Please login or create an account to join the discussion.
A farmer carries bananas on his back at Pajaro Verde in Guatemala. Photo provided courtesy of Nathan Einbinder.

Moving forward, looking back: Indigenous agriculture in the Anthropocene

Growing crops in the mountainous rural areas of Guatemala presents unique challenges, and farmers there rely on a mix of Indigenous practice and new experimental treatments of bio-inputs, infused with micro-organisms. Nathan Einbinder writes about the farmers he met in Guatemala who are innovating collaboratively within their communities to instil resilience and sustainability on their farms.

Nathan Einbinder is a lecturer and researcher specializing in agroecology and food systems. Since 2009, he has worked with Indigenous farmers and organizations in the Maya-Achí territory of Guatemala, on issues related to community development, traditional knowledge and soil health, and more recently, homemade biological inputs. This research was conducted while the author was working at the University of Plymouth.

A flyer for the TABLE essay “Moving forward, looking back: Indigenous approaches in the Anthropocene” by Nathan Einbinder. The background is a photo of a farmer carrying a banana raceme on his back, photo provided by Nathan Einbinder.

After weeks of steady rain, the forest is lush with green growth and the air thick with humidity. It is late morning, the clouds and mist long burned away from the tropical sun, yet beneath the trees it remains cool. I follow my companions down a muddy path that fades quickly into vines and thick duff: oak leaves and moss, rotting wood; mushrooms. 

Leading us is Alfredo Cortez, Maya-Achi farmer and community leader, who slices his way through the vegetation with his machete. Arriving to a rocky outcrop, he lowers himself to the forest floor and gathers a handful of dark organic material. 

“This is what we’re looking for,” he says. “What we need to bring back with us.”

He holds it where I can see, pointing out the white streaks of mycelium, the level of moisture and decomposition, the smell. 

Lleno de microorganismos,” he says, dropping it into his bag. 

Full of microorganisms. Countless soil dwellers; bacteria, fungus, yeasts, microscopic predators; all reproducing and dying, eating and defecating, drawing down carbon from the atmosphere and forming complex bonds to the world above. 

It takes us an hour to fill our sacks, ten kilos each. There are three of us: Cortez and Feliciano Acuj, also an Indigenous farmer and leader, and me: a foreign academic and long-time pupil; aprendiendo haciendo. Learning by doing. 

An agroforestry system at Pajaro Verde in Guatemala that produces coffee and different varieties of fruit. Photo provided courtesy of Nathan Einbinder.

An agroforestry system at Pajaro Verde in Guatemala that produces coffee, fruit and other native crops. Photo provided courtesy of Nathan Einbinder.

Our plan for today is to complete the first step in producing la Madre Líquida, or MMA (“Mother Liquid” or “Activated Mountain Microorganisms”); a fermented brew that serves as the base for their biological inputs. 

Known as bio-fertilizers, bio-inoculants, or simply bioinsumos, in Spanish, bio-inputs are microbial-based products used to replenish soils and boost agricultural production through beneficial microorganisms, often supplemented with minerals in the form of rock or bone dust and plants. While there is still much to be learned about how they function, bio-inputs are said – and in some cases experimentally demonstrated – to make nutrients more available to plants, as well as stimulate root growth, enhance resistance to disease, and improve seed germination. 

The idea, as summarized by author and researcher Juanfran López (2022), is to transfer the balance and richness of native and healthy forests to the fields, to help regulate, enrichen, and ultimately harmonize organic production to the point where synthetic inputs are no longer needed – or can be greatly reduced.

The main goal in the Maya-Achí territory1, and elsewhere2, is to replace synthetic fertilizers and pesticides, which many campesinos have become dependent on since their introduction four decades ago. Bio-inputs are also expected to restore life to severely damaged soil – a result of overuse of agrochemicals and poor management practices. 

“With bioinsumos,” says Cortez, “we offer farmers an alternative. We don’t just say ‘stop using chemicals,’ and that’s it. We’re giving them an option.”

And a more affordable option it is. As the price for chemical fertilizer skyrockets3, becoming unattainable for poor family farmers and conventional growers alike4, microbial-based organic inputs, whether homemade, produced in a group, or bought locally, as explained, are offered at a fraction of the cost. 

But it’s not just about substituting one input for another. According to Acuj and Cortez, along with a growing number of Maya-Achí farmers I speak with, the new practices are hoped to facilitate wider transition towards agroecology: a return to the nature-based and more autonomous agriculture of their parents and grandparents, yet in different contexts altogether. These include unprecedented challenges around water scarcity due to climate change, agrochemical dependency and myriad other issues smallholders confront in defending their livelihoods5.

From the forest we walk back along a dirt road to Alfredo’s home and farm, called Pajaro Verde, or the Green Bird. What was only a decade ago a degraded and mostly abandoned plot of land, Pajaro Verde has achieved legendary status as an agroecological vitrina: a showcase for what’s possible in small-scale diversified agriculture, in an area increasingly prone to drought and excessive heat. Over the past few years, I’ve watched it become a regional centre for training, innovation, and recovery of ancestral practices. It is also the unofficial headquarters for their local development group, the Association of Committees for Community Production, or ACPC6.

A blue bucket of "la Madre Liquída" which is fermented to promote the growth of micro-organisms and then added to soil to aid crop growth. Photo provided courtesy of Nathan Einbinder.

A blue bucket of "la Madre Sólida" which is fermented to promote the growth of micro-organisms and then added to soil to aid in crop growth and pest prevention. Photo provided courtesy of Nathan Einbinder.

