig. ' num2str(FIG) ' - Piezo Link sensor, ' capPL]);
|
|
FIG = FIG+1;
|
|
PLcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(PE,PLcaption);
|
|
PL = 1;
|
|
end
|
|
break
|
|
end
|
|
end
|
|
end
|
|
end
|
|
% ---Baro Link---
|
|
if sum(yesBL) >= 1
|
|
BL = 0;
|
|
for a = 1:dim
|
|
[dimC,~] = size(colonna6{a,1});
|
|
if dimC == 1
|
|
if strcmp(colonna6(a,1),'Baro Link') == 1
|
|
if BL == 0
|
|
BE = Section();
|
|
end
|
|
sezTilt = Heading3('Baro Link');
|
|
sezTilt.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
BE.Title = sezTilt;
|
|
text = Paragraph(['Baro Link is a sensor designed to measure the atmospheric pressure, allowing to '...
|
|
'evaluate the meteorological conditions of the monitored site and to estimate the pore water pressure, '...
|
|
'when coupled with a piezometer.']);
|
|
if BL == 0
|
|
text.HAlign = 'justify';
|
|
add(BE,text);
|
|
imgBL = Image(('Barometro.png'));
|
|
imgBL.Style = {Height('4cm'),HAlign('center')};
|
|
add(BE,imgBL);
|
|
BLcaption = Paragraph(['Fig. ' num2str(FIG) ' - Baro Link sensor']);
|
|
FIG = FIG+1;
|
|
BLcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(BE,BLcaption);
|
|
BL = 1;
|
|
end
|
|
break
|
|
end
|
|
else
|
|
for aC = 1:dimC
|
|
if strcmp(colonna6{a, 1}{aC, 1},'Baro Link') == 1
|
|
if BL == 0
|
|
BE = Section();
|
|
end
|
|
sezTilt = Heading3('Baro Link');
|
|
sezTilt.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
BE.Title = sezTilt;
|
|
text = Paragraph(['Baro Link is a sensor designed to measure the atmospheric pressure, allowing to '...
|
|
'evaluate the meteorological conditions of the monitored site and to estimate the pore water pressure, '...
|
|
'when coupled with a piezometer.']);
|
|
if BL == 0
|
|
text.HAlign = 'justify';
|
|
add(BE,text);
|
|
imgBL = Image(('Barometro.png'));
|
|
imgBL.Style = {Height('4cm'),HAlign('center')};
|
|
add(BE,imgBL);
|
|
BLcaption = Paragraph(['Fig. ' num2str(FIG) ' - Baro Link sensor']);
|
|
FIG = FIG+1;
|
|
BLcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(BE,BLcaption)
|
|
BL = 1;
|
|
end
|
|
break
|
|
end
|
|
end
|
|
end
|
|
end
|
|
add(appendice,BE);
|
|
end
|
|
add(appendice,PE);
|
|
end
|
|
|
|
% ---Klino Link---
|
|
if sum(yesKL) >= 1
|
|
KL = 0;
|
|
for a = 1:dim
|
|
[dimC,~] = size(colonna6{a,1});
|
|
if dimC == 1
|
|
if strcmp(colonna6(a,1),'Klino Link HR 3D') == 1
|
|
if KL == 0
|
|
KE = Section();
|
|
end
|
|
sezKlino = Heading3('Klino Link HR 3D');
|
|
sezKlino.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
KE.Title = sezKlino;
|
|
text = Paragraph(['Klino Link HR 3D is a sensor that integrates a 3D MEMS sensor and an electrolytic '...
|
|
'tilt sensor, able to measure the tilt of the element on which is installed. It also '...
|
|
'includes a thermometer to collect temperature values.']);
|
|
if KL == 0
|
|
text.HAlign = 'justify';
|
|
add(KE,text);
|
|
imgKL = Image(('Klino.png'));
|
|
imgKL.Style = {Height('5cm'),HAlign('center')};
|
|
add(KE,imgKL);
|
|
KEcaption = Paragraph(['Fig. ' num2str(FIG) ' - Klino Link HR 3D sensor']);
|
|
FIG = FIG+1;
|
|
KEcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(KE,KEcaption);
|
|
KL = 1;
|
|
end
|
|
break
|
|
end
|
|
else
|
|
for aC = 1:dimC
|
|
if strcmp(colonna6{a, 1}{aC, 1},'Klino Link HR 3D') == 1
|
|
if KL == 0
|
|
KE = Section();
|
|
end
|
|
sezKlino = Heading3('Klino Link HR 3D');
|
|
sezKlino.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
KE.Title = sezKlino;
|
|
text = Paragraph(['Klino Link HR 3D is a sensor that integrates a 3D MEMS sensor and an electrolytic '...
|
|
'tilt sensor, able to measure the tilt of the element on which is installed. It also '...
