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Timber structures are becoming more popular, with their natural beauty and sustainability offering a strong alternative to concrete. At CN Europlan, we use our deep experience in structural engineering to design timber buildings that are strong, efficient, and elegant. A recent example is our “Mobile Almhütte” (mobile alpine cabin) —a project that combines traditional alpine architecture with modern engineering. 

The “Mobile Almhütte” is a 10x15m transportable cabin with a lightweight timber frame. It combines the charm of a classic alpine structure with modern, sustainable engineering. This project shows our approach to timber construction, using advanced design tools to ensure a strong, flexible, and portable structure. 

The Almhütte’s design includes a carefully engineered framework with three main girder spans (Unterzug – C24 14/20) and five secondary girder spans (Längsholz – C24 14/20), creating a reliable load-bearing system. Each joint and connection point was calculated using automated engineering software for precision and balanced weight distribution.  

We recently added refined connection details to the Almhütte, showing how structural and aesthetic elements come together to create a strong, mobile cabin: 

• Detail 01: Cross-joints between secondary girders (Querbodenregel C24 12/12 and Längsholz C24 12/16) are reinforced with VGS Kreuz screws (Ø8, 0x160 ZK). This provides a stable connection while allowing flexibility during transport. 

• Detail 02: Steel angle brackets (5mm thick) join the main girders with vertical posts (Mittelpfette C24 14/20 and Stützen C24 12/12), secured with MS bolts (M12x130) and high-torque screws (TK TGS Ø6.0×80) for strong, load-resistant connections. 

• Detail 03: Sherpa M25 connectors enhance the main load-bearing intersections between longitudinal and cross beams. These connectors, designed for timber, allow efficient force distribution across the cabin’s structure. 

• Detail 04: A cross-connection in the primary framework, secured with Sherpa M25 connectors and screws (Ø6.5×65 HT/NT), strengthens the load-bearing system for added durability. 

• Detail 05: Diagonal bracing (Kopfband C24 14/14) is attached to supporting columns (Stützen C24 12/12) with large screws (Ø8.0x190mm and Ø8.0x150mm), adding resistance against lateral movement and improving stability. 

• Detail 06: Another diagonal connection, fastening the beam (Unterzug C24 14/20) to the bracing (Kopfband C24 14/14), uses additional screws (Ø8.0x150mm) for structural support, further strengthening the Almhütte. 

Each of these connections is designed for strength and ease of assembly, which is important for a mobile structure. The automated design ensures all components fit smoothly, which improves both the cabin’s stability and portability. 

The Mobile Almhütte project shows CN Europlan’s commitment to quality and innovation in timber construction. From automated design to careful material selection, every detail is aimed at creating sustainable, strong structures. Whether you need a permanent building or a mobile solution, CN Europlan can make your vision a reality with expert engineering and sustainable materials. 

 Key Takeaways 

• Timber Expertise: CN Europlan’s experience with both timber and concrete allows us to handle a range of structural needs. 
• Precision Design: Advanced software helps us create accurate, load-optimized connection details. 
• Built for Mobility: The Mobile Almhütte is a versatile timber structure, designed for both stability and easy transport. 
• Strong Connections: Well-designed joints provide stability and efficiency for the cabin. 

If you’re interested in exploring the possibilities of timber construction, CN Europlan is ready to bring experience and knowledge to your project. Contact us to discuss how our designs and engineering skills can help bring your ideas to life. 

Warehouses present unique challenges in structural engineering. Foundations must support heavy loads from stored goods and equipment while maintaining flexibility for future modifications. Ensuring structural integrity and minimizing risks like cracking or punching shear failures is critical. Additionally, coordinating complex reinforcement plans often leads to errors and delays, affecting overall project timelines and costs. 

Building Information Modeling (BIM) helps address these challenges by providing a clear, comprehensive view of all structural elements and facilitating better collaboration among stakeholders. In our recent project for a warehouse in Freilassing, Germany, CN Europlan utilized BIM alongside ALLPLAN software to streamline the design and implementation of an effective reinforcement strategy. 

Project Overview: Freilassing Warehouse

For the Freilassing warehouse, the bottom plate required significant reinforcement to handle heavy loads and prevent structural issues over time. Our solution involved the use of additional rebars and Halfen Punching Rails specifically for the bottom plate. These elements were designed to enhance the foundation’s strength and durability, minimizing the risk of cracking and punching shear failures. 