Arriving first to his coffee plants – hundreds of bushes grown under leguminous trees, citrus and other fruits – we head to the biofabrica in the far corner of the parcel. One of three micro-processing plants in the territory, the Biofabrica Xesiguan – named after the village and river below – consists of a building and site where bio-inputs are produced, tested on crops, and added to other substrates, such as animal feed. 

With a literal translation of ‘bio-factory,’ biofabricas operate under the logic of enhancing community and individual farmer autonomy. It’s about neighbours working together, sharing and co-creating knowledge, and producing inputs at low budget. It’s also about revaluing labour – especially group work, an ancestral practice – in different ways than prescribed in the capitalist model. 

A growing body of research7 demonstrate how biofabricas are propelling the movement towards recovering sovereignty; a retaking of control over all aspects of farm production, after decades of loss. As stated by researcher Frederic Goulet and colleagues8, biofabricas offer a “decentralized model of production...the antithesis of that associated with chemical inputs,” which arrive from distant factories, and are created by experts who offer nothing but a recipe to follow, with high financial and environmental costs. 

The biofabrica in Xesiguan is like most I’ve seen: humble yet tidy, with one room, a tin roof and walls partially open to maintain airflow. Inside are a couple dozen 200 litre drums, many of them labelled with a date and name of product. 

“The first step for making the líquida,” says Alfredo, as we drop our sacks to the floor, “is to prepare the MM sólido.” 

He looks around for a specific drum and, upon locating it, calls me over and opens the lid. Inside is a substrate resembling a kind of multi-grain animal feed, reddish in colour and sweet smelling, not unlike silage. 

“With this – in thirty days’ time, long enough for it to ferment – we can make the líquida, by means of a tea.”

A training event at Biofabrica Xesiguan. Photo provided courtesy of Nathan Einbinder.

A training event at Biofabrica Xesiguan. Photo provided courtesy of Nathan Einbinder.

By now we’re joined by Alfredo’s son, Suarlin, and another youth named William, both university students and agroecology “promotors” for ACPC. They bring in two more sacks of hojarasca – leaf litter – collected beneath a stand of bamboo: “to add greater diversity of beneficial microorganisms,they tell me. 

We empty our bags onto a tarp on the floor, producing a large mound. At once everyone sits and begins separating and breaking up the material: tossing out larger sticks, crumpling up leaves and other particles, all the while making a closer inspection of mycelium and critters visible to the naked eye. 

The story of how this all came about – how the seeds for the bioinsumo project were sewn – begins nearly a decade ago, on a trip Cortez, Acuj, and other ACPC leaders took to neighbouring Chiapas, Mexico, to visit an organic coffee cooperative. It was there that they saw, for the first time, microbial inputs – just as they are here, in barrels under a tin roof in a remote Mayan village – and heard first-hand accounts about the benefits they provided. These included increased vigour and plant health that provided resistance to la Roya, a fungal disease (Leaf Rust, in English) that all but decimated coffee production across Mesoamerica9.

As an observer on the trip, I too was intrigued. The coffee plants appeared healthy and robust, and hardly any money was being spent on providing their nutritional demands. All that was required was knowledge and training, and a bit of investment on materials and labour. That, and an eager farming community to teach one another and spread the methods. 

I remember the lively discussions on our journey homeThe new technology was interesting, we all agreed; a bit magical seeming: perhaps too good to be true. Was it realistic to believe that the same bio-inputs could be transferred to their region, given the different contexts and resources they had access to? A key question was support. In Mexico, it was more feasible to attain grants and assistance for this kind of work. But in Guatemala? Their experience with development agencies and particularly the government agricultural ministry, MAGA, was complicated at best, and often involved programmes that ignored their experience as food producers and stripped them of their autonomy10.

As an agroecologist, I was also sceptical of what seemed like a ‘magic-bullet’ solution to complex problems – with unknown consequences including new dependencies. Aside from that, did they even work? The science on bio-inputs was slim, and controversial (and still is, despite a growing body of evidence11). Other critiques, by scientists and industry, include the inadequacy or “amateurism” of unprofessional farmers to produce high-quality biological inputs in unorthodox and possibly unsterile conditions12. From an anthropological point of view, I wondered how bio-inputs might interact with traditional or ancestral practices, many of them proven to be efficient and ecological yet continually discredited by agricultural ‘experts’13.

Alfredo Cortez, a Maya-Achi farmer and community leader, prepares a bio-input by boiling aromatic herbs at a biofabrica workshop. Photo provided courtesy of Nathan Einbinder.

Alfredo Cortez, a Maya-Achi farmer and community leader, prepares a bio-input by boiling aromatic herbs at a biofabrica workshop. Photo provided courtesy of Nathan Einbinder.

Several years passed. ACPC continued strengthening their programmes around climate resilience through agroforestry and water capture; along with coffee production and routes to market for their small-scale producers. 

Meanwhile the topic of bio-inputs was growing regionally. At an invited workshop in nearby Chimaltenango, Cortez was introduced to the products once again, with a training on how they were made. Again, he heard testimony from Indigenous smallholders – along with charismatic teachers – about their efficacy in pest prevention and soil health. 

It wasn’t long after that ACPC leaders were approached by ANACAFE, the Guatemalan National Coffee Association, to discuss a new initiative in their region – an area known as the Mesoamerican Dry Corridor14. The focus would be on adaptation to severe climate disruptions, while continuing to improve the quality of coffee.

According to Cortez, ANACAFE, unlike so many institutions before them, understood the capacity of Maya-Achí farmers to manage their resources – their organic materials. 

“We [may have] adopted chemical fertilizers a long time ago,” he told me. “But we still knew how to manage our composts and manures. Our ancestral practices include fermenting plants and using resources like ash for managing PH and disinfecting the soil. These are techniques and knowledge that we’ve maintained...” 

