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Jan-hendrik Mohr
CEO, CLAAS Group, CLAAS KGaA mbH

Jan-Hendrik Mohr, CEO CLAAS

🎥 Feb 26, 2024 📺 Kassenzone ⏱ 86m
In this episode of the Kassenzone podcast, a small dream comes true when I get the chance to drive the CLAAS Xerion tractor ...
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About Jan-hendrik Mohr

In a February 2024 podcast, Mohr discussed his career and the company's products, noting that he began his career at CLAAS 40 years ago in the development of the Xerion tractor. He described the Xerion as a "wonder of technology" and highlighted its "crab steering" feature, which allows the cab to rotate. Regarding the company's operations in China, Mohr stated that CLAAS has established local production and value creation there, while continuing to export machines from Germany and France to China. In a January 2023 podcast, Mohr described agriculture in Romania as fitting into the global picture of food production and responsibility. He noted that while there are differences in culture, soil, and climate across Europe, there are also many commonalities in farming methods. Mohr expressed that corn has a great future in Romania due to its yield potential, and he encouraged young people to learn about modern farming. In selected quotes, Mohr stated that agriculture is key to feeding a growing world population and expressed sympathy for farmer protests, provided they remain democratic and peaceful. He also said that the industry needs to attract young people into agriculture and agricultural machinery development.

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Transcript (88 segments)
A
Alexander0:01
Welcome to the Kassenzone podcast this week. A little dream came true for me — I got to drive a tractor, specifically one of the largest in the world, the Xerion from CLAAS. I arranged the deal last year at Hans-Peter Fricke's hundredth birthday celebration for his company, where I met the CEO of CLAAS, Jan-hendrik Mohr. I said I'd love to interview you on the podcast, and he said sure, come to Harsewinkel and you can also drive the Xerion. I did that, and also drove the large — or I think medium-sized — Lexion. I drove over an obstacle course, which was quite fun. I'll send some footage to the Instagram channel instagram.com/supergraf so you can watch me driving tractors. The Xerion has a feature where you can drive crab-steering, a kind of dog-walk mode. The cab can rotate so you can drive backwards while looking forwards. That might be totally irrelevant to most listeners who are wondering what kind of weird feature that is, but in agriculture it's actually a highly sought-after feature. And we're not just talking about agriculture but also a bit about macroeconomics — what do farmer protests actually mean? Is the same thing coming for agriculture as what happened to the solar industry 20 years ago? Are we now selling off our important assets, relocating them abroad, and then eventually getting our food and equipment delivered back from Brazil and China, making ourselves dependent? Or are there smarter strategies? How many tractors can you actually sell? How big is the world market? How many fields are still manually cultivated? How do you sell these things online? What effects did Corona have? The agricultural industry had very strong years in the last two years; currently prices have come back down. You can see this in the fact that Polish farmers are protesting against Ukrainian grain imports. A very exciting topic, an incredibly cool company. I initially got the revenue wrong — I said four billion in the podcast, but they actually do six billion. I took the four billion from a simple Google search, which also shows that Google isn't always up to date on these things. Very successful, very innovative, fascinating production on site. The highlight was of course driving tractors, as it is for every big boy — or most of them, and for girls too. Now let's get into the podcast — enough fanboy talk. Listen to what Jan-hendrik from CLAAS has to tell us.
J
Jan-hendrik Mohr2:50
Jan-hendrik: Hi, very happy to be here. Probably my podcast highlight of the year. We met about two and a half years ago at the hundredth Fricke birthday celebration — that fits well since the episode with Hans-Peter Fricke is one of the most successful podcast episodes. Today we're talking about the products he trades, namely CLAAS. Before I say anything wrong, introduce yourself briefly and tell people who've never heard of CLAAS what it is. Yes, first of all it was great that we met at Fricke — it was a wonderful event, and when a company celebrates 100 years that's truly something outstanding, and that evening was just like that. Well, CLAAS is actually quite simple: we develop, produce, and distribute agricultural machinery and everything surrounding it — spare parts, financial services, and increasingly some digital offerings. We do this, among other channels, through sales partners like the Fricke company, which handles this for us in many regions of Germany. Fricke is one of the largest sales partners we have worldwide.
A
Alexander4:11
And I was here on the drive, passing various fields along the autobahn. There was quite a lot of rain. In our e-commerce industry there's always one category that always complains about the weather — the fashion sector. If it's too warm, people don't go to stores; if it rains too much, they don't buy either. We always have this weather discussion. In agriculture, it seems like weather is actually a significant factor. If you look out there at the drizzle — is weather a topic that will be mentioned in the next annual reports, or is the business you do weather-independent?
J
Jan-hendrik Mohr4:45
Weather always plays a major role, and it's perhaps important to note that without rain nothing works in agriculture — it's an absolute operational necessity. Right now it's a bit too much in the northern regions of Europe. In the south it's quite different at the moment. You have to see how you deal with it — the years are different. There are dry years, wet years, and it's actually quite rare to have a completely normal year matching the long-term average. Right now it's certainly the case that one might think it would be a good idea to develop a swim-capable combine harvester, but we're not working on that yet. We're hoping for better weather come spring.
A
Alexander5:32
Okay, let's talk a bit about your products — what you actually sell. In recent weeks during all the demonstrations you could see a lot of CLAAS tractors on the roads. I think tractors — people in Germany have seen those. But now I see a showcase back there with many other devices. What does CLAAS stand for? If I asked my neighbor farmer what CLAAS builds and who builds the best XYZ, what would he say? What does CLAAS stand for?
J
Jan-hendrik Mohr6:00
If you say 'the best,' then that's certainly first of all a matter of quality and reliability. Then comes technology and performance capability. And a very important third point is that agriculture as an industry naturally thinks long-term across generations. Reliability — we as a family company have been part of enterprise history for 110 years now, actually 111 years. And CLAAS clearly has a brand and products that stand for long-term thinking, durability, and reliability.
A
Alexander6:44
Which products are those specifically? Which types? If the listeners here don't have an agricultural background, they only know tractors, but I see a combine harvester there too, and I saw quite a few on the drive here. Is that your core product?
