MiTek’s Post

#DetailWednesday 👷 Where we'll dissect those seemingly small details that make a big difference. This detail will focus on a ground bearing concrete floor with a timber kit wall and metal cladding finish, all coming together with a continuous thermal performance and protection against the elements. There are many things we take into account at #OZ for the design and success of details, we’ll list 3 important ones below. 1.Thermal continuity 🌡️ - We need to think how each of these insulation products connect together to create a ‘continuous’ wrap that keeps the building warm in the winter and cool in the summer. Also be vigilant to eliminate cold bridges - the enemy of energy efficiency and what causes mould a lot of the times! 2.Sequencing ⚒️ - Is your detail physically achievable on-site? Thinking about the buildability of the detail ensures we don’t design something that leaves the contractor scratching their head – not ideal! A well-sequenced detail ensures a smooth construction flow and fosters trust between the designers and builders, ultimately leading to a faithful realisation of the design. 3.Knowing your membrane’s functions and use case ☔ -Damp Proof Membrane (Red) - Acts as a barrier against moisture to prevent rising dampness from the ground. It is often used under floor structures due to the high risk of moisture. -Breather Membrane (Blue) - Reduces the chance of damp and mould forming in a building. They are installed in external walls and roof structures to prevent water ingress, but their vapour-permeable quality allows moisture to escape. -Vapour Control Membrane (Cyan) - Protects the building elements from degradation by restricting the movement of water vapour from inside a building to within the building structure. -Separation Membrane (Green) - Avoids any reaction between the wet screed and foil facing of the insulation board. Do you have any key things you watch out for when designing your details? Let us know and see you next Wednesday! #construction #architecture #newbuild #architecturaltechnology #technicalarchitecture

Our Design Manager Corey Hokanson has a wealth of info and he wanted to share some insight into working with corners in mass timber design - as in this image: Keeping the ‘grain direction’ the same as you go around the corner (One-way) simplifies the structural grid and allows for easier routing of MEP. However, the two areas may not line up cleanly with a single grid of beams & columns. Changing the grain direction at the corner (Corner Turn) can solve this, as it allows you to create a separate structural grid for the added wing. However, care must be taken to choose your break point—having the grain change in the middle of a room can distract from the beauty of the timber. Additionally, the change in grid can cause challenges for routing of MEP. You can also spice up the design for some architectural flair by changing the grain direction at the corner (Miter) - which can leave the corner of the building free from perimeter beams. Add in some floor-to-ceiling windows, and you have a beautiful feature. A word of caution: mitering the corner is less materially efficient, complicates the structural grid, and causes challenges for MEP routing. The decision on layout of mass timber should be based on a combination of factors: architectural design, structural requirements, manufacturing capabilities, ease of install, and even MEP routing. That's why it's so important to bring mass timber experts on to your project as early as possible. For more mass timber insights visit Corey on LinkedIn - https://zurl.co/emz2 #masstimbertips #designingwithmasstimber #designinsights

🏗️ Ensuring safety and performance: An Introduction to Curtain Wall Standards and Tests 📋 Curtain walls play a pivotal role in the structural integrity and aesthetic appeal of buildings. However, their effectiveness relies heavily on adherence to rigorous standards and thorough testing procedures. In this letter, we delve into the essential standards and tests that govern the safety and performance of curtain walls. Each aspect, from structural integrity to fire resistance, is meticulously examined to ensure compliance with industry regulations and project requirements. Join us as we explore the critical considerations architects, designers, and contractors must navigate to guarantee the reliability of curtain wall systems. #unitedfacade #windows #facade #facadedesign #structuralengineering #structuralengineers #structural #architecture #archilovers #buildingmaterials #buildingdesign #glass #curtainwall #unitizedcurtainwall #glazing #buildingenvelope #highrise #subcontractors #design #construction #engineering #bim #projects #BuildingExteriors #WindowWalls #CurtainWalls #Architecture #Construction #CurtainWalls #BuildingStandards #SafetyFirst #ArchitecturalDesign #ConstructionTesting 🌐🔍

