Field geotraverse, geoparks and geomuseums

Gibbons, Wes; Moreno, Teresa; Kojima, Tomoko

doi:10.1144/goj.18

Cited by 2 publications

(1 citation statement)

References 21 publications

Supporting

Mentioning

Contrasting

Order By: Relevance

“…It is only from an appreciation of this change or 'delta' , in radiation signature (from what previously existed) that successful and cost-efficient remediation can occur. The absence of a suitable prior baseline for comparison has resulted in significant difficulties in remediation activities across the Fukushima-affected fallout zone [11,12]. Consequently, a high spatial and temporal resolution understanding of the background radiation levels and signatures across towns, cities, regions, and even entire countries, is as essential for civic recovery following a radiological release event as it is for preventing such an attack.…”

Section: Introductionmentioning

confidence: 99%

A highly scalable and autonomous spectroscopic radiation mapping system with resilient IoT detector units for dosimetry, safety and security

Russell-Pavier

Kaluvan²,

Megson-Smith³

et al. 2023

J. Radiol. Prot.

View full text Add to dashboard Cite

Technologies utilising radiological materials across power generation, defence, industry, research, and medicine have increased the global inventory of highly active and hazardous materials. Resultantly, an amplified threat exists of illicitly obtained materials being used as part of hostile acts. The potential for intentional releases occurs alongside risks from natural disasters or facility accidents. In any such event, it is crucial to rapidly assess the release composition and extent for response and remediation activities. Therefore, the deployment of an effective, resilient, and autonomous radiation monitoring network is pivotal both during and after an incident. Underpinning this assessment is the detailed understanding of the pre-event, or background, radiation levels, the knowledge of which is also essential in assessing a populations dosimetric exposure to, and impact from, anthropogenic and naturally occurring/varying sources of ionising radiation. Presented here is a fully operational cloud-based spectroscopic radiation mapping platform comprising IoT modules compatible with cellular networks, without modification, in over 180 countries. Combined with locally roaming vehicles, a continuous multi-pass radiological characterisation of an urban environment was performed. Such IoT devices are deployable as either individual sensors, for specific localised temporal events, or integrated over a greater time period (and area) to represent a larger static sensor. Over several months of continued operation, more than one million individual location-referenced gamma-ray spectra were collected and securely uploaded, in real-time, to an online cloud database and automatically characterised via a custom multi-step workflow. Fine-scale local variations in the radiological fingerprint of a 1 km $\times$ 1 km urban area were subsequently rendered in near-real-time to an interactive secure online graphical dashboard for temporal, spatial, and spectral interrogation by the user. Considerations for the automated ‘elastic’ handling of ever-expanding volumes of input data have been carried out, facilitating propagation and expansion of the systems database without human input.

show abstract

Section: Introductionmentioning

confidence: 99%