Product Details
Place of Origin: Jiangyin
Brand Name: Krieit
Payment & Shipping Terms
Minimum Order Quantity: 500
Packaging Details: packed in cartons
Delivery Time: 5days
Payment Terms: D/A,D/P,T/T
Supply Ability: 1000pcs/day
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Product Name:
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EVA Protective Spacer Strip For Aluminum Profiles
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Protective Material:
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EVA
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Structure:
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Long, Flat Spacer Strip
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Surface Color:
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Black
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Layer Structure:
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Black Protective Contact Layers With A Visible White Middle Layer
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Main Application:
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Aluminum Profile Production Transfer And Fabrication
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Protection Function:
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Surface Separation And Reduction Of Direct Hard Contact
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Handling Feature:
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Lightweight And Easy To Handle
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Cost Positioning:
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Cost-effective Protection Solution
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Surface Contact:
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Low-friction Contact For Aluminum Profile Protection
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Product Name:
|
EVA Protective Spacer Strip For Aluminum Profiles
|
|
Protective Material:
|
EVA
|
|
Structure:
|
Long, Flat Spacer Strip
|
|
Surface Color:
|
Black
|
|
Layer Structure:
|
Black Protective Contact Layers With A Visible White Middle Layer
|
|
Main Application:
|
Aluminum Profile Production Transfer And Fabrication
|
|
Protection Function:
|
Surface Separation And Reduction Of Direct Hard Contact
|
|
Handling Feature:
|
Lightweight And Easy To Handle
|
|
Cost Positioning:
|
Cost-effective Protection Solution
|
|
Surface Contact:
|
Low-friction Contact For Aluminum Profile Protection
|
Aluminum profiles undergoing cutting, drilling, CNC machining, and other fabrication processes face surface-damage risks beyond the machining operation itself. Scratches often occur during loading, unloading, temporary stacking, and process-to-process transfer. When an extrusion repeatedly contacts a workbench, transfer rack, or another aluminum profile, contact pressure combined with relative movement can create rubbing marks and scratches.
An EVA Protective Spacer Strip for Aluminum Profiles creates a flexible separation interface at these contact points. Its long, lightweight structure is particularly suitable for repeated placement and removal during fabrication, temporary stacking, and workshop handling.
Fabrication introduces additional handling steps.
A typical workflow may include:
Loading → Cutting/CNC Machining → Unloading → Temporary Stacking → Transfer → Next Process
Each additional handling step creates another opportunity for the aluminum surface to contact a rigid object.
For example, a machined profile may be placed directly on a metal workbench. Several profiles waiting for the next operation may be stacked together. During transfer, small movements may cause one extrusion to rub against another.
These events may not involve severe impacts, but repeated contact can still produce visible surface damage.
For profiles that will later be anodized, electrophoretically coated, or powder coated, mechanical scratches created during fabrication may also remain relevant to final appearance.
When aluminum rests directly on a metal workbench, rack, or another extrusion, the contact interface is relatively hard.
If the profile slides during positioning:
Contact Pressure + Relative Movement = Friction Risk
Surface protection should therefore change the contact interface rather than relying only on careful manual handling.
Industrial aluminum extrusions may contain grooves, corners, thin walls, and reinforcing sections.
Their contact load is therefore not always evenly distributed. Small supporting areas can create localized contact, particularly around sensitive decorative surfaces.
Fabrication requires repeated loading and unloading. A protective spacer that is heavy or complicated to reposition may not suit this workflow.
A lightweight spacer is more practical where operators repeatedly place, remove, and reposition protection between processes.
The EVA spacer does not participate directly in cutting, drilling, or CNC machining. Its role is to protect the profile before, after, and between fabrication operations.
It changes the contact structure from:
Aluminum → Metal Workbench
to:
Aluminum → EVA Protective Spacer → Workbench
For stacked profiles:
Aluminum Profile → EVA Spacer → Aluminum Profile
The flexible EVA contact layer separates the extrusion from rigid supporting surfaces, reducing direct hard contact.
The product uses a long, flat configuration suitable for supporting long aluminum profiles. Its lightweight construction also supports frequent repositioning during workshop handling.
The current product positioning includes a low-friction contact surface. Since a tested coefficient of friction is not yet available, a specific μ value should not be claimed until verified by actual testing.
EVA spacers can support profiles waiting for machining or temporarily protect finished parts after unloading, reducing direct contact with metal workbenches and transfer racks.
Profiles often move to another workstation after cutting or drilling. Lightweight EVA spacers are suitable for these frequent handling cycles.
Long EVA strips can be positioned between profile layers to provide separation and reduce direct rubbing during temporary storage.
For profiles that will later undergo anodizing, electrophoresis, or coating, reducing mechanical scratches during fabrication helps prevent existing handling damage from being carried into downstream finishing operations.
First, identify the contact position: between the extrusion and workbench, or between stacked profile layers.
Next, confirm the profile cross-section, length, individual weight, and stacking arrangement. Long extrusions require support positions appropriate to their weight and cross-sectional rigidity.
Operating temperature should also be considered. This EVA product is positioned primarily for fabrication and routine production transfer. If the spacer must enter a significantly elevated-temperature process, another material should be evaluated.
For data-based B2B selection, useful specifications include overall width, total thickness, EVA layer thickness, hardness, and coefficient of friction.
Their primary role is protection before and after machining, loading, unloading, and transfer. They should not be positioned where they could interfere with machine movement, tooling, or safe operation.
Machining completion does not eliminate handling risk. Unloading, restacking, and transportation can still create surface friction and scratches.
They can be positioned between the aluminum and a workbench or transfer rack, or between stacked extrusion layers where direct hard contact would otherwise occur.
Yes, for production handling before anodizing. Their purpose is not to participate in the anodizing process but to reduce mechanical surface damage during upstream fabrication and transfer.
A more accurate claim is that they can reduce the risk of handling-related surface defects caused by hard contact and friction. Specific defect-rate reductions require verified production data.
Applications involving elevated temperatures, special chemical exposure, or highly sensitive finished surfaces should first be evaluated for material compatibility before EVA is specified.