Special - LISN

 

Pilot ISN - Impedance Stabilisation Network

 

 

  • Pilot_AE
  • Pilot_EUT

 
Pilot ISN is an impedance stabilization network which can be used to measure disturbance voltages of PLC (power line communication). Its design is based on IEC 61851-21-2 Electric vehicle conductive charging system. The ISN provides decoupling from the equipment under test (EuT) and the communication device or load (AE).

 

The Pilot ISN has an impedance of 150 Ω according to the standard as long as a PLC connection with an impedance of 100 Ω is established. The integrated attenuator improves the impedance matching and has to be switched on.

 

Frequency Range: 150 kHz - 30 MHz
Connector: Safety laboratory jacks, 4 mm
Max. line current/path: 1.4 A DC
Max. voltage
Power line - ground:
200 V DC
140 V AC
Common mode impedance
EuT-side:
150 Ω ±20 Ω
Dimensions W x H x D: 125 mm x 55 mm x 105 mm
Weight: 480 g
According to standard: IEC 61851-21-2
Electric vehicle conductive charging system

 

pdficon small Datasheet Pilot ISN

 


 

ECSS LISN 1

 

 

  • ECSS1

 
The ECSS LISN 1 was developed following the „European Cooperation for Space Standardisation“. The ECSS LISN 1 is used for DC mains lines. The impedance characteristic of each path is basically realized by an inductor in parallel with the 50 Ohm resistor: 1.5 μH || 50 Ω.

 

Frequency Range: 10 Hz - 150 MHz
Max. cont. current: 10 A
Max. current (limited time): 15 A
Max. voltage (DC): 200 V
Impedance: (1.5 µH ) || 50 Ω
DC-Recistance mains-EuT: 100 mΩ
EuT connectors: screw terminals M7x0.75
unscrewable with 4 mm jacks
Dimensions (WxHxD): 160 x 165 x 210 mm
Weight 2.7 kg
Standard: ECSS-E-ST-20-07 Rev1

 

pdficon small Datasheet ECSS LISN 1

 

 


 

ECSS LISN 2

 

 

  • ECSS2

 
The ECSS LISN 2 was developed following the „European Cooperation for Space Standardisation“. The ECSS LISN 2 is used for DC mains lines. The impedance characteristic of each path is basically realized by an inductor in parallel with the 50 Ohm resistor: 2 μH || 50 Ω.

 

Frequency Range: 10 Hz - 150 MHz
Max. cont. current: 10 A
Max. current (limited time): 15 A
Max. voltage (DC): 200 V
Impedance: (2 µH ) || 50 Ω
DC-Recistance mains-EuT: 100 mΩ
EuT connectors: screw terminals M7x0.75
unscrewable with 4 mm jacks
Dimensions (WxHxD): 160 x 165 x 210 mm
Weight 2.7 kg
Standard: ECSS-E-ST-20-07 Rev1

 

pdficon small Datasheet ECSS LISN 2

 

 


 

ECSS LISN 2 - 75A

 

  • ECSS_LISN_2-75A

 
The ECSS LISN 2 - 75A was developed following the „European Cooperation for Space Standardisation“. The ECSS LISN 2 - 75A is used for DC mains lines. The impedance characteristic of each path is basically realized by an inductor in parallel with the 50 Ohm resistor: 2 μH || 50 Ω.

 

The device under test may drain a continuous current of 75 A and for a short period of time it may even drain more than 100 A.

 

Frequency Range: 10 Hz - 150 MHz
Max. cont. current: 75 A
Max. current (limited time): 100 A
Max. voltage (DC): 200 V
Impedance: (2 µH ) || 50 Ω
DC-Recistance mains-EuT: 100 mΩ
EuT connectors: screw terminals M7x0.75
unscrewable with 4 mm jacks
Dimensions (WxHxD): 440 x 162 x 196 mm
Weight 9.5 kg
Standard: ECSS-E-ST-20-07 Rev1

 

pdficon small Datasheet ECSS LISN 2 - 75A

 

 


 

ECSS LISN 3

 

 

  • ECSS LISN 3

 
The ECSS LISN 3 was developed following the „European Cooperation for Space Standardisation“. The ECSS LISN 3 is used for DC mains lines. The impedance characteristic of each path is basically realized by an inductor in parallel with the 50 Ohm resistor: 0.7 μH || 50 Ω.

 

Frequency Range: 10 Hz - 150 MHz
Max. cont. current: 10 A
Max. current (limited time): 15 A
Max. voltage (DC): 200 V
Impedance: (0.7 µH ) || 50 Ω
DC-Recistance mains-EuT: 50 mΩ
EuT connectors: screw terminals M7x0.75
unscrewable with 4 mm jacks
Dimensions (WxHxD): 160 x 165 x 210 mm
Weight 2.4 kg
Standard: ECSS-E-ST-20-07 Rev1

 

pdficon small Datasheet ECSS LISN 3

 

 


 

PVDC 8301 - DC-AMN (LISN)

 

 

  • Schwarzbeck PVDC_8301

The symmetric DC-LISN PVDC 8301 can be used for measuring the disturbance voltage in the frequency range from 0.15 MHz to 30 MHz on photovoltaic inverters.

Up to now the conducted emissions of photovoltaic inverters at the mains terminals were usually measured using LISN according to CISPR 16-1- 2. The circuit concepts of PV-inverters may cause ripple currents on the DC-side of the inverter, though. These ripple currents, which mostly are in direct proportion to the mains frequency, are passing through the cabling and the PV-generator modules and can be radiated as magnetic fields with sometimes remarkable disturbance effect. Traditional measurements at the PV-inverters' AC terminals will not be able to reveal such disturbance phenomena.

