Model Library
MIKE+
Model name: MIKE +
Developed by: Danish Hydraulic Institute (DHI) Group, Inc. (Last update: 2024)
Model type: 1D/2D/Hybrid, distributed, deterministic, hydrodynamic and water modeling waterbody model
History: MIKE+ is an integrated modeling platform that consolidates MIKE 11, MIKE Hydro River (successor to MIKE 11), and MIKE 11 FM.
Computational requirements: 64-bit Windows 10-11 Pro version 22H2-24H2, Windows Server 2022 Standard version 21H2, 64-bit Ubuntu 20.04-22.04/Red Hat 8-9 Linux (for simulations execution only), 2.2 GHz or higher of processor, 4 GB or higher of RAM, minimum 64GB of free storage
Software requirements: GIS (required): ArcGIS, QGIS, MapInfo, Civil 3D, Global Mapper, SAGA GIS
Link to download model: Not open-source.
Capabilities and Limitations:
Capabilities
- Offering extensive capabilities for modeling intricate river and channel networks, lakes, reservoirs, as well as river and drainage systems (Dang et al., 2024);
- Supporting parallel processing;
- Facilitating water quality assessments in river systems (Bansal et al., 2024):
- Supporting analysis of 2D surface water flow (Bansal et al., 2024);
- Enabling tailored modifications (Bansal et al., 2024);
- “User-centric design” (Bansal et al., 2024);
- The model is supported by the developers.
Limitations
- Not open-source;
- The model's accuracy depends on the quality and quantity of input data, with incomplete or biased datasets leading to suboptimal performance.
- It may inherit limitations of MIKE 11 and MIKE HYDRO River;
- While MIKE+ supports the import and conversion of existing models from MIKE 11 or MIKE HYDRO River, some model setups might need adjustments due to differences in how data is managed and validated in MIKE+ (DHI, 2025);
- It is not recommended to open SWMM and Water Distribution result files in MIKE+ without also opening the project database (DHI, 2025);
- The use of a PostGIS database requires a PostgreSQL installation (DHI, 2025).
Model inputs and Outputs:
Inputs
Topography data, Boundary conditions, LULC data, Soil data, Meteorological data, Hydrological data, Water quality data.
Outputs
- Reports on time-series hydrological and water quality simulation.
- Analysis of long-term impacts of LIDs and scenarios.
- Flood simulation.
Examples:
References
Thanh Quang Dang, Ba Hoang Tran, Quyen Ngoc Le, Thanh Duc Dang, Ahad Hasan Tanim, Quoc Bao Pham, Van Hieu Bui, Son T. Mai, Phong Nguyen Thanh, & Duong Tran Anh. (2024). Application of machine learning-based surrogate models for urban flood depth modeling in Ho Chi Minh City, Vietnam Image 1. Applied Soft Computing, 150, 111031. https://doi.org/10.1016/j.asoc.2023.111031
Sharma, A., Kumar, A., Shankar, V., & Thakur, P. K. (2024). Hydrological modeling
for rainfall–runoff assessment in a sub-Himalayan catchment using a distributed MIKE
SHE/MIKE+ model. Water Practice and Technology, 19(7), 2929–2943. https://doi.org/10.2166/wpt.2024.158
4o mini
Objectives
The objectives of this study were: (1) to develop a coupled 1D–2D drainage model for simulating urban flood in HCMC using MIKE+ software; (2) to test a wide range of machine learning algorithms to evaluate their surrogate modelling capabilities to simulate surface flooding depth in coastal urban cities; 3) to compare the performance of surrogate ML models with high fidelity and computationally expensive 1D–2D drainage models.
The main objectives of the study were: (1) to develop a hydrological model for the study area using a distributed MIKE SHE/MIKE+ coupled approach; (2) calibration and validation of the developed model using observed discharge data for the study area; and (3) to perform sensitivity analysis on the developed model by using the One-at-a-Time sensitivity measures.
Other resources: Guide to import MIKE 11 or MIKE HYDRO River models into MIKE+