Engineered for optimal flow straightening and high-performance electromagnetic interference protection in wind and water tunnel environments.
Our advanced emi shield technology utilizes a high-precision metal honeycomb core to ensure absolute signal integrity. By combining structural rigidity with superior electromagnetic attenuation, we provide an essential barrier for sensitive aerospace and automotive testing environments.
The unique honeycomb architecture promotes laminar flow, minimizing turbulence and ensuring accurate aerodynamic data in wind tunnels.
Engineered to block external electrical noise, safeguarding sensitive electronics from high-frequency interference during critical testing.
Constructed from premium aluminum or stainless steel, providing exceptional strength-to-weight ratios for heavy-duty industrial use.
Tailored cell sizes and panel thicknesses to meet specific airflow and emi shield requirements.
Specialized coatings ensure long-term stability in high-humidity water tunnels or saline environments.
Reduction in turbulence and electrical noise leads to high-fidelity data collection for R&D projects.
| Material Grade | Cell Size (mm) | Foil Thickness (mm) | EMI Shielding (dB) | Airflow Loss (%) | Max Temp (°C) |
|---|---|---|---|---|---|
| Aluminum 3003 | 3.0 mm | 0.15 mm | 65 dB | < 2% | 250 °C |
| Aluminum 6061 | 5.0 mm | 0.20 mm | 72 dB | < 3% | 300 °C |
| Stainless Steel 304 | 3.0 mm | 0.10 mm | 80 dB | < 2% | 800 °C |
| Stainless Steel 316L | 6.0 mm | 0.15 mm | 85 dB | < 4% | 850 °C |
| Copper Alloy | 4.0 mm | 0.20 mm | 95 dB | < 3% | 400 °C |
| Nickel-Plated Al | 3.0 mm | 0.12 mm | 70 dB | < 2% | 200 °C |
| Titanium Grade 2 | 5.0 mm | 0.15 mm | 60 dB | < 3% | 400 °C |
| Custom Alloy X | 8.0 mm | 0.25 mm | 100 dB | < 5% | 1000 °C |
Implemented custom aluminum honeycomb panels to reduce air turbulence by 15% and eliminate signal interference for wing sensors.
Integrated high-attenuation honeycomb shields to protect sensitive battery management system (BMS) tests from external RF noise.
Supplied 316L stainless steel honeycomb for water tunnels, ensuring zero corrosion and smooth flow for submersible drone testing.
Developed ultra-dense copper honeycomb panels for cryogenic EMI shielding, reducing noise floor by 40dB.
Custom nickel-plated panels provided an airtight EMI seal for high-frequency radar calibration chambers.
Reduced EMI leakage in satellite antenna test chambers using advanced titanium honeycomb venting panels.
Wind tunnel straightening and electromagnetic protection for aircraft fuselage testing.
EMI shielding for AV sensor calibration and aerodynamic drag reduction testing.
Water tunnel flow straightening and corrosion-resistant EMI barriers for maritime tests.
Signal isolation panels for 5G hardware testing and microwave component shielding.
High-security RF chambers and stealth material aerodynamic testing panels.
Ultra-precise electromagnetic isolation for cryogenic qubit environment stability.
Strict quality management systems ensure every honeycomb core meets global aerospace tolerance standards.
Every batch undergoes rigorous signal attenuation testing in certified anechoic chambers before shipment.
Our materials are environmentally safe and meet all EU chemical regulations for global export.
The cellular geometry creates multiple reflections of electromagnetic waves within the core, effectively dissipating the energy and preventing it from passing through the panel.
Stainless Steel 316L is recommended for high-temperature and corrosive environments, offering stability up to 850°C.
Yes, we offer cell sizes from 1.0mm to 20.0mm to optimize for specific flow straightening or RF attenuation needs.
Our standard sample lead time is 7 days, ensuring rapid prototyping for your R&D projects.
The panels are designed for minimal flow resistance, typically resulting in an airflow loss of less than 3%.
We use the ASTM E-series standard, measuring the decibel (dB) reduction of electromagnetic energy across specific frequency bands.
Get precision-engineered metal honeycomb panels designed to maximize airflow efficiency and minimize electromagnetic interference for your critical research.