|
|
'includes a thermometer to collect temperature values.']);
|
|
if KL == 0
|
|
text.HAlign = 'justify';
|
|
add(KE,text);
|
|
imgKL = Image(('Klino.png'));
|
|
imgKL.Style = {Height('5cm'),HAlign('center')};
|
|
add(KE,imgKL);
|
|
KEcaption = Paragraph(['Fig. ' num2str(FIG) ' - Klino Link HR 3D sensor']);
|
|
FIG = FIG+1;
|
|
KEcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(KE,KEcaption);
|
|
KL = 1;
|
|
end
|
|
break
|
|
end
|
|
end
|
|
end
|
|
end
|
|
add(appendice,KE);
|
|
end
|
|
|
|
% ---Klino Link HR---
|
|
if sum(yesKL) == 0 && sum(yesKLHR) >= 1
|
|
KLHR = 0;
|
|
for a = 1:dim
|
|
[dimC,~] = size(colonna6{a,1});
|
|
if dimC == 1
|
|
if strcmp(colonna6(a,1),'Klino Link HR') == 1
|
|
if KLHR == 0
|
|
KLE = Section();
|
|
end
|
|
sezKlinoHR = Heading3('Klino Link HR');
|
|
sezKlinoHR.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
KLE.Title = sezKlinoHR;
|
|
text = Paragraph(['Klino Link HR is a sensor that integrates an electrolytic '...
|
|
'tilt sensor, able to measure the tilt of the element on which is installed. It also '...
|
|
'includes a thermometer to collect temperature values.']);
|
|
if KLHR == 0
|
|
text.HAlign = 'justify';
|
|
add(KLE,text);
|
|
imgKL = Image(('KlinoHR.png'));
|
|
imgKL.Style = {Height('4cm'),HAlign('center')};
|
|
add(KLE,imgKL);
|
|
KEcaption = Paragraph(['Fig. ' num2str(FIG) ' - Klino Link HR sensor']);
|
|
FIG = FIG+1;
|
|
KEcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(KLE,KEcaption);
|
|
KLHR = 1;
|
|
end
|
|
break
|
|
end
|
|
else
|
|
for aC = 1:dimC
|
|
if strcmp(colonna6{a, 1}{aC, 1},'Klino Link HR') == 1
|
|
if KLHR == 0
|
|
KLE = Section();
|
|
end
|
|
sezKlinoHR = Heading3('Klino Link HR');
|
|
sezKlinoHR.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
KLE.Title = sezKlinoHR;
|
|
text = Paragraph(['Klino Link HR is a sensor that integrates an electrolytic '...
|
|
'tilt sensor, able to measure the tilt of the element on which is installed. It also '...
|
|
'includes a thermometer to collect temperature values.']);
|
|
if KLHR == 0
|
|
text.HAlign = 'justify';
|
|
add(KLE,text);
|
|
imgKL = Image(('KlinoHR.png'));
|
|
imgKL.Style = {Height('4cm'),HAlign('center')};
|
|
add(KLE,imgKL);
|
|
KEcaption = Paragraph(['Fig. ' num2str(FIG) ' - Klino Link HR sensor']);
|
|
FIG = FIG+1;
|
|
KEcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(KLE,KEcaption);
|
|
KLHR = 1;
|
|
end
|
|
break
|
|
end
|
|
end
|
|
end
|
|
end
|
|
add(appendice,KLE);
|
|
end
|
|
|
|
% --- Therm Link ---
|
|
if sum(yesThL) >= 1
|
|
ThL = 0;
|
|
for a = 1:dim
|
|
[dimC,~] = size(colonna6{a,1});
|
|
if dimC == 1
|
|
if strcmp(colonna6(a,1),'Therm Link') == 1
|
|
if ThL == 0
|
|
ThE = Section();
|
|
end
|
|
sezTherm = Heading3('Therm Link');
|
|
sezTherm.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
ThE.Title = sezTherm;
|
|
text = Paragraph(['Therm Link sensor is composed of a thermometer featuring high accuracy and repeatability, '...
|
|
'able to measure temperature values at different depths by exploiting a single quadrupole cable, which '...
|
|
'connects different Links in a single chain.']);
|
|
if ThL == 0
|
|
text.HAlign = 'justify';
|
|
add(ThE,text);
|
|
imgThL = Image(('Tilt Link.jpg'));
|
|
imgThL.Style = {Height('5cm'),HAlign('center')};
|
|
add(ThE,imgThL);
|
|
ThEcaption = Paragraph(['Fig. ' num2str(FIG) ' - Therm Link sensor']);
|
|
FIG = FIG+1;
|
|
ThEcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(ThE,ThEcaption);
|
|
ThL = 1;
|
|
end
|
|
break
|
|
end
|
|
else
|
|
for aC = 1:dimC
|
|
if strcmp(colonna6{a, 1}{aC, 1},'Therm Link') == 1
|
|
if ThL == 0
|
|
ThE = Section();
|
|
end
|
|
sezTherm = Heading3('Therm Link');
|
|
sezTherm.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
ThE.Title = sezTherm;
|
|
text = Paragraph(['Therm Link sensor is composed of a thermometer featuring high accuracy and repeatability, '...
|
|
'able to measure temperature values at different depths by exploiting a single quadrupole cable, which '...
|
|
'connects different Links in a single chain.']);
|
|
if ThL == 0
|
|
text.HAlign = 'justify';
|
|
add(ThE,text);
|
|
imgThL = Image(('Tilt Link.jpg'));
|
|
imgThL.Style = {Height('5cm'),HAlign('center')};
|
|
add(ThE,imgThL);
|
|
ThEcaption = Paragraph(['Fig. ' num2str(FIG) ' - Therm Link sensor']);
|
|
FIG = FIG+1;
|
|
ThEcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(ThE,ThEcaption);
|
|
ThL = 1;
|
|
end
|
|
break
|
|
end
|
|
end
|
|
end
|
|
end
|
|
add(appendice,ThE);
|
|
end
|
|
|
|
% --- PT100 Link ---
|
|
if sum(yesPT100) >= 1
|
|
PT100 = 0;
|
|
for a = 1:dim
|
|
[dimC,~] = size(colonna6{a,1});
|
|
if dimC == 1
|
|
if strcmp(colonna6(a,1),'PT100 Link') == 1
|
|
if PT100 == 0
|
|
PT100E = Section();
|
|
end
|
|
sezPT100 = Heading3('PT100 Link');
|
|
sezPT100.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
PT100E.Title = sezPT100;
|
|
text = Paragraph(['PT100 is a platinum resistance thermometer that exploits the material resistivity '...