J
Jan-hendrik Mohr7:02
Over these 110 years we've certainly developed enormously and expanded the product portfolio. The combine harvester was the starting point — CLAAS was built on that. That's the core of the company product-wise. But as you say, over the course of these 110 years, things were continually added: self-propelled forage harvesters, forage harvesting technology, and especially tractors. About 20 years ago we acquired Renault's agricultural machinery division and since then have had tractors very prominently in our portfolio, which we've also continued to develop. Before that there were no CLAAS tractors — those only came after we made that acquisition. Before, there was only one CLAAS tractor, the Xerion, which has been around a bit longer. That's how the company history grew over the decades. There are still products we don't have in our portfolio and don't currently plan to add, and we work — or rather the trade works in partnerships — with soil tillage equipment manufacturers, crop protection machine manufacturers, and so on.
A
Alexander8:19
And you belong to the top companies in agricultural technology. Some other big names might be familiar — Deutz-Fahr for instance might ring a bell for some listeners. I looked at your numbers in recent years — you've grown quite strongly, but agriculture overall, when you look at it globally, hasn't grown as strongly as you have. Maybe we can look at that separately. How big is actually this agriculture market? Have we already maxed out in Europe — are we already getting everything out of the fields? I mean, I either spoke with you or someone else at the Fricke celebration who said that a large part of the world's fields are still cultivated manually. I couldn't imagine that, but it seems to be the case. What kind of potential are we actually talking about here?
J
Jan-hendrik Mohr9:02
Well, the global agricultural machinery market — depending on whose numbers you get — is somewhere around 120 billion euros. Could be 130, could also be 110, depending a bit on the economic cycle. Quite large. In this market there are very big players — you named a few — and also very small agricultural machinery companies, sometimes just a forge. It depends on where you operate globally, and in that context we're positioned among the larger ones. Certainly with a gap to the very largest, but we're number five worldwide. Among these five, we're the only truly one hundred percent family company, based in Europe, fully competing. The perspective is very clear: for CLAAS, expanding the portfolio is key. We just talked about tractors as a growth field — increasing market share, particularly in the tractor segment, where we see a lot of potential. And as another dimension for CLAAS growth, internationalization is a very important point. In North America, for example, we've grown very, very significantly over the last five years — more than doubled. Those are the factors we work on daily.
It's important that all this happens on the basis of agriculture that is developing. I wouldn't say anymore that agriculture is largely still operated manually worldwide — I don't think that's the case anymore. Machines have become very, very widespread. But there's a great inhomogeneity — markets like Western Europe where mechanization is one hundred percent, with ever-larger machines with higher performance and technology going into those markets, while the development speed in certain world markets isn't as great. And there are of course certain countries with a large number of subsistence farmers who basically cultivate their small plots of land and three pigs manually for self-sufficiency. There's a certain inhomogeneity. I recently recorded a podcast with an Indian entrepreneur who said that in India, for example, it's still largely like that — about 80 percent of agriculture is small-scale operations, and large-scale operations as we know them in Europe are very rare there.
A
Alexander11:51
From these 110 to 130 billion — depending on which numbers you take — in annual revenue, how much of that actually refers to tractors? That's what the average citizen perceives as the agricultural machine. How much does the average farmer in Germany spend when buying a new tractor? You have a nice model sitting there on the table.
J
Jan-hendrik Mohr12:57
Yes, that's an Axion 870 — or I think I need glasses. Can that be right? Yes, Axion 870. That's a standard model, a model range in very high demand in Germany. One of the model lines we sell the most of, alongside the 500 and 600 Arion series. If you wanted to ask the question how much such a machine costs — well, it depends a bit. With tractors, CLAAS has everything from small to very large, and prices range from somewhere around fifty thousand up to, in extreme cases, four hundred thousand, five hundred thousand euros. It depends very much on what product is needed in agriculture. Large operations have large acreage — one farmer gladly buys a 100-horsepower tractor, and the next says 450 horsepower is just right. This rule of thumb I once heard — 1,000 euros per horsepower — that still roughly fits. If you have a 150-horsepower tractor, 180 horsepower, that's about right, though it tends to be a bit lower.
A
Alexander14:19
And then I was talking yesterday with another neighbor who does a lot of contract work and recently had an accident — a truck drove into his tractor. Now he says I need to buy a used tractor. He runs a small contract farming operation, doesn't need such a huge tractor. He's looking in the 120 to 180 horsepower range. I said to him, but there have been so many new tractors sold in recent years — there must be a huge used market. He says no, you can hardly find affordable tractors. They're always 20, 30 thousand euros more expensive than they were five years ago. What's the situation like in this market — is it actually difficult to find affordable used machines, or are new machines also hard to come by? How does the market look right now?
J
Jan-hendrik Mohr14:42
Well, we're of course coming out of an absolute boom phase of the last two years. Agricultural machinery worldwide had total tailwind — it went very, very well. And certainly the development of commodity prices for milk, for grain, contributed enormously. We had times when the price doubled very briefly, which helped the liquidity of agricultural businesses. They were moving with tailwind and invested in technology. That also means that the used machinery markets are empty. When things are going well, it runs through the entire chain — businesses buy new, the machines they drove before get sold. There's also an export market where all the old ones end up — those are flourishing too. This boom in agriculture, in agricultural machinery, has taken place worldwide.
Certainly it's also the case that countries like Germany — we're a net used machinery exporter. The tractor population in Germany is relatively young, and used machines keep going across borders to other countries that are very actively buying used machines. The business was flourishing. Currently it's more of a normalization. Unfortunately for agriculture — perhaps quite good for consumers, for example in Africa — prices for agricultural goods, for food, have fallen. Grain prices have halved again, currently even more than halved. Milk has become cheaper again. And then this cyclical situation naturally reverses.
For me it's always simple: when someone asks how's business, I always say it depends on how the farmers are doing. If our customers are doing well, then we're doing well too. Currently it's more the case that through the price changes there's headwind for our customers. Then come the uncertainties from the setting of political framework conditions and various crises worldwide. Right now you can see in the forecasts of the publicly listed companies — the really large ones worldwide who just published their quarterly reports — that a decline is expected.
A
Alexander17:46
How do you look at the topic of farmers' protests in recent weeks? That's basically an expression of dissatisfaction and also of uncertainty. The diesel issue was what almost pushed things over the edge, but obviously there are several things underneath. There were many well-informed interviews with farmers who said there are simply too many rules, too many things that make agriculture unattractive for the future and make succession extremely difficult. We have very high production standards here but we're essentially regulating ourselves into ruin. There are so many different voices and areas of influence. Some farmers even said we don't really need subsidies anymore. How do you look at that as a company?
