Amr Mohammed’s Post

Designing a Beam due to Shear (ACI-318-2019)

Structural Design of Beam due to Torsion according to ACI-318-2019 https://lnkd.in/dmx9PYSB

Video Lecture on Analysis and Design of Steel Beam as per AISC guidelines https://lnkd.in/dsAGNHz7 #structuralengineering #civilengineering #videolecture

FIXED BEAM ⚖ Where does its name comes from? Its name originates from the support type in structural engineering. Beams can be supported by x number of points or secured at x anchors. Whenever both ends are secured, they are referred as fixed beams. Fixed beams are casually referred as double ended beams. In the weighing industry there are two main designs: The ones for tanks and the ones for trucks. #loadcell #loadcells #fixedbeam #doubleendedbeam #weighing 2024-04-12 0:30 UTC+0 © Weighing Industry 24.014

#d3- pg 8 - Simplified Explanation: IS 800-2007 defines important terms like characteristic load (the value above which a small percentage of loads are expected) and column (a vertical member supporting loads). It also explains stress ranges, corrosion, dead loads (weight of permanent structures), and the concept of design life for structures. Actionable Steps: Ensure that design loads are calculated by applying a load factor to characteristic loads. Consider cumulative fatigue and corrosion impacts during design. Real-Time Application: Used in designing structures like buildings and bridges to ensure they remain strong and stable over their intended life. #engineering #structural #is  #800

A truss is a structural framework composed of straight members connected at joints. It's commonly used in engineering and architecture to support loads over a span. Trusses are often made of steel or timber and come in various configurations, such as triangular or polygonal shapes. Analyzing a truss involves determining the internal forces acting on each member, like tension or compression, under applied loads. Engineers typically use principles of statics and structural analysis techniques, such as the method of joints or method of sections, to calculate these forces. These analyses ensure that trusses can withstand intended loads without failure, optimizing their design for safety and efficiency. #ansys #truss #simulation

🔑 Important Formulas for Structural Analysis! Structural analysis is the backbone of designing safe and efficient structures, from bridges to high-rise buildings. Understanding and applying the right formulas can make all the difference in ensuring structural integrity. Here are some essential formulas every engineer should have at their fingertips: 📌 Bending Moment (BM) & Shear Force (SF): BM = ∑ (Forces × Distance) SF = ∑ (Vertical forces) 📌 Stress & Strain: Stress = Force / Area Strain = Change in Length / Original Length 📌 Moment of Inertia (I): I = ∫ y² dA (used to calculate the resistance of a cross-section to bending and deflection) 📌 Euler’s Buckling Formula (for columns): P_cr = (π²EI) / (KL)² 📌 Deflection of Beams: δ_max = (PL³) / (48EI) for a simply supported beam with a center load. These formulas form the core of understanding how loads affect various structures and are critical for safe, efficient design. 🚀 #StructuralAnalysis #Engineering #CivilEngineering #StructuralEngineering #SteelStructures #BuildingDesign

In structural engineering, the types of loads acting on a structure are critical for determining its design and strength. Three common types are point load, uniformly distributed load (UDL), and triangular load. Point Load: This is a concentrated load applied at a specific location on a structure. It’s typically represented as a single force on a beam or slab and can cause high stress at the point of application. Point loads are often seen in situations like the weight of a column on a supporting beam. Uniformly Distributed Load (UDL): A UDL is spread evenly over a length or area. In this case, the load per unit length remains constant, such as the weight of a slab distributed along a supporting beam. UDLs create bending and shear forces over a larger area, leading to a more even distribution of stress across the structure. Triangular Load: A triangular load varies in magnitude across a surface or length, starting at zero and increasing to a maximum. These loads can be seen in scenarios like wind pressure on a sloped roof. This load type results in a non-uniform distribution of forces, requiring more complex analysis. Understanding these load types is crucial in designing safe, efficient structures that can handle the forces acting upon them. #StructuralEngineering #PointLoad #UDL #TriangularLoad #LoadAnalysis #BuildingDesign Engr Ali Kaif Rana 👷🏗️🌇

9) Part 2-Comparison of Design of Rectangular Beam Subjected to Combined Shear Force and Torsion as per IS 456-2000 and IS-13920-2016 for an Ordinary frame i.e OMRF and Ductile frame i.e SMRF (Transverse reinforcement) Compared values are highlighted with red border in the excel sheet Contents: 1) Design of Rectangular Beam Subjected to Combined Shear Force and Torsion as per IS 456-2000 for an Ordinary frame i.e OMRF (Transverse reinforcement) 2) Design of Rectangular Beam Subjected to Combined Shear Force and Torsion as per IS 456-2000 and IS 13920-2016 for a Ductile frame i.e SMRF (Transverse reinforcement) The design procedure is very similar between the two. However, Designing a ductile frame requires us to calculate the shear force capacity. Larger of the linear analysis shear force and shear force capacity is considered for the design. Structural Engineering is a gift to humanity. #StructuralDesign #ETABS #BeamDesign #IS456 #IS13920 #DesignExcelSheet

The Heart of Structural Design: Crafting Safe, Affordable, and Inspiring Spaces Structural design isn’t just about beams and columns—it’s about shaping places where people live, work, and dream. Every detail matters, and as structural engineers, we have a unique responsibility and privilege to bring these spaces to life thoughtfully and responsibly. 🔹 Keeping People Safe: Safety is our top priority. When we design, we’re not just thinking about forces and materials; we’re thinking about the families, friends, and communities who will rely on these structures every day. The responsibility to protect lives is something we take to heart in every project. 🔹 Making Structures Affordable: Thoughtful design means using resources wisely. When we optimize materials and streamline processes, we help make buildings more affordable and sustainable. This means more access to well-built spaces for communities, and longer-lasting structures that stand the test of time. 🔹 Adding Beauty and Meaning: There’s something powerful about creating spaces that not only function well but also inspire. By collaborating with architects and designers, we aim to shape buildings that enhance the lives of those who use them, combining strength with beauty to make every structure feel unique. Structural design is so much more than a technical exercise; it’s about people and their connection to the places they inhabit. Here’s to all the structural engineers working every day to build a safer, better world!