Ancient ways for better dayz

Cannabis is chemically complex. THC is part of the story, alongside other cannabinoids, terpenes, flavonoids and compounds that vary by genetics, environment, harvest and handling. A potency number cannot describe all of that.

In 2023, a Columbia University–led team compared genetically identical plants from two cultivars grown indoors in artificial media and outdoors in living soil. Using chromatography and mass spectrometry, the researchers found significant differences between environments.

The outdoor samples had a greater preponderance of sesquiterpenes, including β-caryophyllene, α-humulene, α-bergamotene, α-guaiene and germacrene B. The indoor samples had more oxidized and degraded cannabinoids. It makes one point clearly: growing environment can change composition.

One of those terpenes deserves its own line. A 2008 PNAS paper showed that β-caryophyllene binds selectively to the CB2 receptor as a functional agonist. The authors called it a dietary cannabinoid. It is also found in black pepper and is not psychoactive.

A 2024 Johns Hopkins–led controlled study offers a narrower example of interaction. Twenty adults inhaled isolated THC and d-limonene in several combinations. Anxiety-like ratings decreased as the limonene dose rose, with statistically significant reductions at the highest tested combination.

Indoor and outdoor crops can both face pests, mold and contamination. We will not use a cultivation category as a shortcut for purity. We can speak for our own practice though: no synthetic pesticides, herbicides or fungicides are applied to this crop, and we do not run a synthetic feeding program.

We leave the plant alone the best we can. We do not deleaf or spray. Those are decisions to intervene on a plant that has not asked for help — and each is also a task, which is why this farm needs only a few trusted hands.

We are not going to tell you what any of that will do for you. The experience is yours to behold. Outdoor, natural flower is clearly the way to go if you are seeking the most pleasant, authentic, and potentially medicinal experience. What we can promise is that our method of one sun, one season, one harvest, and transparency of process, is what gives a unique product capable of showing off the cannabis plant's most cherished qualities.

Nothing is withheld here. The pot is kept full. What is missing is the flood: water moves through porous clay in response to the moisture gradient between the vessel and the surrounding soil. As that soil wets, the release slows.

The difference is where the control sits. A timer makes water available on a schedule. The olla makes it available at the root line, where soil moisture helps govern the rate.

Why that matters below ground. A healthy soil profile contains both solids and pore space, and those pores hold air as well as water. Roots respire; they need oxygen to function. Heavy surface irrigation can temporarily displace soil air. A slow subsurface release reduces that wet–dry swing, though rainfall and soil conditions still matter.

And the surface stays drier. During the rainless growing season, irrigation arrives beneath the weed-seed zone instead of wetting it from above. A 2025 outdoor cannabis trial compared buried dripline with conventional surface drip across three CBD-rich genotypes. Weed dry biomass was 93.2% lower and irrigation water use was 18.6% lower with the buried line.

That trial did not use ollas, and one study does not produce a universal percentage. It does support the shared principle: subsurface delivery can suppress weeds and reduce irrigation demand by keeping the surface drier. On this farm, that is part of why herbicide is unnecessary.

Roots gather densely around the outside of each vessel, where water and air meet. That is clearly visible when an Olla is lifted out of the ground after harvest.

At least two thousand years old and totally fabulous!

The native ground is dense serpentine clay and difficult to cultivate. We built beds above and into it, using wood offered to us from the forest on the property.

A trench cut two feet below grade, packed with whole logs and tree matter, layered over with leaf, chip and compost until it rises above grade and becomes a berm. The sunken half catches winter. The raised half grows the crop. It is fed once, and then it feeds itself for three decades.

How it was built took some heavy lifting. The trenches were cut below grade so they would catch and hold the winter’s water. Then the hardwood went in — and wherever we could, the rounds were stood on end rather than laid flat. Wood’s vessels run along the grain, so a round standing upright keeps its capillary path vertical and wicks moisture up toward the root zone instead of sideways along it.

Fresh wood presents one well-known problem: its carbon-to-nitrogen ratio can exceed 100:1, while microbial decomposition proceeds more readily near 30:1. At those high ratios, decomposers can immobilize nitrogen from the surrounding soil during the bed’s early years.

So we laid chicken feather meal directly onto the wood, at the interface where decomposition happens. Feather meal is nitrogen-rich and slow to break down. The intent was to supply nitrogen at the rot front rather than ask the surface soil to carry the entire demand.