|
|
'variation to evaluate the temperature with a linear correlation. This type of sensor does not need '...
|
|
'any calibration.']);
|
|
if PT100 == 0
|
|
text.HAlign = 'justify';
|
|
add(PT100E,text);
|
|
imgPT100 = Image(('PT100.jpg'));
|
|
imgPT100.Style = {Height('3cm'),HAlign('center')};
|
|
add(PT100E,imgPT100);
|
|
PT100caption = Paragraph(['Fig. ' num2str(FIG) ' - PT100 Link sensor']);
|
|
FIG = FIG+1;
|
|
PT100caption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(PT100E,PT100caption);
|
|
PT100 = 1;
|
|
end
|
|
break
|
|
end
|
|
else
|
|
for aC = 1:dimC
|
|
if strcmp(colonna6{a, 1}{aC, 1},'PT100 Link') == 1
|
|
if PT100 == 0
|
|
PT100E = Section();
|
|
end
|
|
sezPT100 = Heading3('PT100 Link');
|
|
sezPT100.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
PT100E.Title = sezPT100;
|
|
text = Paragraph(['PT100 is a platinum resistance thermometer that exploits the material resistivity '...
|
|
'variation to evaluate the temperature with a linear correlation. This type of sensor does not need '...
|
|
'any calibration.']);
|
|
if PT100 == 0
|
|
text.HAlign = 'justify';
|
|
add(PT100E,text);
|
|
imgPT100 = Image(('PT100.jpg'));
|
|
imgPT100.Style = {Height('3cm'),HAlign('center')};
|
|
add(PT100E,imgPT100);
|
|
PT100caption = Paragraph(['Fig. ' num2str(FIG) ' - PT100 Link sensor']);
|
|
FIG = FIG+1;
|
|
PT100caption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(PT100E,PT100caption);
|
|
PT100 = 1;
|
|
end
|
|
break
|
|
end
|
|
end
|
|
end
|
|
end
|
|
add(appendice,PT100E);
|
|
end
|
|
|
|
% --- Tunnel Link ---
|
|
TuL = 0;
|
|
if sum(yesTuL) >= 1
|
|
for a = 1:dim
|
|
[dimC,~] = size(colonna6{a,1});
|
|
if dimC == 1
|
|
if strcmp(colonna6(a,1),'Tunnel Link') == 1
|
|
if TuL == 0
|
|
STu = Section();
|
|
end
|
|
sezTunnel = Heading3('Tunnel Link');
|
|
sezTunnel.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
STu.Title = sezTunnel;
|
|
text = Paragraph(['Each Tunnel Link features a 3D MEMS sensor, which equips an accelerometer '...
|
|
'and a thermometer. The first element is able to record the sensor tilt, '...
|
|
'while the second one provides the sensor temperature and it '...
|
|
'is used to correct the thermal effects on the accelerometer. From a theoretical point of view, '...
|
|
'MEMS features an infinite range of tilt measure, while small variations '...
|
|
'are influenced by electrical noises.']);
|
|
if TuL == 0
|
|
text.HAlign = 'justify';
|
|
add(STu,text);
|
|
img = Image(('Tunnel Link.png'));
|
|
img.Style = {Height('4.5cm'),HAlign('center')};
|
|
add(STu,img);
|
|
ionhcaption = Paragraph(['Fig. ' num2str(FIG) ' - Tunnel Link sensor']);
|
|
FIG = FIG+1;
|
|
ionhcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(STu,ionhcaption);
|
|
TuL = 1;
|
|
end
|
|
break
|
|
end
|
|
else
|
|
for aC = 1:dimC
|
|
if strcmp(colonna6{a, 1}{aC, 1},'Tunnel Link') == 1
|
|
if TuL == 0
|
|
STu = Section();
|
|
end
|
|
sezTunnel = Heading3('Tunnel Link');
|
|
sezTunnel.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
STu.Title = sezTunnel;
|
|
text = Paragraph(['Each Tunnel Link features a 3D MEMS sensor, which equips an accelerometer '...
|
|
'and a thermometer. The first element is able to record the sensor tilt, '...
|
|
'while the second one provides the sensor temperature and it '...
|
|
'is used to correct the thermal effects on the accelerometer. From a theoretical point of view, '...
|
|
'MEMS features an infinite range of tilt measure, while small variations '...
