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Disrupting the Routine: How We Use Grazing to Build Soil Health

written by

Prairie Foods

posted on

July 11, 2025

cows+field.jpeg


We’ve previously explored the six principles of soil health. In this post, I want to talk about grazing—and how we've learned, sometimes the hard way, that true soil health requires more than just rotating animals through a pasture.

We’ve built a system on our farm that’s intentionally disruptive—designed to support long-term soil vitality. Along the way, we’ve made our fair share of mistakes, many of which we still see other graziers repeating.

Rotation Isn’t Enough

Most of us understand that planting the same crop in the same field year after year depletes soil. What’s less obvious is that grazing the same way year after year can have the same effect.

Even if a grazier rotates his animals or starts in a different paddock each spring, the impact on the soil remains largely unchanged—unless he's also changing two key things: recovery period and stock density.

It’s easy to fall into a default pattern—say, a 30- or 40-day rotation—and stick with it all summer. But if that schedule leads to repeated overgrazing, it’s not much different than monocropping. And that’s the biggest mistake we made early on—and still the most common one we see others make.

Facing Reality as Graziers

Let’s be honest: many of us think we’re saving the world by farming with grass instead of crops. And in many ways, grazing is better. But if we’re not managing our grazing with intentional disruption, our soils may actually be less healthy than the neighboring crop farmer who’s rotating cover crops—even if he uses herbicides.

That said, rotation alone doesn’t tell the whole story. We know graziers who stick to a set pattern but manage long recovery periods (45+ days) and allow plenty of trampling. That’s a step in the right direction—but we’ve found we can go further.

What Made the Biggest Difference

The best thing we’ve done on our farm is simple: we lengthened our recovery periods.

With a 45- to 60-day recovery window, our cows graze more evenly, overgrazing is reduced, and more grass gets trampled back into the soil. Longer rests also allow grasses to mature, which improves plant health and raises Brix levels (a measure of sugar and nutrient density).

Over time, those more mature grasses—on healthier soils—become far better feed than 30-day grasses from depleted land. They may look "old," but nutritionally they’re in a different category altogether.

Remember: mature grass on healthy soil is not the same as mature grass on depleted soil.

Disrupting the System (On Purpose)

To break out of the rut of fixed rotations and depleted pastures, we designed a system of intentional disruption. Here’s how it works for us:

  • In spring, when grass is growing rapidly and heading out, we let it go. We don’t try to stay ahead of it. About half the farm is allowed to grow up and go to seed. We might make hay from some of it. We keep the other half in a vegetative state for active grazing. Sometimes we rotate those areas on a 20-day cycle—but only on half the farm.

  • During the summer slump, when we want to extend recovery to 60 days or more, we bring those older, brown areas back into the rotation. We graze them at night only, using very high stock density in small areas. Since cows don’t eat much overnight, they trample most of it, fertilizing and feeding the soil. Then we move them to good pasture during the day to maintain production.

This approach gives us natural variability in recovery—ranging from 20 to over 100 days—while creating meaningful soil disturbance and encouraging plant diversity.

Managing Stock Density and Flexibility

We don’t obsess over mobbing every day. Sometimes we run densities as high as a million pounds per acre. Other times, we move them every few hours—or, if we’re out of town, we give them several days of pasture.

What we’ve discovered is this: if you get recovery periods right, stock density becomes less critical.

That flexibility gives us the margin to focus on other parts of the business—like marketing and connecting with customers—without sacrificing pasture performance.

One More Key: Disrupt Grazing Height

Another mistake we’ve corrected is always grazing to the same height. While we usually just graze the tops, we occasionally graze harder or even overgraze on purpose. That disturbance allows different species to express themselves and contributes to pasture diversity.

Final Thoughts

This is the system that’s working for us—built from trial, error, and paying close attention to our land. Every farm is different. Every grazier has their own schedule and constraints. But one principle holds true: if we want living, thriving soil, we have to disrupt the status quo.

We encourage you to find what works on your land. And if you’ve discovered practices that build soil, regenerate pastures, or improve herd health—we’d love to hear from you.


