BOR-USA manufactures and supplies custom solar aluminum profiles and aluminum extrusion solutions for photovoltaic mounting systems, solar module frames, solar racking, energy infrastructure, equipment supports and renewable energy applications across the United States. For solar manufacturers, EPC contractors, racking companies and OEM buyers, aluminum extrusion provides repeatable geometry, low structural mass, corrosion resistance and design flexibility.

The correct solar aluminum extrusion is not selected by alloy or weight alone. Profile geometry, section depth, wall thickness, temper, dimensional tolerance, surface finish, fabrication, environmental exposure, connection design and annual production volume all affect structural performance and total delivered cost.

Renewable energy aluminum profiles are extruded aluminum components engineered for solar mounting rails, PV module frames, support structures, tracker components, equipment supports and other renewable energy systems. A custom extrusion can integrate mounting channels, fastening interfaces, reinforcement ribs and cable-management features into one repeatable component.

What Are Renewable Energy Aluminum Profiles?

Renewable energy aluminum profiles are extruded aluminum sections designed for structural, mounting, framing, equipment-support or integration functions within renewable energy systems. In photovoltaic applications, these profiles can replace multiple fabricated components with a continuous section incorporating channels, ribs, fastening interfaces and mounting surfaces.

The primary engineering advantage is geometric integration. A correctly designed extrusion can reduce brackets, welding, drilling and assembly operations while maintaining consistent dimensions across repeat production runs.

For photovoltaic projects, PV aluminum profiles can be used for module frames, solar mounting rails, ground-mounted structures, rooftop mounting systems, tracker components, equipment supports and cable-management systems.

Engineering Insight: The most efficient solar extrusion is not necessarily the lightest profile. The better design balances structural stiffness, section geometry, manufacturability, corrosion exposure, fabrication requirements and delivered component cost.

Solar Aluminum Profiles for PV Mounting Systems

Solar mounting aluminum profiles are structural extrusion components used to connect photovoltaic modules to rooftop, ground-mounted and other support structures. Their cross-section must accommodate the selected clamps, fasteners, module dimensions, span requirements and installation method.

Typical applications include:

• Solar mounting rails
• PV module support profiles
• Solar racking components
• Ground-mounted structural sections
• Rooftop mounting components
• Solar tracker support components
• Module frame sections
• Cable-management channels
• Equipment support profiles
• Solar carport structural components

The extrusion should be evaluated against the actual project load case. Wind uplift, snow load, unsupported span, connection spacing, module configuration and profile orientation can materially change the required section geometry.

The U.S. Department of Energy notes that PV arrays require mounting structures capable of supporting the array while withstanding environmental loads such as wind, rain, hail and corrosion over long operating periods. Solar PV system design guidance from the U.S. Department of Energy provides additional background on photovoltaic mounting structures.

Solar Panel Aluminum Frames and PV Module Profile Design

Aluminum solar panel frames perform a different function from mounting rails. The frame surrounds and supports the photovoltaic module and must interface accurately with glass, seals, corner connections and mounting hardware.

Solar frame extrusion therefore requires attention to dimensional repeatability, visible surface quality, corner compatibility, wall thickness and cut-length control. A profile can be structurally adequate but still create assembly problems if its interface geometry does not match the module or corner hardware.

For OEM photovoltaic manufacturers, this makes custom solar aluminum extrusion particularly useful. The profile can be developed around the actual module interface instead of forcing the application into an unsuitable standard section.

BOR-USA’s broader aluminum extrusion portfolio supports both standard and special-design profiles for solar and multiple industrial applications. Its extrusion operation produces profiles in different alloys and sizes up to 12 meters, with dimensional control according to EN 755 and EN 12020.

6063 vs. 6061 Aluminum for Renewable Energy Extrusions

Alloy selection should follow the mechanical and manufacturing requirements of the application. 6063 aluminum extrusion is commonly selected where extrusion characteristics, surface quality and appearance are important. 6061 aluminum extrusion is generally considered when higher structural performance and machinability are primary requirements.

