citizen science Archives - 51ÁÔÆæ /tag/citizen-science/ World-leading geological solutions Wed, 25 Mar 2026 07:59:46 +0000 en-GB hourly 1 https://wordpress.org/?v=6.9.4 /wp-content/uploads/2020/03/cropped-BGS-favicon-logo-32x32.png citizen science Archives - 51ÁÔÆæ /tag/citizen-science/ 32 32 Citizen science: become part of a real-time Global Landslide Detector /news/citizen-science-become-part-of-a-real-time-global-landslide-detector/ Mon, 29 Aug 2022 18:00:00 +0000 /?p=88944 51ÁÔÆæ and partners are trialling a new social media tool that detects worldwide landslides in real time.

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Social media is a valuable tool. Society is now sharing a constant stream of real-time information across a wide variety of digital platforms. Alongside all the pictures of pets, family members and delicious dinners, social media channels are also used when disaster strikes. In this respect, social media has the power to harness important data that can have a huge impact for the global good. Take, for instance, the ability to learn about natural disasters across the world, as they unfold in real time.

51ÁÔÆæ has been working with earthquake and social media specialists at the and computer scientists at the to build the Global Landslide Detector, a tool that uses machine learning to recognise landslides in photographs shared on social media.

When a landslide happens, the damage caused is usually unknown beyond the locality until news reporters can attend the scene or once satellites have been able to collect images, and their responding communities have processed the data. This is called ‘data latency’ and can take some time – at best a few hours; at worst, several days.

We realised we could help improve this situation by speeding up the timescale in which landslide data becomes available on a global scale.

Why is social media useful for landslides research?

Social media information is imperfect; there is an awful lot of content being produced very quickly and it is constantly being added to. While this can seem a little overwhelming, if you have a way of untangling valuable updates from the social noise, what you will end up with is data in large quantities, in real time, covering geographical areas much larger than any conventional ground sensors can detect. These ‘social sensors’ allow access to a rich source of human information such as text, videos, photographs, timestamps and locations. This can provide us with disaster information very quickly.

A typical tweet from the @BGSLandslides team
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A typical tweet from the @BGSLandslides team. BGS © 51ÁÔÆæ.

The is a publicly available web service that extracts, in real time, photographs of landslides published on social media. This is something we hope will be welcomed by various sectors, including disaster risk reduction managers, first responders and landslide database researchers.

The detector currently monitors Twitter only, although there is scope for expansion in the future. It extracts tweets that contain a photograph in association with particular keywords. The keywords we’ve inputted are currently available in 31 different languages, which means that translation shouldn’t be a barrier to using the tool. Using machine learning, the tool then analyses the photographs automatically, to decide whether they contain a landslide or not. The data from this process is then organised by location and markers are placed on a map.

Diagram showing how the Global Landslide Detector extracts relevant information from Twitter and sorts photographs into landslides and not landslides.
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Diagram showing how the Global Landslide Detector extracts relevant information from Twitter and sorts photographs into landslides and not landslides. BGS © 51ÁÔÆæ.

How you can help

Currently we are trialling the on the website. We are asking for feedback on several elements from the scientific landslide community, as well as anyone else with an active interest, including:

  • refining the landslide keywords used to extract tweets
  • expanding and updating keywords in other languages
  • general layout

You can find an on the website, which may lead to further discussion, if needed.

Limitations

Before using the tool, it is important to understand some of its limitations.

  • The Global Landslides Detector does not replace expert survey; data can come from any social media user
  • Each photograph is analysed in isolation 
  • The tool does not discriminate between landslide ‘types’ but aims to recognise zones of depletion (where the material has come from) and accretion (where it has been deposited); this excludes scenarios where the landslide debris has been removed by coastal or fluvial erosion, or where a landslide has been remediated
  • The tool aims to show contemporary, rather than historic, landslides
  • There must be a clear representation of a landslide as the major focus of the image
  • Where representation is borderline, consideration is given to whether the end user would be concerned by the image being labelled as a landslide, e.g. in a situation where another geomorphological feature such as a retaining wall or a sinkhole might be marked as a landslide
  • The methodology is aimed to identify landslide features, but the task is not to discriminate scale, meaning that images labelled as landslides may be very small (less than 1 m and not strictly a landslide)
  • Aerial photographs including multiple landslide events are not captured by the tool
  • The tool is not intended to be used in isolation during a disaster scenario but could complement existing workflows and provide new data, taking into consideration the limitations described and data biases (e.g. mobile coverage; widespread use of social media; population density)

The Global Landslide Detector website is not under the control of BGS and BGS is not responsible for the website, policies or practices.

