Rebuilding The Vulcan Hotel

Dafydd Wiliam, 15 June 2023

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A drawing showing how the facade of The Vulcan looked prior to 1914.

The Vulcan façade, labelled 'At present' in 1914.

A drawing showing how the facade of The Vulcan would look after alterations in 1914.

 The Vulcan façade labelled 'Proposed' in 1914.

The façade

The Vulcan Hotel was first registered as an ‘ale house’ in 1853. By the time it was dismantled by the Museum in 2012 it had seen several phases of alterations. The scale of the 1901 and 1914 alterations required approval by the County Planning Authority and these plans are held today by the Glamorgan Archives. Further work was undertaken in 1925 and 1941.

The planning application from 1914 features two drawings of the façade (the 1901 application doesn’t show the façade). A drawing in black and white was labelled ‘Present’ while a drawing in colour was labelled ‘Proposed’. No written text survives to accompany the drawings, but careful study can shed more light on the proposed changes. The most obvious alteration was the number of windows on the first floor was increased from two to four, which were flanked by new, raised pilasters of red brick. The parapet fronting the roof, depicted as a series of horizontal lines above the windows was removed, the chimneys were altered, and the roof was tiled in new, grey slate. Another change - which is quite subtle on these drawings - is the most dramatic in The Vulcan’s history. The whole building was increased in height. The ‘at present’ drawing shows a roof of the same height as its neighbours, while the ‘proposed’ drawing shows The Vulcan being taller than those either side of it.

The configuration of the ground floor façade remained unchanged – two doorways and two windows, each divided into two large panes with fanlights above. Looking closely, however, there are several key differences which suggest that they are in fact, two different facades. The ‘at present’ drawing depicts two fielded panels under each window, while the ‘proposed’ drawing has only one. The number of door panels are different. The pilasters on either side of the windows, depicted in the ‘at present’ drawing, are fluted and stop short of the frieze, while the pilasters in the ‘proposed’ drawing aren’t fluted and continue through the frieze to the cornice above. There are seven fanlights above each windowpane in the ‘at present’ drawing, while the ‘proposed’ drawing shows only three. The decorative finial above the cornice was removed and last but not least, only the ‘proposed’ drawing features the inscriptions THE VULCAN HOTEL, WINES & SPIRITS and ALES & STOUT. 

Although not made clear by the plans, we assume that the drawing labelled ‘Present’ depicts a ground floor façade made of timber, and that the façade proposed in 1914 was of glazed earthenware tiles - which remained in place until 2012. 

The tiles

By the time the Museum dismantled The Vulcan in 2012, the colourful brown and green tiles of the façade had had been in place for 97 years, and as a result many were so damaged that they could not be reused. Many more wouldn’t separate from the cement that was used to bond them in place. The tiles bearing the Vulcan’s name fared much better as they were higher up the building, and they will be kept for future display. The tiles were manufactured by Craven Dunnill, of Ironbridge, Shropshire – fortunately, their name was stamped on the back of the tiles. As the company is still going, we decided to commission a whole new set of tiles for the rebuilt Vulcan – and these were cast from the very same wooden moulds that were used to cast the originals.

The windows

The leaded windows of The Vulcan were installed at the same time as the tiles – as part of the major refurbishment completed in 1915. Looking closely, they are to be seen in a photograph depicting the Vulcan that was taken in 1919. An article published in The Western Mail on 16 December, 1914 stated:

‘Broke Public House Window

Paul Begley (46), a cripple, was fined 10s and costs at Cardiff on Tuesday…for disorderly conduct in Adam Street and for wilfully breaking two panes of plate glass in the bar window of The Vulcan Inn. Although the damage amounted to £3, the landlord…made no claim.’

