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Key nutrients for growing horses

Submitted by eivantsova on Wed, 01/17/2018 - 11:16

Regardless of the breed or discipline, a horse must have a good foundation on which to develop strong bones and joints. Nutrition of the growing horse has a great impact on this foundation.

Several nutrients are particularly important in bone growth and development of the horse. Supply and balance of these nutrients is key to optimizing growth and minimizing nutritionally associated orthopedic problems. Whether the foal is a Thoroughbred destined to be the next Triple Crown contender, a Saddlebred aiming to be the next World Grand Champion or a pony that is a dream come true for a child, supplying sufficient nutrients in the proper balance will help foals develop a strong foundation.

Energy and protein

Optimal energy and protein balance are needed to support growth. As the horse matures, the growth rate changes; therefore, energy and protein requirements will also change. Energy is essential to growth and development. The quality of protein in the diet is also important. Crude protein in the diet is a measure of nitrogen and not an indication of protein quality. Protein quality is determined by the amino acid composition of the diet and the digestibility of the amino acids. Thus, the amino acid composition of the diet, rather than the crude protein content, is important to the growing horse. A steady growth rate can be obtained by avoiding excesses or deficiencies in either energy or protein and will help to reduce the incidence or severity of developmental orthopedic diseases (DOD).

Excess dietary energy and protein

If certain nutrients in the diet (vitamins and minerals) cannot support an increase in growth rate due to excess energy and protein, it may result in physitis, weak or brittle bones, increased risk for bucked shins, osteochondritis dissecans (OCD) and flexural deformities. Excess energy will also result in a fat horse. Excess dietary protein alone has not been found to cause bone development problems in horses; however, in practical situations, excess protein usually means excess energy also. Distinguishing between getting fat (body condition) and growing (growth rate) is essential. Both body weight and body condition should be monitored at least monthly and the feeding program adjusted as needed.

Deficient dietary energy and protein

Feeding deficient protein and energy will decrease growth rate and may lead to compensatory growth later when sufficient nutrients are available. If insufficient energy and protein are provided in the winter months (due to lack of feeding, poor quality hay, etc.), the growth rate will slow. In the spring, when pastures are lush and rich in calories and protein, a rapid increase in growth rate occurs. This rapid increase in growth is compensatory growth. It usually occurs post-weaning and may predispose the growing horse to DOD. In addition to decreased growth, protein deficiency may result in decreased feed intake (and therefore possible deficiencies in other nutrients) and decreased protein digestibility. Energy deficiency will also slow growth and may result in DOD.

Minerals: Calcium and phosphorus

Besides energy and protein, several minerals are important for proper bone and cartilage formation and development. Bone is approximately 35 percent calcium (Ca) and 14 percent to 17 percent phosphorus (P). Deficiencies in calcium and/or phosphorus can cause cartilage thickening, decreased growth rate and decreased bone density. While meeting calcium and phosphorus requirements are critical, the ratio in the diet is equally important. The safest ratio range should be maintained between 1:1 and 4:1 (Ca:P). A ratio above 4:1 (excess Ca) may decrease the absorption of other minerals, including iron, magnesium, manganese, phosphorus and zinc, thereby causing DOD. A ratio below 1:1 (excess P) may result in poor bone development, problems with cartilage growth and decreased calcium absorption, possibly leading to chronic calcium deficiency and secondary hyperparathyroidism.

Minerals: Copper and zinc

Copper (Cu) and zinc (Zn) are also essential for proper bone growth. Copper is necessary for synthesis of connective tissue, while bone contains intermediate concentrations of zinc. Deficiencies in copper result in DOD, and deficient dietary zinc decreases growth rate. In general, most forages and grains are slightly below a horse's requirements in copper but have only half a horse's requirement of zinc. Knowledgeable feed manufacturers will fortify their feeds to meet copper and zinc requirements when fed under average feeding practices. In practical terms, a horse's diet should have a Zn:Cu ratio ranging from 3:1 to 5:1. Excess zinc (>500 parts per million dry matter) may interfere with absorption of calcium and phosphorus and proper copper utilization, resulting in physitis, lameness and stiffness.

Vitamins: A & D

Vitamins, particularly A and D, are essential for normal growth and development. Beta-carotene, a precursor of vitamin A, is high in green forages, such as pastures and well-cured hays. Horses must convert beta-carotene to vitamin A. Well-cured hays retain most vitamin A activity, but poor curing conditions (e.g., rain damage, long exposure to drying, etc.) will destroy beta-carotene.

Vitamin A has many functions, including bone remodeling. Among other symptoms, excesses in vitamin A (>7,000 International Units per pound of dry matter) may cause weak bones. Excessively high intake can result when multiple supplements containing substantial amounts of vitamin A are fed. Vitamin A deficiency is not likely for horses consuming adequate green forage. However, horses given old or poor-quality hay and/or with very little grazing time may need vitamin A supplementation. Most commercial feeds and supplements contain more than adequate amounts of this vitamin. Deficiency in vitamin A will result in poor growth, but it has not been directly shown to cause bone problems in horses.

Vitamin D promotes calcium and phosphorus absorption from the intestine, resorption of calcium from bone and reabsorption of calcium by the kidneys. Under sunlight, a substance in the skin is converted to a pre-vitamin form and eventually to an active form by the liver and kidneys, making deficiencies unlikely. Deficiencies may occur if horses are not exposed to direct sunlight and receive poorly cured hay. A deficiency could cause various bone abnormalities to develop. Excesses are also rare, but would be most common if certain members of the nightshade plant family are consumed. Symptoms of excess vitamin D intake would include bone abnormalities and calcification of blood vessels, the heart and other soft tissues.

Summary

  • The ultimate goal for growing horses is to achieve a steady growth rate and avoid orthopedic problems. This can be accomplished by supplying sufficient nutrients in the proper balance.

  • Seasonal changes in pasture quality and individual body condition make it necessary to adjust the feeding program accordingly.

  • If feed (grain) is reduced, mineral supplementation may be needed to make up for deficiencies.

 

I would like to learn more about equine nutrition.

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Good nutrition plays a critical role in the avoidance of orthopedic problems in growing horses.

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High levels of mycotoxins in 2017 harvests: Can you safeguard your animals and salvage your feeds?

Submitted by eivantsova on Wed, 12/13/2017 - 15:27

Silage samples from across the U.S., Canada and Europe have shown high levels of mycotoxins, according to the Alltech 2017 Harvest Analysis. The high reading comes on the heels of similar findings in 2016.

As the name implies, mycotoxins are toxic. They can negatively affect the health of animals if contaminated feedstuffs are ingested. The symptoms can be many and varied, but the outcome in all cases will be reduced performance and lost profits.

Produced by certain molds, more than 500 mycotoxins have been discovered to date. Each affects the animal or human in a certain way. Some mycotoxins are carcinogenic, neurotoxic and immunosuppressive.

Climate change and feed storage practices are starting to influence the range of molds occurring in farm feedstocks. And with traditional tilling and crop rotation practices diminishing in many developed countries, mold contamination is persisting year-on-year, making the multiple mycotoxin threat very real.

U.S. sampling shows high mycotoxin count

Samples from American farms submitted to the Alltech 37+® mycotoxin analytical services laboratory in Kentucky between Sept. 1 and Nov. 1, 2017, show that grains contained mixtures of mycotoxins, including deoxynivalenol (DON), fusaric acid and fumonisin.

Fumonisin is commonly found in corn at levels of 2 parts per million (ppm) or less, but this year, testing has confirmed levels well above 30 ppm, and some above 100 ppm.

Forages such as corn silage, barlage and haylage samples also contained multiple mycotoxins in 2017, including DON, fusaric acid, type A trichothecenes (T-2) and fumonisin.

“It’s particularly high right now,” said Dr. Max Hawkins, nutritionist with the Alltech® Mycotoxin Management team. “In the Wisconsin-Minnesota area, we’re about seven-tenths of a mycotoxin-per-sample higher than a year ago. More of the samples we’re seeing have the mycotoxins in them, and the major toxins that are present are four to five times higher than they were a year ago.”

The Canadian findings are much the same

Samples submitted for the Alltech 2017 Canadian Harvest Analysis indicated high levels of DON and zearalenone (ZEA) in grain and forage.

Submitted between Sept. 1 and Oct. 15, 2017, the samples show that grains contained mixtures of mycotoxins, including DON and ZEA. Forages such as corn silage, barlage and haylage samples also contained multiple mycotoxins in 2017, particularly from mycotoxins produced by Fusarium species of molds, such as DON, ZEA and T-2/HT-2 toxins.

Mycotoxin risk levels high in Europe, as well

The Alltech 37+ lab in Dunboyne, Ireland, analyzed samples of wheat, barley, corn, corn silage and grass silage submitted from across Europe. The grain crops are showing risk levels of trichothecenes from DON and T-2 to swine. Silages are showing risk levels of not only DON and T-2, but also high levels of Penicillium and, to a lesser degree, aflatoxin, according to Alltech’s 2017 European Summer Harvest Analysis.

What’s causing this?

Weather conditions can be a major influence.

“Some areas have seen record levels of rain, some areas are experiencing record drought conditions,” Dr. Alexandra Weaver, Alltech Mycotoxin Management technical specialist, said of the European findings. “That’s going to play a big role in the level of mycotoxins you see as well as what types of mycotoxins.”

Weather factors are also suspected in the United States.

“A lot of areas have gone through a cool, wet summer, and cool, wet weather is the preferred environment for Fusarium mold,” said Hawkins. “Fusarium is the mold that produces DON, T-2, ZEA and fusaric acid. Those are the mycotoxins that can become very problematic, and they already appear to be very problematic this year in the corn silage crop.”

Higher levels of mycotoxins appear to be a lingering legacy of the havoc Hurricane Harvey delivered to the Texas Gulf Coast in mid-August.

“In Texas, we have really dramatically high levels of fumonisin,” said Hawkins. “You can track it northward from where that rainfall came up from the Gulf and across the Texas panhandle into Kansas and Nebraska. The levels of fumonisin will begin to decrease, but they’re still much higher than we would typically see in those areas.”

Weather’s important, but there are other factors

While weather is linked to the higher mycotoxin rates of recent years, Weaver suggested that other important factors are contributing to the scope of the findings, including better detection methods as well as increased awareness among farmers.

“We have better ability to test for these toxins now; different agronomic practices play a role — the idea of ‘no-till’ versus ‘till’ has an influence; the use of fungicides may have an influence,” she said. “So there are things that play into this whole topic rather than just the weather, but certainly weather events with excess moisture are going to have a big impact.”

Watching for co-occurrence of mycotoxins

The Alltech 37+ analysis examines over 40 individual mycotoxins in minute levels: parts per billion. The laboratories are especially vigilant for samples containing more than one type of mycotoxin.

“We have a fairly thorough understanding of the additive effects of mycotoxins,” said Hawkins. “But many mycotoxins can have synergistic effects for DON and for fusaric acid. When you have those two together in the same feed or the same ingredient, one plus one does not necessarily equal two. One plus one may equal three, four or five in terms of magnified or synergistic effects.”

Mycotoxins present researchers with challenging paradoxes. Feeding multiple mycotoxins at low levels can be as detrimental or worse than feeding one mycotoxin at a high level, explained Hawkins. One mold species may produce many different mycotoxins, and several species may produce the same mycotoxin.

Hawkins wants people to be aware of multiple mycotoxins and the risk that they present.

“As you make more complex feeds with more ingredients, you’re bringing more and different combinations of mycotoxins into one place, where the animal will have the opportunity to consume it, so the opportunity for risk goes up,” he said.

Helping farmers gain the advantage

The Alltech® RAPIREADTM  tool delivers an integrated system of tools and technologies to the farm to enable quick on-site analysis.

“It’s a handheld lateral-flow device,” explained Hawkins. “We can take samples on-farm for feed ingredients — corn, grain, distillers grains, corn silage — and we don’t check for a broad array of toxins, we’re looking for one, two or three toxins that could be on a very problematic level.

“So, for example, if we’re in Texas, we might be checking corn grain for high fumonisin levels; if we’re in Wisconsin, we might be checking corn silage for high DON or high T-2 levels,” he continued. “And we can give them that answer on the spot within 10 to 20 minutes.”

Based on the information produced by RAPIREAD, the Alltech team can put together a basic management program to help the farmer mitigate the risk of animals going through a period of stress or suffering.

“When the analysis comes back showing extremely high levels of mycotoxins in corn silage — to the point that they didn’t think that they would be able to feed that corn silage — the Alltech team can show them how they can continue to feed the silage they’ve invested in,” said Hawkins. “Alltech puts together a program, monitoring and tweaking as they go along. We can show them that, if they manage it properly in the right program setting, they can still use a feed that has mycotoxins present.”

Alltech® MIKO, a program based on HACCP principles (Hazard Analysis Critical Control Points), identifies the mycotoxin risks within a farm or feed mill and creates a plan to minimize the risks to the animal and protect the profitability of operations.

Alltech’s Mycosorb A+® reduces the threat of mycotoxins in animal feed. The technology reduces mycotoxin absorption within the animal, negating the damaging effects of mycotoxins on its health.

“Farmers should carefully consider if and how feed with mycotoxins is used,” cautioned Weaver. “Even minimal changes in feed quality can have a big impact on an animal’s production over time.”

Effective mycotoxin management is about seeing the whole challenge, from the farm to feed mill and from risk assessment to feed management.

The Alltech Mycotoxin Management team has produced a number of species-specific fact sheets, which explain the impact of mycotoxins.

For more information about mycotoxins and to view a collection of case studies, visit knowmycotoxins.com.

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Farming the future: What's on the horizon?