|
|
'are influenced by electrical noises.']);
|
|
if TuL == 0
|
|
text.HAlign = 'justify';
|
|
add(STu,text);
|
|
img = Image(('Tunnel Link.png'));
|
|
img.Style = {Height('4.5cm'),HAlign('center')};
|
|
add(STu,img);
|
|
ionhcaption = Paragraph(['Fig. ' num2str(FIG) ' - Tunnel Link sensor']);
|
|
FIG = FIG+1;
|
|
ionhcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(STu,ionhcaption);
|
|
TuL = 1;
|
|
end
|
|
break
|
|
end
|
|
end
|
|
end
|
|
end
|
|
add(appendice,STu);
|
|
end
|
|
|
|
% --- Radial Link ---
|
|
RaL = 0;
|
|
if sum(yesRaL) >= 1
|
|
for a = 1:dim
|
|
[dimC,~] = size(colonna6{a,1});
|
|
if dimC == 1
|
|
if strcmp(colonna6(a,1),'Radial Link') == 1
|
|
if RaL == 0
|
|
SRaL = Section();
|
|
end
|
|
sezRadial = Heading3('Radial Link');
|
|
sezRadial.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
SRaL.Title = sezRadial;
|
|
text = Paragraph(['Each Radial Link features a 3D MEMS sensor, which equips an accelerometer '...
|
|
'and a thermometer. The first element is able to record the sensor tilt, '...
|
|
'while the second one provides the sensor temperature and it '...
|
|
'is used to correct the thermal effects on the accelerometer. From a theoretical point of view, '...
|
|
'MEMS features an infinite range of tilt measure, while small variations '...
|
|
'are influenced by electrical noises.']);
|
|
if RaL == 0
|
|
text.HAlign = 'justify';
|
|
add(SRaL,text);
|
|
img = Image(('Tunnel Link.png'));
|
|
img.Style = {Height('4.5cm'),HAlign('center')};
|
|
add(SRaL,img);
|
|
ionhcaption = Paragraph(['Fig. ' num2str(FIG) ' - Radial Link sensor']);
|
|
FIG = FIG+1;
|
|
ionhcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(SRaL,ionhcaption);
|
|
RaL = 1;
|
|
end
|
|
break
|
|
end
|
|
else
|
|
for aC = 1:dimC
|
|
if strcmp(colonna6{a, 1}{aC, 1},'Radial Link') == 1
|
|
if RaL == 0
|
|
SRaL = Section();
|
|
end
|
|
sezRadial = Heading3('Radial Link');
|
|
sezRadial.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
SRaL.Title = sezRadial;
|
|
text = Paragraph(['Each Radial Link features a 3D MEMS sensor, which equips an accelerometer '...
|
|
'and a thermometer. The first element is able to record the sensor tilt, '...
|
|
'while the second one provides the sensor temperature and it '...
|
|
'is used to correct the thermal effects on the accelerometer. From a theoretical point of view, '...
|
|
'MEMS features an infinite range of tilt measure, while small variations '...
|
|
'are influenced by electrical noises.']);
|
|
if RaL == 0
|
|
text.HAlign = 'justify';
|
|
add(SRaL,text);
|
|
img = Image(('Tunnel Link.png'));
|
|
img.Style = {Height('4.5cm'),HAlign('center')};
|
|
add(SRaL,img);
|
|
ionhcaption = Paragraph(['Fig. ' num2str(FIG) ' - Radial Link sensor']);
|
|
FIG = FIG+1;
|
|
ionhcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(SRaL,ionhcaption);
|
|
RaL = 1;
|
|
end
|
|
break
|
|
end
|
|
end
|
|
end
|
|
end
|
|
add(appendice,SRaL);
|
|
end
|
|
|
|
% --- PreConv Link ---
|
|
PCL = 0;
|
|
if sum(yesPCL) >= 1
|
|
for a = 1:dim
|
|
[dimC,~] = size(colonna6{a,1});
|
|
if dimC == 1
|
|
if strcmp(colonna6(a,1),'PreConv Link') == 1
|
|
if PCL == 0
|
|
SPCL = Section();
|
|
end
|
|
sezPCL = Heading3('PreConv Link');
|
|
sezPCL.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
SPCL.Title = sezPCL;
|
|
text = Paragraph(['Each PreConv Link features a 3D MEMS sensor, which equips an accelerometer '...
|
|
'and a thermometer. The first element is able to record the sensor tilt, '...
|
|
'while the second one provides the sensor temperature and it '...
|
|
'is used to correct the thermal effects on the accelerometer. From a theoretical point of view, '...
|
|
'MEMS features an infinite range of tilt measure, while small variations '...
|
|
'are influenced by electrical noises.']);
|
|
if PCL == 0
|
|
text.HAlign = 'justify';
|
|
add(SPCL,text);
|
|
img = Image(('Klino.png'));
|
|
img.Style = {Height('4cm'),HAlign('center')};
|
|
add(SPCL,img);
|
|
ionhcaption = Paragraph(['Fig. ' num2str(FIG) ' - PreConv Link sensor']);
|
|
FIG = FIG+1;
|
|
ionhcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(SPCL,ionhcaption);
|
|
PCL = 1;
|
|
end
|
|
break
|
|
end
|
|
else
|
|
for aC = 1:dimC
|
|
if strcmp(colonna6{a, 1}{aC, 1},'PreConv Link') == 1
|
|
if PCL == 0
|
|
SPCL = Section();
|
|
end
|
|
sezPCL = Heading3('PreConv Link');
|
|
sezPCL.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
SPCL.Title = sezPCL;
|
|
text = Paragraph(['Each PreConv Link features a 3D MEMS sensor, which equips an accelerometer '...
|
|
'and a thermometer. The first element is able to record the sensor tilt, '...
|
|
'while the second one provides the sensor temperature and it '...
|
|
'is used to correct the thermal effects on the accelerometer. From a theoretical point of view, '...
|
|
'MEMS features an infinite range of tilt measure, while small variations '...
