Migrants and miners: gender, age and precarious labour in a Tajik resource extractive landscape

Migration is both gendered and aged. It is also deeply tied to the emergence of new extractive landscapes around the world, marked by extractive frontiers pushing into already stressed and fragile environments.  The story of the village of Kante in Tajikistan, of its male migrants and its coal miners – men, women and children – illustrates the ways in which multiple forms of precarious labour appear alongside these new landscapes.

The village of Kante, Tajikistan, 2014 (Negar E. Behzadi)

In Tajikistan, a landlocked country in post-Soviet Muslim Central Asia, men started migrating seasonally for work following the fall of the Soviet Union in 1991. In Kante, a village of 1,500 inhabitants on the slopes of the Fann Mountains, 2,000m above sea level, the men gradually began leaving a derelict landscape and a run-down collective tobacco farm. Like most Tajik male seasonal migrants, they left for Russia to find new livelihoods and to escape a country torn by civil war. During the seven years of conflict, which followed the collapse of the Soviet Union, men who did not fight travelled as far as the Kamchatka peninsula in search of work. Some Kantegui mountaineers became fishermen. Others went to Moscow, Sverlovsk, Irskuk and other big Russian cities to do ‘mardikor’ (the work of men) on construction sites.

When the war ended, some men came back to Kante, only to find destroyed infrastructure, abandoned fields and an uncertain future. So most returned to Russia. In Kante, as in the rest of Tajikistan, migration became a way of life and a rite of passage – every real man in Tajikistan has migrated, provided for his family back home, drunk alcohol in overcrowded compounds, travelled illegally through borders. Some have slept with Russian women, fallen in love, even taken a second Russian wife, leaving a Tajik wife back home (Behzadi, 2019). Life has also changed for those referred to as ‘the left-behind’. Women, children and the elderly live without husbands, fathers or sons for most of the year. Men become absences, photos, voices down the phone, heroic stories, the amount of remittances arriving at the Western Union in the local town.

Unlike villages in the rest of the country, however, Kantegui men have an alternative to migration. The village lies on one of the largest coal reserves in the country. After the fall of the Soviet Union, families started digging up the mountain with pickaxes to extract coal, using donkeys to haul their load. At first, families extracted the coal for subsistence, but later they started selling it on a growing informal market. This coincided with a broader turn to coal as a major source of energy across the country. Following Uzbek/Tajik resource conflicts, Uzbekistan shut off the pipeline providing Tajikistan with gas in 2012/13, leading to a new Tajikistani coal development strategy (Behzadi, 2019). The same year, a formal Sino-Tajik mine was established in the village, which blew up the Southern slope of the mountain with dynamite. The rolling stones and big machinery crushed some of the donkeys of the informal miners and damaged their houses. The company brought in engineers and managers from China and pushed informal miners away.

Young boys coming back from the mines with coal bags on donkeys, 2014 (Negar E. Behzadi)

In 2014, around 300 men from Kante and neighbouring villages worked in the formal Sino-Tajik mine. Most Kantegui miners in the ‘Chinese’ mine were men who had retired from migration, tired of the back and forth between Russia and the village. In their 30s and 40s, these men had nothing to prove anymore – they were the ‘djahon didir’ (those who have seen the world) who had come back to a quieter life (Behzadi, 2019). But the formal mine does not offer jobs to all. Those who do not work for the Chinese carry on splitting their year between labour migration to Russia in spring and summer and informal coal mining in autumn and winter. In 2014, around 500 men were working in the informal mines. The hardship of their labour and the simplicity of their tools contrasted with the relative ease of labour in the Chinese mine. Although less arduous, however, work for the Chinese project is a mixed blessing: precarious contracts, unpaid salaries and difficult relationships with Chinese managers take their toll in other ways. And the trade-off is significant: men who accept work for the Chinese mine know it is threatening the very existence of their village. The Chinese are ‘taking all our coal’, many villagers say, in particular the informal miners. Part of the informal mines have already been destroyed, and they fear that the whole village might follow.

