Local is the “new organic”

Written by  Deena Shanker for Quartz

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Local food is following organic into the mainstream

As consumers pay more attention to what they eat, the desire for food produced nearby is starting to gain more traction. In a survey of more than 1,000 US consumers conducted by Cowen and Company, 39% of respondents ranked “where food comes from/’what’s in my food’” as either very or extremely important, beating the 29% who placed the same level of importance on healthfulness. And while both “local” and “organic” labels are (often mistakenly) considered indicators of health, 43% of participants said that they would be most likely to purchase groceries with a “locally sourced” label, compared to organic’s 19%.

These consumers seem to be putting their money where their mouth is: Sales of local food increased to $11.7 billion in 2014 from about $5 billion in 2008, according to the USDA. “Local food is rapidly growing from a niche market to an integrated system recognized for its economic boost to communities across the country,” Secretary of Agriculture Tom Vilsack told NPR’s The Salt. (Sourcing foods locally also increases food security, even if its environmental benefits are sometimes questionable.)

Supermarkets and restaurants, meanwhile, are trying to meet this demand. Grocery stores are stocking local foods in their produce sections and offering customers the opportunity to sign up for shares in Community Supported Agriculture, Supermarket News reported earlier this month. (CSAs are subscription services between farms and customers, where the full season is paid for upfront and a box of fresh produce is delivered or picked up each week.)

Online grocer FreshDirect has a “Local” section of its site that even lets consumers shop according to the state the food is from.

Chefs see the growing interest in local ingredients, too. In a recent “What’s Hot” survey on restaurant trends conducted by the National Restaurant Association (NRA), 82% of the nearly 1,300 chefs surveyed identified locally sourced meats and seafood as a hot trend on menus, while 79% said the same about locally grown produce. That made them the top two trends out of the 198 listed. “Organic produce,” meanwhile was number 25. (The bottom two: Chicken wings at 13% and gazpacho at 10%. So 2012.)

To get in line with that trend, restaurants put the word “local” or “locally” on 11.3% of US menus in 2014, according to data from Datassential. That’s still behind organic’s 18.7%, but it’s catching up. In each of the past four years, “local” has been added to menus at a faster pace than “organic.”

atlas_NJe1wc1t@2x (2)While grocers and restaurants are trying to meet the demand for local food, factors like geography, logistics and weather can make this a challenge, especially if the menus weren’t originally designed with local ingredients in mind. LYFE Kitchen, a chain that incorporates sustainability into everything from its building design to the way it cleans tables, only realistically aims for 20-30% of its springtime ingredients in its New York location to be locally sourced, Fortune reported.

Startups like Good Eggs and Nextdoorganics can get local groceries to individual customers in a handful of cities, but anyone that cooks or sells in large quantities faces bigger hurdles. The NRA recommends cultivating relationships with nearby growers, shrinking menu offerings, and managing customer expectations—all local, all the time is a nearly impossible goal for even the most dedicated eatery.

Original Post

Local food could be a “big deal”

FarmersMarketBy Dan Nosowitz

Eating a local diet—restricting your sources of food to those within, say, 100 miles—seems enviable but near impossible to many, thanks to lack of availability, lack of farmland, and sometimes short growing seasons. Now, a study from the University of California, Merced, indicates that it might not be as far-fetched as it sounds. “Although we find that local food potential has declined over time, our results also demonstrate an unexpectedly large current potential for meeting as much as 90 percent of the national food demand,” write the study’s authors. Ninety percent! What?

Researchers J. Elliott Campbell and Andrew Zumkehr looked at every acre of active farmland in the U.S., regardless of what it’s used for, and imagined that instead of growing soybeans or corn for animal feed or syrup, it was used to grow vegetables. (Currently, only about 2 percent of American farmland is used to grow fruits or vegetables.) And not just any vegetables: They used the USDA’s recommendations to imagine that all of those acres of land were designed to feed people within 100 miles a balanced diet, supplying enough from each food group. Converting the real yields (say, an acre of hay or corn) to imaginary yields (tomatoes, legumes, greens) is tricky, but using existing yield data from farms, along with a helpful model created by a team at Cornell University, gave them a pretty realistic figure.

