Be a digital volunteer for the Museum and help transcribe scientific data from microscope slides… We are so very excited to launch our latest citizen science project Miniature Lives Magnified.
As part of our Digital Collections Programme, we have imaged 100,000 microscope slides of some of the world’s smallest insects and we need your help to unlock the data from the specimen labels, so that we can uncover more of nature’s secrets.
Spot the wasp: we have 6,000 microscope slides of Chalcid wasps, that we would like you to help us to transcribe data from.
In partnership with our good friends from the online crowdsourcing platform Notes from Nature, today we launch our first collection called ‘The killer within: wasps but not as you know them’.
Elphidium williamsoni Haynes, 1973 is a foraminiferal species that has been used extensively in relative sea level and climate change studies, as it is characteristic of intertidal zones. Identifying this and other species of Elphidium has proven difficult because key morphological characteristics show a wide range of variation causing widespread confusion in determinations.
Scanning electron microscope image of the holotype of the foraminiferal species Elphidium williamsoni Haynes, 1973.
A study led by University of St Andrews PhD student Angela Roberts and recently published in the Journal PloSOne, has gone a long way to clearly define this important foraminiferal species. The study is based on measurements from Museum type specimens as well as genetic studies on contemporary material collected from the same location as the type specimens.
We are so grateful for your contribution to the project and have one last, very important task for you. We need all Orchid Observers participants to complete a short surveyabout your level of experience at plant identification and online transcription/classification before taking part, to understand how knowledge and information was shared amongst volunteers within the project. We’d be really grateful if you would spare 10 minutes to complete the survey by 31 July 2016.
The pyramidal orchid (Anacamptis pyramidalis) adds a splash of colour to the alkaline grasslands of high summer. Keep an eye out for it in June and July.
The bog orchid (Hammarbya paludosa) is our smallest UK species. It usually grows on mountain peat bogs and can be found from July to August.
The beautiful bird’s-nest orchid, (Neottia nidus-avis) in woodland
Green-winged orchid (Anacamptis morio) at Stonebarrow Hill
It is part of our ongoing research into citizen science as a tool for scientific research but also for skills development and knowledge exchange. Orchid Observers was a new and innovative type of project combining outdoor recording and online transcription activities – it was the first of its kind.
The Orchid Observers project is closing at the end of July (so if you can help us out with the last few classifications then you have just a few days left!). We’d like to say a huge thank you to all of the volunteers who photographed orchids, identified photos online or transcribed and classified our museum specimens. Your time, expertise and enthusiasm is really valued, so thanks for being part of the Orchid Observers team.
A big thank you to everyone who has volunteered to help us with the Orchid Observers citizen science project!
The project had two main research questions:
Firstly, the climate science research: Are orchid flowering times being affected by climate change?
Secondly, the social science research: How do volunteers interact and share ideas and knowledge with one another, within a project that combines both outdoor and online activities?
The second question was of particular interest to our funders, the Arts and Humanities Research Council. We are asking all Orchid Observers volunteers to answer a short survey to help us address the second question, so keep an eye out for that coming soon. Here I’ll update you on the science research outcomes and how we are analysing the data you’ve collected.
To coincide with the opening of our Colour and Vision exhibition and #WorldSnakeDay, Museum researcher Dr Bruno Simões tells us about recent fieldwork he undertook in Australia to learn about vision in snakes.
As a vision biologist, I’m interested in how animal vision has evolved and how it functions. The dramatic impact living in an aquatic environment can have on visual systems led me to become particularly interested in sea snakes.
Sea snakes are part of the family Elapidae, along with kraits, mambas, cobras and taipans. The family consists of more than 360 species, including some extremely venomous species that live in aquatic and terrestrial (land-based) habitats in Australasia, among other places.
The Central African copper belt is one of the world’s most important copper producing districts, with dozens of deposits spanning a 400km length through the Democratic Republic of Congo and northern Zambia. Of these copper deposits, a select few contain significant quantities of cobalt, which is produced as a by-product of the ore refining process.
Core laid out at Kalalushi Core Shed
In June 2016 a field trip was undertaken to Zambia in order to examine cobalt-rich ore from the copper belt. Dr Alex Webber, Research Fellow at the National Oceanography Centre at the University of Southampton and member of the COG3 Consortium reports from the field trip.
Small copper butterflies that have been digitised and rehoused as part of the project
The butterflies and moths amassed by avid collectors Dr EA Cockayne, Dr HBD Kettlewell and Lord Walter Rothschild make up the core of the Natural History Museum’s world famous collection of British and Irish Lepidoptera.
The Museum is digitising the lepidoptera collection and using the data to ask important scientific questions about the effects of environmental change. Dr Cockayne passion led him to form the Cockayne Trust for lepidoptera research, his legacy is funding the digitisation.
CoG3 project member and University of Manchester PhD student Sulaiman Mulroy reports back on a recent fieldwork trip to Cameroon in West Africa.
In June 2016 I travelled to Cameroon to collect samples from the Nkamouna laterite, one of a number of lateritic ore deposits formed on top of lenticular serpentinite rocks, which cover around 240km2 in the East of Cameroon.
Gideon, myself and Karrimo
In total the region hosts seven lateritic ore bodies, covering ~1250km2, though only two have been subjected to rigorous exploration: Nkamouna has proven and probable reserves of 54Mt at grades of 0.25% Co and 1.7% Ni, and further north, at Mada, 150Mt of inferred resources of similar grade are believed to be hosted in the laterite.