More from the blog

Calves. The natural way we do it VS what most other farms do.

I went out to Leon's a few weeks ago. Leon is one of our two dairy farmers. His herd supplies the raw milk for all of our raw yogurt and raw kefir (his wife Annie makes it by hand, in small batches, right there on the farm) plus some of our fluid milk. Our other dairyman is Elmer, not far away, and he supplies nearly all the fluid milk along with the cream and butter. Elmer runs Jerseys, which give that high-butterfat milk you want if you're making cream. I do marketing for Prairie Foods. But I also homestead, and I've been deep in the real food world for years, so I show up at these farms already knowing a fair amount about what I'm looking at. Which is exactly why I ask so many questions. The things I know are things you deserve to know too. That's most of my job as I understand it. I showed up around milking time. We walked down into the pastures to bring the herd up, which I'd do nearly every day of my life if somebody would let me. I don't know how to tell you about Leon's place without sounding like I'm exaggerating. Lush green pasture rolling out in every direction. Dirt paths winding down through it. The whole thing looks like somebody painted it. If you closed your eyes right now and pictured a regenerative dairy farm, the way it's supposed to look, you'd be picturing something close to Leon's. And out in the middle of it, cows everywhere, and calves mixed in, and the calves are with their mothers because on this farm that's just where calves are. Then we started them toward the barn, and that's where it got complicated. The cows go in. The calves are not invited. But nobody's explained this to the calves, so they come right along with their mamas… like of course they're going in too, and Leon and his two sons have to head them off. Some get turned back at the door. Some slip in anyway and have to be walked back out. It's thirty minutes. That's all milking takes. The calves wait outside and the second the gate opens everybody's back together. While this was going on I asked Leon how much milk they even get from a cow who's been nursing a calf all day. Not much, he said. The calf takes nearly all of it. But every drop counts. Side note: I followed up on the phone with Leon after the visit to get even more info about this. I stood there a minute with that. A man and his two teenage boys, sorting calves out of a barn twice a day, for whatever the calf left behind. That's the whole story really. Everything below is just the details. The one thing that makes all the difference I want to say this plainly before anything else, because everything else comes back to it. On Leon's farm, the calves stay with their mothers. They nurse from her, live alongside her, go out to pasture with her. Apart from that half hour at milking every morning and every evening. On almost every other dairy farm, they don't. The calf is taken from its mother within the first day and fed by a person, out of a bucket or a bottle, twice a day. That's the difference. One sentence. It sounds small written down. It isn't. Why nearly everyone does it the other way I'm not writing this to make anyone a villain. There aren't any villains here. This is just how the dairy business works, and I understand why. The biggest reason is straightforward: milk. A calf on a cow drinks nearly all of what she makes. That's what Leon was telling me at the barn door. Whatever's left for the machine is the leftovers. Take the calf away and every bit of that milk goes in the tank instead. Not a little more. Almost all of it. On an operation with a loan payment and a milk check, that difference decides things. There are other honest reasons too. You can measure exactly how much colostrum each calf got instead of hoping. Disease doesn't move from cow to calf as easily. You catch a sick calf sooner because you're handling every one of them twice a day. Those are real arguments made by real farmers who care about their animals. But once that first decision is made, a lot of other things follow from it. Some of them are hard. The part that's hard to read A dairy cow has to have a calf in order to give milk. That isn't a policy, it's biology. But the farm doesn't need most of those calves. It only needs enough heifers to replace the cows aging out of the milking herd. Everything else, most of the bull calves and a fair share of the heifers, is what the industry itself calls “surplus”. Leon's been in dairy a long time and knows a lot of people in it. He'll tell you straight: plenty of farms put those calves down, or run them to the sale barn at a few days or weeks old and never think about them again. It isn't cruelty. It's that on that kind of operation, a calf who will never fill a milk tank isn't an animal to look after. It's a line item that isn't earning. I understand the math. I do. It's just not how Leon does it. The calves who get sold usually end up in veal. And here's a piece of it most people outside the industry never hear. Veal calves aren't fed milk. They're fed milk replacer. It's a powder you mix with warm water, made mostly of dried whey and whey protein concentrate with fat blended in. One formula patented for veal specifically calls for a fat portion that's 65 to 89 percent partially hydrogenated soybean oil, plus some coconut oil and lecithin. Partially hydrogenated soybean oil. Fed to a baby cow. If you've spent any time reading labels you already know exactly what to think about that. Yuck! And the iron is deliberately kept low. Not to save money. Low iron is how you get the pale color the veal market pays for. The calf gets nothing solid, so his