the Creative Commons Attribution 4.0 License.
the Creative Commons Attribution 4.0 License.
Assimilation of sea surface salinities from SMOS in an Arctic coupled ocean and sea ice reanalysis
Abstract. In the Arctic, the sea surface salinity (SSS) plays a key role in processes related to water mixing and sea ice. However, the lack of salinity observations causes large uncertainties in Arctic Ocean forecasts and reanalysis. Recently the Soil Moisture and Ocean Salinity (SMOS) satellite mission was used by the Barcelona Expert Centre to propose an Arctic SSS product.
In this study, we evaluate the impact of assimilating this data in a coupled ocean-ice data assimilation system. Using the Ensemble Kalman filter from July to December 2016, two assimilation runs assimilated two successive versions of the SMOS SSS product, on top of a pre-existing reanalysis run. The runs were validated against independent in situ salinity profiles in the Arctic. The results show that the biases and the Root Mean Squared Differences (RMSD) of SSS are reduced by 10 % to 50 % depending on areas and put the latest product to its advantage. The time series of Freshwater Content (FWC) further show that its seasonal cycle can be adjusted by assimilation of the SSS products, which is encouraging for its use in a long-time reanalysis to monitor the Arctic water cycle.
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Notice on discussion status
The requested preprint has a corresponding peer-reviewed final revised paper. You are encouraged to refer to the final revised version.
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Preprint
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The requested preprint has a corresponding peer-reviewed final revised paper. You are encouraged to refer to the final revised version.
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Journal article(s) based on this preprint
Interactive discussion
Status: closed
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RC1: 'Comment on egusphere-2022-660', Anonymous Referee #1, 04 Aug 2022
The paper “Assimilation of sea surface salinities from SMOS in an Arctic
coupled ocean and sea ice reanalysis” looks at the effect of assimilating the latest version (V3.1) of SMOS surface salinity data into the Arctic region. It does this by comparing the results to model runs which either did not assimilate SMOS data, or used an earlier version (V2.0) of the data. Validation was done against a variety of in-situ sources. The broad conclusion is that the V3.1 data does bring some benefits.
My comments, both minor and major, on the manuscript can be found in the accompanying PDF
The results in the manuscript will clearly be of interest to readers of EGUspehere. I also cannot see any major errors with the approach taken and how the results were obtained. That being said, and to be blunt, the paper is currently in a very poor state and needs to be considerably improved before publication.
Some, but not all, of my major issues are:
- The English is very poor, and nearly indecipherable in places. Most of my 230+ comments relate to the English. I appreciate that the authors are not native English speakers and that writing in English may be difficult. However, I recommend getting a native English speaker to proofread any future version before resubmitting.
- There is a lack of care with the mathematics; three of the six equations in the paper look to be wrong.
- The authors claim to use the DEnKF assimilation system, but their description, and mathematics, more closely relate to the EnKF – which is not the same.
- The authors do much of their analysis on absolute fields, which all look very similar to each other. This makes it hard to believe their conclusions. It would be much more informative to look at the difference fields.
- The authors need to give correlation coefficients between the model results and the in-situ observations. Regardless of the data being assimilated, some of the plots in figures 4, 6 and 7 make it look like the model is doing very poorly at representing salinity changes. It would be useful to see this quantified.
Given these points, and my comments in the attached PDF, I am recommending that the paper is accepted, bit only after major, and extensive, revision.
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CC1: 'Reply on RC1', Jiping Xie, 12 Sep 2022
The paper “Assimilation of sea surface salinities from SMOS in an Arctic
coupled ocean and sea ice reanalysis” looks at the effect of assimilating the latest version (V3.1) of SMOS surface salinity data into the Arctic region. It does this by comparing the results to model runs which either did not assimilate SMOS data, or used an earlier version (V2.0) of the data. Validation was done against a variety of in-situ sources. The broad conclusion is that the V3.1 data does bring some benefits.
My comments, both minor and major, on the manuscript can be found in the accompanying PDF
The results in the manuscript will clearly be of interest to readers of EGUspehere. I also cannot see any major errors with the approach taken and how the results were obtained. That being said, and to be blunt, the paper is currently in a very poor state and needs to be considerably improved before publication.
Some, but not all, of my major issues are:
- The English is very poor, and nearly indecipherable in places. Most of my 230+ comments relate to the English. I appreciate that the authors are not native English speakers and that writing in English may be difficult. However, I recommend getting a native English speaker to proofread any future version before resubmitting.
