Reference Points for Major Compounds
The table organizes the verified reference values supplied for this site. Aromas identify the familiar scent family associated with each terpene; they are descriptions, not predictions about a person's experience. CBD is shown as a range because the underlying sources do not agree on one value.
| Compound | Reference point | Descriptive note |
|---|---|---|
| Caryophyllene | 266°F / 130°C | Peppery; also present in black pepper and cloves |
| Pinene | 311°F / 156°C | Pine and rosemary; alpha and beta forms |
| THC | 315°F / 157°C | Neutral chemical reference |
| Myrcene | 334°F / 167°C | Musky and earthy; common in cannabis |
| Limonene | 349°F / 176°C | Bright citrus |
| Linalool | 388°F / 198°C | Floral and lavender |
| CBD | 320–356°F / 160–180°C | Range reflects disagreement among sources |
Why Boiling Point Is Not the Whole Story
A boiling point is a laboratory reference for a compound, not a complete model of a cartridge or concentrate chamber. A device displays or implies a heat level, while the material experiences changing temperature across space and time. That difference is why the table should guide comparison instead of being treated as an exact recipe.
Time matters alongside heat. A compound may leave gradually below its boiling point, and a higher setting can make that process happen faster. The sensible use of the table is to understand relative order and volatility while observing the behavior of the actual extract and hardware.
Start Low and Change One Step at a Time
Beginning low creates a readable baseline. Allow the device to reach its setting, use the same operating method, and observe whether the material moves and vaporizes consistently. If it does not, raise the setting one small step rather than jumping across the control range.
Change only temperature when comparing settings. A different draw length, hardware position, or amount of material makes the comparison harder to interpret. A gradual sequence helps separate a temperature issue from an airflow, contact, or loading issue.
Match the Starting Range to the Extract
Live rosin is the low-temperature starting point in this guide. Its production already uses controlled press temperatures: hash rosin is pressed at 160–190°F, with a 130–170°F cold-press range producing a buttery consistency, while temperatures above 200°F degrade terpenes and 200–220°F favors yield and darker rosin.
Live resin sits in the middle because its fresh-frozen, low-temperature process is designed to preserve volatile material. Diamond-based extracts start higher in this relative sequence. The order is a practical comparison among these three extract families, not a universal number for every device or formulation.
Read Too-Cold and Too-Hot Signals
A too-low setting may leave the material moving slowly or inconsistently over the available time. Before raising it, confirm that the device has reached temperature, that airflow is open, and that the extract is contacting the heated area as intended. Temperature cannot correct a blocked path or poor loading.
At the other extreme, unusually rapid material change, darkening, or a loss of distinct aroma are reasons to step back. These are observable process signals, not medical or effect claims. Reduce the setting, let the system stabilize, and compare one controlled step at a time.
Keep a Simple Temperature Method
Use the same sequence each time: identify the extract, begin at the lower appropriate part of the device's range, allow time, observe material behavior, and make one small adjustment. Keep the compound table nearby for context, but do not chase a terpene's exact boiling point on the display.
Device scales and production methods vary, especially for liquid diamonds, whose controlled crystal-to-sauce ratio differs by producer. The label and hardware instructions belong in the decision. The useful goal is stable operation with a gradual adjustment path, not the highest number a device can reach.
Compare Settings With the Same Reference
A simple written note can keep the comparison honest: identify the extract family, device setting, and observable material behavior. The purpose is not to create a universal chart from one product. It is to avoid forgetting which variable changed and then crediting temperature for a difference caused by hardware, airflow, or loading.
Return to the supplied table as a chemical reference and to the package as the product reference. Together they provide better context than either one alone. The table orders selected compounds; the package identifies the actual extract and formulation being operated in the device.