J
Jan-hendrik Mohr18:32
I think the mood in agriculture is a very complex mix. Many factors, in my opinion, contributed to these farmer reactions across Europe — there might be some unease worldwide as well. Agriculture ultimately feeds a growing world population. That is absolutely key — key — key. Nutrition is always the very first thing a person needs, and that must not be forgotten. And when an industry — which is ultimately an economic sector, agriculture — is pushed around by all sorts of new laws, there are really only ever increasing restrictions, reporting requirements, and so on. Then come cost factors like the mineral oil tax, and perhaps in a distorted way, particularly European or even German farmers have to bear additional burdens. At some point you reach a point where you give feedback and react.
We at CLAAS have sympathy for the farmers' reaction. Of course it must be democratic — protests should be permitted, no riots, etc. — and that's how it should be: peaceful, solution-oriented. And what happened there has our sympathy. It also had sympathy in the general public in many places. We have to see how things continue. The politicians have promised quite a lot. The diesel issue is one of many — it's a special focal topic where much crystallizes. In Berlin there's supposed to be a ten-point program from the federal government for agriculture. Quite a bit is being discussed. In Brussels, Ursula von der Leyen already announced something last year in late summer/early autumn — also a strategy for agriculture. That has become a bit more intense since the end of January.
And I think what farmers rightfully expect — what I personally also expect as a citizen and taxpayer, and as someone who enjoys breakfast, lunch, and dinner — is that politicians deliver a bit more than just verbal resonance. That actually some relief comes for the farmers. When I talk to my neighbors about it — many of whom are active in agriculture — they say we're running the risk of doing what we did in the solar industry 20 years ago: giving away production capabilities and innovation to other countries. We're actually doing the same thing now.
You already said the agricultural machinery sector is a huge exporter, a massive industry. You could see that at Agritechnica too. We have very good production conditions in Germany, and through various rules — for example land set-aside, very expensive documentation — it leads to farmers having to give up, and the eggs that were previously produced in good production environments in Germany are now coming from abroad in much lower quality. The scenario being presented: we have to be careful that we don't end up getting corn in containers from China. Since I'm also relatively close to the energy sector through my parallel podcast Energiezone, where this is always presented as one of the great strategic mistakes — abandoning a complete industry and then it migrating to China. It's certainly a bit different with food, but I do have a certain sympathy for these parallels.
It is really like that — in Hungary, in Poland, in Bulgaria it's much easier, much cheaper, far less regulated than it is in Germany.
Your last point: there are certainly inhomogeneities across Europe. That's clear. There are countries that are strongly out in front, or when a rule comes from Brussels and is then even more strongly interpreted in local legislation. But otherwise the EU is, I think, fairly homogeneous.
Fundamentally, on the topic of food security: the goal is actually also from the political side — agricultural policy — that countries can be one hundred percent self-sufficient. If you look at Germany, we certainly won't manage that for coffee, bananas, or tea — that would be an illusion. But we can perhaps produce other things so well that we cover even more than one hundred percent of our own needs. And then imports and exports can net out. And I think it's important that Germany doesn't become a net food importer. We live in a favored region in Germany, climatically, and we have many opportunities to produce highly productively and efficiently. I think we have a global responsibility for that.
If, for example, along the Baltic Sea coast in Mecklenburg-Vorpommern, just as in Denmark, southern Sweden, or in eastern England, the highest yields per hectare are possible, then that's a contribution one can make — using these areas accordingly. And then German agriculture can certainly contribute to Germany remaining one hundred percent self-sufficient. There would be a slight net balance. But that means, of course, if we import bananas, coffee, and tea, that we for example export rapeseed and wheat. And we can only do that if we produce large quantities highly productively, as is possible in this favored region around the Baltic Sea, for example.
Today we are net food exporters. I think today it's roughly self-sufficiency with a slight tendency that we may no longer achieve the one hundred percent level. And it's already worth questioning whether that one hundred percent level can be maintained with organic alone. In my opinion, it's always easy to say or claim that one can still be productive even if one foregoes certain aids — genetics, fertilizer, crop protection, etc. These are all things that have helped to significantly increase agricultural production over the last decades. It was a huge success recipe. And if you don't want that anymore but do it differently, the question is to what extent this self-sufficiency is guaranteed. And if we become a net importer, then it must come from other world regions. For example, Brazil — who wants that? These are really points where you have to think very carefully.
A
Alexander25:50
And now just a simplified calculation: one hectare of organic wheat versus conventional — what's the yield difference?
J
Jan-hendrik Mohr26:00
That can certainly be a halving. It depends a bit on how you do it in the organic sector, and it depends on which region it ultimately takes place in. If you can continuously harvest 8 tons, 10 tons, 12 tons of wheat per hectare around the Baltic Sea, then that's not guaranteed to be achievable in a purely biological way.
A
Alexander26:29
That's good to hear — nice advertising for my home region. And how do you observe the land use debate? We had that a lot in the energy podcast — the 'plate or tank' discussion. How are areas actually used? Can you build solar installations on them? We've had the biogas topic over the last twenty years — that's changed massively. And when I listen to what you're saying — that areas for bioproducts are declining a bit — is that really such a huge problem? If a thousand hectares more in Germany get covered with solar panels, maybe with agrivoltaics where you can still run sharp machinery underneath, is that really such a big problem?
J
Jan-hendrik Mohr27:21
Well, fundamentally the 'plate or tank' debate: in my opinion, the preference for 'plate' is absolutely clear. We just talked about feeding a growing world population — that's the absolutely primary task. But beyond that, if it's possible to produce energy, but not only that, also raw materials for industrial use — and doing that in a CO2-neutral, circular-economy-oriented way — then I would say that's a fantastic opportunity for agriculture to do something more than just produce food. But of course that only works if the production volume is there. I can only think beyond 'plate' if I have the volume to, for example, convert into biogas, or make fiber materials usable for the automotive industry as raw materials.
Therefore it's also important to ask: how does agriculture actually produce these quantities? Five years, ten years ago in Berlin during the Green Week, there were always discussions about how to actually double agricultural production by 2050. That's a necessity if you want to feed the world population and at the same time use agricultural production as a 'tank' and raw material supplier. Because agricultural production is fundamentally a circular economy, CO2 neutral — everything consumed grows back. From that perspective, it's actually an ideal point to improve the global CO2 economy.