After a consultation process that now included the Inter-American Institute for Cooperation on Agriculture (IICA), they decided the project should centre on developing capacities around bio-inputs. Aside from ACPC there would be two other participating associations, located in different geographies of the territory. 

It was shortly after that a Cuban academic and educator named Ivan Lenin arrived to Xesiguan, to deliver the first of a series of capacitaciones, or trainings, to local farmers and leaders. 

I was never around to meet Don Lenin, as they called him, and observe his teaching. Though I heard much about his time conviviendo with the Maya-Achí community, and the admiration many had for him. 

“He taught us everything about bioinsumos,” recounts Cortez. “At the same time, he recognized our knowledge and experience and motivated us to innovate. He shared technologies and science that we would have never had access to.” 

The trainings took place over three years and coincided with the construction of the biofabricas and exchanges with other groups across Guatemala.

Cortez and other ACPC leaders jumped at any opportunity to learn more about the new technology and build a network. Soon enough, they were being called upon to deliver their own capacitaciones to other groups, from their centre at Pajaro Verde

***

The process takes longer than I thought; breaking up the materials and combining it with ground corn and several litres of molasses diluted in water. There’s no shortage of interruptions either: drop-ins by other farmers, long pauses where they show me other concoctions and manuals they’ve been given, and refacción: a snack of fresh tortillas and cheese, and a warm maize beverage called atol de lote.

“Puro orgánico,” says Acuj, refiling my cup. “Puro microorganismo!”

We conclude by loading the final product, now mildly adhesive and fragrant, into a drum and sealing it airtight. Over the following weeks it will ferment and ‘activate,’ then be used to create the madre líquida

We move outside into the sun, which is strong but bearable. In the distance, thunderheads rise quickly into the sky. After more than half a year of drought and record-breaking heat, the rains have been a godsend, bringing life to the forest and fields, and recharging the watershed. 

But how the rainy season will progress is uncertain. Increasing irregularity over the past decade has wreaked havoc on crops. This year, the unseasonable heat and extended dry season caused widespread mortality amongst perennials, coffee included, and a complete halting of dry-season vegetable production. 

But it’s the changes in timing and duration of the canícula, or inter-wet season dry spell, that’s particularly disruptive. Typically lasting a couple of weeks, in recent years the canícula persisted up to two months, effectively drying out arable fields or milpas, the iconic Mesoamerican triad of corn, beans and squash: the mainstay of local diet and culture15

A key element of ACPC’s resilience work, along with improving soil health, is to try and shift production from milpa, which is more vulnerable to drought and typically grown on treeless slopes, to agroforestry – or an unorthodox combination of the two. 

“When I was a kid, everything you see was rastrojo,” or crop stubbleCortez told me, when we first met. We were on a hillside near his farm looking out at the steep and reforested Xesiguan watershed, where his neighbours had once expanded their fields unsustainably to grow maize16

“Hurricane Mitch17 brought all the soil down to the river,” he said. “Without huge amounts of fertilizer, growing milpa was no longer possible. And just like now, we needed alternatives...” 

Specifically, they needed to plant trees and halt intensive annual cropping on steep, unsuitable terrain. 

Agroforestry had been on the radar of development agencies for decades, as a strategy to maintain agricultural productivity resistant to climate change while enhancing biodiversity18. It’s also a known ancestral practice, though traditionally consisted of small family plots with fruit and other harvestable trees and medicinal herbs. While important to food security, agroforestry was not typical in large-scale models for food production19 - or to substitute milpa. 

Yet, according to Cortez, given the situation following Mitch and climate change, families were more open to try new techniques and crops. Coffee, typically shade-grown, was one alternative, as well as intensifying tree crops like macadamia nuts. Small-scale intensive horticulture, which takes up less space and improved food security, was also popularized20.

But like anything, working models were needed to encourage farmers to adopt and experiment on their own. And even then, many “agroecological” introductions over the years did not take root, for various reasons21.

Alfredo Cortez surrounded by organically-grown tomatoes. Photo provided courtesy of Nathan Einbinder.

Alfredo Cortez surrounded by organically-grown tomatoes. Photo provided courtesy of Nathan Einbinder.

Pajaro Verde is a living example: a successful family farm, both economically22 and ecologically; mostly forested with coffee, native crops, horticulture; milpa during the wet season, and fully integrated with animals and ponds for aquaculture and water capture. 

The biofabrica is the latest addition, along with space around it for trialling and showcasing the results. 

“No one believes you can grow tomatoes organically – let alone outside a greenhouse,” Suarlin tells me, as we walk upslope to a plot alongside the road. 

Asking why that is, he explains that there’re “too many plagas” – insect and fungal diseases common during the wet season. 

“But here we have an example. With bioinsumos...” 

I can attest the plants look (and taste) great. We harvest a few tomatoes – Romas, typically grown as a cash crop – and eat them on the spot. 

Further down are pepper plants, also abundant and nearly ripe; and beyond that, beans, neatly cropped on small terraces, and dark green in colour.

“And what about other farmers,” I ask. “Are they seeing this?” 

This time it’s William who responds. 

“Everyone attending our workshops sees it; along with the cafetal” – he points to the coffee plants behind us, also receiving bio-input treatments. “People look in from the road as well – every day we receive visitors who want to know more...” 

In addition, there are the commercial farmers, or tomateros, they call them, from the neighbouring municipality of Salama, who’ve been purchasing bottles of madre líquida to experiment as a replacement for chemical fertilizers, which have become prohibitively expensive. 

