Confidential  ·  Internal document  ·  Not to be distributed outside Bonner Biotech LLC
Bonner Natural Health

Phytocannabinoid Ingredient Rationale and Scientific Validation

Suppositories. The reasoning, evidence base, and delivered-dose breakdown behind a broad-spectrum cannabinoid suppository line, written for the practitioner without prior endocannabinoid background. Bonner Biotech LLC, Denton, Texas.
Brand
Bonner Natural Health
Version
4.0, 2026
Audience
Internal only
Base Distillate
CRD, Lot BK-26-045

Document Status

This is an internal scientific reference for Bonner Biotech LLC. It records the formulation rationale, evidence base, and delivered-dose validation for the suppository line, and it contains proprietary composition data and cannabinoid ratios. It is not a patient-facing or practitioner-facing handout, and it is not intended for distribution outside Bonner Biotech LLC. The clinical applications described identify the molecular pathways and patient contexts that informed the formulation design, not claims of efficacy.

Recorded for internal accuracy: no statements herein have been evaluated by the Food and Drug Administration, and these products are not intended to diagnose, treat, cure, or prevent any disease. The Advanced Care with Delta-8 and Neuro Complex formulations contain Delta-8 tetrahydrocannabinol, which is psychoactive and will register positive on standard urine drug screening.

Reading the Dosing Evidence: a Multi-Cannabinoid Formulation, Not a CBD Product

Almost all of the published human dosing evidence for cannabinoids has two features that must be stated plainly at the outset, because they define both what the literature supports and what it does not describe. First, the strong evidence is for cannabidiol as a single isolated molecule. Second, it is almost entirely an oral evidence base. The representative oral, single-molecule CBD doses are recorded below for completeness.

Use context (single-molecule CBD, oral) Representative daily CBD
General use and chronic painapproximately 25 to 150 mg per day
Acute anxiety, single dosesapproximately 300 to 600 mg per day
Parkinson's disease, exploratory trial300 mg per day
Refractory epilepsy, approved oral solution10 to 20 mg per kg per day (about 700 to 1,400 mg per day at 70 kg)
CBD-rich extract versus purified CBD, epilepsy6.0 versus 25.3 mg per kg per day

Why this is the wrong yardstick for this line. This product is not a CBD product, and it is not oral. Each suppository delivers ten to twelve phytocannabinoids together, CBD, CBG, CBN, CBDa, CBGa, and CBC raised by isolate, alongside the distillate-borne CBDV, CBE, CBTC, and CBL, with Delta-8 added in the two psychoactive variants. To read such a formulation through the lens of its CBD content alone, and to benchmark it against single-molecule oral CBD dose bands, misrepresents what it is and what it is designed to do. The single-molecule figures above are therefore recorded as the boundary of the existing evidence, not as the measure of this line.

The relevant evidence is the evidence on whole, multi-cannabinoid preparations, and it points in a consistent direction: a cannabinoid matrix achieves its effect at substantially lower per-cannabinoid doses than purified CBD, roughly a quarter of the dose in the epilepsy meta-analysis, and without the bell-shaped ceiling that limits the isolate (sections three and six). The clinical weight of a Bonner Natural Health suppository comes not from any single cannabinoid reaching a high milligram figure, but from a combined load of 165 to 475 mg across ten to twelve cannabinoids engaging the inflammatory and immune targets (TNF-alpha, CB2), the oncological targets (AKT1, CASP9, PRKCA and PRKCB), and the neurodegenerative targets across all four pharmacology modules at once. That breadth of simultaneous target coverage at a meaningful combined dose is the basis on which the line is positioned as an adjunct in autoimmune and oncological contexts, under practitioner supervision. No single-cannabinoid oral product attempts this, which is precisely why its dosing literature is not the comparator.

On the route. Rectal delivery is used to avoid the poor and erratic oral route, where CBD reaches circulation at only around 6 per cent because of poor solubility and heavy first-pass liver metabolism. The rectal route partially bypasses that first-pass step and is reliable for patients who cannot take oral, including those with nausea or gastrointestinal disease. The absolute systemic bioavailability of unmodified rectal cannabinoids has not been quantified in controlled human study, so this document rests the route on first-pass avoidance, tolerability, and patient access rather than on a specific bioavailability advantage. The case for the formulation does not depend on that figure.

