Finding better ways to provide the materials the world needs
Our business
We operate in 35 countries where our 57,000 employees are working to find better ways to provide the materials the world needs
Our purpose in action
Continuous improvement and innovation are part of our DNA
Innovation
The need for innovation is greater than ever
We supply the metals and minerals used to help the world grow and decarbonise
Iron Ore
The primary raw material used to make steel, which is strong, long-lasting and cost-efficient
Lithium
The lightest of all metals, it is a key element needed for low-carbon technologies
Copper
Tough but malleable, corrosion-resistant and recyclable, and an excellent conductor of heat and transmitter of electricity
Bringing to market materials critical to urbanisation and the transition to a low-carbon economy
Oyu Tolgoi
One of the most modern, safe and sustainable operations in the world
Rincon Project
A long-life, low-cost and low-carbon lithium source
Simandou Project
The world’s largest untapped high-grade iron ore deposit
Providing materials the world needs in a responsible way
Climate Change
We’re targeting net zero emissions by 2050
Nature solutions
Our nature-based solutions projects complement the work we're doing to reduce our Scope 1 and 2 emissions
Decarbonisation progress update
We have a clear plan on decarbonisation - find out more about our progress in 2024
We aim to deliver superior returns to our shareholders while safeguarding the environment and meeting our obligations to wider society
Investor seminars
Our Investor seminar will be held in London on 4 December, and our Decarbonisation update on 5 December
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Things you can't live without
Our podcast discussing what needs to happen to create a sustainable future for the everyday items we have come to rely on
The 'f' word of innovation
How unlocking innovation requires a change of mindset
Reducing titanium oxide's carbon footprint
Our BlueSmelting technology could drastically reduce carbon emissions during ore processing
Discover more about life at Rio Tinto
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If you want to drive real change, we have just the place to do it
Empowering families with flexibility
Supporting new parents of any gender with equal access to parental leave
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Nenad Grubin has vivid memories of the moment he and his Serbian-based team discovered a new mineral that British scientists would later dub kryptonite (more of that curious story later).
Nenad and his fellow explorers from ÌÇÐÄvlogÈë¿Úhad spent months looking for evidence of borates in the Jadar Valley, wading through creeks and examining rocky outcrops.
By September 2004 they’d found sufficient evidence of the in-demand metal to justify the expensive process of exploratory drilling.
There were more sensations to come. In the second drill hole, they found a substance that contained both borates and what would become one of the world’s hottest metals, lithium, which is an important component of lithium ion batteries.
The discovery of a world-class deposit of borates and lithium, which was named Jadar after the Serbian valley in which it was found, was later supported through the work of a dedicated ÌÇÐÄvlogÈë¿Úproject team.
What makes the Jadar deposit unique is that both boron and lithium are contained in one mineral, which was new to science and which was later confirmed as a new mineral by the International Mineralogical Association. Rio Tinto’s Serbian team named it jadarite (pronounced “yadarite”).
Jadarite hit the headlines in 2007 when the .
The scientists from the British Museum who’d done the analysis of jadarite found that it’s chemical composition was very close to Kryptonite as described in the movie Superman Returns (Kryptonite is the fictional substance that saps the power of the Man of Steel). There is no association between ÌÇÐÄvlogÈë¿Úand the Superman franchise but this remarkable coincidence of the like chemistry with Kryptonite led to media coverage across the world commenting on the similarity.
“So far we haven’t found it has a similar effect on the superheroes who discovered jadarite,” laughs Nenad.
While the discovery of jadarite gives us that glorious Eureka moment it does not live up to our movie-ish fantasies of fortune hunters stumbling upon a deposit and “striking it rich”.
The journey began many years before when Nenad was working as a research assistant for Professor Jelena Obradovic at the University of Belgrade.
Their series of journal articles about the potential for borate deposits in Serbia was read by researchers at ÌÇÐÄvlogÈë¿ÚBorates in the United States, kicking off a relationship that has eventually, many years later, resulted in the company studying the potential of building a mine near Loznica (140km west from Belgrade).