Further reading

Pennington, C V L, Bossu, R, Ofli, F, Imran, M, Qazi, U W, Roch, J, and Banks, V. 2022. . International Journal of Disaster Risk Reduction, Vol. 77, 103089. DOI: https://doi.org/10.1016/j.ijdrr.2022.103089

Ofli, F, Imran, M, Qazi, U, Roch, J, Pennington, C V L, Banks, V, and Bossu, R. 2022. . The Thirty-Fourth Annual Conference on Innovative Applications of Artificial Intelligence (IAAI-22), February 24-26, 2022, Vancouver, BC, Canada. Available at:

CatherinePennington
Catherine Pennington

Engineering geologist, landslide specialist

51ÁÔÆæ Keyworth
Find out more

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iGeology: enhancing the visibility of BGS map data and reports /news/igeology-enhancing-the-visibility-of-bgs-map-data-and-reports/ Wed, 24 Mar 2021 12:04:40 +0000 /?p=70271 Downloaded over 400 000 times worldwide by building surveyors, walkers, teachers and geologists

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Please note that, as part of our ongoing programme of application upgrades and redevelopment, the iGeology app was retired on 1 August 2022.

iGeology offers a digital geology map of Britain, which allows users to explore their local geology at street-level scale virtually anywhere in the UK. Since launching in 2010, iGeology has been downloaded more than 400 000 times and over one thousand users access the app every week.

iGeology has provided over four thousand bespoke geological reports to industry professionals. The on-demand generation and delivery of radon reports and natural subsidence reports have enabled small and medium-sized enterprises to incorporate BGS trusted data in order to provide authoritative answers to geological hazards. iGeology business users who have utilised these data products include building surveyors, land surveyors and arboricultural consultants.

iGeology users can buy bespoke geological reports that include landslide, subsidence and radon reports. BGS © 51ÁÔÆæ.
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iGeology users can buy bespoke geological reports that include landslide, subsidence and radon reports. BGS © 51ÁÔÆæ.

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iGeology and citizen science

Since 2018, iGeology has enabled users to register for a free BGSiD account in order to submit geological observations, provide feedback on the 51ÁÔÆæ Digital Geological Map of Great Britain (BGS Geology 50K) or tell other users about geological points of interest. Since then, over four thousand users have registered and there have been hundreds of detailed submissions, including photographs and technical commentary on BGS Geology 50K, demonstrating the level of engagement and interest shown by our app user base.

iGeology has reached new audiences and helped to raise awareness of BGS products and research. The app has been downloaded in 134 countries worldwide, making the BGS, as an organisation and brand, more visible to a wider international audience.

We have also replicated our mobile apps for national governments, such as mGeology created for the UAE Ministry of Energy. Smart services enable ready access to national data assets. mGeology makes an important and leading contribution to this strategy. Image: Map tile courtesy of MapQuest. ©OpenStreetMap contributors. Geological Materials ©Ministry of Energy 2015.
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We have also replicated our mobile apps for national governments, such as mGeology created for the . Smart services enable ready access to national data assets. mGeology makes an important and leading contribution to this strategy.
Image: Map tile courtesy of MapQuest. ©OpenStreetMap contributors. Geological Materials ©Ministry of Energy 2015.