rumen (the stomach a cow is supposed to have) never develops at all. The results are about what you'd guess. Research on calves fed low-iron replacer found them anemic, growing slower, and running into more infections, more fever, and more antibiotic treatment than calves who got enough iron. I'm not telling you this to be grim. I'm telling you because it sits somewhere in the supply chain behind a gallon of milk at the store, and almost nobody mentions it. What Leon does Right now, every calf on Leon's farm is raised by its own mother. That's it. That's the system. It's why the barn was such a scene the day I was there. But he's working toward something else on top of it, and this is the part I found clever. It’s a way to take the best care of the calves while also keeping milk costs down for you. Nurse cows. The idea is that one cow can raise about four calves. So when you've got a group of calves born close together (Leon expects a batch like that in the spring), you pick a cow for the job and put four of them on her. How do you pick her? Usually she's a cow who's got something going on. Healing from a thorn in her hoof. High somatic cell count. Some issue that means her milk shouldn't be going in the tank right now anyway, or that she'd be better off out of the milking string for a while. Instead of that cow being a problem, she's got a job. And four calves get raised by a cow instead of a bucket. Then it mostly runs itself. They nurse when they're hungry and quit when they're done. No hauling them into the barn twice a day. The whole outfit goes out on grass together. What he needs for it is dedicated space. A box stall ready before the calves come, and he's been thinking about putting up a greenhouse with deep bedding and gates so there's real room to work. And somewhere to graze, which is where his brother-in-law's farm comes in. Nurse cows and calves out there together all summer would be beautiful.  Leon calls the older calves the biggest babies in town. Having seen them, that's accurate. They're enormous and still nursing like they're a week old. Why on-demand matters more than I realized I asked whether it truly makes a difference, since a bottle-fed calf still gets its milk. He said go stand in a calf barn after feeding sometime. The calves finish in about ninety seconds and then they don't stop. They keep working a nipple that's already dry. They chew on the bars. They suck each other's ears and tails. Some of them just suck air. They're not hungry. They got the milk. That's what makes it strange to watch. Drinking and sucking are two separate needs, and a bucket only answers one. The drive has to go somewhere, so it goes into the gate. You don't see it in calves on a cow. Not because they're better behaved. Because they nurse eight or ten times a day, on their own schedule, until they're actually finished. Nothing is left undone. Leon takes eight months longer Conventional dairies aim to have a heifer freshen (have her first calf and start milking) at 22 months. That's the industry target and there's serious money attached to hitting it. Leon's go 30. Eight extra months of feeding an animal that isn't earning anything yet. On paper it's probably a bad decision and he knows it. He says let her grow up before you ask her to work, and the paper may look different later. What the research says, and what it doesn't I want to be honest about this part. Leon believes a calf raised on a cow becomes a better cow. Sounder, longer-lasting, less trouble. That's what he's watched over years of doing it, and it's what he hears from other farmers doing the same. The published research is mixed. Some studies find the advantage holds, some find it's gone by six months, and at least one followed those calves into their first lactation and found no difference. Two things worth saying about that. First, look at what those studies measured. Milk yield. Culling rates. Growth curves. That's the industry's own scorecard, built around the 22-month question. Nobody has run a study on whether a calf got to be a calf, because that isn't a number you can put in a column. Second, a question I can't answer. A lot of agricultural research gets funded by people with something riding on the outcome. I don't know who paid for these particular studies and I'm not going to sit here and tell you they were bought. But it's fair to notice that "the current system is fine, actually" is a convenient finding for an industry with an enormous amount of money invested in the current system. Take that for what it's worth. I'd rather raise it than pretend it never crossed my mind. So no, we can't tell you science has proven Leon right about the grown cow. It hasn't. What isn't in dispute is the calf, right now. A calf on a cow eats when it's hungry, nurses until it's satisfied, stays with its mother, and doesn't spend the afternoon chewing a gate. That part isn't a theory. It's just what you see standing there. Why we're telling you this Most of you came to us because you were tired of guessing where your food came from. The dairy industry has some genuinely dirty corners. We're not going to pretend otherwise, and we're not going to act like Prairie Foods invented decency. What we can tell you is that we know our farmers, we've stood in their barns, and the way Leon raises calves is one of the reasons we love working with him. He does it the slow way, on his own dime, for reasons that may or may not show up on a spreadsheet. And twice a day he and his boys spend the first ten minutes of milking walking calves back out of a barn, because that's what it costs to do it this way. That's the farm your yogurt and kefir comes from.