Submitted by eivantsova on Fri, 12/01/2017 - 14:13

The following is an edited transcript of Tom Martin’s discussion with a panel of experts on the future of farming. Click below to hear the full discussion:

Tom:                I'm Tom Martin, and with us to share their perspectives on what the future holds for agriculture and food production and consumption are Dr. Karl Dawson, vice president and chief scientific officer at Alltech — Dr. Dawson directs activities at the company's bioscience centers around the world — and Dr. Michael Boehlje, who will be joining us shortly. Dr. Boehlje is a distinguished professor of agricultural economics at Purdue University, where he conducts research and teaches in the areas of farm and agribusiness management and finance.

                        Mary Shelman is also with us. Mary is former director of Harvard Business School's Agribusiness Program and an internationally recognized thought leader on the future of the global agrifood industry. And Aidan Connolly, chief innovation officer and vice president of corporate accounts at Alltech. Aidan has been with Alltech for 25 years. I appreciate you all joining us this morning.

                        I'm going to pose questions to each of you. Once you've offered your views, your fellow panelists will have an opportunity to comment on those views. But let's begin with a very broad, very big question that could itself consume an hour — we also have some questions that have come in from media, and we'll try to get them in as well.

 Beginning with you, Dr. Dawson, are you optimistic about the future of farming, and if so, why?

Karl:                 You know, it depends a little bit on what you call “farming” right now and the definition of farming, but I would say that I'm not very optimistic if we continue thinking about farming as we did a decade ago — as a typical family farm. The farm has changed a lot, and it's undergoing a revolution — or evolution — with more technology being in the farm, all the time.

                        To put this into context, I was thinking about a visit I had with my nephew, who runs a farm in northern Montana. He and his neighbors think about farming, using agricultural units, as thousands of acres. That acreage was inconceivable many years ago. We never even thought about using that much land or that many resources, so it's changed considerably.

Even just two decades ago, a 100-acre farm was considered a large farm. These farmers are ready to move to the next level and quadruple in size in the next five years. That's their goal. When they do that, they need the support of technology. 

Even just two decades ago, a 100-acre farm was considered a large farm. These farmers are ready to move to the next level and quadruple in size in the next five years. That's their goal. When they do that, they need the support of technology. Whether it's data from the machines they drive, the harvest or crop materials, the seed stock used for animals or in plants — that support has to come from technology. Farmers are really a technology group now.

Tom:                Mary Shelman, are you optimistic, otherwise?

Mary:              I have to be optimistic. As a farm owner in Kentucky, I have to be optimistic about the future. I do think it's actually a great time. I'm a little more optimistic than Karl. It’s not just about the scale that we can achieve — and a lot of that through technology — it’s also about the ability to achieve more differentiations, to be able to address more consumer needs, and we see now that there are louder voices impacting the food system.

  But if I look around the world — and we go back to those tremendous figures that the Food and Agriculture Organization (FAO) provides regarding the change in population and income growth —  with the demand for agricultural products, the output of farms is only going to increase and will increase by maybe 60 percent or 70 percent in the next 35 years. That's a great time and a great need that needs to be fulfilled, and I completely agree with Karl that technology will help us do that.

 On the other hand, I do think there's this issue of economic viability that we also need to be aware of: the dynamics of how pricing works at the farm level — the typical supply-and-demand economics — those don't tend to move in lockstep. At times — for example, crop farming in the U.S. today — prices are relatively low compared to other times within the last five years. So, we need to maintain that economic viability for farmers to survive and, in particular, to attract new, younger farmers to the system. As we all know, the average age of farmers in the U.S. is increasing. We're approaching the 60-year-old mark. We need new talent, and they will only come in if there are attractive returns in the agriculture sector.

Tom:                Aidan Connolly, you work within the areas of innovation and ideas. What do you see in the future?

Aidan:              I have the chance to meet the United Nations FAO group every year, and they, of course, have been quite pessimistic about the future of agriculture. We consider the numbers that Mary mentioned of 70 percent increase in food production over the next 35 years, but if you actually compound that out, Tom, you're really only looking at a figure of 1.7 percent improvement in productivity per year — and agriculture has actually exceeded that. I would be extremely optimistic about our potential for increasing and improving the amount of food we produce. I think farming is going to be very much part of feeding this population we've spoken about by 2050.

 When you look at the gaps we have from the nutritional perspective in feeding animals, nutritional perspective in feeding crops — these factors that are holding back agriculture — productivity losses, the amount of food that we lose, the amount of fertilizer we waste and where food is lost, even within the food chain. I would be extremely optimistic about our potential for increasing and improving the amount of food we produce. I think farming is going to be very much part of feeding this population we've spoken about by 2050.

Tom:                Okay, let's move into our questions and we'll begin with Mary Shelman. Consumers are being described as millennials, “prosumers” and “super consumers.” Do you think we're facing fundamentally new groups of consumers, and do you think this reflects a real change in the marketplace? And, if so, what are their needs?

Mary:              Tom, I do think we are facing a fundamental change. We're in the midst of a fundamental change, and that's a very good thing, and I think it's very positive for the food industry and the ag industry. I think people overall — not just millennials — are asking more questions about where their food comes from and how it's produced. And it's not just in the U.S. or in first world countries. This is true around the world in areas, whether it's driven by food safety or whether it's driven by greater awareness because technology — the new digital media — has made information so available. So, I do think we're in the middle of a food movement. I think that this idea of engaged eating is a really attractive thought to get your arms around. A big piece of that, though, is this new millennial consumer that we talk about.

Tom:                What is that?

Mary:              “Engaged eating” is this idea that someone born between 1980 and 2000 has grown up at a time when technology is all around them — they get information in different ways, they have different values, they've grown up being fed products like Annie's Organic Mac & Cheese compared to Kraft. And now this group — the biggest demographic group with 83 million in the U.S. compared to 75 million baby boomers — are at the stage of having families and moving up in their income potential. So, they are very attractive to the food industry.

                        First, millennials have a much greater understanding of the link between what they eat and their health, and that's a very positive change. The second thing is that what they eat is part of their identity. It actually reflects who they are as a person. They enjoy taking pictures of their food and posting them on Instagram, sharing a meal with their friends and going out and seeking information about food in different ways — not just from mom or from an advertisement.

...not only do consumers want products that meet a certain price point and a certain safety point, they want products that have a purpose.

                        Food also reflects our values. This is the thing that perhaps poses the biggest challenge to the traditional food industry because not only do consumers want products that meet a certain price point and a certain safety point, they want products that have a purpose. They want products from an industry that has the same values that they do, and they're often willing to pay more for these products. As a matter of fact, I was at a meeting last week in New Zealand, and someone was presenting the results of a worldwide survey that was asking this millennial group how they thought they had more influence and whether it was through their vote for a political candidate. They say, “No, it's our vote with our dollars.” So, millennials believe that they “vote” for these types of products, and they’re willing to pay for this.

                        We’re actually at a time that there's kind of a bifurcation in the food system. The majority of consumers need safe, affordable food and accessible food, but yet this group that's a premium category is really growing in their needs and growing in their demands, and they like the stories, they want transparency, they need traceability. I think that’s putting a very interesting twist on the system right now.

Tom:                Aidan, any thoughts on this?

Aidan:              I would say that, as a father of two millennials, I question whether millennials are really that much different than prior generations. They are compared to the immediate generation before them. We consider whether their values and their beliefs are similar to those that we saw in people from the 1950s and 1960s, who were also very aspirational in changing the world.  “Prosumer” is a word I like a lot because I think it grasps a little bit more the fact that they're people proactively making food choices based on their ethics and their desires, what they believe and what they would like to support. And that part, Mary, I think, has been described extremely clearly. That is definitely something that we have not seen before. We certainly haven't seen in the last 20 or 30 years. We provide food which is affordable, which is available, which is safe. Consumers or prosumers are looking for something more, and that's a fundamental change in our food system.

Tom:                Dr. Dawson, do you want to add anything? I don't want to exclude anybody here.

Karl:                 I agree with the comments that have come out. I think you are looking at a different marketplace, and I think that that's something that will drive the overall agricultural system completely. So, as time goes on, it will be interesting how that evolves, but I think it's going to be a simple adjustment in the way markets look at the consumer.

Tom:                Okay, Dr. Dawson, next question is for you and Mary, if you would respond. It appears that nutrition has not changed for decades, and we may be at the limits of what we can do given the ways in which nutrition is researched. Are there new tools that allow farmers to understand better how to feed their animals and be more precise in nutrition?

Karl:                 Absolutely, there are new tools, but I guess I would take a little bit of a different view on this. I really don't see that nutrition has been a stagnant science over the last two decades, or even the last century. We've had a lot of advancements that have really been responsible for a lot of the changes in livestock production we've seen. Particularly in underdeveloped countries, we're using lots of new technology with amino acid balances. Nutrient balances are new things that have come out of that.From our point of view, working at the very molecular level, we can see what effect food and food ingredients have on the basic physiology of an animal by looking at gene expression.

 But we do have a lot of new tools that are coming out that are really going to change the way we've looked at this. Some of this comes from the ability to collect data and process that data, to integrate it into a very precise model. We've never had the capability to do that before. From our point of view, working at the very molecular level, we can see what effect food and food ingredients have on the basic physiology of an animal by looking at gene expression. This is a new tool that's progressing. We could probably talk a lot about this, but it's a very precise tool that tells you exactly what's happening and it has really allowed us to uncover a lot of the “hidden secrets” with nutrition.

So, as those new tools are becoming available, they’re going to allow for diagnostic tests. They're going to look at new ways of managing and looking at the way we train our animals to eat.

Tom:                There are many tangential areas we could go off to here, and we're only two questions into this conversation. But let's go off on one: big data, because we know that it's having an overwhelming impact and is something of a latecomer to the agricultural world. Does anybody want to offer some thoughts on how big data is changing things and what the future holds in that area?

Karl:                 I would start off by saying you have a tool here to take millions and billions of observations, whether it's productivity, food intake, the way we grow our crops, how much rain we get — all of this can be integrated into very precise models, and that's going to be the big change in agriculture. If you would like, we're talking about moving to “armchair” farming. We're going to be making our decisions while sitting in front of the computer, looking to see what we can predict in the future. That's a tremendous tool we've never had before.

Big data — whether it be used in terms of diseases, performance of animals or crops, or whether it be used in the realms of a lot of these sensors and new digital technologies — can capture a lot of information we've never been able to capture before.

Aidan:              I think, in particular, we've seen some of the bigger questions such as food safety — something which is extremely difficult to measure on-farm — and what can influence it, what causes it to increase or decrease. We at Alltech have been working with other programs where big data allows us to capture the factors that we have underlined — why that occurs — which we've never been able to analyze before.

 We're starting to understand things in a very fundamental way, and I think that big data — whether it be used in terms of diseases, performance of animals or crops, or whether it be used in the realms of a lot of these sensors and new digital technologies — can capture a lot of information we've never been able to capture before. We can now interpret that information because we're able to use larger algorithms, larger systems to be able to understand what exactly we're looking at.

Michael:          Okay, sorry for the problems here in terms of getting engaged, but I'm here now. To comment on big data: It seems to me that, specifically, we have had significant advances in this area, and the advances may be as much along the entire value chain as they are at the production sector. In fact, the production sector may be lacking and just starting to catch up. The whole issue of the opportunity we have here, in terms of both capturing the payoff of big data not only at the farm production level but also throughout the entire value chain, is really critical. We can now accurately receive the message from consumers of what they want in terms of physical characteristics of their food or their eating experiences and also get more feedback in terms of those credence attributes, which are really important but difficult to measure. Now we can get them more accurately with traceability through that value chain. So, that’s a big advancement.

Tom:                Okay. Thank you for joining us, Dr. Boehlje. Let's dig a little more deeply into technology and the next question is for you, Aidan and Dr. Dawson. Let's look at the range of primary technologies that are transforming agriculture beyond big data. What else is happening out there?

Aidan:              There's an awful lot happening, and it's very hard, I think, for somebody to capture the degree of change which is occurring. I think if anybody thinks that agriculture is going to be the same way in 20 to 30 years' time, they've got their head in sand. We've written a certain number of papers on the digital technologies and the rate that digital technologies are transforming agriculture at the moment. This includes robots, drones, blockchain, the internet of things, virtual reality and enhanced reality. These are technologies which, either from a hardware or software perspective, can fundamentally change the ways in which we understand what happens when we grow plants or grow animals.

There are other technologies, such as nutrigenomics. That's one that Alltech is invested in very heavily. We're the only ones in animal agriculture to do so. We are big believers that understanding how nutrients impact gene expression in animals and in organisms is going to be very important for maximizing their productivity. I wouldn't forget gene editing, either. This is an area — described as CRISPR — that is dramatically transforming what we can do, again, with the ability of plants and animals to resist disease, enhance productivity, achieve certain characteristics we're looking at from the food perspective.

I don't know how to capture it all in such a short way, Tom, but I'd certainly say the digital technologies, nutrigenomics and gene editing are the three major areas that are going to transform the way we think about how food is produced.

Tom:                Karl Dawson, anything to add to that?

There are things that are happening in the area of biochemistry — findings that are really changing the way we think about processing feeds, handling feeds, the way we think about using feed additives. 

Karl:                 I think I'd add a few other things: There are things that are happening in the area of biochemistry — findings that are really changing the way we think about processing feeds, handling feeds, the way we think about using feed additives. All of those are coming from very basic biochemical evaluation of what's going on in the animal systems and the way they eat. We're doing the same thing in plants today.

                        One of the things that comes up when you start thinking a little bit about this is that we always think about what we're going to do on the nutrition side and how we're going to change the nutrition. We can do that, and we're starting to home in on the gap between genetic potential and what the animal can do.