The pre-refurbishment façade featured two large windows with two large panes in each. If we presume that this article relates to one of those, then perhaps the Landlord ‘made a claim’ as he knew the windows were due to get replaced within the coming weeks or months. The switch from plate glass to small-paned leaded glass may have also been an attempt to lessen the impact of such damage in the future. It appears that the window frames fared better, as one was re-used as the rear bar window – the old opening being enlarged to fit.

Window pane with a logo incorporating a big letter 'N' with two smaller 'W's behind. They represent William Walter Nell.

When Brains Brewery bought the pub in the 1950s, they renovated the windows and installed their Red Dragon logo in a roundel in the centre of each of the four large panes. By 2012, only one of these remained. As the rebuilt Vulcan will be set in 1915, it isn’t appropriate to include the Brains logo as they didn’t own the pub at that time. It was owned by William Walter Nell and supplied by his Eagle Brewery, based in St John’s Square, The Hayes, in Cardiff City Centre. As his W.W.N. monogram survives on a building in Merthyr Tydfil, we were able to replicate it to replace the Red Dragon. The work of reconditioning these leaded windows was undertaken by specialists from the Swansea College of Art, in the Centre for Architectural Glass. They sourced the correct glass to replace damaged panes, cleaned each individual pane of glass before putting them back in their original position, and re-leaded the windows ready for the next 97 years. 

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Spring Bulbs for Schools - engaging with 175 schools

Penny Dacey, 17 May 2023

Penny Dacey, Spring Bulbs Project Coordinator, has been busy helping young budding scientists get outside and investigate the impact of climate change in an engaging and creative way!
 

Many of you may have heard of this Spring Bulbs project, as it’s been running since 2005! For those of you who aren’t familiar with it, here’s an overview. 
 

Pupils are asked to help Professor Plant, a friendly cartoon scientist, to explore the impact of a changing climate on the flowering dates of spring bulbs. Pupils do this by taking part in an annual study that involves documenting and submitting weather and flower data.


How it started and how it’s going…

The project began in Wales, under Danielle Cowell, Digital Learning Program Manager at Amgueddfa Cymru, but through funding from the Edina Trust has expanded to be UK wide.
 

Amgueddfa Cymru now engages 175 schools each year through the Spring Bulbs for Schools Investigation! That’s a lot of bulbs!


Let’s talk science!

Schools that participate in the investigation take part for a full academic year. They receive their resource packs in late September, plant their bulbs on 20 October, and begin taking weather records on 1 November through to 31 March.


Schools are asked to take weather records (temperature and rainfall readings) for every day that they are in school, and to upload this data to the Amgueddfa Cymru website at the end of each week. They are also asked to monitor their plants and to document the flowering date and the height of their plants on that date to the website. The result is that we can now compare the flowering dates for spring bulbs in Wales, England, Scotland and Northern Ireland to those of previous years and look at how changing weather patterns may have impacted on these dates. Isn’t that amazing?

 

Making a difference - from scientific skills to well-being

The investigation supports the development of scientific knowledge and skills, including an understanding of plant growth, the impact of climate change on the environment, and data collection and analysis. Students are able to apply scientific methods and concepts to a real-world scenario, which helps them to understand the importance and relevance of science in their lives. The process of caring for their plants, getting outdoors (in all weather) and working together to collect the data has numerous benefits, both for well-being and in developing lifelong connections to nature.

 

Do you know of any schools that would like to take part?

Applications open on a first come first serve basis to primary schools in Wales in late April. If you know of any schools that would like to take part, please ask them to check
out the following pages for more information:
Spring Bulbs Website
Spring Bulbs Blog
Spring Bulbs Twitter

Diatom Flora of Britain and Ireland

Ingrid Jüttner, 16 May 2023

Fig. 1. 1=Amphora macedoniensis, 2=Achnanthidium caledonicum, 3=Eunotia juettnerae, 4=Fragilaria battarbeeana, 5=Gomphonema varioreduncum, 6=Planothidium reichardtii, 7=Sellaphora saugerresii, (light microscopy).

