< Previouswww.mepmiddleeast.com40 MEP Middle East | September 2024 PROJECT By Anirudh Krishnan GROWING. TOGETHER. How Saudi Arabia’s state-of-the-art stadiums will make history with the FIFA World Cup 2034 and reshape global football MEP_Sep2024_40-43_Projects - Saudi FIFA Stadiums_13373071.indd 40MEP_Sep2024_40-43_Projects - Saudi FIFA Stadiums_13373071.indd 4028/08/2024 19:1428/08/2024 19:14www.mepmiddleeast.comSeptember 2024 | MEP Middle East 41 PROJECT Picture a location that is so culturally diverse, with projects spread across all sectors, from hospitality featuring exclusive and high-end luxury hotels and resorts to massive-scale mega and gigaprojects such as NEOM’S The Line. The Kingdom of Saudi Arabia is expected to once again dominate the global scene, and this time, it is in football. Being home to some of the largest-scale projects ever undertaken, and with plans underway for hundreds more, Saudi Arabia is now set to become the next epicentre for all things football and sports alike. Boasting a total of 15 magnificent stadiums, with 11 new and four undergoing refurbishments, the kingdom is all set and gearing towards hosting the FIFA World Cup 2034, with a slogan that reads “Growing. Together.” The stadiums will be strategically located across five cities — Riyadh, Jeddah, Al Khobar, Abha, and NEOM — each set to host the World Cup matches. Alongside some of the most uniquely designed stadiums, the kingdom is also set to introduce FIFA Fan Festival™ sites, along with 10 other locations within the country dedicated to supporting the team base camps. Here is the complete list of stadiums along with their respective seating capacities, design inspirations, and other details. KING SALMAN INTERNATIONAL STADIUM, RIYADH The King Salman International Stadium in Riyadh will boast a seating capacity of over 92,000 and is set to become a landmark achievement in KSA’s ongoing development initiatives. The stadium is being built as part of Saudi Arabia’s Vision 2030, which aims to diversify the economy and promote sectors such as sports and entertainment. Slated to become the largest stadium in the country, it is scheduled for completion by 2029 and is expected to host the final match of the FIFA World Cup 2034. NEOM STADIUM, NEOM’S THE LINE The NEOM Stadium, located in NEOM’s The Line, will feature a unique construction, situated more than 350 metres above the ground level with a seating capacity of over 46,000. The stadium is designed to offer unparalleled experiences and will contribute to sustainability goals by running entirely on renewable energy sources. It is expected to be home to both men’s and women’s professional football clubs and will serve as a base for community activities and major events. With 15 impressive stadiums, the kingdom is gearing up to host the FIFA World Cup 2034 ROSHN Stadium MEP_Sep2024_40-43_Projects - Saudi FIFA Stadiums_13373071.indd 41MEP_Sep2024_40-43_Projects - Saudi FIFA Stadiums_13373071.indd 4128/08/2024 19:1428/08/2024 19:14www.mepmiddleeast.com42 MEP Middle East | September 2024 PROJECT PRINCE MOHAMMED BIN SALMAN STADIUM, QIDDIYA CITY, RIYADH The Prince Mohammed Bin Salman Stadium, located in Qiddiya City, Riyadh, will have a seating capacity of over 46,000. It is expected to serve as the home ground for the Saudi Pro League football clubs Al-Hilal and Al-Nassr. Aside from being a proposed stadium for the 2034 World Cup, it is set to host the region’s biggest sports events, including the Saudi King Cup, the Asian Cup, and potentially the 2034 Asian Games. The stadium will also have close to 50,000 square metres of shopping, dining, and entertainment spaces, alongside hotel options. A total of 1.8 million annual visits are expected to the stadium, with completion slated for 2029. ARAMCO STADIUM, AL KHOBAR The Aramco Stadium will include a seating capacity of over 47,000 and will be located in Al Khobar, with construction already underway and completion expected by 2026. The stadium is set to become a hub with state-of-the-art amenities, providing the highest quality experiences for its visitors. Its architecture celebrates the sea’s dynamic nature, taking inspiration from the coastal region, mimicking a whirlpool-like complex. It is expected to host its first match in 2027 for the AFC Asian Cup. JEDDAH CENTRAL DEVELOPMENT STADIUM, JEDDAH The Jeddah Central Development Stadium will have a total seating capacity of over 45,000 and is currently under construction. It takes inspiration from the traditional architecture of Jeddah’s historic Al Balad district and is expected to feature distinctive green gardens as well as open spaces. The stadium is part of a larger development for the Jeddah Central project, which is set to be implemented across three phases, with the first phase slated for completion in 2027. KING KHALID