Alloy / Temper	Typical Engineering Position	Potential Renewable Energy Application	Primary Selection Factor
6063-T5	Excellent extrusion and finishing characteristics	Solar frames, visible profiles and mounting components	Surface quality and geometry
6061-T6	Higher structural performance	Heavy-duty supports and structural components	Strength and machinability
Project-Specific Alloy	Application dependent	Specialized OEM renewable energy components	Engineering specification

BOR-USA’s aluminum extrusion documentation identifies 6061-T6 for structural applications and 6063-T5 for architectural and appearance-sensitive applications. The company also lists multiple additional aluminum alloys within its production capabilities, allowing material selection to be matched to the project rather than restricted to a single standard alloy.

Material Selection Rule: Do not specify 6061 or 6063 simply because it is a common solar alloy. Define the load case, required finish, extrusion geometry and fabrication process first, then select the alloy and temper.

Why Solar Profile Geometry Matters More Than Weight Alone

A common purchasing shortcut is to compare solar aluminum profiles according to weight per foot or weight per meter. Material weight is important for material cost and logistics, but it does not independently determine structural efficiency.

For structural solar components, engineers should evaluate section depth, wall thickness, moment of inertia, section modulus, unsupported span, loading direction and connection geometry. Two profiles manufactured from the same alloy can therefore have significantly different stiffness and deflection characteristics.

This distinction is particularly important for long mounting rails. Reducing material without considering section geometry can increase deflection and require additional supports, brackets or reinforcement.

The engineering objective should therefore be minimum functional mass rather than minimum mass in isolation.

Design Variable	Why It Matters	Potential Cost Impact
Section depth	Influences stiffness and load resistance	Can reduce reinforcement requirements
Wall thickness	Affects weight, strength and extrusion feasibility	Directly affects material consumption
Internal ribs	Can improve structural efficiency	May reduce secondary reinforcement
Mounting channels	Integrate fastening interfaces	Can reduce brackets and assembly labor
Tolerance	Controls mating and assembly accuracy	Over-tight tolerances can increase cost

Surface Finishes for Solar Aluminum Extrusion Profiles

Outdoor renewable energy systems expose aluminum profiles to sunlight, moisture, temperature cycling and environmental contaminants. Surface treatment should therefore be selected according to operating environment, appearance requirements, corrosion exposure and expected service conditions.

Surface Finish	Typical Use	Primary Consideration
Mill Finish	Industrial components and further fabrication	Lowest finishing complexity
Clear Anodized	Solar frames and visible outdoor components	Surface durability and appearance
Black Anodized	Visible solar and architectural components	Appearance and surface consistency
Powder Coated	Architectural and specialized energy applications	Color and coating specification

For projects requiring anodized components, BOR-USA also maintains a dedicated anodized aluminum profile category for evaluating surface-finished extrusion options.

BOR-USA’s production information also identifies electrostatic powder coating capability for aluminum profiles up to 11 meters, with RAL colors and customer-specific color requirements available through its finishing operation.

Solar Extrusions for Rooftop, Ground-Mount and Utility-Scale Systems

The appropriate solar extrusion profile changes according to the installation architecture. Rooftop systems often prioritize low mass, installation efficiency and compatibility with existing building structures. Ground-mounted and utility-scale systems can place greater emphasis on span, connection loads, structural stiffness and repeat production.

Solar Application	Typical Profile Requirement	Primary Engineering Concern
Rooftop PV	Lightweight mounting profiles	Building load and installation efficiency
Ground-Mounted PV	Structural rails and supports	Span, wind and connection loads
Utility-Scale Solar	Repeatable high-volume extrusions	Production consistency and TCO
Solar Trackers	Structural and moving-system components	Load cycles, connection geometry and alignment
Solar Carports	Structural and architectural profiles	Combined structural and appearance requirements
Solar Equipment Systems	Custom support and enclosure profiles	Equipment integration

For projects requiring structural framing beyond the renewable energy application itself, BOR-USA’s aluminum construction profiles can also be evaluated according to project load and assembly requirements.

Solar Tracker and Utility-Scale Aluminum Profile Requirements

Utility-scale photovoltaic projects introduce additional requirements because the same extrusion may be produced and installed in large quantities. Dimensional consistency, connection repeatability, surface finish, packaging and secondary fabrication can become as important as the initial extrusion price.

Solar tracker systems can also introduce additional mechanical considerations because moving structures require consistent interfaces, alignment and repeated load-cycle performance. Profile geometry should therefore be reviewed together with the tracker architecture rather than specified independently.

NREL’s utility-scale PV analysis uses one-axis tracking systems as a representative technology for utility-scale projects, illustrating why tracker-related structural components are an important part of the modern solar supply chain.