Fig. 2. 8=Surirella pinnata, 9=Surirella subsalsa, 10=Cymatopleura hibernica, 11=Tetracyclus emarginatus, (light microscopy).

Fig. 3. Species in nutrient-rich waters: 12=Cocconeis pediculus, 13=Navicula gregaria, 14=Rhoicosphenia abbreviata, 15=Nitzschia palea; species in acidified waters: 16=Eunotia exigua, 17=Eunotia incisa, 18=Tabellaria flocculosa, 19=Pinnularia subcapitata, (scanning electron microscopy).

Fig. 4. 20=Cocconeis neothumensis, 21=Eunotia serra, 22=Staurosirella rhomboides, 23= Semiorbis hemicyclus, (scanning electron microscopy).

What are diatoms?

Diatoms are microscopic, single-celled algae which live in fresh and brackish waters, the sea, and moist terrestrial habitats. They are the most species-rich group of algae. It is estimated that between 100,000 and 2 million species exist and new species are frequently discovered.

Why are diatoms important?

Diatoms are important algae in the environment producing oxygen and providing a source of food for many organisms. They are also sensitive to many environmental conditions, for example different species vary in their preference for nutrient concentrations, acidity, salinity, sediment load, flow regime and temperature. Hence, diatoms are good bioindicators providing us with information about the environment and the health of aquatic ecosystems. Many methods to monitor environmental change have been developed and diatom indices such as the UK’s Trophic Diatom Index (TDI) and the Diatom Acidification Metric (DAM) are regularly used by environmental researchers and the environment agencies to monitor water quality and the ecological status of our freshwater ecosystems (Kelly et al. 2020, Jüttner et al. 2021).

What makes diatoms unique?

Diatoms have a unique feature, a cell wall that is made of silica, and its shape and intricate morphological pattern are used to identify the different species in microscopy.

How can we help identify diatoms?

The website Diatom Flora of Britain and Ireland is a major project facilitating the identification of diatoms using their morphological features. The project is led by Amgueddfa Cymru’s diatom curator Dr Ingrid Jüttner, funded by the British Phycological Society and in-kind contributions from the participating experts and institutions. It consists of a web-based diatom flora and peer-reviewed publications providing a taxonomic review of diatoms from freshwater, brackish and subaerial habitats in Britain and Ireland.

https://naturalhistory.museumwales.ac.uk/diatoms/ 

https://www.researchgate.net/profile/Ingrid-Juettner

An estimated several thousand species of freshwater diatoms occur in Britain and Ireland. The last decade has seen many taxonomic revisions, including those in common genera including Amphora, Achnanthidium, Eunotia, Fragilaria, Gomphonema, Planothidium and Sellaphora and some rarely recorded species in these genera are now documented on the diatom flora website (Fig. 1). It is likely that many new diatom species in Britain and Ireland are yet to be discovered, especially in under recorded habitats such as remote upland freshwaters.

Additionally, we began to study historic material that was used by earlier diatom researchers to describe new species, for example the collections by William Smith, one of the most prominent diatomists in the 19th century. His major contribution to diatom research was the publication of the Synopsis of the British Diatomaceae (1853, 1856), one of the first systematic diatom monographs, and still an important resource for diatom identification. His slide collections and original type material of the species he described are kept in Meise Botanic Garden, Belgium (Hoover 1976), in the Natural History Museum, London (Smith 1859), and in the Royal Botanical Garden of Edinburgh. Smith’s collections comprise more than 1200 samples from all over Britain, but many species in the British flora described by Smith are poorly documented and will be the subject of our studies in the future (Fig. 2).

Why is the Diatom Flora of Britain and Ireland website so important?

