• Stainless Steel Angles Equal Shape System 1
  • Stainless Steel Angles Equal Shape System 2
  • Stainless Steel Angles Equal Shape System 3
Stainless Steel Angles Equal Shape

Stainless Steel Angles Equal Shape

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Loading Port:
China Main Port
Payment Terms:
TT or LC
Min Order Qty:
1 Ton m.t.
Supply Capability:
2000 Tons Per Month m.t./month

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Stainless Steel Angles  

 

 

1.Grade: SS200,300,400 series

 

2.Size: 25×25×3 mm-100×100×10mm

 

3.Process: HRAP

 

4. Length: 2-6m

 

5. Shape: Equal

 

6. Delivery: within 20 days

 

7. MOQ: 1 ton

 

8. Certificate: ISO 9001:2008, SGS

 

9. Package:Standard Export Packing, or put into wooden boxes according to your  

  requirement

 

10. Application: Construction, Marine, Industry and so on 

 

Name

Stainless Steel Angles

Standard

ASTM A554, A312, A249, A269 and A270

Material Grade

304,316,201,202, 316L,430

Length

6m or as customers' request

 

Tolerance

a) thickness: +/-0. 15mm 

 

b) Length:+/-4. 5mm - 0mm 

Surface

180G, 320G, 400G Satin / Hairline(Matt Finish, Brush, Dull Finish)

400G, 500G, 600G or 800G Mirror finish

Application

Decoration construction, upholstery, industry instruments

Test

Squash test, Extended test, Water pressure test, Crystal rot test, Heat treatment, NDT

 

Chemical Composition 

of Material

 

Composition

 

   Material

201

202

304

316L

430

C

≤0.15

≤0.15

≤0.08

≤0.08

≤0.12

Si

≤1.00

≤1.00

≤1.00

≤1.00

≤1.00

Mn

5.5-7.5

7.5-10

≤2.00

≤2.00

≤1.00

P

≤0.06

≤0.06

≤0.045

≤0.045

≤0.040

S

≤0.03

≤0.03

≤0.030

≤0.030

≤0.030

Cr

16-18

17-19

18-20

16-18

16-18

Ni

3.5-5.5

4-6

8-10.5

10-14

 

Mo

 

 

 

2.0-3.0

 

 

Mechanical Property

Material Item    

201

202

304

316L

Tensile Strength

≥535

≥520

≥520

≥520

Yield Strength

≥245

≥205

≥205

≥205

Extension

≥30%

≥30%

≥35%

≥35%

Hardness (HV)