UNIVERSITY STADIUM, SOUTH-EAST ABHA The King Khalid University Stadium is an existing stadium located in the southeast of Abha. The stadium will undergo refurbishments and be expanded to accommodate more than 45,000 seats. The refurbishments are set to modernise the stadium with upgrades including a new permanent west stand and technological additions, while respecting the historical context of the venue. KING ABDULLAH ECONOMIC CITY STADIUM, JEDDAH The King Abdullah Economic City Stadium will have a total seating capacity of over 45,000, with an expected completion date of 2032. The stadium is set to serve the vibrant King Abdullah Economic City area on the Red Sea coast, with designs inspired by the local Red Sea coral reefs. The stadium will also feature facilities including three hotels, mixed-use areas, and a sports clinic, aligning with plans to develop it as a multifunctional hub balancing economic prosperity, environmental sustainability, and community integration. KING FAHAD SPORTS CITY STADIUM, RIYADH The King Fahad Sports City Stadium, an existing venue in Riyadh, is currently undergoing refurbishment to significantly boost its seating capacity to over 70,000. The stadium is considered one of the most iconic venues in the region, with its distinctive roof design inspired by traditional tents. The refurbishment is expected to be completed by 2026, enabling the stadium to be used for both football matches and concerts. NEOM Stadium Jeddah Central Development Stadium MEP_Sep2024_40-43_Projects - Saudi FIFA Stadiums_13373071.indd 42MEP_Sep2024_40-43_Projects - Saudi FIFA Stadiums_13373071.indd 4228/08/2024 19:1428/08/2024 19:14www.mepmiddleeast.comSeptember 2024 | MEP Middle East 43 PROJECT KING ABDULLAH SPORTS CITY STADIUM, JEDDAH The King Abdullah Sports City Stadium, also known as ‘The Shining Jewel’ for its distinctive geometric architecture, was built in 2014 and is home to the Al Ahli and Al Ittihad clubs. The stadium, with a seating capacity of over 58,000, is the kingdom’s second-largest and is set to undergo refurbishments to meet FIFA requirements. It is expected to host the AFC Asian Cup in 2027 and was a key venue for the FIFA Club World Cup Saudi Arabia 2023. Post-FIFA 2034, the stadium and the rest of the sports city will remain a hub for sporting excellence, hosting various sports tournaments and entertainment events. KING SAUD UNIVERSITY STADIUM, RIYADH The King Saud University Stadium in Riyadh, currently with a seating capacity of 27,000, will undergo refurbishments to expand its capacity to over 46,000. The design changes will include a new elliptical lightweight spoke wheel roof, and the stadium is expected to feature enhanced amenities in line with FIFA standards. Currently serving as the home for the Al Nassr football club, the stadium is set to become the home of King Saud University’s teams and be used for university sports, community events, and women’s football after the 2034 World Cup. NEW MURABBA STADIUM, RIYADH Inspired by the overlapping planes and textures of the native Acacia tree bark, the New Murabba Stadium in Riyadh will feature a seating capacity of over 45,000 and is set to be the central pillar of the downtown destination of “New Murabba.” The stadium will offer a personalised fan experience with the latest technology, including digital signage to create customisable and immersive zones. The stadium’s roof will include sheltered spaces for gatherings and promote greater circulation, along with surrounding shaded areas to encourage outdoor seating. PRINCE FAISAL BIN FAHAD SPORTS CITY STADIUM, RIYADH The Prince Faisal Bin Fahad Sports City Stadium will be a new multi-purpose facility built with locally sourced materials. The stadium is expected to be equipped with energy-efficient systems, including extensive solar panels on its roof. Its design follows the principles of “culturally contextualised modernism” within Salmani architecture and will be part of a larger park site master plan. The stadium, situated at the heart of a community facility, will provide locals with a combination of sports facilities and green spaces. With a capacity of over 45,000, the stadium will also become the home to professional football clubs and serve as a host for major matches following the FIFA 2034 World Cup. QIDDIYA COAST STADIUM, JEDDAH The Qiddiya Coast Stadium, with a seating capacity of over 46,000, follows a unique design symbolising the dynamic relationship between people and water, energy, and matter, reminiscent of the ripple effect of a “Mexican wave.” It will be located on the northern shores of Jeddah, along the Red Sea, at the heart of the Qiddiya Coast Development. After the 2034 World Cup, the capacity will be reduced to 25,000 by removing the upper tier, converting the stadium into a multi- purpose entertainment venue. ROSHN