Final report for FNC24-1416
Project Information
I (Michael Gutschenritter) am the project coordinator. My family and I own Three Brothers Farm, LLC, in Oconomowoc, Wisconsin. For the past 10 years of our business, I have been working with pastured laying hens. Each year, I have significantly refined our systems to enhance the health of the flock and the pasture, increase profitability, and ease the workload of the farm workers. I have grown our flock of laying hens from 25 to over 3000. I am an active member of the American Pastured Poultry Producers Association (APPPA), in which I'm constantly engaged with other members about streamlining our farm operations. I am also trained in technical and creative writing. This will serve me well in communicating the project's findings to the greater pastured poultry community. I have successfully executed a 2021 NCR-SARE grant (FNC21-1275), which has now impacted hundreds of farms in at least five countries as they have implemented the findings of that project. In addition to coordinating the project, I will trial the feeding system with laying hens and young pullets, taking note of all the relevant data outlined in the proposal and executing improvements as needed. I will also host pasture walks and communicate all of the findings to the pastured poultry community.
David Boatright owns and manages Fed From The Farm in Sedalia, Missouri. He and his family raise pastured chicken, turkeys, hogs, grass fed beef, and lamb. His main market is selling direct to consumers online. In the last 10 years he has raised over 100,000 pasture-raised birds in mobile coops. His ability to maintain organization and document relevant, useful data has delivered clarity to his operation's direction and has inspired others to strive for the same. David's role in this project is to trial the feeding system with broilers and turkeys, taking note of all the relevant data outlined in the proposal. He will also help supply the bins through his regional contacts and construction consultation during the build out phase and when troubleshooting becomes necessary.
Proposal Summary:
One of the greatest challenges in a pastured poultry enterprise is excessive labor. The most strenuous labor comes from feeding the flocks. The large majority of pastured poultry farmers use 5-gallon buckets to feed their flocks. Most farmers currently do the following daily chore in order to feed a flock:
- manually fill feed buckets (35 pounds each) from a grain bin,
- lift buckets onto a pick-up truck or trailer,
- transport them to the mobile coops,
- lift buckets off of the vehicle or trailer,
- carry the buckets to the feeder, and
- lift buckets to dump feed it into a feeder.
This has been the accepted way to feed poultry flocks. Typically, on a farm with 2800 hens, for example, the farmer will manually move 700-900 pounds of feed every day. Handling it multiple times means the farmer often lifts over 2000 pounds every single day just for this chore. This directly affects the emotional and physical strain on the farmer, leading to 1) high rates of burnout and 2) injuries such as carpel tunnel and ligament tears (both experienced by Michael, Project Coordinator)
In the proposed project, we will replace the current strenuous system with creative technological design.
Final Report Summary:
Pastured poultry production is widely recognized as a sustainable livestock system that improves animal welfare, pasture health, and food quality. However, one of the most significant barriers to long-term success for farmers operating these systems is labor intensity. Feeding is often the most physically demanding daily task because most farms rely on manual bucket feeding: filling 5-gallon buckets from a bin, lifting them onto a vehicle, transporting them to mobile coops, carrying them to feeders, and dumping feed by hand. On a farm with approximately 2,800 laying hens, this routine commonly requires moving 700–900 pounds of feed each day; because the feed is handled multiple times, farmers may lift more than 2,000 pounds daily just to complete feeding. Over time, this repetitive work contributes to farmer burnout, employee turnover, and physical injuries.
This project addressed that problem by designing, building, and testing a mobile, solar-powered automated grain feeding system for pastured poultry, adapted from conventional poultry-house feeding technology but modified to function on mobile coops. The project was intentionally structured as a two-farm effort, with each farm serving as a primary research and demonstration site. Three Brothers Farm (Oconomowoc, Wisconsin) trialed and refined the feeding system with laying hens and pullets, while Fed From The Farm (Sedalia, Missouri) trialed the same system with broilers and turkeys. Together, the two farms evaluated how this technology performs across the four major types of pastured poultry and documented the species-specific modifications required for each.
Research approach and educational approach
The research approach was farmer-led, applied, and iterative. Both farms built and operated mobile coop systems using: (1) a feed hopper mounted to the coop, (2) a conventional auger feedline with deep pans, (3) a DC motor powered by a battery-and-solar package, and (4) a bulk feed delivery method using an auger wagon to fill coop-mounted hoppers on a periodic schedule. Across the project period, the system underwent multiple redesigns and refinements based on real-world field performance. Key engineering challenges included structural reinforcement to handle the weight of full feed hoppers, reliable feed flow as bins emptied (bridging), and preventing moisture intrusion at interfaces between components not originally designed to work together in mobile outdoor environments.
