Geophysical Open Seismic Hardware: Design of a Vertical Seismic Profiling Instrument

A. Mercier, J. Dupuis, B. Giroux
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Abstract

Geophysics can help provide guidance as we adapt to our changing environment. However, with advent of microelectronics, embedded systems and field programmable gate arrays, geophysical instruments have largely become a black box for most users: experiments are limited by the budgets that are available rather than the imagination of the geoscientific community. The solution we propose is to introduce affordable, modular and lightweight multi-component seismic instruments that can be deployed easily by researchers and explorers alike. We have developed a system that allows seismic data acquisition using very sensitive and compact accelerometers. These sensors are coupled to high-speed, multi-channel 24-bit downhole acquisition modules that were developed for this project. The control and synchronization of the system is engineered around microcontrollers that are compatible with the Arduino ecosystem. Communication between the parts of the system is done via a novel frequency modulated RS-485 communication protocol. This protocol makes it possible to send power and data over a wireline with only two conductors. The small diameter and the low cost of this system facilitates the deployment of a large number of channels or in configurations that may not be feasible with commercial equipment. The modular nature of the system makes it easy to adapt to other downhole applications or for draggable sensor arrays on surface. We consider that these efforts will contribute to the democratization of seismic survey in exploration, civil engineering and water prospecting to help reduce the global environmental impacts of human activities.
地球物理开放地震硬件:垂直地震剖面仪的设计
地球物理学可以为我们适应不断变化的环境提供指导。然而,随着微电子、嵌入式系统和现场可编程门阵列的出现,地球物理仪器在很大程度上已经成为大多数用户的黑盒子:实验受到可用预算的限制,而不是地球科学界的想象力。我们提出的解决方案是引入价格合理、模块化和轻量级的多组件地震仪器,这些仪器可以由研究人员和勘探人员轻松部署。我们开发了一种系统,可以使用非常灵敏和紧凑的加速度计来采集地震数据。这些传感器与为该项目开发的高速、多通道24位井下采集模块相耦合。系统的控制和同步是围绕与Arduino生态系统兼容的微控制器设计的。系统各部分之间的通信通过一种新型的调频RS-485通信协议完成。该协议使得仅用两根导线就能在电缆上传输电力和数据成为可能。该系统的直径小,成本低,便于部署大量通道或配置商用设备可能无法实现的配置。该系统的模块化特性使其易于适应其他井下应用或地面可拖动传感器阵列。我们认为,这些努力将有助于地震调查在勘探、土木工程和水勘探中的民主化,以帮助减少人类活动对全球环境的影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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