KP-1065S IEC 62368-1 pulse voltage generator benchtop product photo
KP-1065S IEC 62368-1 Figure D.2 pulse voltage generator left front angle view
KP-1065S pulse voltage generator right front angle view for IEC 62368-1 Figure D.2 testing
KP-1065S IEC 62368-1 Figure D.2 pulse voltage generator front view for Table D.1 Circuit 3 testing
KP-1065S IEC 62368-1 pulse voltage generator benchtop product photo
KP-1065S IEC 62368-1 Figure D.2 pulse voltage generator left front angle view
KP-1065S pulse voltage generator right front angle view for IEC 62368-1 Figure D.2 testing
KP-1065S IEC 62368-1 Figure D.2 pulse voltage generator front view for Table D.1 Circuit 3 testing

IEC 62368-1 Figure D.2 Pulse Voltage Generator

The KP-1065S is an IEC 62368-1 Figure D.2 Pulse Voltage Generator designed for Table D.1 Circuit 3 related testing. It generates controlled high-voltage surge and HVDC signals for evaluating insulation withstand performance at antenna interfaces and communication-related ports.

This model is suitable for AV/ICT equipment manufacturers, safety laboratories and R&D teams that need a dedicated generator for IEC 62368-1 Figure D.2 / Table D.1 Circuit 3 verification.

  • Applicable Standard: IEC 62368-1 Annex D, Figure D.2
  • Circuit Reference: Table D.1 Circuit 3
  • Test Application: Antenna interface pulse voltage, surge and HVDC withstand testing
  • Output Surge Voltage: 0–10 kV
  • Voltage Resolution: 0.01 kV
  • Charging Capacitance: 1 nF / 30 kV ±5%
  • Test Timing: Charging time 1–999 s / Discharge time 1–999 s
  • Number of Tests: 1–9999 times
  • Monitoring Output: Oscilloscope monitoring port, voltage divider 1:1000
  • Control System: Panasonic PLC with 7-inch color touchscreen
  • Typical DUT: AV/ICT equipment, antenna ports, communication interfaces, routers, modems, gateways and wireless devices

Product Overview

The KP-1065S is an IEC 62368-1 Figure D.2 Pulse Voltage Generator designed for Table D.1 Circuit 3 related testing. It provides controlled high-voltage surge and HVDC output for antenna interface insulation withstand verification in AV/ICT equipment.

This model is suitable for safety laboratories, AV/ICT equipment manufacturers and R&D teams working with IEC 62368-1 Figure D.2 antenna interface test requirements.

For correct selection, buyers should confirm the applicable standard edition, Figure D.2 / Table D.1 Circuit 3 requirement, output voltage level, DUT interface, test timing and monitoring or calibration needs before ordering.

Technical Specifications

The main specifications of the KP-1065S IEC 62368-1 Figure D.2 Pulse Voltage Generator are organized below for quick technical and purchasing review.

Output and Energy Storage

Item Specification
Product Model KP-1065S
Applicable Standard IEC 62368-1 Annex D, Figure D.2 / Table D.1 Circuit 3
Circuit Reference Table D.1 Circuit 3
Test Application Antenna interface pulse voltage, surge and HVDC withstand testing
Output Surge Voltage 0–10 kV
Voltage Resolution 0.01 kV
Digital Display Accuracy ±5% ±2 digits
Charging Capacitance 1 nF / 30 kV ±5%

Timing and Test Count

Item Specification
Charging Time Setting 1–999 s
Charging Time Accuracy ±3%
Discharge Time Setting 1–999 s
Discharge Time Accuracy ±3%
Number of Tests 1–9999 times
Test Count Accuracy ±1 time

Control, Monitoring and Power

Item Specification
Control System Panasonic PLC / Panasonic C14R
Display and Operation 7-inch color touchscreen
Touchscreen Model TK6070iH
Monitoring Output Oscilloscope monitoring port
Voltage Divider Ratio 1:1000
Protection Function Overvoltage protection
High-Voltage Transformer Power ≥150 VA
Working Power Supply AC 220 V ±10%, 50 Hz ±2 Hz

Figure D.2 and Table D.1 Circuit 3 Reference

IEC 62368-1 Annex D includes different pulse and impulse generator circuits. For the KP-1065S, the relevant reference is Figure D.2, with component values corresponding to Table D.1 Circuit 3.

This makes the KP-1065S different from Figure D.1 impulse generators used for Table D.1 Circuit 1 and Circuit 2.

IEC 62368-1 Figure D.2 antenna interface test generator circuit with Table D.1 Circuit 3 component values

Note:

1) switch S is the key component of the circuit, and its design should ensure that the effective energy consumed on flying fox or imperfect insulation is as small as possible.
2) subject component X is connected to terminals C and D. Voltage dividers R2 and R3 are optional to enable oscilloscopes connected to both ends of R3 to observe voltage waveforms at both ends of the subject assembly. The compensation of the voltage divider should ensure that the observed waveform is consistent with the tested assembly.
3) in particular, the latest board standard has removed the parallel resistance R2 from the old version of the standard

Difference Between Related IEC 62368-1 Test Generators

KP-1065S, KP-1950S and KP-1066S are related to IEC 62368-1 high-voltage or pulse testing, but they correspond to different figures, circuits and applications. They should be selected according to the required standard reference rather than grouped as one product.