Data collection focused on the practical outcomes most relevant to farmers: (1) time required to feed each flock, (2) physical strain from feeding tasks, and (3) burnout indicators related to feeding work. Baseline conditions from bucket-feeding systems were used for comparison. The educational approach centered on on-farm demonstrations, pasture walks, tours, and presentations that allowed farmers to observe the system operating with birds actively using the feeders, examine construction details up close, and learn what worked, what failed, and what modifications were necessary for different poultry types and coop styles.
Research conclusions
The project demonstrated that mobile automated feeding can substantially reduce both labor time and physical strain in pastured poultry systems. At Three Brothers Farm, average feeding time declined from approximately one hour per day to one hour per week, saving roughly six hours of manual labor per week. Physical strain associated with feeding declined sharply, from an average of 7.3/10 under bucket-feeding conditions to 1.2/10 with the automated system in place. The automated system also produced meaningful labor cost savings by reducing paid hours associated with feeding and by improving employee retention, since bucket feeding had been a primary driver of job dissatisfaction and turnover.
In addition to measurable labor savings, the project showed that equipment and concepts commonly used in conventional poultry production can be successfully adapted for pasture-based systems when farmers are willing to test, iterate, and refine designs. The system was not “plug and play” in the first season: bracing and pull geometry required significant improvement to prevent coop damage, moisture intrusion required practical field solutions, and feed bridging required attention and mitigation. However, after major design iterations, the system reached a point of stable operation and continued improvement became manageable rather than overwhelming.
Farmer adoption actions resulting from the education program
The system has been incorporated into regular feeding operations on the participating farms, replacing bucket-feeding as the primary method of feeding poultry in the tested coops. Educational outreach reached a large number of producers and agricultural professionals through pasture walks, tours, and conference presentations. Participants reported strong interest in adapting similar systems and were able to learn concrete, replicable design principles—particularly around hopper mounting, structural reinforcement, power systems, moisture protection, and species-specific adjustments—so they can evaluate and pursue adoption on their own farms. Three Brothers Farm is now helping aggregation partner farms to install these systems on their mobile housing to streamline their production systems.
Beneficiary outcome story:
For the project coordinator, the most immediate and meaningful outcome was health-related. Prior to implementing automated feeding, daily bucket feeding contributed to persistent nighttime nerve pain and disrupted sleep. Within days of operating the automated system, symptoms began to fade; within two weeks, the pain resolved and did not return. This outcome reinforced that labor-saving innovations can improve not only farm efficiency and profitability, but also farmer well-being and long-term sustainability of the operation.
In order to eliminate the excessive daily labor of manually feeding poultry, we incorporated elements of conventional poultry house technology, modified them to be mobile, and adapted each step of the process to minimize manual labor. The main piece of equipment used was a standard feedline with deep pans. Specifically, we used a Cumberland brand auger feed line. In a conventional poultry house, this system is connected to a stationary grain bin via a bin boot and unloader. Grain is then drawn through a 1.5-inch pipe using an auger. As the feed flows through the pipe, it falls into feed pans through fittings along the pipe until each pan is filled. The final pan is equipped with a sensor that deactivates the motor when it is full. In conventional systems this setup is powered by an AC motor. In this project, we kept the basic premise of the system the same but made the necessary modifications for it to function properly on a mobile coop.
Starting from the bin and moving to the motor, several modifications were required.
Grain bins were attached directly to the coops. Because conventional grain bins are round and difficult to secure to mobile structures, we hired a local fabricator to build flat-fronted grain hoppers. These were designed to mount securely to the coop frame. Additional bracing was required to maintain the structural integrity of the coop under the added weight of the grain.
The auger motor was powered using a 250Ah 12-volt battery installed on each coop. This required the use of a 2000-watt pure sine inverter and a 700-watt solar panel with a charge controller mounted on top of the coop. These components were sized appropriately to operate the system and maintain battery charge through regular use.
Beyond the system mounted to the coop itself, we also needed an efficient method to transport feed to the coops. For this, we used equipment already in operation on the participating farms and therefore not included in the project budget. Bulk feed was stored in existing stationary grain bins. Auger wagons were filled from those bins approximately every 8–10 days. The wagons were then driven to the pasture where the mobile coops were located, and the hydraulic auger was used to fill the grain hoppers mounted on each coop.
