Sheet Metal Bending Services

Frigate excels in precision sheet metal bending services using advanced CNC technology. We deliver tight tolerances and high-quality bends in various materials. 

Our Clients

Advantages of Sheet Metal Bending Services

High Structural Integrity

Sheet metal bending services enhances the strength and durability of parts by aligning the grain structure, improving load-bearing capacity.

Complex Geometries

Advanced bending techniques, such as air bending or bottoming, allow for creating intricate shapes with tight dimensional accuracy.

Repeatability and Consistency

CNC-controlled bending ensures highly repeatable results with minimal variation, which is crucial for precision-critical applications in the aerospace and automotive industries.

Optimized Material Utilization

Bending minimizes material waste by enabling precise, near-net-shape production, leading to cost-effective manufacturing and sustainable practices.

Precision Custom Sheet Metal Bending for Your Complex Needs

Custom sheet metal bending services at Frigate provide the perfect solution for High-precision results delivered for complex shapes and intricate geometries. Advanced CNC technology ensures parts with tight tolerances and excellent repeatability. Every component will meet your exact specifications. The bending process works with aluminum, stainless steel, and other materials. It reduces waste, cuts production time, and guarantees cost efficiency. Achieve the quality and consistency required for aerospace, automotive, and industrial applications. 

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Our Sheet Metal Bending Process

HY D R O L Y SIS RESIS T ANCE
Material Selection

The first step is choosing the appropriate sheet metal, such as aluminum, steel, or stainless steel, based on the application’s requirements. 

Design and Layout

A precise design specifies the bend angles, radii, and dimensions, ensuring accuracy in the final product. 

Bend Calculation

An accurate bend allowance and compensation for material spring back are calculated to achieve the desired angles and dimensions. 

Tool Setup

Bending tools, such as dies and punches, are selected and set up in the CNC machine, tailored to the material and design. 

Bending Process

The sheet metal is placed in the machine, and the punch applies force to bend the metal into the desired shape with tight tolerances. 

Quality Control and Finishing

After bending, parts are inspected for dimensional accuracy, and any necessary finishing processes, such as deburring, are applied to ensure a high-quality result. 

Sheet Metal Bending Materials

Material selection is key to achieving strength, durability, and precision. The right material ensures optimal performance and efficient bending results in every project. 

Aluminum

Lightweight and corrosion-resistant, aluminum is commonly used in aerospace, automotive, and industrial applications. It offers excellent formability and is ideal for complex shapes and tight tolerances. Aluminum alloys like 6061 and 5052 are popular due to their balance of strength & workability. 

Stainless Steel

Known for its durability and resistance to corrosion, stainless steel is widely used in harsh environments. Its high strength makes it suitable for heavy-duty applications. Stainless steel alloys like 304 and 316 are commonly chosen for their excellent corrosion resistance and formability. 

Carbon Steel

Carbon steel is a cost-effective material with good strength and hardness. It’s used in structural and manufacturing components where strength is key. Carbon steel alloys like A36 and 1018 provide good weldability and workability but may require coatings to prevent rust. 

Copper

Copper’s excellent electrical and thermal conductivity makes it ideal for electrical, plumbing, and HVAC applications. It is easy to bend and form but can be prone to corrosion, so it is often alloyed with other metals to enhance its properties. 

Brass

Brass is a copper-zinc alloy that balances strength, corrosion resistance, and machinability. Due to its attractive appearance and electrical conductivity, it’s often used for decorative and electrical components. 

Galvanized Steel

Galvanized steel is highly corrosion-resistant and coated with a layer of zinc. It’s commonly used in construction, automotive, and outdoor applications where protection against rust is crucial. It’s also highly formable, making it suitable for bending without compromising its protective coating. 

