BIM Modeling

A BIM Virtual Model is an intelligent digital representation of a construction project that integrates design, structure, and MEP systems into a single environment. It allows you to visualize the project before execution, detect clashes, optimize costs and schedules, and improve coordination among all disciplines.

With this tool, projects are developed with greater precision, efficiency, and control, ensuring safer and higher-quality construction.

A BIM Model for Construction Systems allows for the visualization and coordination of all structural and auxiliary elements of a project, such as beams, formwork, scaffolding, and supports. Through BIM methodology, each component is integrated with its technical information, ensuring accuracy during assembly and enabling efficient planning.
This type of model helps identify errors before construction begins, optimizes resources and timelines, and enhances on-site safety by simulating every phase of the construction process.

The Construction Planning BIM Model allows the simulation of every stage of the construction process in a virtual environment. With this tool, it is possible to coordinate tasks, allocate resources, optimize timelines, and anticipate potential conflicts before work begins on-site.
In this way, planning becomes more efficient, safer, and better controlled, ensuring deadline compliance and reducing unexpected costs.

The High-Rise Residential BIM Model enables the design and coordination of multi-level buildings with maximum precision. By integrating architecture, structure, and MEP systems into a single digital model, it optimizes space planning, clash detection, and the management of each construction stage.

This approach ensures safer, more efficient, and more sustainable projects, adding value both during the construction phase and throughout the building’s operation and maintenance.

The Residential BIM Model makes it possible to develop housing projects with a holistic vision, covering everything from architectural design to construction and operation. Each element within the model contains accurate information on materials, dimensions, and building systems, which enhances interdisciplinary coordination and optimizes resource use.
With this approach, residential projects become more efficient, sustainable, and high-quality, reducing errors and improving planning across every stage.

The BIM Model for Laboratories is a 3D digital representation that integrates all the technical information of a laboratory project—including architecture, MEP systems, structural components, and specialized equipment. Through BIM methodology, the design is developed with a comprehensive and fully coordinated approach, enabling the detection of clashes, optimization of resources, and improved planning throughout every stage of construction and laboratory operation.
This approach ensures safer, more efficient, and high-performance laboratory environments tailored to the demands of modern scientific and industrial workflows.

The Industrial BIM Model for Fire Protection Systems (PCI) is a digital tool that integrates all fire safety and prevention systems in 3D within an industrial plant or facility. Through the BIM methodology, sprinkler networks, hydrants, piping, and protection equipment are coordinated to ensure proper placement and compatibility with the other project disciplines. This enables optimized design, clash detection, and full compliance with industrial safety regulations.

The Structural BIM Model represents in 3D all the structural elements of a project—foundations, columns, beams, slabs, and reinforcements—integrating all the technical information required for analysis and construction.
Through the BIM methodology, it is possible to coordinate the structural design with other disciplines, optimize calculations, anticipate clashes, and ensure a more precise and efficient execution of the project.

The Architectural BIM Model is the 3D digital representation of a project’s architectural design. It includes walls, façades, finishes, carpentry, and spatial distribution, integrating all the technical information required for project development.
With the BIM methodology, a comprehensive view of the building is achieved, facilitating coordination with other disciplines, clash detection, and the optimization of time and costs throughout the construction process.

The Industrial BIM Model allows for the 3D representation of industrial plant facilities, processes, and equipment, integrating all technical information into a single digital environment. With the BIM methodology, it is possible to coordinate disciplines, optimize the layout of pipes, supports, and machinery, anticipate potential clashes, and improve construction planning. This results in greater efficiency, safety, and control throughout all project phases.