However, the success of the trials here, as I’m soon to learn, are not as simple as one or two treatments, like you would a conventional fertilizer. Rather, it’s the outcome of a ‘package’ or suite of practices and inputs specific to each crop and stage of growth. It also implies that the soil is “ready to receive” the inputs – meaning it contains adequate organic matter, humidity, and so forth.

“It begins by constructing the cama nutritiva,” or ‘nutrient bed,’ explains Cortez, who’s joined us with his two young daughters, each carrying a basket to harvest vegetables.

This involves taking whatever compost is available and ‘activating’ it with microorganisms. It’s then buried into garden beds, given time to settle and cool, if needed, before planting into directly. 

“This provides all the nutrients and strength for the young plants,” says Cortez. “It also helps with germination and resistance to pests.”

This specific bed contains various mixtures: worm compost, bokashi, biochar – all relatively new introductions, and considered the most potent combination. 

He explains the qualities of each ingredient: the biochar holds moisture; the worm castings provide nutrients; and the bokashi, minerals. 

When asked how the bokashi works, he explains that it’s been “mineralized,” with a caldo or soup of crushed rock providing specific micro- and macro-nutrients. 

This is where bio-inputs cross into the realm of “bio-fertilizers,” typically applied to boost yield23. The products require non-local ingredients24, which carry both financial and environmental burdens – something that conflicts with the goal of self-sufficiency and falls firmly into the logic of productivism. 

Cortez claims their bio-fertilizers are “superior to chemicals,” as the microorganisms assist in making nutrients available to crops. They also help “restore damaged soils, rather than pollute them.” But the end goal is to find other sources of minerals, like fermented plants such as bananas, rather than imported rock dusts25, which in this instance were provided by the programme26.

A collection of microorganisms for bio-input production sits beneath a stand of bamboo. Photo provided courtesy of Nathan Einbinder.

A collection of microorganisms for bio-input production sits beneath a stand of bamboo. Photo provided courtesy of Nathan Einbinder.

Continuing our tour, they alternate explaining the different inputs they’ve used and experimented with, depending on what they believe is lacking in the soil27.

“There’s been some trial and error,” says William, mentioning how some crops haven’t responded well to the addition of certain combinations, or too much application which causes a “burning” effect. There can also be an excess of nitrogen, as happens with urea, the common fertilizer, or unprocessed animal manures. 

For pest prevention, they’re convinced that applying copious amounts of beneficial microorganisms has reduced disease and pest damage. 

Yet when pests do arrive – or when consulting farmers who’re experiencing outbreaks – they use M5, a bio-input consisting of a dozen or so “aromatic” plants, like garlic, basil, and native herbs, fermented and applied with or without microorganisms. 

“This is an ancestral practice, innovated,” says Cortez – something I’ve heard multiple times about the techniques. 

“We’ve always used plants as repellents. But now we’re ‘potentializing’ the resource...”

According to Cortez and others, learning about bio-inputs has allowed a deeper understanding of their traditional practices; a more scientific understanding that allows them to find ways to use them more efficiently.

In another example, he explains how “[The] abuelos always collected litter from the forest and spread it onto their fields. They were doing the same thing we are but didn’t understand how it worked. Now we do. And by innovating the resource” – by multiplying the microorganisms through fermentation – “we require a much smaller amount than they did, with greater impact.”

The latter point speaks directly to the present context: less forest and more drought, smaller-size family plots, larger populations. All are factors in driving a perceived necessity of chemical fertilizers28 and incompatibility of ancestral practices, given their reliance on organic matter, knowledge of how to make use of it, and manual labour (which is time-consuming and expensive).

It’s easy to understand their enthusiasm for the new technology: not only does it carry the potential to outcompete agrochemicals, but it also encourages a “revaluing,” as Cortez puts it, of the area’s natural riches and its capacity to enhance agricultural production – a key foundation to ACPC’s work.

Their arguments are compelling – and the evidence in the crops, despite the fact that that the processes are more involved than one might think, is here to be seen.

Yet the effects of their efforts to extend their knowledge and passion about bio-inputs to the greater public remain to be seen. How willing will farmers be to drop or greatly reduce the habit of buying chemical inputs, as they’ve done for decades, for something mysterious and not yet fully proven, with the potential of more labour needed and access to resources? If this scaling and popularisation is successful, how will the technology shape and be shaped by new contexts? Will it be as effective for new practitioners as for current proponents?

Alfredo Cortez and ACPC member in her organic milpa. Photo courtesy of Nathan Einbinder.

Alfredo Cortez and ACPC member in her organic milpa. Photo courtesy of Nathan Einbinder.

For weeks I’ve been speaking with farmers, to get a sense of how they might adopt, and why. Are they motivated by productivity only, as the case with fertilizers? Or is there something deeper at play; something that taps into an ancestral longing to reconnect with nature, as intimated by Cortez and his associates? In addition, I’m curious what the experience might tell us about the broader panorama of Indigenous agriculture: its relationship (and often clash) with modernity, and more “natural” ways of producing food. 

Through Cortez and Acuj, I’m introduced to a range of ACPC members29; women and men, young and old, each with different needs, limitations, and strengths. 

I meet smallholders like Doña Rosa, from the hamlet of Tablón, whose interest in bio-inputs, she tells me, is out of a “desire to recover the past. When we didn’t use chemicals...” 

Active in ACPC for years, Doña Rosa attended bioinsumo workshops and leads a group of seventeen women who meet once a week to make MM sólido, for chicken feed30, and líquida, for their crops, in bulk. 

“This is one method of extension,” Cortez explains. “Doña Rosa has been trained up and is now teaching others and facilitating the group.”

