ALLPLAN Excavation Pit is a powerful module for foundation engineering. Its intuitive functions allow users to quickly learn the basic functions. Users can easily create precise excavations by designing excavation elements according to individual requirements. The excavation offers the flexibility to easily define slope angles to achieve optimal results. With its user-friendly interface, ALLPLAN Excavation supports efficient working and thus contributes significantly to the successful realisation of construction projects.

This course provides a hands-on introduction to terrain modeling in ALLPLAN for learners without prior experience in digital terrain models (DTM). You will explore the core concepts and terminology, become familiar with the relevant tools in the ALLPLAN user interface, and work with survey data to build terrain models. In addition, you will learn how to modify terrain surfaces, analyze elevation data, and visualize terrain structures in both 2D and 3D.

Immerse yourself in the world of ALLPLAN solutions with our comprehensive basic course for architects. Gain the knowledge you need to navigate seamlessly through ALLPLAN from the very beginning and unlock its full potential. Work directly with dynamic 3D models to improve the efficiency of your design process. This end-to-end workflow focuses on building object-based design skills through Building Information Modelling (BIM). The result? A fully realised building with views, sections, evaluations and plan layouts.
Course modules:
    It's that simple!
    Create the 3D building model
    Modification made easy...
    Evaluation
    Completion of the 3D building model
    Compile and Output Plan
    Project Backup

Dive into ALLPLAN's dynamic structural engineering course! Learn key skills, from crafting 3D models to seamless modifications. Discover creating sections, views, and automatic 3D reinforcement - all while ensuring BIM compliance. Elevate designs with real-time updates through linked documents like steel and bending lists.

Course modules:

It's that simple!
Creating the 3D building model
Modification made easy ...
Completion of the 3D building model
Evaluation
Compile and output the plan
Reinforcement
Project backup

An IFC file is imported into Allplan, then a 3D element is isolated and converted into a precast wall.

The element is assigned a reinforced element plan and provided with fixtures.

Finally, the element plan is printed.

The training is designed to guide you through the modeling process for an parametrical 3D Prestressed concrete bridge model using Allplan Bridge and using Allplan Engineering for further detailing of the bridge. The used example is a hollow box concrete girder bridge with three spans. The length of the bridge is 80 meters, and the span lengths are 25, 30 and 25 meters. The bridge has two piers with variable dimensions along the height of 10 meters. The bridge axis is curved in plan and in elevation.

You will learn to create a bridge model with Allplan Bridge and to further develop it with Allplan Engineering. 

Course Chapter: 

 - Geometrical bridge model 

- Internal prestressing tendons 

- Analytical bridge model 

- Detailing and reinforcement modeling

This Allplan crash course for beginners offers a comprehensive introduction to the basics of the CAD and BIM software Allplan. In five structured video tutorials, you will learn how to create 2D and 3D designs, efficiently manage building structures, and design and export professional plan layouts for your architectural projects. Perfect for beginners who want to quickly and practically expand their skills in architecture and construction planning.

Sumérgete en las soluciones Allplan con nuestro curso básico para arquitectos. Obtén los conocimientos necesarios para navegar sin problemas por Allplan desde el principio y desbloquear todo tu potencial. Trabaja directamente con modelos 3D dinámicos para mejorar la eficiencia de tu proceso de diseño. Este flujo de trabajo integral se centra en el desarrollo de habilidades de diseño basadas en objetos a través de Building Information Modelling (BIM). ¿Cuál es el resultado? Un edificio totalmente realizado con vistas, secciones, mediciones y planos en planta.

This webinar illustrates the Moving Loads functionality in SCIA Engineer.

When structures must withstand moving or shifting loads—such as traffic on bridges, cranes in industrial facilities or crowds on slabs—structural engineers face the daunting challenge of managing an overwhelming number of load combinations. Evaluating all these scenarios is not only extremely time‑consuming, it also increases the risk of overlooking critical worst‑case situations, which can result in over‑designed or unsafe structures. The Moving Loads functionality in SCIA Engineer 2026 is designed to cut through this complexity. Using the proven principles of influence lines and surfaces, it automatically identifies the most critical positions of moving load systems before calculations even start. This lets you focus your analysis and post‑processing on the truly governing cases, instead of sifting through countless non‑critical combinations. With the new Moving Loads in SCIA Engineer 2026, you can be confident that your structure is checked against its most demanding real‑world scenarios—quickly, efficiently and with precision.

This tutorial describes the basic functions of SCIA Engineer for the input, analysis and design of a 3D concrete structure with 1D and 2D elements. 

Before you start, you must be familiar with your operating system: for instance working with dialogues, menu bars, toolbars, status bars, handling the mouse, etc. 

First, we will explain how to create a new project and how to setup your structure. 

After the geometry and load input, the structure will be calculated and the results can be viewed. 

Next, we will discuss the concrete settings and we will perform the concrete design for 1D and 2D elements. 

The tutorial ends with a brief introduction to the engineering report.