🥳 Yay, our chicken is officially corn & soy free! No GMOs and better fats.

Been sitting on this one for a while. Truth is, we switched our birds over to corn and soy free feed when our first meat chickens went on pasture this past spring. But we still had older GMO-free chicken in the freezers... and it didn't feel right to announce something we couldn't actually hand you yet. So we waited. Sold through the old inventory. Kept quiet about it. That part's done, and we're excited to announce that: Every chicken we've got now is corn and soy free. What they're eating An organically grown blend of peas, wheat, canola oil, fishmeal, aragonite, grit, molasses, vitamins, minerals, and probiotics. NO corn. NO soy. And now you might be wondering, why? Why is this important? Well it all started when our amazing customers started requesting it. And, after doing our own research, we felt it was definitely a worthwhile endeavor. Let's dive into some reasons why: First, the GMO thing Here's where things actually stand in this country. USDA numbers for 2025: 94% of corn acres planted are biotech varieties. 96% of soybean acres are planted with herbicide resistant seed. That's not most of it... that's basically all of it. And on the chicken side, certified organic is less than 1% of US chicken production. Under one percent. Everything else is eating conventional grain, which means it's eating GMO corn and GMO soy. So when you buy chicken at the store (or get it served to you at a restaurant), you're not really making a choice about GMOs. That choice got made for you at the feed mill. Why does it matter? I'll be straight with you. Nobody has run a fifty year study feeding this stuff to families and watching what happens. That study doesn't exist. What we have is about thirty years of everybody eating it and finding out together. And it's not as easy as you fall and break your leg. That's a clear cause and effect. Any negative effects of eating GMOs are more nuanced. I'm talking underlying, chronic issues developing over many many years. And here's the part that bothers me most. These crops weren't engineered to be more nutritious. Most of them were engineered to survive being sprayed. That's the actual purpose (oh, and making cheaper food). Which means the GMO question and the chemical question were never really two separate questions. Even organic corn isn't a clean answer, by the way. Corn cross-pollinates. Pollen blows. Organic fields sit right next to GMO fields across the whole Midwest, and drift is just part of the deal out there. We're not in that conversation at all anymore. You can't cross-pollinate corn into a pea. The allergy piece, and why it's so hard on you Let me say the quiet part first. Soy allergy, the diagnosed kind, is not that common. Around 0.4% of kids. True corn allergy is rarer still, somewhere well under 1%.  But those numbers are almost beside the point, because nobody is counting the people I actually hear from. Corn or soy intolerance has no test. There's no blood panel, no scratch test, no code a doctor can write down. Which means it doesn't show up in anyone's statistics. About 17% of people say some food is causing them problems, and the medical system confirms maybe 1% of that with a formal challenge. You can read that gap however you want. What I know is that a whole lot of people are out there sorting this out alone, by elimination, with no label to help them and no number to point to when somebody tells them it's in their head. And the system is not built to help them: Corn isn't a labeled allergen. Not one of the big nine. So there is no legal requirement anywhere to tell you corn is in something. You're reading ingredient lists hunting for maltodextrin, citric acid, dextrose, "natural flavors," modified food starch, and about forty other things that are corn wearing a different hat. Nobody is helping you. And refined soybean oil is exempt from soy labeling. The FDA doesn't require it declared as an allergen. So a product can contain soybean oil and say nothing about soy on the label at all. That's the part that makes people crazy. It isn't that the allergy is exotic. It's that the system genuinely is not built to help you find this stuff, and you're doing it anyway, in the grocery aisle, with kids in the cart. Then there's the layer underneath. We hear from customers who react to chicken from birds that were fed corn and soy. Not to corn on the cob. To the chicken. They're sensitive enough that whatever comes through the animal is enough to set them off. I don't have a lab study for that and I'm not going to pretend I do. But we've heard it from enough people to take it seriously. If that's you, or that's your kid, you already know how few things you can just say yes to. You can say yes to this. Glyphosate, and why we care Here's the connection most folks miss. Roundup Ready crops were engineered specifically to survive glyphosate. So the more of those crops got planted, the more glyphosate got sprayed. US glyphosate use went up roughly sixteen fold between 1992 and 2009. That climb tracks the GMO rollout almost exactly. That's why we treat "no GMOs" and "no glyphosate" as one thing instead of two. So what's actually wrong with it? In 2015 the World Health Organization's cancer agency (IARC) classified glyphosate as probably carcinogenic to humans. They based that on sufficient evidence of cancer in animals, limited evidence in humans pointing mostly at non-Hodgkin lymphoma, and strong evidence that it damages DNA and drives oxidative stress. Now, plenty of regulators disagree. The EPA and others have looked at the same