Massive water retentions, hydrologic assets, and mining tailing dams represent the highest-risk infrastructure classifications in the engineering sector. A singular geometric miscalculation or structural oversight in fluid containment can trigger severe environmental liabilities and devastating capital failure. We neutralize these vulnerabilities by building advanced, object-oriented 3D parametric models that synthesize subsurface geology, exact hydrological dynamics, and high-performance concrete geometries before site excavation begins.
At PT. Buana Engineering Consultant (BEC), our specialized water engineering division moves beyond basic civil blueprints. We construct data-dense virtual models engineered to withstand extreme environmental stress, guarantee strict regulatory safety compliance, and secure long-term asset structural preservation.
Services Overview
Our 3D Tailing Dam & Water Structures framework delivers absolute precision for critical, high-stakes civil and mining containment designs. We build fully federated models that integrate complex geotechnical layers, concrete spillway architectures, sub-surface drainage loops, and surrounding topographic terrains into a single coordinate environment. By running advanced fluid-structure interactions (FSI) and hydrologic simulation algorithms directly within the data model, our engineers can accurately test variable flood loads, compute precise earthwork volumetric requirements, and monitor structural deformation vectors over time. This uncompromised information structure completely eliminates structural blind spots, controls material procurement costs, and gives institutional asset owners total confidence in field constructability and safety execution.
Benefits & Solutions
Volumetric Mass Earthwork Logic
Compute highly precise cut-and-fill balances and embankment material take-offs directly from georeferenced terrain models, optimizing heavy machine deployment timelines.
Safety Compliance Audits
Generate authoritative, code-compliant structural validation sheets and environmental risk reports required to secure vital state regulatory and institutional clearances.
Seepage & Subsurface Tracking
Embed multi-dimensional sensor node metrics into the asset design matrix to map internal drainage performance and predict potential structural seepage risks.
Fluid Dynamic Stress Testing
Simulate high-velocity water flows, extreme rainfall scenarios, and maximum containment stress parameters inside the virtual model to validate spillway capability.
Multi-dimensional BIM workflows must be deployed immediately during the initial Front-End Engineering Design (FEED) and survey collection tracks. Introducing data-rich modeling early allows us to map raw point-cloud terrain models directly to subsurface geological data, ensuring the dam's foundations are anchored on stable, calculated coordinates before structural blueprints are finalized.
Our computational workflows extract precise geometric boundaries from the 3D parametric dam model and import them straight into advanced hydrodynamic simulation engines. This allows us to mathematically run variable water volume loads and rapid velocity stresses against the structural surface, revealing exactly how the mass concrete or earthwork embankment will perform under extreme field realities.
Yes, absolutely. Traditional survey methods rely on geometric estimations that lead to expensive material waste or ordering shortages. By utilizing exact 3D digital terrain layers and parametric design rules, our modeling infrastructure automatically calculates the exact cubic mass requirements for clay cores, rockfill zones, and filter layers, locking down accurate purchasing baselines.
We deliver data-dense As-Built packages (LOD 500) where physical structural instrumentation nodes—such as piezometers, inclinometers, and settlement cells—are fully mapped to their exact coordinates inside the digital model. This sets up a live digital twin database that allows facility managers to monitor structural health and execute predictive safety maintenance for decades.