|
|
'are influenced by electrical noises.']);
|
|
if PCL == 0
|
|
text.HAlign = 'justify';
|
|
add(SPCL,text);
|
|
img = Image(('Klino.png'));
|
|
img.Style = {Height('4cm'),HAlign('center')};
|
|
add(SPCL,img);
|
|
ionhcaption = Paragraph(['Fig. ' num2str(FIG) ' - PreConv Link sensor']);
|
|
FIG = FIG+1;
|
|
ionhcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(SPCL,ionhcaption);
|
|
PCL = 1;
|
|
end
|
|
break
|
|
end
|
|
end
|
|
end
|
|
end
|
|
add(appendice,SPCL);
|
|
end
|
|
|
|
% --- Rain Link ---
|
|
if sum(yesRL) >= 1
|
|
RL = 0;
|
|
for a = 1:dim
|
|
[dimC,~] = size(colonna6{a,1});
|
|
if dimC == 1
|
|
if strcmp(colonna6(a,1),'Rain Link') == 1
|
|
if RL == 0
|
|
RLE = Section();
|
|
end
|
|
sezRain = Heading3('Rain Link');
|
|
sezRain.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
RLE.Title = sezRain;
|
|
text = Paragraph(['Rain Link is a rain gauge sensor able to collect rainfall data '...
|
|
'with a predefined sampling period.']);
|
|
if RL == 0
|
|
text.HAlign = 'justify';
|
|
add(RLE,text);
|
|
imgRL = Image(('Rain.png'));
|
|
imgRL.Style = {Height('3.5cm'),HAlign('center')};
|
|
add(RLE,imgRL);
|
|
REcaption = Paragraph(['Fig. ' num2str(FIG) ' - Rain Link sensor']);
|
|
FIG = FIG+1;
|
|
REcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(RLE,REcaption);
|
|
RL = 1;
|
|
end
|
|
break
|
|
end
|
|
else
|
|
for aC = 1:dimC
|
|
if strcmp(colonna6{a, 1}{aC, 1},'Rain Link') == 1
|
|
if RL == 0
|
|
RLE = Section();
|
|
end
|
|
sezRain = Heading3('Rain Link');
|
|
sezRain.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
RLE.Title = sezRain;
|
|
text = Paragraph(['Rain Link is a rain gauge sensor able to collect rainfall data '...
|
|
'with a predefined sampling period.']);
|
|
if RL == 0
|
|
text.HAlign = 'justify';
|
|
add(RLE,text);
|
|
imgRL = Image(('Rain.png'));
|
|
imgRL.Style = {Height('3.5cm'),HAlign('center')};
|
|
add(RLE,imgRL);
|
|
REcaption = Paragraph(['Fig. ' num2str(FIG) ' - Rain Link sensor']);
|
|
FIG = FIG+1;
|
|
REcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(RLE,REcaption);
|
|
RL = 1;
|
|
end
|
|
break
|
|
end
|
|
end
|
|
end
|
|
end
|
|
add(appendice,RLE);
|
|
end
|
|
|
|
% --- Crack Link ---
|
|
if sum(yesCrL) >= 1
|
|
CrL = 0;
|
|
for a = 1:dim
|
|
[dimC,~] = size(colonna6{a,1});
|
|
if dimC == 1
|
|
if strcmp(colonna6(a,1),'Crack Link') == 1
|
|
if CrL == 0
|
|
CrE = Section();
|
|
end
|
|
sezCrack = Heading3('Crack Link');
|
|
sezCrack.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
CrE.Title = sezCrack;
|
|
text = Paragraph(['Crack Link sensor is an analog crack meter, read by implementing '...
|
|
'a GMUX module able to convert its signal into a digital one, or by connecting it to a dedicated ASE201 '...
|
|
'control unit. Crack meters are located across surface cracks, or in specific areas '...
|
|
'where the generation of surface fissures is expected.']);
|
|
if CrL == 0
|
|
text.HAlign = 'justify';
|
|
add(CrE,text);
|
|
imgKL = Image(('Crack.jpg'));
|
|
imgKL.Style = {Height('5cm'),HAlign('center')};
|
|
add(CrE,imgKL);
|
|
KEcaption = Paragraph(['Fig. ' num2str(FIG) ' - Crack Link sensor']);
|
|
FIG = FIG+1;
|
|
KEcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(CrE,KEcaption);
|
|
CrL = 1;
|
|
end
|
|
break
|
|
end
|
|
else
|
|
for aC = 1:dimC
|
|
if strcmp(colonna6{a, 1}{aC, 1},'Crack Link') == 1
|
|
if CrL == 0
|
|
CrE = Section();
|
|
end
|
|
sezCrack = Heading3('Crack Link');
|
|
sezCrack.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
CrE.Title = sezCrack;
|
|
text = Paragraph(['Crack Link sensor is an analog crack meter, read by implementing '...
|
|
'a GMUX module able to convert its signal into a digital one, or by connecting it to a dedicated ASE201 '...
|
|
'control unit. Crack meters are located across surface cracks, or in specific areas '...
