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Breeding Science November 04, 2026
Redesigned Scientific Post

From Soybean Genomics to Cannabis Genetics: The Translational Science Behind Trilogene's Triploid Program

Every elite cannabis strain Trilogene Seeds releases carries a little bit of soybean science in its DNA — not literally, but methodologically. That connection runs through one p...

Every elite cannabis strain Trilogene Seeds releases carries a little bit of soybean science in its DNA — not literally, but methodologically. That connection runs through one person: Dr. Oussama Badad, Trilogene's Lead Geneticist, whose path into cannabis breeding started in a field most people would never associate with it.

A geneticist trained on one of the world's most studied crops

Before cannabis, Dr. Badad built his research career on soybeans — a crop with none of cannabis's regulatory baggage and decades of serious, well-funded genomic research behind it. He holds a PhD earned through a joint doctoral program between Mohamed V University in Rabat, Morocco, and Southern Illinois University Carbondale, with a research focus on epigenetics and functional genomics: the study of how genes are switched on and off, and how that activity translates into real, measurable traits in a living plant.

In the soybean world, that expertise wasn't academic for its own sake. It was applied directly to problems growers and processors actually care about: seed quality, oil content, and resistance to disease. These are the same categories of problems — vigor, yield quality, resilience — that cannabis and hemp breeders wrestle with today, just without the benefit of a century of institutional agricultural research to draw on.

Why soybean science translates to cannabis

Cannabis breeding is still a young science by comparison. Much of the industry relies on observational, trial-and-error selection — grow it, look at it, keep the plants that turn out well, repeat. That approach works, slowly, but it leaves a lot on the table compared to crops where breeders can draw on functional genomics: understanding why a plant expresses a trait, not just observing that it does.

This is the gap Dr. Badad's background fills. Functional genomics and epigenetics don't care what species they're applied to — the underlying tools for understanding gene expression, trait inheritance, and chromosome behavior are the same whether you're studying a soybean's oil content or a cannabis plant's cannabinoid profile and reproductive biology. What changes is the crop. The science transfers.

That's the core idea behind Trilogene's approach, and the reason the company positions itself around applying translational knowledge from established row-crop science to cannabis and hemp genetics, rather than treating cannabis breeding as its own isolated discipline.

The clearest proof point: triploid genetics

Trilogene's most technically demanding breeding work — its triploid (three-chromosome-set) genetics program — is also the clearest example of this translational approach in action. Polyploid breeding (manipulating the number of chromosome sets a plant carries) is a well-established technique across mainstream agriculture; it's the same category of science behind seedless watermelon and other seedless fruit crops developed decades ago. Applying it rigorously and reliably to cannabis requires exactly the kind of functional genomics grounding Dr. Badad developed working on a staple row crop long before he ever touched a cannabis plant.

Verifying that a triploid cross actually produced a stable, true triploid plant — rather than a diploid or an unstable mix — isn't guesswork. It requires the same kind of rigorous genomic verification used in mainstream crop breeding programs, applied here to confirm chromosome count and stability before a line ever reaches a customer.

What this means for growers

For growers, the practical upshot is simple: genetics developed with real plant-science rigor behind them, not just selected by eye. A seed line bred under functional-genomics-informed methodology has gone through a more deliberate verification process — checked, not just chosen — before it's offered for sale. That's the difference Trilogene is trying to build its reputation on: a breeding program grounded in transferable plant science, led by someone who proved that science out in one of agriculture's most demanding, most studied crops before bringing it to cannabis.

Dr. Badad's story isn't a marketing angle bolted onto Trilogene's positioning after the fact — it's the literal, concrete version of what "translational genetic science" means. It's one scientist, one set of tools, applied first to soybeans and now to cannabis, with the same rigor both times.


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