A widely known fact about concrete: It cannot be used alone as a building Material as it has a high compression strength but a low tensile strength. Hence, if concrete alone is used in construction, there is a chance that such structure will collapse if introduced to higher load or force. Thus, a mechanism is required to provide strength to Concrete Structures. This mechanism is widely known as reinforced concrete in the language of Civil Engineering and Construction.
Even though there are multiple options available for reinforcing concrete, the best option is Steel. The reason for this is simple: it has several benefits compared to other materials.
Steel versus Aluminum
When it comes down to reinforcing steel, the two of the best-suited materials are aluminum and steel. Even though both have almost same physical characteristics, steel beats aluminum in case of Thermal Expansion. Material with high thermal expansion is used relatively less in reinforcing concrete as temperature changes affect such materials greatly causing it to expand and crack. Aluminum has higher thermal expansion compared to steel and hence it is used less compared to steel for reinforcement process.
- Ductility: Steel is highly ductile which means it can be easily deformed to take any shape as and when required. This property of steel is called tensile strength. It reduces the chances of a structure getting collapsed.
- Modulus of elasticity: Steel has same Young’s modulus or modulus of elasticity(2.0 – 2.1 x10^5 N/mm2) so that it can withstand lengthwise tension or compression.
- Thermal Expansion: The coefficient of thermal expansion for both steel and concrete are same. This ensures bond strength during thermal expansion preventing the bond failure.
- Easy Recycling: Steel can be easily recycled making it more eco-friendly and cost-effective material.
- Easy Welding: Steel can be welded easily making it the best material for fabrication (manufacturing) process.
- Availability: Steel is a widely available material at cheaper rates compared to other ductile materials.
Role of Steel Detailing
The process of preparing ‘shop’ drawings for steel members in Reinforced Concrete is called rebar(reinforced bar) detailing. At first, the design engineer develops design drawings indicating the size of material, its orientation and location in 3D space, connection details, material specification, and lot more. These drawings are not informative enough for any contractor or manufacturer to start cutting the material. Thus, shop drawings are produced by a contractor to cut the material to exact size, length, shape, and place the bolt holes at the correct place.
Apart from this, there are detail drawings used to demonstrate regulations for assembly and junctions between the components.Steel Detail Drawingsis used forSteel Construction Detailingto manufacture and erect steel members like columns, beams, trusses, handrails, etc. These drawings are critical to any construction project and they must be produced by steel detailers having sound knowledge ofsteel construction detailing.
Services offered by us:
Silicon Engineering Consultants Limitedis a leading organization in CAD based services with the main base in Auckland. We offer several Structural Engineering Services like Structural CAD Drawings,Beam Calculation, Fabrication Drawing, Design Calculations, Drafting Services,Steel Detail Drawings, Steel Construction Detailing.We also offerAs Built Aucklandservices which is the process of preparing as built drawings for circumstantial changes made during construction. They reflect what has actually been built.
if you have any further query, Please feel free to Contact US
New Zealand, Auckland, Wellington, Christchurch, Dunedin, Tauranga, Hamilton, Nelson, Napier, Queenstown, Rotorua, Palmerston North, Invercargill, Lower Hutt, Porirua, Waitakere City, Upper Hutt, Whanganui, Hokitika, Levin, Pukekohe, Tokoroa, Gisborne, Motueka, Paraparaumu, Westport, Paeroa, Thames, Oamaru, New Plymouth, Kawerau, Otorohanga, Dargaville, New Plymouth, whangarei, Whanganui, Gisborne, Hastings, Arch Hill, Avondale, Blockhouse Bay, Balmoral, Eden Terrace, Eden Valley, Epsom, Freemans Bay, Glendowie, Glen Innes, Grafton, Greenlane, Greenwoods Corner, Grey Lynn, Herne Bay, Hillsborough, Kingsland, Kohimarama, Lynfield, Meadowbank, Mission Bay, Morningside, Mount Albert, Mount Eden, Mount Roskill, Mount Wellington, Newmarket, Newton, New Windsor, Onehunga, One Tree Hill, Orakei, Oranga, Otahuhu, Owairaka, Panmure, Penrose, Point England, Point Chevalier, Ponsonby, Remuera, Royal Oak, Saint Heliers, Saint Johns, Saint Marys Bay, Sandringham, Stonefields, Tamaki, Te Papapa, Three Kings, Waikowhai, Waterview, Western Springs, Westfield, Westmere, Albany, Bayswater, Bayview, Beach Haven, Belmont, Birkdale, Birkenhead, Browns Bay, Campbells Bay, Castor Bay, Chatswood, Cheltenham, Coatesville, Crown Hill, Cuthill, Devonport, Fairview, Forrest Hill, Glenfield, Glenvar, Greenhithe, Highbury, Hillcrest, Long Bay, Mairangi Bay, Marlborough, Meadowood, Milford, Murrays Bay, Northcote, Northcote Central, Northcote Point, North Harbour, Northcross, Rosedale, Rothesay Bay, Oteha, Pinehill, Stanley Bay, Stanley Point, Sunnynook, Takapuna, Torbay, Totara Vale, Waiake, Wairau Valley, Westlake, Windsor Park, Unsworth Heights, Airport Oaks, Beachlands, Brookby, Bucklands Beach, Chapel Downs, Clendon, Clevedon, Clover Park, Cockle Bay, Dannemora, East Tamaki, Eastern Beach, Farm Cove, Flamboro Heights, Flat Bush, Golflands, Goodwood Heights, Greenmeadows, Half Moon Bay, Heron Point, Highland Park, Hill Park, Howick, Mahia Park, Mangere, Mangere Bridge, Mangere East, Manukau, Manukau Heights, Manurewa, Maraetai, Meadowlands, Mellons Bay, Middlemore, Murphys Heights, North Park, Orere Point, Otara, Pakuranga, Papatoetoe, Porchester Park, Puhinui, Randwick Park, Redoubt Park, Richmond Park,
This post first appeared on Why Building Information Modeling (BIM) Is Useful For Integrated Architecture, please read the originial post: here
