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author Daniele Nicolodi <nicolodi@science.unitn.it>
date Wed, 23 Nov 2011 19:22:13 +0100
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1 <?xml version="1.0" encoding="utf-8"?>
2 <LTPDAworkbench filepath="/Users/hewitson/working/ltp/ltpda/software/m-toolbox/test/MPipeline/ssmtest.lwb" name="ssmtest.lwb*">
3 <document name="SSM pipeline">
4 <block bounds="0 0 110 100" inputs="1" name="DFACS" outputs="1">
5 <LTPDAalgorithm mcategory="Constructor" mclass="ssm" mname="ssm" mpackage="" mversion="" portdims="1 10 1 10">
6 <HelpText> SSM statespace model class constructor.
7
8 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
9
10 DESCRIPTION: SSM statespace model class constructor.
11
12 ** This class is written using the new OO structures of MATLAB R2008a and
13 will not work with earlier MATLAB versions.
14
15 Public properties (read-only):
16
17 Public properties (read/write):
18 name - name of analysis object
19
20 Possible constructors:
21
22 s = ssm() - creates an empty statespace model
23 s = ssm('a1.xml') - creates a new statespace model by loading the
24 object from disk.
25 s = ssm('a1.mat') - creates a new statespace model by loading the
26 object from disk.
27 a = ssm(plist) - creates a statespace model from the description
28 given in the parameter list
29 a = ssm(struct) - creates a statespace model from the
30 structure returned by struct(ssm).
31
32 Parameter sets for plist constructor (in order of priority):
33
34 From XML File
35 -------------
36 Construct a statespace model by loading it from an XML file.
37
38 'filename' - construct a statespace model from a filename.
39 Example: plist('filename', 'ss1.xml')
40 [default: empty string]
41
42 From MAT File
43 -------------
44 Construct a statespace model by loading it from a MAT file.
45
46 'filename' - construct a statespace model from a filename.
47 Example: plist('filename', 'ss1.mat')
48 [default: empty string]
49
50 From Built-in System
51 ----------------
52 Construct a statespace model by specifying one of the built-in system
53 names. Built-in models are stored in directories specified by
54 SSM_MODELS in ltpda_startup. You can list multiple directories. A
55 built-in model m-file must follow the naming convention ssm_model_*.m.
56
57 'Buit-in' - A system name.
58 Example: plist('filename', 'model_LPF_Dynamics_noparams')
59 Example: plist('Built-in', ' ')
60 will show the names of all the existing systems
61
62 'dim' - Optional parameter to reduce the model to 1, 3, or 6
63 dimension. [Default: empty [] - return full model]
64
65 From Repository
66 ---------------
67 Construct a statespace model by retrieving it from an LTPDA repository.
68
69 'Hostname' - the repository hostname. Only those objects which
70 are statespace models are returned.
71 [default: 'localhost'];
72
73 Additional parameters:
74
75 'Database' - The database name [default: 'ltpda']
76 'ID' - A vector of object IDs. [default: []]
77 'CID' - Retrieve all SSM objects from a particular
78 collection.
79
80 From a Miir
81 ---------------
82 Construct a statespace model out of a MIIR object.
83
84 example : sys = ssm(themiir);
85
86 From PZ model
87 ---------------
88 Construct a statespace model by retrieving it from an LTPDA repository.
89
90 example : sys=ssm(thepzmodel);
91
92
93 From Description
94 ----------------
95 Construct a statespace model from a full description of the system.
96
97 'isADescription' &gt;&gt; special filed to tell the constructor which set to use
98
99 compulsory fields:
100 'name','ssnames', 'outputnames', 'inputnames', 'timestep', 'amats', ...
101 'bmats', 'cmats', 'dmats', 'paramnames', 'paramvalues'
102
103 optionnals fields :
104 'mmats' 'amats_handles' 'bmats_handles' 'cmats_handles' 'dmats_handles'...
105 'inputvarnames' 'ssvarnames' 'outputvarnames' 'paramsigmas'
106
107 example :
108 name = 'sys';
109 ssnames = {'ss1' 'ss2' 'ss3'};
110 ssvarnames = {{'ssvar1'} {'ssvar2'} {'ssvar31' 'ssvar32'}};
111 inputnames = {'input1' 'input2' 'input3'};
112 inputvarnames = {{'inputvar1'} {'inputvar2'} {'inputvar31' 'inputvar32'}};
113 outputnames = {'output1' 'output2' 'output3'};
114 outputvarnames = {{'outputvar1'} {'outputvar2'} {'outputvar31' 'outputvar32'}};
115 timestep = 0;
116 paramnames = {};
117 paramvalues = [];
118 amats = cell(3,3);
119 bmats = cell(3,3);
120 cmats = cell(3,3);
121 dmats = cell(3,3);
122 amats{1,1} = -1;
123 amats{2,2} = -2;
124 amats{3,3} = -3*eye(2);
125 amats{3,1} = [-1;-3];
126 bmats{1,1} = 1;
127 bmats{2,2} = 2;
128 bmats{3,3} = 3*eye(2);
129 cmats{1,1} = 1;
130 cmats{2,2} = 1;
131 cmats{3,3} = eye(2);
132 dmats{1,3} = [6 6];
133 dmats{2,1} = 6;
134 dmats{3,2} = [6;6];
135 sys = ssm(plist('isADescription', '' ,'name', name , ...
136 'timestep', timestep , 'paramnames', paramnames ,'paramvalues', paramvalues ,...
137 'inputnames', inputnames , 'outputnames',outputnames ,'ssnames', ssnames,...
138 'inputvarnames', inputvarnames , 'outputvarnames',outputvarnames ,'ssvarnames', ssvarnames,...
139 'amats', amats ,'bmats', bmats ,'cmats', cmats ,'dmats', dmats ));
140
141
142 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
143 </HelpText>
144 <sets>
145 <set name="Default"/>
146 <set name="From XML File"/>
147 <set name="From MAT File"/>
148 <set name="From Built-in Model"/>
149 <set name="From Description"/>
150 <set name="From Plist"/>
151 <set name="From Repository"/>
152 <set name="From Pzmodel"/>
153 <set name="From Miir"/>
154 </sets>
155 <plists>
156 <plist name="none"/>
157 <plist name="none">
158 <param>
159 <key>FILENAME</key>
160 <val/>
161 <type>char</type>
162 </param>
163 </plist>
164 <plist name="none">
165 <param>
166 <key>FILENAME</key>
167 <val/>
168 <type>char</type>
169 </param>
170 </plist>
171 <plist name="none">
172 <param>
173 <key>BUILT-IN</key>
174 <val/>
175 <type>char</type>
176 </param>
177 <param>
178 <key>DIM</key>
179 <val>3</val>
180 <type>double</type>
181 </param>
182 <param>
183 <key>WITHPARAMS</key>
184 <val>true</val>
185 <type>logical</type>
186 </param>
187 </plist>
188 <plist name="none"/>
189 <plist name="none">
190 <param>
191 <key>PLIST</key>
192 <val>(empty-plist)</val>
193 <type>plist</type>
194 </param>
195 </plist>
196 <plist name="none">
197 <param>
198 <key>HOSTNAME</key>
199 <val>localhost</val>
200 <type>char</type>
201 </param>
202 <param>
203 <key>DATABASE</key>
204 <val>ltpda</val>
205 <type>char</type>
206 </param>
207 <param>
208 <key>ID</key>
209 <val>[]</val>
210 <type>double</type>
211 </param>
212 </plist>
213 <plist name="none">
214 <param>
215 <key>PZMODEL</key>
216 <val>pzmodel(none)</val>
217 <type>pzmodel</type>
218 </param>
219 </plist>
220 <plist name="none">
221 <param>
222 <key>MIIR</key>
223 <val>none(fs=, ntaps=0.00, a=[], b=[])</val>
224 <type>miir</type>
225 </param>
226 </plist>
227 </plists>
228 </LTPDAalgorithm>
229 <plist name="none">
230 <param>
231 <key>BUILT-IN</key>
232 <val>DFACS_5_Science_Mode_1_All_Optical_Readouts</val>
233 <type>char</type>
234 </param>
235 <param>
236 <key>DIM</key>
237 <val>1</val>
238 <type>double</type>
239 </param>
240 <param>
241 <key>WITHPARAMS</key>
242 <val>true</val>
243 <type>logical</type>
244 </param>
245 </plist>
246 <port number="0" type="output">
247 <node>
248 <pipe dstblock="set DFACS name" dstport="0" srcblock="DFACS"/>
249 </node>
250 </port>
251 </block>
252 <block bounds="150 0 110 100" inputs="1" name="set DFACS name" outputs="1">
253 <LTPDAalgorithm mcategory="Helper" mclass="ltpda_uoh" mname="setName" mpackage="" mversion="" portdims="1 10 1 10">
254 <HelpText> SETNAME Set the property 'name'.