That is a global goal, improving global CO2 balance through agriculture. That's a global goal — that cannot be achieved by Germany alone. Germany's share of global production is simply too small. Do we have to cover everything with greenhouses?
A
Alexander29:26
But briefly, before we get to your products again — we don't want to forget those. Just briefly on the global perspective regarding climate: I saw a picture yesterday — this year Morocco, last year Morocco — or generally we're seeing stronger desertification of many world regions. Spain already has water problems in the south. Do you notice this in the industry? Is this shifting production, and do we need to produce more in these favored regions because we obviously have enough water here — maybe store it differently so we can irrigate in summer? Is this a topic where you look at global climate change tables and see where production might still be possible and where not?
J
Jan-hendrik Mohr30:10
I think you can't look at this short-term. In Germany, we picked up the weather topic earlier — currently too much water. In recent years we also often had too little water. Before that there was again too much water. These are fluctuations. These climate themes work more long-term, and there are of course changes. And there are not just regions that perhaps lose because there's too little water, but very long-term there can also be regions that gain. Southern Sweden I mentioned earlier — perhaps that shifts northward. Definitely, for example Central Asian steppe regions might get better agricultural production through more rain.
If you say 'local for local,' I think it's important that agriculture develops along with it. That includes for example varieties that are drought-resistant. That doesn't mean you have to cultivate a desert somewhere, but that instead of 300, 500, 800 mm of rain per year, you perhaps have 100 mm less, and how do you manage that? How do you do soil cultivation so that the rainwater that falls remains in the soil and can be usefully supplied to the plants? These are also themes that are naturally important long-term. For example, in the breeding of new varieties, that's important.
And for us it's naturally important — I can come back to the combine harvester topic — that a combine harvester can handle the most diverse crop types. When crop rotation changes and instead of two or three crops that we traditionally have in agriculture — say wheat, barley, sugar beet and then it starts again — perhaps in between there are lentils, peas, and this and that. A machine that's capable of properly harvesting all these things — this multi-crop capability, which has always been a theme for us, has now become even more intensive. We've, for example, shifted our machine validation — the testing of new prototypes — to Denmark, because in Denmark you can find many specialty crops, for example grass seed, but also all sorts of other things.
That's a very, very important factor — to be able to do that. The harvesting conditions themselves are very, very important. Being able to provide technology for particularly dry regions like Australia, or also particularly wet regions — so that you run trials in northern Denmark or even northern England, Scotland. These are things where we try to adjust technically to changing framework conditions.
A
Alexander33:13
So climate changes already affect equipment development. I saw in your CV that you have an engineering background and I think grew up on a farm — perhaps... But how close are you to the equipment? When you walk past the Lexion here, or by the Arion 1 — many devices are displayed there. Can you still operate them yourself? Can you contribute and say 'this, that, that's a bit strangely designed — you can't repair that in the field, you should do it a bit differently'?
J
Jan-hendrik Mohr33:47
Yes, fundamentally I come from agriculture. I grew up on a farm in northern Hesse, so I know the topic of wheat, barley, sugar beet quite well. Then I studied mechanical engineering, started at CLAAS, and for me personally it's a wonderful thing when the connection and enthusiasm for agriculture naturally remains. And you can then pursue your interest in technology, mechanical engineering, etc. at an agricultural machinery manufacturer. That's really great. You have both worlds — lots of customer contact, or through the dealers a lot of contact with customers. You stay rooted in it. A larger part of my extended family works in agriculture or are farmers themselves. That's always very, very satisfying — getting the feedback when something doesn't work so well. 'That was a terrible gearbox decision on the Lexion — why did you do that?' But you can imagine, Alexander, with our machines there are actually also customers who are satisfied and report that back. That's important too — both are important. When there are ideas from practice or new requirements, you take those into account and incorporate them into machine development.
I can drive machines, but I'm no longer the best driver — we have much better ones at CLAAS. I have fundamentally general knowledge about agriculture and agricultural technology, but you need people who go very, very deep into the technology. Specialists are needed, for example, in automation. At CLAAS, that's very advanced — if we automate a combine harvester, that requires a considerable level of competence for things like map-based control and similar.
What's actually being automated with such a harvester? It's the actual working process of the machine. Previously, various functions were set manually — a bit adjusted, a bit based on experience. Today that runs automatically to a large extent. We talked about different crop types — there's a base setting, and you harvest wheat differently than for example corn or beans. That's already important. And then the harvesting conditions are naturally different: wet, dry, variety-dependent, or whatever. Then it's important that beyond what a person brings in terms of competence — their basic understanding — the machine perhaps also optimizes itself further.
First, beyond what human knowledge alone covers. And point two: perhaps over a long workday that can be 12 or 16 hours on a harvesting machine, that the machine maintains a one hundred percent attention level that a person normally can't sustain over 12 or 16 hours. Then the working process is optimized — meaning how do I thresh, how do I separate, how is it cleaned? And one can choose a strategy based on different parameters. Do I want to harvest as many tons per hour as possible, or do I want to achieve particularly high grain quality — for example minimal grain breakage? Or do I want to harvest the grain particularly cleanly, or particularly with minimal loss? Depending on which parameter is important, I can specify that to the machine, and it works largely independently on those settings.
The core point is self-learning on the machine at the moment, and that's actually the important aspect. Fundamentally we have base settings, and an operator of a combine knows: I'm harvesting wheat now, I'm harvesting barley, I'm harvesting rapeseed. And today it's the case that to a large extent the machine itself learns what's optimal. It tries out — do I drive a bit faster, do I open it a bit more, or do I close the sieves, do I adjust the RPMs toward fast or slow — and sets certain points and also learns which aggregate states lead to a better work result.
That happens relatively quickly — after 200, 300, 400 meters of harvesting distance, such a machine has already optimized itself quite nicely, and it continues to learn. Then it's also right that I can save such machine settings — point one. If I've found something new and better, that's an important point. And clearly, if for example multiple machines are deployed on one field, machine data can be transferred from one machine to the next — meaning you say the machine that's operating as best practice transfers its data and facts to others. That's certainly a field with increasing potential, and increasingly machine-to-machine communication, data processing at home with the farmer — then it goes in the direction of farm management.