01 — Overview

What This Line Is, and What Makes It Different

This is a five-formulation phytocannabinoid suppository line built on a single design principle: a naturally produced broad-spectrum cannabinoid base, then targeted single-cannabinoid isolates added on top to raise specific cannabinoids to clinically meaningful doses. That combination, a broad-spectrum base plus selective isolate boosting, is uncommon. The greater part of the hemp market sells either single-molecule isolate products, which discard the rest of the plant, or unmodified full and broad-spectrum extracts, which leave the formulator with whatever ratios the extract happened to contain. This line takes the evidence-backed advantages of the whole-plant matrix and then corrects its main weakness, that the therapeutically interesting minor cannabinoids usually sit at concentrations too low to do useful work.

The sections that follow build the case from first principles. Section two is a short primer on the endocannabinoid system for readers who have not worked with it. Section three sets out the formulation thesis and compares it directly against isolate-only and unboosted-extract approaches, with the supporting literature. Section four explains why a crystal resistant distillate is used as the base. Sections five through nine give the validated composition, the per-cannabinoid pharmacology, the dosing rationale, and the delivered doses. All cannabinoid figures are delivered doses, the quantity reaching the patient in a single 2 ml suppository.

IDFormulationDelivered per capsuleDelivered per 30 unitsPsychoactive
T1Foundation165 mg4,950 mg (4.95 g)No
T2Active Care340 mg10,200 mg (10.2 g)No
3AAdvanced Care, non-psychoactive455 mg13,650 mg (13.65 g)No
3BAdvanced Care with Delta-8475 mg14,250 mg (14.25 g)Yes
NCNeuro Complex400 mg12,000 mg (12.0 g)Yes
02 — Background

The Endocannabinoid System in Brief

The endocannabinoid system is a signalling network that helps the body hold itself in balance. Where blood pressure, blood sugar, and body temperature each have regulatory mechanisms that pull them back toward a set point, the endocannabinoid system performs a comparable balancing role across the nervous, immune, digestive, and endocrine systems. It does not drive a single function so much as moderate many of them, damping signalling that has run too high and supporting it where it has fallen too low.

It has three working parts. First, two principal receptors: CB1, concentrated in the brain and nervous system, and CB2, concentrated in immune and peripheral tissue. Second, the body's own signalling molecules that act on those receptors, the endocannabinoids anandamide and 2-AG. Third, the enzymes that build and break down those molecules, principally FAAH, which clears anandamide, and MAGL, which clears 2-AG. The resting activity of this network is often described as endocannabinoid tone.

Plant cannabinoids interact with this system in two ways. Some bind the receptors directly, as THC and, more weakly, CBN do at CB1. Others act indirectly or at neighbouring targets, as CBD does by slowing the breakdown of anandamide and by acting at the TRPV1 ion channel, the 5-HT1A serotonin receptor, the PPAR-gamma nuclear receptor, and GPR55. This is the key point for what follows: the cannabinoids in this line act not at one target but across a panel of them, CB1, CB2, TRPV1, GPR55, PPAR-gamma, and 5-HT1A among others. A formulation that engages several of these at once is doing something different from a single molecule acting at a single site, and the next section explains why that breadth is the foundation of the dosing approach.

03 — The formulation thesis

Why Broad-Spectrum Base Plus Targeted Isolates

There are three broad ways to formulate a cannabinoid product. Each has a defensible place, and the differences between them are not marketing distinctions but measurable pharmacology. The first is isolate only, a single purified cannabinoid, almost always CBD, with everything else removed: precise and inexpensive, but limited by the bell-shaped dose-response that gives it a narrow effective window, by single-target action, and by more frequent adverse effects at the doses required. The second is an unboosted full or broad-spectrum extract used as it comes: this recovers the entourage effect and a clean dose-dependent response, but locks the formulator to whatever ratios the extract happens to contain, which are CBD-dominant and leave the therapeutically interesting minors too low to reach a meaningful dose. The third, and the approach of this line, is a broad-spectrum base plus targeted isolates: the distillate supplies the matrix and its favourable dose-response, and individual isolates are then added to raise the clinically relevant cannabinoids to doses where their documented target engagement becomes meaningful, giving coverage across all four pharmacology modules at once. It asks more of the formulator, including the per-lot correction addressed in section five, and that is the trade it makes.

