In the rolling hills of the Val d'Orcia, a quiet rebellion is taking root — one that looks less like a protest and more like a return to the past. Farmers are clearing silos once filled with high-yield, short-stalked "modern" wheat to make room for the giants of the Italian landscape: Gentilrosso, Verna, and the venerable Senatore Cappelli. The question their revival poses is not sentimental. It is biological.

For decades, the narrative of wheat was one of triumph — the "Green Revolution" that saved millions from hunger. But as a growing percentage of the global population finds itself unable to digest the very "staff of life," scientists at the Università degli Studi di Bologna and beyond are asking a provocative question: did we trade the health of the human gut for the efficiency of the industrial harvester?

The Ancestors: When Wheat Was Tall

The story of wheat begins with Triticum monococcum — known colloquially as Einkorn or Farro Monococco. As a diploid grain, possessing only two sets of chromosomes, it is the simplest genetic form of wheat. Its gluten structure is fragile, its yield is low, and its husk is thick. It is also, by most measures, the most digestible grain humanity has ever cultivated.

As agriculture evolved, so did the grains. In early 20th-century Italy, varieties like Gentilrosso (Red Noble) and Verna dominated. These were "tall wheats," often reaching six feet in height, swaying elegantly in the Tuscan wind. In 1915, the legendary geneticist Nazareno Strampelli selected Senatore Cappelli from North African landraces. It became the "king" of Italian durum wheat — hardy, nutrient-dense, and possessing a complex, nutty flavour profile that modern bread can only approximate.

BC
Antiquity

Einkorn (T. monococcum) cultivated across the Fertile Crescent. Diploid structure, fragile gluten, low yield — but deeply compatible with human digestion.

1915
1915

Nazareno Strampelli selects Senatore Cappelli from North African landraces. A tall, robust durum wheat with exceptional nutritional density — the king of Italian grain.

1974
1974 — The Pivot

ENEA researchers expose Senatore Cappelli to X-rays and gamma radiation. Cross-bred with high-yield Mexican varieties, the result is Creso — a short-stalked "nano" wheat engineered for industrial yield and processing strength.

Now
Today

Non-Celiac Gluten Sensitivity affects an estimated 6–10% of the global population. Ancient grains are staging a quiet comeback in the Val d'Orcia and beyond.

Crucially, these ancient varieties were survivors in the truest agronomic sense. Their height and deep root systems meant they outcompeted weeds naturally. They required no synthetic fertilisers — in fact, heavy nitrogen applications would cause them to grow too tall and collapse, a phenomenon known as "lodging." Even today, when not formally certified organic, these ancient varieties are de facto organic: the chemicals deployed in modern farming would effectively ruin them.

The 1974 Pivot: The Birth of Creso

The landscape changed irrevocably in 1974. Researchers at Italy's National Committee for Nuclear and Alternative Energy (ENEA) exposed Senatore Cappelli to X-rays and gamma radiation, crossing the resulting mutants with high-yield Mexican varieties. The result was Creso — a "nano" wheat, short, sturdy, and indifferent to the wind. Because it was short, it could be bombarded with massive amounts of chemical fertilisers to force a higher yield without falling over. This was the birth of industrial bread and pasta.

Ancient Variety
Senatore Cappelli
Tall stalk (up to 180 cm)
Naturally weed-suppressing
No synthetic fertiliser needed
Fragile, digestible gluten
Complex, nutty flavour
Modern Variety
Creso & Descendants
Short stalk (mutated 1974)
Requires herbicides in monoculture
High nitrogen fertiliser dependency
Industrial-strength tenacious gluten
High yield, neutral flavour

The genetic mutation did more than shorten the stalk. It fundamentally altered the gluten. Modern varieties like Creso and its descendants were bred for "strength" — measured by the W index, a rating of gluten's resistance to deformation. Industrial food production requires a gluten "mesh" capable of withstanding high-speed mixing and short fermentation times. The delicate, easily digestible gluten of Monococcum was replaced by a tenacious, elastic protein structure that the human digestive system had never encountered in its 10,000-year history with grain.

"Einkorn contains only 3% gluten, but scientific studies demonstrate that, unlike spelt and other grains, it does not activate the two genes responsible for celiac disease (DQ2 and DQ8). This does not mean it is suitable for someone already diagnosed with celiac disease — but it is a significant grain in the realm of prevention."