The systems were constructed in Spring 2024 and operated within the farms’ daily-move grazing systems. Throughout the grazing season we continued refining the design as challenges emerged. After the first grazing season, several design improvements were identified and implemented during the winter before being tested again during the Spring 2025 grazing season.
Weekly assessments were conducted to collect data on the following:
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Time required to feed each flock (and associated labor costs)
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Levels of physical strain caused by feeding tasks
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Levels of burnout related to feeding duties (measured using the Maslach Burnout Inventory)
Baseline measurements for these metrics were collected during the 2023 season using the conventional bucket-feeding system in order to provide a comparison.
The project coordinator then communicated data results and construction details to the pastured poultry industry through the communication channels described below.
Objectives of the project included:
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Designing and building a mobile solar-powered automated feeding system for pastured poultry that eliminates the strenuous aspects of daily feeding.
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Identifying necessary modifications for the four major types of pastured poultry (laying hens, pullets, broilers, and turkeys).
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Documenting data associated with labor in terms of time, physical strain, and burnout levels.
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Distributing findings and construction details to the pastured poultry industry through articles (Grit, Organic Broadcaster, and the Three Brothers Farm newsletter), APPPA forum discussions, and social media (Instagram: KeepTheFlockMoving).
Cooperators
- - Producer
Research
The design of this feeding system has changed many times over the course of the project, but the concept has remained consistent. I had rectangular feed bins custom built to be secured to the front of the sliding coop. The coop itself is from Featherman Equipment and is made of 2-3/8" steel tube. The bins were made to attach with four 5/8" bolts to the frame of the coop. this was done by attaching angle iron along the back of the bin's sides. This gives us something to drill through. Large flat free tires hold the bins up and keep the weight off of the coop's frame, actually making it easier to pull the coop. At the bottom of the bin, there is a height-adjustable steel sleeve that connects to a straight feedline boot. From there, a conventional feedline runs the length of the coop. At the end of that feedline, there is a DC motor. You could use an AC motor, but it would require an inverter, which is not as efficient. On the inside of the coop, I built a plywood box big enough to hold a 200 amp hour lithium battery, a solar charge controller, a switch, and some extra wiring. I built the box such that there is air flow, but the chickens can not access any of the materials.
On top of the coop on the motor end (back of the coop), I mounted a solar panel large enough to maintain the battery. The wiring runs down to the plywood box and into the charge controller, which then feeds the battery. From the battery, I ran wiring to a switch that controls the motor. I was sure to run the wiring along the frame of the coop so there was no loose wiring that chickens could jump up on and cause the system to fail. The switch was a good addition. Without it, I wouldn't be able to work on the system unless I unhooked the battery. I generally have to tweak things here and there and troubleshoot a couple times a month, so it's worthwhile adding the switch. Also, since the battery is in there, I use it for running the lights for the pullets and laying hens. It works well for that and eliminates additional batteries and wiring. One less thing to manage.
I destroyed my coops a few times while testing everything out. When the bins are full of feed, they weigh over 3000 pounds. Without bracing, the front of the coop will collapse. I kept adding bracing to push the bottom of the bin forward as I moved the coops. It continued to fail. The amount of force on the coops is pretty tremendous. i don't fully understand the physics of it all, but it felt pretty dangerous at some points. I ended up simplifying the bracing significantly. Now, there's just a pipe going from each bottom leg of the bin up to the second arch of the coop's frame. What made this work, though, is changing how I pull the coop. I use two logging chains to pull each coop. One chain goes to a corner of the coop, like it used to. The other chain goes from the bottom connecting point (where the bin bolts to the lower frame) to the tractor's drawbar and back to the other connecting point. This way, I'm pulling the bin forward rather that letting it collapse the coop. And the bracing on the inside is now pulling the bin's legs backwards while i drive forward. Therefore, the front of the coop stays straight and there's nothing pushing the bin backwards.
The biggest pains for us has been 1) water getting into the boot at the bottom of the bin and 2) feed bridging in the bin when the feed gets low. The components are not technically designed to go together so there are small gaps where rain can enter into the system and get the feed wet. The feed then clumps and sticks to the boot, keeping new feed from entering the feedline. In this instance, the auger will run until the battery dies or someone fixes the problem. We have placed guards to block out the rain, but still, in a windy storm, we end up with some moisture in there.
