Wire Mesh vs Rebar

Often projects involve the usage of concrete to create long lasting construction results. Whether you are building walls, roads or other structures like bridges, pathway etc., you can consider using Rebar or Wire Mesh under your concrete structure. Using any of these supporters provide significant reinforcement and have a long-lasting effect. But before using that, it is quite necessary to understand the difference between Wire Mesh and Rebar. So let’s take a look at how these methods are a robust option to make your concrete projects durable.

WHAT IS WIRE MESH?

Wire Mesh, also known as wire cloth or wire fabric, is a highly versatile product that can be used in the countless application. Depending upon the manufacturing capabilities, wire mesh can be made with an endless combination of opening sizes and diameter wires, which is either woven or welded as per the requirements. They are woven metal fabric created in varying degrees of coarseness, weight, and aperture.

When using Wire Mesh for concrete, it gives a significant advantage that allows a certain amount of shaping of concrete which is not possible with Rebar. Wire mesh comes in various materials such as plain steel, galvanized, or stainless steel products that are resistant to corrosion, which is why it is convenient to use.

WHAT IS REBAR?

Rebar is a structured steel bar that is primarily used in concrete construction. With the help of these reinforcing steel bars, the reinforced concrete surface is prepared. They are often used on floor slabs, walls or posts. It helps keep cracks that protect the surface from falling apart. It also provides structural strength to the structure. When opting for Rebar, various grades and sizes of steel for whatever strength level are required.

HOW IS WIRE MESH AND REBAR MADE?

To make Wire Mesh, metal wires are woven on industrial weaving looms. They are made as per a precise specification, leaving either square or rectangular gaps between the wires. The wire mesh is created by weaving metal on automatic rapier-style looms that gives precise control over the number of wires used to make the finished mesh. This closely regulates the approach that is required to maintain consistency in both aperture size and mesh thickness.

To make Rebar, steel (carbon or alloy) is melted down to liquid form. Once melted, the liquid steel is pulled through small round openings to create a rebar structure. While unfinished steel is the cheapest form of Rebar; however, sometimes epoxy-coated or stainless steel is also used. Epoxy-coated rebars are expensive as compared to other material rebar. After the steel has been properly shaped, it is twisted and grooved on the metal to ensure the stability of the structure. Their ends are protected with plastic caps to prevent accidental harm to workers. During construction, the rebars are bent through hydraulic benders and cutter on the basis of the requirements and sizes.

WHERE ARE WIRE MESH AND REBAR USED?

Wire mesh and Rebar is commonly used for a myriad of industrial usage. Wire mesh is widely used in industrial filtration, sieving, shielding, sorting, sifting, screening and separation procedures. Woven mesh is a highly flexible and malleable material. It can be shaped to suit precise requirements and edged to fit any structure. Wire Mesh is often used in industrial applications when separation and filtration is required. It is used in commercial applications like insect screening or animal fencing. They also provide various type of security, like in window machine, stairwell panel guards, fireplace screen, ventilation, RFI shielding, etc.

On the other hand, Rebar is used to providing resistance to support design loads. They are used for durability and aesthetic purposes, as well. They are commonly used in floor slabs, stairs, and roof construction. A heavier fabrication of welded wire fabric can be used in walls and structural floor slabs. This is commonly used in road pavement, box culverts, drainage structures, and small concrete canals.

Sunflag Steel offers a wide range of wire mesh and rebar products designed to cater to standard industrial processes and regularly work. We can develop custom solutions to meet your unique requirements, as well. Please connect to us anytime for the perfect products for your needs.

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Superalloys –Facts you must know

To match the demands of the vast growing industries, high-performance materials are needed for the highest efficiency. Ordinary steels and alloys are incapable of that higher performance. That’s where the complex and high-performance alloys come into the scenario. They have a high tolerance to oxidizing environments and high temperatures. Those are named superalloys

These superalloys are mainly classified according to their predominant matrix elements which are nickel, cobalt, or iron. They also contain multiple alloying elements including the refractory metals (Nb, Mo, W, Ta), Chromium, and Titanium. Especially at high temperatures, they exhibit high mechanical strength, creep resistance, and corrosion resistance. For these properties, they become more challenging to produce and costlier than other alloys. But they are very critical for components in the aerospace industries

Some properties of Superalloys –

As superalloys are used for high-temperature applications,they need to maintain their shapes at elevated temperatures close to their melting points (above 650ᵒC or 1200ᵒF). At extreme temperatures, being alloyed with certain elements, superalloys can maintain high strength, stability, and corrosion and oxidationresistance.