What he hopes for next is another biofabrica here – “in strategic points all over the basin” – something entirely contingent on receiving more project support. 

Drinking fresh atol, Doña Rosa shows us her barrels, nearly empty after distributing the products amongst her group. They need more materials, she claims – more receptacles for fermenting, and molasses – which in the beginning were gifted by the programme yet are now their own responsibility. 

“There’s a lot of demand,” she says. “But there’s only so much we can achieve without pisto,” or money, colloquially put. 

After viewing her kitchen garden and agroforestry plot – which is small but diverse, located on a steep former cornfield – we walk along a path to where she and other members of her group plant their milpa. 

In the muggy afternoon heat, we come upon Doña Margarita, a woman of about sixty dressed in a colourful traditional huipil cleaning her plot with a hoe. Seeing us, she smiles and immediately begins speaking to Cortez and Acuj in Achí.

“She’s not using any fertilizers this year,” Acuj tells me, “Just microorganismos.” 

The crops, still young, appear healthy – particularly the squash, which covers the ground in thick green leaves. I notice other herbs as well: wild amaranth or bledo, and macuy31, a nutritious plant in the tomato family and indicator of healthy soil and, in many cases, composts. 

I ask whether she’s applied chicken manure and receive a nod. 

“And native seeds?” 

“Of course...”

Acuj explains that it’s a trial; usually they use small amounts of chemical fertilizer at specific times. But this year she’ll only use bioinsumos. 

Cortez walks downslope and inspects a sprayer lying against a tree: a plastic backpack with a hand pump, ubiquitous amongst milpa farmers and often gifted by institutions. He picks it up and begins spraying the plants. “MM,” he says, very pleased. 

When I ask Doña Margarita why she’s switched to bio-inputs rather than continue her usual routine she claims it’s the cost. 

“No pisto,” she says. “But thank God Don Alfredo taught us. The plants look the same as with chemicals. But we’ll see, at harvest time...” 

The conversation then turns to Don Francisco, another farmer from La Cumbre, high in the watershed, whose milpa has become a source of debate following a recent viewing by ACPC members. 

“They don’t believe its organic,” says Acuj, holding up his cell phone so I can see the photo: a sea of maize two metres high, with beans climbing up the stalks and mature pines interspersed. 

Cortez explains that there’s still a lot of scepticism about what bio-inputs can do. “We need more evidence,” he says. “More examples like Francisco...” 

For now, their focus is on ramping up production of MMA, along with mineralised bio-fertilizers, to distribute amongst members for trialling this year.

This is another methodology, says Cortez, borrowed from the Green Revolution. “We must ask ourselves: what made it so successful? what worked to get people hooked? We want to offer samples and build more campos of experimentation, like they did. This way, we can outcompete them...” 

Yet it’s clear that gifting only will not be enough. In our next visit with coffee farmer Doña Mercedes, we come across jars of bio-inputs sitting unused on a shelf, which she claims were donated by another group without instructions. We’re also given a brief tour to another biofabrica, which appears mostly abandoned. 

“The technologies were imposed here – not asked for,” Acuj explains. Apparently, biofabricas are sitting empty across the country, where programmes have lacked adequate consultation and teaching methods. The situation brings to mind the countless past introductions and programmes which have failed in the territory for similar reasons, along with critique about bio-inputs (ours included32) as an unnecessary technology in a region awash with undervalued traditional practices and knowledge. 

Cortez and ACPC promoters stress the importance of accompaniment and bespoke packages that respond to each producer’s needs and capacities. As well as constant reflection on technology and its role in their work. 

“Technology’s great,” I recall Cortez expounding to a group of farmers not long ago. “But one must always question its objective. Is it to benefit producers and the environment? Or to create more consumers and for industry?”

In a similar opinion, Yolanda, a young ACPC leader we visit, affirms that technology is needed in today’s context of interlinking crises. However, it’s the farmers that must be in control of what they adopt and how it’s used. 

“Take for example greenhouses,” she says. “This is a technology that’s helped us women a great deal – and is compatible with our ancestral practices. It’s helped us continue growing our native crops and seeds under different sets of challenges.”

Like other research I’ve done in the territory, analysing drivers of and barriers to agroecology33, a unifying factor among most farmers I speak with is their perception of crisis and the desire for new ideas to help recover their viability as producers – and the soil.

Yet there are always outliers, who often become equally important in understanding the context and pushing the dial. 

Don Francisco is a case in point. We visit his home late one afternoon, following a heavy downpour. Situated twenty minutes walking from the nearest road, he and his family manage an entire hillside; very steep in places, mostly forested, and north facing.

Greeted by his wife, Esmeralda, who offers us fresco – cold watery juice made with passionfruit – we’re met by Francisco and his son, Mauricio, who come sprinting up the mountain. 

Nearly sixty, Don Francisco is youthful in appearance and energy, and passionate about what he’s achieved. “One hundred percent organic!” he exclaims, taking us through his milpa while stopping intermittently to demonstrate the thick leaves and stalks; the rich, dark soil, and often, the different birds flying overhead. 

Absent from his commentary is any mention of crisis, or rising costs. For him, bio-inputs have little to do with fixing a problem, rather they are complementary to his overall farming system; his love of nature and zest for working the land. It’s allowed him and his family to push their already utilized resource base – including many animals, both wild and domesticated, forest and water – to new levels. 

“He’s always been a successful farmer,” remarks Cortez. “He’s an innovator, with his composting, and honey production (from wild bees). He works day and night protecting his soil and diversifying. But he also works with chemicals, when needed34. With bio-inputs, he can become more self-sufficient. And deepen his connection with Mother Earth.” 

