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Table 1.

Structure of the flood loss model inventory.

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Fig 1.

Characteristics of flood loss models contained in the inventory.

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Fig 2.

Global distribution of flood loss models and functions for different sectors contained in the inventory.

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Table 2.

Characteristics of the selected example models.

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Fig 3.

Loss functions of residential buildings in HAZUS-MH [43]; example of a relative, deterministic model using uni-variable loss functions (negative inundation depth refers to inundation in the basement of a building).

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Fig 4.

Damage model of Zhai et al. [12] with the damage-influencing factors residing period, income and inundation depth; example for an absolute, deterministic model using multi-variable loss functions.

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Fig 5.

Structure and example distributions of loss estimates for selected water levels of BN-FLEMOps; example for a multi-variable, relative, probabilistic model.

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Fig 6.

Loss functions of crop types [60]; example for a relative, deterministic model using uni-variable loss functions.

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Fig 7.

Loss functions for one-cut silage [61]; example for an absolute, deterministic model using multi-variable loss functions.

D = total damage [£/ha], GMJ = energy from grass lost due to flooding [MJ/ha], RF = cost of replacement feed [£/ha], C = additional costs incurred (+) or saved (-) [£/ha].

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Fig 8.

Harmonized flood loss models for residential buildings in dependence of water depth; top: HAZUS [43], middle: Zhai et al. [12], bottom: BN-FLEMOps [15].

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Fig 9.

Compilation of harmonized flood loss models for residential buildings based on common variables.

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