Custom Extrusion Geometry Can Reduce Secondary Fabrication

A custom extrusion can integrate functions that would otherwise require separate brackets, plates or machined components. Cable paths, fastening channels, reinforcement ribs, mounting interfaces and protective edges can sometimes be incorporated directly into the die geometry.

This can reduce drilling, welding, bracket installation and assembly labor. However, excessive profile complexity can increase tooling difficulty, material consumption and finishing requirements.

The correct objective is therefore functional integration without unnecessary geometric complexity. For high-volume solar components, even a small reduction in downstream operations can materially affect total production cost.

Integrated Feature	Potentially Replaced Operation	Potential B2B Benefit
Fastening channel	Additional bracket or drilling	Faster assembly
Reinforcement rib	Separate reinforcement component	Fewer components
Cable-management path	External cable support	Cleaner system integration
Mounting interface	Secondary fabricated plate	Reduced fabrication
Protective edge	Separate edge component	Reduced assembly steps

Technical Parameters Buyers Should Define Before Ordering Solar Profiles

Parameter	Recommended Specification	Why It Matters
Alloy	6063, 6061 or project-specific alloy	Controls mechanical and finishing characteristics
Temper	T5, T6 or specified condition	Affects mechanical performance
Profile Geometry	2D drawing or 3D CAD section	Determines structural and functional behavior
Wall Thickness	Specified in mm or inch	Influences weight, strength and extrusion feasibility
Dimensional Tolerance	Application-specific	Determines assembly compatibility
Surface Finish	Mill, anodized or powder coated	Controls appearance and environmental performance
Cut Length	Required stock or finished length	Influences logistics and fabrication cost
Fabrication	Cutting, drilling, tapping or CNC machining	Determines assembly readiness
Production Volume	Pieces, linear feet or weight	Affects tooling and unit economics
Packaging	Project-specific packaging requirements	Protects finished profiles during logistics

BOR-USA states that extrusion production can accommodate different alloys and profile sizes up to 12 meters, with dimensional control according to EN 755 and EN 12020. The applicable tolerance should still be established from the actual drawing and assembly requirement.

What Information Should Be Included in a Solar Aluminum Extrusion RFQ?

A complete aluminum extrusion RFQ allows a manufacturer to evaluate die feasibility, material requirements, fabrication, finishing, production volume and logistics before issuing a quotation.

RFQ Information	Recommended Detail
Drawing	2D section drawing or 3D CAD file
Material	Alloy and temper
Dimensions	Critical dimensions and tolerances
Length	Stock and finished cut length
Finish	Mill, anodized or powder coated
Fabrication	Cutting, drilling, tapping, CNC or assembly
Volume	Initial order and annual demand
Application	Solar frame, mounting rail, tracker, support or OEM component
Environment	Outdoor, coastal, high-temperature or other exposure
Packaging	Bundle, protective film or project-specific requirements

For proprietary solar components, the profile drawing and annual volume are particularly important because tooling economics depend heavily on geometry and production quantity.

Professional Tips and Common Mistakes in Solar Extrusion Selection

Choosing a profile by outside dimensions only

A nominal dimension such as 40 × 40 mm does not adequately define a structural extrusion. Wall thickness, internal geometry, alloy, temper and connection method can materially change performance.

Choosing the alloy before defining the load case

Material selection should follow the application. Selecting a high-strength alloy without evaluating geometry, load direction and fabrication requirements can increase cost without improving the final system proportionally.

Using unnecessarily tight tolerances

Tighter tolerances can increase manufacturing complexity and cost. Critical mating dimensions should receive the required tolerance, while non-functional dimensions should not automatically be treated as precision features.

Ignoring secondary fabrication

Cutting, drilling, punching, tapping and CNC machining can represent a significant portion of finished component cost. Including these operations in the initial RFQ produces a more accurate B2B cost comparison.

Ignoring environmental exposure

Solar profiles installed outdoors require consideration of moisture, UV exposure, temperature cycling and, in coastal locations, salt-laden environments. Alloy and finish should be selected accordingly.

Comparing suppliers only by aluminum price

A lower material price does not automatically produce a lower project cost. Tooling, scrap, machining, finishing, packaging, assembly and logistics can materially change the final delivered component cost.

Procurement Insight: For high-volume solar components, compare suppliers using delivered usable-component cost and total cost of ownership, not extrusion price per pound alone.