Our tour, which includes several hand-dug ponds, terminates at the recently completed biofabrica, a small construction assisted by ACPC to empower his efforts and establish another site for community learning. 

Akin to Francisco in his dedication to the land and spirit to connect with and live from it is another ACPC member called Rony Chen, who, together with his wife, Sara, have managed to reforest a once barren slope that in today’s climate would appear only suitable for cacti and dried shrubs.

Located at the bottom of the valley in an area increasingly subject to wildfire (which burned a sizable corner of his farm not long ago) and water shortages, Chen’s family farm is a labour of love; a site for experimentation, for toiling and spiritual regeneration, as well as making a practical living – without the need to migrate.

Don Francisco stands in his milpa. Photo provided by Nathan Einbinder.

Don Francisco stands in his milpa. Photo provided by Nathan Einbinder.

“We’ve planted three thousand trees so far,” he says, walking through his property like we have many times before, pausing at sites where advances have been made: new terraces and crops, ponds, compost pits. When asked why he does it – why they sacrifice so much for such a harsh and unforgiving land – he shrugs. “I love nature,” he says, not without emotion. “And we must restore it, to survive.” 

But the restoration he speaks of isn’t limited to ecology. Chen, who is 47, laments the erosion of ancestral values, for example communal work and self-sufficiency, which many in the community have exchanged for fast-technology, consumerism, and the “American Dream.” 

Critical of development, he blames government and NGO programmes for “breaking our way of producing without chemicals.” This includes the promotion of hybrid seeds35 and pesticides – so-called “paquetes tecnologicos” – which continue “to be gifted in the name of climate adaptation.” 

Echoing Cortez, Chen claims that they’ve lost the “art of being a campesino,” which includes constant experimentation, ingeniousness, and love.

Yet, despite his scepticism of anything imported and so-called modern, he’s not opposed to bio-inputs. Rather, the opposite. 

“We’ve lost our equilibrium,” he says, a common sentiment among many farmers I speak with. “Certain technologies will benefit our ability to recover principles: growing our own chemical-free food, seeds, identity, language; connecting and restoring nature... Bio-inputs are a channel of transition.” 

When asked how the new products and practices might achieve this, he states that “Bio-inputs enhance our autonomy: a threat to the government and corporations. But the trick is innovating nature – this is territorial defence – having control over all our primary resources.” 

Regarding wider-scale adoption he returns to his cynicism: “Ancestral has lost its credibility. ‘Fábrica’ (which translates directly to ‘factory’) is a way to adapt to the times, for better or worse: to attract people sold to the industrial model. It’s a first step: backwards and forwards.”

“And you?” I ask. “Do you use the products?”

He smiles reticently, as he often does when I ask a question, though quickly turns serious.

“I’m planning on it. I’m going to the trainings. Though I don’t want to buy anything. I’ll make my own.” 

***

It’s late in the day, nearly dark, when we return to Pajaro Verde. Sitting over a final coffee, we reflect on past days. Our visits have proven that there is undeniable interest in the technologies and prospects for multiple benefits. Yet still, many questions remain.

What will the future hold, with institutional support set to end this year, leaving ACPC without funds to expand the programme? And how will the season end up – both in terms of the canícula or other potential weather disturbances, and for the farmers expecting immediate results in their milpas? 

And an even larger question, one I hope to get at in years to come: Can bio-inputs, even in the best of outcomes, genuinely improve the viability of Indigenous farmers and their autonomy; reversing the negative trends of migration, reliance on industrial foods, desertification, etcetera? 

Big questions – though not necessarily ones we avoid, even this late in the day. Eternally optimistic, Cortez knows that whatever happens with the programme, this year or next, their struggle will continue, and they will succeed.

“It’s all about working with what we have: that’s agroecology,” he says, time and again. “Knowing and making best use of what’s at hand. Ancestral is knowing we’re part of nature. That we can do anything from supposedly nothing. We fight for this; recovering our values and principles, and we will win.” 