The evidence for the whole-matrix advantage

The bell-shaped limitation of purified CBD is not theoretical. In a controlled comparison, purified CBD given to mice produced a bell-shaped dose-response in anti-inflammatory and anti-pain testing, effective only in a narrow middle band, while a CBD-rich whole extract produced a clean dose-dependent response that kept improving as the dose rose. The authors attributed the difference to the other plant constituents working alongside CBD (Gallily, Yekhtin and Hanus, 2015).

The clinical signal points the same way. A meta-analysis of observational data in treatment-resistant epilepsy found that patients on CBD-rich extracts reached comparable responder rates to those on purified CBD at roughly a quarter of the dose, an average of 6.0 against 25.3 mg per kg per day, and with significantly fewer mild and severe adverse effects. The honest caveat, which a careful reader will want stated, is that at the strict threshold of a 50 per cent or greater seizure reduction the responder rates did not differ significantly between the two; the extract's advantage was in dose efficiency and tolerability rather than in raw ceiling efficacy (Pamplona, da Silva and Coan, 2018). The mechanistic basis for these observations is the entourage effect, the synergy between cannabinoids and terpenes first framed in the modern literature by Russo (2011).

Taken together, these findings justify the central design choice. A broad-spectrum base is preferred over isolate because it carries the matrix that flattens the bell curve and lowers the effective dose. Targeted isolates are then added because the base alone cannot deliver the minor cannabinoids at the doses the pharmacology calls for. This is the synthesis the line is built on.

04 — The base material

Why a Crystal Resistant Distillate Base

The choice of base material is itself a point of differentiation, and it is the mechanism by which the rare minor cannabinoids enter the formulation without having to be bought and added one by one. Ordinary CBD distillate is a problem for a broad-spectrum formulator. Above roughly 60 per cent CBD it crystallises, the CBD molecules stacking into a solid that ruins a batch, and the standard industry response is to push the CBD purity even higher, which strips the minor cannabinoids out almost entirely. CBD isolate, at the far end of that process, contains no minors at all.

A crystal resistant distillate is engineered for the opposite outcome. The minor cannabinoids are precisely what interrupt CBD crystallisation, their differing molecular shapes preventing the CBD from packing into an ordered lattice, so a distillate formulated to stay liquid is by necessity a distillate that retains a high minor cannabinoid fraction. Crystal resistant material of this type typically carries on the order of 15 to 25 per cent minor cannabinoids alongside its CBD, a far broader profile than ordinary distillate holds and a world apart from isolate. The current production lot reflects this directly, carrying meaningful quantities of CBG, CBN, CBC, CBE, CBTC, CBDV, and CBL, set out in the next section.

The practical consequence is that the base supplies the rare minors as a natural, balanced fraction rather than as a stack of separately purchased single-cannabinoid isolates. The targeted isolate additions are then reserved for the specific cannabinoids the pharmacology singles out for elevation. This is the structural reason the line can claim genuine broad-spectrum coverage with a controlled, repeatable composition, and it is an approach that comparatively few formulators take.

05 — Base distillate characterisation

Crystal Resistant Distillate, Lot BK-26-045

The certified profile of the current production lot is set out below, each cannabinoid expressed as a percentage of distillate mass. This is the matrix on which every formulation is built.

Cannabinoidmg per gPer cent of mass
Cannabidiol (CBD)508.850.88
Cannabigerol (CBG)72.67.26
Cannabielsoin (CBE)46.64.66
Cannabinol (CBN)33.93.39
Cannabichromene (CBC)31.33.13
Cannabicitran (CBTC)30.33.03
Hexahydrocannabinol-type (9S-HHCH)10.21.02
Cannabidivarin (CBDV)9.00.90
Cannabicyclol (CBL)4.60.46
Total THCNone detectedNone detected
Total cannabinoids700.770.07

The distillate carries no detectable total THC, confirming the non-psychoactive character of the base before any isolate addition. Independent third-party testing under ISO/IEC 17025 accreditation confirms the lot passed pesticide, heavy metal, and residual solvent screening.