Thank the reference for this comment which will be helpful to further improve our text. I together all the co-authors will improve the language more fluent and ask the native speaker to proofread the revision.
- There is a lack of care with the mathematics; three of the six equations in the paper look to be wrong.
Sorry for some technique errors in the equations. I will correct them and double check it before submitting the revision. For Eq.1 and Eq. 2 have no fault but can be explained more explicit. Eq. 3 and Eq. 6 can be adjusted more common. Eq. 4 and Eq. 5 will be corrected as the suggestion.
- The authors claim to use the DEnKF assimilation system, but their description, and mathematics, more closely relate to the EnKF – which is not the same.
Thank for your reminding to keep the good consistence for the approach introduce. Right, DEnKF and EnKF are not equally same, but they are quite similar. The DEnKF was derived from the latter to keep the efficient analysis and more tolerant for operational forecast running. In this study, we would not like to present the method details because all the assimilation runs use the same method, and so the method illustration only in one paragraph in Section 2.1. In fact, the concerned mathematic equations of Eq. 1 and Eq. 2 are generally concept equations used by data assimilation community. At the end of Section 2.1 (line 137-138), there are mentioned “The K matrix (Kalman gain), is calculated as in Sakov et al. (2012) and updated in Xie et al. (2017).”
- The authors do much of their analysis on absolute fields, which all look very similar to each other. This makes it hard to believe their conclusions. It would be much more informative to look at the difference fields.
Thank this comment, but I feel a bit of disagreement for that. To evaluate the data benefits from SSS is complicated because the real observations are sparse in Arctic and contain many uncertainties due to the represented errors both on space and time. In this study, from different views, we try to include all available observations and to evaluate the model means and the deviations. Yes, most of the findings are focused on the salinity and its related fields.
- The authors need to give correlation coefficients between the model results and the in-situ observations. Regardless of the data being assimilated, some of the plots in figures 4, 6 and 7 make it look like the model is doing very poorly at representing salinity changes. It would be useful to see this quantified.
In the figure 4 and 6, the linear relationships are poor in ExpV3 if comparing the correlation coefficients. It could be related with the large spread. More discussions would be added in the revision.
Given these points, and my comments in the attached PDF, I am recommending that the paper is accepted, bit only after major, and extensive, revision.
We will work for these comments and give the official reply in PDF with one by one response.
Citation: https://doi.org/10.5194/egusphere-2022-660-CC1 -
CC2: 'Reply on CC1', Jiping Xie, 12 Sep 2022
For the comment “The authors do much of their analysis on absolute fields, which all look very similar to each other. This makes it hard to believe their conclusions. It would be much more informative to look at the difference fields.”
Some words should be added for replying:
Other different model variables had been checked, as Line 482-484: “In addition, the increments for other variables such as SST, SIC and so on are diagnosed, but their spatial features during the same time (figures not shown) have no clear differences as in Exp0”
Citation: https://doi.org/10.5194/egusphere-2022-660-CC2 -
AC4: 'Reply on CC1', Jiping Xie, 23 Nov 2022
The comment was uploaded in the form of a supplement: https://egusphere.copernicus.org/preprints/2022/egusphere-2022-660/egusphere-2022-660-AC4-supplement.pdf
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CC5: 'Reply on RC1', Jiping Xie, 13 Sep 2022
Sorry for asking the additional question about the attached PDF comments.
In this file, I noticed some coments with a blue line and insert marker in which it means the word should be replaced by your suggested word, as shown in the picture as following:
However, the recommaned contents cannot be shown in the PDF file.
Citation: https://doi.org/10.5194/egusphere-2022-660-CC5 -
AC1: 'Reply on CC5', Jiping Xie, 23 Nov 2022
The comment was uploaded in the form of a supplement: https://egusphere.copernicus.org/preprints/2022/egusphere-2022-660/egusphere-2022-660-AC1-supplement.pdf
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AC1: 'Reply on CC5', Jiping Xie, 23 Nov 2022
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RC2: 'Comment on egusphere-2022-660', Anonymous Referee #2, 01 Sep 2022
The comment was uploaded in the form of a supplement: https://egusphere.copernicus.org/preprints/2022/egusphere-2022-660/egusphere-2022-660-RC2-supplement.pdf
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CC3: 'Reply on RC2', Jiping Xie, 13 Sep 2022
General comments
I would suggest showing maps of the different SSS satellite products for August and September to complement figure 3 (model fields). This will highlight differences between the product versions and between the different experiments presented in figure 3. It may also help to understand the differences in the increments in the ESS, LS and KS regions shown in figure 8. Since the increments (figure 8) are quite different in regions where no in situ data allows to evaluate their realism, it may be interesting to compare them to the mean SMOS innovations to see if it can explain the increment differences in expv2 and expv3. As it is difficult to see the SSS differences between the different experiments and the observations when looking at the absolute fields, showing maps of differences may be more efficient to illustrate the results.