You start developing your product, and for months nothing changes. You're frustrated. You start to question your decisions. I want to tell you it's most probably all good. Look at it as you would be building a house: you can’t move in until it’s finished. And just like in a house, all components are interconnected. That means you can’t build one feature (a room) and then the rest of the system around it (other rooms). And there are more similarities to consider: 1. Requirements 🏠 The construction begins with a plan and deciding on the floors and rooms arrangments.  💻 Your tech team gathers your requirements to shape the development plan. 2. Architecture  🏠 Builders lay the groundwork and construct walls considering the sewage, ventilation, and electricity systems. 💻 Programmers gradually deploy the entire system across all the product functionalities. 3. Features  🏠 Only when builders complete a house with a roof and utilities, they can proceed with the interior. 💻 Your dev team can finish features only after the basis of the system is ready. As you see, you cannot expect immediate results. Gather some patience to see the first finished feature and let your users move into a 'ready room'. #development #results #product #components #feature #requirements #architecture

Eltherington's Through Fix System (TFS1) for rainscreen cladding stands out as a premier choice for both new constructions and particularly for retrofitting existing buildings. The innovative design and engineering behind TFS1 address common challenges in façade renovation and construction, offering a seamless blend of functionality and aesthetics. The TFS1 is rigorously CWCT tested, ensuring that it meets the highest standards for performance in wind resistance, water tightness, and air permeability. This certification is pivotal for architects, developers, and contractors who prioritise building envelope integrity and long-term durability in their projects. By choosing a system that has undergone such thorough testing, stakeholders can have confidence in the resilience and reliability of their building's façade against diverse environmental conditions. Moreover, the modern design of the Through Fix System significantly enhances the visual appeal of buildings. Its innovative engineering minimises the visibility of fixings on the exterior, promoting a clean and unblemished architectural appearance. This feature is especially beneficial for refurbishing existing structures, where the quality of infill materials can vary, making it challenging to secure fixings uniformly. The TFS1 addresses this issue by providing a dependable attachment method that doesn’t compromise on the façade’s aesthetic value, making it an ideal solution for projects that demand both superior performance and design excellence. Website - https://lnkd.in/eqWyNX4W Virtual Showroom - https://lnkd.in/eZvx2qdp Case Studies - https://lnkd.in/e6i5cFPa #rainscreen #facades #firetested #cladding

As a critical component of modern #construction, #facade engineering is vital in achieving a building's desired aesthetic and functional requirements. However, the cost of facade engineering can be a significant factor in the overall cost of a project. #Builders and property owners, are you looking for ways to make your project more cost-effective? Consider optimizing the design and materials used in your #facade engineering! We know you have challenges and are here to help you meet them. Please email us at [email protected] or call our friendly team of experts at 90 533 346 33 93 #facade #curtainwall #facadeconsulting #facadeconsultacy #façade #facadeengineering #curtainwall #rainscreen #design #buildingindustry #construction #facades #windows #technology #glass #envelopes #glazing #facadelovers #architect #exterior #archidaily #architectural

Eltherington's Through Fix System (TFS1) for rainscreen cladding stands out as a premier choice for both new constructions and particularly for retrofitting existing buildings. The innovative design and engineering behind TFS1 address common challenges in façade renovation and construction, offering a seamless blend of functionality and aesthetics. The TFS1 is rigorously CWCT tested, ensuring that it meets the highest standards for performance in wind resistance, water tightness, and air permeability. This certification is pivotal for architects, developers, and contractors who prioritise building envelope integrity and long-term durability in their projects. By choosing a system that has undergone such thorough testing, stakeholders can have confidence in the resilience and reliability of their building's façade against diverse environmental conditions. Moreover, the modern design of the Through Fix System significantly enhances the visual appeal of buildings. Its innovative engineering minimises the visibility of fixings on the exterior, promoting a clean and unblemished architectural appearance. This feature is especially beneficial for refurbishing existing structures, where the quality of infill materials can vary, making it challenging to secure fixings uniformly. The TFS1 addresses this issue by providing a dependable attachment method that doesn’t compromise on the façade’s aesthetic value, making it an ideal solution for projects that demand both superior performance and design excellence. Website - https://lnkd.in/eqWyNX4W Virtual Showroom - https://lnkd.in/eZvx2qdp Case Studies - https://lnkd.in/e6i5cFPa #rainscreen #facades #firetested #cladding