Recent taxonomic revisions and studies on species distribution (e.g., Novais et al. 2015, Levkov et al. 2016, Wetzel et al. 2019, Jüttner et al. 2022, Van de Vijver et al. 2022) have led to improved understanding of species taxonomy and ecology. These studies were published in a range of scientific journals and books making it difficult for practically oriented users of diatom monitoring methods, students and researchers not involved in taxonomic research to keep up to date. Hence, the freely available Diatom Flora of Britain and Ireland website, summarising the most recent progress in diatom taxonomy, is a valuable tool that supports the use of diatoms in a wide array of disciplines and applications.

Currently 334 species in 66 genera are published online. All taxa are documented using light microscopy observations, but many are also illustrated with scanning electron microscopy pictures, and some with images of the living cells. All taxa are accompanied by morphological descriptions and a list of key references. Many of the published species are from freshwaters impacted by eutrophication or acidification and are frequently encountered during environmental monitoring of rivers and lakes (Fig. 3).

More recently, we found and illustrated several rare species from unpolluted freshwaters (Fig. 4). However, the floras of semi- or near-natural aquatic habitats for example those typical in bogs, upland lakes, headwater streams and springs remain poorly represented and will be a focus of our work in the future. Unpolluted freshwaters can harbour high numbers of endangered taxa (Cantonati et al. 2022) and a better understanding of the flora of these unique wetlands is important and can support projects that assess environmental change in threatened habitats and support ecological restoration work.

 

References 

Cantonati M., Hofmann G., Spitale D., Werum M., Lange-Bertalot H. 2022. Diatom Red Lists: important tools to assess and preserve biodiversity and habitats in the face of direct impacts and environmental change. Biodiversity and Conservation 31: 453–477. https://doi.org/10.1007/s10531-021-02339-9

Hoover, R.B. 1976. Inventory of the original typical collection of the Reverend William Smith (1808–1857). Types du Synopsis of British Diatomaceae. tt. [i]–xlv, 1–106, 11 plât. Antwerp: Koninklijke Maatschappij voor Dierkunde van Antwerpen met de medewerking van de Koninklijke Albert 1 en het Stadsbestuur van Antwerpen.

Jüttner I., Kelly M.G., Evans S., Probert H., Orange A., Ector L., Marsh-Smith S. 2021. Assessing the impact of land use and liming on stream quality, diatom assemblages and juvenile salmon in Wales, United Kingdom. Ecological Indicators 121, 107057. https://doi.org/10.1016/j.ecolind.2020.107057

Jüttner I., Hamilton P.B., Wetzel C.E., Van der Vijver B., King L., Kelly M.G., Williams D.M., Ector L. 2022. A study of the morphology and distribution of four Achnanthidium Kütz. species (Bacillariophyta), implications for ecological status assessment, and description of two new European species. Cryptogamie Algologie 43(10): 147–176. https://doi.org/10.5252/cryptogamie-algologie2022v43a10

Kelly M.G., Phillips G., Juggins S., Willby N.J. 2020. Re-evaluating expectations for river phytobenthos assessment and understanding the relationship with macrophytes. Ecological Indicators 117, 106582. https://doi.org/10.1016/j.ecolind.2020.106582

Levkov Z., Mitić-Kopanja D., Reichardt E. 2016. The diatom genus Gomphonema from the Republic of Macedonia. Diatoms of Europe Vol. 8. Koeltz Botanical Books, Oberreifenberg, 552 tt.

Novais M.H., Jüttner I., Van de Vijver B., Morais M.M., Hoffmann L., Ector L. 2015. Morphological variability within the Achnanthidium minutissimum species complex (Bacillariophyta): comparison between the type material of Achnanthes minutissima and related taxa, and new freshwater Achnanthidium species from Portugal. Phytotaxa 224(2): 101–139. https://doi.org/10.11646/phytotaxa.224.2.1

Smith W. 1853. A Synopsis of the British Diatomaceae. Vol.1. John Van Voorst, London, 89 tt., 31 plât.

Smith W. 1856. A Synopsis of the British Diatomaceae. Vol.2. John Van Voorst, London, 107 tt., 67 plât.