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iGeology for teaching and public engagement

Through iGeology, BGS geological data is available to anyone, including non-specialists who can view and use geological maps without downloading any specific software. iGeology includes bedrock and superficial geology, borehole locations and geological features including faults, folds and mineral veins. iGeology is a useful tool for teaching geology in the field or as an aid to explain local landscape evolution to the public.

iGeology is widely used in fieldwork as a teaching tool for geology and geography students. iGeology includes bedrock and superficial geology, borehole locations and geological features including faults, folds and mineral veins. BGS © 51ÁÔÆæ.
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iGeology is widely used in fieldwork as a teaching tool for geology and geography students. iGeology includes bedrock and superficial geology, borehole locations and geological features including faults, folds and mineral veins. BGS © 51ÁÔÆæ.

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The Geology of Britain viewer is available via a web browser.

iGeology: timeline 2010 to present

2010

iGeology launch

2011

Best Mobile App, Storytelling with Maps contest 2011

2011

AGI Innovation & Best Practice (Highly commended)

2012

iGeology 3D launch

2012

In-App purchases: natural subsidence reports and radon risk

2012

100000 iOS downloads

2013

New map layers: boreholes and linear features. Links from boreholes to scanned borehole log images. Bedrock geology and superficial deposits separated into layers

2013

Amazon app store launch

2017

200000 iOS downloads

2018

iGeology has enabled users to register for a free BGSiD account in order to submit geological observations, provide feedback on DigMap or tell other users about geological points of interest

2019

300000 iOS downloads

2021

400000 downloads (all platforms)

2022

iGeology retired

About the author

Steven Richardson
Steven Richardson

Geospatial applications developer

51ÁÔÆæ Keyworth
Find out more

More information

Please contact BGS Enquiries (enquiries@bgs.ac.uk).

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Citizen science for multi-hazards and disaster risk reduction /geology-projects/volcanoes/citizen-science-for-multi-hazards/ Wed, 10 Jun 2020 20:52:34 +0000 /?post_type=research_project&p=38552 We are using citizen science for people to develop a shared understanding of hazardous phenomena and for communities to contribute to hazard forecasting and early warning.

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Citizen science for multi-hazards and disaster risk reduction

51ÁÔÆæ Research — Volcanology

Citizen science involves the participation of people from outside professional organisations in the collection or analysis of scientific data. A large evidence base exists of the positive contribution that a wide range of people have made to diverse scientific fields. In multi-hazard settings, citizen science can be an excellent way for people to develop a shared understanding of hazardous phenomena and for communities to contribute to hazard forecasting and early warning.

For example, people can record observations of hazardous phenomena through apps; collect data to identify trends, which may help with early warning (e.g. rainfall measurements), or contribute traditional knowledge of hazards. Ultimately, our research into citizen science shows us that it can help to develop new knowledge about hazards and support efforts to reduce risk.

Citizen science in action

We know from practice and research that working with communities at risk to observe and report environmental changes around them does help them to reduce their risk. At the , BGS staff and researchers used observations and data collected by the public to understand trends in volcanic ash fall and its impacts, lava dome growth, ash venting, pyroclastic flow activity and lahar occurrence.

A research project called (STREVA) employed a range of methods across academic disciplines to help reduce risk by collaborating closely with communities and developing new knowledge about hazard and risk together.

Another project, entitled ‘Harnessing “citizen science” to reinforce resilience to environmental disasters: creating an evidence base and community of practice’ aimed to understand how citizen science is currently applied to disaster risk reduction (DRR) and how it might be more effectively applied in the future. Find out and read an about citizen science for DRR projects all over the world and what makes them successful. The project also broadened the scope of what citizen science actually is.

While many people tend to associate citizen science with technology and crowdsourcing (for example using smartphone apps to send information), we are extending our vision of citizen science in our work beyond science and technology-led approaches to develop knowledge using methods from other disciplines, such as the social sciences, arts and humanities.

Current projects

We are currently involved in the myHAZ citizen science project to develop a mobile phone app to facilitate community monitoring and support decision making by authorities. We also previously developed the myVolcano app.

myVolcano

The myVolcano app was developed in response to the 2010 and 2011 Icelandic eruptions. The app was designed to collect observations of volcanic phenomena at any location worldwide, in particular trans-boundary hazards — those that cross international borders, such as volcanic ash and gases.

