GrayWolf’s Post

I just spent some time in Italy, and one thing that caught my eye was their extensive reliance on masonry outriggers/brackets for Juliette balconies. These outriggers are beautifully sculpted and everywhere. Coming from a structural engineering mindset, I can think of reasons why we do not use these more in the US. But, these have been in use for a VERY long time and are therefore reliable and long lasting. I'd love to hear from different perspectives for and against their use. Is testing for ultimate capacity the only hindrance? I would assume my architectural colleagues would be for their use due to their beauty. Of course fabrication costs are higher, but life-cycle costs should cover this. No? Or is it simply "build it for as cheap as possible" the ultimate decision maker? I'd love to hear your thoughts...

One of the most common features of construction is RSJs. These are structural steel beams that are frequently used for a wide range of construction and structural engineering applications. Learn more in this blog post https://lnkd.in/eqxqhqq7

While working on an area of the site that has no design surface level (off design), therefore no ability to use a vertical offset, a competent operator can use the 2D area plan as guidance for positioning their dig. Also, While the integrated trimble system is in contact with its base station, it is possible to monitor the vertical height of the cutting edge to match the dig level to whatever information is given on the 2D area plan or to an appropriate level from hard copy drawings. We basically have an equivalent to the rotating laser without the need for personnel to enter the excavation. Picture: Photographic proof is becoming ever more acceptable for inspection of works and it is easily demonstrated here that the attenuation tank has been installed to the correct level and position. Photographs taken which show positioning for context, will surely be a welcome addition to any site report. Advance Construction Group Scotland SITECH UK and Ireland Liam Payne Hitachi Construction Machinery (UK) Trimble Civil Construction

Port Entrance currently under construction : structural engineering at the Namibian Coast The white appearance mainly due to fly ash being used in the concrete

You can see the difference between using the shear connection 🆚️ the moment connection, which produces more rigidity in the connected steel structural members. #Steel #Detailing #Connection #Moment #Shear #Civil #Design #Engineer #Structural #Civil #Technology #Rigidity

3. Not Only Skyscrapers and Bridges From big to small, structural engineers work on many types of projects. These include houses, mixed-use developments, high-rise office buildings, hospitals, airport facilities, fuel stations, and shopping centres. They can also be involved at different stages of a project, from conducting initial condition assessments to giving recommendations for repairs and improvements. However, when structural engineers are involved from the start, their expertise helps to secure the project's success. Their unmatched knowledge in materials (and how they behave) is vital for a structure's strength and identifying faults. 55

Before concrete pours, our Engineers inspect suspended slab reinforcement to confirm the steel reinforcement meets with the design intent. The size and placement of reinforcement play pivotal roles in the structural integrity of suspended slabs. This is why, challenges like steel corrosion and deterioration can weaken older slabs over time. Count on us for structural inspections, whether it's a fresh pour or an aging structure. Need to assess the strength of a new or old suspended slab? We've got you covered! 🏗️ For expert advice on reinforced concrete, reach out to us. We deliver concise engineering insights in an accessible manner, ensuring clarity for every client. 💡

Civil structural Hello, I hope everyone is well. A point that should be considered in the design of steel structures is the discussion about the anchor created when connecting the beam to the column. In fact, when designing the steel structure, ETABS assumes that the beam was installed on the axis of the column, while this is not the case during implementation, and the beam is not installed on the axis of the column and is far from the axis of the column, which causes anchoring. In other words, in a simple beam-to-column connection, we have the anchor resulting from the installation. M=P*e p = force at the end of the beam e= distance of connection to the center of the column

SOLID FOUNDATION In structural engineering, a solid foundation refers to the base upon which a structure is built, providing stability, support, and resistance to loads and forces. A solid foundation is crucial for ensuring the structural integrity and longevity of buildings and other infrastructure. It typically involves the design and construction of elements such as footings, piles, or caissons, which distribute the weight of the structure evenly to the underlying soil or bedrock. Factors such as soil type, site conditions, and the intended use of the structure all influence the design and construction of a solid foundation. A well-designed and properly constructed foundation is essential for preventing settlement, cracks, and other structural failures, ensuring the safety and durability of the built environment.

It’s been a while since I started my role at MIROMA BUILDING AND CONSTRUCTION COMPANY LTD as a Construction Supervisor, but I wanted to share this update with everyone. Column cranking, also known as column buckling or lateral torsional buckling, is a structural failure mode that can occur in slender vertical elements like columns or piers.Mostly,Skilled Labourers make this mistake of intentional Column Cranking. Here are the main effects of column cranking and some strategies we can use to prevent it: Effects of column cranking: 1. Structural instability:The column loses its ability to support vertical loads efficiently. 2. Reduced load-bearing capacity:The column's ability to carry compressive loads decreases significantly. 3. Lateral deformation:The column bends or twists sideways, potentially causing misalignment of connected elements. 4. Increased stress concentrations:Localized areas of high stress can develop, leading to material failure. 5. Progressive collapse:In severe cases, column failure can trigger a chain reaction, causing other structural elements to fail. Strategies for Technicians to prevent column cranking: 1. Proper sizing and design: Use appropriate column dimensions and cross-sections based on expected loads. Consider slenderness ratios and buckling lengths in design calculations. 2. Material selection:Choose materials with suitable strength and stiffness properties. Consider composite materials or high-strength alloys for improved performance. 3. Bracing and lateral support:Implement intermediate bracing to reduce effective column length. Design connection points to provide adequate lateral restraint. 4. Stiffeners and reinforcement:Add stiffening elements to increase column rigidity. Use reinforcement techniques like fiber-wrapping for existing structures. 5. Load distribution:Design floor systems and beams to distribute loads evenly among columns. Avoid eccentric loading conditions that can induce additional bending moments. 6. Proper Profiling:Ensure proper alignment and plumbness during installation. Implement strict quality control measures for material properties and fabrication. 7. Regular inspections and maintenance:Conduct periodic structural assessments to identify early signs of instability. Perform timely repairs and retrofits as needed. 8. Advanced analysis techniques:Use finite element analysis (FEA) to model complex loading scenarios and identify potential weak points. Employ non-linear analysis methods to account for geometric and material nonlinearities. 9. Code compliance:Adhere to relevant building codes and standards that address column design and stability. Stay updated on the latest research and best practices in structural engineering. 10. Consideration of dynamic loads:Account for potential dynamic loads (e.g., wind, seismic activity) in column design. Implement damping systems or base isolation techniques where appropriate. For inquiries,call for technical assistance +254700291540 (Supervisor)