A
Alexander39:45
Ah, exciting. Then let's turn to the biggest machine — or let's say the machine that got the most attention at Agritechnica. So you had this Xerion tractor, or I don't even know if you can still call it a tractor — congratulations on Tractor of the Year, you won that. It was in the hall right after the entrance area. You walk in, and there were one or two — I'm not entirely sure — one on tracks was there. I thought, how huge these machines have become. That's your tractor signature product, the dream of many farmers. Most just don't have operations large enough to use it meaningfully. But there was a lot of admiration for the product at the trade show. I believe you also worked on the first Xerion early in your career, if I remember correctly. But without going too much into this single tractor — is this still a device typically used somewhere in Germany, or is it something that drives on very large fields more in the US? Because on the stand it looks enormous, but when you stand next to the Xerion, it looks small. Where is the journey heading?
J
Jan-hendrik Mohr41:05
First, it pleases me with what enthusiasm you speak about the Xerion, and then I really don't need to add anything more. It's still called the Xerion. If you were looking for an alternative term, you might come to 'wonder of technology' or something like that. I'm naturally also enthusiastic about the Xerion, really, because about 40 years ago I found my career entry at CLAAS a bit through pre-development in the Xerion area. Before that, as I said, I grew up on a farm in Hesse. In the seventies and eighties we very strongly had MTZ tractors in use, also tractors with medium cab, four equal-sized wheels. The front axle didn't establish itself then, but it did establish itself for large tractors. And it is indeed as you say — that is the largest from CLAAS, that's the largest there is in tractors from other manufacturers worldwide as well.
And these very large tractors have traditionally and even today four equally sized wheels, a mid-cab, and the engine sits somewhat toward the front axle, partially over it. So that basic principle—I've deeply internalized it, as I said, from my youth days. So that's a really great thing.
That is the largest segment, and we of course also have smaller tractors. It's always the customer's decision whether they go with an 80 or 100 horsepower tractor for their field work, or a 653 horsepower Xerion Bolide. And then it's also true that such a large machine naturally operates in certain applications—in general on very large agricultural enterprises, essentially field work, no transport, but rather tillage, drilling, etc. And then the markets follow naturally: here in Europe—Mecklenburg-Vorpommern for example, or Thüringen, Sachsen-Anhalt and so on—or in Eastern Europe, North America especially the U.S. Corn Belt, or Canada in the regions where huge areas of grain are produced. Central Asia, Kazakhstan for example, or also Australia and so on, Brazil certainly too. Essentially everywhere large-scale agriculture takes place, such a large machine feels at home. And with such a large machine behind it, an enormous implement fits. When I imagine the large fields in the U.S., it still has to be driven manually, of course—you optimize the output from one hour of someone's work operating this machine, but theoretically it could drive itself today. You tell it per GPS, 'Look, plow this field once,' and it could do that alone.
And that was exactly the topic we positioned at Agritechnica in connection with the Xerion. It goes beyond automation toward autonomy—meaning such a vehicle can actually be operated without a driver in the end. There will be autonomy levels that define the path there: Level 2, Level 3, Level 4, until we can drive completely driverless—like highway levels. Level 2 means you still need to have your hands on the wheel. Level 3, someone still needs to sit behind it. Level 2 already means you can let go of the steering wheel and the machine drives autonomously, but if something goes wrong—say someone walks in front of the tractor—then a human still needs to intervene, emergency stop function, whatever it might be, some blockage on the implement. Then someone rides along to watch for these things, until that can eventually be perfectly represented digitally.
Important in agriculture is that in the regions where very large tractors are used, labor availability isn't always perfect. So it's important that machines get bigger, and higher work output can be achieved with a machine plus operator, or the point comes where you say one of two machines runs without a driver, or even both machines run without drivers. That's the future vision. How far are we from that—when nobody sits on it anymore, or maybe someone just monitors from the office? That depends partly on legal safety requirements. It could be that we can do such things earlier in sparsely populated regions of Brazil, Canada, or Australia than here in densely populated Europe, because there are different safety requirements. And we see this in the automotive industry—fully autonomous driving takes much longer to arrive. At the moment, that's not even the core theme anymore for car manufacturers. They hyped themselves into it 5, 10 years ago. In agricultural technology, we see concrete steps toward Level 2 and 3 over the next 2 to 6 years, and then Level 4 certainly starting in parallel in certain countries—but that's probably more of a long-term proposition in Europe.
A
Alexander46:51
How much can you develop yourselves? You're among the top five, but within the very largest you're the smaller one—I think you do roughly 4 billion in revenue. And what you describe, the automation levels or the whole electrical technology in there, even large automotive manufacturers struggle with that—some of which are much, much larger. They have different priorities with their sensors on the road—maybe more is happening there than in the field. But what can you achieve today from here? We're in Harsewinkel—you can reveal that. Where can you shape innovation yourself and say this is our Level 2, our Level 3 is simply maybe better than the competition's? Or do you need to rely on a common platform?
J
Jan-hendrik Mohr47:40
Well, point number one is that for our size we have a high R&D expenditure—around 5 to 6 percent of revenue, depending on the year. Last year our revenue was well above the number you mentioned. And that's a point where we've traditionally invested massively in research and development relative to our revenue, to be technologically leading in many areas. And important, I think, is that in this overall environment of digitalization in agriculture and agricultural technology, we also try to benefit from technology coming from other branches. In many areas of application—for sensors, for example—we use distance sensors from the passenger car industry and apply them to our sector. We don't have to develop the sensor itself. What's important is the application in the various fields we operate in, and that's our competence. That's what we spend our R&D budget on. It's always important to observe what's available, what can realistically come in the next 2 to 4 years, and then develop the idea of how to apply it as quickly as possible to machines and answer the questions that exist in agriculture around the world. We have a large network with many companies, also with research institutes and such, and try to represent this in a network of partners—sometimes even with competitors—sharing certain development efforts and trying to achieve things jointly, or even through associations and organizations.
For example, the standardization of ISOBUS—how do tractor and implement actually communicate? That's standardized with ISOBUS standards. But then you reach a point where you say, how do we get from the current ISOBUS standard to a high-speed ISOBUS standard? Then new territory needs to be explored, and the community of manufacturers discusses such standards together and recommends them to the standardization bodies.