research and come to different conclusions. This is a real fight among serious people and I'm not going to stand here and tell you it's settled. But think about what's being argued over. The question on the table is whether the most sprayed chemical in the world probably causes cancer. That's the debate. Not whether it's good for you. Whether it probably causes cancer. I don't need that argument resolved to make a decision for my family. Our feed is organically grown, so glyphosate isn't coming in the front door. And cutting corn and soy removes the two crops it gets used on most heavily. It also gets sprayed on some conventional grains as a pre-harvest dry-down, wheat and oats and peas and canola included, which is exactly why the organic and local sourcing matters as much as the corn and soy part does. The omega 6 to 3 ratio A bird's fat ends up looking like whatever the bird ate. That's not a theory, it's just how these animals work. Feed corn and soy, and you get an animal loaded with way more omega 6s than omega 3s. Omega 6 and omega 3 are both fats you need. What matters is the balance, because they compete for the same enzymes and the same spots in your cells. Whichever one you eat more of wins. The typical American diet runs about 16 to 1. Before industrial food, people ate closer to 1 to 1. That gap does real damage over time. Dr. Artemis Simopoulos has spent decades linking a high ratio to cardiovascular disease, cancer, osteoporosis, and inflammatory and autoimmune conditions. In her research, rheumatoid arthritis patients saw inflammation drop at 2 or 3 to 1. Asthma patients did better at 5 to 1 and worse at 10 to 1. And it's slow. Omega 6 parks in your tissue and stays there for years, which means what you feed your kids now is arithmetic that shows up decades from now. So what does pulling corn and soy actually do? A farm in Minnesota got grant funding and tested it properly. Two sets of pastured chickens side by side, same grass, same hoop houses moved to fresh ground every day. The only difference was the feed. The corn and soy birds came back at 11 to 1. The corn and soy free birds came back at 1.3 to 1. Same sunshine, same pasture. All of that difference came out of the bucket. Now the part nobody mentions. Taking corn and soy out is only half the job. Plenty of feed sold as corn and soy free just swaps in other high omega 6 ingredients and lands right back where it started. The ration has to be built on purpose. Ours runs on peas and wheat, low fat to begin with, with fishmeal for the omega 3 side. Bring the six down, bring the three up. We haven't tested our own birds yet. My guess is we land somewhere between 1 to 1 and 4 to 1, but that's a guess and I'll call it one. When we test, you'll get the number either way. You've probably already thrown out the seed oils in your kitchen. This is that same fight, one step further back. Because those oils don't only show up in a bottle on the shelf. They show up in the animals. Why there's no flax in the feed Flax is the obvious shortcut for omega-3s. Plenty of good farms use it. We decided against it, for two reasons. The first is conversion. Flax gives you ALA. Your body has to convert ALA into EPA and DHA before it can really do anything with it, and that conversion is poor in people and in birds both. Fishmeal skips the middleman. It brings EPA and DHA already made, in the form your body is actually looking for. A chicken fed flax reads well on a label. A chicken fed fishmeal delivers the thing the label is pointing at. The second is hormones. Flax is the richest source of lignans of any food on earth, by a wide margin, and lignans are phytoestrogens. Plant compounds that act on estrogen receptors in your body. Mainstream nutrition mostly treats that as a benefit. The Weston A. Price Foundation and others have long argued the opposite, that loading a developing body with plant compounds that mimic hormones is not something to do casually, especially for kids and especially for anyone already dealing with hormone trouble. We're not going to settle that argument in a blog post. But we don't have to. Here's our rule for the feed: if something is hormonally active and we don't strictly need it, it doesn't go in. We already have a better omega-3 source. So flax has no job here. We're not trying to engineer a supplement. We're trying to feed a bird something close to what a bird ought to eat, and let your body do the rest. About the canola oil Somebody's going to ask, so let me get out in front of it. Yes, there's canola oil in the ration. It's organically grown, and it's a small piece of the overall feed. Birds need some fat. They need energy. The question is which fat. Canola runs roughly half the polyunsaturated fat of soybean oil and carries a much better omega 6 to 3 balance. At our scale, it's the best option on the table right now. If a better option shows up, we'll change with it. And we'll tell you when we do. What this actually means for your family You already read labels. You already ask the questions most people never think to ask. You've probably had that moment where you find something that looks clean, dig one layer deeper, and find out it wasn't. That's an exhausting way to feed a family, and most people around you have no idea you're doing it. This is us digging that layer for you, before you have to ask. No GMOs. No glyphosate. Nothing in the feed for a sensitive kid to react to. No added phytoestrogens. And a fat profile we're proud of. Same birds. Same pasture. Same families raising them. Just better feed. Y'all asked for this for a long time. Thanks for pushing.

