用于玛雅地区考古特征检测的大规模深度学习模型

IF 2.6 1区 地球科学 Q1 ANTHROPOLOGY Journal of Archaeological Science Pub Date : 2024-07-17 DOI:10.1016/j.jas.2024.106022
Leila Character , Tim Beach , Takeshi Inomata , Thomas G. Garrison , Sheryl Luzzadder-Beach , J. Dennis Baldwin , Rafael Cambranes , Flory Pinzón , José L. Ranchos
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引用次数: 0

摘要

许多玛雅考古区域都没有全面或系统地绘制地图,因为遗址往往隐藏在崎岖地形的热带森林树冠下,需要花费数十年时间才能定位、识别和绘制地图。近年来,激光雷达数据收集量激增,而机器学习提供了一种利用这些激光雷达数据的方法,使特征分析更加高效,执行更加一致。目前,针对玛雅地区的小型特定区域模型数量有限,其中最大的一个模型面积达 230 平方公里。在此,我们介绍了基于卷积神经网络(CNN)的大规模、多区域物体检测模型的基础,该模型使用机载激光扫描数据或激光雷达,对玛雅地区 615 平方公里的区域进行考古特征检测,并介绍了另外 885 平方公里测试区域的初步结果。这为研究人员绘制整个玛雅低地考古区域地图的模型奠定了基础,使研究人员能够在数周或数月内绘制整个玛雅低地考古区域地图,而不是数十年。值得注意的是,我们发现,与在单一地区训练的模型相比,在地形明显不同的多个地区训练的模型对所有地区都能产生更好的结果。这里介绍的广义模型的 F1 得分为 0.80。结果还包括许多潜在的新结构检测,包括激光雷达对一个考古区域的检测,该考古区域尚未进行过全面的地面勘测,而且位于玛雅低地的一个完全不同的国家,与模型的训练地完全不同。该模型是对玛雅地区考古特征绘图的大规模机器学习方法的一次尝试,展示了如何将大数据整合到传统考古工作流程中。激光雷达已经在整个玛雅世界和热带地区的其他地方展示了更多的古代玛雅基础设施,而这项利用激光雷达进行机器学习的研究则在玛雅热带森林的广大地区展示了更多的玛雅基础设施。
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Broadscale deep learning model for archaeological feature detection across the Maya area

Many Maya archaeological areas are not comprehensively or systematically mapped because ruins, often hidden under tropical forest canopy in rugged terrain, can take decades to locate, identify, and map. Recent years have seen an explosion of lidar data collection, and machine learning provides a way to exploit these lidar data, making feature analyses more efficient and consistently executed. At present, there are a limited number of small, area-specific models that exist for the Maya area, the largest of which covers 230 km2. Here we present the foundation for a broadscale, multi-area-based convolutional neural network (CNN) object detection model that uses airborne laser scanning data, or lidar, for archaeological feature detection across 615 km2 of the Maya area, as well as preliminary results from an additional 885 km2 test area. This sets the path for a model that will enable researchers to map archaeological areas across the entire Maya Lowland area in weeks or months instead of decades. Notably, we find that a model trained on multiple areas with significantly different topographies produces better results for all areas as compared to a model trained on a single area. The broadscale model here presented produced an F1 score of 0.80. Results also include many potential new structure detections, including detections on lidar at an archaeological area that has not yet been comprehensively ground-surveyed and is located in an entirely different country in the Maya Lowlands from where the model was trained on. This model represents an attempt at a broadscale machine learning approach for archaeological feature mapping in the Maya area and demonstrates how big data can be integrated into traditional archaeological workflows. Lidar has already shown much greater ancient Maya infrastructure throughout the Maya world and elsewhere in the tropics, and this study using machine learning with lidar is showing even greater Maya infrastructure through vast areas of the Maya tropical forest.

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来源期刊
Journal of Archaeological Science
Journal of Archaeological Science 地学-地球科学综合
CiteScore
6.10
自引率
7.10%
发文量
112
审稿时长
49 days
期刊介绍: The Journal of Archaeological Science is aimed at archaeologists and scientists with particular interests in advancing the development and application of scientific techniques and methodologies to all areas of archaeology. This established monthly journal publishes focus articles, original research papers and major review articles, of wide archaeological significance. The journal provides an international forum for archaeologists and scientists from widely different scientific backgrounds who share a common interest in developing and applying scientific methods to inform major debates through improving the quality and reliability of scientific information derived from archaeological research.
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