255 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
256
257 DESCRIPTION: Set the property 'name'.
258
259 CALL: obj = obj.setName('new name');
260 obj = obj.setName(plist('name', 'new name'));
261 obj = setName(obj, 'new name');
262 obj = setName();
263
264 EXAMPLE: obj.setName -&gt; Sets the name to the variable name.
265 In this case to 'obj'
266
267 INPUTS: obj - can be a vector, matrix, list, or a mix of them.
268 pl - to set the name with a plist specify only one plist with
269 only one key-word 'name'.
270
271 M-FILE INFO: Get information about this methods by calling
272 &gt;&gt; ao.getInfo('setName')
273
274 Get information about a specified set-plist by calling:
275 &gt;&gt; ao.getInfo('setName', 'set')
276
277 VERSION: $Id: ssmtest.lwb,v 1.1 2009/01/13 12:39:16 hewitson Exp $
278
279 HISTORY: 27-05-2008 Diepholz
280 Creation
281
282 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
283 </HelpText>
284 <sets>
285 <set name="Default"/>
286 </sets>
287 <plists>
288 <plist name="none">
289 <param>
290 <key>NAME</key>
291 <val/>
292 <type>char</type>
293 </param>
294 </plist>
295 </plists>
296 </LTPDAalgorithm>
297 <plist name="none">
298 <param>
299 <key>NAME</key>
300 <val/>
301 <type>char</type>
302 </param>
303 </plist>
304 <port number="0" type="output">
305 <node>
306 <pipe dstblock="simulate DFACS" dstport="0" srcblock="set DFACS name"/>
307 </node>
308 </port>
309 </block>
310 <block bounds="250 100 110 100" inputs="2" name="simulate DFACS" outputs="1">
311 <LTPDAalgorithm mcategory="Statespace" mclass="ssm" mname="simulate" mpackage="" mversion="" portdims="1 10 1 10">
312 <HelpText> simulate simulates a discrete ssm with given inputs
313 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
314
315 DESCRIPTION: %simulate simulates a discrete ssm with given inputs
316
317 CALL: [ao_out pl_out] = simulate(sys, plist_inputs)
318
319 INPUTS:
320 - sys, (array of) ssm object
321 - plist_inputs contains 10 fields :
322 - 2 noise fields
323 - 'noise variable names' with a cell vector of strings of
324 the desired input variable names
325 - 'covariance' which gives the covariance of this noise between
326 the different corresponding inputs given for the *TIME
327 CONTINUOUS* noise model
328 - 2 fields for input aos :
329 - 'aos variable names' with a cell vector of strings of
330 the desired input variable names
331 - 'aos' which gives the aos for the different
332 corresponding inputs
333 - 2 fields to plug in constants :
334 - 'constant variable names' with a cell vector of strings of
335 the desired input variable names
336 - 'constants' which gives the DC value for the different
337 corresponding inputs
338 - 2 arrays telling which blocks should be stored and returned
339 - 'return states' : for blocks of the state space (ex [8])
340 - 'return outputs' : for blocks of the output (ex [1 5])
341 - 1 field 'Nsamples' telling max number of samples to use
342 (it is smaller if aos are shorter than Nsamples)
343 - 1 field 'ssini' is a cell array of vectors that give the
344 initial position for simulation. 0 is the default.
345 - 1 field 'tini' for the initial time, a time object or a number
346 (in millisec).
347 - 1 field 'displayTime' (0/1) to switch off/on the display.
348 0 (Off) is the default value
349
350 OUTPUTS:
351 _ pl_out contains 'lastX', the last state position
352
353 *** the plist CANNOT be arrays anymore. ***
354 Because of the very large number of output it is not desirable to have
355 more than 1 simulation per function run.
356
357
358 M-FILE INFO: Get information about this methods by calling
359 &gt;&gt; ssm.getInfo('simulate')
360
361 Get information about a specified set-plist by calling:
362 &gt;&gt; ssm.getInfo('simulate', 'Default')
363
364 ***** THERE ARE NO DEFAULT PARAMETERS *****
365
366 VERSION: $Id: ssmtest.lwb,v 1.1 2009/01/13 12:39:16 hewitson Exp $
367
368 HISTORY:
369 04-08-2008 A Grynagier : new multiple state spaces, independant variables
370 in aos...
371 12-06-2008 M Weyrich : change for multiple outputs, bug fixes
372 17-04-2008 A Grynagier
373 19-02-2008 A Grynagier
374 17-02-2008 A Grynagier
375 Creation 30-01-2008 M Weyrich
376
377 TO DO: Check input aos for the timestep, tsdata, and ssm.timestep
378 options to be defined (NL case)
379 add check if one input mach no ssm input variable
380 allow use of other LTPDA functions to generate white noise
381 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
382 </HelpText>
383 <sets>
384 <set name="Default"/>
385 </sets>
386 <plists>
387 <plist name="none">
388 <param>
389 <key>NOISE VARIABLE NAMES</key>
390 <val>cell(0,0)</val>
391 <type>cell</type>
392 </param>
393 <param>
394 <key>COVARIANCE</key>
395 <val>[]</val>
396 <type>double</type>
397 </param>
398 <param>
399 <key>AOS VARIABLE NAMES</key>
400 <val>cell(0,0)</val>
401 <type>cell</type>
402 </param>
403 <param>
404 <key>AOS</key>
405 <val>[]</val>
406 <type>double</type>
407 </param>
408 <param>
409 <key>CONSTANT VARIABLE NAMES</key>
410 <val>cell(0,0)</val>
411 <type>cell</type>
412 </param>
413 <param>
414 <key>CONSTANT</key>
415 <val>[]</val>
416 <type>double</type>
417 </param>
418 <param>
419 <key>RETURN STATES</key>
420 <val>NONE</val>
421 <type>char</type>
422 </param>
423 <param>
424 <key>RETURN OUTPUTS</key>
425 <val>ALL</val>
426 <type>char</type>
427 </param>
428 <param>
429 <key>NSAMPLES</key>
430 <val>Inf</val>
431 <type>double</type>
432 </param>
433 <param>
434 <key>SSINI</key>
435 <val>cell(0,0)</val>
436 <type>cell</type>
437 </param>
438 <param>
439 <key>TINI</key>
440 <val>0</val>
441 <type>double</type>
442 </param>
443 <param>
444 <key>DISPLAYTIME</key>
445 <val>0</val>
446 <type>double</type>
447 </param>
448 </plist>
449 </plists>
450 </LTPDAalgorithm>
451 <plist name="none">
452 <param>
453 <key>AOS VARIABLE NAMES</key>
454 <val>{'rx1_H1_Ifo_delayed'}</val>
455 <type>cell</type>
456 </param>
457 <param>
458 <key>AOS</key>
459 <val>PORT_1</val>
460 <type>char</type>
461 </param>
462 <param>
463 <key>RETURN OUTPUTS</key>
464 <val>{'fx_mps_c'}</val>
465 <type>cell</type>
466 </param>
467 </plist>
468 <port number="0" type="output">
469 <node>
470 <pipe dstblock="tf" dstport="0" srcblock="simulate DFACS"/>
471 </node>
472 </port>
473 </block>
474 <block bounds="0 200 110 100" inputs="1" name="noise AO" outputs="1">
475 <LTPDAalgorithm mcategory="Constructor" mclass="ao" mname="ao" mpackage="" mversion="" portdims="1 10 1 10">
476 <HelpText> AO analysis object class constructor.