Model Standard Reference Circuit Main Purpose
KP-1950S Figure D.1 / Table D.1 Circuit 1 and Circuit 2 10/700 μs and 1.2/50 μs impulse testing
KP-1065S Figure D.2 / Table D.1 Circuit 3 Figure D.2 pulse voltage testing for antenna interface insulation verification
KP-1066S Figure D.3 / Annex D.3 Electronic pulse generator circuit Separate Annex D.3 electronic pulse generator application

Design and Operation Features

0–10 kV Surge Voltage Output
Supports adjustable high-voltage output with 0.01 kV resolution for different verification stages.
1 nF / 30 kV Charging Capacitance
Matches the key capacitance requirement for Figure D.2 / Table D.1 Circuit 3 related testing.
PLC Touchscreen Control
Panasonic PLC and 7-inch touchscreen support stable parameter setting and repeatable operation.
Programmable Test Sequence
Charging time, discharge time and test count can be set for repeated verification and quality control.
1:1000 Monitoring Output
Provides an oscilloscope monitoring output for voltage or waveform observation using suitable measurement equipment.
Overvoltage Protection
Built-in protection helps improve operational safety during high-voltage pulse and surge testing.

Oscilloscope Monitoring and Calibration Notes

For voltage parameter calibration or waveform verification, a storage oscilloscope and a suitable high-voltage divider or high-voltage probe are normally required.

The monitoring output uses a 1:1000 voltage division ratio. For example, if the oscilloscope measures a 1 V peak signal at the monitoring output, this corresponds to an output surge pulse voltage of 1000 V.

Actual calibration should be performed according to the laboratory’s quality system, applicable standard edition and selected measurement equipment.

Typical Applications and Test Purpose

The KP-1065S is used for IEC 62368-1 Figure D.2 related pulse voltage testing of AV/ICT equipment, especially antenna interfaces and communication-related ports.

  • Antenna interface insulation withstand testing
  • Communication port surge withstand evaluation
  • Router, modem and gateway safety verification
  • Wireless device antenna port testing
  • AV/ICT product pre-compliance testing
  • R&D design margin evaluation
  • Factory quality control and batch sampling
  • High-voltage DC and surge signal insulation checks

Test Purpose:
The test may help identify weak insulation paths, insufficient component withstand margin, poor interface protection design, breakdown risk, flashover risk or abnormal response under high-voltage stress.

IEC 62368-1 pulse voltage generator laboratory test scene with KP-1065S and oscilloscope

Buyer’s Selection Notes

Applicable standard edition
Confirm whether the project follows IEC 62368-1, GB4943.1 or another national adoption.
Required figure and circuit
Confirm whether the project requires Figure D.2 and Table D.1 Circuit 3.
Voltage level and capacitance
Confirm the required output voltage within the 0–10 kV range and whether 1 nF / 30 kV ±5% matches the test requirement.
Timing and test count
Confirm the required charging time, discharge time and number of repeated tests.
Monitoring and documentation
Confirm whether oscilloscope waveform capture, 1:1000 monitoring output, high-voltage probe measurement, datasheet or calibration document is required.

Typical Operation Workflow

  1. Confirm the applicable IEC 62368-1 edition and Figure D.2 / Table D.1 Circuit 3 requirement.
  2. Prepare the DUT and identify the antenna interface or communication port to be tested.
  3. Confirm the test connection method according to the laboratory procedure.
  4. Set the required output voltage, charging time, discharge time and number of tests.
  5. Connect the monitoring output to a storage oscilloscope if waveform observation is required.
  6. Check grounding, insulation clearance and operator safety conditions before testing.
  7. Start the programmed test sequence through the touchscreen interface.
  8. Observe DUT behavior, test status and oscilloscope waveform if applicable.
  9. Record abnormal discharge, breakdown, flashover, failure or other observations.
  10. Discharge safely before disconnecting the DUT or test leads.

Safety Note:
High-voltage pulse and surge testing should only be performed by trained personnel under controlled laboratory conditions.

IEC 62368-1 Figure D.2 Pulse Voltage Generator

The KP-1065S is specifically designed for IEC 62368-1 Figure D.2 pulse voltage testing, with the circuit configuration corresponding to Table D.1 Circuit 3.

It is used for antenna interface insulation withstand verification and should not be confused with a general signal generator, an unrelated EMC surge generator, or the KP-1950S Figure D.1 impulse test generator. For correct model selection, the applicable figure, circuit number, voltage range, DUT interface and monitoring requirement should be confirmed before ordering.