  The other side of that issue that comes up is that we can start thinking about selecting our animals for specific nutrition. We talked a little bit about gene editing and the capabilities there. We have the capability of doing that and changing what those animals look like coming into the system, and we have the same capability on the plant side. That’s a very important thought process to keep in mind: that those two things are going to come together someday, and we have to be able to go forward with those in the future.

Tom:                Okay, an open question to all of you: This comes to us form Irish Farmers Monthly, and it dovetails nicely with what you've just been talking about. From both the environmental and the productivity perspectives, how important will electric and autonomous vehicles be on the future farm? Will such machinery become more important in light of the increased need for sustainability as the world population increases? Any thoughts?

Aidan:              Look, we're facing a world where we're talking about having planes fly themselves, cars drive themselves. It's perfectly logical that we would see the same thing on the farm. And anybody who's seen some of the injuries that can occur on a tractor and cause somebody to lose an arm or a limb understands that there are all sorts of safety issues that could be addressed by no longer having the potential for operator error.

                        From my perspective, I think it is difficult to find labor on-farm. When you find labor, you want labor to be well-trained and well-prepared. You have safety opportunities, also. I think there's just going to be a lot of factors that are going to drive for these autonomously driven tractors and harvesters to become part of our future.

Automation and robotics are going to be, I think, much more common and more rapidly adopted than many people think.

Michael:          Automation and robotics are going to be, I think, much more common and more rapidly adopted than many people think. We have a debate here on the Purdue campus of how quickly we're going to see those happening in the field. The discussion is related to whether it's going to be five years or 10 years before we're going to see an adoption of automated tractors and other systems within crop production agriculture. We already see it in the dairy industry in terms of robotic milking. We're seeing it happen particularly in terms of harvesting, especially crops. It’s going to happen much more rapidly than we realize, and it has the opportunity to profoundly change the agricultural sector. It’s a really, really important development.

Tom:                Anybody else?

Karl:                 I think that's true, and, quite frankly, it's not that far off. Some of it is already here. I've been on combines that essentially drive themselves down the row. You need a driver there to turn the combine around, but in the big fields, these 18-, 19-, 20-foot stalls can be driving themselves, and they're controlled by GPS. It's amazing to see how little manpower it really takes to run those.

Michael:          And now they’re able to turn themselves around. So that's even changed.

Karl:                 They didn't the day I was there.

Michael:          Oh, I understand, but that's how fast this technology is coming. It's coming very rapidly. My belief is we'll see this in the fields in five years — not 10 years — and rapidly adopted.

Tom:                Aidan?

Aidan:              I was just going to say I was with an ag-tech startup that obviously made too much money because the owner had just bought himself a Tesla. He just took his hands off the steering wheel and let the car drive itself, which gave me a little bit of heart palpitations as I watched it maneuvering its way through the city. But it shows you what's possible. In the fields, we've got a much more controlled environment — we have much less risk of things such as car doors opening or bicycles. It’s an inevitable part of our future, and we have the perfect opportunity to use this technology.

Mary:              I just want to add an even finer detail around it: What happens when we get in the field and we have the sensors on and the sprayers operating and you're actually sensing which weed to spray or which bloom doesn't have enough pollen on it so you can provide supplemental pollination? We have this micro-level influence. Technology can help us get closer to achieving that potential.

Tom:                We're talking about 9 billion people by 2050. Do these innovations get us to where we need to go to be able to feed the world?

The technology is developing fast and it will continue to keep up with the demand for the foreseeable future.

Karl:                 I think there's no doubt about that. I think the technology is developing fast and it will continue to keep up with the demand for the foreseeable future.

Aidan:              I had the opportunity to talk to a cooperative this week that was asking for some ideas about 2050, and I said that 2050, for me, has become unimaginable in terms of what could potentially happen. I often wonder whether 2050 is the right number to use. Maybe we should just be focusing, as Dr. Boehlje mentioned, on the next five to 10 years, where we can concretely comprehend what will change. But if you say the number is 9 billion and Mary says the number is 10 billion and somebody else says, “Well, what happens if we start being capable of changing life itself and really extending life spans?” maybe the number we're looking at is 15 billion. Maybe we're looking at a much greater number of people that we're going to have to feed.

                        I think we need to be really cognizant of the fact that this technological thing is moving so quickly. Don't stretch yourself too far in predicting. Look concretely at what should be used and how it should be used in the foreseeable future, which is probably more like 10 years than 35 years.

Tom:                These things are changing so much more rapidly these days. You mentioned nutrigenomics earlier, and I wanted to touch on that with Dr. Dawson. What are the main benefits that you see from a nutrigenomics perspective for farmers, and how will that change the way that they farm?

Karl:                 Well, if you think we're going to have a diagnostic kit tomorrow that solves all the nutritional problem of animals, nutrigenomics isn't going to deliver that right now. However, it is redefining nutrition. When we think about the value weight of feed material or feed product, the supplementation strategy, management practices, the way we feed calves or young chickens — all of those things are starting to change now because we have a tool that allows us to actually measure what happens when we make a nutritional change. That's a very powerful thing, and it's not only allowing us to look at productivity. We can now measure immunity in a bird and change that by nutritionally altering the young chick's diet. Same thing with calves: We can pass material information from one generation to the next using a nutritional strategy, but we can actually measure that and see how it's done.

Nutrigenomics is really going to redefine things. It's already redefined mineral nutrition. Trace mineral nutrition will never be the same...

                        Nutrigenomics is really going to redefine things. It's already redefined mineral nutrition. Trace mineral nutrition will never be the same as we view it from now on. We know that we can use less minerals. We can change and have less impact on the environment by using these tools. This tool allowed us to very rapidly understand that and change our nutritional practices.

Tom:                Dr. Boehlje, I want to give you an opportunity to jump in here.

Michael:          Let me just comment quickly. I'm not a scientist at the same level as Dr. Dawson, so I don't have that understanding at a granular level. But, we sometimes describe the technologies as moving agriculture from “growing stuff” to biological manufacturing. This biological manufacturing is very much in the context of what we've already been talking about: it's understanding the science and nutrigenomics. It's understanding biotechnologies and everything that has the potential to significantly impact the growth process of plants and animals at a much more scientific level. We’re getting sciences and technologies that are developing because of the interconnectivity between science bases previously kept in silos: nutrition, nutrigenomics and biology. We see some universities that have said, just as an illustration, that science is not only important, but is also essential. In fact, the required science increasingly in many universities is you have to take biology. You have to take biology to get an understanding because biology is increasingly driving the world.

Mary:              You know, can I come back to that, Mike? I agree with you and Dr. Dawson that science and nutrigenomics is giving us amazing tools. But, Mike, you used that term “biological manufacturing,” and I put on my consumer hat, and I just think that that's a terrible term. Today’s consumers don't want their food manufactured in any kind of factory, and that's just kind of the picture that comes to mind (with the term “biological manufacturing”). We were talking about how we can be more responsive to consumers, have differentiation, we can give this credence attributes, yet you're proposing or using this term that's actually far from that.

Michael:          I understand your perspective and I absolutely agree with that perspective. We aren't going to promote or advertise, we're not going to be saying to consumers, “This is a biological manufacturing process.” In fact, the word “processing,” generally, is not something consumers really want to hear relative to food.

It's interesting, though, that consumers are more than happy to hear the term “processing” relative to health issues or other things they buy, but they really are, in many cases, very negative about the term as it relates to food.

                        I'm not going to promote “biological manufacturing” to consumers, but it’s certainly a concept we in the industry, at the production level, must be increasingly mindful of. This allows us to adopt and facilitate the process of growing and producing food more scientifically and better than we have in the past.

Tom:                Dr. Boehlje, a topic that we were discussing before you were able to join us is big data — or farming data — in the future. Actually, it's happening now. How does that affect the types of people who will choose farming as a profession in the future? Do you think it will change the attractiveness of agriculture in some way?

Michael:          I think that, increasingly, what we're going to find in this industry is that those people who are going to be successful have some skills that maybe they need to enhance to be successful. Particularly, what we're interested in is analytical skills — analytical skills that are tied to data and information.

                        We see this particularly in the financial area, which is the area I work in. Some farmers abhor recordkeeping. They abhor this idea of having to keep financial information to provide to their lender, to understand their own business, to get the financial performance assessment that they need. We need to, increasingly, develop that skill and feel comfortable with that skill of looking at numbers, looking at information, trying to understand what the numbers say and the story they tell — not just crunching those numbers. Data assessment, data summarization, data visualization — those are going to be skills that we need to have more and more of our producers understand, and they will be the skills that might be very important differentiators.

                        And it's not just the stories that we need to have in terms of average yields. We see that, as we go across the fields with our yield monitors today, it's the distributions that count. It's what happens when you are in parts of that field where you have low yields as a function of a number of things that happened — whether they be weather or whether they be agronomic-oriented — and where you get those high yields as well. The same is true with animals. We're starting to see different animal performance even in the same pen in the same group as a function of their genetics, as a function of a number of things. We're going to get more granular in the data, and we need to understand the story there.

                        Data assessment, data summarization, data visualization — those are going to be skills that we need to have more and more of our producers understand, and they will be the skills that might be very important differentiators. Certainly, strategic thinking is another one of those skills, risk assessment, a lot of other skills. But the one specifically related to big data is this willingness to work with data and understand "the story" it tells.

Tom:                Aidan, do you have thoughts on that?

Aidan:              Yes, from a historical perspective, I think of what our system was for deciding who would become farmers. I suppose, originally, everyone is a farmer, and then gradually we decided that there would be land and that land would be passed from a farm owner to their eldest son. And over time, then, it seems, — at least in Ireland — it was divided amongst as many children as you had. Each one got a parcel of land, which created its own issues. Gradually, we seem to have moved toward a system where those who don't want to stay on the land go to cities or go and find other jobs, and we've been left with the people who really want to be farmers. Only in the last 20 or 30 years did we start to understand that being a farmer involves education as well. So, obviously, all the educational systems were set up through land grants and other systems around the world to try to create farming as a profession.

                        I think what we're looking at now is a fundamental change in what that farmer will look like. They won't necessarily grow up on a farm. They might grow up in the city. They won't necessarily have the skills of understanding animals or understanding plants. They'll understand data, they'll understand analytics, equipment, decision-making between all the various technologies, and what they should buy and what they shouldn't invest in.

 I think what we're looking at now is a fundamental change in what that farmer will look like.

                        So, those are dramatically different skills and skills that were used for the last, I'd say, thousand years — you might say a hundred years — to select or to decide who is it that's a farmer, who is not a farmer, and that's very fundamental. And back to the same numbers we're talking about, I think those influence not who is going to be a farmer in 10 or 20 or 30 years' time. Probably even in the next five years, we're going to see dramatic differences in terms of who are the right people, who are the successful people who are going to take over stewardship of the land.

Tom:                It seems to have broad implications for the entire culture. Are we talking about these attributes appearing mostly in large farming operations, or all the way down the chain to small family farmers?

Mary:              I think they have to go all the way down to small family farmers. I would come back to this and say to both of you, to Mike and to Aidan, that you gave a great description. I agree completely. It's about understanding the data to use the data. But, again, what's missing is the typical production push, and we now have consumers controlling more of the acres.

It’s not just about producing at the lowest price, but producing what the market wants...

                        I would add to this list — and this is whether it's maybe more appropriate even for a small family farmer or the new generation that is very attracted to farming for different reasons — is being able to understand the market. It's about being able to understand how to deliver this differentiated product that has extra value. It’s not just about producing at the lowest price, but producing what the market wants — or different segments that the market wants — and being able to sell into those channels, connect with those channels.

                        This is a very big basket now — a very big ask — which is a great thing for family farming enterprises because, typically, you don't have just one person doing all the decision-making — you have a whole set of people. The whole family is around the table, and it's the husband and the spouse, even the children as they come into the family business. I see these enterprises, and they have different specializations within, and that's fantastic because everybody can bring their strength to the table.

Michael:          Let me just completely agree with what Mary said. That's a really important issue. We have a tendency in agriculture to talk about supply chains. That's true in almost all industries and is reflective of the “push” mentality that we've had in a lot of industries, including agriculture: how we're pushing through the supply chain to the consumer. Increasingly, we're talking about “chain reversal,” and that's the whole idea: demand-driven change. We have consumers increasingly telling the entire chain what they want, how they want it and how it ought to be done.

 An important skill that's going to be much more important for farmers is going to be this whole idea of understanding and a willingness to work in an interdependent system — rather than being independent — and be very focused on relationships, collaboration and interpersonal skills. Those are things that many farmers haven’t historically — if I take my own father, for example — liked to do. He wanted to be in his farming operation. He didn't want to do farm records, and he didn't want to have a whole lot of relationships with other people. And, increasingly, those skills will be essential to be a successful farmer in the future.

Tom:                I have a question here from media that I think is appropriate at the moment. Let's just open it up for everybody. I think each of you can bring a perspective to this. This is from Owen Roberts. He's with the University of Guelph and is president of the International Federation of Agricultural Journalists, and he asks a very appropriate question because of what happened yesterday in Switzerland — the country renowned for its food supply. They held a national referendum yesterday designed to anchor food security in their constitution. It initially won approval by about 77 percent of the electorate. Globally, this was quite a groundbreaking exercise on their part, reflecting the growing interest by people everywhere in the production of the foods they consume, as you mentioned, Mary. He asks that we touch on some reasons why precision nutrition can give them confidence about the future of food supply and how they get that message to consuming public. If you'd like to begin with that, Mary?

Do we have the water? Do we have the land? How is climate variability affecting things? This precision nutrition piece is an important data tool that will enable us to do as much as we can with the resources that we have.