477 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
478
479 DESCRIPTION: AO analysis object class constructor.
480 Create an analysis object.
481
482 Possible constructors:
483
484 a = ao() - creates an empty analysis object
485 a = ao('a1.xml') - creates a new analysis object by loading the
486 analysis object from disk.
487 a = ao('a1.mat') - creates a new analysis object by loading the
488 analysis object from disk.
489 a = ao('a1.mat') - creates a new analysis object by loading the
490 2-column data set stored in the .MAT file.
491 a = ao('file.txt') - creates a new analysis object by loading the
492 a = ao('file.dat') data in 'file.txt'. The ascii file is assumed
493 to be an equally sampled two-column file of
494 time and amplitude. By default, the amplitude
495 units are taken to be Volts ('V') and the
496 time samples are assumed to be in seconds.
497 a = ao('file',pl) - creates a new analysis object by loading the
498 data in 'file'. The parameter list decide how the
499 analysis object is created. The valid key values
500 of the parameter list are:
501 'type' 'tsdata','fsdata','xydata'
502 [default: 'tsdata']
503 'use_fs' if this value is set, the
504 x-axes is computed by the fs value.
505 [default: empty array]
506 'columns' [1 2 1 4]
507 Each pair represented the x- and y-axes.
508 (Each column pair creates an analysis object)
509 Is the value 'use_fs' is used then
510 represent each column the y-axes.
511 (Each column creates an analysis object)
512 [default: [1 2] ]
513 'comment_char' The comment character in the file
514 [default: '']
515 'description' To set the description in the analysis object
516 '...' every property where exist a public
517 set-function in the AO class e.g.
518 setName, setT0, setYunits, ...
519 If the constructor creates multiple ao's it is
520 possible to give each data class its own e.g.
521 'name'. In this case the parameter list with the
522 key 'name' must have cell of the different values
523 as the name of the different data objects. e.g.
524 pl = plist('columns', [1 2 1 3], ...
525 'name', {'name1' 'name2'}, ...
526 'xunits', unit('s'), ...
527 'yunits', {unit('V') unit('Hz'}));
528 This parameter list creates two ao's with tsdata.
529
530 'Robust' - set this to 'yes' to use (slow)
531 robust data reading. Useful for
532 complicated file formats.
533 [default: 'yes']
534
535 NOTE: Data files with comments at the end of the lines can only be
536 read if there are no lines with only comments. In this case, do not
537 specify a comment character. If you really want to load a file like
538 this, specify the 'Robust' option; this will be very slow for large
539 files.
540
541 a = ao(data) - creates an analysis object with a data
542 object. Data object can be one of tsdata,
543 fsdata, cdata, xydata, xyzdata.
544 a = ao(data, hist) - creates an analysis object with a data
545 object and a history object
546 a = ao(specwin) - creates an analysis object from a specwin
547 object
548 a = ao(plist) - creates an analysis object from the description
549 given in the parameter list
550
551 Parameter sets for plist constructor (in order of priority):
552
553 From XML File
554 -------------
555
556 Construct an AO by loading it from an XML file.
557
558 'filename' - construct an AO from a filename.
559 Example: plist('filename', 'a1.xml')
560 [default: empty string]
561
562 From MAT File
563 -------------
564
565 Construct an AO by loading it from a MAT file.
566
567 'filename' - construct an AO from a filename.
568 Example: plist('filename', 'a1.mat')
569 [default: empty string]
570
571 From ASCII File
572 ---------------
573
574 Construct an AO by loading it from an ASCII text file.
575
576 'filename' - construct an AO from a filename.
577 Example: plist('filename', 'a1.txt')
578 [default: empty string]
579
580 For additional parameters, see constructor ao(file, pl) above.
581
582 From Function
583 -------------
584
585 Construct an AO from the description of any valid MATLAB function.
586
587 'fcn' - any valid MATLAB function.
588 Example: plist('fcn', 'randn(100,1)')
589
590 You can pass additional parameters to the fcn as extra
591 parameters in the parameter list:
592 plist('fcn', 'a*b', 'a', 2, 'b', 1:20);
593
594 ** Note: case is ignored in the function specification
595 such the following:
596 plist('fcn', 'a*A/b', 'a', 2, 'B', 1:20);
597 results in:
598 2*2*[1:20]
599
600 [default: 'randn(100,1)']
601
602 From Values
603 -----------
604
605 Construct an AO from a set of values.
606
607 'vals' - a set of values.
608 Example: plist('vals', [1 2 3])
609 optional parameter: repeat 'N' times
610 Example: plist('vals', [1 2 3], 'N', 10)
611
612 [default: vals: [1], N: [1] ]
613 OR
614
615 To produce a tsdata AO
616
617 'xvals' - a set of x values.
618 'yvals' - a set of y values.
619
620
621
622 From Time-series Function
623 -------------------------
624
625 Construct an AO from a function of time, t.
626
627 'tsfcn' - a function of time.
628
629 You can also specify optional parameters
630 'fs' - sampling frequency [default: 10 Hz]
631 'nsecs' - length in seconds [default: 10 s]
632
633 You can also specify the initial time (t0) associated with
634 the time-series by passing a parameter 't0' with a value
635 that is a time object [default: time(0)]
636 Example:
637 plist('fs', 10, 'nsecs', 10, ...
638 'tsfcn', 'sin(2*pi*1.4*t) + 0.1*randn(size(t))', ...
639 't0', time('1980-12-01 12:43:12'));
640
641 From Frequency-series Function
642 ------------------------------
643
644 Construct an AO from a function of frequency, f.
645
646 'fsfcn' - a function of frequency, f. [default: 'f']
647
648 You can also specify optional parameters:
649 'f1' - the initial frequency [default: 1e-9]
650 'f2' - the final frequency [default: 5]
651 'nf' - the number of frequency samples [default: 1000]
652 'scale' - 'log' or 'lin' frequency spacing [default: 'log']
653 or provide a frequency vector:
654 'f' - a vector of frequencies on which to evaluate the
655 function [default: [] ]
656
657 From Window
658 -----------
659
660 Construct an AO from a spectral window object.
661
662 'win' - A specwin object.
663
664 This creates a cdata type AO containing the window values.
665 Example: plist('win', specwin('Hannning', 100))
666
667 [default: specwin('Hanning', 100)]
668
669 From Waveform
670 -------------
671
672 Construct an AO from a waveform description.
673
674 'waveform' - a waveform description (see options below).