🏠 Understanding the Components of a Building: A Visual Guide 🏠 Whether you're an architect, engineer, or simply a building enthusiast, understanding the structural components of a building is crucial. Check out this detailed diagram that breaks down each element of a building from the foundation to the roof. 🔍 Key Components Highlighted: Foundation/Substructure: The solid base that supports the entire building. Plinth Level: The section just above the ground level, providing stability and protection from water ingress. Superstructure: Everything above the plinth, including walls, windows, and roof. 👷♂️ Important Elements: Footing and Foundation Bed Level: Ensure the building's weight is evenly distributed. Damp Proof Course: Prevents moisture from rising into the walls. Brick Wall and Flooring: Provide structural integrity and aesthetic appeal. R.C.C. Roof Slab and Ceiling: Offer strength and insulation. 🛠️ Extras: Windows and Doors: Vital for ventilation and accessibility. Weathering Course and Parapet Wall: Protect the building from weather elements. Understanding these components helps in appreciating the complexity and the engineering behind building construction. Whether you're designing a new structure or maintaining an existing one, this knowledge is invaluable. #Architecture #Engineering #Construction #BuildingDesign #StructuralComponents #CivilEngineering #BuildingScience

Ever wondered what holds up the walls in your home or office building? It’s the humble yet essential wall stud! 🏠🔨 Wall studs are vertical framing members that form the backbone of your walls, providing support for the entire structure. But there’s more to them than meets the eye. Let’s dive into the basics: 1. Material Matters: Wall studs are typically made of wood or metal. Wood studs, often constructed from 2x4 or 2x6 lumber, are common in residential construction due to their affordability and ease of installation. Metal studs, made from steel, are prevalent in commercial buildings for their strength and fire resistance. 2. Spacing and Placement: Studs are spaced at regular intervals along the wall, usually 16 or 24 inches apart. This spacing ensures structural stability and provides adequate support for drywall or other wall finishes. The placement of studs also factors in window and door openings, corners, and any structural requirements dictated by building codes. 3. Load-Bearing Support: Wall studs not only support the weight of the structure above but also transfer loads, such as wind and seismic forces, to the foundation. Properly spaced and installed studs are crucial for maintaining the integrity and safety of the building. 4.Insulation and Wiring: Studs create cavities within the wall where insulation can be installed, helping to regulate temperature and improve energy efficiency. Additionally, electrical wiring and plumbing pipes are often routed through these cavities, making studs integral to the building’s infrastructure. 5. Variations and Alternatives: While traditional wood and metal studs are prevalent, there are alternative materials and techniques gaining popularity, such as insulated concrete forms (ICFs) and structural insulated panels (SIPs). These modern solutions offer enhanced insulation properties and faster construction times. Understanding wall studs and their role in structural framing is fundamental for architects, engineers, contractors, and anyone involved in the construction industry. By mastering these basics, we can build safer, more efficient, and more sustainable buildings for generations to come. 💪🏗️ For More Info, visit us: www.vortexbim.in #Construction #BuildingDesign #StructuralEngineering #Architecture #BuildingMaterials #architecturalphotography #architects #architecturestudent #architecturedetail #architecture_hunter #architecture_best #architecture_view #architecture_minimal