  1. The Maya-Achi are one of 23 linguistic groups in Guatemala, with a population of roughly 75,000. Located in the centre of the country in the Department of Baja Verapaz, the territory is mountainous and predominately rural, and broken into three municipalities: Rabinal, the largest and most important politically; San Miguel Chicaj and Cubulco. Recognized as the “folkloric capital” of Guatemala, for their maintenance of prehispanic rituals and native crop varieties, the Maya-Achi are also known for the extreme violence that took place there in the early 1980s during the Internal Conflict, when nearly 25% of the population was exterminated by the military and paramilitaries (See CEH 1999, Einbinder 2017)
  2. Biological inputs have become an integral part of organic agriculture in many parts of the world, though mainly in the Global South. In India, for example, the Natural Farming movement has nearly one million smallholders using microbial inoculants to help ween farmers off industrial inputs and become more sovereign (Khadse et al. 2017). In Brazil, biological inputs are being mass produced and adopted by commercial farmers and smallholders alike (Goulet 2023)
  3. Numerous reports detail the increase in price for synthetic inputs and its impact on food costs and insecurity. Here is one from the World Bank: https://blogs.worldbank.org/en/latinamerica/plant-fork-rapid-assessment-fertilizer-and-food-crisis-central-america 
  4. https://www.prensalibre.com/guatemala/comunitario/nos-estamos-aventurando-a-sembrar-agricultores-luchan-contra-el-clima-y-el-precio-de-los-fertilizantes/
  5. The problems of small-scale or ‘peasant’ viability across the ‘developing’ world are longstanding and intensifying. These include: access to land and other resources, persecution of Indigenous communities and farmers by states and wealthy landowners, unfavourable trade policies and migration, and most recently, the influx of cheap processed foods, which negatively impacts local food systems (Copeland 2018, Loker 1996).
  6. ACPC is one of several Indigenous associations in the region focusing on agriculture, seed and food sovereignty, and organizing around campesino or peasant issues more generally. With roughly 500 family members, mostly located in the Xesiguan River watershed, ACPC’s work focuses on building resilience to climate change through reforestation and water and soil management and centered on developing and scaling-out agroecological practices (see Einbinder and Morales 2020). 
  7. See Goulet (2023); Goulet et al. (2024); Crespo and Frank (2022); Villalba-Eguiluz et al. (2023); Chávez-Diaz et al. (2020)
  8. Goulet, Poveda, and Odjo (2024)
  9. Other studies demonstrate similar positive results with Rust resistance and use of bio-inputs (see Putnam and Gliessman 2015)
  10. Referring specifically to the gifting of non-local seeds and synthetic input packages that must be bought thereafter year-on-year (See Bakal & Einbinder 2024).
  11. See Pretty et al. 2018
  12. See Goulet et al. 2024
  13. See Morales & Perfecto (2000)
  14. The Dry Corridor, which extends from northern Nicaragua to Southern Mexico, is identified as one of earth’s most vulnerable regions to climate change (WFP 2023)
  15. There are countless studies about milpa, its agroecological characteristics and importance in local identity and food sovereignty (see: Isakson 2009)
  16. Expansion of the “agricultural frontier” is a complex topic, often blamed on poor smallholders and their expanding populations. Yet as Alonso-Fradejas (2012) points out, there are many other factors involved, namely land inequality and ongoing displacements of small-scale farmers by development projects; i.e., hydroelectric dams and mining, and African palm or sugarcane. 
  17. A mega Caribbean storm that made landfall in October 1998.
  18. See Perfecto, Vandermeer & Wright (2009)
  19. This may be debatable depending how far you look back into historical farming practices. I’ve heard stories claiming that milpa and maize consumption was much less in the past, with more consumption of semi-wild crops and other practices suitable to treed landscapes; a.k.a. forest gardens. 
  20. ACPC is among several Indigenous organizations, such as Qachuu Aloom and Voces y Manos, working towards agroecological development in the Maya-Achi territory (see Bakal & Einbinder 2024).
  21. An example of this is the green manure programmes of the 1970s-90s. Viewed as a panacea for reducing fertilizer dependency (they add nitrogen and organic matter to the soil), green manures, often in the form of leguminous cover crops like macuna, were a key component to the agroecology movement, with high expectations for uptake (see Holt-Gimenez 2006) However, they were never adopted long term in many areas, including the Maya-Achi territory. Reasons for this are complex, often having to do with incompatibility with local context and knowledge systems. Other reasons point to ineffective or paternalistic teaching / extension methods (see Einbinder et al. 2022 and Neill & Lee 2001 for wider context). 
  22. For specific information regarding Cortez’ farm outputs, profitability and resilience, see Escalón 2019 (Spanish)
  23. The organic fertilizer market has exploded in recent years, with an influx in corporatization along with funding from development programmes like USAID. In Guatemala, bio-fertilizers are produced and marketed commercially, though geared more towards export-oriented “non-traditional” crops like broccoli. They are currently available at the local agricultural shop in Rabinal, though said to be “much more expensive” than the products sold at the biofabrica
  24. One might argue that the molasses is non-local as well: it’s no longer produced locally at scale and must be purchased at the Rabinal market. There it is sold in blocks or in similar artesian manner, from sugarcane grown (presumably) by smallholders in other nearby regions where it’s more abundant. It is inexpensive, less than one US dollar per litre (when liquefied), though this still presents a barrier to some farmers who wish for zero input costs. Local options are being developed.
  25. Among other approaches, like biodynamic and other methods promoted by biological farming gurus Jairo Restrepo and Elaine Ingham, minerals can be extracted from bones and other non-mined materials. The plant extraction theory is traced to Korean and Japanese “natural farming” – though also practiced ancestrally here.
  26. According to their calculations – which include cost of labour and all materials – mineralized inputs are still far cheaper than chemical input packages, with a total of 390 Quetzales ($50US) versus 2000Q ($260US) per acre for milpa. This is an estimate, however, and the complexity of production – previous soil health, types of seeds, other agroecological practices – must be considered. 
  27. This is often analysed by sight using traditional knowledge – however they’ve also conducted multiple soil tests on this site, with assistance from programme sponsors. 
  28. Chemical fertilizers were initially promoted in the territory not by corporations or foreign governments, as many assume, but by progressive Catholic and pro-campesino organizations aiming to boost maize production to give poor farmers with ever smaller plots more autonomy and halt seasonal work migrations. Interestingly, many present agroecology leaders, including Cortez, are the sons and daughters of past leaders (many of them assassinated) who promoted the import and adoption of fertilizers. 
  29. At the time of this writing, Cortez approximates there are 60 families actively using bio-inputs, because of the programme, with many more interested in experimenting. 
  30. Some of the strongest convictions about the benefits of fermented microorganisms pertains to its use among animals, especially poultry, which is traditionally managed by women. The solid component is combined with homemade feed, or the liquid is added to water. The effect is said to include less disease and noxious odors, and stronger, faster growing animals. There is also discussion about reducing or eliminating antibiotic injections and vaccines. The logic is equal to human consumption of fermented products such as yogurt or macrobiotic supplements as immune boosters and contributors to better gut health. 
  31. Solanum americanum
  32. See Einbinder and Morales (2019)
  33. Einbinder et al. 2019
  34. In this region, which is high elevation, at times excessively humid and cool, and mostly conifer forest, there are known deficiencies in the soil making it difficult to farm, one of them being potassium. 
  35. While able to outproduce native crops under optimal conditions, hybrid seeds are often sterile, which means they must be purchased each year and require pesticides. They also perform poorly in drought - unlike native crops which have evolved resistance.  