Map of informal and formal mining areas in Kante, 2018 (Negar E. Behzadi)

Like migration, extractive labour in mines is gendered and aged. Women and children cannot work in the Sino-Tajik mine, but they do work in informal mines. In the past decade about 20 women have been going mining every day high above the village, and sometimes at night when they know they can go unseen. Some of their husbands, like Nadirah’s (a female miner in her 30s), left the country straight after their wedding and took a second wife in Russia. Now he sends only sporadic remittances. Nadirah goes mining with a friend and her daughter who is 13. Her work is considered ‘ayb’ (shameful) in the village and, as a result, Nadirah is stigmatised and excluded from social networks. But while it is considered unacceptable for women to work underground, it is tolerated for children. Most children start at the age of five, leading the donkey in and out of the coal galleries to the market while their parents extract the mineral on the coalface. ‘Coal,’ says Gulnissar, a mother of a 10-year-old child coal miner, ‘there is only coal in children’s heads today.’

Sino-Tajik mine containers in Kante, 2014 (Negar E. Behzadi)

Male seasonal labour migration, the ‘shameful’ work of female miners and the spread of child mining comprise a few of the many precarious forms of labour that emerge in new extractive landscapes around the world. The story of Kante illustrates the fragmentation of societies along gendered and aged lines that occurs in such extractive landscapes. These new extractive frontiers also often emerge in places that are already socio-ecologically stressed, such as in the countries that emerged following the fall of the Soviet Union.

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This blog is written by Dr Negar Elodie Behzadi is a Lecturer in Human Geography at the School of Geographical Sciences, University of Bristol. She is a feminist political geographer and political ecologist who explores questions of resource extraction and migration in Tajikistan and France. She has also co-directed two ethnographic films on resource extraction in Tajikistan: Komor: Journeys through the Tajik Underground and Nadirah: Coal Woman.

Negar Elodie Behzadi

Geology for Global Development: 4th Annual Conference

Sustainable mining, solar energy, seismic risk; the 4th Geology for Global Development Conference held at the Geological Society in London had it all.  Geology for Global Development is a charity set up to with the aim of relieving poverty through the power of geology. The charity is chasing the UN’s sustainable developing goals by inspiring a generation of young geologists to use their training as a tool for positive global change.

Figure 1. The UN’s sustainable Development goals (source:  http://www.unfoundation.org/features/globalgoals/the-global-goals.html
The charity is closely linked to several universities meaning the one-day event was awash with bright ideas from young geologists from every corner of the UK. Add to the mix experts in policy and communication including BBC presenter and academic Professor Iain Stewart and you have the recipe for a fascinating day.
Figure 2: GFGD founder Dr Joel Gill gives the opening address on Geology and the sustainable development goals
The programme was impressively diverse, jumping effortlessly from panel discussions on mining and sustainability to group discussions on exploring best practice. There were so many important messages I couldn’t regurgitate everything into a short blog, so I’ve made a super-summary of my favourite points:

Trade not Aid

This topic surfaced several times, and it’s something that I felt reflected the changing attitudes of many NGOs discussed on the day. It was mentioned by The Geological Society’s Nic Bilham in his opening remarks and raised in the groups discussions on best practice. In these discussions, ‘Scene’ Co-director Vijay Bhopal, related his experiences of delivering solar power supply to off-grid Indian villages. He emphasised the necessity to sell the solar technologies to those who need it, even if it is heavily subsidised, as opposed to gifting it. The only way to ensure longevity of solar powered systems was to build a market from the bottom up, he said, training technicians and providing a platform to sell and replace broken parts.  I this capacity, I felt geology has much to offer, developing industry in areas where help is needed is a more effective and sustainable way to provide aid- whether it be by sustainable mining, maintaining boreholes or lighting villages.

The opportunities are out there

The day wasn’t just about discussion, it was about getting involved. Representatives came from all over the country to encourage young geologists to sign up to schemes and events. Here’s a summary of just a few of the opportunities mentioned, along with the people in charge (more information can be found on the GfGd website):

Hazard communication and Geologists: a help or hindrance?