Why the distillate-derived breakdown is lot-specific

The crystal resistant distillate is a naturally produced broad-spectrum hemp distillate. It is not a synthesised or reconstructed material, so its cannabinoid distribution is characteristic of the specific production lot and will vary from one lot to the next.

Each formulation doses the distillate by mass, so the headline total active load per capsule stays constant across lots. What shifts between lots is the internal composition of the distillate-derived fraction, that is, how much of each minor cannabinoid the base contributes. The isolate additions are near-pure single-molecule inputs and do not vary. When a new distillate lot is brought into production, the distillate-derived figures in this document should be re-read against that lot's certificate of analysis, while the isolate quantities remain fixed exactly as specified.

Worked example, distillate contribution at 80 mg input

To illustrate, the Foundation formulation doses 80 mg of distillate. Using the lot BK-26-045 profile above, that 80 mg contributes the following cannabinoid mass to the capsule. The same calculation re-derives for any input quantity and any future lot.

Cannabinoid from distillateContribution per 80 mg input
CBD40.70 mg
CBG5.81 mg
CBE3.73 mg
CBN2.71 mg
CBC2.50 mg
CBTC2.42 mg
CBDV0.72 mg
CBL0.37 mg
Total cannabinoids from 80 mg distillate56.06 mg

For Foundation, the distillate-derived CBD of approximately 40.7 mg adds to the 20 mg CBD isolate for a net delivered CBD of approximately 61 mg per capsule, within the validated chronic pain therapeutic band. Net per-cannabinoid figures for the other formulations scale proportionally with distillate input and re-derive against the active lot.

06 — Evidence base

Network Pharmacology Foundation

A 2022 network-based pharmacology study (Li, Kudke, Nepveux and Xu, Applied Sciences 12:2205) provides a systems-level characterisation of cannabinoid-protein interactions. Using molecular docking simulation against 18 essential protein targets, the authors mapped eight key cannabinoids to four functional modules that together cover the major disease categories where cannabinoid therapy has documented or proposed utility. This line is anchored to that evidence base, with each cannabinoid selected for its measurable binding affinity to disease-relevant protein targets. This is the analytical counterpart to the dose-response argument of section three: the matrix lets cannabinoids work at lower doses, and the network analysis identifies which cannabinoids to elevate and why.

The four functional modules

Module 1 engages amyotrophic lateral sclerosis, hepatocellular carcinoma, prostate cancer, and oxidative stress pathways through CAT, COMT, CYP17A1, GSTA2, GSTM3, GSTP1, and HMOX1. Ligands: CBD, CBDa, Delta-9-THC, CBN, CBC.

Module 2, the largest module, engages Huntington's, Parkinson's and Alzheimer's pathways, multiple cancer pathways, type 1 and 2 diabetes, and rheumatoid arthritis through AKT1, CASP9, PLCG1, PRKCA, and PRKCB. Ligands: CBD, CBDa, Delta-9-THC, CBN, CBC, CBGa.

Module 3 engages inflammatory bowel disease, ulcerative colitis, and type 2 diabetes through CYCS and TNF. Ligands: CBG, Delta-8-THC, CBD, CBDa.

Module 4 engages epilepsy, Alzheimer's, Parkinson's, Huntington's, and ALS through CNR1, CNR2, CREB1, and GRIN2B. Ligands: Delta-8-THC, Delta-9-THC, CBC, CBD, CBDa, CBG, CBGa, CBN.

Binding affinities of the formulation cannabinoids

Binding energy below minus 5.0 kcal per mol indicates strong binding, and below minus 8.0 kcal per mol indicates very strong binding. The most clinically relevant findings are tabulated below.