Still, the study involves quite a few major leaps of faith because it seeks not to demonstrate what is possible for a given American right now but to lay out a basic overview of the ability of local food to feed all Americans. It’s not just projecting yields for vegetables grown on land that is today dominated by corn and soy. The biggest leap of faith is perhaps an unexpected one and is surprisingly underreported: Why do we even want to adjust our food supply to be local in the first place?

“Local food is kind of largely rejected by a lot of scientists from earth and environmental fields because the greenhouse gas emissions from the transportation of food from the farm to the retailer is actually really small compared to all the other emissions,” said Campbell, an associate professor at UC Merced. (Zumkehr is one of his students; the two fused their research to attempt to answer this question.) We take it for granted that eating locally must provide a huge boost to our environmental bona fides, but if the only consideration is emissions from the trucks, trains, and planes that bring us food from elsewhere, we’re mistaken. Looking at our diet as a whole, the total amount of emissions that come from transportation is somewhere around 10 percent—hardly the biggest factor. The bulk of emissions emerge from the farm itself, from the actual growing and production of the food.

So, Why Should You Care? Campbell thinks there’s a distinct connection between eating locally and tackling those farm-based emissions. The elephant in the room, he said, is the move from an animal-based diet to a plant-based one. Environmental and food scientists trying to reduce emissions are focused much more intently on that switch than on local food, but Campbell sees the two as related, largely because those who eat locally also tend to eat a much higher concentration of plants. “You walk into a farmers market and into a grocery store, and it’s like two different worlds, you know?” he said. “A grocery store has some vegetables hidden off to the side, and at a farmers market it’s all about the vegetables. That’s not a trivial issue.”

To tie all of those new acres of vegetables imagined in the study to local consumers, each acre was assigned to a nearby city, with no overlaps. This is tricky, especially in dense megalopolises like the Northeast Corridor and Southern California; land in, say, northeastern Pennsylvania lies within 100 miles of both New York City and Philadelphia. “We added this optimization model that decided which units of land to allocate to which particular cities to maximize the total number of people in the U.S. who could be fed locally,” said Campbell.

So that 90 percent number doesn’t mean that any given American can have 90 percent of his or her food needs met by local food, nor does it mean that 90 percent of all Americans will have all of their needs met by local food. Instead it’s a national average: In some parts of the country, people could have all of their needs met, but in, say, New York City, only about 30 percent of the people could have their food needs met by local food (assuming that we tear up all current crops and plant more smartly). Oddly enough, not all major cities have this problem. Chicago, for example, is a wonderland in terms of local food potential. “Chicago stands out. All the high-population cities seem to have lower potential, but Chicago has a lot of cropland around it,” said Campbell. Chicago’s advantage is partly because, unlike in the Northeast, Southern California, or even South Florida, it doesn’t have any major satellite cities nearby. But it’s also because there are a ton of farms within even 50 miles of Chicago, much more than in the Northeast, for instance.

Dense cities aren’t just difficult to feed because they’re dense; the Northeast also suffered a huge collapse in nearby farmland as farming moved to the Midwest in the 20th century. But that farmland, or a lot of it, anyway, could still be resuscitated and used to feed the cities. Campbell sees that as a possibility with a huge amount of potential. “If you put the farms close to the cities, it opens up new opportunities to basically recycle water and nutrients between the cities and farms instead of relying on things that might require fossil fuels,” he said. A robust urban composting program, for example, could supply nearby farms easily, reducing the reliance on fertilizers that maybe aren’t so good for the environment. (Cheap synthetic nitrogen fertilizers put a massive strain on the environment in about a dozen ways; using less of them can only help.)

“This is kind of the first attempt to quantify what the potential is, so we decided with the first number to just see what the upper limit is, the greatest possibility,” Campbell said. This isn’t a change that we could just put into effect with a few clever laws or behavioral changes; it would require an overhaul of the entire economic system and would probably cause the collapse of the world economy as we know it.

But that isn’t the point. The point is to have a baseline, an upper theoretical potential, of whether feeding the country locally is even possible. It certainly seems that it is. The next step, both for Campbell and Zumkehr and for the others that will inevitably riff on their work, is to refine this data. Right now it doesn’t include any climate data, for example: An acre of land in Michigan does not have the same growing season as an acre of land in California’s Central Valley. (Currently, the model takes an average of the annual production of each acre, but it doesn’t include any tips for how to conserve the harvest so that it feeds people above the Mason-Dixon Line during the winter.) Another issue: Our food preferences now are significantly global, and there are lots of important and popular foods that can’t be grown in the U.S. at all (think coffee or chocolate).

