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EMC Test System For Civil Products
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- Electrostatic Discharge Immunity
- Radiated, radio-frequency,electromagnetic field immunity
- Electrical Fast Transient Burst Immunity
- Surge immunity
- Immunity To Conducted Disturbance Induced by Radio Frequency Field
- Power Frequency Magnetic Field Immunity
- Voltage dips, short interruptions and voltage variations immunity
- Harmonics and interharmonics including mains signalling at AC power port, low frequency immunity
- Voltage Fluctuation Immunity Test
- Common mode disturbances in the frequency range 0 Hz to 150 kHz Immunity
- Ripple on DC input power port immunity
- Three-phase Voltage Unbalance Immunity Test
- Power Frequency Variation Immunity Test
- Oscillatory Wave Immunity Test
- Damped Oscillatory Magnetic Field Immunity Test
- Differential mode disturbances immunity test
- DC power input port voltage dip, short interruption and voltage variations test
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Automotive Electronic EMC Test System
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- Electrostatic Discharge Immunity
- Electrical Transient Conducted Immunity
- Immunity Test To Narrowband Radiated Electromagnetic Energy-Anechoic Chamber Method
- Immunity Test To Narrowband Radiated Electromagnetic Energy-Transverse Wave (TEM) Cell Method
- Immunity Test To Narrowband Radiated Electromagnetic Energy-large Current injection (BCI) method
- Immunity Test To Narrowband Radiated Electromagnetic Energy-Stripline Method
- Immunity Test To Narrowband Radiated Electromagnetic Energy-direct Injection Of Radio Frequency (RF) Power
- Immunity Test To Narrowband Radiated Electromagnetic Energy-Magnetic Field Immunity Method
- Immunity Test To Narrowband Radiated Electromagnetic Energy-Portable Transmitter Simulation Method
- Immunity Test To Narrowband Radiated Electromagnetic Energy-Conduction Immunity Method For Extended Audio Range
- High Voltage Electrical Performance ISO 21498-2 Test System
- High Voltage Transient Conducted Immunity (ISO 7637-4)
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- CE101(25Hz ~ 10kHz power line conduction emission)
- CE102(10kHz ~ 10MHz power line conduction emission)
- CE106(10kHz ~ 40GHz antenna port conducted emission)
- CE107 (Power Line Spike (Time Domain) Conducted Emission)
- RE101(25Hz ~ 100kHz magnetic field radiation emission)
- RE102(10kHz ~ 18GHz electric field radiation emission)
- RE103(10kHz ~ 40GHz antenna harmonic and spurious output radiated emission)
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- CS101(25Hz ~ 150kHz power line conduction sensitivity)
- CS102(25Hz ~ 50kHz ground wire conduction sensitivity)
- CS103(15kHz ~ 10GHz Antenna Port Intermodulation Conducted Sensitivity)
- CS104(25Hz ~ 20GHz antenna port unwanted signal suppression conduction sensitivity)
- CS105(25Hz ~ 20GHz antenna port intermodulation conduction sensitivity)
- CS106 (Power Line Spike Signal Conduction Sensitivity)
- CS109(50Hz ~ 100kHz shell current conduction sensitivity)
- CS112 (Electrostatic Discharge Sensitivity)
- CS114(4kHz ~ 400MHz cable bundle injection conduction sensitivity)
- CS115 (Conduction sensitivity of cable bundle injection pulse excitation)
- CS116(10kHz to 100MHz Cable and Power Line Damped Sinusoidal Transient Conduction Sensitivity)
- RS101(25Hz ~ 100kHz magnetic field radiation sensitivity)
- RS103(10kHz ~ 40GHz electric field radiation sensitivity)
- RS105 (Transient Electromagnetic Field Radiated Susceptibility)
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EMC Test System For Civil Products
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- Electrostatic Discharge Immunity
- Radiated, radio-frequency,electromagnetic field immunity
- Electrical Fast Transient Burst Immunity