Let's talk egg yolks and whites. What makes them change?

If you've ordered our pastured eggs more than once, you may have noticed something: they don't always look exactly the same. The yolk might be a deep orange one week and a softer yellow the next. The whites might be thick and firm one time and a little more watery another. That's not a quality control problem. It's actually the opposite! It's a sign that our eggs are the real thing. Let us explain. First, the yolk. The color of an egg yolk comes down to one thing: carotenoids. These are natural pigments found in plants, grasses, flowers, and insects that hens eat. When a hen consumes carotenoid-rich food, those pigments get deposited directly into the yolk as it forms. The more carotenoids she consumes, the deeper the color. Lutein and zeaxanthin produce yellow tones, while beta-cryptoxanthin and other carotenoids shift the yolk toward orange and red. So the yolk color is essentially a record of what your hen has been eating lately. Here's where things get interesting... and where most farms take a shortcut. The industry caught on. The "deep orange yolk = pasture raised" idea became so popular that conventional farmers figured out how to game it. The feed industry now sells ready-made yolk color packs (literal products designed to dial in whatever color a farmer wants their yolks to be). Commercial farmers use coloring agents in chicken feed to influence egg yolk color. These range from natural additives like marigold and paprika all the way to synthetic pigments not found anywhere in nature. The result is a yolk that looks like something it isn't, engineered to match a consumer expectation rather than reflect what the hen actually ate. You can buy whatever shade you want. Yellow, orange, deep orange, almost red. It's a product decision, not a farming one. At Prairie Foods, we don't do that. Our hens' feed contains zero colorants, not even natural ones. So when you see color variation in our eggs, it's telling you something real. What's actually changing the color? It's whatever is growing in the pasture that week. Here are some real examples of what our hens forage and how it affects yolk color: Plants that tend to produce yellower yolks: Grasses and clovers — rich in lutein and zeaxanthin, which produce golden yellow tones Dandelion greens — high in lutein Seeds — produce a warm yellow without much orange shift Plants that tend to produce more orange yolks: Wildflowers and certain weeds — carry beta-carotene and other deeper carotenoids Insects and grubs — bugs and larvae are good sources of protein, carotene, and healthy fats, and hens that forage naturally and eat insects lay eggs with deeper, more orange yolks Right now, in the middle of summer, our yolks are running more golden yellow than deep orange... and that's actually a good example of how specific this gets. It's not about how green or lush the pasture is. It's about what's growing in it and what the hens choose to eat.  Right now it looks like our flock is grazing heavily on clover and dandelion, either because that's what's most abundant in their pasture right now or simply because that's what they're opting for. Both are high in lutein and zeaxanthin, which produce golden yellow tones rather than deep orange. As the pasture changes and the hens' foraging choices shift, so will the yolks. So if your yolks look a little lighter than last time, it doesn't mean anything is wrong. It means the eggs are connected to a real place and a real season. That's something a factory egg can never be. Now, the whites. This is a different conversation. The white (or albumen) can vary in thickness for several reasons, and it's worth