Work

Optimizing Urban Spaces: A Parametric Approach to Enhancing Outdoor Recreation Between Residential Areas in Riyadh, Saudi Arabia

Year: 2025

Type: article

Abstract: Improvement of recreational areas between the residential areas to achieve human behavior and the concept of humanization is urgently needed to achieve the 2030 vision of Saudi Arabia. This study aims to develop a parametric urban optimization framework to optimize the outdoor thermal comfort in outdoor recreational areas between residential buildings in Riyadh City, Saudi Arabia, based on the 2030 vision of Saudi Arabia to achieve a high standard of quality of life with thermal comfort. Measurement was conducted inside the sports walking path with walk-through observation and interviews. Then, case study geometry was generated computationally, using Rhinoceros software and its plug-in Grasshopper to implement the set of development scenarios. Then, the optimization process for the case study was integrated with 192 proposed development solutions to assess the solutions’ influence in reducing the Universal Thermal Comfort Index (UTCI) and average solar irradiance, besides increasing energy generated by PV panels. EnergyPlus engine and Ladybug plug-in are used to integrate PV panels with shading scenarios, to utilize the high solar irradiation, and to calculate the generated electrical energy. The results concluded that trees with diameters between 10 and 15 m could achieve thermal comfort and reduction UTCI by 11.26 K and average solar irradiance by 642.77 W/m2 with average energy generation of PV panel and optimum inclination angle of 20°. The integration of PV with shading scenarios generates electricity for every square meter of PV panel, equal to 578.84 kWh/m2 for lighting poles and service areas within the recreational areas. The results of this study help to improve the current park as a prototype, for which results can be implemented in more than 8100 instances of gardens, parks, and municipal squares in Saudi Arabia.

Source: Buildings

DOI: 10.3390/buildings15091527

Authors: Amr Sayed Hassan Abdallah, Randa Mohamed Ahmed Mahmoud, Mohammed A. Aloshan

Institutions: Imam Mohammad ibn Saud Islamic University, Assiut University

Language: English

Topic: Urban Heat Island Mitigation

Subfield: Environmental Engineering

Field: Environmental Science

Domain: Physical Sciences

SDGs: Sustainable cities and communities, Affordable and clean energy, Industry, innovation and infrastructure, Climate action

Open Access status: gold

Estimated APC paid: $3,137