A high temperature wideband low noise amplifier for downhole applications

Michael L. Cunningham, D. Ha, Kwang-Jin Koh
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引用次数: 11

Abstract

As the oil industry continues to drill deeper to reach new wells, electronics are required to operate at extreme pressures and temperatures. Coupled with substantial real-time data targets, the need for robust high speed electronics is quickly on the rise. This paper presents a high temperature wideband low noise amplifier (LNA) with zero temperature coefficient maximum available gain (ZTCMAG) biasing for a downhole communication system. The proposed LNA is designed and prototyped using 0.25 μm GaN on SiC RF transistor technology, which is chosen due to the high junction temperature capability. Measurements show that the proposed LNA can operate reliably up to an ambient temperature of 230 C with a minimum noise figure (NF) of 2.0 dB, average gain of 16.1 dB, and input P1dB of 4.0 dBm from 230.5–285.5 MHz. The maximum variation with temperature from 25°C to 230°C is 1.53 dB for NF and 0.65 dB for gain.
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一种适用于井下的高温宽带低噪声放大器
随着石油行业不断深入钻井以开采新井,电子设备需要在极端压力和温度下工作。再加上大量的实时数据目标,对强大的高速电子设备的需求正在迅速上升。提出了一种用于井下通信系统的零温度系数最大可用增益(ZTCMAG)偏置的高温宽带低噪声放大器。所提出的LNA采用0.25 μm GaN on SiC射频晶体管技术进行设计和原型设计,该技术的选择是由于高结温能力。测量结果表明,在230.5 ~ 285.5 MHz范围内,LNA可以在230℃的环境温度下可靠工作,最小噪声系数(NF)为2.0 dB,平均增益为16.1 dB,输入P1dB为4.0 dBm。温度从25°C到230°C的最大变化是NF为1.53 dB,增益为0.65 dB。
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