Average rating: | Rated 3 of 5. |
Level of importance: | Rated 2 of 5. |
Level of validity: | Rated 2 of 5. |
Level of completeness: | Rated 3 of 5. |
Level of comprehensibility: | Rated 4 of 5. |
Competing interests: | None |
Goals
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(1) The authors have proposed a Machine Learning model, which is based on Gradient-Boosted Regression, for learning over Norwegian real estate datasets such that predications can be made with regard to the value of real estate properties in Norway.
Evaluation
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(1) The authors have NOT given details with respect to comparative analyses based on other state-of-the-art models/methods applied to resolving problems of this nature.
Importance
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(1) The authors have aggregated quite some good sample of original data which will be very relevant to training Machine Learning and Deep Learning models in related tasks.
(2) Real Estate study is an interesting topic especially with regard to the 21st century and the business/investment world.
Related Work
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(1) The review of related literature in this research is barely adequate/sufficient.
(2) The contribution of this paper with regard to Machine Learning (ML) models is not quite significant.
Discussion and Clarity
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(1) The use of English herein by the authors is quite good and satisfiable. Thus, this made the manuscript quite easy to read and comprehend.
Concerns/Comments and Weaknesses
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(1) With respect to the work/experiments carried out by the authors herein; this work seems to be localized to the Norwegian Real Estate system. In this regard, the work herein may not be of widespread importance to the general populace with respect to every continent of the world.
(2) This claim in Section 1.3 is not always true: "The gradient boosted regression tree models are already known to give the best
prediction accuracy on real estate price valuations." In this regard, effective accuracy over a dataset with respect to a regression model is dependent on several factors that border on the cleanliness and completeness of the input dataset.
(3) The originality of this work as presented in Section 1.4 is trivial. Dimensionality reduction with respect to the feature space is a popular and well-known approach toward analyzing and training Machine Learning and Deep Learning models.
(4) The work presented herein is a popular exercise which is present in most introductory practical Machine Learning and/or Deep Learning textbooks.
(5) The experimental analyses herein have not been well detailed by the authors. No comparative analyses/results with respect to other benchmark and/or state-of-the-art models in this domain.
(6) The authors have not given proper details with regard to the architecture and formalism of their proposed framework/model.
(7) There is no formal definition to the problem(s) the authors have attempted to resolve herein.