Over that went the rest: live oak, black oak, madrone and fir, all harvested on site. Oak leaves, gathered here. Grape pomace from a biodynamic grower down the road. Organic compost. Worm castings.

And then we waited three years. Three full seasons of cover crop went through those beds before a single plant was grown in them for market. That is three harvests nobody took, on ground that had already cost a great deal to build — because a bed that isn’t finished becoming soil yet will tell you so, and we would rather it told the vetch than the crop.

What the wood does. Decomposing timber takes on water in the wet season and releases some of it as the bed dries. Wood also favors fungal decomposers, whose hyphae help bind soil particles into aggregates. That structure can hold water and air together. The beds are never tilled, so those networks are not mechanically broken each season.

Why that may reach the flower. Arbuscular mycorrhizal fungi — organisms that colonize roots and extend a plant’s reach into soil — can do more than improve nutrition. In medicinal and aromatic plants, mycorrhizal association has been shown to alter secondary-metabolite concentrations and the expression of genes involved in terpenoid biosynthesis. The cited literature is far broader than cannabis, so this is clearly an established mechanism.

In winter we sow the beds down. Legumes and vetch go in when the crop comes off, so the ground is never bare through the rains. Legume roots host rhizobia — bacteria that pull nitrogen out of the air and hand it to the plant in exchange for carbon. In hairy vetch, over ninety percent of the nitrogen in the crop can come from the atmosphere rather than the soil. When the cover dies back, that nitrogen stays.

So the fertility is fixed out of the sky by bacteria, not bought in a bag — and the fine root mass and vining top growth add organic matter and hold the surface against winter rain while they do it.

There is a second route. Terpenoid synthesis depends in part on phosphorus, and mycorrhizal fungi can improve access to phosphorus that roots cannot otherwise reach. In other medicinal and aromatic plants, improved phosphorus uptake has been linked to essential-oil output and glandular-trichome density.

If that sounds like a stretch, the Jura offers a useful comparison. Researchers sampled forty-four farms in the Comté appellation and traced microbial communities from grassland to soil, plants and milk. That establishes a path in another agricultural system; whether the same relationships shape this crop remains a question for direct testing.

We did not build the beds to chase a chemistry claim. We built them because the ground was difficult and the trees were here. The claim is simple: support a living soil, measure the crop, and let evidence lead the story.

Anderson Valley’s defining orientation is East to West.

That orientation opens the valley toward the Pacific Ocean. Anderson Valley — roughly twenty miles long and narrow through much of its length — funnels ocean air and fog inland along the Navarro River corridor.

Twenty miles from where that air comes in, at the warm end, on this hillside. The result is an afternoon and a night that barely belong to the same climate. Bright, hot days. Nights that fall away hard. The Boonville station puts a number on it: through the ripening months the average afternoon reaches 88°F and the night that follows falls to 53. Thirty-five degrees, daily, no machine involved.

Champagne Louis Roederer bought ground down the valley in 1982 — a year before the appellation existed — and Pinot Noir grew from 8% of planted acreage in 1983 to 69% four decades later. Cool nights are part of the climate those growers came to use.

On our crop, cold can be visible. Anthocyanins are pigments that contribute purple color, and a 2025 controlled cannabis study found the greatest accumulation at constant temperatures between 46 and 59°F in the purple inbred population it tested. Genetics, nutrition and other stresses can also affect color.

We are at the warm end, far enough inland to carry a crop to full term and to avoid having to treat for mildew or worry about molding during drying. Our valley's air is world-renowned for its uniqueness and qualities for ripening fruit and flower alike.

Our advantage on this hill is time, temperature and temperament. One peer-reviewed comparison of two cultivars, genetically identical outdoor-grown samples carried a greater preponderance of several sesquiterpenes than the indoor-grown samples. Why this matters to us:

The result supports our agricultural idea, not a promised effect: cultivation environment can shape composition. Our job is to support the conditions which make better flower possible — one place, one season, nothing added after harvest — let each tested batch say what it contains, let every experience be a resounding affirmation that nature and nurture are golden keys to success.

Cannabis has a difficult labor history: seasonal work, informal arrangements and people treated as interchangeable. A small farm should not romanticize that history or use friendship as a substitute for fair work.