STADIUM, RIYADH Spanning over 450,000 square metres in the southwest of Riyadh, the ROSHN Stadium will have a capacity of over 45,000. The stadium will serve as a mixed-use project featuring a wide range of shops, restaurants, and other hospitality venues, with the sports and events floor at its heart. The design incorporates modern crystalline forms, with a saddle-shaped bowl consisting of stands at various heights. The bowl’s parabolic shape will enhance acoustics, creating an immersive experience for spectators. SOUTH RIYADH STADIUM, RIYADH The new South Riyadh Stadium will have a total seating capacity of over 47,000 and will feature a facade that combines modern elements with the traditional architectural style and materials of the surrounding area. To ensure environmental sustainability, solar panels will be integrated into the design, helping generate sustainable energy. After the 2034 World Cup, the stadium will become home to a professional football club and will host various sports and entertainment events. Aramco Stadium MEP_Sep2024_40-43_Projects - Saudi FIFA Stadiums_13373071.indd 43MEP_Sep2024_40-43_Projects - Saudi FIFA Stadiums_13373071.indd 4328/08/2024 19:1428/08/2024 19:14www.mepmiddleeast.com44 MEP Middle East | September 2024 PARTNER CONTENT By Angitha Pradeep Amali Island, Dubai, UAE BUILDING ON SUCCESS In an exclusive interview with MEP Middle East, Meinhardt shares how over two decades of experience in the Middle East have shaped their approach to tackling the region’s unique challenges. The global consultancy also discusses the key lessons learned, from leveraging local talent and global expertise to embracing sustainability and cutting-edge technologies. How has Meinhardt adapted to the Middle East’s evolving MEP landscape over the past 20 years, and what key lessons shape your approach today? Over the past two decades, Meinhardt has strategically adapted to the unique demands and rapidly evolving MEP landscape of the Middle East by combining local investment with global expertise. Our intentional expansion into key markets such as the UAE, Saudi Arabia, Oman, and Iraq has been driven by a commitment to understanding and addressing regional needs, such as developing local talent and establishing regional offices. As the MEP landscape has shifted with the rise of mega and gigaprojects like Saudi Arabia’s NEOM, we have responded by embracing digital transformation and sustainability. Technologies such as Building Information Modelling (BIM), digital twin modelling, and IoT integration have enabled us to deliver more efficient and innovative solutions. At the same time, our focus on low-carbon designs aligns with the region’s growing emphasis on green building practices. Key lessons learnt include the importance of adaptability in a dynamic market, where the ability to quickly respond to changing conditions and client needs has been crucial. Investing in local talent has allowed us to build a strong workforce that deeply understands regional challenges. Additionally, our emphasis on sustainability not only meets client expectations but also supports broader environmental goals. Effective communication and collaboration with clients and contractors have been essential in ensuring project success, and our close working relationship with contractors during early contractor engagement has been particularly beneficial, helping us keep projects on schedule and within budget. By integrating these strategies and lessons, Meinhardt continues to thrive as a trusted partner in delivering innovative and sustainable MEP solutions across the Middle East. How does Meinhardt align its MEP services with client needs in a market as dynamic as the Middle East? At Meinhardt, we believe that understanding and exceeding client expectations is the cornerstone of our success in the dynamic Middle Eastern market. We actively collaborate with clients and key stakeholders from the outset, transforming their visions into innovative, customised solutions. This collaborative approach, combined with our deep regional expertise and global perspective, allows us to address complex challenges while consistently delivering cutting-edge quality and best-in- class practices. Sustainability is a central focus of our MEP services, driven by a commitment to creating resilient and environmentally responsible designs. We prioritise energy A 20-year journey of innovation and adaptability, as Meinhardt reveals the strategies that have solidified its role in the Middle East region MEP_Sep2024_44-45_Meinhardt_13370722.indd 44MEP_Sep2024_44-45_Meinhardt_13370722.indd 4427/08/2024 12:2227/08/2024 12:22www.mepmiddleeast.comSeptember 2024 | MEP Middle East 45 PARTNER CONTENT efficiency, water conservation, and the use of sustainable materials, aligning our projects with the Middle