Complete List of Cannabinoids in Cannabis

Updated March 16, 2026 by True Hemp Science

Cannabis is often summarized through only a few familiar names, especially THC and CBD, but the plant’s chemistry is much broader than that. Modern reviews of Cannabis sativa describe a chemically complex plant containing hundreds of constituents overall and well over one hundred identified cannabinoids. For readers trying to understand the plant seriously, that broader cannabinoid landscape matters because it explains why cannabis cannot be reduced to only one or two headline compounds.

This page is a reader-facing encyclopedia of the naturally occurring cannabinoids found in cannabis. It is intentionally centered on compounds that occur in the plant itself, whether in abundant, moderate, low, or trace concentrations. That means the emphasis here is on phytocannabinoids rather than laboratory-made synthetic cannabinoids. Synthetic cannabinoids are a separate subject and not the focus of this reference.

A second important point is that cannabis often makes cannabinoids first in their acidic precursor forms. Fresh plant material is rich in compounds such as THCA, CBDA, CBGA, and CBCA. When heat, time, light, oxidation, or processing changes those molecules, they can shift into better-known neutral or transformation products such as THC, CBD, CBC, CBN, and others. That is why a complete list of cannabinoids in cannabis should include both acidic and neutral forms, as well as several lower-abundance transformation products that still arise naturally in plant material or during natural aging.

What Are Cannabinoids?

Cannabinoids are a family of compounds associated with cannabis and with the broader endocannabinoid conversation in human biology. In strict botanical terms, the compounds on this page are phytocannabinoids, meaning cannabinoids produced by the cannabis plant. They are distinct from endocannabinoids, which are made in the body, and from synthetic cannabinoids, which are manufactured in laboratories.

Many phytocannabinoids share a related core chemistry but differ in side-chain length, oxidation state, ring closure, acid vs neutral status, and other structural details. Those small chemical differences matter because they create different cannabinoid families and help explain why names like THC, THCV, THCP, CBD, CBDV, CBDP, CBC, CBL, CBE, and CBN belong to the same larger world without being interchangeable compounds.

The best-known public cannabinoids are only a small fraction of the whole set. Scientific reviews commonly organize cannabinoids into subclasses such as the THC-type, CBD-type, CBG-type, CBC-type, CBN-type, CBL-type, CBE-type, CBT-type, and several miscellaneous or transformation-derived classes. That broader system is useful because it lets a reader understand cannabinoids by their chemical relationships rather than as a disconnected glossary of names.

How Cannabis Makes Cannabinoids

One of the most important concepts in cannabinoid science is that cannabis does not begin by making finished consumer-facing cannabinoids in the exact form most people see on product labels. Instead, the plant builds its chemistry through biosynthetic pathways centered on precursor compounds. In practical educational terms, the star precursor is cannabigerolic acid (CBGA).

CBGA is widely described as a central precursor because plant enzymes can convert it into THCA, CBDA, and CBCA. Those acidic cannabinoids can later shift into their neutral forms through decarboxylation. This is one reason raw flower chemistry and heated or aged cannabis chemistry often look different. A person reading a lab report, formulating a product, or trying to understand the plant scientifically has to keep this precursor logic in mind.

Table 1. Simplified biosynthetic relationship between CBGA and three of the most discussed cannabinoid pathways.

This framework does not explain every cannabinoid on the page, but it gives readers the right way to think about cannabis chemistry: the plant makes related families of molecules, many of which are interconnected by biosynthesis, heat, oxidation, isomerization, or natural transformation over time.

Acidic vs Neutral Cannabinoids

A complete list of cannabinoids in cannabis should always distinguish between acidic cannabinoids and neutral cannabinoids. Fresh plant material is dominated by acidic forms such as THCA, CBDA, CBGA, and CBCA. When heat is applied, a carboxyl group is removed and the molecule becomes its neutral counterpart: THCA becomes THC, CBDA becomes CBD, and CBCA becomes CBC.

This distinction matters because readers often talk about “how much THC is in the plant” without realizing that a meaningful portion of what later becomes THC may originally have been present as THCA. The same principle applies to CBD and other cannabinoids. If a person wants to understand the plant as it exists biologically, the acidic forms are indispensable. If they want to understand a heated or processed product, the neutral forms become more central.

Several compounds in the lists below therefore appear as acid forms, neutral forms, varin forms, shortened-chain forms, or longer-chain analogues. That is not clutter. It is the real chemical diversity of the plant.

The Major Public-Facing Cannabinoids

Although this page is broader than the standard THC/CBD conversation, it still helps to identify the cannabinoids that anchor public understanding.

THC

Delta-9-tetrahydrocannabinol (THC) is the best-known psychoactive cannabinoid in cannabis. In fresh plant chemistry, however, it is tightly linked to its precursor THCA. A scientifically literate discussion of THC should almost always keep THCA in view.

CBD

Cannabidiol (CBD) is the best-known non-intoxicating cannabinoid and is similarly tied to its acidic precursor, CBDA. In many hemp conversations, CBDA is chemically just as important as CBD for understanding the plant.

CBG, CBC, and CBN

Cannabigerol (CBG), cannabichromene (CBC), and cannabinol (CBN) are among the most recognizable minor cannabinoids. CBG is especially important because its acidic precursor CBGA sits near the center of biosynthesis. CBC is one of the classic non-THC/CBD cannabinoid families. CBN is especially useful educationally because it helps illustrate naturally occurring transformation and aging chemistry.

THCV and THCP

THCV and THCP are excellent examples of why the term “rare cannabinoids” became popular. Both compounds help readers appreciate that THC-like chemistry exists in multiple related forms rather than one single fixed molecule.