<253

<253

<200

<200

Stainless Steel Angles    Stainless Steel Angles

Q:How do you determine the resistance of a stainless steel angle to bending?
Several factors must be taken into account when determining the resistance of a stainless steel angle to bending. Firstly, the material properties of stainless steel, including its yield strength and elastic modulus, are crucial in determining its resistance to bending. These properties can be obtained from material specifications or through testing. Secondly, the dimensions of the stainless steel angle, such as its length, width, and thickness, play a significant role in assessing its resistance to bending. Generally, a larger and thicker angle will have a higher resistance to bending compared to a smaller and thinner angle. Moreover, the shape and orientation of the angle also impact its resistance to bending. A flat angle will typically resist bending more effectively than an angled or curved one. Lastly, the applied load or force that causes the bending must be considered. The magnitude and direction of the load, as well as the point of application, can greatly influence the bending resistance of the stainless steel angle. Engineers often use mathematical formulas or computer simulations to calculate the stress and strain distribution in the stainless steel angle when determining its resistance to bending. These calculations are based on the material properties, dimensions, and applied load. In practical applications, testing methods such as bending tests or finite element analysis can also be used to evaluate the resistance of a stainless steel angle to bending. These tests provide valuable information on the maximum load that the angle can bear before experiencing permanent deformation or failure.
Q:What are the different types of stainless steel angles connections used in industrial applications?
Industrial applications commonly utilize various types of stainless steel angle connections to provide strength and stability to structures and equipment. The following are examples of different stainless steel angle connections commonly used: 1. Welded Connections: The most frequently employed connection type in industrial settings involves welding the ends of two stainless steel angles together to create a durable and secure joint. Welded connections are renowned for their exceptional strength and longevity. 2. Bolted Connections: Bolts and nuts are used to connect stainless steel angles in this connection type. Bolted connections are relatively easy to assemble and disassemble, making them suitable for applications that require frequent adjustments or modifications. 3. Riveted Connections: Rivets are another commonly used connection type in industrial applications. In this method, stainless steel angles are joined using rivets inserted through pre-drilled holes, which are then hammered or pressed to secure the joint. Riveted connections offer excellent strength and resistance to vibrations. 4. Adhesive Connections: Adhesive connections involve using adhesives or epoxy to bond the ends of stainless steel angles together. This connection type is often chosen for applications where aesthetics are important, as it provides a seamless and clean appearance. Adhesive connections also offer superior corrosion resistance. 5. Mechanical Connections: Mechanical connections rely on mechanical fasteners such as screws, clips, or clamps to join stainless steel angles. These connections are simple to install and disassemble, making them ideal for applications that require frequent maintenance or repairs. Each type of stainless steel angle connection has its own advantages and disadvantages, and the choice of connection depends on the specific requirements of the industrial application. Factors such as load-bearing capacity, resistance to corrosion, ease of assembly, and maintenance should be taken into account when selecting the appropriate connection type for a particular application.
Q:What is the composition of stainless steel angles?
Stainless steel angles are composed primarily of iron, along with varying amounts of chromium, nickel, and other elements. The exact composition may vary depending on the specific grade of stainless steel being used. The addition of chromium to the steel alloy provides corrosion resistance, while nickel enhances the strength and durability. Other elements such as carbon, manganese, and molybdenum may also be present in smaller quantities to further improve the strength and performance of stainless steel angles. Overall, the composition of stainless steel angles is carefully balanced to offer a combination of strength, corrosion resistance, and other desirable properties for various applications.
Q:How do stainless steel angles contribute to structural rigidity?
The unique properties and design of stainless steel angles are vital in enhancing structural rigidity. Firstly, stainless steel is widely recognized for its exceptional strength and durability. It is composed of a chromium alloy that forms a protective layer on the surface, preventing corrosion and rust. This corrosion resistance ensures that the angles maintain their structural integrity in harsh environments, making them ideal for various applications. Secondly, stainless steel angles possess a high tensile strength, enabling them to withstand substantial pressure and tension without deforming or breaking. This property allows them to provide excellent support and stability in structural frameworks, preventing any undesirable flexing or bending. Moreover, stainless steel angles are engineered with a right angle shape, maximizing their load-bearing capacity. The perpendicular legs distribute weight evenly, ensuring a uniform transfer of forces within the structure. This balanced distribution minimizes the risk of localized stress concentration, which could lead to structural failure. Furthermore, stainless steel angles are easily welded, bolted, or fastened together, allowing for versatile and efficient construction. This flexibility in joining methods ensures seamless integration into various structural designs, further enhancing rigidity. Additionally, stainless steel angles exhibit high resistance to temperature fluctuations, making them suitable for both hot and cold environments. They do not significantly expand or contract under extreme temperature changes, ensuring dimensional stability and preventing potential structural distortions. In conclusion, stainless steel angles contribute to structural rigidity by providing exceptional strength, corrosion resistance, high load-bearing capacity, and dimensional stability. Their unique properties and design make them a reliable and effective choice for reinforcing structural frameworks in numerous applications, ranging from construction and infrastructure projects to industrial equipment and machinery.
Q:Are stainless steel angles available with holes for easy installation?
Yes, stainless steel angles are available with pre-drilled holes for easy installation.
Q:What are the UV resistance properties of stainless steel angle?
