Frequently Asked Questions
Usually the property owner or developer. They must hire a qualified civil engineer or architect to inspect and issue the certificate after verifying compliance with safety and quality standards.
It may result in penalties, fines, limitations on the use of the property or, in serious cases, the obligation to reinforce or demolish due to risk to public safety.
It is necessary to ensure that the support structure of the solar panels complies with current safety standards and regulations. In addition, regulatory bodies and insurance companies often require it to guarantee the reliability and durability of the installation.
The geographical location, wind and snow load, quality and resistance of materials, structure design, and its capacity to withstand static and dynamic forces during the system’s lifespan are considered.
Yes. It can be issued retroactively if the structure was designed and built with adequate standards. This involves a review and evaluation of the existing installation and verification of compliance with safety requirements.
It provides confidence in the safety and reliability of the installation, reduces the risk of failures, and facilitates permits and licenses. In many cases, it is a requirement to access incentives or financing for solar projects.
The architectural and structural design, materials, soil and foundation conditions, integrity of elements (columns, beams, slabs), connections, load-bearing capacity, and response to seismic or other actions are reviewed.
For new constructions, major renovations, changes in building use, and when there is suspicion of damage or weakening in existing structures.
Yes. A reproducible report and a clear certificate facilitate processing and shorten approval/purchase cycles, in addition to reducing uncertainty on site.
We apply CTE and Eurocodes (and specific client requirements). The report includes assumptions, ULS/SLS combinations, acceptance criteria, results, recommendations and, if applicable, a certificate.
Yes. We coordinate the necessary mechanical tests to validate hypotheses or prototypes. We define the test plan (procedure, samples, loads) and integrate it into the final report.
Plans or 3D/BIM model, description of use and loads, material, and types of connection; if there are regulatory or testing requirements, please indicate them. With that, we provide a technical quote and an approximate deadline.
For PV projects, we usually start from regulatory load combinations, and when required (parapets, edges, east–west layouts, suction), we integrate wind simulations to refine pressures and anchoring. (CFD is used only when it provides real value to the design.)
When there are unique geometries, critical joints, aluminum components (sensitive to buckling), or significant wind loads (rooftop/ground-mounted PV systems). FEM simulation confirms safety and can reduce material use without compromising safety margins.
A wind study helps identify potential risks such as damage to infrastructure caused by extreme wind conditions, and assists in designing stronger structures to prevent catastrophic failures.
The results of the wind study help engineers determine the appropriate height and type of mounting structures to withstand the wind conditions at the project site. They are also used to estimate the expected energy production and optimize the layout of the solar panels for maximum efficiency.
During the wind study, wind speed is measured at different heights and directions. Historical data and seasonal patterns are also analyzed to understand the typical wind conditions at the project site.
Always. We document every verification (ULS/SLS) and have all calculations signed by licensed engineers.
Yes. We cover all typologies and coordinate the structural assembly to avoid incompatibilities.
Yes. We recalculate using FEM, verify deflections and punching shear, and propose steel and concrete savings with full traceability.
Yes. We provide the calculation report, drawings, steel/concrete schedules, and construction-ready details for approval and certification.
Drawings (architectural and, if available, geotechnical), building use, special loads (pools, machinery), location, and deadlines.
Drawings (plan, elevations, and sections), intended use, spans, service loads (imposed loads, overhead cranes, machinery), wind and snow conditions by location, and any project or installation constraints.
Depending on the scope: preliminary design in 3–7 days, basic/executive project in 2–4 weeks. Send us the drawings and requirements; we will provide a technical proposal, schedule, and fees.
SAP2000/CSI, Autodesk Revit and Robot, IDEA StatiCa, RAM Connection, and Ansys for FEM/CFD when applicable. This facilitates BIM coordination and manufacturing integration.
Calculation report and annexes, structural and connection drawings, profile lists, construction details, and, if requested, a BIM model. Documentation signed by a licensed engineer.
Yes. We audit the structure, measure deformations, verify load-bearing capacity, and prescribe reinforcements if necessary. We issue a report and certificate.
We model wind loads according to the zone and parapet interaction, define anchoring systems, and issue structural certificates for permits and PV installers.
We include horizontal/vertical actions, impact, fatigue, and specific load combinations. We design rails, brackets, and bracing for safe service.
Yes. Based on the geotechnical report, we design footings, pile caps, tie beams, and foundation slabs, verifying settlements and punching shear.
We review the model, refine load combinations and connections, and propose equivalent sections with lower material consumption. We deliver a weight and cost comparison with regulatory traceability.
Yes. We design steel frames and purlins, concrete frames, composite solutions, and mixed reinforcements. We select the most efficient and certifiable system according to CTE and Eurocode standards.
Yes. We carry out structural diagnostics and reinforcement studies for ongoing projects or existing buildings, adapting the structure to actual load conditions and current regulations.
Yes. We deliver the complete documentation: structural drawings, material lists, connection details, and technical reports ready for certification or on-site use.
Of course. We carry out independent technical reviews and FEM simulations to verify results, detect potential cost overruns due to over-dimensioning, or confirm structural safety before execution.
Yes. Our licensed engineers issue certified reports valid for permits, legalizations, and structural safety audits.
We design and verify reinforced concrete, steel, aluminum, and mixed structural systems. We also carry out reinforcement studies for existing buildings and structural adaptations for photovoltaic installations.
Yes, we carry out inspections, verifications, and structural reinforcements for existing structures, issuing structural soundness certificates valid for permits and audits.
Aluminum offers high strength with lower weight, reducing foundation loads and facilitating assembly while maintaining durability and compliance with structural standards.
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