광대역 밴드갭 고전력 반도체 측정
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키사이트 엔지니어들과 함께 와이드 밴드갭(WBG) 전력 반도체 테스트에 대한 기술 역량 강화 심층 과정에 참여하십시오. 이 과정에서는 오늘 바로 연구실에 적용할 수 있는 실제 데모 및 단계별 지침을 통해 고급 WBG 측정 기술을 안내합니다. 이 과정을 마치면 WBG 디바이스를 더 높은 정확성과 효율성으로 특성화하고 자신감 있게 검증하며 모델링할 수 있습니다.

다음을 알아보십시오.

SiC 및 GaN 스위칭 동작 테스트 시 측정 과제를 극복하십시오. JEDEC 표준을 준수하는 더블 펄스 테스트를 수행하고 동적 손실을 분석할 수 있습니다. 테스트 데이터를 시뮬레이션 준비 모델로 변환하여 가속화된 설계 워크플로를 구현하십시오.

이 과정은 전력 전자 엔지니어, 테스트 엔지니어 또는 와이드 밴드갭 디바이스 검증과 더 높은 성능, 더 뛰어난 신뢰성 및 더 빠른 출시 시간을 위한 테스트 설정을 최적화하는 방법에 대한 심층적인 이해를 얻고자 하는 모든 사람에게 적합합니다.

레슨
회로 설계를 위한 B1506A 전력 소자 분석기 이미지

브로슈어

회로 설계를 위한 B1506A 전력 소자 분석기

<p><b>B1506A Power Device Analyzer for Circuit Design</b></p> <p><b>The B1506A Eliminates Power Semiconductor Device and Component Performance Uncertainties for Circuit Designers</b></p> <p>Do you have confidence that your circuit will function correctly in mission-critical applications?</p> <p>The B1506A provides you with power device data under real operating conditions to ensure sufficient circuit operating margins.</p> <p>Do you worry about having to recall thousands of products because you used faulty devices in your circuits?</p> <p>Even without test experience, the B1506A allows you to measure IV and CV across temperature and identify counterfeit and out-of-spec devices.</p> <p><u>Features</u></p> <p>• Measure all IV parameters (Ron, BV, Leakage, Vth, Vsat, etc.)</p> <p>• Measure transistor input, output, and reverse transfer capacitances at high voltage biases</p> <p>• Measure gate charge (Qg) for N-ch MOS and IGBT</p> <p>• Performs power loss (conduction, driving, and switching evaluation</p> <p>• Menu-driven user interface specially designed for circuit designers (Easy Test Navigator - ETN)</p> <p>• Quick and automatic device datasheet generation</p> <p>• Wide current and voltage operating range (1500A, 3kV)</p> <p>• Thermal test capability ( -50 to +250 °C)</p> <p>• Oscilloscope View supports visual verification of pulsed measurement waveforms on the front panel</p> <p>• Cover typical semiconductor devices and electronic components used in high-power circuits</p> <p><u>Benefits</u></p> <p>• Optimize circuit performance thru correct power device and power electronics component selection</p> <p>&nbsp;&nbsp;&nbsp;&nbsp;° Sufficient yet efficient circuit operating margin</p> <p>&nbsp;&nbsp;&nbsp;&nbsp;° Small form factor</p> <p>&nbsp;&nbsp;&nbsp;&nbsp;° Low power loss</p> <p>&nbsp;&nbsp;&nbsp;&nbsp;° Higher reliability thru screening of potentially faulty devices</p> <p>&nbsp;&nbsp;&nbsp;&nbsp;° Lower product cost</p> <p>• Maximize productivity via fast development cycles</p> <p>&nbsp;&nbsp;&nbsp;&nbsp;° Reduced prototype development cycles</p> <p>&nbsp;&nbsp;&nbsp;&nbsp;° Fast and effective power semiconductor device and component selection</p> <p>&nbsp;&nbsp;&nbsp;&nbsp;° Quick power semiconductor device and component troubleshooting</p> <p><b>Complete Power Device Characterization to Guarantee that Your Circuits Work the First Time</b></p> <p><b>Automatically obtain the key parameters necessary for robust circuit operation across a wide operating range</b></p> <p>If you are a circuit designer using power devices in your products, then you know how important it is to have an accurate and thorough understanding of the performance of those devices over a wide range of conditions. Power devices ultimately determine the power loss in an electronic circuit, so a deep understanding of their characteristics is critical to developing reliable and energy-efficient products. Unfortunately, the typical power device data sheet only shows behavior across a limited range of operating conditions. In addition, the test methodologies necessary to obtain key datasheet parameters are not always straightforward, and measuring device parameters on curve tracers and other traditional equipment can be tedious and time-consuming. The growing use of wide bandgap devices, especially those fabricated using SiC, GaN, or Ga2O3, has also introduced additional test complexity for parameters such as on-resistance, capacitance, and breakdown voltage that require new measurement solutions.</p> <p>Keysight Technologies, Inc. B1506A meets a vital need by providing an automated and easy-to-use means to extract power device parameters. It can measure all of the parameters shown in the table on the right, and its intuitive GUI makes it easy for even a novice user to extract critical device parameters across a wide range of current, voltage, and temperature conditions.</p> <p><b>Verify temperature performance to ensure operation in harsh environments</b></p> <p>Power devices and components are used in many products, including heavy equipment, high-speed railways, and automobiles. For obvious reasons, all of these products need to be highly reliable and operate under harsh environmental conditions. Thermal performance is of particular importance since device operation at both low temperatures (for &quot;cold&quot; automotive start), and high temperatures (for devices located near heat-emitting equipment) must be guaranteed. In addition, to understanding general device characteristics over temperature, it may also be necessary to screen devices across temperatures since devices that look fine at room temperature can sometimes be out of spec at low or high temperatures. Unfortunately, temperature characterization of power devices and components is not easy. Thermal test chambers can take a long time for their temperature to stabilize, and long cables leading from the chamber to the test equipment can create resistive and inductive oscillation problems.</p> <p>The B1506A meets all of these power device and component temperature testing challenges. It supports industry-standard inTEST Thermostream temperature control systems, allowing the B1506A to accurately and automatically characterize devices from -50 to 220° C. Moreover, if only high-temperature characterization is required, then InTEST can provide a thermal plate that supports temperature measurements from room up to 250 °C. Both of these solutions allow temperature measurements to be made in the B1506A test fixture, eliminating lengthy cables and minimizing the risk of oscillation. Both of these solutions also take into account condensation and user safety issues. The B1506A simplifies the previously arduous task of power device temperature characterization, enabling you to focus on your primary goal of ensuring that your products meet all of their temperature performance requirements.</p>