675
676 You can also specify additional parameters:
677 'fs' - sampling frequency [default: 10 Hz]
678 'nsecs' - length in seconds [default: 10 s]
679 't0' - time-stamp of the first data sample [default time(0)]
680
681 and, for the following waveform types:
682 'sine wave' - 'A', 'f', 'phi', 'nsecs', 'toff'
683 (can be vectors for sum of sine waves)
684 'A' - Amplitude of the wave
685 'f' - Frequency of the wave
686 'phi' - Phase of the eave
687 'nsecs' - Number of seconds (in seconds)
688 'toff' - Offset of the wave (in seconds)
689 'noise' - 'type' (can be 'Normal' or 'Uniform')
690 'sigma' specify the standard deviation
691 'chirp' - 'f0', 'f1', 't1' (help chirp)
692 'Gaussian pulse' - 'f0', 'bw' (help gauspuls)
693 'Square wave' - 'f', 'duty' (help square)
694 'Sawtooth' - 'f', 'width' (help sawtooth)
695
696 You can also specify the initial time (t0) associated with
697 the time-series by passing a parameter 't0' with a value
698 that is a time object.
699
700 [defaults: waveform: 'sine wave', A: 1, f: 1.23, phi: 0,
701 fs: 10, nsecs: 10, t0: time(0) ]
702
703
704 From Repository
705 ---------------
706
707 Construct an AO by retrieving it from an LTPDA repository.
708
709 'Hostname' - the repository hostname. Only those objects which
710 are AOs are returned.
711 [default: 'localhost'];
712
713 Additional parameters:
714
715 'Database' - The database name [default: 'ltpda']
716 'ID' - A vector of object IDs. [default: []]
717 'CID' - Retrieve all AO objects from a particular
718 collection.
719 'Binary' - Set to 'yes' to retrieve from stored binary
720 representation (not always available).
721
722 From Polynomial
723 ---------------
724
725 Construct an AO from a set of polynomial coefficients.
726
727 'polyval' - a set of polynomial coefficients.
728 [default: [-0.0001 0.02 -1 -1] ]
729
730 Additional parameters:
731 'Nsecs' and 'fs' - number of seconds, and sample rate
732 [defaults: nsecs: 10, fs: 10]
733 or 't' - vector of time vertices
734 [default: [] ]
735
736 Example: a = ao(plist('polyval', [1 2 3], 'Nsecs', 10, 'fs', 10));
737
738
739 From Pzmodel
740 ------------
741
742 Generates an ao with a timeseries with a prescribed spectrum.
743 p = [pz(f1,q1) pz(f2,q2)]
744 z = [pz(f3,q3)]
745 pzm = pzmodel(gain, p, z)
746 The constructor also needs: fs - sampling frequency
747 nsecs - number of seconds to be generated
748 a = ao(plist('pzmodel', pzm, 'Nsecs', nsecs, 'Fs', fs))
749
750 From Model
751 ----------
752
753 A collection of built-in models which construct data series and return
754 them in AOs.
755
756 'Model' - give the model name. To get a list of models:
757 ao(plist('Model', ''))
758
759 Each model has additional parameters that need to be passed. To see the
760 parameters:
761 &gt;&gt; help ao.&lt;model_name&gt;
762
763 for example,
764
765 &gt;&gt; help ao.mdc1_fd_dynamics
766
767 From Plist
768 ----------
769
770 'Plist' - construct from a plist. The value passed should be a plist
771 object.
772 [default: empty plist]
773
774
775
776 Examples:
777
778 1) Normally distributed random noise time-series
779
780 p = plist('waveform', 'noise', 'fs', 10, 'nsecs', 1000);
781 rd10 = ao(p);
782
783
784 Indexing:
785 b = a(1) % where a is an array of analysis objects
786 d = a.data; % get the data object
787 h = a.hist; % get the history object
788 d = a.data.x(1:20); % get a matrix of data values x;
789
790 2) Timeseries with a prescribed spectrum
791
792 p = plist('pzmodel',pzm, 'fs',10, 'nsecs', 120, 'ndigits',50)
793 a = ao(p)
794
795 fs - sampling frequency
796 nsecs - number of seconds in time series
797 ndigits - number of digits for symbolic math toolbox (default: 32)
798
799
800 From pzmodel
801 ------------
802
803 Generates an ao with a timeseries with a prescribed spectrum.
804 p = [pz(f1,q1) pz(f2,q2)]
805 z = [pz(f3,q3)]
806 pzm = pzmodel(gain, p, z)
807 The constructor also needs: fs - sampling frequency
808 nsecs - number of seconds to be generated
809 a = ao(pzm, nsecs, fs)
810
811 The following call returns an minfo object that contains information
812 about the AO constructor:
813
814 &gt;&gt; info = ao.getInfo
815
816 You can get information about class methods by calling:
817
818 &gt;&gt; info = ao.getInfo(method)
819
820 e.g. info = ao.getInfo('pwelch')
821
822 You can also restrict the sets of parameters contained in the minfo
823 object by calling:
824
825 &gt;&gt; info = ao.getInfo(method, set)
826
827 e.g., info = ao.getInfo('ao', 'From Vals')
828
829 See also tsdata, fsdata, xydata, cdata, xyzdata
830
831 M Hewitson 30-01-07
832
833 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
834 </HelpText>
835 <sets>
836 <set name="Default"/>
837 <set name="From XML File"/>
838 <set name="From MAT File"/>
839 <set name="From ASCII File"/>
840 <set name="From Function"/>
841 <set name="From Values"/>
842 <set name="From Time-series Function"/>
843 <set name="From Frequency-series Function"/>
844 <set name="From Window"/>
845 <set name="From Waveform"/>
846 <set name="From Polynomial"/>
847 <set name="From Repository"/>
848 <set name="From Plist"/>
849 <set name="From Pzmodel"/>
850 <set name="From Model"/>
851 </sets>
852 <plists>
853 <plist name="none"/>
854 <plist name="none">
855 <param>
856 <key>FILENAME</key>
857 <val/>
858 <type>char</type>
859 </param>
860 </plist>
861 <plist name="none">
862 <param>
863 <key>FILENAME</key>
864 <val/>
865 <type>char</type>
866 </param>
867 </plist>
868 <plist name="none">
869 <param>
870 <key>FILENAME</key>
871 <val/>
872 <type>char</type>
873 </param>
874 <param>
875 <key>TYPE</key>
876 <val>tsdata</val>
877 <type>char</type>
878 </param>
879 <param>
880 <key>COLUMNS</key>
881 <val>[1 2]</val>
882 <type>double</type>
883 </param>
884 <param>
885 <key>XUNITS</key>
886 <val>[ unit(' s ') ]</val>
887 <type>unit</type>
888 </param>
889 <param>
890 <key>YUNITS</key>
891 <val>[ unit(' V ') ]</val>
892 <type>unit</type>
893 </param>
894 <param>
895 <key>T0</key>
896 <val>time([plist('TIMEFORMAT', 'yyyy-mm-dd HH:MM:SS.FFF', 'TIMEZONE', 'UTC', 'UTC_EPOCH_MILLI', 0)]) </val>
897 <type>time</type>
898 </param>
899 <param>
900 <key>COMMENT_CHAR</key>
901 <val/>
902 <type>char</type>
903 </param>
904 <param>
905 <key>USE_FS</key>
906 <val/>
907 <type>char</type>
908 </param>
909 <param>
910 <key>ROBUST</key>
911 <val>yes</val>
912 <type>char</type>
913 </param>
914 </plist>