Mary:              Wow, that's a tough one. I think this issue about food security is really important for everybody in the world, right? And you're talking about Switzerland here. The challenge is that in some countries you don't have the resources to do that. I don't know enough about this referendum or the backend pieces of it. But, I'd say that precision nutrition will be incredibly important to meet this global demand. At the country level — we have talked so much about the fact that we can enhance productivity, but we have to do it in a time of decreasing resources, decreasing natural resources. Do we have the water? Do we have the land? How is climate variability affecting things? This precision nutrition piece is an important data tool that will enable us to do as much as we can with the resources that we have. I think country by country you're not going to get the same answer.

Tom:                Wheels are turning here, I guess.

Aidan:              I think that we talk all the time about the need for countries to produce all of their own food, and in essence, that sounds like motherhood and apple pie — you have to agree with it. I don't feel that old, but I can remember days, or growing up, when there weren't oranges in the supermarket, when you couldn't find bananas all year round, when things were much more seasonal. We've all gotten used to the idea that there's an abundance of food. It's available relatively inexpensively. Its carbon footprint, even if it comes from Colombia or Kenya, is actually quite low because the systems of distribution have become extremely efficient. I'll even look at countries like China that want to be sufficient in food yet increasingly are consuming corn from Brazil and soybeans from the United States, and they are purchasing pork and chicken. These are countries that have said they want to produce everything themselves. It's clear that that isn't always that easy.

..the fact is that we have this increasingly interconnected global system, and consumers have an expectation of being able to have food available at a relatively cheap cost and all the foods they want all year round.

                        Mary and I have had this debate in the past about people storing food in cans in their houses. Is that what we should be doing? We imagine people would start to do that again. I struggle with that idea. I think the world has become increasingly global. It requires, of course, free trade and requires us to trust that other countries won't declare war on us — which maybe is a big thing to wonder about. But the fact is that we have this increasingly interconnected global system, and consumers have an expectation of being able to have food available at a relatively cheap cost and all the foods they want all year round.

Tom:                Dr. Dawson, do you have thoughts on this?

Karl:                 I agree with the direction that Aidan is going, but the important things that are coming out today with agriculture boil down, oftentimes, to resource limitations — what do we have to work with? Whether it be the environment, land, water — those are the things that are going to drive the way we look at efficiency as we move forward. I don't know the initiative that they're talking about in Europe, but the idea that these are things that we can control right now is probably not right. We're going to have a limited amount of resources.

I look at an area where I grew up in southwest Montana. At one time, people died over water rights. For many years, it hasn't been that way, but I received something in the mail the other day that said I had to declare my water rights again on the property that I own there with the idea that that's going to go away pretty soon. It's going to be legislated. Maybe there are some security issues there we need to look at. One of the reasons that it's bad there is mining, which uses a lot of water, but the fact is that it's going to happen around the world. So, security does need to be legislated to some extent.

Tom:                Dr. Boehlje, thoughts on food security?

It’s not just our ability to produce enough to have "food security." It's also our ability to protect the amount of production we get and make sure that it actually gets to consumers and, as a matter of fact, to be more efficient and effective in terms of consuming it...

Michael:          Yes, I think the other dimension here is what kind of losses we have in the food chain, particularly in different economies in different countries. It’s not just our ability to produce enough to have "food security." It's also our ability to protect the amount of production we get and make sure that it actually gets to consumers and, as a matter of fact, to be more efficient and effective in terms of consuming it and not having such waste as we frequently have, particularly in the developed countries and developed world.

                        This whole issue of trying to reduce the amount of losses — the wastage — the amount impacted by storage losses, waste in the field, by not getting harvested adequately, by not getting transported adequately — particularly in many countries in the developing world. At the same time, in countries like the U.S., we have a lot of food wastage that occurs just out of our own refrigerators, out of our own food systems, where we buy food products, we don't consume them, we don't take care of them, we don't refrigerate them — and if we do refrigerate them, we lose track of them — we throw it out the back of the restaurant, we may try to donate it, but sometimes it's already expired in terms of its ability to be able to be consumed. There's a lot of waste in the system, and there actually are some major initiatives underway on the part of both corporate and university organizations to try to reduce the losses in the food chain, and that's an important part of this discussion.

Tom:                Dr. Boehlje, I want to stay with you for this next question, and Mary, if you would consider this as well: Economically, the U.S. has been the best place to farm, as you have written, based on its strong infrastructure and on its open markets. Do you think that that will continue to be the case in the future or should farmers be seeking new places to conduct business?

Michael:          We already see that occurring. We have significant expansion of production in agriculture, as everyone knows, in South America, Brazil, Argentina being particularly the case — significant expansion of agricultural production in Ukraine, and they are major competitors now to the U.S. We see it occurring in China, we see it occurring in Africa. So, we do see opportunities much more broadly in terms of farming than we used to. I can name a farming family here who has both a U.S. operation and a Brazilian operation. I actually know three families that have that kind of situation.

So, we are expanding agricultural production more globally. If you go back 30 years or longer, a crew chef from the former Soviet Union came to the U.S. to buy wheat to feed his people. Here we are in the middle of a cold war and he comes to the U.S. — his archenemy — to buy food. This has to be the ultimate indication of the failure of the system. Why did he come to the U.S.? Well, in a way, we were the only store in town. We were the only place where you had the opportunity to get the amount of wheat that he needed to feed his people. Now you can get that in a much broader base of geographies, in addition to corn, soybeans and other products.

 Now, the interesting dimension is that we're going to see farmers who are more geographically diversified in their production systems. We already see it in the specialty crops, where farmers in California have Mexican production as well because they can't grow what they need there. We see it happening in terms of other parts of the U.S., where farmers are in different geographic regions even across the U.S. I've got a potato grower friend who grows potatoes in nine states, 15 locations.

 We see it already happening in the U.S. We think it’s going to go into a more global perspective, and that's really an interesting question and issue because it has profound implications: If we geographically diversify production agriculture, how will the potential weather variability impact total supplies? Will we get diversification benefits? We don't know. But one would logically think that we do. So, will there be farming opportunities in other parts of the world that farmers — whether they be U.S., whether they be European, whether they be South American — ought to be seriously thinking about? The answer is yes.

Tom:                Mary Shelman, thoughts on this?

Land probably isn't the unit of natural resource that we should be looking at. I think water is, in the future, the way that we're going to frame farming operations.

Mary:              Well, I absolutely agree there are opportunities all over the world. Mike didn't mention Africa. I think that's the next frontier for farming, and they need a lot of strong technology and value chain development there to make that work. However, to come back to the opportunities in the U.S., I think they're still very strong, although it's a bit of a transition from the typical push mentality into one that's more based on getting the most value per acre, per animal, per unit of natural resource. Land probably isn't the unit of natural resource that we should be looking at. I think water is, in the future, the way that we're going to frame farming operations. You think about what happens with the tremendous growth of the Brazilian soybean industry — it's basically shipping water from Brazil to China. That's really how I think about agriculture in the world: removing water from one place to the other. There is also the New Zealand dairy industry, selling water basically through milk powders to China, to India, to other places in the world.

                        I think here that there are tremendous opportunities, but our farmers have to be much smarter in terms of all these technologies we were talking about, the different ways that they think about their business, and connecting to markets and figuring out where to get the most value from that water, from that land, and how to factor in the risks.

Tom:                Karl? Aidan? Thoughts?

Karl:                 One of the things that we haven't touched on much here is the efficiency of animal protein production. If you start looking at things that are going on around the world right now, aquaculture is one that will really get your interest. The development of recirculating aquaculture systems is full-steam right now. More of them are going into Norway — their production of fish. These recirculating systems are going to grow tenfold in the next five years.

Tom:                And those are land-based, correct?

Karl:                 Those are land-based systems, but they're very intensive when looking at protein production. We're talking about a system that's probably three to four times more efficient than any of the terrestrial animals we're used to working with. They're better than chickens, they're better than pork, they're better than beef by a long way. So those kinds of impacts are going to be tremendous when it actually comes to looking at animal protein and the way they're being developed. For us in the feed industry, the implications are gigantic.

Tom:                Thoughts, Aidan?

Aidan:              No.

Tom:                Nope. Okay. I do have one that I think you might like to address: Blockchain. This, by the way, comes to us from Simon Duke of Feedinfo.

Aidan:              You can thank him personally from me.

Tom:                What’s your opinion of blockchain and its potential for the animal nutrition industry?

Aidan:              Blockchain is one of the most exciting of the digital technologies. It's also one of the most difficult to get your head around. I suppose the bitcoin example is the one that most people are most familiar with, and it's the one that probably makes it easiest for people to understand: You have something which is this digital ledger where you can understand what's happening in the chain, but not see the individual actors or the individual people who are involved in the chain. I think that has tremendous implications for agriculture. Typically, as farmers, we have not liked people knowing exactly where our cattle come from. At the same time, when there's a disease, we want to be able to trace it back. We've not liked knowing who the people are who transform our food from when it's grown on the land to when we consume it. And, yes, again, if there's an E. coli outbreak and a child dies, we want to know where it occurred and how it happened.

Traceability is a fundamental part of our future. Recapturing the confidence of consumers is extremely important, and I think blockchain is the technology that allows us to do so in a manner that keeps us comfortable.

                        I think when you see companies like Walmart getting behind blockchain and using it in countries like China and being so impressed by its potential — and then they start taking it to the United States and elsewhere — I think you can see what the possibilities are. Traceability is a fundamental part of our future. Recapturing the confidence of consumers is extremely important, and I think blockchain is the technology that allows us to do so in a manner that keeps us comfortable. We're not giving away all of our secrets and, therefore, perhaps not trading our margins to the end food retailer, but at the same time making sure that something does occur. How fortunate that is that we can actually find out where that occurred, what it is that we need to do to stop it happening again.

Michael:          I think this issue of blockchain is a really important issue — sorry for interrupting — but let me just leverage those comments on food safety and traceability just a little bit further. A lot of people, when they talk about blockchain, think about it in terms of the financial markets and some other breaches we've had recently in the financial markets and personal security, et cetera, are really important. So that's where a lot of the common perspective is. But it's interesting how some industries are actually quite ahead of us in terms of using blockchain traceability. For example, the diamond industry is using it as a mechanism to try to trace and make sure that those diamonds that they're sourcing not only are true and accurate diamonds, their location and — back to Mary's points — are with the right credence attributes — that they are mined in the right way with the right work pros, with the right people. So, I think that this whole issue of traceability and food safety will be probably the biggest impact that blockchains have on the agricultural sector.

Tom:                Okay. We have time for one more question before we wrap things up, and let's begin with Mary, if you would. What are the opportunities for farmers to change the way they sell food? Are there specific ways in which farmers can view this as an opportunity to be more profitable or to gain even new markets?

Mary:              We talked about this growing fragmentation on the consumer end of it, that it's moving beyond just wanting cheap and accessible and safe food into things that align with values and other things around the specialty side. I think that does provide some opportunities at the farm level, first of all, just to be much more market-oriented and know where that profit potential is and basically growing what the market is interested in buying rather than what you want to sell. But not everybody can be direct-to-consumer. There are opportunities with technology now. We see the rise of some brands from the farm level. It starts out like a Laura's Lean Beef or Creekstone Farms or Pete and Gerry's Organic Eggs — things that come with some specialty proposition — that actually move all the way to the brand level. When I was in New Zealand last week, McDonald's had big banners in their stores saying, “We sell 100% free-range eggs.”

                        These types of changes are coming. If you look at the AmazonFresh website, you can buy hamburgers from a single cow. When you think about the implications of the supply chain for that and that differentiation, not everybody, clearly, is going to be able to deal with the market at the consumer level. But even at the customer level, the processor level that's buying in, the sustainability pushes inside of these companies, and also better understanding. Again, if you don't satisfy their consumer needs, it will be more about providing these products that have the exact kind of value or attributes that market wants.

                        I think, though, the challenge is that there's tremendous resistance to making those kinds of changes because our system has been set up to move big quantities of relatively undifferentiated products. I was speaking with a buyer of U.S. soybeans in a Southeast Asian country. He said, "We want to buy soybeans based on their oil content because we know how that breaks down in the value proposition." But the big processing companies want to sell soybeans based on whether it's, basically, color and size and the fact that it's this kind of bean and they really don't want to tell. So, it's finding these unique opportunities that are able to match that scale and finding those buyers that are willing to pay.

Tom:                Aidan, what do you see out there?

Apps on phones, websites, digital technologies, the ability to be able to see through cameras what's actually happening on the farm, to be able to see through blockchain what has actually occurred in terms of the way your food is processed — these are all just tremendous opportunities for farmers to engage directly with the end consumers of their food...

Aidan:              Well, Mary summarized it extremely well, which makes it difficult, but I'll maybe take a slightly different approach. I think that we are seeing very large changes in consumer behavior. You see that when they go to the grocery stores or supermarkets and they’re not going to the so-called “center aisles” anymore. They're not choosing to purchase the cornflakes, they're not buying food that, traditionally, was perhaps the macaroni and cheese that was extremely processed, for example, and they're looking for the “mom and pop” — as I call them — brands. These companies may not even have commonly recognized names. Consumers are looking for these companies they perceive as being more organic, more local and fitting with their ideals for food and the way they “vote,” as you put it earlier, Mary.

                        From my perspective, I think that's a massive opportunity for farmers to engage directly with consumers. Instead of farmers going to big food companies or medium-sized food companies, they can go directly farm-to-consumer. They can have a relationship directly with a consumer of their food. That can allow them, hopefully, to capture more value, so they can charge a higher price or just capture more value within the system and to, hopefully, adapt to what they find consumers are looking for. Maybe consumers are asking for questions that larger systems can't accomplish.

The massive opportunities, particularly, through apps on phones, websites, digital technologies, the ability to be able to see through cameras what's actually happening on the farm, to be able to see through blockchain what has actually occurred in terms of the way your food is processed — these are all just tremendous opportunities for farmers to engage directly with the end consumers of their food, and I think, eventually, that makes potentially a more profitable farming system.