|
|
'where the generation of surface fissures is expected.']);
|
|
if CrL == 0
|
|
text.HAlign = 'justify';
|
|
add(CrE,text);
|
|
imgKL = Image(('Crack.jpg'));
|
|
imgKL.Style = {Height('5cm'),HAlign('center')};
|
|
add(CrE,imgKL);
|
|
KEcaption = Paragraph(['Fig. ' num2str(FIG) ' - Crack Link sensor']);
|
|
FIG = FIG+1;
|
|
KEcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(CrE,KEcaption);
|
|
CrL = 1;
|
|
end
|
|
break
|
|
end
|
|
end
|
|
end
|
|
end
|
|
add(appendice,CrE);
|
|
end
|
|
|
|
% --- 3D Crack Link ---
|
|
if sum(yes3DCrL) >= 1
|
|
CrL3D = 0;
|
|
for a = 1:dim
|
|
[dimC,~] = size(colonna6{a,1});
|
|
if dimC == 1
|
|
if strcmp(colonna6(a,1),'3D Crack Link') == 1
|
|
if CrL3D == 0
|
|
Cr3DE = Section();
|
|
end
|
|
sezCrack3D = Heading3('3D Crack Link');
|
|
sezCrack3D.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
Cr3DE.Title = sezCrack3D;
|
|
text = Paragraph(['3D Crack Link sensor is a three-dimension analog crack meter, read by implementing '...
|
|
'a GMUX module able to convert its signal into a digital one, or by connecting it to a dedicated ASE201 '...
|
|
'control unit. 3D Crack meters are located across surface cracks, or in specific areas '...
|
|
'where the generation of surface fissures is expected.']);
|
|
if CrL3D == 0
|
|
text.HAlign = 'justify';
|
|
add(Cr3DE,text);
|
|
imgKL = Image(('3DCrack.jpg'));
|
|
imgKL.Style = {Height('5cm'),HAlign('center')};
|
|
add(Cr3DE,imgKL);
|
|
KEcaption = Paragraph(['Fig. ' num2str(FIG) ' - 3D Crack Link sensor (source: Pizzi Instruments)']);
|
|
FIG = FIG+1;
|
|
KEcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(Cr3DE,KEcaption);
|
|
CrL3D = 1;
|
|
end
|
|
break
|
|
end
|
|
else
|
|
for aC = 1:dimC
|
|
if strcmp(colonna6{a, 1}{aC, 1},'3D Crack Link') == 1
|
|
if CrL3D == 0
|
|
Cr3DE = Section();
|
|
end
|
|
sezCrack3D = Heading3('3D Crack Link');
|
|
sezCrack3D.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
Cr3DE.Title = sezCrack3D;
|
|
text = Paragraph(['3D Crack Link sensor is a three-dimension analog crack meter, read by implementing '...
|
|
'a GMUX module able to convert its signal into a digital one, or by connecting it to a dedicated ASE201 '...
|
|
'control unit. 3D Crack meters are located across surface cracks, or in specific areas '...
|
|
'where the generation of surface fissures is expected.']);
|
|
if CrL3D == 0
|
|
text.HAlign = 'justify';
|
|
add(Cr3DE,text);
|
|
imgKL = Image(('3DCrack.jpg'));
|
|
imgKL.Style = {Height('5cm'),HAlign('center')};
|
|
add(Cr3DE,imgKL);
|
|
KEcaption = Paragraph(['Fig. ' num2str(FIG) ' - 3D Crack Link sensor (source: Pizzi Instruments)']);
|
|
FIG = FIG+1;
|
|
KEcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(Cr3DE,KEcaption);
|
|
CrL3D = 1;
|
|
end
|
|
break
|
|
end
|
|
end
|
|
end
|
|
end
|
|
add(appendice,Cr3DE);
|
|
end
|
|
|
|
% --- Extensometer Link ---
|
|
if sum(yesEL) >= 1
|
|
EL = 0;
|
|
for a = 1:dim
|
|
[dimC,~] = size(colonna6{a,1});
|
|
if dimC == 1
|
|
if strcmp(colonna6(a,1),'Extensometer Link') == 1
|
|
if EL == 0
|
|
EE = Section();
|
|
end
|
|
sezExtensometer = Heading3('Extensometer Link');
|
|
sezExtensometer.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
EE.Title = sezExtensometer;
|
|
text = Paragraph(['Extensometer Link is a sensor composed of an analog extensometer, read by implementing '...
|
|
'a GMUX module able to convert its signal into a digital one, or by connecting it to a dedicated ASE201 '...
|
|
'control unit. Extensometers are located in specific areas in order to '...
|
|
'detect the formation of micro-fractures, which are measured with a parameter that depends on the '...
|
|
'length of the monitoring tool.']);
|
|
if EL == 0
|
|
text.HAlign = 'justify';
|
|
add(EE,text);
|
|
imgKL = Image(('Extensometer.png'));
|
|
imgKL.Style = {Height('3cm'),HAlign('center')};
|
|
add(EE,imgKL);
|
|
KEcaption = Paragraph(['Fig. ' num2str(FIG) ' - Extensometer Link sensor (fonte: Earth System)']);
|
|
FIG = FIG+1;
|
|
KEcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(EE,KEcaption);
|
|
EL = 1;
|
|
end
|
|
break
|
|
end
|
|
else
|
|
for aC = 1:dimC
|
|
if strcmp(colonna6{a, 1}{aC, 1},'Extensometer Link') == 1
|
|
if EL == 0
|
|
EE = Section();
|
|
end
|
|
sezExtensometer = Heading3('Extensometer Link');
|
|
sezExtensometer.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
EE.Title = sezExtensometer;
|
|
text = Paragraph(['Extensometer Link is a sensor composed of an analog extensometer, read by implementing '...
|
|
'a GMUX module able to convert its signal into a digital one, or by connecting it to a dedicated ASE201 '...
|
|
'control unit. Extensometers are located in specific areas in order to '...
