Prospects of using the Schottky-Barrier Composite Two-Tier FETs in a HIC of the Microwave Power Amplifiers

V. Iovdalskiy, N.V. Ganyushkina, A. Panas
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Abstract

The paper demonstrates relevance and prospects of using the Schottky-barrier composite two-tier FETs based on the GaN crystals in the previously developed hybrid integrated circuit design, as well as the possibility to increase power dissipation up to 200 W with using one pair of crystals and to 250 W with using the two pairs. Thermal calculation results are presented proving the prospects of using the proposed hybrid integrated circuit design. Crystals of the two types GaAs and GaN are compared. Efficiency and prospects for using GaN crystals and Schottky barrier composite two-tier field-effect transistors in a hybrid integrated circuit of the microwave power amplifier could significantly improve its weight and size characteristics. Advent and use of the Schottky-barrier field-effect transistors based on the GaN crystals with the power of up to 100 W and more was temporarily solving the problem of increasing the power and improving the weight and size characteristics of the microwave amplifiers. When comparing maximum temperatures on the transistor crystal at the released power of 1 W, it was found that an increase in the thermal conductivity of the additional heat sink contributed to maximum temperature displacement from the upper crystals to the lowers and changed the heat flow direction. GaN crystals use increased the power level over the entire range of thermal conductivity of the additional heat sink materials 500--2000 W/(m · K), and the power ratio with an increase in the thermal conductivity of the additional heat sink was approximately equal to two. Prospects of using the proposed design of a hybrid integrated circuit of power amplifiers was justified
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肖特基势垒复合两层场效应管在微波功率放大器高频集成电路中的应用前景
本文展示了在先前开发的混合集成电路设计中使用基于GaN晶体的肖特基势垒复合两层场效应管的相关性和前景,以及使用一对晶体将功耗提高到200 W和使用两对晶体时将功耗提高到250 W的可能性。热计算结果证明了混合集成电路设计的应用前景。对GaAs和GaN两种晶体进行了比较。在微波功率放大器的混合集成电路中使用GaN晶体和肖特基势垒复合两层场效应晶体管的效率和前景可以显著改善微波功率放大器的重量和尺寸特性。基于氮化镓晶体的肖特基势垒场效应晶体管的出现和使用,其功率高达100w以上,暂时解决了微波放大器的功率增加、重量和尺寸特性的改善问题。对比释放功率为1 W时晶体管晶体上的最高温度,发现附加散热片导热系数的增加导致最高温度从上晶体向下晶体位移,并改变了热流方向。在导热系数为500—2000 W/(m·K)的附加散热器材料的整个范围内,GaN晶体的使用增加了功率水平,并且随着导热系数的增加,附加散热器的功率比大约等于2。论证了所设计的功率放大器混合集成电路的应用前景
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来源期刊
CiteScore
1.10
自引率
0.00%
发文量
40
期刊介绍: The journal is aimed at publishing most significant results of fundamental and applied studies and developments performed at research and industrial institutions in the following trends (ASJC code): 2600 Mathematics 2200 Engineering 3100 Physics and Astronomy 1600 Chemistry 1700 Computer Science.
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