Post-World Cup Infrastructure Utilization in Qatar and Solar Streetlights: Energy Efficiency Upgrades and Smart Management for Roadway Lighting Surrounding Stadiums
Changsha Kototerk Tech Co, Ltd Rainer Chen
The 2022 FIFA World Cup in Qatar left behind a legacy of world-class sports and urban infrastructure, including eight modern stadiums, the new city of Lusail, the Doha Metro system, and an extensively upgraded road network. Following the conclusion of the World Cup, a key policy priority for the Qatari government is determining how to utilize this infrastructure efficiently—specifically, how to avoid the common problem of underutilization and waste often associated with large-scale sports venues once major events have passed.
Among the four pillars of the Qatar National Vision 2030 (QNV 2030), economic diversification and environmental sustainability are the two directions most directly linked to infrastructure development. Within this framework, upgrading the energy efficiency of post-World Cup infrastructure—including the conversion of roadway lighting surrounding stadiums into smart, solar-powered systems—represents an investment strategy that not only aligns with the goals of QNV 2030 but also serves as a valuable demonstration model.
I. The Context of Smart Lighting in Lusail City
Lusail is a brand-new city developed specifically for the World Cup. Located approximately 15 kilometers north of Doha’s city center, it is planned to accommodate a population of 200,000 and stands as one of the largest new city development projects in the Middle East. From its inception, Lusail’s urban design was embedded with the core principles of a "smart city," incorporating features such as a centralized energy management system, a district cooling network, and a digital urban management platform.
During the World Cup, Lusail’s lighting systems were designed primarily to meet the specific demands of the tournament, resulting in relatively high operating costs. In the post-World Cup phase—as the city transitions into a mode of normalized, everyday operation—optimizing the energy efficiency of the lighting system holds significant economic value. This optimization is achieved by introducing solar power supply and smart dimming controls to reduce both electricity consumption and operational expenses.
II. Specific Requirements for Roadway Lighting Surrounding Stadiums
The intensity of usage for roads surrounding sports stadiums varies drastically between event days and ordinary days. During events, these roads must accommodate the massive flow of tens of thousands of spectators during dispersal periods, necessitating full-power lighting operation to ensure safety. On ordinary days, however, pedestrian and vehicular traffic is sparse; consequently, operating the lighting at full power is both wasteful of energy and entirely unnecessary. This extreme disparity between peak and off-peak demand represents the ideal application scenario where a smart dimming control system can demonstrate its maximum value. A predictive dimming strategy—based on event calendars and historical pedestrian flow data—automatically increases brightness prior to the start of an event. Following the event, as crowds disperse, the lighting levels gradually decrease to normal levels, eventually switching to an energy-saving mode late at night. This strategy reduces average annual energy consumption by 40% to 60% without compromising lighting quality during critical periods.
III. Qatar’s Climatic Conditions and System Design
Located on the eastern side of the Arabian Peninsula along the Persian Gulf, Qatar is characterized by a climate defined by a combination of extreme heat, high humidity, and intense salt spray. During the summer months (June through September), temperatures frequently exceed 45°C; along the Gulf coast, relative humidity often ranges between 70% and 90%, while the corrosivity of the salt spray falls within the C4 to C5 classification levels. The average annual peak sunshine duration is approximately 5.5 to 6 hours, indicating an abundant solar energy resource.
To address Qatar’s specific climatic challenges, the design priorities for solar streetlights mirror those of the UAE: the anti-corrosion system adheres to the C5 standard; battery thermal management employs a passive cooling solution utilizing a combination of thermal insulation and reflective coatings; and the controllers and communication modules are selected from industrial-grade components, capable of operating within a temperature range of -20°C to +85°C.
IV. Ashghal Road Lighting Standards
The Public Works Authority of Qatar (Ashghal) serves as the governing body for road lighting; the Ashghal Road Lighting Design Manual—a technical specification published by the Authority—constitutes the core technical basis for all road lighting projects within Qatar. Referencing British Standard BS 5489 and European Standard EN 13201, the manual provides detailed specifications regarding illuminance levels, uniformity, and glare limitations for various types of roadways.
Ashghal’s procurement process is highly transparent, with public tenders conducted via its electronic procurement portal, Etimad Qatar. Regarding product certification, both CE certification and relevant IEC test reports are accepted; furthermore, suppliers are required to submit a comprehensive technical documentation package as well as detailed installation and maintenance plans. Procurement procedures in Qatar typically mandate that suppliers either establish a legal entity within the country or participate in tenders through a registered local agent.
Post time:Mar - 24 - 2026