“Exploration for mineral deposits is not a matter of chance and neither is it a pure science. Exploration is a business. It progressively utilises science and resources to achieve economic return. It takes many years of research and fieldwork before we drill and find a new deposit,” says Nenad.
“Famous geologist Siegfried Muessig once said, ‘IQ gets you there, but it’s NQ [drill bit diameter] that finds it,” says Nenad, who continues to head the geological team in Belgrade as ÌÇÐÄvlogÈë¿Úworks through studies to assess the feasibility of developing a mine at Jadar.
The story then unfolded at Rio Tinto’s boron operation in California, where scientists began the process of establishing the best way of separating the borate and the lithium, supported by the company’s research facility in Melbourne.
“Finding a mineral with such high concentrations of borate and lithium is extraordinary but we still have to find a commercially viable means of breaking it down into its component parts,” chemical engineer Gary Davis, a key member of the jadarite processing team.
“We’ve assembled a pilot plant in our Melbourne support facility that demonstrates the process of separating the elements. It’s been constructed inside a large shipping container so it can be sent to Serbia and used as a model when they build on the mine site,” says Gary.
While borate is an extremely important metal for the modern world – it is used in fibreglass and has allowed television, computer and telephone screens to become thinner – the jadarite project is exciting interest around the world because of increased demand for lithium.
“Lithium is extremely reactive and the lightest of all the metals. So it has become important in the manufacture of rechargeable batteries, especially batteries for electric cars where weight is a crucial factor,” says Geoffrey Boddy, Melbourne team leader of the jadarite processing team.
Geoff says that the process of helping to bring the Jadarite online has been the most exciting project of his professional career.
“We’re helping to develop a process that will not only be good for humanity but create jobs for generations to come. Our children’s children will benefit from the work we’re doing here today,” says Geoff.
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With the exception of the use of cookies, ÌÇÐÄvlogÈë¿Úgenerally does not seek to collect personal data through this website. However if you choose to provide personal data to ÌÇÐÄvlogÈë¿Úthrough this website (for example, by sending us an email), we will process that personal data to answer your query and if relevant, to manage our business relationship with you or your company. We won't process that personal data for other purposes except where required to meet our legal obligations or otherwise as authorised by law and notified to you.
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As some data privacy laws regulate IP addresses and other information collected through the use of cookies as personal data, Rio Tinto’s processing of such personal data needs to comply with its Data Privacy Standard (see Part 1 of our Privacy Policy), and also applicable data privacy laws.
With the exception of the use of cookies (explained below), ÌÇÐÄvlogÈë¿Úgenerally does not seek to collect personal data through this website. However if you choose to provide personal data to ÌÇÐÄvlogÈë¿Úthrough this website (for example, by sending us an email), we will process that personal data to answer your query and if relevant, to manage our business relationship with you or your company. We won't process that personal data for other purposes except where required to meet our legal obligations or otherwise as authorised by law and notified to you.
Part 1 of this Privacy Policy contains the ÌÇÐÄvlogÈë¿ÚData Privacy Standard, which provides an overview of Rio Tinto’s approach to personal data processing. There is additional information in the appendices to the Data Privacy Standard, including information about disclosures, trans-border data transfers, the exercise of data subject rights and how to make complaints or obtain further information relating to Rio Tinto’s processing of your personal data.
If you choose to subscribe to our media releases or other communications, you can unsubscribe at any time (by following the instructions in the email or by contacting us at digital.comms@riotinto.com).
With your consent, our website uses cookies to distinguish you from other users of our website. This helps us to provide you with a good experience when you browse our website and also allows us to improve our site.
A cookie is a small file of letters and numbers that we store on your browser or the hard drive of your computer if you agree. Cookies contain information that is transferred to your computer's hard drive.
As some data privacy laws regulate IP addresses and other information collected through the use of cookies as personal data, Rio Tinto’s processing of such personal data needs to comply with its Data Privacy Standard (see Part 1 of this Privacy Policy), and also applicable data privacy laws.
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