SKU: 70047707 | MPN: MGA CT B-100
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Schloeder MGA CT B-100 Coupling Transformer, Acc. MIL-STD-461 CS 101/DO160, 100 A, MGA CT Series

-5% Regular price £4,618.10 VAT Excl.
Regular price £4,405.66
Sale price £4,405.66
Available on Request
Manufacturers lead time applies

Schloeder

Schloeder is a specialist manufacturer of EMC test equipment and surge protection solutions for industrial, automotive, aerospace and telecommunications applications. Its portfolio includes surge generators, ESD simulators, burst generators and EMC test systems designed to validate product immunity and ensure compliance with international standards. Engineers and test laboratories worldwide rely on Schloeder solutions for accurate and reliable electromagnetic compatibility testing.

  • 1:2 coupling transformer for the extended audio frequency range
  • Integrated 0.5 Ω resistor (active cooling) for CS101 power calibration
  • Integrated differential amplifier
  • Additional connection cables included in the scope of delivery
  • Fully automatic tests in conjunction with the MGA 1033 magnetic field generator
  • Integrated differential amplifier for measuring the coupled test voltage, switchable for CS101 and DO-160 test level
  • For optimum measurement, the amplification is adapted to the frequency response of the CS101 test level or for DO-160DC tests
  • Automated test environment with the MGA 1033
  • Optional couplable current sensor for measuring the secondary current (EUT)
  • All necessary connection cables included in the delivery

The MGA CT B-100 is the complete solution for immunity testing with 100 A. It can be used universally for CS101 MIL-STD-461G as well as for other standards such as DO-160. In addition to this variant, a 50 A type is also available.

When testing for conducted immunity on power lines according to MIL-STD-461, CS 101, a coupling transformer is used.

Due to the high common-mode voltage on the mains side, a differential amplifier is built into the coupling transformer, which enables simple measurement of the copied-in differential voltage.