Examples of Superalloys –

By alloying the matrix element (Ni, Co, or Fe) with various other elements such as Chromium (Cr), Titanium (Ti), Aluminum (Al), and Boron (B), the high-temperature properties of superalloys are produced. In some cases, some refractory metals are also added, such as Molybdenum (Mo), Cobalt (Co), Niobium (Nb), and Zirconium (Zr) amongst others

Processing of Superalloys –

Generally, Superalloys are processed by two separate methods which are Casting and Powder Metallurgy.

Investment Casting

Wax models or replicas are used to create a casing for the molten metals and are mainly
used for complex shapes. To improve upon the formerly prevalent cold-rolling
techniques, it was the first method.

Vacuum Induction Melting (VIM)

Using electric currents, raw metallic materials are melted within a vacuum. As the
control over chemical composition is greater in this method, this is also called an
improvement upon investment casting.

Secondary Melting

After the VIM process, an additional melting process is applied to increase the
homogeneity. It reduces problems associated with the initial process.

Conversion

To make the superalloy ingots produced by secondary melting suitable for mechanical
applications, this process is involved. It consists of several stages of thermal deformation.

Direct Solidification

By the presence of a thermal gradient, the alloy is allowed to nucleate on a lowtemperature surface. Greater creep resistance along the grain direction is produced.

Single Crystal Growth

A monocrystalline superalloy component is slowly grown from a seed crystal.

Powder Metallurgy (P/M)

For producing alloys used in critical fatigue applications a group of processes is
completed. Superalloys are formed from a mixture of metal powders. Chemical pressures
are applied to bond these metal powders into parts.

Powder Metallurgy (P/M)

For producing alloys used in critical fatigue applications a group of processes is
completed. Superalloys are formed from a mixture of metal powders. Chemical pressures
are applied to bond these metal powders into parts.

Applications of Superalloys

Superalloy applications mainly consist of aircraft components, petrochemical equipments,
automobile equipments, chemical plant, and power plant equipments.

Future Trends of Superalloys

The future scopes in this field include decreasing the high cost of producing unique and complex
parts, and the synthesis of nanoparticles.

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Concrete Rebar Reinforcement – When is it necessary

By adding rebar reinforcement to the concrete surface, you can easily make the surface much more robust and resistant to cracks. Concrete surfaces that often carry heavy trucks or machinery do not need concrete rebar reinforcement; however, they are required to withstand tension forces.

With the help of rebar reinforcement, the tensile strength of concrete can be increased. Since the concrete is fragile in tension but strong in compression, this process can increase the tensile strength while helping it resist cracking and breaking. With greater tensile strength, concrete becomes resistant to breakage even after putting pressure on it. Rebar helps prevent cracks from growing wider primarily by preventing cracked slabs from moving apart.

Concrete is a solid and durable material that performs exceptionally well during compressive forces, such as heavy vehicle concrete drive-through or road. But even if it is self-sufficient when it comes to strength, with the rebarring process, it becomes even more robust and weight resistant. Concrete also sometimes needs support against expansion and contraction forces that occur naturally with changes in temperature. Underneath a beautiful-looking concrete surface, you’ll always find a well-engineered rebar structure that gives the concrete slab, wall, or even curb a beautiful structure and the much-needed strength and stability.

What is Rebar?

Rebar is also known as Reinforcing bar, Reinforcing Steel, etc. In this process, a group of steel bars or a mesh of steel wires is formed to create tension in reinforced concrete and masonry structures. Through this process, the rebar helps build strength and compression by holding the material in a compressed state.