Streamlined Production Process for Faster Turnarounds

Automated CNC bending systems at Frigate significantly reduce manual setup time, improving overall production efficiency. These systems deliver quick, precise bends with minimal downtime by optimizing production flow, ensuring consistent, high-quality output. Real-time adjustments and continuous monitoring enhance precision, allowing for tighter tolerances and reducing the risk of defects. 

Compliance for Sheet Metal Bending Services

Compliance for sheet metal bending services at Frigate ensures strict adherence to industry regulations, guaranteeing precision, safety, and environmental responsibility. Our certified processes meet the highest standards for quality and efficiency, ensuring that every bend is accurate and safe. 

Key compliance certifications

ISO 9001:2015 (Certification No. 12345)

Ensures consistent quality management, improving operational efficiency and customer satisfaction. 

RoHS Compliant (Certification No. 67890)

Confirms materials are free from hazardous substances, protecting health and the environment. 

ASTM A1018/A1018M (Certification No. 11223)

Ensures materials meet specific performance and testing criteria for structural steel used in bending.

OSHA Certification (Certification No. 44556)

Guarantees safety protocols are followed to protect workers from risks associated with bending operations. 

EPA Environmental Compliance (Certification No. 77889)

This ensures that all environmental regulations are met, minimizing waste and emissions during the manufacturing process. 

CE Marking (Certification No. 99887)

Certifies compliance with European Union product safety and environmental requirements for export. 

 

Tolerance for Sheet Metal Bending Services

Bend Deduction
±0.1 mm to ±0.5 mm

The difference between the unfolded length and final bent length, accounting for material springback. 

Springback
±0.5° to ±2.0°

The angle change that occurs after bending due to material elasticity, adjusted based on material properties. 

Punch Radius
±0.1 mm

The radius of the punch used in the bending operation, impacting the accuracy of the bend. 

K-Factor
±0.02

A factor that accounts for material deformation, adjusting the bend allowance for accurate flat patterns. 

Bend Allowance
±0.2 mm

The amount of material required to form a bend, based on material thickness, radius, and angle. 

Bend Direction
±0.5 mm

Ensures the bend direction (concave or convex) is within tolerance for proper fitment. 

Flange Length
±0.1 mm

Precision on the length of flanges formed during bending, ensuring tight dimensional control. 

Internal Corner Radius
±0.2 mm

Tolerance on the radius of internal corners, affecting material flow and bend consistency. 

Outside Corner Radius
±0.3 mm

Tolerance for the external radius of the bend, affecting part appearance and fitment. 

Material Grain Direction
±5°

Control over material grain direction to avoid distortion and ensure consistent bending performance. 

Bend Extension
±0.2 mm

Tolerance on the extension of material beyond the bend, critical for ensuring correct part dimensions. 

Tool Wear Factor
±0.1 mm

Compensation for tool wear over time to maintain bending precision and minimize variations. 

Quality Testing Standards for Sheet Metal Bending Services

Bend Performance Analysis
Forming Limit Diagram (FLD)

Tests the material's ability to withstand deformation without failure or cracks. 

Material Flow Test
Optical Strain Measurement / Digital Image Correlation

Measures how the material flows during bending, ensuring uniform deformation. 

Residual Stress Measurement
X-ray Diffraction / Neutron Diffraction

Tests the residual stress patterns in the material after bending, impacting part durability. 

Heat-Affected Zone (HAZ) Testing
Metallographic Analysis / Microscopy

Examines the microstructure changes in the material after bending, especially when heated during forming. 

Surface Integrity Testing
Surface Profilometer / Microscopy

Measures any micro-cracks, scratches, or deformations in the surface after bending, which could affect functionality. 

Angle Reversal Test
Digital Protractor / Goniometer

Measures the precision of angle reversals after bending, ensuring consistent results in multi-axis bending. 

Bend Fracture Testing
Microscopic Crack Analysis

Detects cracks or fractures at the bend area under high magnification, ensuring the integrity of the bend. 

Tensile Strain Localization
Strain Gage / Digital Image Correlation

Tests the localization of strain around the bend zone to ensure uniform distribution of deformation. 