CannabinoidTargetAffinity (kcal/mol)Relevance
CBDaTNF-alpha-10.5Strongest TNF inhibitor in the line
Delta-8-THCTNF-alpha-10.4Matches CBDa for TNF binding
CBNCNR1 (CB1)-9.4Strongest CB1 binder tested
CBDCNR2 (CB2)-9.2Strong CB2 immunomodulation
CBDAKT1-8.8Cell survival, growth factor signalling
CBDaAKT1-8.8Cell survival, growth factor signalling
CBNPRKCB-8.5Cell cycle and cancer signalling
CBNCNR2 (CB2)-8.5Immune modulation
Delta-8-THCCNR2 (CB2)-8.0CB2 dual agonism
Delta-8-THCGRIN2B (NMDA)-7.6Unique to Delta-8 in this line

No single cannabinoid covers all four functional modules. Comprehensive coverage for chronic and complex presentations requires multiple ligands binding multiple targets across multiple modules, which is the central principle on which this line is built.

07 — Per-cannabinoid rationale

Cannabinoid Breakdown

Crystal Resistant Distillate (CRD)

Role
The broad-spectrum backbone of the line. The entourage matrix of the distillate delivers the synergistic, dose-dependent action described in section three. The distillate scales across formulations because the matrix shows a clean dose-response across the validated human therapeutic range.
Network pharmacology
Through its constituent cannabinoids the distillate engages all four functional modules simultaneously, providing the broad baseline coverage that the targeted isolates then build upon for specific clinical applications.

Cannabidiol (CBD) isolate

Mechanism
Indirect endocannabinoid system modulation via FAAH inhibition and allosteric CB1 modulation, with secondary action at TRPV1, 5-HT1A, PPAR, and GPR55 antagonism. Strong CB2 binding affinity at minus 9.2 kcal per mol.
Network pharmacology
The highest degree centrality of any cannabinoid, engaging 126 protein targets. Essential binding partner for AKT1, CASP9, CAT, CYP17A1, PRKCA, CNR1, and CNR2, spanning Modules 1, 2, and 4. Pro-apoptotic action is mediated via CASP9 activation.
Clinical role
A top-up cannabinoid that brings the total delivered CBD load, distillate-derived plus isolate, into the validated chronic pain therapeutic band of 25 to 150 mg per day.

Cannabigerol (CBG)

Mechanism
Direct CB1 and CB2 partial agonism, alpha-2 adrenoceptor agonism, TRPA1 modulation, and PPAR activation. The CBG quinone derivative neuroprotection pathway is of particular relevance to Parkinson's research.
Network pharmacology
Essential binding partner for CYCS (cytochrome c) in Module 3, engaging CNR1 and CNR2. The CYCS engagement is mechanistically significant for the apoptotic cell death pathway.
Clinical role
A multi-pathway cannabinoid contributing direct receptor engagement and neuropathic pain relevance, of particular interest where peripheral neuropathy accompanies oncology care.

Cannabinol (CBN)

Mechanism
CB1 partial agonist and the strongest CB1 binder tested at minus 9.4 kcal per mol, CB2 active at minus 8.5, with TRPA1 activity, sedative and analgesic action, anti-proliferative signal in several cancer cell lines, osteoblast stimulation, and appetite support relevant to cachexia.
Network pharmacology
The broadest single-cannabinoid coverage of essential proteins in the line, binding CNR1, CNR2, PRKCB, PRKCA, GSTP1, COMT, HMOX1, GSTM3, GSTA2, and CREB1. The COMT binding is relevant to disrupted catecholamine metabolism in Parkinson's, and the protein kinase C binding addresses cancer cell cycle regulation.
Clinical role
A multi-pathway cannabinoid. Sedation is one role but not the dominant one for chronic use. The anti-proliferative, immunomodulatory, and COMT-related profile supports scaling with clinical severity.

Cannabidiolic Acid (CBDa)

Mechanism
Selective COX-2 inhibitor with roughly 100 times the 5-HT1A receptor affinity of CBD, TRPV1 and TRPA1 modulation, and multi-pathway anti-inflammatory activity. Bioavailability is approximately four to five times that of CBD.
Network pharmacology
The strongest TNF-alpha binder in the cannabinoid family at minus 10.5 kcal per mol, also binding AKT1, CAT, CYP17A1, CASP9, PRKCA, CNR1, and CNR2 across Modules 1, 2, 3, and 4. This is the strongest documented anti-inflammatory interaction in the line.
Clinical role
A multi-pathway cannabinoid with the strongest anti-inflammatory profile in the line, scaled with severity according to inflammation pathway engagement.