East’s ambitious green building standards. By integrating renewable energy solutions and advanced technologies like energy modelling and smart building systems, we ensure that our designs not only meet client needs but also contribute to the region’s sustainability goals, reducing environmental impact while enhancing long-term value. How does Meinhardt manage the complexities of MEP systems in large-scale developments and fast-track projects? Managing the complexities of MEP systems in large-scale developments, especially in fast- track projects, begins with early involvement in the design phase. By planning thoroughly from the outset, we can identify and mitigate potential conflicts before construction begins, laying a strong foundation for the project. We leverage BIM and digital tools to visualise and coordinate the MEP systems, resolving clashes digitally to minimise errors and streamline the construction process. Collaboration is key — our MEP engineers work closely with designers, architects and structural engineers to develop integrated, cost-effective, and energy-efficient solutions that ensure all systems function seamlessly together. Value engineering principles are embedded from the start to optimise design solutions that align with clients’ budgets. Early contractor engagement helps secure long-lead items, keeping the project on track, even under tight schedules. Regular coordination meetings ensure effective communication and prompt issue resolution among all stakeholders. Throughout the process, we emphasise sustainability, incorporating low-carbon designs and energy-efficient solutions, while leveraging the latest technologies like digital twin modelling and IoT integration. This integrated approach enables us to manage the complexities of MEP systems effectively, ensuring successful delivery of even the most demanding projects. What are Meinhardt’s strategic priorities for the Middle East over the next decade and how do you see the MEP industry in the region evolving? As we look ahead, Meinhardt’s strategic priorities for the Middle East are anchored in three core areas: innovation, collaboration, and regional expertise. We anticipate that the MEP industry in the region will continue to evolve with a strong focus on digital transformation and sustainability. Our role in shaping this future is to lead the way in developing and implementing cutting-edge MEP solutions that address these evolving demands. We are committed to embracing emerging technologies and sustainable practices, which we view as essential for maintaining a competitive edge in the industry. Moreover, our strategy involves strengthening our collaborative relationships with clients, contractors, and stakeholders to ensure that projects are executed with maximum efficiency and to the highest standards. Our deep-rooted presence in the region provides us with a nuanced understanding of local challenges, allowing us to deliver solutions tailored to the Middle Eastern market. By concentrating on these priorities, we aim to play a pivotal role in the ongoing evolution of the MEP and construction industry in the Middle East. We are dedicated to contributing to the region’s growth, remaining a trusted partner for our clients, and supporting a sustainable future for the industry. MEP_Sep2024_44-45_Meinhardt_13370722.indd 45MEP_Sep2024_44-45_Meinhardt_13370722.indd 4527/08/2024 12:2227/08/2024 12:22www.mepmiddleeast.com46 MEP Middle East | September 2024 TECHNOLOGY INTEGRATING TECHNOLOGY INTO MEP DESIGN By Imran Shaikh, Director of MEP – Middle East, Ramboll Traditional methods are no longer sufficient for the complexities of modern construction. Architectural design is growing in complexity, clients have become more demanding, and the deadlines for completion keep shrinking. Most importantly, design fees have become more competitive, demanding efficient working methodologies. The industry is moving towards the next disruption with the use of AI and technology. MEP_Sep2024_46-49_Integrating Tech into MEP Design_13374322.indd 46MEP_Sep2024_46-49_Integrating Tech into MEP Design_13374322.indd 4628/08/2024 19:2028/08/2024 19:20www.mepmiddleeast.comSeptember 2024 | MEP Middle East 47 TECHNOLOGY Integrated computational design approach for MEP Computational design and automation are essential, offering significant improvements in efficiency, accuracy, and sustainability. These technologies optimise designs and streamline processes, reducing errors and enhancing project outcomes. The article explores these advancements and the benefits of computational design, highlighting why embracing this transition is crucial for the future of the industry. COMPUTATIONAL DESIGN Computational design is a transformative approach in the MEP industry, leveraging algorithms, parametric modelling, and digital tools