The method changes the workload. Because we do not run routine spray, defoliation or synthetic-feeding programs, many repetitive tasks are absent. What remains is observation, maintenance and a short, demanding harvest.

What is left needs insight and experience. The important decisions are whether a plant is ready, whether a mark is mildew or shade, and whether touching something will help or merely satisfy the urge to act. That judgment grows through familiarity with the hillside and the method.

The people here grow herb with passion. They know why the farm does so little, and they know that restraint requires the utmost attention. Their contribution is skilled work, and the small scale makes that work meaningful.

Few hands, known well. On a hillside where much of the technique is knowing when not to act.

Masanobu Fukuoka’s four principles were these. No cultivation. No chemical fertilizer or prepared compost. No weeding by tillage or herbicide. No dependence on chemicals.

This hillside is not tilled. Winter legumes and vetch contribute nitrogen, subsurface irrigation keeps much of the dry-season surface from germinating weeds, and the crop is not routinely sprayed.

But we are not four for four. We used prepared compost and feather meal to establish these beds. We cut trenches with an excavator, shaped a pond, buried hundreds of clay pots and ran a solar pump up a hill. Calling that “do-nothing farming” would hide the largest decisions we made.

Fukuoka’s useful challenge is causal. Some farm problems are intensified by the methods meant to solve them. Dense planting, repeated surface irrigation or a broken soil structure can create the next intervention. The question is not whether action is impure. It is whether an action reduces future work or creates more of it.

We intervened early, then stepped back. The earthworks were substantial. The seasonal routine is deliberately light. The beds will keep settling into soil for decades, and clay-vessel irrigation has been used for millennia. We did much of the labor at the beginning so the hillside would need less from us in the middle.

What we took from him was never a technique. It was the question he asked of every single thing he did: what happens if I stop?

Our answers came out different from his. The question was the gift.

The distiller makes spirit. Time in oak turns that spirit into whisky.

The koji maker cultivates Aspergillus oryzae — a mold so central to Japanese food it was designated the country’s national microorganism. Temperature, moisture, air and timing determine whether the culture can do its work.

A truffle grower establishes an inoculated orchard and manages it for years before the first possible harvest. The fungus and tree still have to form the relationship.

The Ibérico farmer provides breed, landscape and movement; acorns during the montanera help shape the fat.

The Comté maker controls milk handling and cheesemaking, while breed, pasture, season and microbial communities carry information from the landscape into the process.

These makers intervene constantly. Their skill lies in working with a transformation they can influence but never command completely.

That is this farm.

We buried a forest and laid feather meal directly on the wood to reduce early nitrogen immobilization. We cut trenches below grade to catch winter rain. We stood many hardwood rounds on end to keep their vessels vertical. We put clay pots in the ground, trickled rainwater into them and let soil moisture govern the release. We sowed cover crop through those beds for three seasons and took nothing off them.

Then we stopped, and the hillside got on with it.

This is not modesty. Setting conditions commits some decisions early. We find out whether a choice made in 2020 was useful one October at a time, and by then the wood is buried and the answer is in the ground.

Every trade like this is partly defined by what it forbids. Scotch is made from water, malted barley and yeast, then matured in Scotland in oak for at least three years, with nothing added but water and plain caramel. Traditional balsamic vinegar of Modena begins with cooked grape must and moves through a battery of shrinking barrels for at least twelve years, twenty-five for extravecchio.

Comté may be made only from raw milk, only from two breeds of cow, only in the Jura, by the village dairy. No silage may be fed to those animals, ever, and each cow must have more than a hectare of grazing to herself.

In Comté’s case researchers sampled forty-four farms and followed microbial communities from grassland to soil, plants and milk. Those communities varied with soil pH, plant diversity, elevation and farming practice. The study shows a traceable path through one agricultural system.

That is an analogy, not evidence about cannabis chemistry. It demonstrates that place can remain legible through a food chain. Our flower still has to be tested on its own terms. The soil is not merely a substrate; it is one of the conditions we choose to make visible.

None of those rules describe what the maker adds. They are lists of what is restricted.

What we restrict: synthetics, pesticides, herbicides, fungicides, creek water, lights, the plow.

Creating and supporting optimal conditions for growth is our work.