Due to its composition and surface finish, stainless steel angle exhibits exceptional resistance to UV rays. The presence of chromium in stainless steel leads to the formation of a protective oxide layer when exposed to oxygen. This oxide layer acts as a shield against UV radiation, preventing the steel from corroding or deteriorating when subjected to prolonged sunlight exposure. Moreover, stainless steel angle often features a polished or brushed surface finish, which further enhances its ability to resist UV rays. The smooth surface reduces the likelihood of dirt, dust, or other particles accumulating on the steel, thus minimizing any potential impact on its UV resistance. The UV resistance of stainless steel angle is particularly significant in outdoor applications or environments with high levels of sunlight exposure. This property ensures that the material remains durable, long-lasting, and visually appealing over time, as it is able to withstand the damaging effects of UV radiation.
Q:How do you calculate the moment of inertia of a stainless steel angle?
The moment of inertia of a stainless steel angle can be calculated using the formula for the moment of inertia of a beam or a structural shape. The moment of inertia is a measure of an object's resistance to changes in rotational motion around a particular axis. To calculate the moment of inertia of a stainless steel angle, you need to know the dimensions and shape of the angle. The formula for the moment of inertia of a beam is given by: I = (b * h^3) / 12 Where: I represents the moment of inertia b represents the base width of the angle h represents the height or vertical dimension of the angle By plugging in the values for the base width and height of the stainless steel angle into this formula, you can calculate its moment of inertia. It is important to ensure that the dimensions used in the calculation are consistent with the units being used (e.g., inches or centimeters). It is worth noting that the moment of inertia calculation assumes that the stainless steel angle is a solid, homogeneous object with a uniform distribution of mass. If the angle has cutouts, holes, or variations in thickness, the calculation may need to be modified accordingly. Additionally, if the stainless steel angle is not a simple L-shape but has additional flanges or curved sections, the moment of inertia calculation may be more complex and require additional formulas or techniques. In such cases, consulting relevant engineering references or seeking expert advice would be recommended.
Q:Can stainless steel angle be used in solar energy applications?
Stainless steel angle is indeed suitable for solar energy applications. Its durability, resistance to corrosion, and ability to withstand harsh weather conditions make it a popular choice in this field. It is commonly utilized in the construction of solar panel frames, mounting systems, and support structures. The strength and rigidity of stainless steel angle make it perfect for bearing the weight of solar panels and ensuring the stability of the entire system. Moreover, stainless steel's low thermal expansion and contraction contribute to the long-term stability of the solar energy system. All in all, stainless steel angle is a dependable and durable material for solar energy applications.
Q:How do you calculate the bending resistance for torsion of a stainless steel angle?
To determine the bending resistance for torsion of a stainless steel angle, several factors must be taken into consideration. Firstly, the moment of inertia of the angle needs to be calculated. The moment of inertia measures the object's resistance to changes in its rotational motion. In the case of an angle, the moment of inertia can be determined using the formula I = (b * h^3) / 12, where b represents the width of the angle and h represents the height of the angle. Subsequently, the modulus of elasticity for stainless steel needs to be computed. The modulus of elasticity is a measure of the material's stiffness and is represented by the symbol E. The value of E for stainless steel can be obtained from material property data or handbooks. Once the moment of inertia and modulus of elasticity have been obtained, the bending resistance for torsion can be calculated using the formula R = (E * I) / L, where R denotes the bending resistance, E signifies the modulus of elasticity, I represents the moment of inertia, and L stands for the length of the angle. It should be noted that this calculation assumes the stainless steel angle is solely subjected to pure torsion and is devoid of any additional loads or constraints. Moreover, it is always advisable to consult relevant engineering codes, standards, or guidelines for more precise and specific calculations based on the design requirements and the particular properties of the stainless steel being utilized.
Q:What is the tolerance for stainless steel angles?
The tolerance for stainless steel angles refers to the allowable deviation or variation in the dimensions of the angles. Tolerances are specified in order to ensure that the angles meet the required standards and can be used effectively in various applications. The tolerance for stainless steel angles typically depends on the specific dimensions and specifications of the angles. Common tolerances for stainless steel angles may include variations in length, width, thickness, and straightness. These tolerances are often expressed in terms of a range or a maximum allowable deviation. The tolerance for stainless steel angles can vary depending on the industry standards, the intended use of the angles, and the specific manufacturing processes used. It is important to consult the relevant industry standards or specifications to determine the specific tolerance requirements for stainless steel angles in a particular application. In general, stainless steel angles are manufactured to meet tight tolerances in order to ensure their dimensional accuracy and structural integrity. This allows for proper fit and alignment in construction, manufacturing, and other applications where precision is crucial. It is worth noting that the tolerance for stainless steel angles can also be influenced by factors such as the grade of stainless steel used, the manufacturing method employed, and any additional fabrication processes. Therefore, it is important to consider these factors when determining the tolerance requirements for stainless steel angles in a specific application.
Founded in 1990 and after more than ten years of expansion, our company has grown into a large modern manufacturer that integrates manufacture, production and marketing of stainless steel seamless steel pipes, with an area of 30000 square meters, register

1. Manufacturer Overview

Location Zhejiang, China
Year Established 2010
Annual Output Value above US$16 million
Main Markets East Asia, Middle East.
Company Certifications

2. Manufacturer Certificates

a) Certification Name  
Range  
Reference  
Validity Period  

3. Manufacturer Capability

a)Trade Capacity  
Nearest Port Shanghai
Export Percentage
No.of Employees in Trade Department above 10 people
Language Spoken: English, Chinese
b)Factory Information  
Factory Size: about 30000 square meter
No. of Production Lines above 7
Contract Manufacturing OEM Service Offered
Product Price Range Average

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