to optimise and innovate design processes. This method involves the use of computer- based systems to solve complex design problems, enabling more efficient, accurate, and sustainable outcomes. IMPACT ON THE MEP INDUSTRY The integration of computational design in the MEP industry has revolutionised the way engineers and designers approach projects. By employing digital tools such as Rhino, Grasshopper, Revit Dynamo, and MagiCAD in Revit, professionals can streamline the design process, perform sophisticated analyses, and produce high-quality designs. These tools allow for the creation of detailed models that can be easily manipulated and analysed to ensure optimal performance and efficiency. TOOLS AND APPLICATIONS • Rhino and Grasshopper: These tools are widely used for parametric and algorithmic modelling, allowing designers to create complex geometries and explore design iterations quickly. • Revit Dynamo: Dynamo extends the capabilities of Revit by allowing for visual programming. It helps automate repetitive tasks, optimise design workflows, and perform advanced analyses. • MagiCAD for Revit: MagiCAD enhances Revit’s functionality, providing specialised tools for MEP design, such as automatic duct and pipe sizing, pressure drop calculations, and builders’ work coordination. SIMULATION AND ANALYSIS Through computational design, an architectural model can be converted into an energy and thermal model. Parametric modelling enables designers to conduct various simulations and analyses during the initial design stages, allowing for iterative testing and refinement. For instance, Sun Path Analysis helps in understanding the building’s exposure to sunlight, optimising the placement of solar panels. Radiation Analysis evaluates solar radiation to enhance energy efficiency and sustainability, while Imran Shaikh, Director of MEP – Middle East, Ramboll MEP_Sep2024_46-49_Integrating Tech into MEP Design_13374322.indd 47MEP_Sep2024_46-49_Integrating Tech into MEP Design_13374322.indd 4728/08/2024 19:2028/08/2024 19:20www.mepmiddleeast.com48 MEP Middle East | September 2024 TECHNOLOGY Daylight Analysis assists in achieving LEED compliance by ensuring adequate natural light penetration, which also determines the correct window-to-wall ratio. Shadow Analysis focuses on the livability aspects by assessing how shadows impact the building’s environment. Additionally, Dynamic Energy Models provide early predictions of energy consumption and thermal loads, facilitating early design adjustments. These analyses are invaluable in influencing architectural design by allowing progressive changes to be efficiently analysed and implemented, leading to more informed and sustainable decisions. AUTOMATION IN MEP USING MAGICAD MagiCAD offers a suite of automation tools that significantly enhance MEP design efficiency. For example, MagiCAD automatically sizes ducts and pipes according to design requirements, ensuring optimal flow rates and pressure drops, while automated pressure drop calculations help maintain system efficiency and performance. Additionally, MagiCAD can automatically create necessary voids when clashes between building services and structures are identified. Electrical layouts automation streamlines the process of circuiting and converting 2D components to 3D families using Dynamo. These automated processes reduce manual errors, save time, and ensure higher accuracy in MEP designs. EMBODIED CARBON CIBSE TM65 defines the methodology for calculating embodied carbon in MEP systems. These calculations can be integrated into tools like Rhino and Grasshopper, allowing designers to assess and minimise the carbon footprint of their projects. CEILING VOID COORDINATION AND MEP PLANT SPACES Automation in ceiling void coordination ensures efficient space utilisation and clash detection. Similarly, automating the layout of MEP plant spaces improves the planning and installation processes. ELECTRICAL SINGLE LINE DIAGRAMS The automation of electrical single line diagrams from Excel to graphical representations enhances accuracy and reduces the time required for manual drafting. FUTURE INTEGRATIONS Ongoing research and studies aim to further integrate various software tools to exploit their full potential. This includes developing seamless workflows that enhance collaboration, reduce redundancies, and improve overall project efficiency. BENEFITS OF COMPUTATIONAL DESIGN AND PARAMETRIC MODELLING Computational design and parametric modelling offer several benefits, transforming ideas into reality with greater ease and accuracy: • Easier Modelling with Fewer Errors: Automated processes reduce manual input, minimising errors and improving precision. • Rapid Parameter Adjustments: Changes to any design parameter can be conducted with a few clicks, facilitating quick iterations. • Enhanced