Natural Delta-8 and Why It Matters

Delta-8-THC deserves a specific note because it is often discussed incorrectly. Delta-8 does occur naturally in cannabis, but the literature describes it as being present in very low yield or low quantities. That point matters because it is chemically and historically wrong to say delta-8 is purely synthetic. At the same time, it is also misleading to discuss most modern commercial delta-8 products as if they were simply direct plant extracts. In real commerce, much of the delta-8 market has relied on conversion rather than naturally abundant plant concentrations.

So the accurate middle position is this: delta-8 is a naturally occurring cannabinoid, but usually a trace or very low-level one in the plant, and most commercial delta-8 products are not a reflection of high natural abundance.

Cannabicyclols

The cannabicyclol family includes naturally occurring cannabinoids that are useful for understanding transformation chemistry within cannabis. These are not the compounds most readers meet first, but they belong in a serious encyclopedia because they show how cannabinoid chemistry extends beyond the familiar product categories.

Cannabichromenes

The cannabichromene family is one of the core phytocannabinoid families and is essential to any serious list of cannabinoids. CBC itself is among the better-known minor cannabinoids, but the family is broader and includes acidic and varin-related forms.

Cannabielsoins

The cannabielsoin family is less familiar to mainstream readers, which is exactly why it belongs on a full encyclopedia page. These compounds are part of the natural chemical diversity of cannabis and are often omitted from simplified online lists.

Cannabitriols

Cannabitriols are another reminder that cannabinoid chemistry is more varied than common retail language suggests. Some of these names are encountered mainly in chemistry reviews and structural catalogs rather than consumer-facing writing, but a complete cannabinoid reference should still mention them.

Cannabidiols

The cannabidiol family is broader than CBD alone. When people talk about “CBD” as if it were the whole category, they miss the plant’s acidic, varin, shortened-chain, methylated, and extended-chain diversity. A serious cannabinoid page should keep the whole family visible.

Cannabigerols

The cannabigerol family may be the most educationally important family after THC and CBD because it contains the precursor logic readers need to understand the plant. CBG itself matters, but CBGA is especially critical. If someone wants to understand how cannabis produces several major cannabinoid streams, they need to understand the cannabigerol family.

Cannabinols and Cannabinodiols

The cannabinol family is a natural place to discuss aging, oxidation, and transformation chemistry in cannabis. CBN is one of the most recognized compounds in this family, but several related names belong in a complete list.

Delta-8-Tetrahydrocannabinols

Delta-8 cannabinoids belong on this page because they are part of the naturally occurring cannabinoid record of cannabis, even if they usually appear in low quantities. For clarity, that natural occurrence does not erase the reality that most modern commercial delta-8 products are made by conversion. Both facts can be true at once.

Delta-9-Tetrahydrocannabinols

The delta-9 THC family is broader than one single compound. It includes the familiar THC molecule, several acidic precursor forms, shortened-chain analogues, varin forms, and longer-chain analogues such as THCP. For readers trying to understand why cannabis chemistry is so expansive, this family alone is a strong example.

Other Naturally Occurring Cannabinoids

Not every naturally occurring cannabinoid fits neatly into the most commonly taught families, and some compounds are mainly encountered in advanced chemistry reviews rather than consumer education. They still belong on a page like this because the point of an encyclopedia is completeness, not just familiarity.

How to Read Cannabinoid Names

A page like this becomes much easier to use once you know a few naming patterns.

Acid forms

Names ending in -acid or using the A suffix usually indicate an acidic precursor. Examples include CBDA, CBGA, CBCA, THCA-A, and THCVA.

Varin forms

Names containing varin or the V suffix usually indicate a shortened side-chain analogue, such as THCV, CBDV, CBCV, CBGV, CBTV, and CBLV.

Phorol forms

Names ending in -phorol indicate longer-chain analogues, such as THCP and CBDP.

Transformation and degradation-related compounds

Some cannabinoids become more relevant when plant material ages, oxidizes, or undergoes natural transformation. CBN is the best-known example for readers, but several other families on this page also reflect transformation chemistry.

Why This Broader List Matters

There are practical reasons to care about the full cannabinoid landscape. First, it improves scientific literacy. People who understand that the plant makes acidic precursors, transformation products, varins, and extended-chain analogues can read cannabinoid content, lab reports, and research summaries more accurately.

Second, it helps explain why cannabis cultivars, extracts, and preparations can differ so dramatically. Two products may both be described casually as “cannabis” while carrying very different balances of acidic cannabinoids, neutral cannabinoids, aging products, and low-level minor compounds.

Third, a complete list matters for thoughtful formulation, education, and research. If someone only thinks in terms of THC and CBD, they miss a large share of what the plant is doing chemically.

Final Thoughts

A true list of cannabinoids in cannabis should be broader than a marketing page and more readable than a raw chemistry index. That is the purpose of this encyclopedia: to show the plant as it actually is — a species that produces major cannabinoids, acidic precursors, minor cannabinoids, rare cannabinoids, varin analogues, phorol analogues, and several less-publicized transformation-related compounds.

THC and CBD remain important, but they are only part of the story. CBG and CBGA help explain biosynthesis. CBC and CBCA help illustrate another major cannabinoid stream. CBN-related compounds show how transformation chemistry matters. Delta-8 belongs in the conversation as a naturally occurring but typically low-level cannabinoid. THCV and THCP demonstrate that THC-like chemistry is more diverse than most simplified summaries suggest.

If the goal is to understand cannabis seriously, the right question is not just “What are THC and CBD?” It is “What is the full cannabinoid landscape of the plant?” This page is meant to answer that broader question.