|
|
'detect the formation of micro-fractures, which are measured with a parameter that depends on the '...
|
|
'length of the monitoring tool.']);
|
|
if EL == 0
|
|
text.HAlign = 'justify';
|
|
add(EE,text);
|
|
imgKL = Image(('Extensometer.png'));
|
|
imgKL.Style = {Height('3cm'),HAlign('center')};
|
|
add(EE,imgKL);
|
|
KEcaption = Paragraph(['Fig. ' num2str(FIG) ' - Extensometer Link sensor (fonte: Earth System)']);
|
|
FIG = FIG+1;
|
|
KEcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(EE,KEcaption);
|
|
EL = 1;
|
|
end
|
|
break
|
|
end
|
|
end
|
|
end
|
|
end
|
|
add(appendice,EE);
|
|
end
|
|
|
|
% --- 3D Extensometer Link ---
|
|
if sum(yes3DEL) >= 1
|
|
EL3D = 0;
|
|
for a = 1:dim
|
|
[dimC,~] = size(colonna6{a,1});
|
|
if dimC == 1
|
|
if strcmp(colonna6(a,1),'3D Extensometer Link') == 1
|
|
if EL3D == 0
|
|
EE = Section();
|
|
end
|
|
sez3DExtensometer = Heading3('3D Extensometer Link');
|
|
sez3DExtensometer.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
EE.Title = sez3DExtensometer;
|
|
text = Paragraph(['3D Extensometer Link is a sensor composed of three analog strain gauges, read by implementing '...
|
|
'a GMUX module able to convert its signal into a digital one, or by connecting it to a dedicated ASE201 '...
|
|
'control unit. Strain gauges are located in specific areas in order to '...
|
|
'detect the formation of micro-fractures, which are measured with a parameter that depends on the '...
|
|
'length of the monitoring tool.']);
|
|
if EL3D == 0
|
|
text.HAlign = 'justify';
|
|
add(EE,text);
|
|
imgKL = Image(('3DExtensometer.png'));
|
|
imgKL.Style = {Height('4cm'),HAlign('center')};
|
|
add(EE,imgKL);
|
|
KEcaption = Paragraph(['Fig. ' num2str(FIG) ' - 3D Extensometer Link sensor (source: Earth System)']);
|
|
FIG = FIG+1;
|
|
KEcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(EE,KEcaption);
|
|
EL3D = 1;
|
|
end
|
|
break
|
|
end
|
|
else
|
|
for aC = 1:dimC
|
|
if strcmp(colonna6{a, 1}{aC, 1},'3D Extensometer Link') == 1
|
|
if EL3D == 0
|
|
EE = Section();
|
|
end
|
|
sez3DExtensometer = Heading3('3D Extensometer Link');
|
|
sez3DExtensometer.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
EE.Title = sez3DExtensometer;
|
|
text = Paragraph(['3D Extensometer Link is a sensor composed of three analog strain gauges, read by implementing '...
|
|
'a GMUX module able to convert its signal into a digital one, or by connecting it to a dedicated ASE201 '...
|
|
'control unit. Strain gauges are located in specific areas in order to '...
|
|
'detect the formation of micro-fractures, which are measured with a parameter that depends on the '...
|
|
'length of the monitoring tool.']);
|
|
if EL3D == 0
|
|
text.HAlign = 'justify';
|
|
add(EE,text);
|
|
imgKL = Image(('3DExtensometer.png'));
|
|
imgKL.Style = {Height('4cm'),HAlign('center')};
|
|
add(EE,imgKL);
|
|
KEcaption = Paragraph(['Fig. ' num2str(FIG) ' - 3D Extensometer Link sensor (source: Earth System)']);
|
|
FIG = FIG+1;
|
|
KEcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(EE,KEcaption);
|
|
EL3D = 1;
|
|
end
|
|
break
|
|
end
|
|
end
|
|
end
|
|
end
|
|
add(appendice,EE);
|
|
end
|
|
|
|
% --- Wire Extensometer Link ---
|
|
if sum(yesWEL) >= 1
|
|
WEL = 0;
|
|
for a = 1:dim
|
|
[dimC,~] = size(colonna6{a,1});
|
|
if dimC == 1
|
|
if strcmp(colonna6(a,1),'Wire Extensometer Link') == 1
|
|
if WEL == 0
|
|
EE = Section();
|
|
end
|
|
sezWireExtensometer = Heading3('Wire Extensometer Link');
|
|
sezWireExtensometer.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
EE.Title = sezWireExtensometer;
|
|
text = Paragraph(['Wire Extensometer Link is an analog wire extensometer sensor, read by implementing '...
|
|
'a GMUX module able to convert its signal into a digital one, or by connecting it to a dedicated ASE201 '...
|
|
'control unit. The device is placed in specific areas where fissures are observed, by installing the '...
|
|
'base on one side and fixing the wire on the other one. The aim is to determine the crack opening/closing '...
|
|
'according to the wire length variation.']);
|
|
if WEL == 0
|
|
text.HAlign = 'justify';
|
|
add(EE,text);
|
|
imgKL = Image(('wire.png'));
|
|
imgKL.Style = {Height('4cm'),HAlign('center')};
|
|
add(EE,imgKL);
|
|
KEcaption = Paragraph(['Fig. ' num2str(FIG) ' - Wire Extensometer Link sensor (source: Earth System)']);
|
|
FIG = FIG+1;
|
|
KEcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(EE,KEcaption);
|
|
WEL = 1;
|
|
end
|
|
break
|
|
end
|
|
else
|
|
for aC = 1:dimC
|
|
if strcmp(colonna6{a, 1}{aC, 1},'Wire Extensometer Link') == 1
|
|
if WEL == 0
|
|
EE = Section();
|
|
end
|
|
sezWireExtensometer = Heading3('Wire Extensometer Link');
|
|
sezWireExtensometer.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
EE.Title = sezWireExtensometer;
|
|
text = Paragraph(['Wire Extensometer Link is an analog wire extensometer sensor, read by implementing '...
