Retired full professor of physical chemistry. She spent her career at the University of Belgrade, where she taught chemical kinetics and catalysis, and at the University of Kragujevac, where she lectured on molecular pharmacology.
Her research centered on the physical and chemical properties of silicate and catalytic materials; she managed many projects in the country and abroad.
She was a mentor in dozens of doctoral dissertations and has several recognized patents.
She made notable contributions to the development of the process of production and synthesis of zeolite materials which found widespread application.
She held a number of prominent positions, including the positions of Secretary of State, dean of faculties and president of the National Science Council.
Start building your first prototypeno time Ogency intuitive, drag drop interface gives building blocks that you needs
Learn MoreStart building your first prototypeno time Ogency intuitive, drag drop interface gives building blocks that you needs
Learn MoreStart building your first prototypeno time Ogency intuitive, drag drop interface gives building blocks that you needs
Learn MoreStart building your first prototypeno time Ogency intuitive, drag drop interface gives building blocks that you needs
Learn MoreStart building your first prototypeno time Ogency intuitive, drag drop interface gives building blocks that you needs
Learn MoreStart building your first prototypeno time Ogency intuitive, drag drop interface gives building blocks that you needs
Learn MoreWe discussed with Dr. Vera Dondur, a retired professor of physical chemistry and one of our greatest experts in this field, the potential consequences that lithium and boron mining could have on our country, health, and future generations, why the Jadarite ore is so unique, and what the key issues are related to its extraction.
No. That is not happening anywhere. Why? Because, in fact, mining, especially lithium mining, started in South America in salt flats and is far from populated and rural areas. In Australia, they are also isolated or in mountainous, desert, or dry areas, and they have never been on fertile land. Europe has very few attempts to mine lithium in green areas. So, in fact, this attempt to exploit jadarite in a very populated area on fertile land would, by its capacity and requirements, create an enormous mining-industrial complex that would ruin the entire sector, the entire area, with its presence.
N0.
There are many studies and papers already published about the environmental impact of lithium mining. Why? Not only because of the mining waste, which is large, but also because a lot of energy is consumed, many chemicals are used, and a large amount of carbon dioxide is emitted into the atmosphere. And the whole process is essentially about extracting lithium to reduce carbon emissions. It is still not proven that lithium mining achieves this goal.
Certainly, it is. Leaving healthy resources for future generations is absolutely justified. Why? Because Serbia is not a country that has only mineral resources. Countries that do not have other resources resort to using their mineral resources now because they have nothing else. Serbia has many other resources that should be improved and used, not to rush into using mineral resources. At this moment, this is certainly something that should not be undertaken. Technology is advancing, and the lithium in the earth will not disappear. It can wait for 100 years and become a great resource for future generations. I believe that well-educated generations will be able to assess when to use this resource, rather than exploiting it recklessly right now.
Mining, as an industry, I mentioned earlier, only makes sense in countries that do not have other resources. Serbia has other resources, and there is no reason to focus so much on mining. Besides, we have experience in Eastern Serbia where intensive mining completely destroyed nature, people's lives, and health, for minimal gain.
No, it cannot for several reasons. The primary reason is that mining in Jadar would create two new components that could potentially have environmental consequences. One is lithium, and the other is boron. Unlike lithium, which has only been mass-produced in the last decade, boron has been produced for a long time. A lot is known about it, and its negative effects on the environment are well-documented. For example, as early as 1935, boron’s toxic effects on plants were noted. There is data on this. Introducing these new pollutants into the environment in huge quantities is something for which no technology or company can guarantee that there will be no emission of these two elements into nature.
No, for the simple reason that when ore is extracted, it must be processed to obtain a concentrate with a sufficiently high amount of jadarite. When this is done, that concentrate has no value. Lithium is produced in the world from other minerals, and the most famous mineral from which the majority of lithium is produced is spodumene, a lithium silicate zeolite material, whose concentrates are traded on the market. It is mostly produced in Australia and exported worldwide for processing. Jadarite is not such a mineral, nor can it become one. So, if only the ore and the concentrate were mined, there would be no market for them to transfer to, to produce lithium, lithium carbonate, lithium hydroxide, and of course boron compounds.