Compliance & Regulatory Assurance

  • The term “pulse voltage generator” can refer to different high-voltage test instruments. The KP-1065S is specifically intended for IEC 62368-1 Figure D.2 antenna interface test generator circuit and Table D.1 Circuit 3 related testing.
  • It should not be confused with a general signal generator, an unrelated EMC surge generator, or the KP-1950S Figure D.1 impulse test generator. For correct model selection, the applicable figure, circuit number, voltage range, DUT interface and monitoring requirement should be confirmed before ordering.
Documentation Downloads
Download technical documentation for the KP-1065S IEC 62368-1 Figure D.2 Pulse Voltage Generator.

PDF
KP-1065S Product Datasheet
Technical datasheet for IEC 62368-1 Figure D.2 pulse voltage generator and Table D.1 Circuit 3 related testing.

CAL
KP-1065S Calibration Report
Calibration report for the KP-1065S IEC 62368-1 Figure D.2 pulse voltage generator.

Technical Inquiry & Expert Support

For correct model selection, please share the following information when sending an inquiry. This helps confirm whether the KP-1065S matches your IEC 62368-1 Figure D.2 / Table D.1 Circuit 3 test plan before quotation or purchase.

Information Needed Example
Applicable standard IEC 62368-1 / GB4943.1
Required figure / circuit Figure D.2 / Table D.1 Circuit 3
DUT interface Antenna port, communication interface, coaxial interface
Required output voltage 0–10 kV or specific test point
Timing requirement Charging time, discharge time, number of tests
Monitoring requirement Oscilloscope waveform observation, 1:1000 output, calibration points
Documentation needs Datasheet, calibration document, inspection record

KingPo can help confirm whether the KP-1065S matches your IEC 62368-1 Figure D.2 / Table D.1 Circuit 3 test plan before quotation or purchase. This helps reduce configuration errors and ensures the equipment is suitable for laboratory testing, certification preparation or production quality control.

Related Videos

IEC 62368-1 Figure D.2 Pulse Voltage Generator

FAQ

Is the KP-1065S designed for IEC 62368-1 Annex D.2 or Figure D.2?
The more accurate wording is IEC 62368-1 Annex D, Figure D.2. “Annex D.2” may cause confusion because Annex D is the appendix, while Figure D.2 is the specific antenna interface test generator circuit. For this product, the circuit configuration corresponds to Table D.1 Circuit 3.
What is the relationship between Figure D.2 and Table D.1 Circuit 3?
Figure D.2 shows the antenna interface test generator circuit, while Table D.1 provides the component values for the related circuits. For the KP-1065S, the relevant component set is Table D.1 Circuit 3, including the 1 nF capacitance and related resistance values.
Is the KP-1065S the same as the KP-1950S impulse test generator?
No. The KP-1950S is used for IEC 62368-1 Figure D.1 / Table D.1 Circuit 1 and Circuit 2 impulse testing, typically involving 10/700 μs and 1.2/50 μs waveforms. The KP-1065S is for Figure D.2 / Table D.1 Circuit 3 antenna interface related pulse voltage testing.
Is the KP-1065S the same as the KP-1066S Annex D.3 generator?
No. The KP-1066S corresponds to IEC 62368-1 Annex D.3 / Figure D.3 electronic pulse generator requirements. The KP-1065S is related to Figure D.2 and Table D.1 Circuit 3. Although both are IEC 62368-1 pulse-related test instruments, their circuits and test purposes are different.
What type of products is the KP-1065S mainly used for?
The KP-1065S is mainly used for AV/ICT equipment with antenna interfaces or communication-related ports. Typical DUTs may include routers, gateways, modems, wireless devices, communication terminals and other products that require IEC 62368-1 related antenna interface insulation withstand verification.
What does the 0–10 kV output range mean in actual testing?
The 0–10 kV range means the output surge voltage can be set according to the test requirement within this range. The actual voltage level should not be selected randomly; it should follow the applicable IEC 62368-1 edition, the DUT category, the test procedure and the laboratory’s approved test plan.
Why is the 1 nF / 30 kV capacitance important?
The 1 nF / 30 kV capacitance is a key part of the Figure D.2 / Table D.1 Circuit 3 configuration. It affects the energy storage and discharge characteristics of the generator. When selecting equipment, buyers should confirm whether this capacitance matches the required standard circuit and test method.
Why does the generator provide a 1:1000 oscilloscope monitoring output?
The 1:1000 monitoring output allows the high-voltage signal to be observed through a suitable oscilloscope and high-voltage measurement setup. For example, a 1 V reading at the monitoring output corresponds to approximately 1000 V at the generator output, depending on the measurement arrangement and calibration conditions.
Can a general EMC surge generator replace the KP-1065S?
Not necessarily. A general EMC surge generator may follow different standards, waveforms and circuit configurations. The KP-1065S is intended for IEC 62368-1 Figure D.2 / Table D.1 Circuit 3 related testing. Before substitution, the circuit, waveform, component values, voltage range and test objective must be carefully compared.
What should be confirmed before ordering the KP-1065S?
Buyers should confirm the applicable standard edition, whether Figure D.2 / Table D.1 Circuit 3 is required, the DUT interface type, output voltage level, charging and discharge time, number of tests, oscilloscope monitoring requirement and whether calibration or inspection documents are needed. This helps avoid selecting the wrong IEC 62368-1 generator.

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