Name: 6.6mm Thick 10-Micron Stainless Steel Porous Disc For Noise Reduction Customized Suppliers, Manufacturers - Free Sample - TOPTITECH Metal Materials
Brand: TOPTITECH
SKU: 291778976

TOPTITECH's 6.6mm thick porous sintered plate, made from high-purity stainless steel powder with precise 10-micron pores, is a high-performance material designed for advanced noise reduction and acoustic control applications. The controlled sintering process creates a uniform, interconnected pore structure that delivers exceptional sound absorption, air permeability, and mechanical strength. It offers excellent resistance to corrosion, wear, and high temperatures, making it suitable for use in acoustic panels, mufflers, and ventilation systems where both durability and acoustic efficiency are required.

What sets this product apart is its customizable 6.6mm thickness, which can be fine-tuned according to specific acoustic or structural design requirements. The ‌6.6mm thick stainless steel sintered porous plate‌ is a breakthrough in acoustic engineering, designed to address the limitations of conventional noise control materials. Unlike standard thicknesses (e.g., 5mm or 10mm), the precise 6.6mm profile is engineered to disrupt sound wave propagation through optimized mass and stiffness. This innovative thickness significantly improves low-frequency noise absorption by minimizing resonant vibrations, ideal for industrial settings where deep bass frequencies are prevalent. The sintered structure ensures uniform 10μm pores, enabling efficient sound energy dissipation while maintaining structural integrity under high-pressure or high-temperature conditions. Its corrosion-resistant stainless steel composition further ensures durability in harsh settings, such as chemical plants or outdoor installations.

Products Specifications

Material: 316L
Diameter: 120mm
Thickness: 6.6mm
Pore size: 10 microns
Technique: Sintered

66mm Thick 10-Micron Stainless Steel Porous disc for Noise Reduction

Products Features

Optimized 6.6mm Thickness Design: The 6.6mm thickness provides enhanced structural strength while optimizing acoustic impedance, allowing superior absorption of low- and mid-frequency noise that thinner plates cannot effectively handle.

10-Micron Precision Porosity: The fine 10 μm pore size ensures balanced air permeability and acoustic resistance, enabling efficient sound energy dissipation without compromising airflow or backpressure.

Enhanced Structural Rigidity‌: Provides exceptional resistance to deformation under vibration or pressure, suitable for high-stress environments like machinery enclosures or exhaust systems.

66mm Thick 10-Micron Stainless Steel Porous disc for Noise Reduction 6

Corrosion-Resistant Durability‌: Stainless steel construction withstands harsh conditions (moisture, chemicals, extreme temperatures), making it suitable for chemical plants or coastal installations.

Optimized Weight-to-Performance Ratio‌: Balances acoustic efficiency with lightweight design, enabling seamless integration into space-constrained applications (e.g., HVAC ducts, vehicle components).
Avoids the weight penalty of thicker alternatives while delivering comparable noise reduction.

applications

Industrial Noise Control Systems: Used as sound-absorbing linings in compressors, blowers, and vacuum pumps to minimize operational noise.

Automotive and Aerospace: Applied in exhaust silencers, engine acoustic shields, and aircraft cabin noise filters requiring heat resistance and reliability.

HVAC and Ventilation Systems: Integrated into air ducts and ventilation silencers to reduce airflow noise while maintaining ventilation efficiency.

Precision Equipment and Laboratories: Used in acoustic enclosures for test rooms, cleanrooms, and electronics manufacturing environments.

Architectural and Building Acoustics: Serves as an interior sound-damping panel in theaters, machinery rooms, or technical facilities where durability and hygiene are priorities.

Medical and Pharmaceutical Devices: Utilized in sterile or vacuum systems where quiet operation and filtration performance are both needed.