The PVDC 8301 was especially designed to measure all kinds of disturbance voltages at the DC-side of photovoltaic inverters. These are in detail the disturbance voltage of one conductor above reference ground (unsymmetrical disturbance voltage), the common mode disturbance volage of a pair of conductors above ground (asymmetrical disturbance voltage) and finally, the differential mode voltage between two conductors.

 

Frequency Range: 0.15 MHz - 30 MHz
Max. cont. current: 200 A
Max. current (limited time, 15 min): 250 A
Max. Voltage (DC): 1500 V

Common Mode Impedance
(Mode switch CM, A or B):

(150 +/- 30) Ω
Differential Mode Impedance
(Mode switch DM):
(150 +/- 30) Ω
Phase at EUT-Terminals: (0 +/- 40)°
Insertion loss (EUT - AE): >20 dB
Longitudinal conversion loss LCL: >26 dB

Voltage Division Factor at the measuring port:

typ. (20 +/- 3) dB (10:1)
Resistance (DC) with feed terminals shorted (T=25°C): <50 mΩ
EUT Connectors: Wing terminals
Dimensions(W x H x D): 448 x 295 x 600 mm
Weight: approx. 30 kg

 

pdficon small Datasheet PVDC 8301


 


 

PVDC 8300 - DC-AMN (LISN)

 

 

  • Schwarzbeck PVDC_8300

The symmetric DC-LISN PVDC 8300 can be used for measuring the disturbance voltage in the frequency range from 0.15 MHz to 30 MHz on photovoltaic inverters.

Up to now the conducted emissions of photovoltaic inverters at the mains terminals were usually measured using LISN according to CISPR 16-1- 2. The circuit concepts of PV-inverters may cause ripple currents on the DC-side of the inverter, though. These ripple currents, which mostly are in direct proportion to the mains frequency, are passing through the cabling and the PV-generator modules and can be radiated as magnetic fields with sometimes remarkable disturbance effect. Traditional measurements at the PV-inverters' AC terminals will not be able to reveal such disturbance phenomena.

The PVDC 8300 was especially designed to measure all kinds of disturbance voltages at the DC-side of photovoltaic inverters. These are in detail the disturbance voltage of one conductor above reference ground (unsymmetrical disturbance voltage), the common mode disturbance volage of a pair of conductors above ground (asymmetrical disturbance voltage) and finally, the differential mode voltage between two conductors.

 

Frequency Range: 0.15 MHz - 30 MHz
Max. cont. current: 100 A
Max. current (limited time, 15 min): 150 A
Max. Voltage (DC): 1500 V

Common Mode Impedance
(Mode switch CM, A or B):

(150 +/- 30) Ω
Differential Mode Impedance
(Mode switch DM):
(150 +/- 30) Ω
Phase at EUT-Terminals: (0 +/- 40)°
Insertion loss (EUT - AE): >20 dB
Longitudinal conversion loss LCL: >20 dB

Voltage Division Factor at the measuring port:

(20 +/- 3) dB (10:1)
Resistance (DC) with feed terminals shorted (T=25°C): 90 mΩ
EUT Connectors: Wing terminals
Dimensions(W x H x D): 448 x 191 x 470 mm
Weight: 15 kg

 

pdficon small Datasheet PVDC 8300


 


 

TEMP 8400 - Tempest LISN

 

 

  • Schwarzbeck TEMP8400

The symmetrical AC-network TEMP 8400 consists of two identical channels for the lines "A" and "B".

It is constructed with air core inductors, in order to avoid intermodulation interference.

For the evaluation of interference phenomena the unsymmetrical interference voltage of a conductor to ground reference in the frequency range of 9 kHz to 1 GHz can be measured. Lower-frequency interference that may cause damage to the measuring receiver input shall be mitigated by additional high-pass filters.

 

Frequency Range: 9 kHz - 1 GHz
Max. cont. Current: 16 A
Max. Current (limited time, 3 min): 25 A
Max. Voltage (DC bis 400 Hz): 250 V AC
Impedance (50Hz): 1.4 Ω
AMN Impedance A or B: (50 +/- 10) Ω
Insertion loss (EUT - AE): Typ. 25 ... 60 dB
Voltage Division Factor at the measuring port (EUT - Monitor): (0 ... -3) dB
EUT Connector: N-female, via adapter convertible to wing terminals M7x0,75 not unscrewable

Dimensions (W x H x D):

448 x 191 x 470 mm
Weight: 11.5 kg

 

pdficon small Datasheet TEMP 8400

 

Accessories:

TEMP 8401 Adapter N-male to wing terminals for TEMP 8400

 


 

NPLC 8500 - Line Impedance Stabilization Network

 

 

  • Schwarzbeck NPLC 8500

 
The LISN NPLC 8500 has been designed especially for PLC measurements according to ITU-T G.9901.

To determine the power spectral density of PRIME transceivers (PoweRline Intelligent Metering Evolution) the unsymmetrical voltage between a conductor and ground has to be measured within the frequency range of 3 kHz to 148 kHz.

 

Frequency Range: 3 kHz - 148.5 kHz
Connector DuT: 7 mm wing terminals
Connector AE/BIAS: 7 mm wing terminals
Connector for measurement device: BNC 50 Ω
Max. current: 16 Arms
Max. terminal voltage: 250 VAC / 50 Hz
Weight: 3800 g
AMN Impedance: 1 Ω
Voltage Division Factor:
(EuT - BNC)
0...-6 dB

Dimensions incl. connectors:
length x width x height:

105 x 105 x 410 mm
According to standard: ITU-T G.9901

 

pdficon small Datasheet NPLC 8500