Visualisation: Results can be achieved in better graphical forms, aiding in clearer communication and decision-making. • Reusable Scripts: Parametric scripts can be reused across multiple projects, increasing efficiency and consistency. • Sustainable Design: MEP systems can be designed to be more sustainable, with multiple analyses and iterations conducted through a single platform. • Smarter Workflows: Computational design creates a more efficient workflow, enabling smarter project management and execution. BUILDING RENOVATION ASSESSMENT USING TECHNOLOGY Each property and investment portfolio are unique. To understand any specific renovation options, a detailed analysis is required to select the best implementation strategy for operational optimisation, longevity, and commercial return. A decision tree can help determine the best course of action for an existing asset, considering several factors and potential outcomes. The use of a decision tree can help determine the best course of renovation action for an existing asset Digital tools allow for the creation of detailed models that can be easily manipulated and analysed to ensure optimal performance and efficiency MEP_Sep2024_46-49_Integrating Tech into MEP Design_13374322.indd 48MEP_Sep2024_46-49_Integrating Tech into MEP Design_13374322.indd 4828/08/2024 19:2028/08/2024 19:20www.mepmiddleeast.comSeptember 2024 | MEP Middle East 49 TECHNOLOGY KEY ASPECTS OF TECHNOLOGY AND COMPUTATIONAL DESIGN • Digital Twins: Creating digital twins, which are virtual replicas of physical buildings, allows for real-time monitoring and analysis. This technology helps in assessing the current condition of the building, planning renovations accurately, and predicting the outcomes of different interventions. • Detailed Analysis: Using computational tools to conduct detailed analysis ensures that renovation strategies are optimised for performance, cost- effectiveness, and sustainability. This includes energy modelling, thermal performance analysis, and structural integrity assessments. • Decision Tree for Renovation: A decision tree framework helps in evaluating various renovation strategies, considering factors such as cost, impact on operations, potential for energy savings, and return on investment. This systematic approach ensures that the selected strategy aligns design, various iterations can be evaluated quickly, ensuring that the final design is optimal. The integration of technology into MEP design is transforming the industry in profound ways. By combining computational design and automation with professional experience and technical skill sets, a wide variety of results can be achieved, maximising output within limited timelines. Embracing these advancements not only improves designs but also sets new standards for sustainability and performance. The future of MEP design is bright, and the ability to adapt and innovate will be the key to continued success. with the overall goals of the property owner. INTEGRATING TECHNOLOGY FOR MODULAR SOLUTIONS Modular solutions are increasingly popular due to their efficiency and sustainability. By using parametric modelling, different module sizes can be validated quickly, ensuring optimal integration into the building design. This approach allows for testing various iterations in a brief period, facilitating better construction sequencing. BENEFITS OF MODULAR SOLUTIONS • Efficiency: Modular construction can significantly reduce construction time and costs. • Sustainability: Modular solutions often use less material and generate less waste. • Flexibility: Parametric modelling allows for quick adjustments to module designs, ensuring that they meet specific project requirements. • Integration: By integrating all services into the building The integration of computational design in MEP has revolutionised the way engineers and designers approach projects The Royal League in ventilation, control and drive techology Feel the future ZAtop SM200.40E and ZAtop SM200.45E The gearless model range for the medium load segment. The ZAtop SM200.40E and ZAtop SM200.45E machines offer perfect dimensions for machine room-less elevators with smallest elevator shafts. With a improved braking system, ZAtop SM200.40E and ZAtop SM200.45E provide perfect solutions for elevators with a load capacity of 1000 kg to 1600 kg: compact, quiet, safe,. This is what the technology of the future looks like! www.ziehl-abegg.ae ZIEHL-ABEGG Middle East FZE Building BC08, LIU10 Jebel Ali Free Zone South P.O. Box 263817, Dubai, UAE Phone +971 4 804 8333 “The future of MEP design is bright, and the ability to adapt and innovate will be the key to success” MEP_Sep2024_46-49_Integrating Tech into MEP Design_13374322.indd 49MEP_Sep2024_46-49_Integrating Tech into MEP Design_13374322.indd 4928/08/2024 19:2428/08/2024 19:24Next >