Installation, Fabrication and Engineering Process for Solar Aluminum Extrusions

1. Define the solar application and operating environment.
2. Identify structural loads, span and connection conditions.
3. Select the appropriate profile family.
4. Determine alloy and temper requirements.
5. Prepare the extrusion section drawing or CAD model.
6. Review profile geometry for manufacturability.
7. Determine whether a standard profile can satisfy the application.
8. Develop a custom extrusion die when the required geometry is proprietary or unavailable.
9. Specify surface finish, cut length and secondary fabrication.
10. Validate production samples against the approved drawing.
11. Release the final production specification for repeat manufacturing.

For projects requiring custom profile development, BOR-USA’s aluminum extrusion manufacturing capability can support the transition from engineering requirements to production-ready extrusion geometry.

Which Aluminum Profile Should You Specify for a Renewable Energy Project?

Project Requirement	Recommended Profile Direction	Key Decision Factor	Potential Risk
Solar module frame	6063-based custom frame profile	Module interface and dimensional repeatability	Poor fit with glazing or clamps
Rooftop mounting	Lightweight structural extrusion	Mass and connection geometry	Excessive roof loading
Ground-mounted solar	Structural or custom extrusion	Span, section modulus and wind loading	Excessive deflection
Utility-scale production	Repeatable custom extrusion	Volume economics and dimensional consistency	High downstream fabrication cost
Solar tracker component	Structural custom extrusion	Alignment and repeated loading	Connection or movement issues
Equipment support	6061-T6 structural profile	Strength and machinability	Over-specification
Visible architectural solar component	6063 architectural extrusion	Surface quality and finish	Visible surface defects

Renewable Energy Aluminum Profile Prices and B2B Cost Factors

Solar aluminum profile prices cannot be determined accurately from length or alloy alone. A B2B quotation normally depends on profile weight, geometry, tooling, order volume, surface treatment, cut length, machining, packaging and freight.

Procurement Model	Best Use Case	Main Cost Drivers	TCO Advantage
Standard Profile	Recurring general-purpose applications	Weight and finish	Lower tooling requirement
Custom Extrusion	OEM and proprietary solar components	Die, geometry and volume	Potentially lower assembly cost
Cut-to-Length	Production-ready components	Cut quantity and tolerance	Reduced internal labor
Finished Profile	Visible outdoor applications	Anodizing or powder coating	Reduced downstream processing
Fabricated Extrusion	Assembly-ready OEM components	Machining and secondary operations	Lower internal fabrication workload

For B2B buyers, aluminum extrusion price per foot or per meter should not be treated as the only procurement metric. A more useful comparison is delivered usable-component cost, including machining, scrap, assembly labor, inventory, packaging and installation.

A profile with a higher initial extrusion price can produce a lower TCO if its geometry reduces brackets, machining operations, assembly time or material waste. This becomes particularly relevant for high-volume solar components where a small per-part saving can accumulate across thousands or millions of components.

What Makes a Solar Aluminum Extrusion Supplier Competitive?

For OEM and B2B solar buyers, the best supplier is not necessarily the company offering the lowest quoted aluminum price. A technically capable supplier should be evaluated across extrusion capacity, engineering support, die development, material selection, dimensional control, finishing, secondary fabrication, production repeatability and logistics.

Supplier Capability	Why Solar Buyers Should Evaluate It
Custom die development	Allows proprietary geometry and application-specific optimization
Multiple alloy options	Supports different structural and finishing requirements
Dimensional control	Improves assembly consistency across repeat production
Surface finishing	Reduces the need for separate finishing suppliers
Cutting and machining	Moves the component closer to assembly-ready condition
High-volume production	Supports utility-scale and recurring OEM programs
Engineering review	Helps identify geometry and manufacturability issues before tooling
Logistics planning	Reduces packaging and delivery complications for long profiles

Why BOR-USA Is a Strategic Supplier for Renewable Energy Aluminum Profiles

BOR-USA approaches renewable energy extrusion as an engineering and manufacturing requirement rather than simply a commodity aluminum purchase. Its portfolio supports standard and special-design profiles, multiple alloy options, extrusion, finishing and secondary fabrication for industrial and energy-related applications.

