Commit 959bbc540dbc749aa6ac84c9e724c810ba43c1d4

Authored by jfriedt
1 parent 90c55845a1
Exists in master

re-relecture JMF

Showing 2 changed files with 49 additions and 20 deletions Side-by-side Diff

ifcs2018_journal.tex
... ... @@ -249,7 +249,8 @@
249 249 we arbitrarily set a bandpass of 40\% of the Nyquist frequency and a bandstop from 60\%
250 250 of the Nyquist frequency to the end of the band, as would be typically selected to prevent
251 251 aliasing before decimating the dataflow by 2. The method is however generalized to any filter
252   -shape as long as it is defined from the initial modelling steps.}
  252 +shape as long as it is defined from the initial modelling steps: Fig. \ref{fig:rejection_pyramid}
  253 +as described below is indeed unique for each filter shape.}
253 254  
254 255 \begin{figure}
255 256 \begin{center}
256 257  
257 258  
... ... @@ -289,14 +290,16 @@
289 290 \label{fig:fir_mag}
290 291 \end{figure}
291 292  
292   -In the transition band, the behavior of the filter is left free, we only care about the passband and the stopband characteristics.
  293 +In the transition band, the behavior of the filter is left free, we only {\color{red}define} the passband and the stopband characteristics.
293 294 % r2.7
294 295 % Our initial criterion considered the mean value of the stopband rejection, as shown in figure~\ref{fig:mean_criterion}. This criterion
295 296 % yields unacceptable results since notches overestimate the rejection capability of the filter. Furthermore, the losses within
296 297 % the passband are not considered and might be excessive for excessively wide transitions widths introduced for filters with few coefficients.
297   -Our criterion to compute the filter rejection takes
  298 +Our criterion to compute the filter rejection considers
298 299 % r2.8 et r2.2 r2.3
299   -the maximum magnitude within the stopband minus the sum of the absolute value of passband rejection. With this criterion, we meet the expected rejection capability of low pass filters as shown in figure~\ref{fig:custom_criterion}.
  300 +the maximum magnitude within the stopband, to which the {\color{red}sum of the absolute values
  301 +within the passband rejection is subtracted to avoid filters with excessive ripples}. With this
  302 +criterion, we meet the expected rejection capability of low pass filters as shown in figure~\ref{fig:custom_criterion}.
300 303  
301 304 % \begin{figure}
302 305 % \centering
ifcs2018_journal_reponse.tex
... ... @@ -157,15 +157,20 @@
157 157 n = 1.
158 158 }
159 159  
160   -TODO : ajouter les gabarits
  160 +We have added on Figs 10--16 (now Fig 9(a)--(c)) the templates used to defined
  161 +the bandpass and the bandstop of the filter.
161 162  
162   -Peut etre refaire une serie de simulation dans lesquelles on impose une coupure
163   -non pas entre 40 et 60\% mais entre 50 et 60\% pour demontrer que l'outil s'adapte
164   -au critere qu'on lui impose, et que la coupure moins raide n'est pas intrinseque
165   -a la cascade de filtres.
166   -AH: Je finis les corrections, je poste l'article revu et pendant ce temps j'essaie de
167   -relancer des expérimentations. Si j'arrive à les finir à temps, je les intégrerai
  163 +%Peut etre refaire une serie de simulation dans lesquelles on impose une coupure
  164 +%non pas entre 40 et 60\% mais entre 50 et 60\% pour demontrer que l'outil s'adapte
  165 +%au critere qu'on lui impose, et que la coupure moins raide n'est pas intrinseque
  166 +%a la cascade de filtres.
  167 +%AH: Je finis les corrections, je poste l'article revu et pendant ce temps j'essaie de
  168 +%relancer des expérimentations. Si j'arrive à les finir à temps, je les intégrerai
168 169  
  170 +JMF : il n'a pas tord, la coupure est bcp moins franche a 5 filtres qu'a 1. Ca se voyait
  171 +moins avant de moyenner les fonctions de transfert, mais il y a bien une 15aine de dB
  172 +quand on cascade 5 filtres !
  173 +
169 174 {\bf