Yes, the monthly mean for Aug. and Sep. from the two products will be interesting as the reference for understanding the results in Fig. 3 and Fig. 8 as well. The Fig. 8 will be careful considered whether to be replaced by the difference or not in the revision.
In many regions, the model salinity shows less variation than the in situ observations (scatterplots), even if it is still improved with assimilation. For the Chukchi Sea, it is attributed to the climatology relaxation, but do you have any possible explanations for the other regions?
The mode salinity also used the relaxation to constrain the possible model drift as Line 117-121:” To avoid a potential model drift, the surface salinity is relaxed to the same climatology with a 30-day timescale, and the relaxation is turned off wherever the difference from climatology exceeds 0.5 psu. The salinity flux from the SSS relaxation thus spreads evenly into the mixed layer depth without creating a new stable fresh layer at the surface.”
In the revision, this point would be added for the concerned explanations.
In few places in the article, regions are referred with “S number” that may be removed completely with just the use of the acronyms presented in figure 1.
Thanks. It will be a good suggestion for well understanding.
Citation: https://doi.org/10.5194/egusphere-2022-660-CC3 -
AC2: 'Reply on RC2', Jiping Xie, 23 Nov 2022
The comment was uploaded in the form of a supplement: https://egusphere.copernicus.org/preprints/2022/egusphere-2022-660/egusphere-2022-660-AC2-supplement.pdf
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CC3: 'Reply on RC2', Jiping Xie, 13 Sep 2022
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RC3: 'Comment on egusphere-2022-660', Anonymous Referee #3, 02 Sep 2022
Review of “Assimilation of sea surface salinities from SMOS in an Arctic coupled ocean and sea ice reanalysis”
Manuscript reference: egusphere-2022-660
Authors: Jiping Xie et al.
Recommendation: minor revision
General Evaluation:
This work presents a good assessment of the usefulness of SMOS sea surface salinity data in Arctic Ocean modeling. The control vs SSS assimilation experimental design is valid, statistical error diagnostic is standard and the evaluation is well done by comparing with independent source of observations. Discussion is also informative and interesting. In general, I found it being a nice piece of research without major flaws. However, the following attentions need to be paid for improving the manuscript. 1) there are a few mistakes in the equations, although it seems that the authors did the correct diagnostics according to the figures presented. 2) some acronyms, data and analysis method are not clearly defined in the text - please see my specific comments. 3) the English writing must be improved as some parts of the article reads awkward and confusing which makes it hard for readers to follow. Other suggestions about making changes to figures and writing are included in the annotated document. Overall, I would suggest a minor revision recommendation for this article.
Specific comments:
Please see annotated review report.
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CC4: 'Reply on RC3', Jiping Xie, 13 Sep 2022
This work presents a good assessment of the usefulness of SMOS sea surface salinity data in Arctic Ocean modeling. The control vs SSS assimilation experimental design is valid, statistical error diagnostic is standard and the evaluation is well done by comparing with independent source of observations. Discussion is also informative and interesting. In general, I found it being a nice piece of research without major flaws. However, the following attentions need to be paid for improving the manuscript. 1) there are a few mistakes in the equations, although it seems that the authors did the correct diagnostics according to the figures presented.
Sorry for the related errors in Eq. like the Eq. 6 missing the sqrt. I will further correct the Eqs as the required by the common mathematic rules.
2) some acronyms, data and analysis method are not clearly defined in the text - please see my specific comments.
Thanks for this suggestion. The consistence in text will be checked more strictly in the revision, especially to the related comments.
3) the English writing must be improved as some parts of the article reads awkward and confusing which makes it hard for readers to follow.
Thanks for this suggestion. I together all the co-authors will improve the language more fluent and ask the native speaker to proofread the revision.