This topic was addressed by Professor Stewart in his keynote on the ethics of seismic risk communication. His core theme addressed the role geologist should play in saving lives in the event of a natural hazard. He used the example of his work in Istanbul, where a large and devastating earthquake is geologically likely in the future. He explored the role of the psyche in resident’s attitudes to the seismic risk they face. In many areas of high-risk, the picture is a complex one and the situation is often politically charged. In the case of Istanbul, the demolition of ‘dangerous’ buildings in high-risk areas was negated by the construction of reportedly unaffordable, earthquake-proof housing. Many residents believed that seismic risk was being used as a political tool to remove them from their neighbourhoods.

So where, asked Stewart, should the geologist slot into the picture? Are they only responsible for reporting the scientific information and exempt from decision-making and education? Or should they shoulder a sense of responsibility to ensure their results reach the people at risk? Should they help by educating about risk or is this really just a hindrance to those involved? In Stewart’s eyes, the geologist has an important part to play, but she must be appropriately trained in the method and timing of communication in order to be most successful. Hopefully, this is something GFGD may address in its capacity to inspire and influence a new generation of geologists.

Here my far-from-exhaustive summary ends. To finish would like to thoroughly encourage any geologists (or geologists-in-training) to get involved with GFGD. It was a really insightful day organised by a very deserving charity.

This blog is written by Cabot Institute member Keri McNamara, a PhD student in the School of Earth Sciences at the University of Bristol.

Setting-up new collaborations with geoscientists from Kazakhstan

A map of Kazakstan
(from GraphicMaps.com, World Atlas)

Landlocked in central Asia, Kazakhstan is the world 9th largest country, larger than Western Europe. It is host to one of largest amounts of accessible minerals and fossil fuel. Even though, Kazakhstan is relatively unknown to the general public and geoscientists. In order to encourage international research collaboration between ambitious young researchers from the UK and Kazakhstan, in March 2014 the British Council Researcher Links organized a workshop in Ust-Kamenogorsk in Kazakhstan.

I was selected to attend this meeting and as a result I found myself on a Monday afternoon boarding a plane to Kazakhstan together with 12 other UK scientists. My main reason to attend the workshop was that palaeoclimatic reconstructions from this part of the world are almost non-existant. This while in the geological past (Mesozoic and Paleogene) Kazakhstan was on the bottom of a large epicontinental ocean that connected the Tethys Ocean with the Arctic. Any palaeoclimatic records from this region of the world are thus very valuable and could provide key-insights into deep-time paleoclimate. I hoped that some scientists worked on palaeoclimate reconstructions. Publications were sparse, and sometimes in Russian, so hopefully a face-to-face meeting would be good start for collaboration.

The modern campus of the East Kazakhstan
State Technical University in Ust-Kamenogorsk.

The first personal encounter with the vast size of Kazakhstan and remoteness was the time in took us to get there. Flying from London, it took us more than 24 hours to get to the small city of Ust-Kamenogorsk, located in northeastern Kazakhstan. Although temperatures in the UK reached a comfortable 18 degrees C that day, in Ust-Kamenogorsk day temperatures were well below freezing and winter still in full swing. Snow was packed half a meter high at the side of the roads.

The workshop was held at the modern campus of the East Kazakhstan State Technical University. The first days were filled with presentations from both UK and Kazakh scientists, as well as Simon Williams, the Director of the British Council Kazakhstan. An interpreter was used to translate Russian into English and vice versa. It was very interesting to give a presentation with an interpreter, it makes you very conscious of what you say and forces you to talk in brief and concise sentences. I was very happy to hear that several Kazakh palaeoclimatologist were present and very enthusiastic to share their results and ideas. Although palaeoclimate is not a top research priority in Kazakhstan, it was impressive to see the work that was already done. Several scientists worked on sections covering all periods from the Cambrian to the early Cenozoic and detailed stratigraphies were developed. We saw dinosaur eggs, beautifully preserved fossil leaves, fossil fish, and remains of large ferns. Very exciting! We had an impressive lab tour in which they showed us an array of state-of-the-art instruments that would make some UK-geoscientists jealous. 

