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Talk:Methane leak

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[edit]

The article should begin with a topic sentence, such as "A methane leak is a type of significant natural gas leak from an industrial facility."

Links should be downcased as far as possible: so [[methane]] rather than [[Methane]]. Only the first occurrence of a word or phrase should be linked, in general. In the case of methane, if it is used bolded in the topic sentence as shown, you'd link the second occurrence. This just makes it easier to read.

Months and years normally do not need to be linked.

Create the heading with ==Examples of methane leaks==

To reuse the reference, make the later footnotes just with <ref name="LoC"/>, i.e. the name tag just with a slash in it.

Obviously this is just a "stub" article so far, in need of expansion. Charles Matthews (talk) 08:41, 27 April 2023 (UTC)Reply

Working on draft

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@MatthewDuncan101: Your sandbox article draft has been moved here, at a downcased title, and is ready for further development. In a few days time, I may start working on it. You can of course work on it yourself. You are an autoconfirmed user, meaning that you have the Move button on the Tools menu. In due course I'll move this draft into the main article space, when I think it is of the right standard. You can also do that yourself. Charles Matthews (talk) 09:16, 27 July 2023 (UTC)Reply

Wiki Education assignment: Introduction to Environmental Sciences

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This article was the subject of a Wiki Education Foundation-supported course assignment, between 6 January 2025 and 22 April 2025. Further details are available on the course page. Student editor(s): Madelineweller6 (article contribs). Peer reviewers: Solc1234.

— Assignment last updated by MethanoJen (talk) 20:00, 4 March 2025 (UTC)Reply

Suggested Addition: LiDAR-Based Methane Detection (Methane Detection Sensors section)

[edit]

Hello! I'd like to recommend adding a section on LiDAR-based methane detection technologies to enhance coverage of modern remote monitoring methods.

Proposed text: LiDAR-Based Detection

LiDAR (Light Detection and Ranging) systems use laser pulses—typically in the infrared—to detect and quantify atmospheric methane via differential absorption. These systems, often mounted on aircraft or drones, can swiftly survey large areas to locate methane plumes and estimate emission rates with high spatial resolution. They are non-intrusive and well-suited for remote or hazardous environments, though they rely on line-of-sight and may be hindered by fog, dust, or cloud cover. Operational and deployment costs tend to be higher than ground-based sensors, but recent blinded field evaluations suggest that airborne LiDAR systems can perform comparably to traditional methods such as optical gas imaging (OGI), with the added advantage of covering more sites in less time. Simulations using field-derived sensitivity thresholds also indicate that optimized LiDAR routing may significantly reduce leak detection program costs while maintaining or improving overall emissions mitigation.[1][2]


Rationale: These peer-reviewed studies provide strong, independent support for LiDAR’s application in methane leak detection, including performance under field conditions, quantification accuracy, and regulatory relevance.

Disclosure: I have a potential COI, as I consult in environmental technologies, so I’m proposing this addition rather than editing directly. Feedback or improvements are welcome. If there's consensus, I’d appreciate if an uninvolved editor could add or adapt the section. Elise81 (talk) 15:48, 22 July 2025 (UTC)Reply

References

  1. Johnson, M. R., Tyner, D. R., & Szekeres, A. J. (2021). “Blinded evaluation of airborne methane source detection using Bridger Photonics LiDAR.” Remote Sensing of Environment, 259, 112418. https://doi.org/10.1016/j.rse.2021.112418
  2. Yakovlev, S. V., Sadovnikov, S. A., & Romanovskii, O. A. (2022). “Mobile Airborne Lidar for Remote Methane Monitoring: Design, Simulation of Atmospheric Measurements and First Flight Tests.” Remote Sensing, 14(24), 6355. https://doi.org/10.3390/rs14246355