Jadarite is truly a unique mineral. Why? It wouldn’t even be called jadarite if it didn’t have a specific structure and chemical composition. It is a lithium, sodium borosilicate—meaning it contains sodium, lithium, boron, and silicon, as well as oxygen like other minerals—and that’s what makes it unique. However, very little is known about it. From the moment it was first detected until now, only a few scientific papers have been dedicated to it, two of which were focused on its structure to recognize it as a mineral. There are no other scientific papers about it. There are about sixty papers in which it is mentioned as a new mineral, but nothing more. So, in essence, it is a completely under-researched, scientifically unexplored material.
Yes.
No. Why? Because at the site where jadarite is found, it is actually a fine-grained mineral surrounded by dozens of other minerals. In the ore, there are up to 40 to 50 different elements. So, the mining system to be exploited is very complex. When jadarite is mined, it must be practically purified, with that part of the ore enriched by removing the minerals in which jadarite is not present, as much as possible. However, the ore has many carbonates and other minerals that are not so easy to remove. So far, the company has reached a level where the concentrate can contain 40% jadarite, with 55 to 60% being other minerals, including carbonates. The company plans to break down this concentrate with sulfuric acid, which will require a large amount of sulfuric acid and will emit a large amount of carbon dioxide during the process.
The company has not yet solved the problem of carbon dioxide emissions from this process. Once that happens, a solution is created after treatment with sulfuric acid, which is then further processed. This solution is complicated to further process because both lithium and boron need to be extracted from it.
When the processing process is observed, it is complex because both elements are in the same solution. Lithium is produced in one way, boron is produced in another way, and there is no unique technology for the production of lithium and boron. This would be the first such technology applied in Jadar. What is the problem? The problem is that the company managed to test this technology on a relatively small pilot plant, but with a small sample. And that does not guarantee that it will be able to scale up to such large production, involving thousands of tons of simple separation of lithium and boron and the production of both lithium and boron.
The company itself has experience in producing boron compounds in California, where it has been producing boron compounds for 100 years. It has no experience with lithium and attempted to set up a pilot plant in 2020, announcing that it would extract lithium from the waste it has in California, which consists of millions of tons of waste, and that it would build a plant that was supposed to produce 10 tons initially, and then 5,000 tons of lithium compound annually. However, that project quieted down, and there has been no indication that the project has been realized. A new problem that would arise in the implementation of the Jadar project is that it is not only planned on fertile land but also envisioned as an enormously large mining-industrial complex.
No, there is nowhere in the world where lithium and boron are produced from a single ore. In Nevada, there is a project under development to extract lithium compounds and boron compounds from a surface mine where both lithium ore and boron ore are present, two different ores. This is a project that is still under development and may start in 2025-2026, or perhaps later. In this project, the process will be developed on a much smaller scale and with smaller quantities than would be the case in Jadar.
Does Rio Tinto have any experience in producing lithium and boron from a single ore?
No.
No.
Their claim is filled with incredible optimism and is somewhat unrealistic, to say the least. Why? The underground mine is not designed because they want to preserve nature, but because the Jadarite is located 300 to 600 meters underground, and it must be an underground mine. It is an underground mine in that sense, but will it affect the surface area? I can say, for example, that the daily ore production will be 6,000 tons, and that they will use more than 5 tons of explosives daily. Will it have an impact? Probably yes, to some extent. How large the impacts will be is unknown? Just the extraction field they are expanding underground will be on a surface area of at least 800 hectares. So, something will be happening underground.
This mining-industrial complex is large and will cause unforeseeable consequences even during its construction. Why? Because the surface part of the mine consists of plants and facilities for processing and obtaining lithium carbonate and boric acid. These two plants will be almost entirely surrounded by the small river Korenita, which flows parallel to the Jadar River. It forms a natural boundary for the complex, covering almost 60% of its length. Already in the construction phase, where they plan to remove large layers of earth and raise the level by 4 to 6 meters, which is not at all described in terms of how this will happen, they will endanger that small river, which marks the boundary of the complex with the plants.
The mine itself is such that it is under the influence of underground waters, and continuous mining will mean constant contact with underground waters that are full of various pollutants. They are alkaline, containing lithium and boron. According to estimates, they may also contain arsenic, hydrogen sulfide, methane, and other pollutants. Every day, one Olympic-sized swimming pool of this water would be pumped out of the mine.