- Surge immunity
- Immunity To Conducted Disturbance Induced by Radio Frequency Field
- Power Frequency Magnetic Field Immunity
- Voltage dips, short interruptions and voltage variations immunity
- Harmonics and interharmonics including mains signalling at AC power port, low frequency immunity
- Voltage Fluctuation Immunity Test
- Common mode disturbances in the frequency range 0 Hz to 150 kHz Immunity
- Ripple on DC input power port immunity
- Three-phase Voltage Unbalance Immunity Test
- Power Frequency Variation Immunity Test
- Oscillatory Wave Immunity Test
- Damped Oscillatory Magnetic Field Immunity Test
- Differential mode disturbances immunity test
- DC power input port voltage dip, short interruption and voltage variations test
-
Automotive Electronic EMC Test System
-
- Electrostatic Discharge Immunity
- Electrical Transient Conducted Immunity
- Immunity Test To Narrowband Radiated Electromagnetic Energy-Anechoic Chamber Method
- Immunity Test To Narrowband Radiated Electromagnetic Energy-Transverse Wave (TEM) Cell Method
- Immunity Test To Narrowband Radiated Electromagnetic Energy-large Current injection (BCI) method
- Immunity Test To Narrowband Radiated Electromagnetic Energy-Stripline Method
- Immunity Test To Narrowband Radiated Electromagnetic Energy-direct Injection Of Radio Frequency (RF) Power
- Immunity Test To Narrowband Radiated Electromagnetic Energy-Magnetic Field Immunity Method
- Immunity Test To Narrowband Radiated Electromagnetic Energy-Portable Transmitter Simulation Method
- Immunity Test To Narrowband Radiated Electromagnetic Energy-Conduction Immunity Method For Extended Audio Range
- High Voltage Electrical Performance ISO 21498-2 Test System
- High Voltage Transient Conducted Immunity (ISO 7637-4)
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-
- CE101(25Hz ~ 10kHz power line conduction emission)
- CE102(10kHz ~ 10MHz power line conduction emission)
- CE106(10kHz ~ 40GHz antenna port conducted emission)
- CE107 (Power Line Spike (Time Domain) Conducted Emission)
- RE101(25Hz ~ 100kHz magnetic field radiation emission)
- RE102(10kHz ~ 18GHz electric field radiation emission)
- RE103(10kHz ~ 40GHz antenna harmonic and spurious output radiated emission)
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- CS101(25Hz ~ 150kHz power line conduction sensitivity)
- CS102(25Hz ~ 50kHz ground wire conduction sensitivity)
- CS103(15kHz ~ 10GHz Antenna Port Intermodulation Conducted Sensitivity)
- CS104(25Hz ~ 20GHz antenna port unwanted signal suppression conduction sensitivity)
- CS105(25Hz ~ 20GHz antenna port intermodulation conduction sensitivity)
- CS106 (Power Line Spike Signal Conduction Sensitivity)
- CS109(50Hz ~ 100kHz shell current conduction sensitivity)
- CS112 (Electrostatic Discharge Sensitivity)
- CS114(4kHz ~ 400MHz cable bundle injection conduction sensitivity)
- CS115 (Conduction sensitivity of cable bundle injection pulse excitation)
- CS116(10kHz to 100MHz Cable and Power Line Damped Sinusoidal Transient Conduction Sensitivity)
- RS101(25Hz ~ 100kHz magnetic field radiation sensitivity)
- RS103(10kHz ~ 40GHz electric field radiation sensitivity)
- RS105 (Transient Electromagnetic Field Radiated Susceptibility)
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Product
EMC Testing Solution Provider
High voltage artificial power network NNHV 8123
Brand:
SCHWARZBECK
- Product Description
- Main features
- Technical parameters
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- Commodity name: High voltage artificial power network NNHV 8123
- Commodity ID: 1064820955802128384
- 品牌11: SCHWARZBECK
- 描述: NNHV 8123 series asymmetrical single-channel artificial mains network (AMN), mainly used for measuring electromagnetic interference of shielded cables according to CISPR 25 ed4 or BMW GS 95025-1, frequency range 0.1 – 150 MHz.