Reinforcement Strategy: Rebars and Punching Rails by Halfen

To ensure a robust foundation, we combined additional rebars with Halfen Punching Rails: 

• Rebars were strategically placed to improve the tensile strength of the concrete. By reinforcing the concrete slab, the rebars help distribute loads evenly, reducing the risk of structural damage under heavy load conditions. 
• Halfen Punching Rails were incorporated to prevent punching shear failures around column bases. These rails are essential for distributing localized forces more evenly across the slab, increasing resistance to potential shear failures and enhancing overall durability. 

Automation with ALLPLAN and BIM Integration 

The integration of ALLPLAN software allowed us to automate the design and placement of reinforcement elements, including the Punching Rails and rebars. This automation ensured that each reinforcement component was accurately positioned according to engineering specifications, reducing manual errors and improving efficiency. 

Additionally, the BIM approach enabled our reinforcement BIM teams to control and manage the placement of Punching Rails directly within the digital model. This process provided several key advantages: 

• Improved Visualization: The 3D BIM model offered a detailed view of all reinforcement elements, helping to identify potential clashes or design issues early, which reduces costly adjustments during construction. 

• Better Collaboration: The BIM model served as a single source of truth, improving communication among stakeholders and ensuring alignment on reinforcement requirements. 
• Cost and Time Efficiency: Automated controls within ALLPLAN allowed for quick adjustments and precise placement, minimizing material waste and keeping the project on schedule. 

Key Takeaways

• Targeted Reinforcement Solutions: The use of additional rebars and Halfen Punching Rails provided the necessary support to handle heavy loads and prevent structural failures in the warehouse’s bottom plate. 
• Precision and Efficiency: The automation capabilities of ALLPLAN and integration with BIM allowed for accurate placement of reinforcement elements, reducing errors and facilitating a smoother construction process. 
• Optimized Project Coordination: Using BIM for reinforcement planning improved coordination among project teams, optimizing resources and reducing costs. 

Moving Forward

The Freilassing warehouse project highlights how combining traditional reinforcement techniques with advanced digital tools like ALLPLAN and BIM can effectively address the structural challenges of warehouse construction. This approach helps meet high standards for safety and performance while increasing project efficiency. 

If your next project could benefit from a similar approach, consider how CN Europlan’s expertise in BIM-based reinforcement design can support your needs. Contact us to discuss your engineering challenges and how we can assist in delivering reliable and efficient structural solutions. 

Designing the structure of a sports hall involves unique challenges that go beyond typical building requirements. These facilities require expansive, open spaces free of obstructive columns, complicating load distribution. Additionally, the structure must endure dynamic loads from various sports activities while maintaining durability over time. 

The new sports hall in Munich, Germany, faced these specific challenges. To achieve the necessary structural integrity and safety, precise rebar placement and well-coordinated formwork plans were essential. CN Europlan employed advanced BIM (Building Information Modeling) tools to meet these demands, ensuring all structural requirements were addressed efficiently and accurately. 

Project Overview 

The sports hall near Munich is designed to host sports events and community activities. The project required a structural design that ensured functionality, safety, and compliance with architectural standards. CN Europlan’s expertise in BIM and structural engineering was crucial in developing effective rebar plans and formwork designs tailored to these needs. 

Addressing Structural Design Challenges with BIM 

One of the key challenges in the Munich sports hall was integrating a steel profile with specific rebar configurations to maintain the open space design while ensuring structural stability. The starter for the upper column from the beam was constructed using a steel profile welded with 2x 15 Ø28 mm and 2x 14 Ø12 mm rebars. This configuration required precise placement to support the upper columns without compromising the hall’s open space. 

To further reinforce the structure, 2x 12 Ø40 mm rebars were used for the top and bottom longitudinal reinforcements. These rebars were carefully modeled using BIM to ensure they met structural requirements and optimized the building’s load-bearing capacity. The use of BIM technology facilitated the accurate placement and coordination of these elements, reducing potential conflicts during construction and enhancing the structure’s integrity. 

Detailed Integration of Closed Stirrups 

The project also required the integration of numerous closed stirrups in the beam design, which was another critical aspect of CN Europlan’s rebar plans. The closed stirrups were designed to pass through the steel profile, adding further stability to the structure. The application of BIM provided several benefits: 

• Accurate Rebar Positioning: BIM allowed for precise modeling of the closed stirrups, ensuring they were correctly positioned around the longitudinal rebars during concreting. This was essential for maintaining the structural integrity of the beams. 

