Development of pervasive compaction monitoring interface for soil compactor — A GPS/GSM based approach

R. Prakash, K. Suresh, B. Venkatalakshmi, S. Vijayakumar
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引用次数: 2

Abstract

Pervasive computing provides an attractive visionfor the future. Mobile and stationary devices will dynamically connect and coordinate to seamlessly help people to implement their tasks. However, in reality still there are practices which require pervasive monitoring especially in the domain of geo vehicle monitoring. To make the vision of pervasive computing technologies for the geo vehicle monitoring we are integrating technologies like GPS (Global Positioning Technology), GSM (Global System for Mobile) for compaction monitoring. GPS is recently used for wide applications like orbit identification and positioning. GPS need some compatible receivers which support location-awareness using positioning technique like LBS (Location Based System). Soil compaction is a form of physical degradation resulting in densification and distortion of the soil where biological activity, porosity and permeability were reduced, soil strength is increased and soil structure partly destroyed. Monitoring the soil compaction manually in the workspace is not reliable and continuous monitoring by a single person may not be feasible. This would be the motivation to choose wireless communication. The compaction data and the location data will be sent to the server for remote monitoring. GSM will allow us to transmit the data to the remote server. The objective of this paper is to provide better accuracy with low cost GPS receiver's positioning results. This paper makes use of GPS, ARM7/TDMI (LPC2378) family and GSM. NMEA (National Marine Electronics Association) data acquisition from GPS is monitored. Compaction input is interfaced with GPS coordinates. Alerts can be sent from the vehicle to the user mobile phone through GSM communication using AT commands.
基于GPS/GSM的土壤压实机普适压实监测接口的开发
普适计算为未来提供了一个诱人的前景。移动和固定设备将动态连接和协调,以无缝地帮助人们执行他们的任务。然而,在现实中仍然存在着需要普遍监测的做法,特别是在地理车辆监测领域。为了实现地理车辆监控的普适计算技术的愿景,我们正在整合GPS(全球定位技术)、GSM(全球移动系统)等技术来进行压实监测。GPS最近被广泛应用于轨道识别和定位等领域。GPS需要一些兼容的接收器,使用LBS(基于位置的系统)等定位技术支持位置感知。土壤压实是一种物理退化形式,导致土壤致密化和扭曲,土壤的生物活性、孔隙度和渗透性降低,土壤强度增加,土壤结构部分破坏。人工监测工作区内的土壤压实不可靠,单人连续监测也不可行。这将是选择无线通信的动机。压缩数据和位置数据将发送到服务器进行远程监控。GSM将允许我们把数据传送到远程服务器。本文的研究目的是利用低成本的GPS接收机提供更高精度的定位结果。本文采用了GPS、ARM7/TDMI (LPC2378)系列和GSM。监测NMEA(国家海洋电子协会)从GPS获取的数据。压实输入与GPS坐标接口。警报可以通过使用AT命令的GSM通信从车辆发送到用户的移动电话。
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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