A very complex issue when it comes to the underground mine is that the rocks from which the Jadarite is extracted have such a composition that it is expected that there may be collapses of these rocks and subsidence of the surface. This is practically one of the complicating factors, and all mining activities must be such that the moment a part of the space is mined, it must be filled with concrete. An enormous concrete processing plant will be installed in the surface part of the mine, which will continuously pump concrete into the mine. This makes it highly complex. We haven’t even reached the process of processing the ore, which is expected to lead to the final products.
No. First, when we talk about standards, we’re operating as though we have a standard in place. Firstly, no one in the world has a standard for lithium. Since lithium has not yet entered mass use, there are only guidelines from the U.S. Environmental Protection Agency, which has been researching it for years and has established that a standard of 1 microgram per liter in water is not dangerous for human consumption. Extensive studies are now being conducted in the U.S. and Australia, particularly regarding the impact of lithium and the prescribed doses of lithium for food, soil, and other uses. However, since Australia is a large producer of ore, it currently has two plants producing lithium and has very strict regulations on how lithium should be handled and processed in those facilities.
As for Serbia, we have a standard for boron in drinking water, which aligns with European standards — 1 milligram per liter, which is a thousand times higher than the 1 microgram standard for lithium. We also have another standard that allows for 1 milligram of boron in dust in coal mines, meaning boron is recognized as hazardous, even in enclosed spaces such as mining facilities. We had a standard for boron concentration in soil, but it was removed in recent changes over the past few years, in a rather questionable manner. I can now say, with some doubt, that it was likely done intentionally. So, we don’t have those standards, and Europe doesn’t either. As for boron, there are standards — for example, the boron compound Borax is banned for human use. Europe does have regulations when it comes to boron.
It would be special, of course, because when we consider how much lithium Europe would expect from Serbia...
All of Europe, in its plans, would produce around 1,500,000 tons of lithium over 30 years, calculated as metallic lithium, while Serbia would produce about 330,000 tons. This means that we would account for about 18 to 20 percent of the total production. For Europe, this would mean 0.36 tons of lithium per square kilometer, while in Serbia, it would be 3.7 tons per square kilometer.
When we look at how many of us there are and how many people there are in Europe, the ratio is such that our 6.5 million people and their 450 million people are not proportional to how much lithium we would contribute. When viewed per square kilometer, which is very important, Europe would have 0.36 tons of lithium per square kilometer, while in Serbia, it would be 3.7 tons per square kilometer. This would mean the following: Europe is large, and its plans and mines are spread out in the following way. The mine and processing are almost never located in the same place — that's the first point. This entire production would be dispersed across Europe. In contrast, the production here would be concentrated in Jadar, in the municipality of Loznica, and of course, in Serbia. This means that, in essence, we would provide lithium to Europe, while we would be left with pollution.
We talk more about lithium, it's more familiar to us, but we often overlook boron, which plays an important role. It is very important when it comes to the environmental impact, as we still don't know how much impact lithium will have. However, when it comes to boron, this is very well known. It is not harmless. The company Rio Tinto is aware of this. They know that boron is toxic to plants. Plants are the main indicators of the presence of boron, and some plants cannot tolerate boron. It is well-known which plants can tolerate specific amounts of boron in water and soil, and this is information that Rio Tinto possesses. They have never informed the local population about this, even when they were buying land from them, nor did they notify them. Rio Tinto has this information, and it is, of course, in their promotional materials where they try to sell waste boron residues as a supplement for insecticides, pesticides, and other products, especially in areas where there is no boron in the soil. It is well known that soybeans are very sensitive, as is certain fruit. These data are absolutely available and have been verified worldwide. For instance, in the U.S., there is an Agriculture Agency, and their website shows the toxicity levels for any plant.
Of course, as with any chemical production, there will be solid waste, waste emitted into the atmosphere, and waste that would go with wastewater. There's nothing unknown about that. Everything that goes into the production process and doesn’t come out as products will remain as waste. Practically, lithium and boron will always be left behind in the process. For example, the amount of boron would be around 10,000 tons, and lithium about 2,500 tons annually. When you look at this over a span of 30-40 years, these are enormous quantities. Naturally, not all of this waste will immediately go into the water, air, or soil, but it will continuously participate in these processes.
The first and most important thing is that this complex will be demanding in terms of energy consumption. Energy will be provided from electricity, natural gas, and diesel (for transport). According to the mildest estimates, which haven’t been thoroughly made either by Rio Tinto or independent experts, the increase in CO2 emissions will certainly be more than 0.5%, which is a significant contribution to CO2 emissions. Worldwide, efforts are being made to reduce CO2, but here it would be increasing.