The bars are made of multiple hot-rolled steel materials. Most are made of new steel billets, but the materials are often derived from steel debris or sometimes old railroad tracks. You can find the engraved symbols that indicate where it was produced. You can also find the yield strength on the surface, with can be around 60-75, or metric 420 or 520.

Do You Need Concrete Rebar Reinforcement?

Not all construction projects require concrete rebar reinforcement; however, if you use the rebar reinforcement, it will immensely change the strength of the area. There will be comparatively fewer cracks that appear on the concrete over time. As mentioned earlier, the concrete surface requires to uphold large vehicles, non-stop traffics, which is why they need rebar reinforcement. On the other hand, if your driveway is only expected to uphold the family minivan or a few cars, you might not need rebar reinforcement.

You can also try other options for your household facility, like welded wire mesh made into galvanized panels. They are a perfect solution for residential driveways that are not used daily or driven on by heavy trucks.

We’ll be more than happy to assist you in finding the best material for your usage. Connect with us anytime if you have questions regarding concrete rebar reinforcement or anything else.

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Steel Fabrication and its general application

Steel Fabrication and its general application

Steel fabrication is a process that is used to develop various components and products that we use in our  day-to-day life. It’s a process of transforming raw steel into a product or an item that can be used in construction projects. This process involves taking raw materials and shaping them to the  required form.

In this method, the raw materials are melted down and processed into finished steel product before being created into shapes. The steel fabrication process requires highly-skilled workers with experience in transforming raw components into marketable items.

The use of steel fabrication depends on the end-use of the product being fabricated. However, steel fabrication falls into three main categories-

  1. Commercial Fabrication: This fabrication process develops commercial products that are used by consumers. Appliances and cars, steel parts are the best examples of commercial fabrication.
  2. Industrial Fabrication: Industrial fabrication designs pieces that are used in developing other equipment. Bandsaws and ironworking machines are the best examples of industrial fabrication.
  3. Structural Fabrication: Structural fabrication refers to metalworking which is used as a part of the building process. Usually, structural fabricated steels are used in shops, manufacturers, buildings and skyscrapers.

PROCESS OF STEEL FABRICATION

Corrosion resistance, strength and durability are some of the principal characteristics of steel. The primary methods of fabricating steel include cutting, folding, welding, machining, shearing, punching, stamping and casting. Here is a brief overview of how each of these processes work:

  • Cutting- It is the most commonly used steel fabrication process that involves splitting the metal sheet into halves, thirds or smaller sections. Mostly, the sheets or bars are being cut and recreated into other desired shapes. They are cut using lasers and plasma torches that make the end product a more elaborate and high-tech piece.
  • Folding- Folding is one of the most complicated processes that involve the manipulation of steel into shapes of a certain angle. In this process, the metal surfaces are being folded at a 90-degree angle or other degrees to make the product more or less blunt.
  • Welding- This process involves the joining of two separate metal parts. The parts used in this process include sheet, panels, bars or any other shaped steel. They are joined together through numerous methods and machines that result in finished usable products.
  • Machining- Machining is a process of removing portions from a piece of metal. The process is usually performed on a lathe, which rotates the metal against tools that trim the corners and edges to cut the piece to the desired shape.
  • Punching- Punching is the process of forming a hole in a metal piece, where metal is placed under a die and punched through by a drill. In most cases, the holes are drilled into a panel of metal to fasten the latches or other foreign parts. In other applications — also known as blanking — the area with the hole is precisely extracted from the larger panel to form a bit smaller part.
  • Shearing- Shearing is a steel fabricating process that is used to cut straight lines on the flat steel sheet. During this process, a top blade and a bottom blade are driven past each other with the little space between them. Usually, one of the blades remains fixed. Steel shearing can be performed on a sheet, strip, bar, plate, and even angle metal stock.
  • Stamping- It is a fabrication process used to transform flat steel sheets into particular shapes. It is a complicated process that can incorporate several metal forming techniques like blanking, punching, bending and piercing.

    Stamping is similar to carving. A primary example of metal stamping is seen on coins, where words, currency, amounts etc. are stamped on each side of it.
  • Casting- Casting is a process in which hot liquid metal is poured into a mould that holds a hollow cut out of the desired shape. The liquid metal is then left to solidify, which is removed from the mould, revealing the end product, or the “Casting Form.” As one of the most flexible methods of metal fabrication, casting is ideal for a wide range of complex shape-making. The most common examples are jewellery, sculptures, weapons etc.