|
|
'a GMUX module able to convert its signal into a digital one, or by connecting it to a dedicated ASE201 '...
|
|
'control unit. The device is placed in specific areas where fissures are observed, by installing the '...
|
|
'base on one side and fixing the wire on the other one. The aim is to determine the crack opening/closing '...
|
|
'according to the wire length variation.']);
|
|
if WEL == 0
|
|
text.HAlign = 'justify';
|
|
add(EE,text);
|
|
imgKL = Image(('wire.png'));
|
|
imgKL.Style = {Height('4cm'),HAlign('center')};
|
|
add(EE,imgKL);
|
|
KEcaption = Paragraph(['Fig. ' num2str(FIG) ' - Wire Extensometer Link sensor (source: Earth System)']);
|
|
FIG = FIG+1;
|
|
KEcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(EE,KEcaption);
|
|
WEL = 1;
|
|
end
|
|
break
|
|
end
|
|
end
|
|
end
|
|
end
|
|
add(appendice,EE);
|
|
end
|
|
|
|
% --- MultiPoint Borehole Extensometer ---
|
|
if sum(yesMPBEL) >= 1
|
|
MPBEL = 0;
|
|
for a = 1:dim
|
|
[dimC,~] = size(colonna6{a,1});
|
|
if dimC == 1
|
|
if strcmp(colonna6(a,1),'Multi Point Borehole Extensometer Link') == 1
|
|
if MPBEL == 0
|
|
EE = Section();
|
|
end
|
|
sezMPBEL = Heading3('Multi Point Borehole Rod Extensometer');
|
|
sezMPBEL.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
EE.Title = sezMPBEL;
|
|
text = Paragraph(['Multi Point Borehole Extensometer Link is an analog multi point borehole rod extensometer (MPBX) '...
|
|
'sensor, read by implementing '...
|
|
'a GMUX module able to convert its signal into a digital one, or by connecting it to a dedicated ASE201 '...
|
|
'control unit. The device is placed inside radial drilling and it features one or more anchors in different positions. '...
|
|
'The tool allow to determine the ares experiencing higher deformations by comparing data coming from different anchors.']);
|
|
if MPBEL == 0
|
|
text.HAlign = 'justify';
|
|
add(EE,text);
|
|
imgKL = Image(('MPBEL.png'));
|
|
imgKL.Style = {Height('4cm'),HAlign('center')};
|
|
add(EE,imgKL);
|
|
KEcaption = Paragraph(['Fig. ' num2str(FIG) ' - Multi Point Borehole Extensometer Link (source: Earth System)']);
|
|
FIG = FIG+1;
|
|
KEcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(EE,KEcaption);
|
|
MPBEL = 1;
|
|
end
|
|
break
|
|
end
|
|
else
|
|
for aC = 1:dimC
|
|
if strcmp(colonna6{a, 1}{aC, 1},'Multi Point Borehole Extensometer Link') == 1
|
|
if MPBEL == 0
|
|
EE = Section();
|
|
end
|
|
sezMPBEL = Heading3('Multi Point Borehole Rod Extensometer');
|
|
sezMPBEL.Style = {OuterMargin('0in','0in','0.15in','0in'),FontSize(Font_tools),Bold(1),Italic(1)};
|
|
EE.Title = sezMPBEL;
|
|
text = Paragraph(['Multi Point Borehole Extensometer Link is an analog multi point borehole rod extensometer (MPBX) '...
|
|
'sensor, read by implementing '...
|
|
'a GMUX module able to convert its signal into a digital one, or by connecting it to a dedicated ASE201 '...
|
|
'control unit. The device is placed inside radial drilling and it features one or more anchors in different positions. '...
|
|
'The tool allow to determine the ares experiencing higher deformations by comparing data coming from different anchors.']);
|
|
if MPBEL == 0
|
|
text.HAlign = 'justify';
|
|
add(EE,text);
|
|
imgKL = Image(('MPBEL.png'));
|
|
imgKL.Style = {Height('4cm'),HAlign('center')};
|
|
add(EE,imgKL);
|
|
KEcaption = Paragraph(['Fig. ' num2str(FIG) ' - Multi Point Borehole Extensometer Link (source: Earth System)']);
|
|
FIG = FIG+1;
|
|
KEcaption.Style = {HAlign('center'),FontSize(Font_caption),Italic(1),Color('midnightblue')};
|
|
add(EE,KEcaption);
|
|
MPBEL = 1;
|
|
end
|
|
break
|
|
end
|
|
end
|
|
end
|
|
end
|
|
add(appendice,EE);
|
|
end
|
|
|
|
add(rpt,appendice);
|
|
template(rpt);
|
|
|
|
fileID = fopen(FileName,'a');
|
|
fmt = '%s \r';
|
|
text = 'report_appendix_ENG function executed correctly';
|
|
fprintf(fileID,fmt,text);
|
|
fclose(fileID);
|
|
|
|
end |