We feed once a week, but depending on the age of the birds or number of birds, the feed gets consumed at different rates. That makes it important to keep an eye on the feed levels. If they get very low, the remaining feed has a hard time falling into the boot. In one bin, we painted the inside with graphite paint. That helped quite a bit. I will do the rest of them when the coops are empty this winter. We generally keep a rubber mallet out with the coops so employees can bang on the bins when they hear the motor running but feed isn't coming out. Usually, it will get the feed to flow down enough to keep the birds fed.
Update: The collapsing coop situation has improved, but not been perfected. As I mentioned elsewhere, I have plans to reinforce the fronts of the coops with structural framing of old running gear and a couple tractors I will cannibalize. Now that we're pulling on the bins instead of the coop, the cross bar bends forward instead of backwards. While it's very frustrating (it tends to happen during busy weeks), it's actually easier to repair this way. Still, as I mentioned above, I intend to fix the problem for good this winter.
We have fixed the rain issue, too. At both locations, we have made minor modifications. At David's farm, he installed gaskets where the boot meets the bin. On my farm, I added rain guards made of old conveyor belt. David's is more effective and aesthetically refined. Still, I prefer mine because it fits in well with the ragged, patchwork feel I am so experienced at developing elsewhere on my farm. And it works pretty well. Importantly, David, with his ever-evolving engineering mind, has developed a sensor that turns the auger motor off if it runs for more than ten minutes. So, if feed gets wet or the bin empties, he won't drain his battery. That's pretty awesome. On my farm, when I go out to move the sheep in the morning, I swing by the chickens and listen for a motor running. That tells me whether it needs my attention or not. If I had the sensor, I'd have to check the coops to make sure feed is being distributed. And anything that can keep me away from the chickens is a good thing in my opinion, so I opted to proceed sans sensor.
What I've appreciated in 2025 is having a mental checklist of what could go wrong. Having fixed everything at least a few times, I know the likely culprits of issues and the repairs have mostly taken under 10 minutes to fix. For example, it seems that no matter how secure I make all the electrical connections, there's always a pretty good chance a chicken will figure out how to disconnect something and keep the motor from operating. As with anything farm-related, if something can go wrong, it likely will. Our job is just to make those things smaller and easier to fix the next time. At least that's what I tell myself.
So far, the results have been mostly positive. There's no denying that there have been serious frustrations and fierce problem-solving sessions. First of all, the most important result for me personally is that I'm able to sleep through the night. This may sound silly, but when I was hauling buckets of feed every day, my right arm would start tingling at night and it would work into a severe nerve pain shooting down my arm. This happened every single night for months on end, waking me up in the middle of the night in agonizing pain. I was only getting 4-5 hours of sleep some nights. With little kids and a full-time farm, I felt like I was going absolutely crazy trying to keep my head on straight with little sleep. Within days of getting the automated feeders running, the pain started to fade away. Within two weeks, it was completely gone and it hasn't come back.
Now that we've been running these systems for a while and the kinks have mostly been worked out, I've documented a plateau in time spent feeding poultry. In all cases, the average time spent went from one hour per day to one hour per week, for a savings of six hours of handwork per week. It should be noted here that the hour that goes into the feeding is pretty mild labor compared to the labor that went into feeding by bucket. Feeding by bucket involved scooping feed, loading it on a trailer, driving it out to the pasture, unloading it, carrying it, and then dumping it into a feeder. Now, the labor involved is filling a grain wagon (either from a delivery truck or from our stationary bin with an electric auger), driving it out to the coops, lining it up with the new bins, running the hydraulic auger, and making sure feed is coming out of the wagon. I bring a garden hoe with me to scrape the feed down when it starts to bridge and get stuck up high in the wagon. So that is not very hard work. But I had to learn quite a bit about augers, hydraulics, and other equipment. I bought all those things used and had to fix just about everything once already, without having any experience with them in my past. It's something to note if one is intimidated by new equipment. It's well worth figuring out how to use it. Financially, we are saving $90 - $120 a week in labor directly associated with feeding. We pay our employees $15-$20 per hour. I value my time at $35 per hour, leading to a savings of $210 per week. Let me be clear about something, though. The savings are far beyond a per hour rate. We haven't had to replace an employee since these systems were installed. Hiring an employee and getting them up to speed is very expensive. On average, we consider it a $2000 expense, just to hire, train, process paperwork, schedule, and nurture a new employee. It appears that the bucket feeding was the part of the job that kept the door revolving on our farm.