From paperclips to plane parts, steel is used to create a wide variety of products. It comes in several distinct grades and holds unique chemical compositions. At Sunflag Steel, we provide you with the best quality steel that is durable and sturdy in the long run.

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Why Steel is Used in Construction?

Why Steel is Used in Construction?

Steel is a popular construction material, often used along with concrete to create sustainable and cost-effective buildings. It is a versatile, impressive, and long-lasting material, with a high strength-weight ratio. Along with this, steel can be used as an alternative to other unsuitable building materials to make the building more durable. .

Steel is used for a myriad projects,  which include construction of bridges, buildings, modern skyscraper architectures and even in airports and residential  properties. Other than these, steel plays a pivotal role in our daily lives for its usage in household appliances, furniture, vehicles or even in construction tools.

Now, let’s look at some of the advantages of steel in construction and how they can be incorporated into the design of a building to overcome specific issues.

Top Reasons Why Steel In Used In Construction

  1. Strength, beauty, design freedom- Steel offers complete freedom to designers. It’s strength, endurance, beauty and malleability allow architects to develop and explore new ideas and products. It has the ability to bend to a certain radius and curves to build factory-finished products with exact specifications.
  2. Faster, Efficient, Resourceful- Steel can be assembled quickly and efficiently in all seasons. It reduces 20%-40% of construction time as it takes lesser time in moulding into the desired shape.
  3. Earthquake resistance- Earthquakes are unpredictable in terms of magnitude, frequency, and location. Steel, however, is a material of choice as it is inherently ductile and flexible. It can handle extreme loads rather than breaking and crumbling as it’s beam-to-column connection are designed principally to support gravity loads.
  4. Environment Friendly- Steel structures are significantly lighter than concrete structures and require less extensive foundations as they reduce environmental stress. They are  easier to move around, reduce transportation cost and save a lot of fuel.
  5. Energy Efficient- Steel is energy efficient, as it radiates heat very quickly from steel roofs, creating a more relaxed and cooler home environment in hot climate areas. During the cold season, double steel panel walls can help in insulation to hold the heat indoors.
  6. Recyclable- Steel frames can be easily reused and circulated into the steel industry’s close looped recycling system. In this process, it is melted down and repurposed to save the material from getting wasted.
  7. Fire Resistant- Steel frames are created, keeping in mind the fire protection requirements.  It’s a non-combustible material that preserves structural design in the event of a fire.
  8. Fewer columns, more open space- Steel sections provide an elegant, cost-effective method to create large open-plan and column-free internal spaces. In single-storey buildings, rolled beams offer exact spans of over 50 metres. Trussed or lattice construction can extend this to 150 metres. Thus, by minimizing the number of columns, it makes it easier to subdivide and customize spaces.

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What are the Properties of Spring Steel?

spring steel

Spring steel is the most popular material used to manufacture different kinds of springs. It is usually characterized by a unique property known as high yield strength which refers to a material’s ability to tolerate considerable bending or twisting and return to its original shape without distorting. Hence, any product built from this material can withstand a high amount of continuous compression, bending, and twisting without losing its original form. This spectacular property of spring steel comes from its specific composition and hardening process of the steel alloy.With a medium to high carbon content, spring steels usually consist of 0.5 to 1.0 percent of carbon. Other alloys that are added to the mix are magnesium, chrome, vanadium, molybdenum, nickel, and silicon with silicon being a major ingredient in providing high yield strength. This steel is flexible enough that it can be easily bent up to its elastic limit and return to the original position without being deformed once the pressure or load is removed.Apart from a high yield strength, spring steels also feature great tensile strength and fatigue strength and have the capacity to be formed, shaped, and post heat treated. These properties make this steel appropriate for a number of industrial applications. The tensile strength is obtained by the final heat treatment.

