The CISPR25 emc chamber is designed for emc compliance benchtop testing of automotive components and wiring harnesses . The MVG CISPR25 emc chamber is designed for the emc measurements using the requisite 1 m test distance and for a “typical bench” configuration of 2.5 m x 1.0 m. The unique design requires less volumetric space than traditional absorbers and still provides the volume required to have the requisite distances between the EUT and the walls and the emc absorber and the walls & ceiling. The chamber is designed with anechoic treatment that meets the specified attenuation in the CISPR 25 standard, and it is designed to meet the Long Wire testing specified in Annex J. The polypropylene emc absorber does not undergo the typical age-related deterioration of the typical “foam” polyurethane absorbers. The UH-series, polypropylene emc absorber is also applicable to the radar pulse testing required in some automotive test standards.

• Easy separation of cable jackets from the electrical conductor
• Suitable for samples with a high strip force
• Also designed for larger sample outer diameters (depending on wall thickness)
• Suitable preparation before cutting cable samples for measuring (e.g. with the ORC-series)
• Robust, stable construction
• Easy to use

High frequency reed relays are engineered for precision signal switching from DC up to 8 GHz, making them ideal for RF, microwave, and high-speed digital applications. These relays feature ultra-short signal paths and internal coaxial shielding with consistent 50 Ohm impedance, ensuring minimal insertion loss and excellent signal integrity. With rise times under 40 picoseconds and low contact resistance, they support fast pulse switching and high isolation in compact designs. Available in surface-mount packages with advanced shielding, they are optimized for automated test equipment, wireless systems, and high-frequency PCB layouts.

Flexibility

• Different substrate carriers for wafers up to 200 mm or single dies
• Probe cards and/or up to eight positioners
• Optional thermal chuck (-60°C to 300°C) and pressure regulation
• Accessories available, such as black bodies and optical motion analysis tools
• Optional upgrade for 300 mm wafer
• Designed for industrial environments
• Covers wide range of measurements (I-V, C-V, RF, MEMS, OPTO)
• Ideal for small structures

See "Specifications & Details" tab for more key features

Not all amplifiers are created equal, so how can you be certain that an amplifier will work for your needs? You deserve to be confident that the amplifiers used with your test-and measurement lab benches will meet the requirements of your specific applications, are reliable, and are equally well-supported pre-and post-sale. When it comes to application expertise, reliability and support, there is no company that does it better than Maury.

• Precise: 0.5 µm resolution with absolute sensor
• High Push Force: 2N
• Low Power: 6 V DC, < 1 A
• Embedded: Closed-loop positioning
• Zero power Hold: With rigidity and no jitter

• 6U single slot VME form factor 
• Nine digit time display 
• Optional Have Quick synchronization input 
• IRIG’s A and B and NASA 36 time code inputs 
• 1PPS sync input 
• IRIG B output 
• 1PPS and time code inputs are redundant 
• Single-slot including GPS option 
• Zero latency time reads, microseconds through years 
• External Event input (optional eight and sixteen inputs) 
• Match Time output 
• Programmable Heartbeat rate 
• Video Time Inserter Option 
• Many additional options

• Single-slot low profile 32 bit PCI Express module 
• IRIG A, B, NASA 36, 1 PPS sync inputs 
• GPS sync option (maintains single-slot) 
• HaveQuick sync input option 
• Propagation delay correction 
• Zero latency time reads 
• Match Time output 
• IRIG-B time code output (option) 
• External Event time tags 
• Three user programmable rates 
• Supports Windows 8 & 10 
• Digitally Signed WHQL Driver 
• Designed for Low Profile PCI Express slots.

Continuous level sensors provide real-time monitoring across the entire height of a fluid container. These sensors use magnetic reed switches mounted along a PCB, combined with resistors to generate discreet voltage outputs. As a magnetic float moves along the sensor stem, it activates multiple reed switches, enabling precise and uninterrupted tracking of fluid levels. Advanced models like the CLS and HLS series incorporate capacitive or Hall effect technologies for high-resolution, programmable outputs in harsh environments.