Prior to the plateau, there were many challenges that kept me out working late trying to troubleshoot various things, such as electrical connections, dead batteries, and auger mishaps. So, the over time spent on the feeding got up to an hour a day, sometimes more. But that was to be expected with a new system like this.
We have also been measuring levels of physical strain. As mentioned above, I personally experienced life-changing results. I had, at the start of this project, taken over the feeding duties for our employees because we were losing employees who no longer wanted to feed with buckets for $15 an hour. On a scale from 1-10, in the moment of feeding, our average strain was 7.3. However, I emphasize the story above because that was an effect that came at a different time of the day and we weren't sure at the time that it was related to the feeding chores. After getting the kinks worked out, our physical strain is 1.2. It would be zero if we didn't have to constantly draw feed down from the wagon. We are working on a solution for that.
The final measurement is burnout, measured with Maslach Burnout Inventory. We have been collecting the data on this, but haven't yet compiled it into a readable format. It ended up being a bit more involved than we anticipated, so I will include the results in the final report. But I can say anecdotally that everyone involved in day to day operations is a lot happier and willing to work. Judging from the employee retention, we can conclude that no one is burning out like they used to.
Update:
The trouble with my arm is completely gone and I've been able to sleep well. None of that pain has returned (unless I haul water in buckets for the sheep).
The time spent feeding remains at about an hour a week on average. It varies with turkeys and broilers depending on age, but the average is an hour a week for feeding systems. That includes filling the feed wagon from the stationary grain bin. Overall, we spend about 10 minutes at each coop to fill about 90% of their capacity (we try to fill when there's still 10% left in the bin). That's 40 minutes of active work (monitoring the coop bins, drawing down feed, moving to the next coop, etc) and 20 minutes letting the grain bin get filled. I use those 20 minutes to move all the coops to fresh pasture and then come back to a full wagon and go out to feed the flock.
I still believe that this system has built in a sustainability and resilience that almost no other system could ever do for a pastured poultry operation. The main factor for both farms is keeping employees around for more than a season. I personally realized how taxing it was to spend countless hours interviewing, hiring, training, and then repeating the cycle after just a few weeks. I began to seriously consider whether my personality or management style was the issue. But it clearly came down to the physicality of the work. Since automating our feeding system, we have been able to build a strong team of reliable employees. In fact, two former employees have asked to come back to the team. It has also provided me with enough time and mental space to hire a farm manager, which has further elevated our business and led to growth and personal reward, both emotionally and financially.
The physical strain prior to automation, like I mentioned in the previous report, was 7.3 (not taking into account the night pain) on a scale of 1-10. After working out most of the kinks, the strain plummeted to 1.2. Now, we have settled at a rating of 1. There's something to be said for repetition here. Doing the weekly feeding with the automation has become extremely easy. I don't think the actual work has changed since the previous report, but I do think that the weekly repetition has naturally built in habits, meaning we have begun to go through the steps without having to think too much. Working with old equipment and new systems generally means that the farmer needs to maneuver through the nuances of their own circumstances. For example, I use a 1967 tractor with abundant quirks, leaks, and attitude. Then I have a newer (1990) grain wagon with hydraulic auger that has its own ideas of how things should be done. These are paired with a very old bin and auger that stores feed and the new automation system on the coops. On David's farm, he has a similar situation, but everything is newer by a decade or two. In both instances, we've had to break out the farmer toolbox to make it all work together. The point here is not that one must only have cheap old iron and make it work. Instead, it's that each farm will have its own circumstance and using the equipment on a weekly basis leads to fine tuning both the physical operation and the farmer's motions. After a year of operating the system without too many hiccups, I found myself moving through the motions much more gracefully and having a much improved understanding of the nuances to keep the system running smoothly. That has decreased the physical strain significantly and has improved the burnout measurement, which I'll discuss next.