Tom:                Dr. Boehlje?

Michael:          Yes, I think Aidan and Mary have really, really synopsized this issue quite well. Let me just put a broader context on it with some keywords. We're increasingly seeing this entire food production and distribution industry move very dramatically from a commodity orientation and a supply chain mentality to a differentiated product orientation and a demand-driven system. Those are very dramatic shifts in terms of what people have to do and how they do it, and the technology is increasingly available to get that done. Consumers are not buying food products. They want food consumption experiences, and that's a really different perspective on this industry than what we’ve had with the traditional producer commodity and what I sometimes refer to as the “produce and peddle mentality”: If I produce it, they will come. That is not the industry of tomorrow.

Tom:                Karl Dawson, thoughts on this?

Karl:                 Well, I guess I would agree with the whole concept here, but there is still a large change needed. I've been involved with programs for the last 15 years producing high-quality beef products with very specific attributes that we felt were of interest to the consumer and receiving good reviews from the consumer. But from a commercialization point of view, to date, those have been failures. We are not getting the story across in a way that allows us to get the feedback from the consumer and get the middleman to buy into the concepts we're making at the producer level or in the production. Alltech Angus was an example of a meat product: Succulent, very good reviews, and, quite frankly, we never could make that go because there was a barrier there between us and the consumer.

                        I see where that's coming from and the potential for doing that, but there's still a big hole in the middle in that commercialization chain that we have to take advantage of. Believe me, I'd love to see it go, because if you tell me what attributes you want in your beef, we can work on those things with our tools today.

The existing system is set up to be more commodity push, and that includes the processing sector. But we see now the advent of these nontraditional actors here: the investors.

Mary:              I might just come back to that because I think that's the same resistance that I was talking about there: Why we can't sell soybeans based on oil content rather than something else? The existing system is set up to be more commodity push, and that includes the processing sector. But we see now the advent of these nontraditional actors here: the investors. You have Bill Gates basically investing in Beyond Meat — alternate protein sources. You have Sergey Brin, founder of Google, investing in tissue culture beef. You have Jeff Bezos of Amazon now completely disrupting everybody's thought pattern by buying Whole Foods. So, hopefully, Karl, I think we're just at the breakthrough point on getting through. There are people in the system now that look at this and say our traditional food system is broken. Now, that's a rough thing, but they're coming with very innovative ideas, very disruptive ideas, and see a new future. And I think we're talking about what that new future is. Hopefully we're close to getting past that.

Tom:                Okay, we have just a few minutes remaining. What I'd like to do to conclude is to go around the panel and ask you to give us your closing thoughts on what viewers of today's discussion might want to consider their main takeaways from what they have heard. We'll begin with you, Dr. Boehlje.

Michael:          We’re certainly talking about an industry that's in a major transformation. In fact, we do programs called “Disruption” and “Chaos,” and that's where we are in this industry. It's been pretty tradition-bound in many cases. As just indicated in the previous conversation, parts of it are still tradition-bound. But there will be a profound transformation from outside the traditional players in the industry when we start doing more — putting together the pharmaceutical and the health industry within the nutrition industry. Maybe we're going to find that what happens is outside forces are going to be shaping up more than they have. When we put sensing technology out there, when IBM decides, which it has, that agriculture is the space where they ought to be spending some time and energy, not just at production, but across the value chain, that makes a big difference in this industry.

                        We’re going to see a lot of both big and small firms and organizations outside the traditional sources or the traditional players in the industry have a very disruptive impact on this industry.

Tom:                Dr. Dawson.

If I had to sum it up in one sentence: It's not your daddy's farm anymore.

Karl:                 Well, I think it's obvious from the conversation today that technology is going to drive a lot of different things. If you look at how we refer to the farmer today, I would change that to “agricultural technologist” rather than “farmer.” We're going to be bucking tradition, and that's one of the things that is a huge problem for a very conservative industry as we're moving forward. But if I had to sum it up in one sentence: It's not your daddy's farm anymore.

Tom:                Mary Shelman, takeaways?

Mary:             I think it's been a great discussion. In particular, the consumer has a much stronger vote today than ever before about what's happening on the farm. Therefore, you have to be market-oriented, and market-oriented not just in terms of thinking about the price of soybeans or the price of beef, but about the fundamental segments that can meet with the different value propositions around it.

                        So that's one piece, and the talent piece is absolutely essential. There are tremendous challenges, but even more importantly, there are tremendous opportunities in the next few years, and I think it's incredibly exciting time. But you have to be a little bit patient because, as Karl said, you can come up with a great product and a great proposition, but time might not be quite right yet. So how do you navigate this transformation that we're in and actually be able to balance looking toward the future while remaining very grounded today and having a successful business?

Innovators are the ones who are going to be successful — they're the ones who are going to survive and thrive. That's the farming of the future for me — innovation.

Aidan:              I think farmers of the future will be innovators. Until now, farmers have been good at learning from others, embracing technologies that others have, learning what methods they use and doing so successfully. In the future, my recommendation to farmers would be to buy yourself a passport, go travel the world, read as much as you can, learn as much as you can, and when you see innovations within reason, embrace them as quickly as possible. I think innovators are the ones who are going to be successful — they're the ones who are going to survive and thrive. That's the farming of the future for me — innovation.

Tom:                Aidan Connolly, Mary Shelman, Karl Dawson, Dr. Michael Boehlje, thank you all for joining us. It's been a fascinating conversation. We appreciate it very much and thank you for joining us.

Farming the Future was a live video panel discussion. To watch the recorded video and learn more about our panelists, click below:

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The future of farming includes automated machinery, food traceability and data providing unprecedented insights. What do those innovations mean for farmers and consumers? A group of agribusiness experts gathered to discuss the possibilities.

ACE-ing sustainability: Part II, "A" is for animal

Submitted by aeadmin on Fri, 11/17/2017 - 00:00

A 20th century vision that was ahead of its time remains so today, some 30 years after its conception: The Alltech ACE principle is a corporate “North Star,” serving as a guide to a more sustainable, healthier world.

The “A” in ACE is all about the animal and innovating ways to balance highly efficient and profitable livestock production with the seemingly conflicting imperatives of environmental stewardship and consumer demand.

A focus on precision nutrition

Alltech’s animal health and nutrition business revolves around the science of nutrigenomics — how diet impacts genetics — and a quest for a better understanding of how to feed an animal to its specific genetic potential.

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An Alltech researcher reviews markers of gene expression, which provide a better understanding of how changes in the diet affect animals at the genetic level.

“The more efficient that we can make these animals, the better off we are because we can get more meat, milk or eggs per pound of feed,” noted Dr. Kristen Brennan, a research project manager at the Alltech Center for Animal Nutrigenomics and Applied Animal Nutrition. “The focus of the nutrigenomics that we do is to understand how nutrition influences animals on a molecular level and how that can lead to changes that we see in production, health and well-being.”

Good for the animal, producer, environment and us

Intensive livestock operations produce large quantities of animal waste, which can include high levels of ammonia, nitrogen, phosphate and trace minerals. However, proper animal nutrition can minimize the levels and impacts of these pollutants.

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Alltech scientists are working to develop products that reduce methane emissions while improving the efficiency of the animal.

“These products must reduce methane emissions from the rumen without negatively impacting rumen fermentation and negatively impacting either the milk production or growth of beef animals,” said Dr. Amanda Gehman, Alltech research project director.

Finding that balance is also a focus at Alltech-owned KEENAN, the Ireland-based manufacturer of advanced diet feeders and software products.

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“What we’re all trying to do is to increase feed conversion efficiency (FCE) on the farm,” said Conan Condon, director of KEENAN's InTouch live review and support service. “We want to increase production while decreasing the intake of the animals. By doing that, you will increase your FCE and reduce your carbon footprint.”

For Alltech Chief Scientific Officer Dr. Karl Dawson, a significant and all-encompassing ACE milestone was reached when the company introduced Optigen®, a non-protein nitrogen source for ruminants.

“That had a tremendous impact in terms of what it would do for animal feeds,” said Dawson. “It not only improved animal performance, it changed the way nitrogen is utilized in cattle. It made nitrogen efficiency much greater, and you have less nitrogen in waste.

“Nitrogen in waste is the precursor to one of the major greenhouse gases, nitrous oxide, which is a stronger greenhouse gas than methane,” he continued. “You can reduce greenhouses gases using that technology.”

Healthy animals, healthy humans

Dawson is equally focused on addressing today’s widely held consumer concerns about the use of antibiotics in livestock production as a growth promotant. Alternative solutions are being found in enzyme technologies that are becoming the backbone of Alltech nutritional programs and technologies.

“We have systems that can induce the same types of changes that antimicrobials have induced using these enzymes and manipulating what’s going on in the digestion process,” he said. “As time goes on, that is going to be a real game-changer.”

The potential for using low levels of these enzymes as additions to feed can be as powerful as any of today’s antimicrobials, according to Alltech researchers.

“We’re producing alternatives to antibiotics in the diet that satisfy both the needs of the farmer and the production needs of the animal and also make the consumer happy because those compounds are omitted from the diet,” noted Brennan.

Environment and economics — must they be at odds?

Environmental sustainability has appeared to be at cross purposes with economic growth and development. Achieving high efficiency has been thought to come at the expense of the food-producing animal and the environment.

“In general business, those two things can be at odds, but in cattle — and in animal agriculture, in general — efficiency really is the name of the game as far as producing less waste, less environmental pollutants per unit of milk, beef or eggs,” said Gehman. “But it’s also the same efficiency that can be applied to profitability.

“In cattle, methane is an indicator of waste, not just to the animal but also to profitability, so if that animal is burning off energy as a waste product and we can make the animal more efficient so that she retains more of that energy, that can be environmentally sustainable as well as profitable for the farm,” she continued.

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Dr. Amanda Gehman, Alltech research project director, evaluates a total mixed ration using the Alltech® In Vitro Fermentation Model, or IFM. Improving digestibility of the diet can have a significant effect on producer profitability and environmental sustainability.

Gehman is now investigating in vitro testing (using the Alltech® In Vitro Fermentation Model, or IFM) as a means of evaluating the digestibility of various forages.

“We’re making that a regular test in order to fine-tune the rations, to address problems as they come and also address any opportunities to use an undervalued feed,” she said.

Minerally minded

While Gehman and her colleagues study ways to optimize ruminant digestion, other Alltech researchers have been focusing on how producers can feed substantially fewer organic trace minerals than inorganic trace minerals and get similar, if not better, performance.

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Dr. Karl Dawson, vice president and chief scientific officer at Alltech, works with ICP-MS, instrumentation used to measure the proportion of minerals in feed or food samples and their distribution in biological matrices, animal tissues or human biological fluids. Methods such as ICP-MS are routinely used by Alltech researchers as they seek to define the true mineral requirements of animals.

The company’s mineral management program, Total Replacement Technology™ (TRT), has been at the forefront of a transition from inorganic trace minerals that are not efficiently digested — and even banned in some countries — to feeding reduced levels of organic minerals that animals can better utilize, reducing environmental pollution.

Steve Elliott, global director of the Alltech® Mineral Management team, said the company’s scientists are also looking at the interaction of trace minerals with other components in the diet, such as enzymes, vitamins and antioxidants.

“We’ve found that trace minerals can have a very negative impact on those other diet components,” said Elliott. “Research has now shown that, by using organic trace minerals, we avoid some of that conflict or interaction, thus allowing those other components to do what they’re put into the diet to do.”

Ending the reliance on fish oil and fish meal

Some methods of aquaculture have a very high environmental impact. A common sustainability problem in animal and aquaculture diets is the nutritional requirement of fish oil or fish meal, which is typically from wild fish.

The problem with fish oil — and this really goes to sustainability and the ACE principle — is that fish oil and fish meal demand have been increasing. Fisheries around the world are at capacity, and fishing more out of them risks collapsing them. The alternative is aquaculture, but in that case, there is not enough algae in the spaces that the fish occupy. You’re feeding the fish, and at this point, the ratio of conversion is that you have to 'squeeze' one fish to get enough fish oil to feed one fish. With demand increasing, that’s not sustainable, long-term.

Dr. Jorge Arias, Alltech’s global director for aquaculture, is optimistic about algae as an answer.

“We believe we have a real solution in our algae that will reduce reliance on fish oil while increasing the amount of DHA available to farmed fish and, ultimately, to consumers,” he said.

Sustainable seafood

To further address issues of fish farming, the Alltech Coppens Aqua Centre recently opened in Valkenswaard, the Netherlands.

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“This is a brand-new knowledge hub for the development of innovative fish nutrition solutions to tackle both the present and future challenges facing the aquaculture industry,” said John Sweetman, Alltech's European technical manager for aquaculture.

Those methods include products derived from microalgae that are fully safe, sustainable and traceable, while providing the nutritious DHA previously supplied by fish oils.

ACE-ing animal health and nutrition

Alltech takes a holistic approach to animal health and nutrition, mindful of what is best not only for the producer, but also the ruminant, fowl or fish that feed a growing population and the planet they all call home. This article has touched on but a few of the many products, programs and concepts provided by the global Alltech research and development community to live out its ACE principle commitment

Next in our series will be the “C” in ACE: the consumer. We’ll look at the many ways Alltech strives to respond to the expectations of the information-seeking “prosumer” of the 21st century.

Read ACE-ing sustainability: Part I, the environment.

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Alltech 2017 Canadian Harvest Analysis indicates high levels of mycotoxins

Submitted by aeadmin on Tue, 11/14/2017 - 00:00

High levels of deoxynivalenol (DON) and zearalenone (ZEA) present in grain and forage samples across Canada

[GUELPH, Ontario] – The 2017 growing season was a variable and challenging one across Canada. From drought conditions on the prairies to above-average rainfall in Ontario, weather conditions can not only reduce yield, but can also increase plant stress and lead to challenges with mycotoxins. Results from samples submitted for the Alltech 2017 Canadian Harvest Analysis show that grains and forages from across Canada are at risk of mycotoxin contamination.