A
Alexander50:26
Let's stay with equipment innovation. I understand there's a lot happening with the machines themselves. I paid particular attention at Agritechnica to what's in the area of electrification. If you ask a normal car user what's changed in automotive technology over the last 20 years, they'd say electric motors are coming. It'll take a while to fully take over, but we're probably at about 10% electric share. With tractors, I haven't seen much—I saw a few farm loaders at Agritechnica, some smaller equipment, but not really anything working in the field. During the farmer protests, people often said why don't they put electric motors in there. What I've observed is downsizing—fewer six-cylinder engines, more four-cylinder. But how does it stand—is there even a push for battery technology on tractors? Or does it rather relate to the implements behind, so you don't need a PTO shaft anymore but an electric motor drives the wagon behind it?
J
Jan-hendrik Mohr51:41
Yes, you've touched on many points, and the starting point is that we are completely technology-open. I'd also say that applies to the entire industry. When we know there's an advantage to electrification—and it can be an environmental advantage—then the question is, why not? We believe there will be a variety of solutions going forward. Technology openness also means there might be very different drive technology solutions, especially regarding the energy source in a machine. Electrification certainly has justification here and there—not yet across the board, but at Agritechnica we saw quite a few electrified machines: electrified wheel loaders, electrified tractors, electrified telehandlers. During Agritechnica, we exhibited a machine that might be available in the not-too-distant future—in our case, a telehandler. It's often used on farms where a power outlet is available. So first, how is the energy I consume in the working machine available, where does it come from? If I'm far from infrastructure—Kazakhstan, 50 to 100 kilometers away—that's a different story. A telehandler fits because of energy availability and the usage pattern: maybe two hours in the morning, charge it, two hours in the evening, charge it again. That's different from a Xerion that runs 12 to 16 hours nonstop, sometimes around the clock for weeks—drilling in Australia or Canada. Then you simply don't have time to recharge a possibly 25-ton battery needed for a Xerion. You have to imagine: not only would you have to haul a full battery across the field, but when it's empty and you plug this 25-ton battery into a socket, how long until it's full? That's not a battery for a power drill—it's something else entirely. So we need to lead this discussion so that what's possible and sensible gets realized. There will certainly be continuous development. What I just described is already sensible and partly available today, or will be soon. And the bigger the machine, the further from available infrastructure it works, the more it remains true that combustion technology is still absolutely right.
By the way, highly efficient, very, very clean, and certainly in the future not just operated with diesel—I can also run a diesel engine with alternative fuels: biodiesel, e-fuels. We refuel here in the Harsewinkel factory with HVO, and these are all themes that score excellently on CO2. For example, HVO fuel has more than 90% lower CO2 footprint than fossil diesel. Those are tremendous steps—something you can do, should do, and it's a very good technological answer already today. You can probably also refuel older tractors with it—absolutely possible. To summarize: technology openness should be there, and for us as manufacturers, yes, there's the path of electrification or other drive types, and we clearly face that.
A
Alexander57:02
And how was the interest at Agritechnica for the electric telehandler? Do the customers say they want it too?
J
Jan-hendrik Mohr57:07
Yes, big interest. Specifically at CLAAS, we had a small area on our stand reserved for future topics—also in the direction of design: what does a cabin of the future look like, what do electric drives, digitalization look like, the topic of wildlife rescue for example. We also had a robot on display from our partnership with EXED. Those were many future topics, and the response was really very, very good.
A
Alexander57:39
Let me briefly stay with digitalization. What I always observe in the agricultural discussion is that farm management is increasingly being digitized. You have a solution there—FarmNet I believe. But when I think about what farmers actually do in their daily work, would they sit at their computer in the evening entering agricultural numbers, yield data from the wheat harvest, or aggregating weather data? That felt quite remote to me. You're doing this with an interface—for a theorist like me it makes total sense to manage a farm digitally, share data. What's your experience and what's the practical response to such an application?
J
Jan-hendrik Mohr58:38
Yes, well about 25 years ago we acquired a software company and developed it through various stages—Agrocom, Agrosystems, and today we're on a step with 365 FarmNet. Additionally, increasingly intensive in the direction of CLAAS Digital Ecosystem—as we call it, Digital Connect—where farmers have a good opportunity, primarily to manage the machine. This covers the complete process: where does a customer have touchpoints with a manufacturer? Starting with business acquisition, which machine is the right one, ordering, delivery, possible warranty processing, financing, and then spare parts, maintenance, all the way to used machine sales. There are many possibilities to represent things digitally, which naturally increase efficiency also in machine operation. This is a megatrend that's simply there.
In principle, you then have to look at what's technologically possible and where the mass of farmers will follow. It mustn't be complex—it has to be easy to use. For us, there's perhaps one more important point: unfavorable for farmers, important for us—that for such services, something gets paid. Just like we pay for SAP in our company, it's logical. That plays a big role too. The other point is really the competence in operation. There are many systems that are still relatively complex. And yes, that's also a point where politics perhaps drives things—when it comes to subsidies from Brussels or Berlin, you'll only get them in the future if you digitally represent your farm transparently: how do I use my areas, which varieties did I grow, how did I fertilize, how did I spray. And those are things where digitalization can make a huge contribution. And of course, the efficiency point you mentioned—being able to drill, fertilize, spray specifically on sub-areas—saving resources, protecting the environment, and definitely also reducing costs for the customer. That's a very important aspect—also a self-interest of agriculture to adopt these tools.
A
Alexander1:02:00
How big does a farm need to be for this to be applied efficiently? For the part-time farmer with 25 hectares who seems completely overloaded with normal bureaucratic requirements—what he has to document, where he sprayed, what he bought—do farms need to be large enough that they have their own administrative employees to handle this? Or can it still be done alongside?
J
Jan-hendrik Mohr1:02:23
Beautiful would be if all farms worked efficiently, resource-consciously, cost-effectively—it shouldn't matter whether it's 25 hectares or 2,500 hectares. What matters is per hectare, that the area-specific effort gets reduced. I wouldn't draw a distinction there initially. Of course, you're right that with a large farm, through the multiplication factor of area, there's a large total effect. And sure, large farms have the professionalism, maybe even specialized staff who can develop special digital competencies. And there's always economy of scale—a routine factor that's important in operating such systems. You reach a different competence level more quickly with large farms. If relevance is to cover as much area as possible, as quickly as possible, as sustainably as possible, then large farms are certainly particularly important. But again—the point is, it would be beautiful if all agricultural land could be covered with such systems. Possibly for smaller farms also across farm boundaries—2, 3, 5, 10 farms joining together to advance such things jointly.