Smith W. 1859. List of British Diatomaceae in the Collection of the British Museum. Taylor and Francis, London, 55 tt.

Van de Vijver B., Williams D.M., Kusber W.-H., Cantonati M., Hamilton P.B., Wetzel C.E., Ector L. 2022. Fragilaria radians (Kützing) D.M.Williams et Round, the correct name for F. gracilis (Fragilariaceae, Bacillariophyta): a critical analysis of this species complex in Europe. Fottea 22(2): 256–291. https://doi.org/10.5507/fot.2022.006

Wetzel C.E., Van de Vijver B., Blanco S., Ector L. 2019. On some common and new cavum-bearing Planothidium (Bacillariophyta) species from freshwater. Fottea 19(1): 50–89. https://doi.org/10.5507/fot.2018.016

Alien Invaders

Anna Holmes, 15 May 2023

Himalayan Balsam and Japanese Knotweed 

Watch out for these where you live: Himalayan Balsam and Japanese Knotweed 

Pom-pom weed (Caulacanthus okamurae)

Pom-pom weed (Caulacanthus okamurae) attaches to mussels forming a dense sheet

Darwin’s Barnacle (Austrominius modestus)

Darwin’s Barnacle (Austrominius modestus) travelled all the way from Australia on ships during WWII. It attaches to rocks. [Figure caption – barnacle plates]

 American Slipper Limpets (Crepidula fornicata)

You’ve probably seen these stacks of these American Slipper Limpets (Crepidula fornicata) on your local shore

Invasive species can wreak havoc on our biodiversity, economy and health

How do we know that a plant or animal is a problem? 

Knowing how to identify these alien/invasive species is important to save our ecosystems – and this is where Amgueddfa Cymru’s taxonomists come in… 

Have you ever wondered what Invasive Species are? Some people know them as aliens, but what is all the fuss about? Why don’t they belong here and what harm can they do?!

In fact, Invasive species are causing problems with our wildlife, our economy, and our biodiversity. They take over habitats and spread quickly, wreaking havoc, costing millions in repairs, and can spread diseases that our native plants and animals cannot fight against. In general, they are a real nuisance! If you’d like to learn more and help with the fight read on.

What are non-native species?

The world has become a much smaller place in terms of travel, but as we move around the planet for business, holidays and trade, animals and plants move with us. Years ago, before we realised what an issue we were causing, we imported plants because they looked pretty or shellfish because they grew quickly, making a fast profit. However, these plants and shellfish could hide other animals or plants, and these were all set to invade too!

When species arrive at a location that they would not have naturally been able to reach they are classed as Non-Native. It is not a habitat that they could reach without human help. When non-native species find that conditions are right and become established, it can turn out to be a real problem. In Britain over 2000 plants and animals have been introduced from all over the world by humans either intentionally or by accident.

What is an Invasive species?

While most of the non-native animals and plants in Britain are harmless, around 10–15% can spread and begin to have a negative impact on our native species, our health, ecosystems and our economy. It is then that they are classed as Invasive Species.

There are two good examples of problem plants that are invasive species that you are likely to see where you live. The first is Himalayan Balsam that goes by the fabulous Welsh name of Jac y Neidiwr. A pretty, pink flower that spreads like wildfire, it was brought to the UK from the Himalayas in 1839 as a garden ornamental. The second is Clymog Japan (or Japanese knotweed) which has deep underground stems so even if you chop it down it grows back the following year. It can grow to 2.1m (7ft) shading all other plants. Both these invasive plants suppress other plant growth, reducing biodiversity in that area.

Animal intruders are just as much of a problem, sometimes even more so as they are usually a bit more mobile. And even those static ones that live in the sea, like oysters and sea squirts, have a mobile breeding phase allowing them to spread elsewhere.

Marine Invaders - where do they from and how do they get here?

