海角视频

CFD is often perceived as just another analytical tool, applied late in the process, yet in reality it is a critical design discipline through which specialists actively improve environmental quality – informing decisions around thermal comfort, air movement, sunlight, humidity and wind that ultimately define how people experience space.

At 海角视频, advanced computational fluid dynamics (CFD) and dynamic thermal modelling (DTM) allow us to bring physics into the early stages of design. These tools help us replace assumptions with evidence, test ambition against reality and unlock comfortable, low鈥慹nergy solutions that benefit people and places.

From open rainforest resorts and naturally ventilated airports to civic infrastructure and world class education spaces, the following projects show how we create healthier and more comfortable environments and how that comfort underpins operational resilience, sustainability and commercial confidence.

Brent Cross Town

Brent Cross Town is an ambitious 拢8bn regeneration of Brent Cross in north London where advanced CFD played a key role in safeguarding public safety, maintaining visibility and building confidence in a combustion free urban energy system.

Our team assessed the risk that cold exhaust air from rooftop air source heat pumps could form visible plumes under certain weather conditions, potentially affecting the adjacent railway. Rather than relying on conservative assumptions, we developed a high鈥憆esolution CFD model incorporating updated building geometry, revised fan layouts and worst鈥慶ase calm wind conditions.

The results showed that critical temperature differentials remained confined to the immediate vicinity of the units. At the railway boundary, the predicted effect would equate to just three to four additional hours of fog per year 鈥� a negligible operational impact.

By combining CFD with analysis of meteorological data, we provided robust, transparent evidence to reassure Network Rail and other stakeholders of likely outcomes. This de鈥憆isked planning and delivery of a flagship low鈥慶arbon energy centre, enabling sustainability ambition without compromising public safety or operational reliability.

Earlier work at Brent Cross Cricklewood also demonstrates how the same modelling techniques can operate at a more human scale – shaping everyday comfort in dense urban environments. As part of the early masterplanning for the proposed shopping centre and covered street, we undertook detailed CFD and DTM studies to assess pedestrian comfort within a semi鈥慹nclosed mall environment.

The modelling showed that a canopy would actively moderate internal conditions, offering up to 1.5掳C of cooling in summer and a corresponding level of warming in winter. By simulating airflow and thermal conditions across multiple levels, orientations and weather scenarios, the team identified potential comfort hotspots and recommended mitigation measures, including refined building geometry and targeted landscape interventions to enhance safety, comfort and usability for future visitors.

Zunya Resort

Designing for comfort in a tropical rainforest is a delicate balance. High temperatures and sustained humidity might suggest that the use of air conditioning to deliver thermal comfort is unavoidable, yet Zunya Resort set out to offer discerning international guests a profoundly comfortable experience without sealing them away from nature.

Working as an integrated team with the client and architect, we combined bioclimatic principles with DTM and CFD studies. Two parallel streams explored performance at different scales: individual bungalows and clustered 鈥渧illages鈥�, each exposed to complex microclimatic effects from canopy cover, terrain and coastal winds.

We revealed how comfort could be maintained by working with daily climatic rhythms rather than against them. The studies demonstrated that air movement is the cornerstone of comfort, particularly around sleeping and lounging zones. Carefully positioned louvres, deep shading and discreet fans delivering around 3 m/s local air velocity increased comfort hours dramatically 鈥� achieving up to 92% of occupied hours within an acceptable comfort band in representative scenarios.

For the client, the modelling removed uncertainty, enabling a commitment to a low鈥慹nergy, low鈥憁aintenance operational model aligned with the resort鈥檚 ethos. For guests, it will deliver shaded, breezy pavilions that remain comfortable at the warmest times of day. Zunya demonstrates how evidence鈥慴ased design can unlock human comfort even in climates too often written off as needing mechanical cooling.

The physics analysis, including the iterative CFD simulations, demonstrates that the integration of passive strategies effectively improves thermal comfort. The particle tracking, solar radiation modelling, and airflow results illustrate the progression from the baseline condition to the enhanced design. As shown in the figure above, these measures reduce the predicted thermal sensation from approximately 40掳C to below 31掳C, achieving moderate heat鈥憇tress conditions and delivering comfortable pedestrian spaces. Image: 海角视频.

Education City Stadium

Education City needed a solution that could cool spectators and players effectively, recover rapidly after gusts of hot air, and do so without excessive energy use.

The CFD studies involved more than six experts for over two years, advising and verifying the comfort conditions inside of the stadium according to the mechanical design. This work was critical in validating a world鈥慺irst approach: cooling an open stadium while maintaining comfort within strict criteria. We informed diffuser placement, air velocities and the geometry of the roof oculus, ensuring that cool air returns to occupied zones within the required five鈥憁inute recovery window.

Beyond energy performance, the modelling protected human health, addressing the risk of thermal shock as spectators move from outdoor temperatures exceeding 40鈥�掳C into a cooled environment. Gradual temperature transitions, shade and water features along approach routes were all shaped by the analysis.