170 175 The reason is in the criterion that considers the average attenuation in % r2.2 - fait
171 176 the pass band. This criterion does not take into account the maximum attenuation
... ... @@ -176,11 +181,14 @@
176 181 and in the results that are obtained and has to be reconsidered.
177 182 }
178 183  
179   -Je ne pense pas que ca soit le cas : la somme des valeurs absolues des pertes
180   -dans la bande va defavoriser un filtre avec 10 dB de ripples. Il n'a pas compris que
181   -la bandpass s'arrete a 40\% de la bande, donc mettre le gabarit clarifierait ce point je
182   -pense
183   -AH: Il y avait une faute, j'avais mis "mean of absolute value" au lieu de "sum of absolute value". Je pense que je n'ai pas besoin de mettre plus de détail ?
  184 +The manuscript erroneously stated that we considered the mean of the absolute
  185 +value within the bandpass: the manuscript has now been corrected to properly state
  186 +the selected criterion, namely the {\em sum} of the absolute value, so that any
  187 +ripple in the bandpass will reduce the chances of a given filter set from being
  188 +selected. The manuscript now states ``Our criterion to compute the filter rejection considers
  189 +% r2.8 et r2.2 r2.3
  190 +the maximum magnitude within the stopband, to which the {sum of the absolute values
  191 +within the passband is subtracted to avoid filters with excessive ripples}.''
184 192  
185 193 {\bf
186 194 I strongly suggest to re-run the analysis with a criterion that takes also % r2.3 -fait
187 195  
... ... @@ -188,8 +196,10 @@
188 196 fixing its value to a typical one, as it has been done for the transition
189 197 bandwidth.
190 198 }
191   -AH: Il y avait une faute, j'avais mis "mean of absolute value" au lieu de "sum of absolute value". Je pense que je n'ai pas besoin de mettre plus de détail ?
192 199  
  200 +See above: the absolute value within the passband will reject filters with
  201 +excessive ripples, including excessive attenuation, within the passband.
  202 +
193 203 {\bf
194 204 In addition, I suggest to address the following points: % r2.4
195 205 - Page 1, line 50: the Authors state that IIR have shorter impulse response
196 206  
... ... @@ -247,11 +257,21 @@
247 257 de la magnitude. J'ai corrigé en ce sens.
248 258  
249 259 {\bf
250   -- Page e, line 55, second column: “takin” % r2.9 - fait
251   -- Page 3, line 58: “pessimistic” should be replaced with “conservative” % r2.10 - fait
252   -- Page 4, line 17: “meaning” --> “this means” % r2.11 - fait
  260 +- Page e, line 55, second column: ``takin'' % r2.9 - fait
  261 +- Page 3, line 58: ``pessimistic'' should be replaced with ``conservative'' % r2.10 - fait
  262 +- Page 4, line 17: ``meaning'' $\rightarrow$ ``this means'' % r2.11 - fait
  263 +}
  264 +
  265 +All typos and grammatical errors have been corrected.
  266 +
  267 +{\bf
253 268 - Page 4, line 10: how $p$ is chosen? Which is the criterion used to choose % r2.12 - fait
254 269 these particular configurations? Are they chosen automatically?
  270 +}
  271 +
  272 +JMF : repondre
  273 +
  274 +{\bf
255 275 - Page 4, line 31: how does the delta function transform model from non-linear % r2.13 - fait
256 276 and non-quadratic to a quadratic?}
257 277  
... ... @@ -273,6 +293,12 @@
273 293 Indeed averaging had been omitted during post-processing and figure generation: we
274 294 are grateful to the reviewer for emphasizing this point which has now been corrected. All spectra
275 295 now exhibit sub-dBpk-pl line thickness.
  296 +
  297 +We believe these updates to the manuscript have improved the presentation and made clearer
  298 +some of the shortcomings of the initial draft: we are greatful to the reviewers for pointing
  299 +out these issues.
  300 +
  301 +Best wishes, A. Hugeat
276 302  
277 303 %In conclusion, my opinion is that the methodology presented in the Manuscript
278 304 %deserve to be published, provided that the criterion is changed according