We used the Maslach Burnout Inventory to measure the emotional side of the project. While this has historically been underrecognized, I believe it is the most important element of running a farm. A farmer can feel trapped by their own systems and feel obligated to continue based purely on social pressure and the anxiety about how others will perceive their "failure" if they were to change the course of their farm or life. I have seen it personally. Because of my unique upbringing, I have avoided these feelings to a great extent. However, as I have grown the farm business and had more of a relevant role in our community, I have sensed these pressures mounting. It's uncomfortable and it takes a huge amount of mental energy to dig deep to live one's life or run one's farm exactly as one desires instead of how the industry or community expects one to. It was easier to do when the farm was less well known. Now, it feels like every detail of the farm (and my life) is being watched by the thousands of customers and thousands of farmers who pay attention to our operation. That is a real challenge with very real emotional weight. It takes courage to break free of expectation and blaze a new trail through the unknown wilderness of sustainable farming. These stressors get compounded significantly when the daily physical work being done is strenuous and unrewarding. It often feels like a mysterious elephant in the room when farmers are together talking about their farm and their work. The conversation often leads to how hard farm life is (oh but it's worth it because we're doing real impactful work!) and what else are you going to add to the farm next year (yeah, I think I can squeeze in some more enterprises). It starts to sound a little crazy. I always think "In what other industry would there be this unrealistic expectation to perform extreme physical labor year round and then dream about how to add more more work to schedule for next year? For this reason, we chose to use a strong measurement tool to track the emotional facet of the project.
I will upload the full spreadsheet of the collected data. This data is completely inline with the narrative I've shared so far. To put it briefly: The beginning was tough. It got better, but it took a lot of troubleshooting. Then we achieved the equivalent of Farm Nirvana.
The Maslach Burnout Inventory (MBI) measures three things on a scale from 1-7: Emotional Exhaustion (want low number), Depersonalization (want low number), and Personal Accomplishment (want high number). These three facets show a comprehensive look at burnout potential in a work environment. It was nice to come across this tool because it put into words and measurements the exact challenges and pleasures that most farmers experience on a daily basis. It's sometimes hard for one to put their feelings into words in the thick of a challenge, so we found the MBI to be useful for that.
We followed suggested definitions of each.
Emotional Exhaustion (EE): Feeling drained, fatigued, or overextended by work demands.
Depersonalization (DP): Developing a distant or cynical attitude toward one’s work or those involved.
Personal Accomplishment (PA): The sense of competence and achievement at work (the opposite of burnout).
For EE, our collective first third of the project measured at 3.67. By the last third our EE measured at 1.2, for a total drop of 2.47.
For DP, our collective first third of the project measured at 3.00. By the last third our DP measured at 1, for a total drop of 2.00.
For PA, our collective first third of the project measured at 4.93. By the last third our PA measured at 6.4, for a total increase of 1.47.
In my opinion, these numbers don't seem significantly dramatic. However, it's important to understand that EE and DP both ended up lingering around the lowest value for the final 1/3 of the project, which is impressive. And for PA to be within 0.6 of the highest value is also impressive. It's worth noting that the first several weeks of the project were spent building the infrastructure. This was quite challenging at times, as described in previous narratives. On top of the construction efforts, we were also running our farms, feeding by buckets, and raising young children. So there were some factors that led to spikes in overall stress, which we found to be challenging to separate from the project's research objectives. In my opinion, this actually resembles more of a realistic look at implementing the system anyway, so we didn't work to decipher exactly where the stressors started from.
Prior to the project's start, we collected data on the MBI factors in order to have a baseline to compare against. Unfortunately, half of the data was collected by the farmer who left the project prior to its start date, so I chose to abandon his data. The new collaborator did not have the data because he was not originally going to participate. My personal data, however, is useful.
My average (over the course of 2 months) EE prior to starting the project was 4.6.
My average DP prior to starting the project was 4.8.
My average PA prior to starting the project was 4.5.
This means the difference between my original data and the data for the final 1/3 of the project is even more dramatic. Again, there is room for error as I had some other things happening in my life (newborn in the house), but I again defend that as being more realistic anyway.
Educational & Outreach Activities
Participation summary:
We hosted two pasture walks this summer. One was with Practical Farmers of Iowa, which has a broad reach. There were 75 participants in that one. We also hosted another one that had about 35 participants. We plan to do one more poultry-specific field day in 2025.
The tours were roughly two hours. We gave general overview of the farm's enterprises and did a specific detailed presentation about the feeders. Basically, it included my discussing how they were built, showing details and allowing people to get up close and familiar with the finer aspects of the system. Chickens were actively using the feeders at the time. I then did a demo of moving the coops with the bins on them. Back at the workshop, I showed the tractor and wagon that we use to fill the bins. There was a lot of interest and I heard abundant feedback at later events about how inspiring it was.
I also traveled out to California for a pastured poultry conference. I was there as a participant, but was asked to present about our efficiencies. So, i got to speak to about 50 of the most serious pastured poultry producers in the country about our fencing (also a SARE project) and the feeders. while it wasn't planned, it sparked huge interest in that crowd and i have stayed in close touch with them since then.