915 <plist name="none">
916 <param>
917 <key>FCN</key>
918 <val>randn(100,1)</val>
919 <type>char</type>
920 </param>
921 <param>
922 <key>YUNITS</key>
923 <val>[ unit(' V ') ]</val>
924 <type>unit</type>
925 </param>
926 </plist>
927 <plist name="none">
928 <param>
929 <key>VALS</key>
930 <val>[]</val>
931 <type>double</type>
932 </param>
933 <param>
934 <key>N</key>
935 <val>1</val>
936 <type>double</type>
937 </param>
938 <param>
939 <key>DTYPE</key>
940 <val/>
941 <type>char</type>
942 </param>
943 <param>
944 <key>FS</key>
945 <val>[]</val>
946 <type>double</type>
947 </param>
948 <param>
949 <key>XVALS</key>
950 <val>[]</val>
951 <type>double</type>
952 </param>
953 <param>
954 <key>YVALS</key>
955 <val>[]</val>
956 <type>double</type>
957 </param>
958 <param>
959 <key>YUNITS</key>
960 <val/>
961 <type>char</type>
962 </param>
963 </plist>
964 <plist name="none">
965 <param>
966 <key>TSFCN</key>
967 <val>t</val>
968 <type>char</type>
969 </param>
970 <param>
971 <key>FS</key>
972 <val>10</val>
973 <type>double</type>
974 </param>
975 <param>
976 <key>NSECS</key>
977 <val>1</val>
978 <type>double</type>
979 </param>
980 <param>
981 <key>T0</key>
982 <val>time([plist('TIMEFORMAT', 'yyyy-mm-dd HH:MM:SS.FFF', 'TIMEZONE', 'UTC', 'UTC_EPOCH_MILLI', 0)]) </val>
983 <type>time</type>
984 </param>
985 <param>
986 <key>XUNITS</key>
987 <val>[ unit(' s ') ]</val>
988 <type>unit</type>
989 </param>
990 <param>
991 <key>YUNITS</key>
992 <val>[ unit(' V ') ]</val>
993 <type>unit</type>
994 </param>
995 </plist>
996 <plist name="none">
997 <param>
998 <key>FSFCN</key>
999 <val>f</val>
1000 <type>char</type>
1001 </param>
1002 <param>
1003 <key>F1</key>
1004 <val>1e-09</val>
1005 <type>double</type>
1006 </param>
1007 <param>
1008 <key>F2</key>
1009 <val>5</val>
1010 <type>double</type>
1011 </param>
1012 <param>
1013 <key>NF</key>
1014 <val>1000</val>
1015 <type>double</type>
1016 </param>
1017 <param>
1018 <key>SCALE</key>
1019 <val>log</val>
1020 <type>char</type>
1021 </param>
1022 <param>
1023 <key>F</key>
1024 <val>[]</val>
1025 <type>double</type>
1026 </param>
1027 <param>
1028 <key>XUNITS</key>
1029 <val>[ unit(' Hz ') ]</val>
1030 <type>unit</type>
1031 </param>
1032 <param>
1033 <key>YUNITS</key>
1034 <val>[ unit(' V ') ]</val>
1035 <type>unit</type>
1036 </param>
1037 </plist>
1038 <plist name="none">
1039 <param>
1040 <key>WIN</key>
1041 <val> specwin('Hanning', 100)</val>
1042 <type>specwin</type>
1043 </param>
1044 <param>
1045 <key>YUNITS</key>
1046 <val>[ unit(' I ') ]</val>
1047 <type>unit</type>
1048 </param>
1049 </plist>
1050 <plist name="none">
1051 <param>
1052 <key>WAVEFORM</key>
1053 <val>sine wave</val>
1054 <type>char</type>
1055 </param>
1056 <param>
1057 <key>A</key>
1058 <val>1</val>
1059 <type>double</type>
1060 </param>
1061 <param>
1062 <key>F</key>
1063 <val>1.23</val>
1064 <type>double</type>
1065 </param>
1066 <param>
1067 <key>PHI</key>
1068 <val>0</val>
1069 <type>double</type>
1070 </param>
1071 <param>
1072 <key>FS</key>
1073 <val>10</val>
1074 <type>double</type>
1075 </param>
1076 <param>
1077 <key>NSECS</key>
1078 <val>10</val>
1079 <type>double</type>
1080 </param>
1081 <param>
1082 <key>T0</key>
1083 <val>time([plist('TIMEFORMAT', 'yyyy-mm-dd HH:MM:SS.FFF', 'TIMEZONE', 'UTC', 'UTC_EPOCH_MILLI', 0)]) </val>
1084 <type>time</type>
1085 </param>
1086 <param>
1087 <key>TOFF</key>
1088 <val>0</val>
1089 <type>double</type>
1090 </param>
1091 <param>
1092 <key>XUNITS</key>
1093 <val>[ unit(' s ') ]</val>
1094 <type>unit</type>
1095 </param>
1096 <param>
1097 <key>YUNITS</key>
1098 <val>[ unit(' V ') ]</val>
1099 <type>unit</type>
1100 </param>
1101 </plist>
1102 <plist name="none">
1103 <param>
1104 <key>POLYVAL</key>
1105 <val>[-0.0001 0.02 -1 -1]</val>
1106 <type>double</type>
1107 </param>
1108 <param>
1109 <key>NSECS</key>
1110 <val>10</val>
1111 <type>double</type>
1112 </param>
1113 <param>
1114 <key>FS</key>
1115 <val>10</val>
1116 <type>double</type>
1117 </param>
1118 <param>
1119 <key>T</key>
1120 <val>[]</val>
1121 <type>double</type>
1122 </param>
1123 <param>
1124 <key>XUNITS</key>
1125 <val>[ unit(' s ') ]</val>
1126 <type>unit</type>
1127 </param>
1128 <param>
1129 <key>YUNITS</key>
1130 <val>[ unit(' V ') ]</val>
1131 <type>unit</type>
1132 </param>
1133 </plist>
1134 <plist name="none">
1135 <param>
1136 <key>HOSTNAME</key>
1137 <val>localhost</val>
1138 <type>char</type>
1139 </param>
1140 <param>
1141 <key>DATABASE</key>
1142 <val>ltpda</val>
1143 <type>char</type>
1144 </param>
1145 <param>
1146 <key>ID</key>
1147 <val>[]</val>
1148 <type>double</type>
1149 </param>
1150 <param>
1151 <key>BINARY</key>
1152 <val>no</val>
1153 <type>char</type>
1154 </param>
1155 </plist>
1156 <plist name="none">
1157 <param>
1158 <key>PLIST</key>
1159 <val>(empty-plist)</val>
1160 <type>plist</type>
1161 </param>
1162 </plist>
1163 <plist name="none">
1164 <param>
1165 <key>PZMODEL</key>
1166 <val>pzmodel(none)</val>
1167 <type>pzmodel</type>
1168 </param>
1169 <param>
1170 <key>NSECS</key>
1171 <val>0</val>
1172 <type>double</type>
1173 </param>
1174 <param>
1175 <key>FS</key>
1176 <val>0</val>
1177 <type>double</type>
1178 </param>
1179 <param>
1180 <key>XUNITS</key>
1181 <val>[ unit(' s ') ]</val>
1182 <type>unit</type>
1183 </param>
1184 <param>
1185 <key>YUNITS</key>
1186 <val>[ unit(' V ') ]</val>
1187 <type>unit</type>
1188 </param>
1189 </plist>
1190 <plist name="none">
1191 <param>
1192 <key>MODEL</key>
1193 <val/>
1194 <type>char</type>
1195 </param>
1196 </plist>
1197 </plists>
1198 </LTPDAalgorithm>
1199 <plist name="none">
1200 <param>
1201 <key>TSFCN</key>
1202 <val>1e-3*randn(size(t))</val>
1203 <type>char</type>
1204 </param>
1205 <param>
1206 <key>FS</key>
1207 <val>10</val>
1208 <type>double</type>
1209 </param>
1210 <param>
1211 <key>NSECS</key>
1212 <val>1000</val>
1213 <type>double</type>
1214 </param>
1215 </plist>
1216 <port number="0" type="output">
1217 <node>
1218 <pipe dstblock="simulate DFACS" dstport="1" srcblock="noise AO"/>
1219 <pipe dstblock="tf" dstport="1" srcblock="noise AO"/>
1220 </node>
1221 </port>
1222 </block>
1223 <block bounds="400 100 110 100" inputs="2" name="tf" outputs="1">
1224 <LTPDAalgorithm mcategory="Signal Processing" mclass="ao" mname="ltfe" mpackage="" mversion="" portdims="1 10 1 10">
1225 <HelpText> LTFE implement transfer-function estimation computed on a log frequency axis.