Vincentini, De Vincenzi, Pogna et al., 2010

The Rise of the "Non-Celiac"

In the last twenty years, clinics have been flooded with patients who do not have Celiac disease but suffer significantly when eating modern bread. This is Non-Celiac Gluten Sensitivity (NCGS) — a condition that sits in a contested diagnostic grey zone, but whose biological mechanisms are becoming increasingly legible to science.

The key was unlocked by Dr. Alessio Fasano, who discovered zonulin — a protein that acts as the "gatekeeper" of the gut. Fasano's research demonstrated that gliadin, a component of gluten, triggers the release of zonulin, which opens the tight junctions of the intestinal lining. When these gates remain open too long, the gut becomes "leaky," allowing undigested proteins and toxins to bypass the barrier and enter the bloodstream, sparking systemic inflammation.

The Lock and Key Problem

Our digestive enzymes are like old keys trying to open a new, high-security lock. Because the protein structure of modern wheat has been so radically altered for industrial strength, our biological "keys" no longer fit — leaving the grain partially undigested and inflammatory to the delicate lining of the gut. Researchers at the Università di Bologna suggest that the "hard" gluten in modern varieties like Creso is far more aggressive in triggering these responses than ancestral grains.

The Chemical Cocktail: Glyphosate and the Ghost in the Machine

The issue may not be the grain alone, but the "chemical ghost" that haunts it. Modern "nano" wheats are part of a package deal: they require herbicides to survive in high-density monocultures. The most controversial player is glyphosate.

While most commonly associated with GMO soy and corn, glyphosate is increasingly used on wheat crops as a "desiccant" — a drying agent sprayed just before harvest to ensure the grain is uniform and dry for industrial silos. The implications of this practice remain deeply contested, but emerging research points to a troubling convergence.

The emerging theory is one of a "perfect storm": the tenacious gluten of Creso-style wheat irritates the gut lining, while glyphosate residues act as a potent antibiotic, decimating the beneficial bacteria of the microbiome. Glyphosate is also known to inhibit cytochrome P450 enzymes, which are essential for processing toxins — leaving the body progressively less equipped to manage the inflammatory effects of the very grain it is consuming.

Reclaiming the Loaf

For the modern consumer, the solution is increasingly found in the "Old World." Markets are seeing a quiet but steady resurgence of Senatore Cappelli pasta and Monococcum flour. These grains offer a lower glycaemic index, higher mineral content — specifically zinc and magnesium — and, perhaps most importantly, a return to an agricultural logic that values resilience over raw yield.

By choosing ancient varieties, we are doing more than avoiding a chemical cocktail; we are supporting a system of farming that values resilience over raw yield. As the science from Bologna continues to bridge the gap between archaeology and gastroenterology, the verdict is becoming clear: the "staff of life" was never meant to be a weapon. To heal our guts, we may first have to heal our fields.

☽   Practical Guide   ☽

Baking with Einkorn

A guide to the world's oldest, most demanding — and most rewarding — grain

Baking with Einkorn (Farro Monococco) is less like traditional bread-making and more like a delicate chemistry experiment. Because it is a diploid grain with a primitive gluten structure, it lacks the elasticity of modern wheat. Treat it like a standard sourdough, and you will likely end up with a sticky, flat mess. What follows is your essential guide to mastering it.

1
The Science of the "Sticky"

Modern wheat has been bred for high levels of glutenin — the protein that gives dough its "bounce" and allows it to trap air like a balloon. Einkorn has a much higher ratio of gliadin, which makes the dough extensible but structurally weak. You cannot knead Einkorn into a smooth, elastic ball. Over-work it, and you will break the fragile gluten bonds, turning the dough into a soup-like paste from which there is no recovery.

The Rule: Einkorn is not kneaded. It is coaxed.
2
The Golden Ratio: Less Water Than You Think

Einkorn absorbs water much more slowly than modern wheat. A standard 70–80% hydration that works for Senatore Cappelli or Creso will be far too wet for Einkorn. Reduce your liquid by roughly 15–20%. The dough should feel "shaggy" and slightly tacky — resist the urge to add more flour immediately. Give the grain time to drink the water before you make any adjustments.