It’s important to understand the limits of this study, but it would be equally foolish to disregard it. This is research that thoughtfully begins the conversation about legitimately feeding the country locally. It’s a conversation that’s going to get louder and more important in the years to come.

Original Post

Author Dan Nosowitz is a freelance writer based in Brooklyn. He has written for Popular Science, The Awl, BuzzFeeᴅ, Modern Farmer, Gawker, Fast Company, and elsewhere.

Science needs to be more holistic – and less detached!

World’s challenges demand science changes — and fast, experts say

The world has little use — and precious little time — for detached experts.

Systems integration means taking a holistic look at all interactions between human and natural systems across the world. Credit: Michigan State University
Systems integration means taking a holistic look at all interactions between human and natural systems across the world.   Credit: Michigan State University

A group of scientists — each of them experts — makes a compelling case in this week’s Science Magazine that the growing global challenges has rendered sharply segregated expertise obsolete.

Disciplinary approaches to crises like air pollution, biodiversity loss, climate change, food insecurity, and energy and water shortages, are not only ineffective, but also making many of these crises worse because of counterproductive interactions and unintended consequences, said Jianguo “Jack” Liu, lead author of the paper “Systems Integration for Global Sustainability.” He also is Rachel Carson Chair in Sustainability and director of the Center for Systems Integration and Sustainability (CSIS) at Michigan State University (MSU).

“The real world is integrated,” Liu said. “Artificially breaking down the real world into separate pieces has caused many global problems. Solving these problems requires systems integration — holistic approaches to integrate various pieces of the real world at different organizational levels, across space and over time.”

Sustainability demands new methods

The paper’s authors, themselves with experience spanning agriculture, biodiversity, climate change, ecology, economics, energy, environment, food security, trade, water, and more, in essence paint a new paradigm of research that crosses boundaries among natural and social science disciplines, as well as other disciplines such as engineering and medical sciences.

Using examples that are both far-flung and tightly intertwined, these scientists show how systems integration can tackle the complex world, from unexpected impacts of biofuels to hidden roles of virtual resources such as virtual water.

The paper’s first illustration wraps Brazil, China, the Caribbean and Saharan Africa into an example of how the world demands to be approached not just for its singular qualities, but for its lack of boundaries over time, distance or the organizational levels humankind imposes.

The rapidly growing food export to China from Brazil destroys tropical forests and changes food markets in other parts of the world, including the Caribbean and Africa. Agricultural practices in the Sahara Desert in Africa stir up dust which enters the atmosphere and floats as far as the Caribbean. That African dust has been shown to contribute to coral reef decline and increased asthma rates in the Caribbean. It also affects China and Brazil that have made heavy investment in Caribbean tourism, infrastructure, and transportation. All these interactions, and the many more that exist in one example, defy borders both on maps and in academic disciplines.

Yet conventional research and decision-making often have taken place within separate disciplines or sectors. The paper notes that one of the systems integration frameworks — human-nature nexuses — “help anticipate otherwise unforeseen consequences, evaluate tradeoffs, produce co-benefits and allow the different and often competing interests to seek a common ground.” For example, the energy-food nexus considers both the effects of energy on food production, processing, transporting, and consumption, and the effects of food production, like corn, on the generation of energy, such as ethanol.

Other systems integration frameworks also bring multiple aspects of human-nature interactions together. Natural systems provide benefits like clean water and food to people, but human activities often inflict harm on natural systems. Considering a variety of benefits and costs simultaneously can help evaluate trade-offs and synergies among them. The environmental footprints framework helps quantify resources consumed and wastes generated by people.

Telecoupling — a way to make sense of a complex world

Many studies on sustainability have focused on one place, but the world is increasingly “telecoupled” — a term which embraces socioeconomic and environmental interactions over distances, sometimes several thousand miles away. For example, the large amount of coal from Australia sold to far-away markets like Japan, the European Union and Brazil affects not only those markets, but has global impacts far beyond. The money and environmental impacts such as CO2 emissions that flow with the coal, along with the mechanisms of transporting and burning the fossil fuel, spill over to countries between the partners.