1226 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
1227
1228 DESCRIPTION: LTFE implement transfer-function estimation computed on a
1229 log frequency axis.
1230
1231 CALL: tfs = ltfe(as)
1232 tfs = ltfe(as, pl)
1233
1234 INPUTS: as - array of analysis objects
1235 pl - parameter list (see below)
1236
1237 OUTPUTS: bs - array of analysis objects, one for each input
1238
1239 PARAMETER LIST:
1240
1241 Kdes - desired number of averages [default: 100]
1242 Lmin - minimum segment length [default: 0]
1243 Jdes - number of spectral frequencies to compute [default: fs/4]
1244 Win - a specwin window object
1245 Only the design parameters of the window object are used; the
1246 window is recomputed for each DFT length inside the ltpda_dft
1247 algorithm. [default: Kaiser with -200dB PSLL]
1248 Olap - desired overlap [default: taken from window]
1249 Order - order of detrending.
1250 -1 - no detrending
1251 0 - subtract mean
1252 1 - subtract linear fit
1253 N - subtract fit of polynomial, order N
1254
1255 M-FILE INFO: Get information about this methods by calling
1256 &gt;&gt; ao.getInfo('ltfe')
1257
1258 Get information about a specified set-plist by calling:
1259 &gt;&gt; ao.getInfo('ltfe', 'None')
1260
1261 VERSION: $Id: ssmtest.lwb,v 1.1 2009/01/13 12:39:16 hewitson Exp $
1262
1263 HISTORY: 02-02-2007 M Hewitson
1264 Created
1265
1266 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
1267 </HelpText>
1268 <sets>
1269 <set name="Default"/>
1270 </sets>
1271 <plists>
1272 <plist name="none">
1273 <param>
1274 <key>KDES</key>
1275 <val>100</val>
1276 <type>double</type>
1277 </param>
1278 <param>
1279 <key>JDES</key>
1280 <val>1000</val>
1281 <type>double</type>
1282 </param>
1283 <param>
1284 <key>LMIN</key>
1285 <val>0</val>
1286 <type>double</type>
1287 </param>
1288 <param>
1289 <key>WIN</key>
1290 <val> specwin('BH92', 10)</val>
1291 <type>specwin</type>
1292 </param>
1293 <param>
1294 <key>OLAP</key>
1295 <val>-1</val>
1296 <type>double</type>
1297 </param>
1298 <param>
1299 <key>ORDER</key>
1300 <val>0</val>
1301 <type>double</type>
1302 </param>
1303 </plist>
1304 </plists>
1305 </LTPDAalgorithm>
1306 <plist name="none">
1307 <param>
1308 <key>KDES</key>
1309 <val>100</val>
1310 <type>double</type>
1311 </param>
1312 <param>
1313 <key>JDES</key>
1314 <val>1000</val>
1315 <type>double</type>
1316 </param>
1317 <param>
1318 <key>LMIN</key>
1319 <val>0</val>
1320 <type>double</type>
1321 </param>
1322 <param>
1323 <key>WIN</key>
1324 <val> specwin('BH92', 10)</val>
1325 <type>specwin</type>
1326 </param>
1327 <param>
1328 <key>OLAP</key>
1329 <val>-1</val>
1330 <type>double</type>
1331 </param>
1332 <param>
1333 <key>ORDER</key>
1334 <val>0</val>
1335 <type>double</type>
1336 </param>
1337 </plist>
1338 <port number="0" type="output">
1339 <node>
1340 <pipe dstblock="view" dstport="0" srcblock="tf"/>
1341 </node>
1342 </port>
1343 </block>
1344 <block bounds="500 100 110 100" inputs="1" name="view" outputs="1">
1345 <LTPDAalgorithm mcategory="Output" mclass="ao" mname="iplot" mpackage="" mversion="" portdims="1 10 1 10">
1346 <HelpText> IPLOT provides an intelligent plotting tool for LTPDA.
1347 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
1348
1349 DESCRIPTION: IPLOT provides an intelligent plotting tool for LTPDA.
1350
1351 CALL: hfig = iplot (a,pl)
1352 [hfig, hax] = iplot (a,pl)
1353 [hfig, hax, hli] = iplot (a,pl)
1354
1355 INPUTS: pl - a parameter list
1356 a - input analysis object
1357
1358 OUTPUTS: hfig - handles to figures
1359 hax - handles to axes
1360 hli - handles to lines
1361
1362
1363 Plot parameters:
1364
1365 'Arrangement' - select the plot layout:
1366 'single' - plots all AOs on individual figures
1367 'stacked' - plots all AOs on the same axes [default]
1368 'subplots' - plots all AOs on subplots
1369
1370 'Function' - specify the plot function:
1371 'plot', 'stairs', 'stem'
1372 [default: 'plot']
1373 *** doesn't work for xyzdata AOs
1374
1375 Line parameters:
1376
1377 The following properties take cell array values. If the length of
1378 the cell array is shorter than the number of lines to plot, the
1379 remaining lines will be plotted with the default options. If the
1380 cell array is of length 2 and the first cell contains the string
1381 'all', then the second cell is used to set the propery of all
1382 lines.
1383
1384 'LineColors' - a cell array of color definitions for each line.
1385
1386 'LineStyles' - a cell array of line styles.
1387
1388 'Markers' - a cell array of markers.
1389
1390 'LineWidths' - a cell array of line widths. If the length of the
1391 cell array is shorter than the number of lines to
1392 plot, the remaining lines will be plotted with
1393 the default line width.
1394
1395 Axes parameters:
1396
1397 'Legends' - specify a cell array of strings to be used for
1398 the plot legends. If a cell contains an empty
1399 string, the default legend string is built.
1400 If a single string 'off' is given instead of a
1401 cell array, then the legends are all switched
1402 off.
1403
1404 'XLabels' - Specify the labels to be used on the x-axes. The
1405 units are added from the data object 'xunits'
1406 property.
1407
1408 'YLabels' - Specify the labels to be used on the y-axes. The
1409 units are added from the data object 'yunits'
1410 property. If the object contains complex data,
1411 you should specify two y-labels for that object.
1412
1413 The following axis properties also work with the 'all' keyword as
1414 described above in the line properties section.
1415
1416 'XScales' - Specify the scales to be used on the x-axes.
1417
1418 'YScales' - Specify the scales to the used on the y-axes. If
1419 an object contains complex data, you should
1420 specify two y-labels for that object.
1421
1422 'XRanges' - Specify the ranges to be displayed on the x-axes.
1423
1424 'YRanges' - Specify the ranges to the displayed on the
1425 y-axes.
1426
1427 Error parameters: If you give more than one input AO then you must
1428 specify the following parameter values in a cell-array,
1429 one cell for each input AO. Leave the cell empty to
1430 plot no errors. Each error can be a value or a vector
1431 the same length as the data vector. If you give and
1432 upper limit but not lower limit, then the errors are
1433 assumed to be symmetric (and vice versa)
1434
1435 'XerrL' - lower bound error values for the X data points.