Update:
I gave two more pasture walks on our farm. David gave a presentation at the American Pastured Poultry Producers Association annual conference. An estimated 150-200 farmers were at that presentation.
Our farms are well known within the pastured poultry community and we often field emails and calls about our innovations. We will continue to support the industry by responding to these inquiries. I have started an egg aggregation business and have offered to our producer farms to help build the feeding systems on their farms to help them grow to s sustainable size.
We also used social media (Facebook and Instagram) to document the progress of the project. We also published one article in Grit, the monthly APPPA journal, about the feed systems. This led to vigorous discussion in the APPPA online forum about details. I can imagine that this led to farms building their own.
I am finishing an overview manual about the project with detailed pictures that will be uploaded for the final report here.
David has taken this project to a new level and has begun sourcing materials and selling feeding systems that fit on skid style chicken coops. I appreciate this because it has given us an easier, more economical way to help people develop their feeding systems instead of having us work through all the nuances with each individual farm. Another company has also created a similar system since we started on the project. It's exciting to see the industry moving forward to create true sustainability on small farms.
Final Reporting:
In 2025, additional outreach activities expanded the educational impact of this project. We hosted one additional farm tour and one additional field day focused specifically on the automated feeding system and the lessons learned from implementing it in a daily-move pasture system. During these events, participants were able to observe the feeders in operation, examine the construction details of the bins, solar system, and feedlines, and discuss both the successes and challenges encountered during the project. These events continued to generate strong interest among pasture-based poultry farmers looking for ways to reduce labor and improve the long-term sustainability of their operations.
In addition to these public events, I also conducted an in-depth one-on-two teaching session with two of our egg aggregation partner farms. During this session, we reviewed the full system design, discussed the engineering modifications that were required to make the feeders work reliably in mobile coops, and explored how similar systems could be integrated into their own poultry operations. This hands-on teaching session allowed partner farms to evaluate how automated feeding could fit within their infrastructure and management style, helping to accelerate adoption of labor-saving technologies within our regional network of pasture-based poultry farms.
Learning Outcomes
This project is proving to be a transformative project for everyone involved. I learned a more deeply nuanced meaning of sustainability. For every industry that small farms are a part of, there is a more conventional, established industry. For example, truly pasture-raised poultry makes up a miniscule percentage of poultry in the nation. The rest of the poultry is within a well-established billion dollar industry. That means that the equipment has been refined to a point of extreme efficiency. Unfortunately, it comes at a cost to flock health, environmental health, farmer health, and customer health. As small scale farmers, we have the opportunity to learn from the positive elements of that industry and incorporate it into our more ethical, high-value farming operations. We can embrace the efficiencies to enhance our efforts toward a healthy, sustainable future. It has opened my eyes even more to the opportunities for growth through economizing labor through automation. Farming does not have to be extremely hard.
While these advancements are often costly for small farms that may not have the resources to adopt such efficiencies, we can change the way we think about these investments. For example, after seeing how much happier our staff members are, how my physical issues have disappeared, and how much money we're saving, I can more confidently assess the return on investment for these efficiencies. And because much of the benefit is not even financial, I know that much of the investment is for the well-being of our overall farm culture. Ultimately, yes, this can be assessed monetarily, but the true benefits run deep in the relationships between us as owners and our employees. They see that we value their efforts and we consider the investment into the infrastructure as an investment in our employees.
We have, over the first year of our project, overcome the barrier of extreme labor. While there's more work to be done to improve the system, I can confidently say that we are within reach of our ultimate goal of feeding poultry once per week without navigating challenges in between feedings. The remaining work that needs to be done is simplifying the bracing, fully eliminating moisture contact with the feed, painting the insides of the bins with graphite paint to eliminate feed bridging, and ensuring full charge on the lithium battery through cloudy and cold stretches. None of this work is overwhelming and it can all be easily done with time.
The advantages of implementing this type of project are extensive. In my opinion, it makes it possible to scale up a pastured poultry operation. I heard from a mentor that if we have problems in our enterprise now, when we scale up, our problems will only scale up, too. So, we can either accept the problem of excessive labor and keep hiring a new crew every season, or we can fix the problem and have staff members who are fully invested in the operation. I would not be able to grow the poultry business without this improvement. But now that we have automated feeders installed, I can see a strong future for the enterprise.