The client feedback was that our team had done the best quality analysis of any of the World Cup venues. For users, it delivered a safe, comfortable experience in conditions that might otherwise have compromised wellbeing.

Northwestern University, Louis A. Simpson and Kimberly K. Querrey Biomedical Research Center

CFD played a central role in shaping a high鈥憄erformance facade at Northwestern University that supports both energy efficiency and occupant comfort.

We used iterative CFD simulations to refine the building鈥檚 double鈥憇kin facade. Studies tested the size and placement of openings, the impact of maintenance walkways and the introduction of strategic gaps to promote effective airflow within the cavity. This approach reduced the risk of heat build鈥憉p and overheating, while maintaining alignment with architectural intent.

The modelling also informed glazing selection by predicting surface temperatures under peak conditions, ensuring a balanced response to solar gains. A second phase of analysis examined the interaction between the ventilated cavity and internal spaces, assessing heat transfer, airflow patterns and integration with active chilled beam systems.

These studies demonstrated how the facade and mechanical systems work together to maintain comfortable perimeter conditions, even during peak summer periods. The findings were validated through full鈥憇cale mock鈥憉ps and post鈥憃ccupancy verification, giving the client confidence in long鈥憈erm performance.

A second phase of CFD analysis examined the coupled thermal interaction between the ventilated facade cavity and internal spaces, evaluating heat transfer, airflow behavior, and the performance of active chilled beam systems. Image: 海角视频.

Puerto Escondido Airport

At Puerto Escondido, the ambition was to create a sustainable, climate-responsive terminal, delivering comfort through innovation.

Our building physics specialists used DTM and CFD to test whether adaptive comfort could be achieved across semi鈥憃pen spaces. The analysis showed that, with a combination of passive shading, radiant cooling floors, ceiling fans and misting, operative temperatures could remain within the ASHRAE 55 adaptive comfort range even on peak days.

By optimising chilled water temperatures to reduce condensation risk and validating air velocities of 1鈥�1.5鈥痬/s, the modelling supported a robust, low鈥慹nergy strategy. Where full conditioning was unavoidable, it was precisely targeted, preserving the overall bioclimatic vision. The result will be an airport that feels calm, breathable and connected to place 鈥� proof that comfort and sustainability can coexist, even in challenging climates.

RISE 鈥� Hofpleintoren (Hofplein Tower)

At Hofplein Tower 鈥� a 286m tall landmark tower in Rotterdam 鈥� CFD and digital modelling extended beyond comfort to shape structural efficiency, embodied carbon and affordability.

Through a combination of wind tunnel testing and CFD analysis, we reduced wind loads on the tower by approximately 25%, allowing a lighter stability system with fewer materials. Rapid digital prototyping 鈥� using Grasshopper, BIM and structural analysis tools 鈥� enabled the team to test multiple design scenarios in real time, balancing architectural intent with performance.

These insights supported transformative decisions, including replacing a concrete plinth with a timber structure and optimising the building鈥檚 core and facade contribution. The result was a 20% saving in stability system costs for the client, reduced environmental impact, and increased residential floor area.

This work fundamentally improves long鈥憈erm user wellbeing by enabling more generous, affordable housing within a sustainable urban landmark.

Bridgewater Place, Leeds

At Bridgewater Place 鈥� a landmark tall building on the Leeds skyline 鈥� CFD became a tool for civic repair. Severe downdrafts had rendered parts of the public realm unsafe, affecting pedestrians and traffic alike.

Commissioned by Leeds City Council, our multidisciplinary team used CFD and wind tunnel testing to understand the problem and design a coordinated suite of interventions. Sculptural baffles, facade canopies and screens reshape wind flow without compromising clearance or urban character.

Post鈥慽nstallation monitoring confirmed a significant reduction in wind speeds, allowing traffic restrictions to be lifted. The scheme restored safety, revitalised the street and set a precedent for addressing unintended consequences of tall buildings. Here, environmental comfort directly translates into social confidence and economic activity 鈥� tangible benefits for both city and client.

Vauxhall Cross Island

At Vauxhall Towers, CFD was embedded at the heart of the design process, enabling 海角视频鈥檚 specialists to shape a safer, more comfortable public realm from the earliest stages.

Through parametric analysis, the team worked closely with the design to refine facade fins, entrance canopies and landscape features, carefully tuning each element to mitigate wind conditions at pedestrian level while preserving the architectural vision.

This iterative, evidence-led approach allowed potential issues to be identified and resolved early, reducing reliance on costly late-stage testing and avoiding redesign. In doing so, CFD provided both programme certainty and robust assurance to planners and stakeholders, demonstrating that comfort and safety targets were not only achievable but fully integrated into the scheme.

At Vauxhall, advanced simulation goes beyond analysis – it enables confident decision-making, ensuring that environmental performance translates directly into a more welcoming and usable urban space.

Across these projects, advanced CFD is not just a tool for visualising airflow or temperature – it is a critical design driver. It provides robust, evidence-based insight that empowers design teams and clients to move beyond assumptions, enabling them to commit to healthier, more comfortable solutions with confidence.