Other suggestions about making changes to figures and writing are included in the annotated document. Overall, I would suggest a minor revision recommendation for this article.
We will work for these comments and give the official reply in PDF with one by one response.
Citation: https://doi.org/10.5194/egusphere-2022-660-CC4 -
AC3: 'Reply on RC3', Jiping Xie, 23 Nov 2022
The comment was uploaded in the form of a supplement: https://egusphere.copernicus.org/preprints/2022/egusphere-2022-660/egusphere-2022-660-AC3-supplement.pdf
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CC4: 'Reply on RC3', Jiping Xie, 13 Sep 2022
Interactive discussion
Status: closed
-
RC1: 'Comment on egusphere-2022-660', Anonymous Referee #1, 04 Aug 2022
The paper “Assimilation of sea surface salinities from SMOS in an Arctic
coupled ocean and sea ice reanalysis” looks at the effect of assimilating the latest version (V3.1) of SMOS surface salinity data into the Arctic region. It does this by comparing the results to model runs which either did not assimilate SMOS data, or used an earlier version (V2.0) of the data. Validation was done against a variety of in-situ sources. The broad conclusion is that the V3.1 data does bring some benefits.
My comments, both minor and major, on the manuscript can be found in the accompanying PDF
The results in the manuscript will clearly be of interest to readers of EGUspehere. I also cannot see any major errors with the approach taken and how the results were obtained. That being said, and to be blunt, the paper is currently in a very poor state and needs to be considerably improved before publication.
Some, but not all, of my major issues are:
- The English is very poor, and nearly indecipherable in places. Most of my 230+ comments relate to the English. I appreciate that the authors are not native English speakers and that writing in English may be difficult. However, I recommend getting a native English speaker to proofread any future version before resubmitting.
- There is a lack of care with the mathematics; three of the six equations in the paper look to be wrong.
- The authors claim to use the DEnKF assimilation system, but their description, and mathematics, more closely relate to the EnKF – which is not the same.
- The authors do much of their analysis on absolute fields, which all look very similar to each other. This makes it hard to believe their conclusions. It would be much more informative to look at the difference fields.
- The authors need to give correlation coefficients between the model results and the in-situ observations. Regardless of the data being assimilated, some of the plots in figures 4, 6 and 7 make it look like the model is doing very poorly at representing salinity changes. It would be useful to see this quantified.
Given these points, and my comments in the attached PDF, I am recommending that the paper is accepted, bit only after major, and extensive, revision.
-
CC1: 'Reply on RC1', Jiping Xie, 12 Sep 2022
The paper “Assimilation of sea surface salinities from SMOS in an Arctic
coupled ocean and sea ice reanalysis” looks at the effect of assimilating the latest version (V3.1) of SMOS surface salinity data into the Arctic region. It does this by comparing the results to model runs which either did not assimilate SMOS data, or used an earlier version (V2.0) of the data. Validation was done against a variety of in-situ sources. The broad conclusion is that the V3.1 data does bring some benefits.
My comments, both minor and major, on the manuscript can be found in the accompanying PDF
The results in the manuscript will clearly be of interest to readers of EGUspehere. I also cannot see any major errors with the approach taken and how the results were obtained. That being said, and to be blunt, the paper is currently in a very poor state and needs to be considerably improved before publication.
Some, but not all, of my major issues are:
- The English is very poor, and nearly indecipherable in places. Most of my 230+ comments relate to the English. I appreciate that the authors are not native English speakers and that writing in English may be difficult. However, I recommend getting a native English speaker to proofread any future version before resubmitting.
Thank the reference for this comment which will be helpful to further improve our text. I together all the co-authors will improve the language more fluent and ask the native speaker to proofread the revision.
- There is a lack of care with the mathematics; three of the six equations in the paper look to be wrong.
Sorry for some technique errors in the equations. I will correct them and double check it before submitting the revision. For Eq.1 and Eq. 2 have no fault but can be explained more explicit. Eq. 3 and Eq. 6 can be adjusted more common. Eq. 4 and Eq. 5 will be corrected as the suggestion.
- The authors claim to use the DEnKF assimilation system, but their description, and mathematics, more closely relate to the EnKF – which is not the same.
