ZURÜCK ZUM HUB
Technisch

Vamac (AEM) vs. ACM: Comparing High-Temp Oil Resistance in Turbocharger Hoses.

Vamac (AEM) vs. ACM: Comparing High-Temp Oil Resistance in Turbocharger Hoses.

Artikel teilen

Teilen Sie diesen technischen Beitrag mit Ihrem Engineering-Team.

Vamac (AEM) vs. ACM: Comparing High-Temp Oil Resistance in Turbocharger Hoses

Problem Statement

Turbocharger hoses require materials that withstand continuous exposure to high temperatures (up to 150°C) and engine oil. Traditional ACM elastomers often fail due to excessive compression set and chemical degradation, leading to premature hose failure.

Material Science Analysis

ACM elastomers rely on acrylate monomers for oil resistance but exhibit poor compression set performance above 120°C. Vamac (AEM), an ethylene-acrylate copolymer, incorporates a saturated backbone with polar acrylate groups. This structure enhances thermal stability and reduces compression set. The fluorine-free composition of Vamac also ensures compatibility with modern engine oils.

Technical Specs

  • Vamac (AEM): Shore A Hardness: 70-90, Tensile Strength: 10-15 MPa, Elongation at Break: 150-300%, Temperature Range: -40°C to 175°C.
  • ACM: Shore A Hardness: 60-80, Tensile Strength: 8-12 MPa, Elongation at Break: 100-250%, Temperature Range: -20°C to 150°C.

Technical Comparison

Parameter Vamac (AEM) ACM Alternative: FKM
Temperature Range (°C) -40 to 175 -20 to 150 -20 to 200
Compression Set (%) 15-25 30-50 10-20
Oil Resistance (ASTM D2000) Excellent Good Excellent
Cost Medium Low High

Standard Compliance

RubberQ adheres to IATF 16949 standards for batch-to-batch consistency. Our in-house compounding ensures precise control over polymer ratios, fillers, and curing agents. All materials comply with ASTM D2000 and ISO 3601 for sealing applications.

For custom material compound development or IATF 16949 documentation, consult RubberQ’s engineering department.

Artikel teilen

Teilen Sie diesen technischen Beitrag mit Ihrem Engineering-Team.

Technische Updates abonnieren

Erhalten Sie neue Material-Insights und Engineering-Notizen per E-Mail.

Verwandte Artikel

05. Apr. 2026

Liquid Silicone Rubber (LSR) Tooling: Why Initial Investment Pays Off in Precision.

Liquid Silicone Rubber (LSR) Tooling: Why Initial Investment Pays Off in Precision Problem Statement High-cycle manufacturing of precision components, such as EV battery seals and AI server gaskets, demands materials with exceptional dimensional stability and chemical resistance. Traditional elastomers like EPDM and NBR often fail under extreme thermal cycling and aggressive chemical exposure, leading to […]

Artikel lesen

05. Apr. 2026

High-Tonnage Vulcanization: Managing Large-Scale Industrial Rubber Components.

High-Tonnage Vulcanization: Managing Large-Scale Industrial Rubber Components Problem Statement Large-scale industrial rubber components, such as conveyor belts and hydraulic seals, face premature failure under high-tonnage vulcanization. Common issues include chemical degradation at temperatures exceeding 200°C and compression set failure during high-pressure cycles. Material Science Analysis Standard EPDM polymers fail under extreme heat due to their […]

Artikel lesen

05. Apr. 2026

Commercial Aircraft Interiors: Meeting Smoke and Toxicity Standards (FST).

Commercial Aircraft Interiors: Meeting Smoke and Toxicity Standards (FST) Problem Statement Polymer components in aircraft interiors must pass FAR 25.853 flammability tests while maintaining mechanical performance. Standard EPDM fails at 180°C with toxic smoke emission (HCN >100 ppm). Material Science Analysis Chloroprene rubber (CR) releases HCl gas during combustion. Fluorosilicone (FVMQ) provides superior thermal stability […]

Artikel lesen

Benötigen Sie technische Beratung?

Unser Ingenieurteam kann Ihnen helfen, diese Materialerkenntnisse auf Ihr spezifisches Projekt anzuwenden.

ANGEBOT ANFORDERN