Samples submitted between Sept. 1 and Oct. 15, 2017, show that grains contained mixtures of mycotoxins, including deoxynivalenol (DON) and zearalenone (ZEA). Forages such as corn silage, barlage and haylage samples also contained multiple mycotoxins in 2017, particularly from mycotoxins produced by Fusarium species of moulds, such as DON, ZEA and T-2/HT-2 toxins.

As a result of the late-season rains in many provinces, especially following the dry conditions during the summer in the prairies, there is additional potential for mycotoxins such as fumonisins.

Mycotoxins are a regular concern for producers, as they influence feed quality and animal safety. They are produced by certain species of moulds and can have toxic properties that impact animal health and performance.

“Farmers should carefully consider if and how feed with mycotoxins is used,” said Dr. Alexandra Weaver, Alltech® Mycotoxin Management technical specialist. “Even minimal changes in feed quality can have a big impact on an animal’s production over time.”

Mycotoxins are seldom found in isolation, and when multiple mycotoxins are consumed, they may have additive, or even synergistic, interactions that increase the overall risk to performance and health. As a result, an animal may have a stronger response than what would be expected if it was only experiencing a single mycotoxin challenge.

For feedstuffs harvested in 2017 and currently being fed, it is important to conduct a mycotoxin analysis that identifies storage mycotoxins, including the Penicillium and Aspergillus mycotoxin groups, as there is added potential for additional mycotoxins to develop during storage. Proper mycotoxin management techniques can reduce the risk of mycotoxins coming from feed materials as well as help to prevent the negative effects mycotoxins can have on animal health and performance.

Alltech Canada will be hosting two webinars to review the 2017 harvest analysis results with Weaver on Tuesday, Dec. 6, 2017. The Western Canada webinar will take place at 9:00 a.m. MT, and an Eastern Canada webinar will take place at 2:00 p.m. ET. Reserve a spot for the Western Canada webinar via this link and for the Eastern Canada webinar via this link.

For more information on mycotoxin management, visit knowmycotoxins.com.

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<p>Results from Alltech 2017 Canadian Harvest Analysis show that grains and forages from across Canada are at risk of mycotoxin contamination.</p>

Digital horsepower: How technology is transforming the equine world

Submitted by aeadmin on Wed, 10/11/2017 - 00:00

From the mythical tales of Pegasus and the Black Stallion to the true legacies of Alexander the Great’s Bucephalus and Man o’ War, few animals conjure up images of nobility, strength, beauty, power and freedom in our minds quite the same way a horse does. First domesticated 5,000 years ago in Europe and Asia, the role of the horse throughout history has changed considerably, and these beautiful animals have demonstrated an incredible range of abilities and athleticism. While some cultures still rely on horses for transportation or agriculture, others primarily view the relationship with the horse as one of sport or pleasure.

Now a multibillion-dollar industry, the economic value of the business of horses is estimated to be $39 billion in the U.S. alone. Also evident are the opportunities to use new technology. While the progress of the past few years has been swift, the full potential hasn’t yet been realized. Eight digital technologies discussed in previous blogs have the potential to disrupt the equine industry, altering the very fundamentals of how we take care of horses.

3D printing: The new farrier?

3D printers can provide nontraditional answers to traditional challenges. Through improved breeding and nutrition, the horse industry has been able to dramatically improve performance, but challenges remain, specifically injuries and irregular growth patterns.

3D printing could be used to create casts, splints or possibly prosthetics for animals with injured or broken legs. For every Seabiscuit, there are countless examples of valuable horses that are put down when they break a bone. Previously, the prognosis for such horses was very poor, but what if 3D printing could step in as a solution? With this tool, veterinarians could print any number of things to solve myriad health issues.

CSIRO in Australia has developed 3D horseshoe printing technology to generate horseshoes using imaging software that closely analyzes the hoof in order to provide shoes with a superior ergonomic fit.

© Copyright CSIRO Australia, 2013

Robots: For heavy horse lifting

Robotic technology is already replacing a host of repetitive tasks, particularly in manufacturing, and greatly reducing labor costs. In the horse industry, applications could actually save lives. Robots have the ability to lift a horse in a careful manner that controls weight distribution and reduces the risk of hurting horses in operations that could be life-threatening, such as broken legs or laminitis. One form of equine lift was designed through collaboration between the University of Saskatchewan and a machinery company called RMD Engineering, which had originally taken inspiration of the idea with people suffering from multiple sclerosis.

Robots can also help in equine medicine and the evolution of CT scans. Each year, hundreds of horses are fatally injured in North America due to racetrack injuries, mainly fractures. Getting an accurate scan of an animal as large as a horse can prove quite challenging, but robotic devices, such as the one created by 4DDI Equine, maneuver around the horse, reducing the need for the animal’s cooperation as well as providing a safer alternative to more traditional methods that may have involved heavier sedation, tranquilization or other anesthetics. Equimagine can scan the entire horse in 90 seconds, taking over 900 images and producing high-quality, multi-planar 3D (or even 4D!) images, all while the horse is awake and standing.

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Photo Credit: Image courtesy of Penn Vet New Bolton Center.

Drones: Too much like a horrendous horsefly?

Their value is already well established in many areas of agriculture, such as monitoring crop growth and disease, but the role drones can play with horses has yet to be fully explored. The Bureau of Land Management could potentially use drones to monitor the population and movements of wild horses, without the requirement for helicopters or trackers, both of which pose their own challenges and limitations. It is also possible to imagine a future in which they could be used to deliver vaccines, antibiotics or other medical needs to veterinarians treating wild horses. At a more micro level, drones supplied with a camera, combined with machine vision, could be used to monitor the movement of a cantering or galloping horse in open spaces and to determine lameness or other idiosyncrasies not normally visible to the human observer.

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Despite these positive applications, it is worth mentioning the concerns most horse people have with drones. They are, effectively, large horseflies that can cause fear, and possibly even harm, to horses that can be easily frightened by the loud hum, if not the hovering object in the sky. Death or injury of spooked horses has been reported on several occasions. Given that drones are still a relatively uncommon sight to humans, it is not likely that training for compatibility between horses and this technology will become standard.

Sensors: From smart saddles to dressage scripts

Sensors have already established their position as a new powerful technology for horse management. They can be used to analyze many aspects of performance and health, and already over 80 companies provide wearable sensor technology for horses. The capabilities of this modern technology can help veterinarians and the equine industry immensely.

Seaver, for instance, is a wearable girth that measures a horse’s heart and breathing rate and uses algorithms to determine the animal’s movement when jumping to provide measurable data regarding its vertical and horizontal aspects. This is accessible via the rider’s smartphone app and can be stored and played back later for riders to assess the horse’s movement, path or strides. When repeated, it can determine changes over time. Arioneo has designed a wearable that attaches to a blanket and monitors a horse at rest.

Well-known saddle maker Voltaire has developed the first smart saddle. The Blue Wing saddle is the first of its kind that is designed to actually benefit the horse while in use by collecting information and saving that information for review later by the rider. It does this using a chip in the saddle that collects information about each ride: time spent in each gait, direction, quality of the horse’s symmetry, number of jumps, etc. All of this can be reviewed later by the rider or trainer; adjustments to the training program can be made based on evaluation of the horse’s performance using these metrics.

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Photo Credit: Image courtesy of Voltaire Saddlery.

Another smart, wearable gadget is the Nightwatch Smart Halter by Protequus, which uses microprocessors and sensors to provide 24-hour monitoring. If a horse is in distress, Nightwatch can send text messages or phone calls to the recipient. For sport and riding horses, GaitSmart Pegasus is a wearable designed to analyze a horse’s movements and produces a report within minutes.

Sensors may soon find their way into the dressage arena. Lemberg, a mobile and web development company, is attempting to use sensor technology to determine a rider’s location in the ring and give directions, or a “script,” to the rider as he or she performs the exercise. The company is testing different location technologies such as Xiaomi Mi4 or Apple’s iBeacons. Both offer location positioning technology without the use of satellites, thereby offering greater accuracy, which is necessary given that the arena is often covered and comparatively small, and the directions in dressage competition need to be extremely accurate and perfectly timed.

Another incredible advancement in sensor technology is a high-tech “camera pill” that allows veterinarians to see directly into the gut of the animal, thereby allowing for better diagnosis of disease, general health status or examination of surgical sites.

Other tech companies producing equine sensors include SeeHorse, Equisense, EquinITy, Connected.Horse and HorseCom.

These technologies offer owners insight into the daily health and well-being of their horse using real-time data. Potentially, this information could give veterinarians the opportunity to analyze and interpret massive amounts of information regarding both individual animals, and, if used collectively, to better understand the species as a whole.

Artificial intelligence (AI): More accurate training?

AI is the ability to gather information from sources, such as sensors or other data collection devices, and interpret that data to help make meaningful and logical decisions. AI eliminates interpretational errors by allowing for analysis of significantly larger data sets, thereby eliminating many mistakes that might occur with humans.

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Equimetre is an AI-powered wearable offering insight to trainers in the horse racing industry by providing analysis of the animal while also collecting data about the conditions of the track, temperature, humidity, etc. In evaluating all of this data through AI, the company is able to provide analyses and recommendations to trainers that will best suit the horse. This technology could easily be transferred into other disciplines in the industry, including jumping, dressage, endurance or polo, or it could be used to make recommendations for racetrack betting, grossly altering the odds! Such was the case when CBS Interactive challenged Unanimous A.I. to predict a winner of the 2016 Kentucky Derby.

When combined with something like machine vision (such as the company Cainthus provides to dairy), it could provide insights into the daily routine and management of horses. These technologies can result in more accurate training and better health assessment by generating appropriate regimens for horses, riders and trainers.

Augmented reality (AR): Imagine viewing races and seeing the speeds of each horse

Augmented reality is a combination of real-world visuals supplemented with information created from external data. The augmented portion of the image is provided by digital information interpreting light frequencies not visible to the human eye. The added visuals can be imposed on the real image in such a way that they are indistinguishable. Equine thermography, for example, uses a camera that detects infrared waves on the horse’s body surface that are invisible to the human eye. Veterinary Thermal Imaging, Ltd. uses this same information to detect issues in horses’ backs, ligaments and tendons, muscles, bones and nerves, often weeks before the animal is even showing signs of pain or injury, allowing for the opportunity to preventatively treat the animal.

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Photo credit: Image courtesy of Inspiritus Equine, Inc.

The Equine Motion Analysis System is a software technology company that examines horse and rider symmetry. Designed by a computer programmer and equitation scientist, the program is designed to create an image depicting where a horse, rider and saddle are properly (or improperly) aligned.

Additionally, the future of horse racing betting could easily benefit from this type of technology. Using AR, bettors could more easily see what is happening on the track through the use of devices such as goggles; real vision could be supplemented with additional information such as speed, placement, and market or betting information. From a trainer’s perspective, more detailed information regarding the individual horse could be provided, thereby giving insight into the animal’s health status in real time. AR’s expense could be offset by the creation of new betting mechanisms. Companies like YantramStudio, Meta and Vuzix are the likely future of AR, and their use could be replicated in the equine industry.

Virtual reality (VR): A new way for vets to train

Virtual reality provides a new tool for veterinarians and those training to work with horses. Complicated or rare surgeries could be practiced in a classroom ad libitum, minimizing the risk to students, technicians and teachers. Although expensive, VR has the ability to greatly reduce other costs, such as time and energy, as well as save an animal from enduring invasive procedures for the purpose of learning and training. As VR becomes more common and less expensive, it could be used in more mundane training for managers and workers.

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It could also be used for equestrian-related entertainment. William Hill unveiled its latest horseracing prototype called “Get in the Race,” in which users can experience a live horse race (from the back of the horse!) in a 3D virtual environment. Unit9 has developed a polo playing experience using software such as Google Cardboard. If more companies such as Oculus Rift choose to get in the game, the potential for cost savings to users could greatly increase.

Blockchain: A secure, global network of horse information

Blockchain technology is possibly one of the most universally beneficial technologies transforming business today. Blockchain is a database of information contained across a network that uses a decentralized system of information management, thereby making it difficult to corrupt the information. It is basically a database where digital records can be stored by anyone, and security is guaranteed. It is public and transparent because all the information is embedded within a distributed network.

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Historically, blockchain has been used primarily in the financial industry, but it can be applied to business. An individual company or user doesn’t need to understand how to manage it, but only how to use it. In the equine industry, blockchain allows buyers from all over the world to store valuable and trustworthy information about horses, prices, treatments, scientific studies, feeding and technology, etc. Essentially, any equine company can access the database and register anything about horses such as birth, surgery, injections, veterinary visits, injuries, height and weight, treatments and more. Increasingly, more federations are requiring microchipping in horses, including the United States Equestrian Federation and The Jockey Club. Microchip manufacturers are benefiting from this, but so will prospective horse owners, veterinarians and anyone else interested in learning more information about a specific animal if this information is also housed using blockchain technology.

Roping it all together

The old business models are being disrupted with these eight technologies. Combined, they can be part of the internet of things (IoT), a system in which everything is connected and sourceable. GMAX is already using IoT technology to connect various equine technologies and provide incredible amounts of data, interpretation, analysis and recommendations to users. Such applications can be transformative to the equine industry. EquInnolab provides educational opportunities for learning and collaboration involving these technologies within the equine industry.

Not since the invention of the saddle and stirrup have horse people had so many opportunities to reimagine the future. These technological changes are only the beginning. More improvements are ahead as equine digital technologies are further adapted and refined. What will the industry look like in five years? While that is hard to predict, we can know for certain that it won’t look like it has these past 5,000 years.