In the marine realm, things can be just as problematic. Wireweed (Gwymon Sargaso) is a floating brown seaweed with small gas bladders along its stem. Accumulating in harbours and on beaches it is a nuisance, shading other seaweeds, which like land plants need sunlight to grow. Wireweed grows very quickly, entangling propellors, but it also reduces primary production, an important component of a healthy ecosystem. This causes negative effects on our native animals and plants, changing the biodiversity balance.

Invasive species are bad news although some of them are a direct result of human importation, many are the result of accidental introduction via aquaculture, ballast water in ships or other means. Many of the marine invertebrate species known as invasive species have a sedentary adult stage, however, they have a mobile larval stage in their life cycle. This allows for movement of species as tiny planktonic animals. Once in the water column, minor currents can transport them within the harbour allowing them to move from ship to ship.

In Britain and Ireland the number of species that are classed as non-native fluctuates and scientists constantly research horizon species – those that have been found in a nearby country that could turn up here. For marine species one of those places routinely monitored is the Netherlands as it is so close to our shores - if something turns up there it is likely that six months or so later it will be found in British waters.

Luckily Natural Resources Wales (NRW) have produced a guide to marine non-native species in Wales. And Amgueddfa Cymru has a Marine Invasive Species Kit, produced in partnership with NRW, that can be loaned out for workshops to help people identify non-native species. For further details on that kit contact: anna.holmes@museumwales.ac.uk.

Human imports

Species become invasive when conditions are just right for them, this means that they can outgrow and outcompete native species for food and space. A good example of this is the Wystrysen y Môr Tawel or the Pacific Oyster (Magallana gigas). Once, our native European oyster (Ostrea edulis) populations thrived. In Roman times they were shipped back to Italy for consumption, but today, years of unsustainable trawling and the spread of a deadly disease has greatly reduced stocks. Due to this reduction in numbers, the Pacific Oyster with its heavy, robust shell, fast growth rate and resilience to disease, was introduced in the 1960s for commercial purposes. The first record in the wild was just five years later and it has spread rapidly. In southern England, a popular aquaculture area, escapees have reproduced and are wreaking havoc in some locations. Causing dense aggregations of sharp, heavy shells, they are hazardous for humans and animals walking on beaches. 150,000 Pacific oysters in the Devon and Cornwall area were recorded recently where several years previous there were very few. (For further reading on this check out Pacific oyster expansion threatens Devon and Cornwall estuaries - BBC News).

Cimwch Americanaid or American lobster (Homarus americanus), is imported to the UK and has been since the 1950s. It is cheap and industrially fished, but unfortunately has brought a disease with it that harms our European lobster. The American lobster is considered an invasive species because it can outcompete our native lobster for space and can breed with it; a process called hybridisation (when two similar species can successfully breed). It is difficult, but not impossible, to identify the American lobster - causing an issue for those trying to monitor the invader.

Aquaculture Funding and support 

Many species were accidentally introduced, hidden on plants, in the soil or even on animals such as oysters. Ewin Mochyn or the Slipper Limpet (Crepidula fornicata) was accidentally introduced with oyster spat from eastern North America in the 1970s and has rapidly spread. Once the Slipper Limpet arrived in foreign destinations it was able to maximise its good fortune by having planktonic larvae that could help it spread locally. Today, strict aquaculture regulations are attached to import of any non-native species and so theoretically this should not happen again. Unfortunately, the Slipper Limpet is here to stay as it is impossible to get rid of. It enjoys an offshore and lower beach habitat forming dense stacks of individuals and attaches to and smothers native wildlife.

Ballast water and hull invaders 

One of the major transporters of marine non-native species are the large cargo ships. To travel across seas and oceans the huge ships take on ballast water (also above) at their point of origin to keep the vessel balanced. The water is sucked in through pipes while in port, sometimes with the larvae of potential invasive species in the water. Once at the destination port, ballast tanks are emptied, dispersing the larvae in a completely different location. A large percentage of marine invaders were initially imported this way. However, today there are control measures in place for managing ballast water in British ports.