Applications of Spring Steel

Due to its excellent set of characteristics, spring steel is also known as general use steel. It is mainly used to produce high-quality saw blades, lock picks, antennas, and scrapers. In a hardened and tempered condition, spring steel works exceptionally well in the production of flat springs that are very difficult to form. For small springs, steel is often supplied to spring manufacturers in a form that either does not require any kind of heat treatment or needs just a low temperature anneal to relieve forming strains. Even for helical and flat springs, steel is supplied in an annealed condition. Regular carbon steel is a good option to make small springs, whereas, for large springs, it is imperative to use alloy steels like chrome-vanadium or silicon-manganese steel to get a uniform structure throughout the cross-section. If the surface of the springs has any sort of decarburization or irregularities, the fatigue strength will be negatively affected. Thus, manufacturers must ensure that the surface of the springs is perfectly smooth for optimum efficiency and performance. Sunflag Steel is a leading spring steel manufacturer in India that has introduced a large number of quality products that are durable and sturdy and perfect to be used in several demanding situations.

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Top Varieties of Steel

steel variants

Steel is made with a blend of iron and carbon. There are 3500 grades of steel, each having different physical, chemical, and environmental properties that are determined by the content of carbon, impurities, and alloys in them.The carbon content in steel can vary from 0.1% to 1.5% but the most commonly used steel grades usually have 0.1% -0.25% carbon. Other elements that are included in all kinds of steels are manganese, phosphorus, and sulfur. While manganese renders beneficial effects, phosphorus and sulfur are very essential to make the steel strong and durable.Based on their chemical composition, different grades of steel can be broadly categorized into 4 categories.

Carbon Steel

Carbon steel comprises a large chunk of steel production i.e. almost 90 percent! It is characterized by a dull and matte appearance and can corrode very easily. Apart from carbon, other elements that are included in it are manganese, copper, and silicon. Carbon steel is further divided into 3 sub-categories:

  • Low Carbon Steel – contains less than 0.3 % of carbon. It is the most common type of carbon steel.
  • Medium Carbon Steel – contains 0.6% carbon and manganese. It is much stronger than low carbon steel.
  • High Carbon Steel – contains more than 0.6% (up to 1.5%) of carbon. This is the strongest of the three but hard to work with.

Alloy Steel

Alloy steel is a mixture of several elements, for example – manganese, silicon, nickel, titanium, copper, chromium, and aluminum. These components are included in different proportions in the steel to control its properties such as hardenability, corrosion resistance, strength, formability, weldability, or ductility. This steel is relatively cheaper and is extensively used in mechanical applications, auto parts, generators, pipelines, etc.

Stainless Steel

Stainless steel is most renowned for its corrosion-resistant property (200 times more resistant than mild steel). It is also extremely strong and has the ability to withstand very high temperatures.Due to these excellent characteristics, this shiny alloy is used in a plethora of applications such as making appliances, equipment, and utensils. Generally, stainless steel contains 10 to 20% chromium as the key alloying element with a low amount of carbon.With more than 100 grades, this category of steel is the most versatile of all and can be easily customized as per your particular requirements. According to their crystalline structure, stainless steels are divided into the following groups:

  • Austenitic – The composition of austenitic steels is usually 18% chromium, 8% nickel, and less than 0.8% carbon. It does not possess any magnetic properties and is not heat-treatable. Austenitic steel is a huge part of the global steel industry and is used in various applications, including the manufacture of kitchen equipment and machinery.
  • Ferritic – Ferritic steels are comparatively easier to work with. While they cannot be hardened by using heat treatment, their strength can be increased with the help of cold working. They are mainly composed of small amounts of nickel, 12 to 17 % of chromium, around 0.1% of carbon, and other alloying components like molybdenum, aluminum, or titanium.
  • Martensitic – Containing about 11 to 17% chromium, less than 0.4% nickel, and 1.2 % carbon, martensitic steels are magnetic in nature and can be heat-treated. They are typically used in making knives, cutting tools, and medical equipment.