Thank for your reminding to keep the good consistence for the approach introduce. Right, DEnKF and EnKF are not equally same, but they are quite similar. The DEnKF was derived from the latter to keep the efficient analysis and more tolerant for operational forecast running. In this study, we would not like to present the method details because all the assimilation runs use the same method, and so the method illustration only in one paragraph in Section 2.1. In fact, the concerned mathematic equations of Eq. 1 and Eq. 2 are generally concept equations used by data assimilation community. At the end of Section 2.1 (line 137-138), there are mentioned “The K matrix (Kalman gain), is calculated as in Sakov et al. (2012) and updated in Xie et al. (2017).”
- The authors do much of their analysis on absolute fields, which all look very similar to each other. This makes it hard to believe their conclusions. It would be much more informative to look at the difference fields.
Thank this comment, but I feel a bit of disagreement for that. To evaluate the data benefits from SSS is complicated because the real observations are sparse in Arctic and contain many uncertainties due to the represented errors both on space and time. In this study, from different views, we try to include all available observations and to evaluate the model means and the deviations. Yes, most of the findings are focused on the salinity and its related fields.
- The authors need to give correlation coefficients between the model results and the in-situ observations. Regardless of the data being assimilated, some of the plots in figures 4, 6 and 7 make it look like the model is doing very poorly at representing salinity changes. It would be useful to see this quantified.
In the figure 4 and 6, the linear relationships are poor in ExpV3 if comparing the correlation coefficients. It could be related with the large spread. More discussions would be added in the revision.
Given these points, and my comments in the attached PDF, I am recommending that the paper is accepted, bit only after major, and extensive, revision.
We will work for these comments and give the official reply in PDF with one by one response.
Citation: https://doi.org/10.5194/egusphere-2022-660-CC1 -
CC2: 'Reply on CC1', Jiping Xie, 12 Sep 2022
For the comment “The authors do much of their analysis on absolute fields, which all look very similar to each other. This makes it hard to believe their conclusions. It would be much more informative to look at the difference fields.”
Some words should be added for replying:
Other different model variables had been checked, as Line 482-484: “In addition, the increments for other variables such as SST, SIC and so on are diagnosed, but their spatial features during the same time (figures not shown) have no clear differences as in Exp0”
Citation: https://doi.org/10.5194/egusphere-2022-660-CC2 -
AC4: 'Reply on CC1', Jiping Xie, 23 Nov 2022
The comment was uploaded in the form of a supplement: https://egusphere.copernicus.org/preprints/2022/egusphere-2022-660/egusphere-2022-660-AC4-supplement.pdf
-
CC5: 'Reply on RC1', Jiping Xie, 13 Sep 2022
Sorry for asking the additional question about the attached PDF comments.
In this file, I noticed some coments with a blue line and insert marker in which it means the word should be replaced by your suggested word, as shown in the picture as following:
However, the recommaned contents cannot be shown in the PDF file.
Citation: https://doi.org/10.5194/egusphere-2022-660-CC5 -
AC1: 'Reply on CC5', Jiping Xie, 23 Nov 2022
The comment was uploaded in the form of a supplement: https://egusphere.copernicus.org/preprints/2022/egusphere-2022-660/egusphere-2022-660-AC1-supplement.pdf
-
AC1: 'Reply on CC5', Jiping Xie, 23 Nov 2022
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RC2: 'Comment on egusphere-2022-660', Anonymous Referee #2, 01 Sep 2022
The comment was uploaded in the form of a supplement: https://egusphere.copernicus.org/preprints/2022/egusphere-2022-660/egusphere-2022-660-RC2-supplement.pdf
-
CC3: 'Reply on RC2', Jiping Xie, 13 Sep 2022
General comments
I would suggest showing maps of the different SSS satellite products for August and September to complement figure 3 (model fields). This will highlight differences between the product versions and between the different experiments presented in figure 3. It may also help to understand the differences in the increments in the ESS, LS and KS regions shown in figure 8. Since the increments (figure 8) are quite different in regions where no in situ data allows to evaluate their realism, it may be interesting to compare them to the mean SMOS innovations to see if it can explain the increment differences in expv2 and expv3. As it is difficult to see the SSS differences between the different experiments and the observations when looking at the absolute fields, showing maps of differences may be more efficient to illustrate the results.
Yes, the monthly mean for Aug. and Sep. from the two products will be interesting as the reference for understanding the results in Fig. 3 and Fig. 8 as well. The Fig. 8 will be careful considered whether to be replaced by the difference or not in the revision.