1436 'XerrU' - upper bound error values for the X data points.
1437 'YerrL' - lower bound error values for the Y data points.
1438 'YerrU' - upper bound error values for the Y data points.
1439
1440 Math operations: You can specify rudimentary math operations to be
1441 performed on the X and Y data prior to plotting. The
1442 'all' keyword is also supported by these parameters.
1443
1444 'Xmaths' - specify math operations to perform on the
1445 data vector 'x'. For example,
1446 plist('Xmaths', 'abs(x)').
1447
1448 'Ymaths' - specify math operations to perform on the
1449 data vector 'y'. For example,
1450 plist('Ymaths', 'sqrt(y)').
1451
1452 Time-series parameters: in addition to the general options, time-series
1453 objects have the following additional parameters.
1454
1455 'Xunits' - specify the units on the x-axis as
1456 'us' - microseconds
1457 'ms' - milliseconds
1458 's' - seconds [default]
1459 'm' - minutes
1460 'h' - hours
1461 'D' - days
1462 'M' - months
1463 'HH:MM:SS' - using a date/time format
1464 recognized by datetic (help datetic)
1465
1466
1467 Frequency-series parameters:
1468
1469 'complexPlotType' - specify how to plot complex data.
1470 Choose from:
1471 - 'realimag'
1472 - 'absdeg'
1473 - 'absrad'
1474
1475 EXAMPLES:
1476
1477 1) Plot two time-series AOs with different colors, line styles, and widths
1478
1479 pl = plist('Linecolors', {'g', 'k'}, 'LineStyles', {'', '--'}, 'LineWidths', {1, 4});
1480 iplot(tsao1, tsao2, pl);
1481
1482 2) Plot two time-series AOs in subplots. Also override the second legend
1483 text and the first line style.
1484
1485 pl = plist('Arrangement', 'subplots', 'LineStyles', {'--'}, 'Legends', {'', 'My Sine Wave'});
1486 iplot(tsao1, tsao2, pl);
1487
1488 3) Plot two time-series AOs taking the square of the y-values of the
1489 first AO and the log of the x-values of the second AO.
1490
1491 pl = plist('Arrangement', 'subplots', 'YMaths', 'y.^2', 'XMaths', {'', 'log(x)'});
1492 iplot(tsao1, tsao2, pl);
1493
1494 4) Plot two frequency-series AOs on subplots with the same Y-scales and
1495 Y-ranges
1496
1497 pl1 = plist('Yscales', {'All', 'lin'});
1498 pl2 = plist('arrangement', 'subplots', 'YRanges', {'All', [1e-6 100]});
1499 iplot(fsd1, fsd2, pl1, pl2)
1500
1501
1502 M-FILE INFO: Get information about this methods by calling
1503 &gt;&gt; ao.getInfo('iplot')
1504
1505 Get information about a specified set-plist by calling:
1506 &gt;&gt; ao.getInfo('iplot', 'None')
1507
1508 VERSION: $Id: ssmtest.lwb,v 1.1 2009/01/13 12:39:16 hewitson Exp $
1509
1510 HISTORY: 22-12-07 M Hewitson
1511 Creation
1512
1513 %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
1514 </HelpText>
1515 <sets>
1516 <set name="Time-series plot"/>
1517 <set name="Frequency-series plot"/>
1518 <set name="Y data plot"/>
1519 <set name="X-Y data plot"/>
1520 <set name="3D plot"/>
1521 </sets>
1522 <plists>
1523 <plist name="none">
1524 <param>
1525 <key>COLORS</key>
1526 <val>{[0.80000000000000004 0.20000000000000001 0.20000000000000001],[0.20000000000000001 0.20000000000000001 0.80000000000000004],[0.20000000000000001 0.90000000000000002 0.20000000000000001],[0.37 0.90000000000000002 0.82999999999999996],[0.88800000000000001 0.16300000000000001 0.90000000000000002],[0 0 0],[0 0.81176470588235294 1],[1 0.50196078431372548 0],[0.5607843137254902 0 0],[1 0.81176470588235294 0],[0.90000000000000002 0.26600000000000001 0.59299999999999997]}</val>
1527 <type>cell</type>
1528 </param>
1529 <param>
1530 <key>ARRANGEMENT</key>
1531 <val>stacked</val>
1532 <type>char</type>
1533 </param>
1534 <param>
1535 <key>FUNCTION</key>
1536 <val>plot</val>
1537 <type>char</type>
1538 </param>
1539 <param>
1540 <key>LEGENDLOCATION</key>
1541 <val>NorthEast</val>
1542 <type>char</type>
1543 </param>
1544 <param>
1545 <key>XERRL</key>
1546 <val>[]</val>
1547 <type>double</type>
1548 </param>
1549 <param>
1550 <key>XERRU</key>
1551 <val>[]</val>
1552 <type>double</type>
1553 </param>
1554 <param>
1555 <key>YERRU</key>
1556 <val>[]</val>
1557 <type>double</type>
1558 </param>
1559 <param>
1560 <key>YERRL</key>
1561 <val>[]</val>
1562 <type>double</type>
1563 </param>
1564 <param>
1565 <key>XLABEL</key>
1566 <val>Time</val>
1567 <type>char</type>
1568 </param>
1569 <param>
1570 <key>YLABEL</key>
1571 <val>Amplitude</val>
1572 <type>char</type>
1573 </param>
1574 </plist>
1575 <plist name="none">
1576 <param>
1577 <key>COLORS</key>
1578 <val>{[0.80000000000000004 0.20000000000000001 0.20000000000000001],[0.20000000000000001 0.20000000000000001 0.80000000000000004],[0.20000000000000001 0.90000000000000002 0.20000000000000001],[0.37 0.90000000000000002 0.82999999999999996],[0.88800000000000001 0.16300000000000001 0.90000000000000002],[0 0 0],[0 0.81176470588235294 1],[1 0.50196078431372548 0],[0.5607843137254902 0 0],[1 0.81176470588235294 0],[0.90000000000000002 0.26600000000000001 0.59299999999999997]}</val>
1579 <type>cell</type>
1580 </param>
1581 <param>
1582 <key>ARRANGEMENT</key>
1583 <val>stacked</val>
1584 <type>char</type>
1585 </param>
1586 <param>
1587 <key>FUNCTION</key>
1588 <val>plot</val>
1589 <type>char</type>
1590 </param>
1591 <param>
1592 <key>LEGENDLOCATION</key>
1593 <val>NorthEast</val>
1594 <type>char</type>
1595 </param>
1596 <param>
1597 <key>XERRL</key>
1598 <val>[]</val>
1599 <type>double</type>
1600 </param>
1601 <param>
1602 <key>XERRU</key>
1603 <val>[]</val>
1604 <type>double</type>
1605 </param>
1606 <param>
1607 <key>YERRU</key>
1608 <val>[]</val>
1609 <type>double</type>
1610 </param>
1611 <param>
1612 <key>YERRL</key>
1613 <val>[]</val>
1614 <type>double</type>
1615 </param>
1616 <param>
1617 <key>COMPLEXPLOTTYPE</key>
1618 <val>absdeg</val>
1619 <type>char</type>
1620 </param>
1621 <param>
1622 <key>XLABEL</key>
1623 <val>Frequency</val>
1624 <type>char</type>
1625 </param>
1626 </plist>
1627 <plist name="none">
1628 <param>
1629 <key>COLORS</key>