Tool Steels

As the name suggests, this carbon alloy steel is well-suited to make cutting and drilling tools. The key properties of this material include hardness, wear resistance, toughness, and resistance to softening at elevated temperatures.Tool steels are mainly made up of carbide-forming elements like tungsten, molybdenum, and vanadium in varying proportions. They also consist of cobalt and nickel that enhance their heat-resistant property and strength. Moreover, they are typically heat-treated to increase the hardness and used for stamping, shearing, and forming of plastics.Connect with us at Sunflag Steel to procure the best quality of steel for your requirements. Our experts will be happy to help you select the right products that are durable and last for a lifetime!

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Difference between Steel bar and steel rebar

Difference between Steel bar and steel rebar

Steel has been a crucial part of the construction industry for a very long time. It is not surprising considering how versatile steel is as a metal and in strength. It can be used to make different types of products. Along with this, with the increasing amount of pressure that exists on creating products that are more sustainable, given the situation of environmental decay, steel becomes all the more prominent. Steel is a sustainable metal because there are ways to produce it efficiently, with a minimum amount of damage to the environment. Along with this, steel also has the ability to be recycled indefinitely without it losing out on the properties of steel. For these reasons, steel has been an important player within the construction industry. However, these days reinforced steel or rebar has been gaining an increasing amount of popularity. The increasing cost of steel is one of the reasons for this shift away from one of the most popular metals in constructions. The modern infrastructure and community that has been created, no longer requires steel as much. The reliance on metals such as steel, aluminum and iron has reduced. Steel rebar has come a long way from when it was first designed and now, it has become an increasingly popular choice within a lot of industries.Reinforced steel or steel rebar is better than steel in a lot of ways. Given the additional elements in it, there is a lot it can do and withstand, which is better compared to steel. For instance, it is non-corrosive. Steel rebar, unlike steel, can last up to a hundred years without losing its molecular integrity. It has the ability to withstand chemical attacks and moisture, which don’t have any impact on it. This is an important distinction to draw when compared to since moisture easily reacts with steel to cause rust.Reinforced steel is also lighter than regular steel. This is especially important these days since light-weight and more efficient products are what dominate the market. Steel rebar is 1/4th the weight of regular steel, which helps because it eases contractors’ abilities to deliver their projects on time. Because of its light weight, workers can transport the product more easily and engineers are able to install it much more easily than they would with regular steel.Compared to a lot of other metals and also regular steel, reinforced steel has higher flexural strength. This implies that the maximum bending strength that reinforced steel has is higher than regular steel. This obviously makes it the more preferable option when it comes to making a choice between steel rebar and regular steel. Further, its rebar steel is non-conductive and thermally insulating. It also, along with this has improved tensile strength, all of it which makes it a lot more ideal for working with concrete as opposed to using regular steel.Making use of reinforced steel as compared to regular steel also means lower costs for all projects. They reduce the cost of the workforce, decrease installation charges and reduce the need for maintenance (and therefore the amount spent on it). Reinforced steel also has the ability to outlive regular steel, which makes it a much better option in long term projects. Reinforced steel is also a lot more transparent to radio waves and other emission when compared to regular steel. In today’s day and age especially, this is a pertinent factor to consider when making a choice of buildings. All work spaces require buildings which can have easy transmissions and therefore better connectivity. This therefore, also makes reinforced steel a more ideal choice for such office buildings, when compared to regular steel. It also has a much higher threshold of bearing high impacts. This makes it extremely helpful when unloading material. This is because damage to the reinforced steel is much lower than damage to regular steel, even when the same kind of load is being shared by both metals.Reinforces steel also has a climate wise advantage over regular steel. Reinforced steel is much more durable and reliable in harsher climates. In fact, it works as a good option for varying climate spaces, unlike regular steel which has a lower threshold to harsher climate. At Sunflag Steel, we provide you with the best quality products that are durable and sturdy in the long run.

Reuse and Recycle:

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Product Sustainability – Life Cycle of Steel

life cycle of steel

With the world we are heading towards, in terms of global warming and environmental concerns, it is high time that we start thinking of more sustainable options in our everyday life. We have reached a stage where there is a dire need for sustainability to better our tomorrow. As we make a shift from the products that we use on a daily basis, based on how sustainable they are, steel plays an important role. Steel is one of most heavily recycled materials in the world and it can be recycled almost indefinitely without losing any of its properties. Here is the life cycle of steel to understand how it works as a sustainable metal.