• Custom aluminum extrusion manufacturing
• Solar and renewable energy profile solutions
• Standard and proprietary profile development
• Multiple aluminum alloy options
• Engineering-oriented profile selection
• Surface finishing options
• Cutting and secondary fabrication
• B2B production and OEM support
• Repeat manufacturing programs
• Scalable supply planning

BOR-USA’s published production information states that its billet casting operation has an annual production capacity of 40,000 tons and produces multiple aluminum alloy billet grades. Its extrusion operation supports profile production up to 12 meters, while its powder-coating facility supports aluminum profiles up to 11 meters.

For buyers evaluating an aluminum extrusion manufacturer USA, aluminum extrusion supplier USA or custom aluminum profiles USA, the relevant comparison should include engineering support, repeatability, tooling, fabrication, finish quality and total delivered cost rather than material price alone.

Who Should Buy Custom Solar Aluminum Extrusions?

BOR-USA’s renewable energy extrusion solutions are relevant to companies that need repeatable aluminum components rather than one-off fabricated parts.

• Solar mounting system manufacturers
• PV racking manufacturers
• Solar module manufacturers
• Solar tracker manufacturers
• EPC contractors
• Renewable energy equipment manufacturers
• Solar carport manufacturers
• Battery energy storage equipment manufacturers
• Industrial OEMs
• Engineering and procurement companies

The strongest fit is typically a project with a defined profile drawing, recurring production requirement, application-specific geometry or a need to reduce secondary fabrication.

Renewable Energy Aluminum Extrusion Applications Beyond Solar Panels

Although photovoltaic mounting systems are a major application, renewable energy aluminum profiles can support a broader range of energy infrastructure.

• Solar mounting structures
• PV module frames
• Solar tracker systems
• Solar carports
• Battery energy storage equipment
• Electrical equipment supports
• Monitoring equipment structures
• Cable-management systems
• Equipment housings and enclosures
• Industrial automation used in energy manufacturing

The required extrusion geometry should always be developed around the actual equipment interface, structural loading, environmental conditions and manufacturing process.

Areas and Renewable Energy Markets Served Across the United States

BOR-USA supports renewable energy, solar, industrial and OEM projects across the United States. Regional conditions can change the engineering requirements for solar extrusion components, particularly where projects face high wind, snow, heat, humidity or coastal exposure.

• California
• Texas
• Arizona
• Florida
• Nevada
• New Mexico
• North Carolina
• Georgia
• Virginia
• New York
• Colorado
• Utah
• Illinois
• Michigan
• Pennsylvania

For example, solar projects in desert regions may place greater emphasis on heat, UV exposure and dust, while coastal projects may require closer consideration of moisture, salt exposure and corrosion. The extrusion specification should therefore be connected to the actual project environment rather than selected from a generic profile list.

Result and Evaluation: Selecting the Right Solar Aluminum Extrusion for Long-Term TCO

The strongest solar aluminum extrusion specification begins with the application rather than a predefined profile. Load case, section geometry, alloy, temper, tolerance, finish, fabrication and production volume should be evaluated as one system.

For buyers searching for solar aluminum profiles, PV aluminum profiles, solar mounting profiles, solar panel frame aluminum profiles or aluminum extrusion for solar mounting systems, the critical question is not simply which profile costs less.

The more useful question is:

Which extrusion produces the required structural and functional performance at the lowest total delivered cost?

This approach creates a significant Information Gain opportunity in B2B extrusion procurement. Geometry can change stiffness without changing alloy. Integrated features can reduce assembly operations. Appropriate tolerances can reduce manufacturing cost without compromising function. Secondary fabrication can shift labor from the buyer to the extrusion supplier.

Solar Aluminum Extrusion Selection Checklist

• Define the application: rooftop, ground-mount, tracker, module frame or equipment support.
• Define wind, snow and other structural loading conditions.
• Determine unsupported span and connection spacing.
• Select the appropriate section geometry.
• Specify alloy and temper.
• Define critical dimensions and tolerances.
• Select mill, anodized or powder-coated finish.
• Determine cut lengths and packaging requirements.
• Identify drilling, tapping, punching or CNC requirements.
• Estimate initial order quantity and annual demand.
• Evaluate tooling economics for custom profiles.
• Compare suppliers using total delivered component cost.

BOR-USA Technical Note

For renewable energy extrusion procurement, do not approve a profile using nominal dimensions or weight alone. Define the load case, unsupported span, connection geometry, alloy, temper, critical tolerances and environmental exposure first. Then optimize the cross-section for manufacturability and TCO.