Alonso-Fradejas, A. (2012). Land control-grabbing in Guatemala: the political economy of contemporary agrarian change. Canadian Journal of Development Studies, 33(4), 509-528. 

Bakal, Michael and Einbinder, Nathan (2024). Scaling local climate action: Learning from community organizations to build a post-development agenda. Nature Climate Action, (3) 30.

Chávez-Díaz, I.F. et al. (2020). Consideraciones sobre el uso de biofertilizantes como alternativa agro-biotecnológica sostenible para la seguridad alimentaria en México. Revista Mexicana Ciencias Agrícolas, v. 11, n. 6. 

Comisión para el Esclarecimiento Histórico (CEH) (1999). Guatemala: memoria del silencio. Report of the Commission for Historical Clarification Conclusions and Recommendations. Guatemala City, Guatemala. 

Copeland, N. (2018). Meeting peasants where they are: Cultivating agroecological alternatives in neoliberal Guatemala. The Journal of Peasant Studies, 46(4), 831-852. 

Crespo, C. and Frank, F. (2022). De microbios, biofábricas y soberanías. https://www.biodiversidadla.org/Recomendamos/De-microbios-biofabricas-y…

Einbinder, Nathan (2017). Dams, displacement and development: Perceptions from Río Negro, Guatemala. New York, NY: Springer 

Einbinder, N. and H. Morales (2019). Why traditional knowledge—not external tech—is the key to truly sustainable agriculture. Ensia. https://ensia.com/voices/sustainable-agriculture-traditional- knowledge-indigenous-farmers/. 

Einbinder, N., H. Morales, Mier Y. Terán-Giménez, M. Cacho, M. Aldasoro, B.G. Ferguson, and R. Nigh (2019). Agroecology on the periphery: A case from the Maya-Achí territory. Guatemala. Agroecology and Sustainable Food Systems 43 (7–8): 744–763. 

Einbinder, N., and H. Morales (2020). Development from within: Agro- ecology and the Quest for Utziil K’asleem in the Maya-Achí Territory of Guatemala. Journal of Latin American Geography 19 (3): 133–158. 

Einbinder, Nathan; Morales, Helda; Mier y Teran, Mateo; Aldasoro, Miriam; Ferguson, Bruce G.; and Nigh, Ron (2022). Agroecology from the ground up: A critical analysis of sustainable soil management in the highlands of Guatemala. Agriculture and Human Values.

Escalón, S. (2019). Guatemala: de cómo unos campesinos de Rabinal vencieron la sequía. Nómada. https://nomada.gt/identidades/guatemala-rural/guatemala-de-como-unos- campesinos-de-rabinal-vencieron-la-sequia/ 

Goulet, F. (2023). On-farm agricultural inputs and changing boundaries: Innovations around production of microorganisms in Brazil. Journal of Rural Studies, 101. 

Goulet, F., Fonteyne, S., Ridaura, S.L. et al. (2024). The emergence of microbiological inputs and the challenging laboratorisation of agriculture: lessons from Brazil and Mexico. Agric Hum Values.

Goulet, F., Poveda, D.F., Odjo, S. (2024). Biofactories: New Models for Production and Access to Agricultural Inputs in Latin America. Perspective, nᵒ 64:1-4. 

Holt-Giménez, E. (2006). Campesino a campesino: Voices from Latin America’s farmer to farmer movement for sustainable agriculture. Oakland, USA: Food First Books. 

Isakson, S.R. (2009). No hay ganancia en la milpa: The agrarian question, food sovereignty, and the on-farm conservation of agrobiodiversity in the Guatemalan highlands. The Journal of Peasant Studies 36 (4): 725–759. 

Khadse, Ashlesha, Rosset, P.M., Morales, Helda & Bruce G. Ferguson (2017): Taking agroecology to scale: the Zero Budget Natural Farming peasant movement in Karnataka, India, The Journal of Peasant Studies. 

Loker, William M (1996) "Campesinos" and the crisis of modernization in Latin America. Journal of Political Ecology, 3, 69-88 

López, Juanfran (2022). The biofertilizer manual. 2nd Edition. Self-published. 

Morales, Helda, and Ivette Perfecto (2000). Traditional knowledge and pest management in the Guatemalan highlands. Agriculture and Human Values 17: 49–63. 

Neill, S.P., and D.R. Lee (2001). Explaining the adoption and disadoption of sustainable agriculture: The case of cover crops in north- ern Honduras. Economic Development and Cultural Change 49 (4): 793–820. 

Perfecto, I., J.H. Vandermeer, and A.L. Wright (2009). Nature’s matrix: Linking agriculture, conservation and food sovereignty. London, UK: Routledge. 

Pretty, J and 16 co-authors (2018). Global assessment of agricultural system redesign for sustainable intensification. Nature Sustainability, Vol 1, 441-446.

Villalba-Eguiluz, U., Latorre, S., Jiménez, J. (2023). Family farmers’ strategies to develop autonomy through agroecological and solidarity economy practices: The case of BioVida in the Ecuadorian Andes. Journal of Agrarian Change; 23: 868-892. 

WFP (World Food Programme) (2023). The 8 countries most effected by climate change. https://www.wfpusa.org/articles/countries-most-affected-by-climate-chan… 

Post a new comment »

Login or register to comment with your personal account. Anonymous comments require approval to be visible.
CAPTCHA