 

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Farming the Future

Submitted by aeadmin on Fri, 10/06/2017 - 00:00

What does the future hold for farming and the entire food supply chain?

Everything from automated farm implements and nonstop reams of data to consumers’ ability to trace their food to its source and create supply chain reversal, according to a panel of agribusiness experts.

Looking ahead into that near (and already here) future was the basis of a live video panel discussion entitled “Farming the Future.”

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What’s changed about what it means to be a food consumer?

“I think we’re in the middle of a food movement,” said Mary Shelman, former director of Harvard Business School’s Agribusiness Program.

She cited the rise of “engaged eating” — taking the consumption of food beyond simply eating to making food choices that are considered nutritious, safe, culturally appropriate and produced in environmentally sustainable ways.

“A big piece of that is the millennial consumer,” she explained. “Technology is all around them. They get information in different ways. They have different values. They’re the biggest demographic group in the U.S., and they’re just at the stage of having families and moving up in their income potential, so they’re very attractive to the food industry.”

Shelman noted that the millennial generation, born between the early 1980s and 1990s, has a much greater understanding of the relationship between health and food.

“What they eat is part of their identity,” she said. “Food actually reflects who they are as a person, as well as their values.”

This presents what, in her view, may be the food industry’s biggest challenge.

“Not only do they want products that meet certain price and safety points, but they also want products that have a purpose,” she said.

Shelman noted that these “prosumers” have a strong belief in their purchasing power’s ability to affect the change they wish to see in the world. They “vote” with their dollars.

What’s changed about what it means to be a farmer?

Aidan Connolly, chief innovation officer at Alltech, recognized that the rate of change occurring in agriculture is outpacing comprehension of its scope and scale.

“I think that if anybody thinks that agriculture is going to be the same in 20 or 30 years, they’ve got their head in the sand,” he said.

Connolly, who has written about digital disruptions that are currently transforming agriculture, cited those technologies: “…robots and drones, blockchain, nutrigenomics, the internet of things, virtual reality and enhanced reality — these are technologies that can fundamentally change the ways in which we understand what happens when we grow plants or animals.”

Perhaps the most widely felt game-changer in agriculture has been the arrival of “big data.”

“You have a tool here that looks at millions and billions of observations, whether it’s productivity, food intake, the way we grow our crops, how much rain you get — all of this can be integrated into very precise models, and that’s going to be the big change in agriculture,” said Dr. Karl Dawson, chief scientific officer at Alltech. “We’re talking about moving to ‘armchair farming.’ We’re going to be making our decisions from a site, sitting in front of a computer, looking to see what we can predict in the future. That’s a tremendous tool that we’ve never had.”

What does this imply about the knowledge and skills required of the 21st-century farmer?

“I think we’re looking at a fundamental change in what that person is going to look like,” said Connolly. “They won’t necessarily grow up on a farm. They might grow up in a city. They won’t necessarily have the skills of understanding animals or plants. They will understand data, analytics, equipment and decision-making about all the various technologies and which investments should and should not be made. So, dramatically different skills from those used for the last thousands of years will determine who is and who is not a farmer.”

Key among those talents are analytical skills that are tied to data and information, according to Michael Boehlje, distinguished professor of agricultural economics at Purdue University.

“We are going to have to increasingly develop that skill and feel comfortable with looking at numbers, looking at information,” he said.

Boehlje emphasized that this doesn’t mean a farmer has to transform into a number cruncher but will need to understand the stories that the numbers tell.

“It’s not just the story they (data) tell in terms of average yields,” he explained. “It’s the distributions that count. It’s what happens when you are in parts of your field where you have low yields and where you’re getting high yields as well.

“The same is true with animals,” continued Boehlje. “We’re starting to see different animal performance even in the same pen. That’s a function of their genetics and a number of factors. We’re going to get more granular in the data. So, data assessment, data summarization, data visualization, strategic thinking, risk assessment — those increasingly are going to be the skills that we need to have.”

Attracting a new generation of talent to farming

Shelman agreed that new and emerging farm technologies will enable agriculture to be successful in meeting increasing demand, but attracting and retaining that new generation of farmers requires something more.

“Supply and demand economics don’t tend to move in lockstep,” she said. “For instance, in crop farming in the U.S. today, prices are relatively low compared to other times in the last five years. So, there’s a need to maintain an economic viability for farmers to survive — and, in particular, to attract new, younger farmers.”

Shelman pointed out that the average age of the American farmer today is reaching 60 years.

“We need new talent, and they will only come in if there are attractive returns in the sector,” she said.

This new generation is being attracted to farming for very different reasons than their predecessors.

“It’s about being able to understand the market,” said Shelman. “It’s, ‘How do I deliver this differentiated product that has extra value?’ So, it’s not just about producing at the lowest price, but producing what different segments of the market want and being able to sell into those channels.”

The result: supply chain reversal

The industry is seeing the rise of “demand-driven chains with consumers increasingly telling the entire chain ‘what we want, how we want it and how it ought to be done,’” according to Boehlje.

“So, a really important skill that is going to be much, much more important for farmers is going to be understanding and working in an interdependent system, rather than as an independent farmer, that is very focused on relationships, collaboration and interpersonal skills — things that many farmers have historically not liked to do,” he said. “But those are going to be skills that will be essential to being a successful farmer.”

So, how can farmers change the way they sell foods?

Consumers are moving beyond the traditional demand for cheap, accessible, safe food to shopping decisions that align with their values, according to Shelman.

“I think that provides some opportunities at the farm level,” she said. “First, to become much more market-oriented and know what the market is interested in buying rather than what you want to sell.”

Added Boehlje, “We’re increasingly seeing this entire food production and distribution industry move very dramatically from a commodity orientation and a supply chain mentality to a differentiated product orientation and a demand-driven system. And the technology to get that done is increasingly available.”

Shelman cited as examples the rise of brands such as Laura’s Lean Beef or Pete and Gerry’s eggs, items that come with specialty propositions.

“If you look at the Amazon Fresh website, you can buy hamburgers from a single cow,” she said.

She acknowledged that dealing with the market at such a level is not for everyone in farming, but it’s increasingly popular among consumers.

“There’s tremendous resistance in the system to making those kinds of changes because our system has been set up to move big quantities of relatively undifferentiated products,” said Shelman.

Dawson cautioned, however, that there remains a messaging gap in the commercialization chain that has failed to win the buy-in of the middleman.

“Alltech Angus was an example of a succulent meat product that received very good reviews, but, quite frankly, we never could make it go because there was a barrier between us and the consumer,” he explained.

Still, noted Connolly, technologies enabling transparency and traceability are ushering in a new era for the farm-consumer relationship.

“We are seeing very large changes in consumer behavior,” he said. “Apps on phones, websites, the ability to see through cameras what’s actually happening on the farm, to see through blockchain what has occurred in the way your food is processed — these are all tremendous opportunities for farmers to engage directly with consumers of their food, and I think, eventually, that makes for a more profitable farming system.”

Success in farming, said Boehlje, will depend on an ability to move away from the mentality “If I produce it, they will come.” That, increasingly, is not the industry of tomorrow.

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How to prepare for FSMA implementation in the U.S.

Submitted by aeadmin on Sun, 09/17/2017 - 00:00

The Food Safety Modernization Act (FSMA) helps ensure food safety by focusing on preventing contamination rather than simply responding to it. All feed manufacturers who manufacture, process, pack or hold animal food for consumption in the United States must comply with the FSMA.

In general, this includes those who register under Section 415 of the Federal Food, Drug, and Cosmetic Act (also known as the Bioterrorism Act). It’s important to note that not complying is considered a prohibited act.

Recently, Hubbard Feeds hosted a series of meetings for its customers to help them prepare for the FSMA. Keith Epperson of Epperson Consulting & Associates, LLC, led the discussion by giving attendees an overview of the FSMA and how it affects their businesses. Below are the key takeaways from Keith’s presentation.

Deadlines for larger businesses to comply with the FSMA went into effect in 2016. The current compliance date for many feed dealers is September 2017 for Current Good Manufacturing Practices. A more detailed outline of compliance dates is shown in the chart below, provided by the American Feed Industry Association.

Compliance dates for FSMA

Business Size

Subpart B

Current Good Manufacturing Practice

Subpart C

Hazard Analysis and Risk-Based Preventive Controls

All Others

Sept. 19, 2016

Sept. 18, 2017

Small Businesses

(&lt; 500 FTE) *

*full time employees

Sept. 18, 2017

Sept. 17, 2018

Very Small Businesses

(&lt; $2.5 million/year)

Sept. 17, 2018

Sept. 17, 2019

Critical prevention efforts

The first of several topics discussed at the meetings was the importance of training employees on their job responsibilities. Having qualified individuals who understand what they do and the consequences of not performing those tasks correctly is a key aspect of food safety. Documenting when training sessions occur is an important part of FSMA compliance, because if it’s not written down, it’s assumed it didn’t happen.

Housekeeping and maintenance of equipment and facilities was also discussed frequently. When inspectors walk through a facility, it’s easy to see what type of housekeeping is being done. A regular maintenance schedule can prevent breakdowns or improper manufacturing and processing of feeds.

Biosecurity was another topic heavily emphasized throughout the meetings. Examples of this include documenting and visually inspecting incoming ingredient trailers to record what was on a previous load, trucking of finished feed, and even keeping brooms and equipment separate depending on where they are used.

Planning ahead

Another aspect of the FSMA that feed manufacturers will be required to complete is a food safety plan. Every feed manufacturer must conduct a hazard analysis to identify and evaluate — based on experience, illness data, scientific reports and other information — known or reasonably foreseeable hazards for each type of animal food manufactured, processed, packed or held at their facility to determine whether there are any hazards requiring a preventive control. The hazard analysis must be written regardless of its outcome.

Some examples of hazards in animal food are:

  • Biological hazards:

    • Salmonella spp.
    • Listeria monocytogenes
  • Chemical hazards:

    • Mycotoxins
    • Pesticides and process-related or industrial chemicals
    • Drug carryover
    • Nutrient deficiencies or toxicities
  • Physical hazards:

    • Stones
    • Glass
    • Metal

Moving forward

The compliance date for small businesses with less than 500 full-time employees is September 17, 2018, which gives feed manufacturers time to do their hazard analysis. The U.S. Food and Drug Administration (FDA) recently announced they will delay inspections for the hazard analysis and risk-based preventive controls portion of the FSMA until Sept. 2018. However, while the inspections may have been delayed, feed manufacturers will still be required to meet compliance deadlines.

The FDA has launched a food safety plan builder to help owners create a food safety plan for their businesses. You can find more information on the FDA website.

 

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Mind your melon: Why equestrians should always wear a helmet

Submitted by aeadmin on Sun, 09/17/2017 - 00:00

Like many equestrians, my love affair with horses began at an extremely young age. Growing up, I took every opportunity I could to ride and simply be around horses. I was the stereotypical horse-obsessed little girl. And, like many adult amateur riders, I never grew out of that so-called “phase.”

I rode mostly Western in those days, and back then I probably never gave my own safety a second thought. Undoubtedly, I realized that horses were quite large and capable of being dangerous, and I had experienced my fair share of falls and close calls to prove it. Most notably, I recall being rushed to the ER after a young horse I was riding bucked me off at speed in an open field, where I fell face-first onto the ground. I wound up with a severe concussion, hysterical parents and a CT scan of my brain. There were no lasting effects that I am aware of. I was one of the lucky ones.

I was young and fearless, to an extent, so I never really questioned the overall lack of helmet use. In fact, the only time I was ever required to wear a helmet in my youth was when I attended a local horse camp.

Older and, arguably, wiser

Fast-forward to present day, when I would call myself a true helmet advocate. Maybe it’s because I ride English now, because the barn I ride at requires helmet usage or because I’m older and have a heightened sense of my own fragility. Perhaps it simply boils down to being better-educated. Either way, I can honestly say I feel far more confident about my personal safety each time I mount up, knowing I have the proper protection for the most precious part of my body.

According to the Centers for Disease Control and Prevention (CDC), horseback riding is the leading cause of traumatic brain injuries (TBIs) among sports-related recreational activities (TBIs occur when an external force injures the brain). The CDC also reports that an estimated 1.7 million Americans sustain a TBI each year. A brain injury can happen to anyone at any given time; it does not discriminate. And one brain injury is all it takes to potentially cause permanent damage to your reflexes and attention, among other serious issues.

Experience won’t protect you

Only an estimated 20 percent of equestrians wear protective headgear every time they ride. Excuses run the gamut, from concerns about messing up riders’ hair to being very experienced and therefore having no need for a helmet. I don’t know about you, but I’m far more concerned with messing up my brain than my hair. Additionally, more experience in the saddle directly correlates to an increased likelihood of suffering from a riding-related injury. Top-level professional riders (Silva Martin and Courtney King-Dye are probably the most notable recent examples) have suffered TBIs from horse-related accidents. Ultimately, the level of rider has nothing to do with the risk when it comes to these types of injuries. Risk is directly tied to cumulative riding time rather than level of expertise.

The World Health Organization (WHO) estimates that there are currently 1 billion people living on Earth who have some type of brain injury. Millions live with lasting physical and/or emotional effects. Lifetime costs for an acute head injury are in the multi-million-dollar range, and the injured party is not the only one impacted. Families are faced with an uphill climb to aid in rehabilitation and often feel they’ve lost the person they once knew. The effects are truly devastating.