Cannabigerolic Acid (CBGa)

Mechanism
COX-2 inhibition and PPAR agonism.
Network pharmacology
Essential binding partner for PLCG1 in Module 2, with CNR1 and CNR2 binding. PLCG1 engagement is linked to growth factor receptor and cancer signalling pathways.
Clinical role
An acidic cannabinoid contributing COX-2 and PPAR engagement, complementary to CBG. Held at 72 per cent isolate purity and dose-corrected at the bench.

Cannabichromene (CBC)

Mechanism
Selective CB2 agonist and the most potent phytocannabinoid activator of TRPA1, with anandamide reuptake inhibition, MAGL inhibition, documented neurogenic activity (one of the few cannabinoids with this property), and antidepressant signal.
Network pharmacology
Binds PRKCA, PRKCB, GSTP1, HMOX1, GSTM3, GSTA2, CNR1, and CNR2 across Modules 1, 2, and 4. The HMOX1 and glutathione transferase binding addresses oxidative stress pathways relevant to both oncology and neurology.
Clinical role
A multi-pathway cannabinoid with particular value in oncology adjunct through synergy with CBD, and in neurology through neurogenesis support.

Delta-8 Tetrahydrocannabinol (Delta-8-THC)

Mechanism
CB1 and CB2 dual partial agonist with lower psychoactivity than Delta-9-THC, at roughly two-thirds the potency. Antiemetic via brainstem CB1, NMDA receptor modulation via GRIN2B, appetite support at low doses.
Network pharmacology
TNF-alpha binding at minus 10.4 kcal per mol, matching CBDa, and the only cannabinoid in this line that binds GRIN2B at minus 7.6, with CB1 at minus 7.9 and CB2 at minus 8.0, across Modules 3 and 4. The GRIN2B and NMDA modulation addresses the glutamate excitotoxicity pathway central to neurodegenerative disease.
Clinical evidence and dosing
A 1995 paediatric chemotherapy study reported that Delta-8 prevented vomiting across a small cohort of children undergoing chemotherapy, with minimal side effects, and preclinical work has reported CB2-mediated antiproliferative signal in several cancer cell lines. The 20 mg dose used in Advanced Care with Delta-8 sits at the upper end of the published 5 to 30 mg therapeutic window without overwhelming psychoactivity. The Neuro Complex dose of 10 mg is half this, calibrated for older and neurodegenerative patients while preserving NMDA modulation and TNF binding.

Additional cannabinoids within the broad-spectrum distillate

The cannabinoids above are either the distillate backbone or the targeted isolate additions. The distillate also delivers a set of minor cannabinoids that are not separately boosted, present at the natural ratios of the production lot and therefore variable from lot to lot. These minors are not part of the network pharmacology docking dataset, so their contribution is best understood as part of the broad-spectrum entourage matrix rather than as a discretely dosed target. They are characterised honestly below, including where the published pharmacology is limited.

Cannabidivarin (CBDV)

Mechanism
The propyl homologue of CBD, non-psychoactive. Modulates and desensitises transient receptor potential channels, including TRPV1, TRPA1, and TRPM8. An anticonvulsant signal has been reported in preclinical seizure models and early-phase human epilepsy work, with additional research interest in neurodevelopmental contexts.
Role in the line
A characterised minor cannabinoid that broadens the non-psychoactive TRP-channel and entourage profile of the distillate. Present at approximately 0.90 per cent of distillate mass in the current lot.

Cannabielsoin (CBE)

Mechanism
A naturally occurring oxidative transformation product of CBD. Its pharmacology is not well characterised in the published literature, and no defined receptor target has been established for it.
Role in the line
A natural constituent of the broad-spectrum matrix rather than a targeted active. Present at approximately 4.66 per cent of distillate mass in the current lot, it is one of the more abundant minors and is reported here for transparency.

Cannabicitran (CBTC)

Mechanism
A minor cyclised cannabinoid with limited characterised pharmacology. No defined receptor activity has been established in the published literature.
Role in the line
A natural constituent of the distillate contributing to the broad-spectrum composition. Present at approximately 3.03 per cent of distillate mass in the current lot.