In many regions, the model salinity shows less variation than the in situ observations (scatterplots), even if it is still improved with assimilation. For the Chukchi Sea, it is attributed to the climatology relaxation, but do you have any possible explanations for the other regions?
The mode salinity also used the relaxation to constrain the possible model drift as Line 117-121:” To avoid a potential model drift, the surface salinity is relaxed to the same climatology with a 30-day timescale, and the relaxation is turned off wherever the difference from climatology exceeds 0.5 psu. The salinity flux from the SSS relaxation thus spreads evenly into the mixed layer depth without creating a new stable fresh layer at the surface.”
In the revision, this point would be added for the concerned explanations.
In few places in the article, regions are referred with “S number” that may be removed completely with just the use of the acronyms presented in figure 1.
Thanks. It will be a good suggestion for well understanding.
Citation: https://doi.org/10.5194/egusphere-2022-660-CC3 -
AC2: 'Reply on RC2', Jiping Xie, 23 Nov 2022
The comment was uploaded in the form of a supplement: https://egusphere.copernicus.org/preprints/2022/egusphere-2022-660/egusphere-2022-660-AC2-supplement.pdf
-
CC3: 'Reply on RC2', Jiping Xie, 13 Sep 2022
-
RC3: 'Comment on egusphere-2022-660', Anonymous Referee #3, 02 Sep 2022
Review of “Assimilation of sea surface salinities from SMOS in an Arctic coupled ocean and sea ice reanalysis”
Manuscript reference: egusphere-2022-660
Authors: Jiping Xie et al.
Recommendation: minor revision
General Evaluation:
This work presents a good assessment of the usefulness of SMOS sea surface salinity data in Arctic Ocean modeling. The control vs SSS assimilation experimental design is valid, statistical error diagnostic is standard and the evaluation is well done by comparing with independent source of observations. Discussion is also informative and interesting. In general, I found it being a nice piece of research without major flaws. However, the following attentions need to be paid for improving the manuscript. 1) there are a few mistakes in the equations, although it seems that the authors did the correct diagnostics according to the figures presented. 2) some acronyms, data and analysis method are not clearly defined in the text - please see my specific comments. 3) the English writing must be improved as some parts of the article reads awkward and confusing which makes it hard for readers to follow. Other suggestions about making changes to figures and writing are included in the annotated document. Overall, I would suggest a minor revision recommendation for this article.
Specific comments:
Please see annotated review report.
-
CC4: 'Reply on RC3', Jiping Xie, 13 Sep 2022
This work presents a good assessment of the usefulness of SMOS sea surface salinity data in Arctic Ocean modeling. The control vs SSS assimilation experimental design is valid, statistical error diagnostic is standard and the evaluation is well done by comparing with independent source of observations. Discussion is also informative and interesting. In general, I found it being a nice piece of research without major flaws. However, the following attentions need to be paid for improving the manuscript. 1) there are a few mistakes in the equations, although it seems that the authors did the correct diagnostics according to the figures presented.
Sorry for the related errors in Eq. like the Eq. 6 missing the sqrt. I will further correct the Eqs as the required by the common mathematic rules.
2) some acronyms, data and analysis method are not clearly defined in the text - please see my specific comments.
Thanks for this suggestion. The consistence in text will be checked more strictly in the revision, especially to the related comments.
3) the English writing must be improved as some parts of the article reads awkward and confusing which makes it hard for readers to follow.
Thanks for this suggestion. I together all the co-authors will improve the language more fluent and ask the native speaker to proofread the revision.
Other suggestions about making changes to figures and writing are included in the annotated document. Overall, I would suggest a minor revision recommendation for this article.
We will work for these comments and give the official reply in PDF with one by one response.
Citation: https://doi.org/10.5194/egusphere-2022-660-CC4 -
AC3: 'Reply on RC3', Jiping Xie, 23 Nov 2022
The comment was uploaded in the form of a supplement: https://egusphere.copernicus.org/preprints/2022/egusphere-2022-660/egusphere-2022-660-AC3-supplement.pdf
-
CC4: 'Reply on RC3', Jiping Xie, 13 Sep 2022
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Jiping Xie
Roshin P. Raj
Laurent Bertino
Justino Martínez
Carolina Gabarró
Rafael Catany
The requested preprint has a corresponding peer-reviewed final revised paper. You are encouraged to refer to the final revised version.
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