Acknowledging that everything must be integrated is critical for scientific advances and effective policies, the authors say. So is the engagement between researchers and stakeholders. For example, Liu has partnered with environmental and social scientists to show how policies in China to curb human’s role in deforestation and panda habitat degradation were strengthened by enlisting nature reserve residents to receive subsidies to monitor the forests. The innovations were spurred by careful observation of the push-and-pull dynamics of managing a system to allow both people and the environment to thrive.

The paper says that effective policies and management for global sustainability needs the human and the natural systems to be more integrated across multiple spatial and temporal and awauthors think it is essential to quantify human-nature feedbacks and spillover systems. Science has largely ignored these, but they can have profound impacts on sustainability and human well-being.

It is time to integrate all disciplines for fundamental discoveries and synergetic solutions because of increasingly connected world challenges, Liu said.

“Furthermore, the world no longer has the luxury of the past, when there were fewer people on the planet and resources were more abundant,” Liu said. This will require funding agencies and universities to make more drastic changes to alter the reward mechanisms and transform the scientific community from isolated experts to integrated scholars.”


Story Source: The above story is based on materials provided by Michigan State University.

Michigan State University. “World’s challenges demand science changes — and fast, experts say.” ScienceDaily. ScienceDaily, 26 February 2015. <www.sciencedaily.com/releases/2015/02/150226144903.htm>.

A Cultural Benefit to Using Soil as a Growing Medium in Aquaponics

By Kailey Burke, Sustainable Food and Farming Student

Spinach and lettuce at Pettengill in Salisbury, MA
Spinach and lettuce at Pettengill in Salisbury, MA

Aquaculture + Hydroponics = Aquaponics

In this system, fish excrete ammonium (NH4+) waste which passes through media that contains bacteria, which convert

Pettengill Aquaponics System with Koi
Pettengill Aquaponics System with Koi

ammonium to nitrate (NO3-, which is the most accessible form of N that plants are able to take up), plants uptake nutrient filled water, and the rest of the water then returns back to the fish, purified.

Sounds simple enough, but there are many ways to build this system, ranging from an intricate technical system to a low cost setup. One of these variables includes the growing media which provide plants with support, moisture retention, and access to nutrients. It is this variable that could play an important role in connecting traditional farmers to a progressive growing system.

Peas growing in 5 inch pots on a growing table
Peas growing in 5 inch pots on a growing table

The growing media is responsible for housing bacteria and purification, could either be soil or a soil-less material. Though soil is the standard growing medium in most other production streams soil-less substrates can also supply plants with the essential elements through materials such as clay pellets, fiber mats, or bare root systems. Though there have been countless trials showing benefits of soil-less materials in an aquaponics system, and there are certainly systems in which soil-less substrates are the appropriate material to use, there is something accessible and fundamental about using soil… maybe it’s that plants have been evolving for 425 million years to be growing in soil? And, we are only beginning to understand and value the billions of relationships that are interconnected between soil biota, nutrients, and plant ecology.

While it is true that not all fish are able to withstand the water quality fluctuations that soil systems can carry with them, there are a large variety of fish that are able to thrive in these systems – such as tilapia, koi, and catfish. The images below, from Pettengill Farm in Salisbury, MA and Growing Power in Milwaukee, MI show a low-tech, low-cost aquaponics system that uses soil and common greenhouse pots and flats.

Will Allen at Growing Power in Milwaukee, WI with 7000 Lake Perch
Will Allen at Growing Power in Milwaukee, WI with 7000 Lake Perch

In this system tilapia are contained in a tank made of wood and pond lining that sits 4 feet into the ground. This water is then pumped from the fish tank to two 30 foot long growing tables that are pitched at a mere 2 inches. The tables are wood lined with pond liners and have rocks on the tabletops to allow the soil filled pots or trays to sit a bit higher out of the water. The water flows down the table through the rocks, pots, and roots back into the fish tank.

So, why highlight soil as a viable aquaponics media? Well, using soil as a growing medium not only plays an important biological role, but it also plays a cultural role in integrating the idea of an aquaponics systems into appropriate modern day small farms. Using a soil based system, farmers are able to easily integrate and take advantage of the many functions that aquaponics can play, such as; providing thermal mass and temperature stabilization in a greenhouse, water conservation, reduced reliance on outside fertilization, and educational attraction. In conclusion, soil is a language that farmers and gardeners speak, and having this material as the basis for plant growth bridges a gap between the variations of production in an aquaponics system to that of traditional methods.