• Load Distribution Optimization: By using BIM to visualize the placement of the stirrups, CN Europlan could adjust the load distribution within the beams, improving resistance to bending and shear forces—a key requirement for a sports hall subjected to dynamic loads. 
• Enhancing Structural Stability: Modeling the integration of stirrups through the steel profile with BIM added stability to the design, minimizing the risk of structural movement over time. 

Using BIM to Overcome Design Complexities 

The rebar and formwork plans for the Munich sports hall required precise planning due to the complex requirements of maintaining large open spaces while ensuring structural stability. BIM tools enabled CN Europlan to create detailed 3D models that provided a clear visualization of the structural elements, reducing errors and streamlining the construction process. This approach helped ensure that all plans met safety and design standards effectively. 

Future Applications and Insights 

The use of BIM in the structural engineering of the Munich sports hall offers insights that can be applied to future projects. The accurate modeling and planning capabilities of BIM provide practical solutions that other structural engineering offices in Germany can adopt. These methods can help improve project quality, safety, and efficiency. 

Takeaways 

• BIM Improves Accuracy: BIM technology enables precise rebar placement and formwork design, minimizing errors and enhancing structural integrity. 
• Effective Planning: BIM tools help visualize complex structures, facilitating better coordination across various engineering disciplines. 
• Adapting to Standards: This project demonstrates how BIM can help meet evolving engineering standards and project requirements. 
• Enhancing Collaboration: BIM can improve collaboration between structural engineering firms, leading to better project outcomes through shared expertise. 

CN Europlan is ready to assist with BIM-based structural engineering solutions. For engineering offices seeking to improve their projects speed delivery and efficiency, contact us to talk about your next project. 

Understanding Setout Plans and the Role of BIM

Concrete setout plans are essential in construction, defining the exact locations and dimensions of every component. They serve as a precise blueprint for workers on site.

Traditional setout plans, often created through manual drafting, can lead to errors and misalignments. These issues cause delays and increased costs. Without accurate coordination, discrepancies between different trades result in clashes that need on-site adjustments.

Using BIM for creating setout plans eliminates these problems. BIM ensures meticulous planning and coordination, minimizing on-site issues and streamlining the entire construction process. Embrace BIM to reduce material wastage, avoid complications, and complete projects on time.

Our BIM Services: Enhancing Precision and Efficiency

Our BIM services encompass the creation of comprehensive concrete setout plans and detailed reinforcement plans. These plans include bar bending schedules, which are essential for ensuring the correct dimensions and shapes of steel bars. The entire design is completed in a 3D BIM environment, ensuring full coordination among all elements.

Joining at the Final Project Stage

We specialize in joining projects during their final stages. This allows us to integrate seamlessly into existing workflows, ensuring that our BIM models align perfectly with the project’s requirements. Our goal is to enhance the coordination and consistency of the project, providing clear and detailed plans that construction teams can follow easily.

Key Benefits of BIM-Based Detailing

Using BIM for concrete setout and reinforcement detailing offers several significant benefits:

• Accelerated Construction Timelines: By providing detailed plans and schedules, we eliminate the need for on-site steel bending. This speeds up the construction process, allowing teams to focus on assembly rather than fabrication.
• Eliminating On-Site Steel Bending: Detailed bar bending schedules mean that steel elements are pre-bent and ready for installation. This reduces labor time and potential errors on-site.
• Simplifying Assembly with Detailed Schedules: Our detailed reinforcement plans are like a set of instructions for a Lego kit. Workers can assemble the reinforcement step by step, following the precise guidelines provided.

Enhanced Efficiency and Cost Control

BIM technology helps to minimize clashes and collisions in construction projects. By coordinating all elements in a 3D environment, we ensure that the final plans are accurate and free of conflicts. This reduces rework and delays during construction.

Additionally, BIM provides exact quantity take-offs, which are crucial for cost control. By knowing the exact amount of materials needed, project managers can better manage budgets and avoid over-ordering or shortages.

Looking Ahead: The Future of Construction with BIM

The construction industry is moving towards more efficient and precise methods, and BIM is at the forefront of this transformation. By adopting BIM-based concrete setout and reinforcement detailing, companies can achieve higher levels of accuracy, efficiency, and cost control in their projects. This approach not only improves current projects but also sets a new standard for future construction endeavors.

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