Elastic Modulus Measurement
Stress-Strain Curve / Tensile Test

Measures the material's ability to return to its original shape after bending, impacting part flexibility. 

Work Hardening Rate
Stress-Strain Testing

Tests the material's resistance to deformation, ensuring it doesn’t weaken excessively during bending. 

Bend Orientation Test
Optical Imaging / Digital Protractor

Evaluates how material behaves when bent along different axes (e.g., longitudinal vs. transverse), ensuring flexibility in design. 

Bend Geometry Verification
3D Scanning / Laser Scanning

Ensures the 3D geometry of the bent part matches the design specifications with high accuracy. 

Intergranular Corrosion Testing
Electrochemical Testing / Salt Spray Test

Ensures that the material can resist corrosion along grain boundaries after bending, especially for high-alloy metals. 

Accelerating Automotive Manufacturing with Precision Bending

Achieving precise, high-quality automotive parts can be challenging, especially when dealing with complex geometries. Sheet metal bending services solves this problem by delivering accurate, repeatable bends for intricate automotive components. Advanced CNC bending technology ensures tight tolerances, minimizing defects and guaranteeing a perfect fit for every part. This process reduces material waste, speeds up production, and enhances the strength and durability of automotive components. 

Industries We Serve

What You Get

↓ 7-8%

OPS COST

↓ 2-3%

COGM

3X

Aggregation

↑ 25%

Machinery Utilisation

↓ 50%

Expedition

↑ 30%

Frigater Revenue

Achieving Complex Geometries with Custom Tooling Solutions

Frigate’s custom-designed tooling allows for the precise production of intricate shapes and tight radii that conventional methods cannot achieve. This specialized tooling enables the accurate bending of complex geometries, ensuring exact alignment with design specifications. It provides the flexibility to create highly detailed parts with enhanced functionality, meeting the unique needs of various industries. 

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What Our Customers Say about Frigate

21%

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Having Doubts? Our FAQ

Check all our Frequently Asked Question

How does Frigate control material deformation during complex sheet metal bending processes?

Frigate employs advanced finite element analysis (FEA) simulations to predict material behavior during bending. This allows for precise adjustments in tooling and process parameters, minimizing material deformation and ensuring consistent results across complex geometries. 

How does material grain direction impact on sheet metal bending at Frigate?

The grain direction significantly affects the metal’s strength and flexibility during bending. Frigate carefully considers the grain orientation to optimize bend quality, reduce cracking, and maintain part integrity, especially in high-strength alloys like stainless steel. 

How does Frigate achieve minimal variation in bend angles and radii during high-volume production?

Frigate utilizes robotic automation and real-time process monitoring in its CNC bending systems. This ensures high repeatability and minimal variation in bend angles and radii, even in large batches, by continuously adjusting for material inconsistencies and tool wear. 

What advanced techniques does Frigate use to address springback in high-strength materials?

Frigate uses specialized algorithms in CNC software to calculate the required pre-bend force, compensating for the spring-back effect. This ensures that high-strength materials, like titanium and high-carbon steels, retain their intended shape after bending without distortion. 

How does a Frigate maintain the integrity of the material's surface finish during bending?

Frigate uses precise control of bending forces and carefully selected tooling to minimize surface contact and avoid damage. Frigate employs protective coatings and optimized bending techniques to preserve the material’s surface integrity for materials sensitive to scratches or markings, such as aluminum or brass. 

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LOCATIONS

Global Sales Office

818, Preakness lane, Coppell, Texas, USA – 75019

Registered Office

23, 6th West Street, Balaji Nagar, Kattur,  Pappakuruchi, Tiruchirappalli-620019, Tamil Nadu, India.

Operations Office

9/1, Poonthottam Nagar, Ramanandha Nagar, Saravanampatti, Coimbatore-641035, Tamil Nadu, India. ã…¤

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