A
Alexander1:03:55
And is there a big startup culture where startups say, hey, it would be totally cool to build a farm management system? Some data is public—yield data, what you can get from cadastres. Is there an active startup industry around this?
J
Jan-hendrik Mohr1:04:14
There's a lot to find. The Agritechnica in Hannover, for example, has certain halls even specialized on digitalization, and there's a great deal possible—lots of movement. Besides startups, it's also true that the one or other startup seeks or finds a home port with larger manufacturers. That's also a trend—that many machine manufacturers are becoming active themselves in this direction of digitalization, and besides steel and iron, also offer digital products and services.
A
Alexander1:04:55
When did you buy this software company? 25 years ago was already very forward-looking.
J
Jan-hendrik Mohr1:05:01
It was very forward-thinking at the time, and certainly not with the imagination connected to how we see today's realities around us. That wasn't the point. But it's a nice story—one says that was very forward-thinking. Important now is our own activity, that we've taken these steps and supplemented software programs that were called SuperSow and SuperCo—and by the way still are today—but we've expanded them with many, many things, especially in the direction of machines, further developed what is ultimately the brand core of CLAAS.
A
Alexander1:05:40
I'd like to briefly come back to the products. Matthias already told me a bit in our pre-discussion when we talked about how CLAAS actually got into the U.S. That's basically your Jaguar—your core machine with which you also lead worldwide in that product category. I was wondering—can it still exist today? Is there still a product category in agriculture where you can innovate so strongly that people say, okay, we'll give up our tractors, we want everything from CLAAS, they've invented something new that's much better, much more efficient? Does that still exist in classical agriculture, or is it for other growing areas—rice for example, in Asia—where there are still two or three innovation fields. Whoever cracks that is the next billion-dollar market in agriculture.
J
Jan-hendrik Mohr1:06:33
Yes, so for us perhaps the most important is the further development of machines. There have been quantum leaps. I myself was out in the fields especially as a boy in the 70s, and when CLAAS brought the Dominator—Dominator 80, Dominator 100—those were combine harvesters. Then came the Dominator 85, Dominator 105, and so on. At that time, you couldn't even imagine what could possibly come after. But when you see how combines have developed—not just in performance, tons per hour, from maybe 8 tons per hour back then to 70, 80, 100 today, relatively continuously. In corn, significantly more—well over 100 tons per hour. Those are performance dimensions you couldn't have imagined.
And that's always connected with other innovations in the machines. When it comes to running gear, for example—today it's self-evident that the very large machines have crawler tracks. We call that Terratracks at CLAAS—distributing the machine's mass, which has also grown, over a large contact area with rubberized tracks, enabling the worms in the soil to continue their lives. That means just because the machine is huge doesn't mean the soil is more compacted—it's actually less than before. That's always a point: when you used to drive with a tire pressure of 3.5 bar in agriculture, today a crawler track has ground pressure of 0.8 bar. That's much deeper dimensionally.
When it comes to CO2, it's important to consume as little diesel per ton of harvested grain as possible. That has halved over the last 50 years—we came from somewhere around 3 liters of fuel per ton and are now at about half, 1.5 and sometimes below. And innovations there are also connected with automation, digitalization. A combine harvester isn't just a plant on wheels—it's also a data factory on wheels. These are points where it was continuous further development, but for me now, taking my 40 years at CLAAS or my perhaps conscious 50 to 55 years in agriculture—what a gigantic development that was. And it's not over. And by the way, it's not always the very largest machine, but it goes across a complete portfolio. Our smaller machines also carry these attributes—Terratracks is available, automation is available, automatic steering is available, so that as a farmer you can also buy a smaller machine equipped with high tech.
A
Alexander1:09:55
Let's briefly stay with farmers and market access. We saw it at the Hansa event with Fricke—you have a relatively large partnership approach, because you need these agricultural machinery dealers to reach the customers. And following many classic revenue streams, we've seen strong movement in the last 10 years from B2B2C trade toward direct sales. You have lots of data on the machine that probably has to come together centrally at CLAAS—not every dealer can handle the data. Then there's the classic purchase process for such a machine—what has changed in recent years? Can you already configure a tractor completely online and then you deliver it on a lowboy? Or do I have to go to a dealer?
J
Jan-hendrik Mohr1:10:49
In principle, you can configure a machine individually as a customer without anyone being present—that's fundamentally possible. But you raise a general theme: what role does a dealer have—today, yesterday, and perhaps also tomorrow? CLAAS sees a dealer as indispensable in the moment and also prospectively. Certainly, what a dealer does and the role they play has changed and is in evolutionary development. Looking back over decades, an agricultural machinery dealer was once a blacksmith business—perhaps even one or more in every village. These blacksmith businesses developed, sold agricultural machines, also serviced them. Today, an agricultural technology dealer needs the competencies necessary to keep a machine in operation—maintenance, repair, special skills. If we have a factory in Harsewinkel, we don't have customer proximity in Schleswig-Holstein. The density of our service network is enormously important, and locally a dealer simply does the job in dialogue with the customer to define the business, and then after the sale to do what really matters: keeping such a machine running over a lifecycle that can be 20 to 25 years. With all the competence needed today—if in the worst case a sensor doesn't work, I need to be able to diagnose what the machine has. A dealer is like a kind of doctor who has to diagnose what's wrong and then repair it and get it back into operation, and during harvest season as quickly as possible.
Dealers have seen changed conditions—additional competencies are needed, and the role is different. But it still leads to a dealer being absolutely, dramatically necessary for us—the great link between customer and manufacturer. And certainly there are changes. Today it's no longer the case that you find two blacksmith businesses in every village. The dealer structures have grown—they generally cover larger territories, have workshops that are not only technically fully equipped but workshop staff are enormously important in terms of competence, who must permanently continue training. These are things modern dealers must master today. We do this primarily not ourselves—we also have our own dealers, but that's separate from our machine business. We're manufacturer and dealer with two hats at the same time, but it's not that dealer competence is the core of our activities. We go into trade occasionally, sometimes come back out. Essentially, we rely worldwide on private dealers, like the Fricke company in northern Germany.