This sequence reduces the risk of over-designed profiles, unnecessary machining, excessive material consumption and avoidable tooling cost.

For custom solar aluminum profiles, the most useful starting documents are a 2D profile drawing, 3D CAD model, target alloy, critical tolerances, required finish, cut length and expected annual production volume.

Common Questions About Renewable Energy Aluminum Profiles

What are aluminum profiles used for in renewable energy systems?

Aluminum profiles are used for solar module frames, mounting rails, PV racking, tracker components, support structures, equipment frames, cable-management systems and custom renewable energy infrastructure.

Why is aluminum commonly used for solar mounting systems?

Aluminum combines relatively low structural mass, corrosion resistance, extrusion flexibility and repeatable geometry, making it suitable for many outdoor solar applications.

What is a solar aluminum extrusion?

A solar aluminum extrusion is an aluminum profile manufactured through extrusion and engineered for photovoltaic mounting, framing, support or equipment-integration applications.

Can BOR-USA manufacture custom solar aluminum profiles?

Yes. BOR-USA supports custom aluminum extrusion development based on project-specific drawings, geometry, alloy, tolerance, finish and production requirements.

What aluminum alloy is best for solar profiles?

There is no universal best alloy. 6063-T5 is often suitable for extrusion-friendly and appearance-sensitive components, while 6061-T6 is generally considered when higher structural performance and machinability are required.

Can 6061-T6 be used for solar mounting components?

Yes. 6061-T6 can be considered for structural solar components where strength and machinability are important. The final alloy selection should follow the actual load case and design requirements.

Are aluminum profiles suitable for utility-scale solar farms?

Yes. Aluminum extrusions can be used for mounting rails, tracker components, structural supports, equipment frames and other components in large-scale photovoltaic infrastructure, subject to project-specific engineering requirements.

Can BOR-USA produce long solar aluminum profiles?

BOR-USA states that its extrusion production can manufacture aluminum profiles up to 12 meters. Final maximum length depends on the profile design, alloy, production process and required finishing or fabrication. :contentReference[oaicite:9]{index=9}

How much do solar aluminum profiles cost?

Pricing depends on alloy, profile weight, geometry, tooling, volume, surface finish, fabrication, cut length, packaging and freight. A project-specific RFQ is required for meaningful pricing.

Can solar profiles be anodized?

Yes. Anodized finishes can be specified for suitable aluminum extrusion applications where surface durability, corrosion resistance and appearance are important.

Can BOR-USA provide powder-coated solar profiles?

Yes. BOR-USA identifies electrostatic powder coating as part of its production capabilities, including RAL colors and customer-specific color requirements for suitable aluminum profiles. :contentReference[oaicite:10]{index=10}

Can BOR-USA provide cut-to-length solar extrusion?

Yes. Cut-to-length and other secondary fabrication requirements can be incorporated into the extrusion specification so components arrive closer to their final assembly condition.

What information should a buyer provide for a custom extrusion quotation?

A complete RFQ should include a CAD or section drawing, alloy and temper, critical dimensions, tolerances, cut length, surface finish, fabrication requirements, application and expected order volume.

What is the most important factor when selecting a solar aluminum extrusion?

The most important factor is application fit. Profile geometry, loading, connection design, environmental exposure, alloy, finish, tolerance and production economics must be evaluated together.

Should solar aluminum profiles be selected by weight per foot?

No. Weight is an important cost variable, but structural efficiency also depends on section geometry, moment of inertia, section modulus, span, loading direction and connection design.

What is the advantage of a custom solar extrusion over a standard profile?

A custom extrusion can integrate mounting interfaces, ribs, channels and other functions into one profile, potentially reducing brackets, machining, assembly steps and total component cost.

Request a Custom Solar Aluminum Extrusion Quote

If you are sourcing solar aluminum profiles, PV aluminum extrusions, solar mounting rails, module frame profiles or custom renewable energy components, provide BOR-USA with the available drawing, alloy requirements, finish, cut length and expected production volume.

Request a quotation through BOR-USA and discuss the project requirements with the extrusion team. For custom profile development, review the company’s Aluminum Extrusion Services.

For the fastest technical evaluation, include your CAD drawing, annual volume, target alloy, critical tolerances and required surface finish with the RFQ.