Challenges of Using Signaling Data From Telecom Network in Non-Urban Areas

Håvard Toft, Alexey Sirotkin, Markus Landrø, R. Engeset, J. Hendrikx
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Abstract

Outdoor recreation continues to increase in popularity. In Norway, several avalanche fatalities are recorded every year, but the accurate calculation of a fatal accident rate is impossible without knowing how many people are exposed. We attempted to employ signaling data from telecom network data to enumerate backcountry travelers in avalanche terrain. Each signaling data event contains information about which coverage area the phone is connected to and timestamp. There is no triangulation, making it impossible to know whether the associated phone is moving or stationary within the coverage area. Hence, it's easier to track the phone's movement through different coverage areas. We utilize this by enumerating the number of people with phones traveling to avalanche-prone terrain for the 2019/2020 winter season. We estimated that 13,666 phones were in avalanche terrain during the season, ranging from 0 to 118 phones/day with an average of 75 phones/day. We correlated the number of phones per day against amount of daylight (R2=0.186, p-value <0.01), weekends and holidays (R2=0.073, p-value <0.01), number of bulletin views (R2=0.045, p-value <0.01). Unfortunately, the validation revealed discrepancies between the estimated positions in the mobile network and the true reference positions as collected with a GPS. We attribute this to the algorithm being designed to measure urban mobility and the long distance between the base transceiver stations in mountainous areas. This lack of coherence between the signaling data and GPS records for rural areas in Norway has implication for the utility of signaling data outside of urban regions.
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在非城市地区使用电信网络信令数据的挑战
户外娱乐活动越来越受欢迎。在挪威,每年都有几起雪崩造成的死亡事件,但如果不知道有多少人暴露在雪崩中,就不可能准确计算出致命事故率。我们尝试使用来自电信网络的信号数据来枚举雪崩地形中的偏远旅行者。每个信令数据事件包含有关电话所连接的覆盖区域和时间戳的信息。没有三角测量,因此不可能知道相关的电话是在覆盖范围内移动还是静止。因此,通过不同的覆盖区域更容易跟踪手机的移动。我们通过列举2019/2020冬季携带手机前往雪崩易发地区的人数来利用这一点。我们估计,在这个季节,有13666部手机在雪崩地带,范围从0到118部手机/天,平均75部手机/天。我们将每天使用手机的数量与日照时间(R2=0.186, p值<0.01)、周末和节假日(R2=0.073, p值<0.01)、浏览公告的数量(R2=0.045, p值<0.01)相关联。不幸的是,验证显示移动网络中的估计位置与GPS收集的真实参考位置之间存在差异。我们将此归因于设计用于测量城市机动性和山区基站收发信台之间距离的算法。挪威农村地区的信号数据和GPS记录之间缺乏一致性,这对城市地区以外的信号数据的使用有影响。
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