Another important issue is that wastewater will contain both lithium and boron. What has not yet been determined precisely by Rio Tinto is the exact data on this. Why? Because Rio Tinto has not created the basic legal document for the exploitation and processing of Jadarite minerals, which is called the conceptual project. This document would provide exact quantitative data on capacity, production processes, emissions, waste quantities, water, groundwater treatment, etc. This still doesn't exist. Based on the materials we currently have from Rio Tinto; solid waste will be significant because the concentration of lithium in the ore is low. Therefore, it has to be large. For example, the tailings deposited will be around 2 million tons annually, and over 30-40 years, these will accumulate, reaching about 90,000 tons. The tailings ponds, where they plan to store the solid waste, will be very large—one of them will cover about 20 hectares, right in the Jadar Valley, directly in front of the windows of the people who are now protesting against the construction of the Rio Tinto complex in Jadar. This is the first tailings pond.
One of the tailings ponds would be 60 meters high. 60 meters is roughly the size of the Saint Sava Temple or a 15-story building, covering 20 hectares. It’s an enormous pyramid—an enormous stepped pyramid that they claim will later be reforested. However, on the land that contains boron, there will be nothing to plant.
The second tailings pond would be located in the valley of the Štavica River, which is a torrential river with many small streams as tributaries. It’s a valley where, on 168 or possibly 170 hectares, the forest would be cut down to make way for the large tailings, which, of course, contain lithium and boron. By global standards, this tailings material would be considered hazardous waste and classified as large-scale tailings. No country in Europe plans for such a large tailings deposit for lithium production; no country, except Serbia, is planning this.
Because it’s the cheapest option. It’s very simple. It’s the cheapest. They found that we, in fact, don’t have strict regulations, and we don’t have the capacity to oppose this in a sufficiently documented and expert manner. Of course, they found cooperation with our authorities, who aren’t sufficiently informed about what’s going on. I’ll illustrate this with an example. Rio Tinto plans to partially use water from the Drina River, to recycle process water in the plants, which is a normal process in any chemical plant worldwide, which is done. But then they say the following: they will use the groundwater, which is rich in salts, in a very large percentage, and they will purify it, but they still don’t know how they’ll purify it, and then they’ll add rainwater to it for the processes, though they don’t know how much rainwater there will be, they can’t estimate it. The only reliable water source for processes, in terms of quality and quantity, could be the alluvial plain of the Drina River. The other two sources are not viable. When it comes to water recycling, they state in some documents that they will recycle 48% of the water, while in others they say 70%. A big difference. Everyone would ask how it can be both 48 and 70. This means the company doesn’t have precise data in these areas or is hiding them, which is also not good. And most people, who suspect that Rio Tinto has bad intentions, are even more suspicious as a result.
It’s simple. Very simple. In our country, excluding the processing of lead and zinc that we used to have in Kosovo, which we no longer have, there were two mines, one at Rudnik near Gornji Milanovac. One is Majdan, and both were bought by a foreign company, which now transports the ore for processing abroad. The only big producer is Bor, and the experience with Bor is more than evident. Bor is a very old mine, exploited for a very long time. When it was set up, it wasn’t expected to be so intensively exploited. It has expanded, and its size now threatens the entire eastern part of Serbia. I think there’s no need to say more.
No. The company is closed to everyone. I’ll say that just about two or three weeks ago, I was able to get a sample of jadarite, although I had been trying to get a sample since they practically found it, purely out of scientific interest, because at that time I was researching lithium minerals very intensively. The company has its materials, worked in collaboration with our colleagues and institutes—like the Černi Institute and others—and has done quite a bit of research. That’s not disputed. However, those studies are not available to the public. The company has several materials, such as a report on the deposit. They also completed one study that is still unfinished, related to the exploitation of ore, and only sporadically mentions processing. These are the basic materials. On the company’s website, there were other materials that were available in fragments. I personally gathered all the materials I could. I dealt with them extensively, and when these environmental impact studies appeared last summer, I was very surprised that the company once again, instead of making a comprehensive environmental impact study on the exploitation and processing of jadarite, presented it fragmentarily in three separate materials, created by different teams who evidently didn’t communicate much with each other and which contained many incomplete, contradictory, and partial data. So, when a larger number of people wanted to get involved to investigate what’s really behind the project, Jadar was unable to do that. They couldn’t do it.