1630 <val>{[0.80000000000000004 0.20000000000000001 0.20000000000000001],[0.20000000000000001 0.20000000000000001 0.80000000000000004],[0.20000000000000001 0.90000000000000002 0.20000000000000001],[0.37 0.90000000000000002 0.82999999999999996],[0.88800000000000001 0.16300000000000001 0.90000000000000002],[0 0 0],[0 0.81176470588235294 1],[1 0.50196078431372548 0],[0.5607843137254902 0 0],[1 0.81176470588235294 0],[0.90000000000000002 0.26600000000000001 0.59299999999999997]}</val>
1631 <type>cell</type>
1632 </param>
1633 <param>
1634 <key>ARRANGEMENT</key>
1635 <val>stacked</val>
1636 <type>char</type>
1637 </param>
1638 <param>
1639 <key>FUNCTION</key>
1640 <val>plot</val>
1641 <type>char</type>
1642 </param>
1643 <param>
1644 <key>LEGENDLOCATION</key>
1645 <val>NorthEast</val>
1646 <type>char</type>
1647 </param>
1648 <param>
1649 <key>XERRL</key>
1650 <val>[]</val>
1651 <type>double</type>
1652 </param>
1653 <param>
1654 <key>XERRU</key>
1655 <val>[]</val>
1656 <type>double</type>
1657 </param>
1658 <param>
1659 <key>YERRU</key>
1660 <val>[]</val>
1661 <type>double</type>
1662 </param>
1663 <param>
1664 <key>YERRL</key>
1665 <val>[]</val>
1666 <type>double</type>
1667 </param>
1668 <param>
1669 <key>XLABEL</key>
1670 <val>Sample</val>
1671 <type>char</type>
1672 </param>
1673 <param>
1674 <key>YLABEL</key>
1675 <val>Value</val>
1676 <type>char</type>
1677 </param>
1678 </plist>
1679 <plist name="none">
1680 <param>
1681 <key>COLORS</key>
1682 <val>{[0.80000000000000004 0.20000000000000001 0.20000000000000001],[0.20000000000000001 0.20000000000000001 0.80000000000000004],[0.20000000000000001 0.90000000000000002 0.20000000000000001],[0.37 0.90000000000000002 0.82999999999999996],[0.88800000000000001 0.16300000000000001 0.90000000000000002],[0 0 0],[0 0.81176470588235294 1],[1 0.50196078431372548 0],[0.5607843137254902 0 0],[1 0.81176470588235294 0],[0.90000000000000002 0.26600000000000001 0.59299999999999997]}</val>
1683 <type>cell</type>
1684 </param>
1685 <param>
1686 <key>ARRANGEMENT</key>
1687 <val>stacked</val>
1688 <type>char</type>
1689 </param>
1690 <param>
1691 <key>FUNCTION</key>
1692 <val>plot</val>
1693 <type>char</type>
1694 </param>
1695 <param>
1696 <key>LEGENDLOCATION</key>
1697 <val>NorthEast</val>
1698 <type>char</type>
1699 </param>
1700 <param>
1701 <key>XERRL</key>
1702 <val>[]</val>
1703 <type>double</type>
1704 </param>
1705 <param>
1706 <key>XERRU</key>
1707 <val>[]</val>
1708 <type>double</type>
1709 </param>
1710 <param>
1711 <key>YERRU</key>
1712 <val>[]</val>
1713 <type>double</type>
1714 </param>
1715 <param>
1716 <key>YERRL</key>
1717 <val>[]</val>
1718 <type>double</type>
1719 </param>
1720 <param>
1721 <key>XLABEL</key>
1722 <val>X-data</val>
1723 <type>char</type>
1724 </param>
1725 <param>
1726 <key>YLABEL</key>
1727 <val>Y-data</val>
1728 <type>char</type>
1729 </param>
1730 <param>
1731 <key>YMATHS</key>
1732 <val/>
1733 <type>char</type>
1734 </param>
1735 <param>
1736 <key>XMATHS</key>
1737 <val/>
1738 <type>char</type>
1739 </param>
1740 </plist>
1741 <plist name="none">
1742 <param>
1743 <key>COLORS</key>
1744 <val>{[0.80000000000000004 0.20000000000000001 0.20000000000000001],[0.20000000000000001 0.20000000000000001 0.80000000000000004],[0.20000000000000001 0.90000000000000002 0.20000000000000001],[0.37 0.90000000000000002 0.82999999999999996],[0.88800000000000001 0.16300000000000001 0.90000000000000002],[0 0 0],[0 0.81176470588235294 1],[1 0.50196078431372548 0],[0.5607843137254902 0 0],[1 0.81176470588235294 0],[0.90000000000000002 0.26600000000000001 0.59299999999999997]}</val>
1745 <type>cell</type>
1746 </param>
1747 <param>
1748 <key>ARRANGEMENT</key>
1749 <val>single</val>
1750 <type>char</type>
1751 </param>
1752 <param>
1753 <key>XLABEL</key>
1754 <val>Time</val>
1755 <type>char</type>
1756 </param>
1757 <param>
1758 <key>YLABEL</key>
1759 <val>Frequency</val>
1760 <type>char</type>
1761 </param>
1762 <param>
1763 <key>ZLABEL</key>
1764 <val>Amplitude</val>
1765 <type>char</type>
1766 </param>
1767 <param>
1768 <key>YMATHS</key>
1769 <val/>
1770 <type>char</type>
1771 </param>
1772 <param>
1773 <key>ZMATHS</key>
1774 <val/>
1775 <type>char</type>
1776 </param>
1777 <param>
1778 <key>XMATHS</key>
1779 <val/>
1780 <type>char</type>
1781 </param>
1782 </plist>
1783 </plists>
1784 </LTPDAalgorithm>
1785 <plist name="none">
1786 <param>
1787 <key>COLORS</key>
1788 <val>{[0.80000000000000004 0.20000000000000001 0.20000000000000001],[0.20000000000000001 0.20000000000000001 0.80000000000000004],[0.20000000000000001 0.90000000000000002 0.20000000000000001],[0.37 0.90000000000000002 0.82999999999999996],[0.88800000000000001 0.16300000000000001 0.90000000000000002],[0 0 0],[0 0.81176470588235294 1],[1 0.50196078431372548 0],[0.5607843137254902 0 0],[1 0.81176470588235294 0],[0.90000000000000002 0.26600000000000001 0.59299999999999997]}</val>
1789 <type>cell</type>
1790 </param>
1791 <param>
1792 <key>ARRANGEMENT</key>
1793 <val>stacked</val>
1794 <type>char</type>
1795 </param>
1796 <param>
1797 <key>FUNCTION</key>
1798 <val>plot</val>
1799 <type>char</type>
1800 </param>
1801 <param>
1802 <key>LEGENDLOCATION</key>
1803 <val>NorthEast</val>
1804 <type>char</type>
1805 </param>
1806 <param>
1807 <key>XERRL</key>
1808 <val>[]</val>
1809 <type>double</type>
1810 </param>
1811 <param>
1812 <key>XERRU</key>
1813 <val>[]</val>
1814 <type>double</type>
1815 </param>
1816 <param>
1817 <key>YERRU</key>
1818 <val>[]</val>
1819 <type>double</type>
1820 </param>
1821 <param>
1822 <key>YERRL</key>
1823 <val>[]</val>
1824 <type>double</type>
1825 </param>
1826 <param>
1827 <key>XLABEL</key>
1828 <val>Time</val>
1829 <type>char</type>
1830 </param>
1831 <param>
1832 <key>YLABEL</key>
1833 <val>Amplitude</val>
1834 <type>char</type>
1835 </param>
1836 </plist>
1837 <port number="0" type="output"/>
1838 </block>
1839 </document>
1840 </LTPDAworkbench>