Eugene Korch’s Post

A flat roof that is properly cared for can last five decades. That is not the most common lifespan for a roof, but it is attainable when all the right decisions are made, from the underlying structural design and integrity up to the choice of materials and the quality of the installation. With maintenance, even the most basic kinds of flat roofs—those covered with a waterproof membrane and perhaps a layer of gravel—can become long-lived and low-energy.

Lately, I have two questions: Can reinforced concrete buildings be made more sustainable? Can the CO2 emission of a building structure be close to zero? 🌿 Here are some examples of the structures we install. The decision to combine reinforced concrete with light structure walls really improves the indicators. This path was chosen by some of our partners in the #Scandinavian markets. It is clear that the INHUS team has a lot of practice and expertise in the installation of such buildings. This is really a significant part of our construction activities. The logic behind this type of building can be justified only if the external facade is additionally covered with clinker bricks. This way #longevity can be maintained. The option where the wooden panels are simply fixed on the walls of light constructions does not seem to be a sufficiently durable and good solution. Therefore, it’s important that you have the knowledge to make the right decisions. INHUS aims to make buildings and the environment more sustainable – not only with words, but also with actions. 

The construction method for retaining walls significantly influences their performance, durability, and cost. At the core of successful retaining wall construction is the careful balance between structural requirements and site-specific conditions. Factors such as soil properties, wall height, and intended use all play critical roles. This article explores into the various construction methods for retaining walls, discussing their applications, advantages, and limitations. Whether it's gravity walls, cantilever walls, or anchored systems, understanding these techniques ensures effective and efficient wall design. 🔗 Read the full article here: https://lnkd.in/dAP3Cb_2 #RetainingWalls #ConstructionMethods #StructuralEngineering

IWI Project Due To Start Shortly - Historic Property - Solid Walls(No Cavity) After a site visit to this large historic property and a hygrothermal risk analysis done via WUFI, (in order to ascertain a safe level of wood fibre insulation to be used, so as not to cause interstitial condensation). The insulating of the inside of the external solid walls is due to start shortly. A layer of lime insulating plaster will be used as a levelling / dubbing out coat prior to the wood fibre insulation being applied. It's imperative that there are no air pockets between the back of the wood fibre boards and the wall, as a dew point can form at this point. Lime plaster will be used to finish the wood fibre boards, with a base coat of Baumit RK70 and a finishing coat of Baumit KlimaGlatt. Watch this space, I will post again once installation starts! Acara Concepts Ltd https://lnkd.in/egmkAPV #retrofit #retrofitting #historicproperties #woodfibreinsulation #limeplasters #architects #architecturaltechnologists

Architectural coatings, usually made of PVDF, ETFE and FEVE. Architectural films (typically PVDF and, primarily, ETFE) are applied on various surfaces in buildings as protective coating in applications where a lifespan of several decades is needed. These coatings protect the substrate, which can be any material, from weather and environmental conditions. Applications include coatings of bridges and other industrial structures, as well as large constructions, such as roofs of stadiums and domes. They can be transparent, allowing natural light in the building and reducing the need for artificial lighting, and consequently energy usage.  #fluoropolymer #etfe #fep #pfa #architectural

IWI Project Due To Start Shortly - Historic Property - Solid Walls(No Cavity) After a site visit to this large historic property and a hygrothermal risk analysis done via WUFI, (in order to ascertain a safe level of wood fibre insulation to be used, so as not to cause interstitial condensation). The insulating of the inside of the external solid walls is due to start shortly. A layer of lime insulating plaster will be used as a levelling / dubbing out coat prior to the wood fibre insulation being applied. It's imperative that there are no air pockets between the back of the wood fibre boards and the wall, as a dew point can form at this point. Lime plaster will be used to finish the wood fibre boards, with a base coat of Baumit RK70 and a finishing coat of Baumit KlimaGlatt. Watch this space, I will post again once installation starts! Acara Concepts Ltd https://lnkd.in/eURMQFC #retrofit #retrofitting #historicproperties #woodfibreinsulation #limeplasters #architects #architecturaltechnologists

Unlike traditional retaining walls, embedded walls are anchored deep into the ground, enhancing stability and making them ideal for deep excavations or steep slopes. This article discusses the types of embedded retaining walls, including sheet piles, contiguous and secant bored piles, king-post walls, and diaphragm walls. Key design principles are explored, from calculating earth pressures and determining embedment depth to ensuring stability against overturning and sliding. A detailed worked example illustrates the process for designing a sheet pile wall for a sandy soil site. Find out more here 👉 https://lnkd.in/duRFEn99 #CivilEngineering #EmbeddedWalls #RetainingStructures #GeotechnicalDesign #ConstructionTech

Managing congestion in the cavity used to be simpler. With thicker slabs and fewer fire performance requirements, we had more space and flexibility in design. But today, evolving building standards and performance needs have brought new complexities: Thinner Slabs 🏢 As we shift toward leaner designs, thinner slabs limit space for critical installations like masonry support, increasing the risk of clashes. Higher Fire Performance Standards 🔥 Stricter fire safety regulations reduce available space, as barriers require minimal penetration, leaving less room for other components. To keep pace we’ve leaned into early coordination, accurate load calculations, and strategic integration of elements as key methods for managing complex designs. How are you adapting to these design challenges?

I’m excited to kick off a series of posts about the amazing benefits of the metal building system! 🚀 If you're looking for an efficient and cost-effective solution for your next industrial project, metal buildings offer numerous advantages over traditional frame warehouses. ✅Faster construction and lower costs thanks to modular design. ✅Higher durability and weather resistance. ✅Lower maintenance and better energy efficiency. ✅Greater flexibility for future expansions and modifications. ✅Improved fire resistance and a smaller environmental impact. Stay tuned for more posts to learn why choosing a metal building could be the best decision for your next project! #MetalBuilding #EfficientConstruction #IndustrialInnovation #SustainableBuilding

𝗣𝗿𝗼𝗱𝘂𝗰𝘁 𝗦𝗽𝗼𝘁𝗹𝗶𝗴𝗵𝘁: 𝗠𝗲𝗲𝘁 𝘁𝗵𝗲 𝗛𝗜𝗧𝗖𝗛™ 𝗛𝗗+ 𝗖𝗹𝗮𝗱𝗱𝗶𝗻𝗴 𝗔𝘁𝘁𝗮𝗰𝗵𝗺𝗲𝗻𝘁 𝗦𝘆𝘀𝘁𝗲𝗺 At Longboard Architectural Products, we’re pushing boundaries with our HITCH™ HD+ Cladding Attachment System, a cutting-edge solution designed for projects requiring high-performance insulation and structural strength. Key Features of the HITCH™ HD+ System: * Supports 6” to 16” insulation, providing superior thermal performance. * Impressive dead load capacity: 6” insulation: 14 psf, 16” insulation: 9.5 psf * Built to withstand a 35 psf wind load (factored/ultimate) with a clip spacing of 32” x 48”. This system is engineered to provide unparalleled strength and flexibility, making it the go-to choice for large-scale, high-performance cladding applications. #HITCHHDPlus #HighPerformanceCladding #InsulationInnovation #ThermalPerformance #BuildingExcellence