Research on insurance decision-making based on the TOPSIS evaluation model and K-means clustering algorithm

Authors

  • Yufei Liu
  • Qiao Lei
  • Weiliang Li
  • Yongqiang Li
  • Yixuan Ma
  • Zhu Chen

DOI:

https://doi.org/10.54097/a3ebnr94

Keywords:

Property insurance, Climate change, TOPSIS model, K-means clustering algorithm.

Abstract

Increasing losses caused by extreme weather events led to property insurance costs soaring and becoming more challenging to obtain, leaving insurance companies and property owners in a severe crisis. This study aims to address the challenges posed by climate change to the insurance industry and explore the impact of extreme weather events on property insurance. We introduce the TOPSIS evaluation model and K-means clustering algorithm to assess the risk level in different regions and provide the optimal basis for insurance decisions. By analyzing global disaster data and emission indicators, this paper found that some regions face the risk of rejecting underwriting, and used a clustering algorithm. The results show that the increase in property insurance costs aggravates the challenges in the insurance industry, but through the comprehensive assessment model and cluster analysis, we can provide more accurate risk assessment and decision support for insurance companies. By assessing the risk level and effective classification in different regions, it provides insurers with more accurate risk assessment and decision support. The results of this research are of great significance for dealing with the property insurance problems caused by extreme weather events and help the insurance industry better adapt to the challenges of climate change.

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References

Morshedi M A, Kashani H. Assessment of vulnerability reduction policies: Integration of economic and cognitive models of decision-making [J]. Reliability Engineering & System Safety, 2022, 217: 108057.

Rising J, Tedesco M, Piontek F, et al. The missing risks of climate change [J]. Nature, 2022, 610 (7933): 643 - 651.

Rezvani S M H S, de Almeida N M, Falcao M J, et al. Enhancing urban resilience evaluation systems through automated rational and consistent decision-making simulations [J]. Sustainable Cities and Society, 2022, 78: 103612. Ma Kunlong. Short-term distributed load forecasting method based on big data [D]. Changsha: Hunan University, 2014.

Xiaoli Du, Yan Wang, Fengxia Chen. Evaluation of coal-resource-based cities transformation based on CRITIC-TOPSIS model [J]. Sustainable Cities and Society, 2024, 103.

Dai R, Xiao C, Liang X, et al. Spatial-temporal evolution law analysis of resource and environment carrying capacity based on game theory combination weighting and GMD-GRA-TOPSIS model. Evidence from 18 cities in Henan Province, China [J]. Journal of Cleaner Production, 2024, 439: 140820.

M. R Y, S. A, S. M. Integrated AHP-TOPSIS models to evaluate the suitability and sustainable development of beach tourism: a case in Chennai City, Tamil Nadu, India [J]. Journal of Coastal Conservation, 2024, 28 (1).

Rutinaldo N A, Barroca Á N, Freitas D S Y B, et al. A new hybrid optimization approach using PSO, Nelder-Mead Simplex and K-means clustering algorithms for 1D Full Waveform Inversion. [J]. PloS one, 2022, 17 (12): e0277900 - e0277900.

Li Y. Empirical analysis of the impact of financial development on the income gap between urban and rural residents in the context of large data using fuzzy Kmeans clustering algorithm [J]. International Journal of Electrical Engineering Education, 2020, 002072092093683.

Lin X, Xu J. Road network partitioning method based on Canopy-Kmeans clustering algorithm [J]. Archives of Transport, 2020, 54 (2): 95 - 106.

Wang G, Meng D, Chen R, et al. Automatic Rice Early-Season Mapping Based on Simple Non-Iterative Clustering and Multi-Source Remote Sensing Images [J]. Remote Sensing, 2024, 16 (2):

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Published

20-05-2024