One more very important thing I’ll mention. The spatial plan was created based on incomplete data, exclusively from the materials that our institutions received from Rio Tinto. They even stated in the spatial plan that they had documentation from Rio Tinto with conceptual solutions. What are conceptual solutions? No one can say what that is if they are technically educated. There is a conceptual project, not conceptual solutions. So, when I look at this, I’m very surprised that the broader scientific public hasn’t been more involved in this issue, but I’m not because people don’t know where to start, what to look at.
Rio Tinto considers itself transparent just because it issues statements, only when someone says something unfavorable, they are very loud in the media, issuing press releases denying it. That’s a wrong approach. There are already many such statements, media responses, and attacks that people are hesitant to make their own comments, which is damaging. The company doesn’t even realize that it’s damaging itself, not just trying to disqualify people who say something. I would actually strongly recommend to the company that the team it hired to work on this project first review the materials it released to the public, especially the so-called environmental impact studies, and remove all the data that is not backed up. Why? People ask why we didn’t give objections. What objections could we make on something the company itself says it doesn’t guarantee the data in those studies? What should I comment on? I’ll take you back to the issue of water, which we briefly touched on. What would the effects of the excavation in Jadar really be, especially on water sources and potential contamination? This is very complex. As I mentioned earlier, the only reliable water source that would supply the entire mining-industrial complex is the alluvial plain of the Drina River. However, what’s confusing is that the company states in the same document, even in the spatial plan, that they would use between 1,000 and 5,000 cubic meters of water per day. How much? I don’t know. I believe they don’t know either.
When water purification is mentioned, a new problem arises. The issue is that wastewater, by the nature of the process that occurs, must contain lithium and boron in amounts that are not insignificant. And what the company says next is this: they will use a combined system for wastewater treatment that involves something called ultrafiltration or reverse osmosis, which are well-known methods widely used around the world for desalinating water—water used for drinking or irrigation. These methods are widely used in Israel, Cyprus, Malaysia, the United Arab Emirates, and many other places. However, in these waters, the concentration of boron is low. Boron is a very specific element, very similar to water, and in the reverse osmosis membranes, it cannot be treated effectively if the concentration is high, significantly higher than that in seawater. Such a concentration is expected in these processing plants. It’s not clear how the company intends to handle this; there’s no scientific data showing that reverse osmosis is effective for such high concentrations. There is no data anywhere in the world that shows these high concentrations of wastewater can even be purified. Why? Because this method is extremely expensive and requires a large amount of energy to operate. Between three and ten kilowatt-hours per cubic meter of water are consumed in this process. In Saudi Arabia, for example, they install solar cells and can afford to do this.
That’s another problem, a new problem. All chemical processing companies try to separate mines from processing plants. The processing plants are located in so-called industrial zones, which are positioned along the shores of large rivers, seas, and oceans. Australia has placed its two new plants—one is already operational, and the other will be next year—on the coast of the ocean in Perth. The discharge pipe goes several kilometers into the ocean under strict conditions regarding how much lithium must be discharged. There’s no boron there. On the other hand, Turkey is the world’s largest producer of boron compounds, with four mines. The largest plant is in Bandirma, also on the coast of the Sea of Marmara, a processing plant that discharges boron waste into seawater where boron is present.
There’s no Jadar Sea, there’s none. The Jadar River is a small river with a small capacity, and the company is trying to convince us that it will discharge a small amount of wastewater and will recycle a lot. As I said earlier, the data on recycling is all over the place. Again, different sources state different amounts of wastewater that will be discharged. We’ve heard from colleagues involved in the study that they will carry out remineralization, and that the water will be completely purified. But purified water cannot be completely purified. Water must contain everything that was in it, it’s just a question of concentration. If they were purifying water that has a maximum of 800 milligrams of material, and if they purify it to only 1 milligram—our standard—they would purify the water to 99.9% purity. Absolutely unbelievable. This means that all the statements made by the company must be precise, accurate, and not make promises about things they cannot fulfill. Just as they didn’t tell the population that boron is dangerous for plants, they haven’t told us how much wastewater will actually be involved. And they can’t say until they have a conceptual project.
