Abstract

In this paper, we provide an overview of positioning systems for moving resources in forest and fire management and review the related literature. Emphasis is placed on the accuracy and range of different localization and location-sharing methods, particularly in forested environments and in the absence of conventional cellular or internet connectivity. We then conduct a second review of literature and concepts related to several emerging, broad themes in data science, including the terms location-based services (LBS), geofences, wearable technology, activity recognition, mesh networking, the Internet of Things (IoT), and big data. Our objective in this second review is to inform how these broader concepts, with implications for networking and analytics, may help to advance natural resource management and science in the future. Based on methods, themes, and concepts that arose in our systematic reviews, we then augmented the paper with additional literature from wildlife and fisheries management, as well as concepts from video object detection, relative positioning, and inventory-tracking that are also used as forms of localization. Based on our reviews of positioning technologies and emerging data science themes, we present a hierarchical model for collecting and sharing data in forest and fire management, and more broadly in the field of natural resources. The model reflects tradeoffs in range and bandwidth when recording, processing, and communicating large quantities of data in time and space to support resource management, science, and public safety in remote areas. In the hierarchical approach, wearable devices and other sensors typically transmit data at short distances using Bluetooth, Bluetooth Low Energy (BLE), or ANT wireless, and smartphones and tablets serve as intermediate data collection and processing hubs for information that can be subsequently transmitted using radio networking systems or satellite communication. Data with greater spatial and temporal complexity is typically processed incrementally at lower tiers, then fused and summarized at higher levels of incident command or resource management. Lastly, we outline several priority areas for future research to advance big data analytics in natural resources.

Highlights

  • In this paper, we describe and review literature on several technologies and estimation methods that can be used to determine and communicate the position, navigation, and timing (PNT) of movingForests 2019, 10, 458; doi:10.3390/f10050458 www.mdpi.com/journal/forestsForests 2019, 10, 458 objects, equipment, people, fish and wildlife, and even physical masses in forests.We initially conducted a systematic review of the first twenty Google Scholar search results for each positioning system term, followed by the words forest and wildland fire, both singly and paired with accuracy and range, as documented in Appendix A

  • We propose a tiered model (Figure 15) in which low-bandwidth, low-cost, and short-range devices support functions locally in natural resources with smartphones serving as data hubs for individuals or equipment and data is exchanged among phones or tablets using miniaturized radios

  • We have provided a review of available PNT technologies in forested environments, and for several emerging technologies and concepts that are likely to impact natural resource management

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Summary

Introduction

We describe and review literature on several technologies and estimation methods that can be used to determine and communicate the position, navigation, and timing (PNT) of moving. Based on our review of available positioning methods and emerging big data concepts in location-based services, wearable technology, and the IoT, we propose a simple, general approach for multi-tiered data collection, incremental processing and analysis, and network communication in forest management and wildland fire. We feel this concept provides a general, interim solution for scalable data collection and analysis off-the-grid that can be deployed readily using available tools and technology. We identify nine priority research needs to advance basic and applied science in this broad subject area

Types of Positioning Technologies
GNSS—Smartphone and Tablet-Based Mapping
Augmented GNSS and GNSS with RTK Correction
GNSS with Two-Way Satellite Communication
Inertial
Simultaneous
2.10. RFID and Acoustic Positioning
2.11. Barcodes and QR Codes
2.12. Video Object Detection and Relative Positioning Methods
Accuracy and Range
Method
Location-Based Services
Wearable Technology
Activity Recognition
Mesh Networking
Big Data
A Hierarchical Model for Processing and Sharing Data
Emerging Research Needs
Landscape-Scale Mapping of Vegetation and Canopy Impacts on Position Accuracy
Evaluating Potential Adverse Health Impacts of Wearable Technology Use
Conclusions
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