Measured GPS performance under LTE-M in-device interference

O. Apilo, Mikko Hiivala, Atte Kuosmonen, Jani Kallankari, H. Amin, M. Lasanen, M. Berg, A. Pärssinen
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引用次数: 3

Abstract

In this paper we present the measurement results for time-to-fix, position accuracy, and carrier-to-noise ratio of mass-market Global Positioning System (GPS) receivers under the in-device interference from an LTE-M transmitter. The laboratory measurement set-up is built using software-defined radio (SDR) platforms to conductively feed emulated GPS L1 signals and LTE-M interference signals to the antenna input of the GPS receivers. The LTE-M interference from second harmonics is accurately modelled taking into account the transmitter activity patterns in different coverage enhancement modes. According to measurements, there are large variations in interference tolerance between different GPS receivers. REC01 was able to tolerate high level of interference during tracking and also in acquisition as long as the interference pulse duration is not too long (tens of milliseconds). REC02 performed clearly worse and tolerated only low levels of LTE-M interference during both acquisition and tracking. The same measurement set-up can be used with any GPS receiver for designing proper isolation and filtering levels for co-existing LTE-M transmitters.
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在LTE-M设备内干扰下测量的GPS性能
在本文中,我们给出了在LTE-M发射机的设备内干扰下,大众市场全球定位系统(GPS)接收机的定位时间、位置精度和载波噪声比的测量结果。实验室测量装置使用软件定义无线电(SDR)平台构建,将模拟GPS L1信号和LTE-M干扰信号导电馈送到GPS接收器的天线输入。考虑了不同覆盖增强模式下发射机的活动模式,对LTE-M二次谐波干扰进行了精确建模。根据测量,不同的GPS接收机之间的干扰容限差异很大。只要干扰脉冲持续时间不太长(几十毫秒),REC01能够在跟踪和采集期间容忍高水平的干扰。REC02的表现明显更差,在采集和跟踪期间只能容忍低水平的LTE-M干扰。相同的测量设置可用于任何GPS接收器,为共存的LTE-M发射机设计适当的隔离和滤波水平。
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