- 品牌: SCHWARZBECK
NNHV 8123 series asymmetrical single-channel artificial mains network (AMN), mainly used for measuring electromagnetic interference of shielded cables according to CISPR 25 ed4 or BMW GS 95025-1, frequency range 0.1 – 150 MHz. NNHV 8123 can also be used for high current injection (BCI) testing, at this time it needs to be terminated with a 50 ohm load, and its impedance characteristic is 5μH || 50Ω.
The high-voltage LISN can be placed inside the high-voltage shield HVSE8600 during design, and two NNHV 8123 are used to measure HV+ and HV- respectively. The DUT needs to be connected to the front panel, the power supply is connected to the rear panel, and the shielding layer is directly connected to the HVSE8600 shell.
NNHV8123 can allow the DUT to work continuously at a continuous current of 70A, and the short-term current can reach 100A.
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Frequency range
0.1 – 150 MHz
continuous current
70A
Maximum short-time current
100A
Maximum voltage (DC)
1000V
Maximum voltage (AC 50/60Hz)
700 Vrms
Maximum voltage (AC 400Hz)
300 Vrms
impedance
(5 μH) || 50 Ω (+/- 10%)
DC resistance power supply - EUT
<5mΩ
Impedance (AC 50/60Hz)
4.2mΩ
Impedance (AC 400Hz)
13mΩ
EUT interface
winged terminal
Measurement output interface
N type (female)
size
160 x 165 x 210 mm
weight
1.9kg
Simplified circuit diagram of NNHV 8123:

Interference voltage test according to CISPR 25
The power supply is connected to the rear panel, and the 0.1uF capacitor on the back is connected to ground. The object under test is connected to the front panel, and the interference voltage generated by the object under test is output to the EMI test receiver through the N-type connector for measurement.
Each wire must use a LISN independently (placed in the shielding box HVSE 8600), the power supply wire is connected to the red terminal of one LISN, and the return wire of the power supply is connected to the red terminal of the other LISN. Unused measurement ports must be terminated with 50 Ω loads.
All LISN RF ground must be connected to the grounding terminal, brass grounding terminal and shielding housing HVSE8600 is connected, when connecting the EUT power supply power line, must first peel off the insulation of the cable to ensure that the shield can be in good contact with the HVSE8600 shielding housing, NNHV8123 series standard delivery includes locking screws and RF output cable.
Immunity test, high current injection method (BCI test):
The NNHV 8123 can be used with suitable current injection clamps for high current injection testing.
Adequate airflow must be ensured to avoid overheating of LISN.
CAN'T OVERRIDE LIISN! Perforated upper and lower covers should not be covered to facilitate air circulation. The 50 ohm external termination resistor must be placed outside the HVSE 8600.
In the first few hours of operation, a slight smell of coating and insulating substances may appear. Be careful not to inhale the emitted gases. After working at high temperatures for a few hours, the smell will disappear.
During high current injection tests, due to high field strength and temperature rise (fire hazard), which can be dangerous, such tests should only be carried out by qualified engineers! Appropriate safety precautions must be considered!
In the BCI test, the power injected from the EUT terminal will cause the external 50Ω load to heat up, and the appropriate load power must be selected according to the actual test needs.
Note: The injected RF power is output from the EuT-terminal to the N-type port without attenuation, in which case the receiver is damaged if a receiver is connected!
Note:
The circuit according to CISPR 16 has a large leakage current to ground, so leakage current detection cannot be used on the power line (they will disconnect the power supply due to excessive ground current). Either the ground current safety switch is not installed on either the power cord (please mark the necessary warning signs) or a 1:1 power cord isolation transformer is used.
In any case, LISN should be grounded before connecting to the power line. Accurate security tips must be provided to users of LISN.
EUT termination impedance (N-type port terminated 50 ohms, power line shorted)
Impedance characteristic curve

Divider factor, EuT terminal to N connector (adapter required)

Temperature rise characteristics under continuous current