A
Alexander1:14:45
That means dealers are also experiencing a certain consolidation—they become more specialized, machines get bigger, the small blacksmith operation on-site with two employees can't handle it anymore. Maybe they can sell a machine and deliver it, but during harvest season, repairing a combine and also forging a plow—that requires super specialists who probably first have to learn and understand the diagnostic program to know which sensor it could be. But that also leads to a certain stubbornness in the distribution of market shares. If John Deere says 'I want to give it a bit of gas'—that doesn't just depend on customer interest, they need the dealer infrastructure to service those combines in Schleswig-Holstein. If nobody exists, no customer will buy it. It has to be in sync. Conversely, if you want to achieve market share in the U.S., you need to expand dealer coverage so it becomes relevant for customers. Am I describing that correctly?
J
Jan-hendrik Mohr1:16:04
That is absolutely correct. It's always that interplay—customer contact, dealer, manufacturer. We're well-established in Europe with CLAAS, been here a long time, have relatively high market shares. There are certain models and machine categories where there's still big potential for CLAAS, and we're working on that. Still, we have significant competition—you named one—that keeps us fresh and lively. We stay grounded, and I think that's important: you always have to think about how to convince a customer of technology or a service.
When we grow internationally—we're active globally with the Jaguar, a global important player, the largest in that area. But in many other areas, in North America, we're not among the very biggest yet. But there's enormous potential, and that's the good thing. The question is how do you do it, how do you develop a distribution structure that initially has difficulty because there's no population in sufficient dimension, customer contacts may not exist in their diversity. You have to establish these trails from customer to dealer to manufacturer. That's important. Online marketing alone won't do it—a Facebook campaign won't make the difference in the agricultural world. Online marketing helps, but like you say, it alone doesn't make it—it's still the human contact that's decisive. Quite simply, the point that a farmer likes to try out a machine they're thinking about—that means in the framework of a demonstration, a farmer generally wants to see such a machine working on their farm with their implements in their applications. And someone has to organize that—those are activities that also frequently lie with the dealer.
In general, when you start somewhere new at zero with established competitors, it's a longer road. That's also the case with us. As a family company, we're always long-term oriented. If I said that in North America we've doubled revenue in the last five years—now also substantively important for us—and then it's always a point: how did you do that? And it's with persistence and always the next step. You perhaps don't go into every region in North America but set certain clusters where you can be more intensive, and then try to grow from there into the broader area. And whether that's with combine harvesters or with forage harvesters or then with tractors too—in America, with the forage harvester we're very successful, that's certainly our spearhead in market share. With combines we've also been active for decades and very successful in recent years with the Lexion, and have focuses for example in Canada or certain states in the Midwest.
A
Alexander1:19:48
And Americans are very proud of Made in America. When 'Made in Germany' arrives, does it still work? Especially farmers might be particularly proud of this 'Made in America'—if a longtime John Deere farmer comes to a farmer meeting with a CLAAS machine, would people look sideways, or would they say cool, I'd actually like that too?
J
Jan-hendrik Mohr1:20:19
Perhaps the answer lies in a basic philosophy we have as CLAAS: when we sell in dimensions somewhere, we don't just want to export from here to there, but we also establish local value creation. In North America, for example, we've been operating locations for a long time—including a factory in Norfolk, Nebraska, where I personally worked for a few years—and there we produce the Lexion for the North American markets. So the Lexion we sell in North America is made by CLAAS—specifically produced in the USA with a very significant share of local value creation, also represented through a supplier network we've developed. And that actually answers exactly the question—that if it's a particular purchasing criterion, you can be proud of a locally produced machine.
A
Alexander1:21:23
Maybe one last question since we're approaching the end of the podcast. What I noticed at the trade fair—I had expected that where most people live, which is Asia, Southeast Asia, India, China, there would be the most innovation power in agricultural technology unleashed. But I didn't see that much in the machine area. Do we need to be afraid of the next big machine manufacturer from China rolling over the market with cheap machines, as now happening in the automotive sector?
J
Jan-hendrik Mohr1:21:54
Well, in China—this roughly 120 billion euro global agricultural technology market is naturally attractive to many. For me, it's completely natural that we have strong European players—you named some brands—strong North American players, but also strong Indian, strong Japanese players, and increasingly strong Chinese players. They come from other segments, tending from simpler small machines upward, but have incredible ambition. And we also find at Agritechnica providers from Asia in increasing form—they also develop ever-larger machines with ever-more technology: also tractors, also harvesting machines. The starting point for many of these Asian manufacturers is a local market, partly a subsistence farmer market as discussed before, but one that also develops. In China, there are now very large agricultural structures—for example in the northeast, Heilongjiang, almost comparable to Canada or Australia or Kazakhstan, and in Inner Mongolia the largest dairies. Those are then also regions that are relatively sparsely populated, even though China as a whole has considerable population. The further south you go, the more densely populated China is. In Heilongjiang that's not the case, and there large machines come into play. Until now, those were very largely Western brand machines, but the local manufacturers are developing.
Our job, seeing this globally and in competition—companies compete with each other—is always to have the ideas that enable the next step. And that next step must always be such that someone says: wow, I want to have this machine from CLAAS—it's better for me here and there. That also applies to the Chinese farmer. We fight in China for growth too. We went to China not 110 years ago, but we have a representative sales company in China, acquired a company that produced agricultural technology, oriented now toward CLAAS. We also went local—besides the point that we continue to export machines from Germany or France to China, we also have local value creation, local production, and we view both positively in terms of development.
A
Alexander1:24:58
Very cool. I think we could talk for another few hours, but I want to go drive a tractor. I'm looking forward to it. Thank you again for the detailed answers, for the time here on-site. And once more congratulations on Tractor of the Year. Maybe we'll take a look at your exhibition again and other machines. Many thanks.
J
Jan-hendrik Mohr1:25:17
Thank you.
A
Alexander1:25:19
Alexander, that's it. I hope you enjoyed it. Probably on Sunday there'll be another Energy Zone special episode—let's see how production goes. Then you'll also know how the solar industry in Germany is positioned and whether the resilience bonus really helps. That will be decided on Friday. Many thanks for listening to this podcast and enduring my little fan questions—well, you know what I mean. Bye, have a nice weekend or a nice week, whenever you're listening to this podcast.
J
Jan-hendrik Mohr1:26:10
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