Well, the exploratory boreholes that leak, which they can’t seal, show that. Even though they’ve been drilling for decades. The exploratory borehole that is leaking and has been the subject of media reports in recent weeks was checked by eminent institutions in 2021. There are photographs showing that the water contains both lithium and boron. The exact amount of boron is known. That photograph, of those boreholes, shows a barren area where soybeans couldn’t grow. Soybeans are very sensitive to boron. Rio Tinto can get angry or make strange statements about our colleagues who studied this, but their data is accurate. And even if it weren’t, Rio Tinto knows exactly why the soybeans didn’t grow.
Eurolithium explored Valjevo and Mionica. Balkan Limited explored Rekovac. Before that, the Piskanje deposit, near Baljevac on the Ibar, was explored. There isn’t much lithium in those exploration boreholes, but lithium was detected. I’d say that in the 1990s, small concentrations of lithium were detected in surface layers in many parts of Serbia by our colleagues from the Faculty of Geology, led by Professor Jelena Obradović. Would expanding those exploration works lead to the discovery of something that would produce commercially promising results? It’s hard to say. These deposits, especially in Valjevo and Mionica, actually contain more boron than lithium. They contain more boron than lithium, but when it comes to boron, the search for it worldwide isn’t significant. Why not? Because Turkey’s ore reserves are still large enough for the entire world, and Rio Tinto, which is also a producer of boron compounds, knows this. These millions of reserves in Russia, Kazakhstan, and other more acceptable locations are much more cost-effective. Boron compounds aren’t expensive products. Right now, I don’t know the current price of lithium carbonate, maybe around $12,000 per ton, but boric acid, the other substance that would be produced, is around $720 per ton. For years, the public in Serbia has been hearing about mining plants throughout Serbia, with the Homolje Mountains at the center of attention—Bor, Majdanpek—and this one piece of data that says 40 new mines will be opened in our country by 2035.
What is certain is that people in Serbia need to be aware. Serbia is too small to have one more mine, and one more mine than Bor is already too much. And of these few mines we have, including the coal mines, opening 40 more would mean that we’re gone. That we’ve disappeared from the land we’ve managed to preserve for centuries. We have no reason for that. We have no reason for that. This rush that has led mining companies to explore so much is essentially a consequence of many subsidiaries of large foreign companies, and it’s one of their outlets that doesn’t represent much of a cost to these companies. Most of the advocates for opening mines in Serbia are actually representatives of "trinket" companies that we need to expel from here.
What I know is that this would just be a cover, because the state wouldn’t manage anything with such a small stake. Economists have told me that the state would only be able to manage if it has more than 51%. This would just be a cover for the company to continue doing whatever it wants here, just as it has been doing.
First of all, that’s a journalistic cliché—the oil of the 21st century. It can’t be. Lithium batteries aren’t an energy source; they just store the energy we give them, and when they’re depleted, we have to provide that energy again. So, anyone who has ever picked up this mobile phone knows that when the battery runs out, you need to recharge it. Where does it get recharged? From the outlet. Where does the power come from? From electricity. We can produce electricity from hydropower and solar, from wind, and, of course, from coal. We don’t have much sunlight; we don’t have much wind. What we still have is coal. And we need to be aware that we should use our coal more efficiently, without emitting carbon dioxide into the air. But will this save the global industry and energy sector? That’s not true. So, as a university professor who has spent a good 43 years at the University of Belgrade and a few years at the University of Kragujevac, I think we need to educate young people to look at the world’s problems and technological development with open eyes and be much more prepared than we were. We wouldn’t be in this situation if my generation and the one behind me were more prepared to think about the future. I think we weren’t ready. That’s why we’ve fallen into all these difficulties. We need to teach those who come after us to carefully manage resources so that they have something to leave to future generations. As generations, what will we do now? Economists say this is an unprofitable job. We say, fine, it’s unprofitable, but we’ll do it anyway. What will people who are 20 years old now say to their grandchildren in 40 years? We had lithium, now we don’t. We had clean air, now we don’t. We had clean water, now we don’t. What do we have? We have land, and it’s polluted. We need to leave something for future generations. That could be the generational message.
My message to my colleagues is that this is not a personal problem for any of us. This is a fundamental problem. And relying on politicians’ thinking shouldn’t be the way forward. Scientists should rely on what science has always served, which is understanding the future. What is the future? So, I appeal to my colleagues from all universities in Serbia to get involved in this discussion. They don’t have to follow the steps of what someone has already said. We should think, does Serbia need these mines? I don’t think it does, and I think anyone who has ever been involved in real science in Serbia would say the same.
Thank you.
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