EMS Annual Meeting Abstracts
Vol. 21, EMS2024-316, 2024, updated on 05 Jul 2024
https://doi.org/10.5194/ems2024-316
EMS Annual Meeting 2024
© Author(s) 2024. This work is distributed under
the Creative Commons Attribution 4.0 License.
Poster | Wednesday, 04 Sep, 18:00–19:30 (CEST), Display time Wednesday, 04 Sep, 08:00–Thursday, 05 Sep, 13:00|

ILS+Urban: an offline land-surface process model for global urban climate and building energy simulations 

Yuya Takane1,2, Tomoko Nitta3, Sachiho A. Adachi4, Kei Yoshimura3, Masuo Nakano5, Makoto Nakayoshi2, Shiho Onomura6, and Ben Crawford7
Yuya Takane et al.
  • 1National Institute of Advanced Industrial Science and Technology (AIST), Tsukuba, Japan (takane.yuya@aist.go.jp)
  • 2Tokyo University of Science
  • 3The University of Tokyo
  • 4RIKEN
  • 5Japan Agency for Marine-Earth Science and Technology (JAMSTEC)
  • 6Tokyo City University
  • 7University of Colorado, Denver

We have developed ILS+Urban: a coupled model of an offline land-surface model (ILS) and an urban canopy and building energy model (SLUCM+BEM) for global urban climate and energy research. The ILS is an offline land-surface model developed by Nitta et al. (2020) that includes MATSIRO (Takata et al. 2003), a land-surface model for the global climate model MIROC5. The SLUCM+BEM is a new parametrisation for urban climate and building energy simulations developed by the authors (Takane et al. 2024), which can simply simulate anthropogenic heat from buildings (QFB) and electricity consumption (EC) from human activities. The model could reproduce urban air temperature and EC well in the Tokyo Metropolitan Area. We have implemented the SLUCM+BEM in the ILS, allowing us to simulate global urban climate and building energy with relatively low computational resources in offline mode. A test simulation of ILS+Urban shows that QFB and EC tend to be quantitatively high throughout the year in the Middle East. In the near future, we will implement a global urban database (e.g. global LCZ, anthropogenic heat emissions and morphology, air-conditioning adoption rate) and new technology parameterisations (e.g. EV, PV and heat pump water heaters) for global urban climate and building energy projections and countermeasures for urban heat and energy savings & generation. In addition, the ILS+Urban will be coupled with global climate models (e.g. MIROC and NICAM).

References:
Nitta et al. (2020) PEPS, 7, 68.
Takane et al. (2024) ESS Open Archive (under review), https://doi.org/10.22541/essoar.170960070.07397688/v1
Takata et al. (2003) GPC, 38, 209–222.

How to cite: Takane, Y., Nitta, T., Adachi, S. A., Yoshimura, K., Nakano, M., Nakayoshi, M., Onomura, S., and Crawford, B.: ILS+Urban: an offline land-surface process model for global urban climate and building energy simulations , EMS Annual Meeting 2024, Barcelona, Spain, 1–6 Sep 2024, EMS2024-316, https://doi.org/10.5194/ems2024-316, 2024.