CORE Engineering

CORE Engineering wishes our clients, partners, and team a blessed and prosperous Hijri New Year.

May the year ahead bring success, growth, and new opportunities built on strong foundations.

Wishing you and your loved ones a peaceful and rewarding year.

BIM in Structural Design — How It Reduces RFIs and Saves Cost on Site

For many, BIM is just a checkbox on a tender requirement, but at CORE Engineering, we deploy it as a high-precision risk mitigation tool. By building a fully coordinated, data-rich structural model before breaking ground, we eliminate spatial ambiguities early. This proactive clash detection directly translates to the field, reducing Request for Information (RFI) loops by up to 40% and preventing the costly on-site idle time that typically occurs while waiting for design clarifications.

Beyond resolving conflicts on paper, our BIM workflows streamline material procurement and construction ex*****on. Accurate, model-derived quantities prevent material waste and over-ordering, while synchronized structural detailing allows fabricators to work with absolute certainty. When your reinforcement layouts and structural steel connections are pre-coordinated in a unified digital space, you eliminate expensive field modifications, rework, and change orders.

Ultimately, our commitment to advanced BIM modeling ensures that what is designed on the screen aligns perfectly with what is built on-site. By bridging the gap between engineering and constructability, we protect your project timeline and prevent budget overruns before the contractor even pours the first column.

What Developers in KSA Should Ask Their Structural Engineer Before Signing Off

With Saudi Arabia’s real estate landscape accelerating at an unprecedented pace, developers and investors cannot afford to treat structural engineering as a back-office formality. The structural backbone of your tower or commercial complex dictates both your upfront capital expenditure and your long-term return on investment. Before you sign off on your next design phase, you need to look past the rendering and ask your consultant three critical, business-driven questions.

Here is what you should ask to ensure your project is optimized for the Saudi market:

* "How has the structural system been optimized specifically for local soil conditions and seismic zones?"
* The Right Answer: The engineer should demonstrate a tailored foundation and lateral load design that avoids over-engineering, preventing millions of Riyals from being buried needlessly in local subgrade variations.

* "Does this design prioritize standard material availability and local constructability to protect our timeline?"
* The Right Answer: The design must utilize readily available local concrete strengths and standard rebar configurations, ensuring the contractor can maintain fast floor-cycle times without supply chain bottlenecks.

* "What steps were taken during the schematic phase to minimize the structural footprint and maximize our net sellable area?"
* The Right Answer: They should show how column placements and shear wall geometries were precisely aligned with architectural layouts to maximize usable floor space and parking efficiency.

At CORE Engineering, we position ourselves as your technical advocate, ensuring that every line drawn on a structural plan serves your project's financial viability and ex*****on speed.

Why We Choose Flat Plate Slabs in Residential Towers

Architects and developers often ask why we frequently lean toward flat plate slabs for residential high-rises rather than traditional beamed systems or flat slabs with drop panels. From a structural perspective, the answer lies in the elegant balance of geometric simplicity and spatial efficiency. By eliminating internal beams and drop panels, we maintain a uniform, flush ceiling throughout the entire floor plate. This clean profile isn't just an aesthetic win for interior layouts; it radically simplifies the structural framing plan and allows for uninhibited MEP routing, eliminating the classic coordination conflicts between ductwork and structural depth.

From a construction economics standpoint, the flat plate is a catalyst for faster cycle times. The uniform bottom surface drastically simplifies formwork carpentry, allowing contractors to erect, pour, and strip formwork at a much faster pace per floor. Furthermore, the reduced overall structural depth per floor can yield significant cumulative height savings over a high-rise tower. Saving just 200–300 mm per floor can add up to an entire extra story in a 30-tier building, or substantially reduce the tower's overall height, lateral wind/seismic mass, and facade cladding costs.

However, achieving these benefits requires a rigorous approach to critical design limits—most notably, punching shear. At the slab-column junctions, the concentrated gravity loads create high localized shear stresses. Our engineering approach balances this by optimizing column dimensions, utilizing high-strength concrete mixes, and strategically integrating punching shear reinforcement (like shear studs or stirrup cages) rather than thickening the slab. This ensures the structural integrity of the thin-plate mechanism against brittle failure modes while fully preserving the architectural freedom of the flush ceiling.

Questions about your project? Let's talk.

CORE Engineering has been awarded a new residential project in Diriyah, Saudi Arabia.

Diriyah is one of the most significant development destinations in the region, a place where heritage meets modern living, and where structural precision is not optional.

We are currently in the design development phase. Full project details will be shared upon completion.

What we can say: this project reflects exactly the kind of work we built CORE to do complex, meaningful, and delivered to the highest standard.

Stay tuned.

عيد اضحي مبارك… تقبل الله منا و منكم صالح الطاعات 🌙

في يوم عرفة، نجدد قيم الصبر والإخلاص
أسسٌ تُبنى عليها الحياة كما تُبنى بها الإنجازات القوية.

اللهم اكتب لنا الرحمة والمغفرة والقبول في هذا اليوم المبارك.

Marina Bay Sands, Singapore.

At Core Engineering, we believe Marina Bay Sands demonstrates how bold architectural vision can be transformed into reality through precise structural engineering.

Structural system: reinforced concrete towers supporting a steel SkyPark superstructure
Cantilever engineering: a 200-meter rooftop platform linking all three towers while accommodating independent movement
Foundation design: deep bored piles built into reclaimed ground conditions
Construction strategy: carefully coordinated tower and SkyPark er****on to manage stress and deflection

The project stands as a remarkable example of combining structural efficiency, material accuracy, and architectural ambition within one integrated design.

Recognized worldwide for its iconic SkyPark, Marina Bay Sands redefined modern high-rise engineering through its dramatic cantilevered form spanning across three towers.

Media: Wikipedia.

Adaptive Structural Design: Preparing for Change

Great structures aren’t only defined by what they can hold —
they’re defined by how well they adapt.

At Core Engineering, adaptability means creating structures that can evolve with future needs, environmental changes, or unexpected loads — without compromising safety.

Behind every adaptive structure lies:

• Flexible layouts — allowing for functional changes over time
• Modular systems — supporting expansion, relocation, or retrofit
• Resilient connections — accommodating movement without damage
• Future-proof analysis — anticipating new loads and usage scenarios

Because true engineering isn’t only about today’s requirements —
it’s about designing for the unknown.

Wind Engineering: Designing Against Invisible Forces

Structural engineering isn’t only about static loads:
it’s about resisting invisible forces and keeping occupants safe in the storm.

Wind isn’t just a breeze, it’s a complex, fluctuating load acting on every surface.
At Core Engineering, we treat wind as a critical structural challenge, not just a code checkbox.

Essentials of wind resistant design:

• Wind tunnel testing and computational fluid dynamics
• Aerodynamic shaping and façade optimization
• Tuned mass dampers for tall structures
• Dynamic load analysis for vortex shedding
• Ensuring comfort, safety, and serviceability under high winds