TechScience UK is a software and consultancy company focused on helping Architectural, Engineering, and Construction offices provide the best possible services when implementing new software.
Our team consists of Architects and Engineers with many years of experience in the fields of Architecture and Structural Engineering. With our practical knowledge of the industry, we can provide much more than any typical technical software support. Including additional design & consultancy services, that can help our clients to be more productive and meet today’s needs in quality and speed.
Extreme Loading® for Structures (ELS) software allows structural engineers to accurately model, analyze, and visualize progressive (disproportionate) collapse resulting from extreme loading conditions including: earthquake loads, severe wind loads, blast loads, dynamic loads and impact loads. Engineers can also determine a structures vulnerability to progressive collapse by creating multiple event scenarios which will simulate the failure of different components so as to determine whether the resulting collapse will be partial or complete. ELS can be used to satisfy requirements for UFC 4-023-03 Design of Buildings to Resist Progressive Collapse. ELS is built around the Applied Element Method (AEM) of analysis, the only method that automatically calculates crack initiation, propagation and separation of elements.
Progressive Collapse of an RC Structure
Displacement Chart of a High Rise During Progressive Collapse
CFS Structure During Progressive Collapse
Bending Moment of an RC Structure During Progressive Collapse
Progressive Collapse Features:
Structural components can be removed either simultaneously or at custom intervals.
Analysis is performed automatically within the solver. Gravity analysis is provided by default with non-linear dynamic analysis to simulate the accumulated effects of progressive collapse without any user intervention.
Through the true modeling of structural components, “catenary action” and other structural responses are taken into account.
Users can truly understand the cause and how the structure collapses because ELS allows them to witness the entire duration of the collapse process, verify which part(s) of the structure will collapse, and predict the effects of falling debris on adjacent structures.
Advantages of using ELS for Progressive Collapse Analysis:
Provides Enhanced Accuracy in Analysis because:
Plastic hinges are not assumed; rather, they are automatically calculated and generated without any user intervention.
Collapse areas are not assumed; rather, when a plastic hinge fails the ELS solver automatically separates the section that fails allowing it to behave naturally within the collapse scenario.
Reinforcement details, slabs, and masonry walls, commonly neglected in Progressive Collapse Analysis can be easily included in the model, providing a more accurate results and savings in hardening costs.
Quick & Easy Modeling:
Automatic mesh adjustments.
Automatic spring generation.
No transition elements required.
Data exchange available with several FEM and BIM software applications.