We are currently working with the project to bring together citizen science tools from across the European volcanology community. A new web portal is being developed to provide a single point of access to data collected by several of these tools, including myVolcano, and enable users to submit their own observations of volcanic hazards.

myHAZ

myHAZ is a collaboration between the BGS, the (NEMO) of St Vincent and the Grenadines and the University of the West Indies’ , based in Trinidad and Tobago, to develop a multi-hazard citizen science app and decision support system for collecting and sharing observations of natural hazards and their effects in near real-time. The project was funded by the BGS Official Development Assistance (ODA) programme, under Research platform 3: global geological risk.

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Citizen science /geology-projects/citizen-science/ Tue, 12 May 2020 20:20:51 +0000 /?post_type=research_project&p=31241 Allowing scientists to accomplish research objectives more readily than would otherwise be possible, using volunteers to perform research-related tasks.

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Citizen science

51ÁÔÆæ Research

hexagon-3527311_1920

What is citizen science?

‘Citizen science’ is a term used for projects in which individual volunteers (or networks of volunteers), many of whom may have no specific scientific training, perform or manage research-related tasks such as observation, measurement or computation.

The use of citizen science networks often allows scientists to accomplish research objectives more readily than would otherwise be possible. In addition, these projects aim to promote public engagement with the research, as well as with science in general.

Our projects

myHAZ

Citizen science for multi-hazards and disaster risk reduction

We are using citizen science for people to develop a shared understanding of hazardous phenomena and for communities to contribute to hazard forecasting and early warning.

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feature_myhaz

Enhancing multi-hazard resilience through citizen science in the Caribbean

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Please tell us about any British landslides you may have seen on TV, heard about on the radio or read in newspapers, or seen yourself.

A short questionnaire to record what people experienced during an earthquake that helps us gather information that may give vital information about the level of shaking to emergency services.

Need more information?

Please contact the BGS Informatics Solutions team leader

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Enhancing multi-hazard resilience through citizen science in the Caribbean /geology-projects/global-geological-risk/improving-multi-hazard-resilience/ Mon, 30 Mar 2020 17:06:39 +0000 /?post_type=research_project&p=24334 We are working with partners to develop a citizen science app for collecting and sharing observations of natural hazards and impacts in near real-time.

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Enhancing multi-hazard resilience through integrating citizen science in the Caribbean

51ÁÔÆæ Research — Global geological risk

Citizen science facilitates resilience building by enhancing citizens’ understanding of hazards and risk, whilst also building trust and communication links between citizens, scientists and authorities. The BGS is working alongside the (NEMO) of St Vincent and the Grenadines and the University of the West Indies’ , based in Trinidad and Tobago, to develop a citizen science app and decision-support system for collecting and sharing observations of natural hazards and their impacts in near-real time.

resilience diagram
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Components of increasing resilience to natural hazards where citizen science could help. BGS © 51ÁÔÆæ.

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The myHAZ app

The system, called myHAZ, includes:

  • a smartphone app primarily designed for reporting natural hazard observations and for gaining a ‘quick glance’ at the status of hazards on the islands
  • an observation management system for use by authorities and scientists to manage and respond to incoming observations
  • a public web portal for viewing and downloading data gathered by the app and for more complex data visualisation

Developing the app

A series of workshops have been held at NEMO as part of the co-design and co-development process to ensure that the system is fit-for-purpose. At the October 2018 workshop, we used a prototype of the app to collect data on landslides and a flood when heavy rain affected island life. During a subsequent visit in September 2019, we visited numerous communities on St Vincent to further test the app and gather feedback from potential users. myHAZ is expected to be launched in St Vincent and the Grenadines in 2020.

Whilst the initial system is being developed with BGS ODA funds for use in St Vincent and the Grenadines (by incorporating local data and being managed locally), it will be possible to ‘customise’ subsequent versions for use in any other country or setting.

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myHAZ will allow people in the community to report on things […] and that would help NEMO respond and help scientists to understand how these hazards operate.

Dr Richard Robertson, Seismic Research Centre at UWI.

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