Nasturtium in the Growing Power greenhouse
Nasturtium in the Growing Power greenhouse
Nutrient solution leaving the aquaponics table returning to fish tank below
Nutrient solution leaving the aquaponics table returning to fish tank below

Spring is at full swing at the UMass Student Farm!

studentfarmSpring is in full swing at the UMass Student Farm!

We’ve had a busy few weeks seeding broccoli, eggplant, peppers and tomatoes. We’ve been selling transplants at the Amherst Winter Farmers Market and the UMass Farmers Market on Goodell lawn and in the Commonwealth Honors College Events Hall Friday afternoons along with some other great student vendors including the UMass Permaculture Initiative and Gardenshare.

Last week we got out in the field at the Agricultural Learning Center to take soil samples and assess our coverstudentstransplanting crop stand. The soil was sent to the West Experiment Station for testing. In South Deerfield , where we plan to do most of our summer production, we are plowing and preparing beds and transplanting onions. Seed potato spuds are cut into sections each containing one budding “eye” of growth and laid out to dry for a few days before planting.

The season has been slow to start because of melting snow and cold nights but now the soil is drying out and the days are getting warmer there’s so much to do!  Everyone got a chance to drive the tractor at South Deerfield as we prepare beds for direct seeding and transplanting.

Last Wednesday we attached the transplanter to the tractor and loaded up our 128 cell trays. Two people sit on the back of the attachment and drop onions into the holes as the transplanter opens them. Others follow behind tucking the plants in. The tractor also holds 100 gallons of water to use as we go, just enough to help the plants get well established.

studentsplanting'Though it’s a slow process we managed to finish four five hundred foot long rows! We estimated that we planted at least 10,000 onions. We can’t wait to give these to our CSA members, make them available to the UMass community through Dining Services and the Student Farmers Market and to the greater community through Big Y.

We’ve also been offered the opportunity to expand to Big Y in Greenfield in addition to their Amherst and Northampton stores.  We’re expanding our summer production this year with a bigger crew, more land, and hopefully we will be growing a lot more food than ever! The hoop house at the ALC will allow us to grow hardy crops like spinach later into the winter months.

Other highlights were our field trips to the Plant Diagnostics Lab and the Big Y Produce Warehouse and Headquarters in Springfield. This year we will be planting a pick your own plot for the first time! CSA members will be able to come to the farm and harvest their own herbs, pumpkins and other vegetables during the Fall.

Another exciting development is the implementation of certified organic chickens on our fields at the Ag Learning Center (ALC) on North Pleasant St.  A lot of planning has gone into our water management plan for the ALC. We’ve also been working on developing SOPs (standard operating procedures) to bring the student farm into line with Good Agricultural Practices and establish a comprehensive food safety plan.

There’s a lot to look forward to in the coming months, CSA shares are still available and we will be holding volunteer opportunities and potlucks!  To stay connected please join our Facebook Group!

If you want to support our project, please buy a CSA share!

Buy a CSA Membership and Share

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Bringing a 1953 Farmall Super A Back to Life

By Peter Hanlon – UMass Sustainable Food and Farming Student

I’m a third generation cranberry farmer, 21 years old and I live for growing cranberries. Ever since I was ten I’ve tried to help out on the bog.  Now I can say that I’ve grown my fair share of cranberries. I’m a hard-working man and it shows in what I’ve done over the years.  But my greatest accomplishment was the 53’ Farmall Super A that I brought back to life.

I got this tractor for Christmas in 2010. It was kind of a joke when I got it – a tractor, what kid at 17 wants a tractor for Christmas? It has a sickle bar mower that can easily mow the ditches of a cranberry bog. I went out and tested it, the tractor was running then.

When I finished sanding, cleaning and repainting the Farmall in the spring of 2011, it didn’t run. It didn’t even make a noise. Back then I only knew a few things about engines.  I replaced the wiring harness and the tractor finally turned over and ran. I thought that was the last of my worries, I was quite wrong.

peterhanlontractor

After that day it didn’t run again until the next spring. The engine seized and I had to fight with the transmission to free it again. So 2012 came and went with only a few good moments with the Super A.  Nothing seemed to work and understanding books and old literature wasn’t helping. Then came the winter between fall and spring semester of my freshman year at college, a turning point for the tractor and me.  I dismantled the transmission case and found that the gears were seized. I knew I had to start there.