 

All geared-up and ready to descend into the mine.
(I am on the right!)
As a main theme of the workshop was mining, the 3rd day we visited the Maleevka Mine near Zyryanovsk. After a detailed explanation of the daily operations of the mine, which mainly produces copper and zinc, we went down into the mine and had an amazing and slick two-hour tour. Although I am not an expert in mining, it was fascinating to see the mining operations from close-by. I was impressed by the state-of-the-art technology and know-how and safety regulations.
Remote-controlled mine dozer used to safely
get ore from newly blasted areas.
After four intense days (and nights), it was time to make the 30hr journey back to Bristol. My overall impression is that Kazakhstan is an amazingly beautiful country. It was impressive to fly for hours over snow-covered steppe and mountains. Although the weather was cold, the people were incredible warm and friendly. Wherever we went, people welcomed us with smiles and food, lots and lots of great food! The workshop was incredibly well organized. I definitely want to come back to this country. In fact, the last day one scientist gave me some Paleocene samples that I literally had to smuggle out of the country and which we will use for a pilot study. In the near future we aim to organize another workshop in Kazakhstan, focusing especially on palaeoclimate and hopefully some fieldwork because there is so much potential for great science and collaboration!
  
The British Council organized this trip. The UK coordinator was Prof. K. Jeffrey from the Camborne School of Mines, University of Exeter.
 
This blog is written by Dr David Naafs who is a Postdoctoral Research Fellow in the Organic Geochemistry Research Unit at the Cabot Institute, University of Bristol.

Tales from the field: reconstructing past warm climates

The warmest period of the past 65 million years was the early Eocene epoch (55 to 48 million years ago). During this period, the equator-to-pole temperature gradient was reduced and atmospheric carbon dioxide (pCO2) was in excess of 1000ppm. The early Eocene has received considerable interest because it may provide insight into the response of Earth’s climate and biosphere to the high atmospheric carbon dioxide levels that are expected in the near future as a consequence of unabated anthropogenic carbon emissions (IPCC AR4). However, climatic conditions of the early Eocene ‘greenhouse world’, are poorly constrained, particularly in mid-to-low latitude terrestrial environments (Huber and Caballero, 2011).

I recently spent a week in eastern Germany (Schoeningen, Lower Saxony) sampling an early Eocene lignite seam (Fig. 1). Lignite is a type of soft brown coal that is an excellent terrestrial climate archive. Using palynology, organic geochemistry, coal petrography and climate models, we will try to reconstruct the terrestrial environment of the early Eocene and provide insights into future climate change.

Fig. 1. A view of the mine with Dr. Volker Wilde on the far right for scale.

During this trip, we were sampling at the base of the mine beside a very large and very dusty bucket-wheel excavator (Fig. 2). A bucket-wheel excavator is a continuous digging machine over 200m long and dwarfs the large NASA Crawler that transports space shuttles to launch pads. Once the lignite is removed, it is placed upon a conveyor belt and transported immediately to a nearby power station. Unfortunately, the Schoeningen lignite will not last forever and the town will have to consider other energy sources (e.g. wind).

Fig. 2. A bucket-wheel excavator at Schoeningen mine.

Our sampling technique was less impressive yet equally effective. All we required were hammers, chisels and pick-axes (Fig. 3.). After a long day of sampling, we were taken to a very special outcrop at the top of the mine. The exposure contained well-reserved palm tree stumps from the early Eocene and provide evidence for white beaches, tropical plants and endless sunshine on the German coastline. An ideal holiday destination!

Fig. 3. Dr. Marcus Badger sampling Main Seam in high resolution.
Following fieldwork we were taken to the new Schoeningen museum containing, amongst other artefacts, the Schoeningen Spears (Fig. 4). The Schoeningen spears are 300,000 years old and are the oldest human weapons in existence. The spears were found with approximately 16,000 animal bones, amongst them 90% were horse bones, followed by red deer and bison. It has been proposed that these spears were the earliest projectile weapons and were used for ‘big game hunts’. Although this theory has been questioned, it remains one of the worlds most exciting archaeological finds.

Fig.4. The Schoeningen spears. Most were preserved fully intact.
Now we are back in Bristol its time to start processing our samples so we can understand what the early Eocene terrestrial climate was like. Watch this space!
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The trip was in collaboration with members of Bristol (UK), Royal Holloway (UK), Gottingen (Germany) and Senckenberg (Germay).This blog was written by Gordon Inglis (http://climategordon.wordpress.com).