The industrial manufacturing industry has been a sector of constant innovation for centuries, continuously leveraging the data from frequent iterations to achieve new solutions. This is no different today, driven by advancements in automation, the adoption of Industry 4.0 technologies, the integration of IoT, and the shift towards sustainable manufacturing practices. These trends require the development of new testing protocols, thorough safety standards, and sophisticated quality control measures to ensure the reliability and efficiency of increasingly complex systems. Manufacturers must also address interoperability and cybersecurity challenges posed by interconnected devices and digital supply chains. Add the push for eco-friendly, sustainable manufacturing practices in conjunction with rigorous testing for compliance with environmental regulations, and achieving balanced testing facility solutions is no easy task.

The energy industry is primed for a wave of monumental change. The transition to renewable and alternative energy sources, advancements in energy storage, the rise of smart grids, and the electrification of transportation are driving significant changes domestically and globally. These developments mean organizations require new testing protocols, enhanced safety standards, advanced testing equipment, and comprehensive interoperability and cybersecurity assessments. Regulatory changes and technological innovations further complicate testing requirements, demanding scalable and real-world simulation capabilities. When testing facilities must adapt rapidly to support R&D efforts, it’s essential that they ensure the safe, efficient, and sustainable deployment of new energy technologies. All of these factors demand energy laboratories that are future-proofed for innovative solutions.

• Automatic calibration for the whole test frequency range 
• Application of all test frequencies automatically. The level can be selected or automatic. 
• NO need to manually configure the measurement equipment 
• NO need to manually integrate the transfer function of probes and attenuators 
• Generation of test reports: NO need to record all values read from the measurement equipment 
• Generation of calibration reports: NO need to record all calibration setting parameters 
• Rack together and add CS101, CS109, and RS101 (sections 18, 19, and 20 of the RTCA DO-160G are also available.)

The TEM horn antenna is an antenna used for conducting close proximity radiation immunity evaluation test (near electromagnetic field immunity test) of electromagnetic waves radiated from various wireless transmitters such as mobile devices. 

In the future, close proximity radiation immunity evaluation test using the TEM horn antenna is expected to expand to various product standards such as medical equipment (IEC 60601-1-2) and multimedia equipment (CISPR 35).NoiseKen's TEM horn antenna has a wide band, low VSWR, and wide electric field uniformity offering an ideal solution for an efficient close proximity radiation immunity test. 

• A TEM horn antenna compliant with IEC 61000-4-39 Ed.1. 
• Test without changing the antenna in the frequency range of 380MHz to 6GHz. 
• Low VSWR and high GAIN enable efficient electromagnetic wave radiation. 
• Wide field uniformity reduces the number of times of movement of the antenna when radiating the EUT. 
• Since the maximum point of the near electric field distribution for each frequency is at the center, enables radiation on the EUT based on the axis of the antenna. Hence, significantly simplifies test point alignment.

• Expandable frequency range from 18 to 325 GHz
• 2 to 3 times better accuracy
• Automatic Nitrogen purge eliminates helium equipment
• Primary calibration standard
• Radiometer reference source
• SATCOM earth station conformance verifications

LSS-EF01 series

This simulator evaluates the immunity of electronic equipment by simulating "highenergy induced lightning noise" induced in power distribution lines and communication lines due to fluctuations in the earth's potential caused by lightning strikes. This is an entry model of the LSS-F03 series. (Maximum output voltage 6kV)

LSS-F03 series

A tester simulatively generates "High energy induced lightning noise" which induced to distribution lines or communication lines by ground potential fluctuation caused by lightning strikes.

• Complete bias circuits
• Requires no external components
• Optimizations available for frequency range and output levels

The NC520 low voltage (surface mount) noise module is an economic solution for built-in test requirements. It contains complete bias circuits and require no external components.

The surface mount package is suitable for mounting on microstrip. The modules produce extremely flat output power versus frequency characteristic that is insensitive to temperature and voltage variations.

Typical applications for the NC520 module includes built-in test equipment (bite), signal strength meters for cellular, pcs, catv, calibrators, spectrum analyzers, radar warning receivers (rwr), and dither A/D quantization error. Maury can optimize frequency range and output levels for specific applications.

• Boost performance by up to 3x over its precursor thanks to an Intel x6000 series embedded processor 
• Capture high-resolution images at high speed through a choice of CMOS sensors from two to 16 Megapixels 
• Deploy in dirty, humid, or harsh industrial environments by way of a compact IP67-rated design 
• Communicate actions and results to other automation and enterprise equipment via real-time digital I/Os, and Ethernet (TCP/IP, CC-Link IE Field Basic, EtherNet/IP™2, Modbus® , PROFINET® , and native robot interfaces) 
• Handle Human-Machine Interface (HMI) function by way of VGA and USB connectivity 
• Simplify vision setup and upkeep via integrated lens focusing and illumination intensity control 
• Synchronize to the manufacturing line through the support for incremental rotary encoders 
• Solve machine vision applications efficiently with Aurora Design Assistant by constructing flowcharts instead of writing program code 
• Maintain control and independence through the ability to code custom flowchart steps 
• Tackle machine vision applications with utmost confidence using field-proven tools for analyzing, locating, classifying, measuring, reading, and verifying 
• Leverage deep learning for visual inspection through image classification and segmentation tools

Coaxial cable assembly suitable for fixed wiring inside and between equipment used in the microwave band up to 100GHz (continuous operating temperature range: -30 to +85°C).

These cables have excellent formability (shape-retention capability) that make wiring work easy and exhibit superior loss characteristics compared to semi-rigid cables.

Standard connectors are SMA (m) straight connectors, although other connectors can be used as required.