Target hydration: 60–65%
3
The No-Knead Method

Forget the stand mixer. For Einkorn, the stretch-and-fold or a simple overnight no-knead ferment is the only reliable approach. Mix just until the flour is hydrated — it will look like a thick, sticky porridge. Then let it rest for at least 30 minutes before adding salt or leaven (the autolyse). This allows the proteins to align without mechanical stress. Instead of kneading, use a wet hand to gently fold the dough over itself 3–4 times every 30 minutes. Stop as soon as the dough begins to resist.

4
Proofing: The Short Window

Einkorn rises faster than modern wheat because its open structure allows yeast to move through it easily. However, because the "balloon" — the gluten network — is weak, it can only hold air for so long. Over-proofing is the most common mistake. Einkorn will not double in size like modern dough; aim for approximately 50% increase in volume. Use the poke test: if you poke the dough and it springs back halfway, it is ready. If it collapses or fails to spring back at all, it is over-proofed — and there is little that can be done.

Target: ~50% rise, not double. Watch the clock.
5
The Support System: Baking

Because Einkorn lacks structural integrity, it tends to spread outward rather than upward — the "pancake effect" dreaded by first-time bakers. The solution is containment. Always bake your Einkorn loaf in a preheated Dutch oven or a loaf tin; the walls of the vessel will provide the physical support the gluten cannot. High heat and steam in the first 15 minutes are crucial for oven spring before the crust sets.

Dutch oven or loaf tin. Always. Non-negotiable.

Troubleshooting Common Einkorn Problems

Problem Likely Cause Solution
Dough is a liquid mess Too much water Reduce hydration to 60–65% next time
Loaf is flat and dense Over-kneaded or over-proofed Mix by hand only; shorten the rise time
Gummy texture inside Underbaked Einkorn holds moisture — bake to an internal temp of 98°C (208°F)
Crust is too hard Oven too hot Lower temp by 10°C and use a Dutch oven with the lid on for the full bake

Why go through the trouble? Beyond the gut-health benefits and the avoidance of the glyphosate desiccant cycle, Einkorn has a distinct, toasted-nut flavour that is genuinely unlike anything produced by modern flour. Once you taste a true Monococco loaf, modern white bread feels strangely hollow — and not just in texture.

Frequently Asked Questions

Ancient varieties such as Einkorn and Senatore Cappelli have simpler genetic structures and fragile, easily digestible gluten. Modern varieties like Creso — bred after 1974 through irradiation and cross-breeding — were engineered for high yield and industrial processing, resulting in a much stronger, more tenacious gluten structure that is harder for the human digestive system to process.
Zonulin is a protein discovered by Dr. Alessio Fasano that regulates the permeability of the intestinal lining. Gliadin, a component of gluten, triggers zonulin release, which opens the tight junctions between intestinal cells. When these junctions remain open too long — a condition known as "leaky gut" — undigested proteins and toxins can enter the bloodstream, causing systemic inflammation.
Einkorn is not suitable for people already diagnosed with celiac disease. However, research suggests that unlike modern wheat, Einkorn does not activate the two genes (DQ2 and DQ8) responsible for celiac disease, making it potentially significant in the context of prevention for the broader population.
Glyphosate is increasingly sprayed on wheat crops as a "desiccant" — a drying agent applied just before harvest to standardise the grain for industrial silos. Concerns centre on its potential to decimate beneficial gut bacteria and inhibit cytochrome P450 enzymes essential for detoxification, possibly compounding the inflammatory effects of modern gluten.
Einkorn requires a fundamentally different approach to baking. Reduce hydration by 15–20% compared to modern wheat recipes. Avoid kneading — use a stretch-and-fold or no-knead method instead. Watch carefully for over-proofing (aim for a 50% rise, not double). Always bake in a Dutch oven or loaf tin to compensate for the grain's lack of structural integrity. Bake to an internal temperature of 98°C (208°F) to avoid a gummy crumb.
Gina Sakic
Gina Sakic
Editor-in-Chief, GlamBon

Born in Croatia and educated in Italy and Australia, Gina's career has spanned the Melbourne International Film Festival, corporate video production, and functional nutrition. Now based in Tuscany, she writes at the intersection of culture, health, and sustainability. When not editing, she is likely hiking, practising yoga, or bravely — if slowly — mastering the art of skiing.