Many marine interlopers used times of conflict to their advantage and attached to warships that travelled across the world. The Leathery Sea squirt (or Chwistrell Fôr Ledr) was first recorded in Plymouth in 1953 just after the Korean war. Ships returned to port during and after the conflict with various critters attached to their hulls and one, the leathery sea squirt, has now spread as far as Orkney. Able to attach to hard surfaces it is often encrusted with other animals and plants and in the UK is commonly found with other invasive species.

Darwin’s barnacle, Gwyran Darwin, a native of Australia, was first spotted in Britain in Chichester Harbour in 1946 and is known to attach to hulls of submarines and warships. Hitchhiking on wartime traffic, the crustacean had crossed the world! It has since spread across the rocky shores through England into Wales and has now reached Scotland and Ireland with 7861 records and counting in the British Isles. Distinctive and rather pretty with its white frilly edged plates, it is found covering rocks on our shores all around the Welsh coast.

Rafting on plastic litter as a mode for transport 

Our seas and oceans are connected, forming one huge body of water that potential marine invaders can exploit. While the common types of import such as aquaculture, ballast water and hull attachment are well-known and monitored to a certain extent, there is one area that is relatively unknown. Some marine animals that can attach or cling to floating plastic items and cross seas without any assistance from humans. Rafting species, as they are known to scientists, use plastic litter to travel from shore to shore and even across oceans. Currents create a huge conveyor belt for those species that are able hang on for the duration. For more information on Rafting animals see Rafting bivalves in Britain and Ireland | Museum Wales

But can you do anything to help?

The answer is yes, if you would like to join the fight, extra eyes on the ground are always welcomed! Check, Clean, Dry is a national biosecurity campaign and although originally aimed at freshwater river and lake users it can be applied to the coast as well. If you wear shoes with a rugged sole, check to see if anything it stuck in the bottom. Wash with freshwater and scrub off anything that is attached and then leave to dry. But, beware, some marine animals like shells and barnacles can close up and survive out of water for a few days so be vigilant.

In Wales an app has been created to record invasive species and not just marine ones. To find out more check out Ecosystem Invaders Ecosystem Invaders | North Wales Wildlife Trust

New English Learner Resources for Amgueddfa Cymru

Loveday Williams, Senior Learning, Participation and Interpretation Officer, 10 May 2023

Amgueddfa Cymru Museum Wales have been working with Refugees and Asylum Seekers, supporting people to integrate into their new communities for many years. 

As part of this work, we have developed partnerships with key organisations such as Addysg Oedolion Cymru Adult Learning Cymru. They have been working with us over the past year, alongside their ESOL students, to develop new ESOL learner resources designed to support people learning English to explore our museums and galleries. 

The new resources cover the National Waterfront Museum in Swansea, the National Slate Museum in Llanberis and the National Roman Legion Museum in Caerleon. 

The resources have been created by ESOL tutors and tested by ESOL learners. They follow the ESOL curriculum and cover a range of different levels from Entry to Level 2. 

Now that the new resources have been tested, tweaked, and trialed they are ready to download from our website for any ESOL learner or group visiting one of the museums. (See the links above). 

We also have a suite of ESOL resources for St Fagans National Museum of History which were developed in a similar way as part of the HLF funded Creu Hanes Making History Project in 2014. 

We continue to work with our partners and community members to provide meaningful opportunities for people facing barriers to participation in the arts and cultural heritage. 

We learn so much from the people who visit our sites and engage in the learning opportunities we offer. 

Supporting those people who are newly arrived in Wales to settle and integrate into their new communities is a very important area of our work and we hope that these new learner resources help many people on that journey. 

Diolch yn fawr to Addysg Oedolion Cymru Adult Learning Wales and the ESOL tutors and learners who have contributed to the creation of these new learner resources.