In the spring the transmission got fluently moving again and the tractor ran again. What a relief it was. All the hard work had finally come down to me fixing the transmission. Or so I thought. When my father and I got it outside to check it over, the newly replaced oil gauge was running at zero, and the engine was hot. No, not hot, extremely hot. The geared driven oil pump wasn’t pumping oil through the engine. It seemed to have been an internal problem that I wasn’t aware of. When I finally dismantled the oil pan I found the cause of my problem to be the gear on the cam shaft that ran the oil pump, it was shattered. I needed a new cam shaft for a 53’ tractor! Where can you find that, EBay of course. With a new cam shaft and oil pump on its way I decided to get a little help with replacing it. A good friend who is a mechanic said he would help. So with three months gone and the parts finally arriving the fall of 2013 my mechanic and I replaced the cam shaft.

With the cam shaft now in place and the tractor actually running strong the time came in the spring of 2014 to finally mow the banks of the bogs. It was going well till I blew the head gasket. It was the third time I ran the tractor with the mower and it over heated in the hot July air. It took a month to get the part, but I did the engine work myself. I tore down the top half of the motor and replaced the blown gasket with a new one. From that day on my hard work paid off.

Ups and downs make life interesting. I hear people say that they want to give up and quit school, and I have thought that a time or two myself.  But I realize that if I gave up on that Super A Farmall, I wouldn’t have grown into the man I am today. Thinking back on the work I did reassures me that anything is possible if you work hard.

peterhanlontractor3

UMass at the Amherst Sustainability Festival

Thanks to all the students who contributed to the many educational booths that were part of the Amherst Sustainability Festival.  The Stockbridge School of Agriculture was well-represented!

sustfest

Among the UMass groups participating were:

UMass Permaculture

umassperm

The Stockbridge Food for All Garden

foodforallgang

The Amherst Schools Garden Project

Amherst School GArdens Poster 2015 (2)

Spiritual Ecology and Regenerative Systems Initiative

SERSI (2)ECO 597SE – Spiritual & Environmental Sustainability Class

ecospirit

The UMass Beekeeping Club

umassbees

It was great to see so many students active in their local community!

Special Opportunity for Sustaianble Food and Farming Majors

This opportunity is being offered only to Sustainable Food and Farming majors in the UMass Stockbridge School of Agriculture. 

farmschool

In a special arrangement with the Stockbridge School of Agriculture, The Farm School in Athol, Massachusetts, is offering students the opportunity to attend its year–long Learn to Farm training program while receiving college credit.

harvestNow in its 13th year, the Learn to Farm program is a licensed, full time, 5 day/week, live-in, tuition-based training program that packs a tremendous amount of experience into a year and turns out graduates who go on to farm successfully.

Forestry, animal husbandry, carpentry, mechanics, business planning, marketing and organic vegetable production are among the practical skills that are introduced and then practiced over all four seasons in the context of a commercial operation that includes a working forest, a 200 member vegetable CSA and a 50 member meat CSA.

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farmschoolUnder this special arrangement, The Farm School will provide scholarship assistance so that each accepted student will pay no more than what he or she currently pays for tuition + room + board at UMass while receiving 12 credits for each of the Fall 2015 and Spring 2016 semesters from UMass.  If you are interested, first check with John Gerber to make sure you can fulfill the minimum requirements for the Sustainable Food and Farming major with this plan.  You must continue to be enrolled in UMass to take advantage of this opportunity.

Credits may be earned as:

Fall Semester

  • STOCKSCH 498 E – Student Farming Enterprise (6 credits)
  • STOCKSCH 396 – Independent Study (6 credits)

Spring Semester

  • STOCKSCH 398 E – Student Farming Enterprise (6 credits)
  • STOCKSCH 496 – Independent Study (6 credits)

Amanda Brown will supervise the Student Farming Enterprise class and John Gerber will supervise the Independent Study.

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Please visit The Farm School for a detailed program description and stories from some of its over 100 graduates.  And feel free to contact Patrick Connors at The Farm School with questions about the program.

If interested, you must apply directly to The Farm School online.  You will remain enrolled as a full time UMass student during the fall and spring semesters but your classes will all be part of your Farm School experience.  Please note that you should list at least one UMass faculty member or instructor as a reference. Rolling admissions will be capped at 5 accepted students.

If you are interested, please apply soon!