Horses: predictably unpredictable

It sounds like we should perhaps consider giving up this hobby, right? After all, it’s been proven time and again that horseback riding is one of the most dangerous sports out there. However, I certainly wouldn’t suggest giving up something that so many of us are so deeply passionate about. I think we are all well-aware of the inherent risks associated with equestrian sport. Despite this, I think we can all benefit from taking at least some general precautions:

  1. Wear an American Society for Testing and Materials/Safety Equipment Institute (ASTM/SEI) Certified helmet. These can be purchased for as little as USD$25.
  2. Make sure your helmet fits properly! This is very important, as an ill-fitting helmet will not properly protect your head in a fall. The brim should sit about an inch above your eyebrows and be level across. You should feel even pressure around your head. The chin strap should be tight but comfortable.
  3. Do not wear helmets made for other sports. Riding helmets are made specifically to withstand a fall from a considerable height or a blow from a hoof.
  4. Always replace your helmet after a fall, even if you don’t see any visible damage. It will not be as effective at protecting you in future if it has sustained a fall.
  5. Replace your helmet at least every five years (sooner if you ride often). Much like your favorite pair of riding breeches, your helmet will get worn out with prolonged use.

Can TBIs happen even when you are wearing a helmet? Certainly. Grand Prix dressage rider Silva Martin is living proof. She suffered a brain bleed in March of 2014 after the horse she was riding tripped, causing her to hit her head on his neck before falling to the ground. Nonetheless, she credits her helmet with saving her life that day, and she has now become an outspoken advocate of helmet use.

Consider this: The average riding horse weighs 1,100 pounds and can travel at speeds of up to 40 miles per hour. Horses are flight animals, which means they can — and almost certainly will — spook at trivial things. Even the calmest, most “bomb-proof” of horses have their moments of insecurity. It comes naturally. And when you consider that a rider is perched at a substantial distance from the ground when in the saddle, it is unsurprising that head injuries are so common.

But I believe we can do something about that. Let’s all “mind our melons,” wear our helmets every time we ride and do our part to make TBIs in equestrian sport a far smaller statistic.

 

I would like to learn more about equine-related topics.

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Are you among the only 20 percent of equestrians who wear a helmet each time they ride?

The survivor and her horse

Submitted by aeadmin on Fri, 07/28/2017 - 09:14

This is the story of a brave woman, a misunderstood horse and how each brought courage and happiness to the other.

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Brave woman

Lisa Murray, executive assistant to Dr. Mark Lyons, global vice president and head of Greater China at Alltech, comes from a long line of horsemen. She grew up in Cincinnati because that’s where her parents could find work. But the family's hearts were in their Eastern Kentucky hometown of Berea, where her uncle John Murray had a farm.

“When I was 13, they thought I was old enough to handle myself and not be in the way, so I was allowed to go stay with him,” said Lisa. “And he was the man in my life that I looked up to — my dad’s oldest brother out of a family of 12.”

Lisa’s formative years were devoted to riding in field trials and competing in the show horse industry.

She could not have known in those days that she was on a path to a friendship that would endure through the brightest and the darkest moments of her life.

The stars began aligning in 2001 when friends in Michigan had bred a foal, hoping for a winner in breed show performance classes, only to be informed by their trainer that the horse just didn’t have what it takes. Upon hearing this, Dr. Harv and Brenda Carlon thought of Lisa and her daughter.

“Brenda approached me and said, ‘Hey, would you like him for Jeren? Maybe he could be a good 4-H project,’” Lisa recalled.

Weeks later, the double-registered Tennessee Walking and Spotted Saddle Horse Repeat the Beat, aka “Pete,” was on his way south to Lisa, who then lived in the Franklin/Murfreesboro area of Tennessee.

It was a difficult transition for Pete. Lisa had trail riding in mind. He had trouble fitting in.

“He was kind of goofy,” she said. “He had only been in a show barn. He had never had any real-world experience out on a trail. So, his nickname was ‘Unpredictable Pete.’”

A misunderstood horse

It turned out, however, that instead of being a goofy hothead, Pete simply had been misunderstood, and there seemed to be no way to tell the humans in his life.

The breakthrough came as he was turning 4, Lisa recalled. Friends visiting from Germany had taken Pete on a trail ride while she stayed behind to tend to chores. When they returned, they excitedly reported, “Wow! Pete can jump!”

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Pete was the first Tennessee Walking Horse ever invited to give a demonstration at the Rolex Kentucky Three-Day Event, pictured here with rider, Victoria Gomez.

Lisa was sure they must be talking about her gray Arabian, a former jumper. She thought to herself, “Pete doesn’t know how to jump. He’s a Tennessee Walking Horse. Gaited horses don’t typically jump.”

“I walked outside with them, and they had my whole field set up with jumps,” she said. “They said, ‘He jumps so nice!’”

Until the visitors from Germany pointed it out, no one would have even tried to jump him, she said.

By her own admission, Lisa knew nothing about jumpers. But after consulting other women who knew the ropes, she started taking Pete out to events all around the middle Tennessee region.

“Initially, people would just stand and stare because when you see Pete next to a regular horse, first of all, he’s kind of small — he’s only 15 hands — but he’s this lit-up color that they’re not used to seeing,” she explained.

Pete’s coat resembles that of a blue heeler dog: a roan body with a tail and mane of black and silver and some spots on his belly. He’s officially registered as a Black Roan Sabino.

“But when you see him jump, that is the happiest horse on the planet,” Lisa said. “He’s very ‘ears forward,’ and everybody comments that he has this ‘tail flip’ as he lands from a jump. It’s obvious that he’s so happy.”

Still, she wondered: “Why is this horse doing this? Why does he like it? How is he doing it?”

Then she recognized that Pete’s body confirmation is such that he is actually built to jump. So, she started calling around to barns, asking for help, and nobody wanted to talk to her because Pete is a Tennessee Walking Horse, a breed that has been under a cloud of controversy over the practice by some in the industry of soring and the use of chains and pads to produce a distinctive show-ring gait.

Pete had not been subjected to the practices, but as a registered Tennessee Walking Horse, he had been tarred with the same brush. And perhaps, as Lisa would later discover, deep down in his DNA was a sensitivity for those who have been abused.

Lisa did eventually find a willing trainer. And, in 2004, the Carlons, thrilled to learn of his new career as a jumper, gifted Pete to her.

She built a team to compete with Pete. It became a collaboration among a group of young riders, and eventually Pete won competition after competition.

But not at first.

Lost in the translation

Anyone who shares space with an animal — a dog or cat, for example — knows that over time you find a way to communicate: a “lexicon.” Lisa and Pete developed theirs.

“He has great respect for me,” she explained. “There are things that he’ll do for me that he won’t do for anyone else. We’re in synch.”

This became crystal clear one day when Pete was taken to his first horse show and entered in the novice jumper class.

“And he wouldn’t jump anything. He stopped at every jump and just stood there,” Lisa recalled with horror.

The rider said, “I’m so sorry, I don’t understand. I’m talking to him, and every jump, he’s just: nope.”

Lisa, wracking her brain for an explanation, asked, “What are you saying to him when you’re approaching the jump?”

The rider said, “I’m just saying, ‘Easy, Pete, easy.’”

It turned out that when trail riding, as Lisa and Pete approach a creek crossing or any obstacle, she always says to him, “Easy, Pete.”

“He knows that every time he hears the word ‘easy,’ it means stop, assess the situation and then walk over it,” she said.

The trainer returned Pete to the ring.

“He went double-clear (no time or jumping penalties),” said Lisa. “He was brilliant.”

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Pete, and his rider Ashley Jones, under the training of Dauntless Performance Horses and Chelsea Kolman, in Ocala, Florida, Spring 2017. Photo credit: Darlene Wohlart.

Winner, icon and all around nice guy

Pete’s been a winner. But now, as he retires at 18, he’s also an icon.

In July, he became the official 2017 Breyer Horse model, a limited edition of his plastic likeness selling out at BreyerFest 2017, now in its 28th year at the Kentucky Horse Park.

Pete and some of his former riders were on hand for the event, which drew an estimated crowd of 20,000, many children among them. And Pete likes kids.

“He stood at that gate with his ears completely up, and when a child would come, he would lower himself to the level of the child,” said Lisa.

Lisa attributes Pete’s fitness and good looks at age 18 to his customized diet of Alltech-owned McCauley's. feed and the company’s vitamin and mineral supplement, Trinergy®.

“Pete needs a specific diet, and they answered all of my questions and came up with a fantastic plan for me,” she said.

You’ve got a friend

To fully understand the very special bond between Lisa and Pete, you have to dig a little deeper.

Lisa’s first marriage to a horse trainer in 1985 was at the tender age of 19. They had a daughter, Jeren. The marriage, like many that begin at such an early age, ended in divorce in 1994.

In the following years, Lisa devoted her energies to her daughter’s riding career, and, in 2003, Jeren, riding her own horse Ali Ali, won her first world championship. She went on to repeat the feat in 2004 and 2005.

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Jeren Guthrie McCluskey with three-time world champion Ali Ali. Photo Credit: Jack Greene

Many years passed before Lisa would again feel comfortable about the commitment of marriage. The day came in 2007 when she married the Nashville-based Dutch sport horse trainer Arnold Warmels.

In 2010, the decision was made to relocate Warmels’ training center, Fryslân Valley Sport Horses, to Lexington.

They had been attracted to the Horse Capital of the World at a time when the city was buzzing with energy. For the first time in its history, the FEI World Equestrian Games, eight world championships in equestrian sport, were being hosted by the United States. And the events were to be held at the Kentucky Horse Park.

It was through the Alltech FEI World Equestrian Games™ 2010 that Lisa became acquainted with the title sponsor, Alltech, and learned that the company was in search of an executive assistant to president and founder Dr. Pearse Lyons’ son, Mark.

She was hired. Her first day on the job was Jan. 3, 2011.

And within the year, Lisa’s life was suddenly and horrifically upended when abuse no one knew she had been enduring at home escalated into violence.

It’s a story that she wants told in the hope that it will inspire other battered women to persevere and help drive changes and improvements in domestic violence law and support programming.

What happened to Lisa on the night of Sept. 21, 2011, is summarized in the book “Violence Against Women in Kentucky: A History of U.S. and State Legislative Reform” by Carol E. Jordan, executive director of the University of Kentucky Office for Policy Studies on Violence Against Women.

When Lisa Murray first met him (Warmels), he was like no man she had ever known. He was European and spoke five languages. He was attentive and thoughtful — always doing little things to impress her. His family was accomplished, creative and professional, and when she was with them she felt like she was part of something important.

What she didn’t know about him seemed mysterious and attractive.

Three years after they met, they married, and subtle signs began to emerge — so subtle that she recognizes them only in hindsight: his strange behavior when they were with a group of people, his criticisms and rude statements, his tendency to put her down in front of others, his withdrawal of intimacy. Most disturbing was his lack of empathy. When she was thrown from a horse and hospitalized, he showed no concern. When his friend died in an automobile accident, he seemed not to care.

Over time, his verbal abuse grew. He screamed at Lisa, accused her of stealing his belongings and ruining his life. He broke glass objects and threw things at her.

One night, in September of 2011, his verbal and emotional assaults peaked, and Lisa had finally had enough. She turned around and, with all the confidence she could muster, told him never to say those things to her again.

She turned to walk away and never heard him coming. He grabbed her, threw her down, beat her with his fists, and repeatedly slammed her head against the wooden floor until she lost consciousness. When she awoke, still lying on the floor, she knew she had to flee. She mustered her strength and ran to a nearby gas station, where she collapsed. Police were called, and she was taken to the hospital, confused, frightened and injured.

These days, Lisa feels like she can breathe freely again. But even in the silence she revels in, the fear is there. As she says, “I’m always looking over my shoulder.”

Jordan had gotten to know Lisa and regards her as an extraordinary model for other women who have experienced domestic violence. She emphasizes that the Lisa Murray who was knocked unconscious on that awful September night and the Lisa Murray who is the consummate professional are the same person.

As a testament to the strength of Lisa’s character, she immediately filed for divorce and took her abuser to criminal court, an excruciating ordeal during which she was forced to move three times and totaled her car.

Warmels was convicted and subsequently spent a year in prison in Kentucky, followed by five months in a federal prison.

Since his release, Warmels no longer resides in Kentucky but remains in the U.S.

Lisa has reunited with her daughter, Jeren, who now has two children of her own. They love horses.

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Lisa and Pete with grandchildren Madison and Alexis.

After discovering a lack of resources for battered women in Kentucky, Lisa has gone public with her case, appearing on the radio and becoming a member of the Kentucky Survivors Council.

“It's a platform that I've stood strong about,” she said. “I prefer to see myself as a survivor and not a victim.”

She gives enormous credit to Greenhouse17, an intimate partner abuse victims advocacy organization, for helping her through those terrible times.

She is grateful to colleagues at Alltech, including the Lyons family and many of the company’s top executives, for their patience and unwavering support as she navigated troubled waters.

And always there for her has been Pete and his barn companion, Jiltsjke, a big Friesian mare.

“Those two horses are what saw me through that very traumatic, difficult time in my life,” she said. “Every day I could go out to the barn and it was just this smile. He’s silly and goofy. Anybody who’s around him will say, ‘Oh my gosh, you should see what he just did.’ He interacts with people.”

Jiltsjke has since been sold, but Lisa says that Pete “is the one horse that I’ve had in my life that was never for sale. I’ve been offered a lot for Pete, but I will never let him go.”

The brave woman and the misunderstood horse

Pete found happiness by prevailing over a stereotype to reveal his truth: “I’m not a walker, I’m a jumper!”

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Repeat the Beat, or Pete as Lisa calls him. Photo Credit: Heidi Rockhold

Lisa Murray has found her own truth in the discovery that as bad as things can get, “there is nothing I can’t do. Nothing I can’t achieve.”

“I have a lot of strong, independent women friends, and those horses bring so much to us,” she said. “There were several times when I could’ve shipped Pete off for awhile and said ‘Hey, take care of him, I’m going through something.’ But if I were to sell Pete, I’d be selling my soul. I’m not going to compromise that.”

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