Engineered for third-party CNAS and GJB acceptance. Purpose-built for defense research, automotive EMC testing, medical shielding and wireless communication chambers, with shielding effectiveness up to >100 dB across the specified bands.
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Isolates public-network and radio interference to create a standard semi-anechoic (SAC) or fully anechoic (FAC) environment for engineering evaluation and product compliance testing.
Provides a near-zero background interference baseline for advanced wireless equipment while supporting secure-room requirements that prevent leakage of sensitive electromagnetic emissions.
A shielded room is a major engineering asset. Before design begins, our engineers confirm four critical requirements:
The steel structure, shielding panels and RF absorbers carry substantial weight. Confirm floor loading—typically more than 500 kg/m² for a custom installation—and the remaining clear height after fire-protection and HVAC systems are installed.
Set the required frequency range from the applicable standards, such as CISPR, ISO or GJB. These requirements determine whether modular or welded construction is appropriate and define the absorber dimensions.
The door is the component most susceptible to performance degradation. Its size and mechanism—manual compression, powered sliding or fully automatic pneumatic sealing—must match the test object and material-handling method.
Power lines require high-power filters, ventilation needs honeycomb waveguide-below-cutoff panels, and the fire system generally requires clean-agent suppression. These provisions must be coordinated during engineering design.
A suspended or self-supporting modular frame uses high-quality, double-sided hot-dip galvanized cold-rolled steel panels. The structure resists deformation over long service periods and maintains stable sealing and damping performance.
High-performance fiber-optic waveguides, HVAC waveguide panels and a full range of high-power power/signal filters allow services to enter the room without compromising RF isolation.
Imported high-elasticity beryllium-copper fingers mate with precision dual knife edges around the door. Testing through up to 50,000 operating cycles helps prevent the high-frequency leakage common at moving seams.
Hover over the model hotspots and compare the engineering notes on both sides to explore critical construction details.
The shielded door is the moving opening most prone to RF leakage. Precision dual knife edges and conductive beryllium-copper fingers maintain low-resistance contact across a wide frequency range.
The honeycomb waveguide panel provides airflow and heat removal while exponentially attenuating electromagnetic waves below its cutoff frequency.
A centralized filter panel forms the only physical entry for power and signals. High-power low-pass filters and fiber-optic waveguides interrupt conducted electrical paths between the room and the outside environment.
The central elevating turntable uses low-permittivity materials with continuous height and rotation adjustment to position the device under test at the center of the quiet zone.
High-performance test environments engineered for research, certification and production.
A cost-effective choice for secure computer rooms, MRI shielding and general electromagnetic pre-compliance laboratories. Modular construction simplifies disassembly, relocation and future expansion.
Designed for third-party certification testing. High-performance ferrite tiles and polymer pyramidal absorbers cover the interior to suppress RF reflections.
We design around irregular sites, long-span rooms and demanding protection targets. Senior project engineers develop a practical layout and construction plan for each facility.
Selected shielding and absorber materials support requirements ranging from low-frequency conducted tests at 9 kHz to microwave and millimeter-wave radiated tests above 40 GHz.
Our EMC chamber engineering team provides detailed 3D mechanical models together with electromagnetic-field, airflow-resistance and structural-stress analysis before construction.
A dedicated project engineer can begin requirements coordination quickly, with complete CAD/3D laboratory design documentation typically prepared within three days after the required site information is confirmed.
In-house heavy welding, CNC panel fabrication and filter manufacturing provide direct control over quality, schedule and project cost.
After completion, we support third-party testing of shielding effectiveness, site VSWR and field uniformity against the agreed CNAS, GJB or project acceptance criteria.
The main steel structure and shielding modules include a two-year warranty, backed by engineering service, software updates and long-term maintenance support.
An end-to-end system covering engineering simulation, machining, stamping and assembly reduces handoffs and unnecessary cost.
Professional CAD/3D structural drawings and a design report are prepared before fabrication to validate the solution before tooling or construction begins.
Specified shielded-room performance is verified before delivery and can be confirmed through third-party comparative measurements.
In-house sheet-metal stamping and precision assembly keep the full process under direct control and eliminate trading-company markups.
Five-year system warranty and lifetime technical coordination support dependable long-term operation.