  • Responsibly getting raw materials. The first step in the production of steel is getting hold of the raw material in a manner that is sustainable and responsible, therefore causing the least amount of damage to the environment.
  • The second step is the efficient production of steel. The next important step within the life cycle of steel is to actually produce the steel from the raw materials, effectively and efficiently. There are two different ways through which this product can be done. Other through iron-ore based production in blast furnaces, or scrap-based production. It is within the space of iron-ore based productions that companies have the opportunity to improve and be more environmentally effective. Technology in the iron-ore based production of steel needs to be constantly improved to reduce the amount of carbon dioxide emissions.
  • The next step in the production of steel is obviously the use of the same. Steel is a commonly used metal and is extremely strong. It has multiple uses, a lot of which we are aware of the everyday products that we use. These range from the body of cars to the utensils in our household. It is crucial here that energy-efficient methods are used during the manufacture of steel-based products.
  • Once the steel has been used, there is the recirculation of residual steep production. Wherever possible, residuals from steel making are recirculated, in a manner wherein they substitute virgin raw materials. Most of the dust created in the process of making steel is reused for the same process. This leads to a decrease in the amount of waste being produced.
  • Finally, the final products which were made, once they run their course, can be recycled multiple times, without loss of original properties.

Reuse and Recycle:

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Steel is the future of Sustainable Construction

Steel is the future of sustainable construction

With climate change accelerating, every industry is trying their best to pace themselves and move towards sustainable procedures. Constructions are rising rapidly around the world which makes it all the more important to consider sustainable materials and processes along the way. These decisions need to fall in line with building robust structures that sustain themselves in the long run. Steel checks all the boxes of being a secure raw material and a greener alternative.

Reuse and Recycle:

Steel is one of the few materials on earth that can’t just be ‘upcycled’ once but ‘multicycled’ over and over again. This eminent element does not lose its quality overtime with use making it suitable for multiple usage. Likewise, it is significantly used in industries that support sustainability – including energy-efficient infrastructure, low-carbon transport services amongst others. Luckily for most builders and the earth, steel is not just recyclable but also reusable. Leftovers as well as previously used steel materials can be reused for bridge constructions, wall structures, residential building elements, etc. Unlike non-renewable resources that get spent quickly in the construction business, steel is available in abundance on earth – making it a sensible choice over other materials for a better future.

Durability and Safety:

One of steel’s terrific qualities lies in its durability. This structural component is easily stronger than most items used in this business. The sheer strength of steel helps in building durable structures that last long and are less susceptible to damages and demolitions. This, in turn, helps in reducing wastage through the process leaving more land spaces, longer product-life cycles and healthier air for people and businesses.Adding on to this, steel is not prone to any moisture or humidity damage making it a significant contributor in any property. Due to this very trait, structures created out of steel are less likely to cause health and well-being risks – something that most organisations and contractors pay detailed attention to. It also allows for creating better foundations and anatomies for high-rise complexes.

Carbon efficient:

Reduced carbon emissions is not just the need of the hour but also a quality that most industries and trades are trying to embed in their systems. Steel production is one of the few industries that has achieved this by reducing overall emissions as well as greenhouse gases. Coming from a carbon-hungry background, steel manufacturers and traders have recently learned to reduce their carbon footprint by making a number of changes including better management systems, superior filtration systems and alternatives to blast furnace systems amongst other things. Using newer technologies like these to reduce carbon emissions may also lead to other benefits. If used correctly, some up and coming machineries and their mechanics may help in cutting down the effect and pollution of other harmful gases that are released during steel production and making.

Sunflag Steel and Future Projects:

We at Sunflag Steel understand and believe in the importance of a greener future. This constantly drives us to become a steel provider that helps our clients and our environment alike. Our mission lies in achieving “sustainable growth and return on investment” for our clients through continually boosting our technologies and improving our human resources. Sunflag Steel uses state-of-the-art equipments in research and developmental labs to consistently assist in all production facilities – which leads us in going about our business in an environmentally efficient manner without leaving a notable carbon footprint.

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