The Numbers That Defend the Claim
Documented yield from actual operational runs — not laboratory projections, not modelled estimates. These numbers carry the weight of the physics, and they matter because they are the foundation of every unit economics conversation in solventless cannabis.
(4.85% – 12.12%)
(9.92% – 24.91%, dry weight)
Why Whole-Plant Flower Outperforms Cured Trim
The differential is not a machine advantage — it is a material property. Whole-plant flower carries far more trichome mass per gram than leaf trim does: the resin glands concentrate on the bracts and the small sugar leaves around the bud, not on the larger fan and stem material that makes up the bulk of trim. Feed material that is denser in trichomes into the same separation process and more trichome comes out per pound. That is the whole of it.
A note on what these numbers measure, because it is the most common place yield data misleads. Both ranges are dry-weight figures — grams of finished hash per pound of dried input, whether that input is dried trim or dried whole-plant flower. Yield is never quoted per pound of fresh-frozen (wet) material: fresh-frozen biomass is roughly three-quarters water, so a wet pound holds only about 110 g of actual dry plant mass, and 45–113 g of hash from one wet pound would be physically impossible. Fresh-frozen flower is a genuine premium input — flash-freezing preserves trichome heads and terpenes that drying degrades — but its yield is still reported on the dry-weight-equivalent basis shown here, not on its wet weight.
Within the trim range, the upper end — 55 g/lb — represents well-preserved trim from high-trichome cultivars processed under optimal conditions. The lower end represents older material, lower-density genetics, or trim that has been mishandled prior to processing.
How to Read Yield Data Without Being Misled
Yield claims in the solventless industry are frequently presented as single numbers — “we got 7%” or “our best run hit 15%.” Single numbers are not yield data. They are yield events. The question that matters is: what is the floor, what is the ceiling, and what is the documented run-to-run variance?
A process with high average yield and high variance is a process that depends on luck or skill to achieve its best numbers. A process with lower average yield and near-zero variance is a process you can build a production schedule around. For licensed producers planning commercial-scale solventless operations, repeatability is not a secondary consideration — it is the primary one.
Recipe-driven separation collapses run-to-run variance. Same input, same recipe, same conditions — same output. That is defensible to industry benchmarks. That is what moves solventless cannabis from craft output to documented production.
The Medical and Pharmaceutical Threshold
For producers on a pharmaceutical pathway, yield data must meet a higher standard than “here are our numbers.” Pharmaceutical documentation requires demonstrated repeatability across batches, traceability from input to output, and a process architecture that can be validated independently. Ice-water processing cannot meet that standard — not because of the numbers, but because the variables that determine the numbers are not controlled.
When the conditions are held constant by the system rather than managed by the operator, the output becomes documentable in the way pharmaceutical production requires. The medical-grade configuration of Abzu Refinery is built to the pharmaceutical-grade standard for cold water trichome processing. The yield data above was produced by the same architecture.
What It Proves for Unit Economics
Less loss between input and output. More output per labour-hour. Numbers that are defensible to auditors, investors, and regulators — not anecdote. When margin returns to the operator, medical and pharmaceutical-grade audiences engage. That is the commercial case for understanding what your yield data actually says — and what the process producing it is actually capable of.