Of course, there are disadvantages, too. Like I mentioned earlier, it's not cheap to implement. All said and done, it costs about $7500 per coop. There is a decent return on that investment, primarily the retention of staff members (and the ability to take a vacation from time to time). Different coop styles will have different elements to navigate, too. Even after a full season of moving coops every day and improving the system, there's still work to be done to get it just right. So, it takes time to get things to where it's running flawlessly. But a season or two of commitment to the improvement will go a long way. We pretty much got it to be good enough for a while, which was fine, and then continued to modify things. So, the labor element can be overcome while continuing to improve. the point here is that it doesn't have to be perfect to eliminate the physical work. But it does have to be pretty good in order to avoid damaging existing infrastructure.
If someone asked for more information on this project, I would suggest that they take an honest look at their operation and determine whether their feeding system is just hard work that they've accepted or whether it's something that they enjoy doing. Few people will say it's something they enjoy. Once someone realizes that certain farm tasks have just been accepted as a standard, they can start to think about ways to improve. I would suggest that they never accept standards as permanent things. Standards are just stepping stones toward something better. Look to the conventional industries for improvements so you don't have to reinvent the wheel. you may realize that you only need to modify a small part of the wheel in order to make it work for your farm. I've spent countless hours talking to salespeople at farm suppliers. They are some of the most helpful people in the industry. They know everything that's available on the market, so a ten minute conversation about what you're doing and how you're trying to improve might lead to wildly impressive innovations, like an automated feeding system.
Project Outcomes
One farmer who participated in a farm tour described how seeing the automated feeding system in operation completely changed the way they thought about labor on their farm. Prior to the tour, they had assumed that manually carrying feed buckets to their poultry flocks was simply part of running a pasture-based system. After observing the solar-powered feedline system and discussing the modifications required to make conventional poultry equipment mobile, they realized that many of the most physically demanding tasks on their farm might be improved through thoughtful design rather than additional labor.
Following the visit, the farmer reported that they began evaluating other daily chores on their operation with a similar mindset. Instead of asking how to work harder or faster, they started asking whether the system itself could be redesigned to reduce unnecessary strain. The farmer commented that the most valuable takeaway from the project was the realization that many of the “standards” in pasture-based farming are simply habits that can be improved with creativity and a willingness to learn from other parts of agriculture.
Several other farmers attending field days and tours expressed similar reactions. Many noted that seeing the automated feeding system operating on a working pasture-based farm helped them understand that labor-saving technologies can be adapted successfully to mobile grazing systems. For many participants, the project demonstrated that reducing physical strain and improving farmer well-being can go hand in hand with maintaining the principles of pasture-based livestock production.
If someone asked for more information on this project, I would encourage them to take an honest look at their own operation and determine whether their feeding system is simply hard work that they have accepted as normal or whether it is something they genuinely enjoy doing. Very few people would say that carrying heavy buckets of feed every day is something they enjoy. In many cases, certain farm tasks become accepted as “the way things are done,” even when they are unnecessarily difficult or inefficient.
Once a farmer recognizes that some of these standards are simply habits that have developed over time, it becomes much easier to start thinking about ways to improve them. I would suggest that farmers never accept current standards as permanent. Standards are simply stepping stones toward something better.
One of the most valuable lessons from this project was the importance of looking outside of pasture-based systems for ideas. Conventional livestock industries have already solved many labor and efficiency challenges, and those solutions often only require modest modifications to work in pasture-based systems. In many cases, you do not need to reinvent the wheel—you may only need to adapt a small part of it to make it work for your farm.
Throughout this project, I spent many hours talking with salespeople and technical representatives at farm supply companies. These individuals are some of the most helpful and knowledgeable people in the agricultural industry. They understand what equipment exists on the market and how it is commonly used. A short conversation explaining what you are trying to accomplish on your farm can often lead to creative solutions or equipment combinations that you might not have discovered on your own.
For that reason, I would encourage farmers pursuing similar improvements to spend time asking questions, exploring existing technology, and thinking creatively about how conventional equipment might be adapted to pasture-based systems. Small changes in equipment design can lead to major improvements in labor efficiency and farmer well-being, as demonstrated through this project’s automated feeding system.
For future study, I believe there is significant opportunity to further explore how conventional livestock technologies can be adapted to pasture-based production systems. Many pasture-based farms struggle with labor-intensive daily tasks, and continued experimentation with modified equipment could help reduce physical strain, improve farm profitability, and make these systems more sustainable for farmers over the long term.