knowing all of them so you're never caught off guard. All the reasons egg whites can be watery: Age of the egg. The most common cause is simple aging. As eggs sit in your fridge, the thick gel-like portion of the egg white gradually breaks down into a thinner, more liquid consistency through a well-understood chemical process. This is why truly fresh farm eggs tend to have noticeably thicker whites than store-bought eggs that have been sitting in distribution for weeks. Age of the hen. As hens get older, the thick albumen they produce naturally becomes thinner, even when the eggs are fresh. This is a well-documented shift in egg quality that begins after hens pass peak production age, typically after about 50 to 60 weeks. The ovomucin content in the whites of older hens is measurably lower, which means the eggs start out less viscous and decline faster in storage.  Heat stress. Hens experiencing heat stress can lay eggs with thinner whites. Warmer temperatures encourage enzyme activity that degrades the protein structures in albumen, leading to thinning. Chickens also drink more water in hot weather, and excess hydration dilutes egg whites. Nutrition. If hens are not getting enough high quality protein, whites can become thinner. Proper layer feed should contain around 16 to 18 percent protein. And of course, if they eat more of what they forage for instead of the feed, that affects the protein content, too. Stress. Sudden changes can affect egg quality. Moving coops, predator scares, loud storms, heat waves, or even a new flock member. When hens are stressed, their bodies shift into survival mode and egg quality can dip. Disease. Bronchitis (and other illnesses) can affect the ability of the bird to produce thick albumen, and even after a complete recovery, a hen can still lay eggs with watery whites for the rest of her life. Storage temperature. Cold temperatures slow down CO2 loss and the enzymatic breakdown of proteins. Eggs that were briefly exposed to heat during transport and then returned to the fridge can still show accelerated thinning. What's happening right now with our pastured eggs: If you've noticed our whites running a little thinner lately, we can tell you exactly why: it's the heat. Our flock is young, so hen age isn't the variable here. But it's been hot, and hens experiencing heat stress lay eggs with thinner whites. Warmer temperatures encourage enzyme activity that degrades the protein structures in albumen, and hens drink more water in hot weather, which dilutes the whites further. This is temporary and expected. As temperatures drop in the fall, you should see the whites firm back up. The eggs are perfectly safe and just as nutritious... they just won't poach as beautifully right now. A watery white is not a safety issue. The egg white's antimicrobial properties come from proteins like lysozyme and ovotransferrin, which are present regardless of whether the white is thick or thin. The real safety concerns with eggs are unrelated to albumen consistency and are addressed by proper cooking and refrigeration. If your whites are on the thinner side, use those eggs in a scramble, a frittata, or a bake rather than a poached egg where the structure of the white matters more. They'll work perfectly. The bottom line. Color variation in the yolk and occasional variation in the whites are both signs of eggs that come from a real place: a pasture that changes with the seasons, hens that live outside in real weather, and a system that doesn't paper over any of that with feed additives and color correctors. At Prairie Foods, you're not getting a standardized product. You're getting the real thing. And we think that's worth understanding.