Cannabicyclol (CBL)

Mechanism
A photochemical conversion product of CBC formed naturally as an extract matures. No significant receptor activity has been characterised for it.
Role in the line
A trace natural constituent and a marker of a mature, broad-spectrum extract rather than an active contributor. Present at approximately 0.46 per cent of distillate mass in the current lot.

Hexahydrocannabinol-type (9S-HHCH)

Mechanism
A hydrogenated cannabinoid of the HHC family. Compounds of this type show partial CB1 agonism and can be mildly psychoactive at higher exposure, though the quantity delivered here is small.
Role and note
Present at approximately 1.02 per cent of distillate mass in the current lot as a natural constituent of the distillate. HHC-type cannabinoids sit in an unsettled regulatory position, so this entry can be removed from the document if preferred. It is listed here only to reflect the certificate of analysis accurately.
08 — Dosing rationale and formulation detail

How the Doses Are Set

The dosing structure follows directly from the evidence in sections three and six, and it is worth stating the logic plainly because it runs counter to a common assumption. The aim is not to maximise the dose of any single cannabinoid. It is to achieve broad target coverage at sensible per-cannabinoid doses, because the matrix raises the effective potency of the whole and a single cannabinoid pushed too high runs into its own bell-shaped ceiling. The extract data showing comparable effect at roughly a quarter of the isolate dose is the quantitative warrant for keeping individual cannabinoids moderate while combining many of them.

Three rules govern the numbers. First, the net delivered CBD, distillate-derived plus isolate, is brought into the validated chronic pain therapeutic band of 25 to 150 mg per day. Second, each targeted minor cannabinoid is raised by isolate addition to a dose at which its documented target engagement, set out in section seven, becomes meaningful, a dose the broad-spectrum base cannot reach on its own. Third, the total load is scaled across the formulations in proportion to clinical burden, from 165 mg in Foundation to 455 and 475 mg in Advanced Care, with the cannabinoid ratios held broadly consistent so that the character of the matrix is preserved as the dose rises.

The working hypothesis that ties this together is one of multiplicative target coverage. Because these cannabinoids act across CB1, CB2, TRPV1, GPR55, PPAR-gamma, and 5-HT1A, and across the four pharmacology modules, engaging several targets at once is expected to require less of each individual cannabinoid than driving a single target with a single molecule. The dose-response and meta-analysis evidence is consistent with this, though the multiplicative mechanism itself is presented as a reasoned formulation hypothesis rather than a proven quantity. The delivered compositions below put that logic into practice.

Tier 1, non-psychoactiveFoundation
165 mg
delivered per capsule
The general endocannabinoid system regulation formulation. Appropriate for cannabinoid-naive patients beginning a course, older patients, athletes seeking recovery and sleep support, general endocannabinoid tone maintenance, women's health applications, sensitive populations, low body weight patients, and post-course maintenance. The 165 mg load provides broad four-module coverage at a conservative entry dose.
CannabinoidPer capsulePrimary target coverage
CRD distillate (BK-26-045)80 mgMulti-module entourage backbone
CBD isolate20 mgAKT1, CASP9, CAT, CNR1/2
CBG isolate25 mgCYCS, CNR1/2
CBN isolate15 mgCNR1, PRKCA/B, COMT, GST
CBDa isolate10 mgTNF, AKT1, CAT
CBGa isolate10 mgPLCG1, CNR1/2
CBC isolate5 mgPRKCA, HMOX1, GST
Total delivered165 mgAll four modules
Tier 2, non-psychoactiveActive Care
340 mg
delivered per capsule
The primary therapeutic formulation and the workhorse of the line. Applied in active autoimmune presentations, stage 1 to 3 oncology adjunct support, established chronic inflammatory presentations, chronic pain with an inflammatory component, and for patients who have completed initial Foundation titration and require step-up. The 340 mg load sits within validated therapeutic ranges for chronic pain, inflammation, and immunomodulation.
CannabinoidPer capsulePrimary target coverage
CRD distillate (BK-26-045)160 mgMulti-module entourage backbone
CBD isolate40 mgAKT1, CASP9, CAT, CNR1/2
CBG isolate50 mgCYCS, CNR1/2
CBN isolate35 mgCNR1, PRKCA/B, COMT, GST
CBDa isolate20 mgTNF (-10.5), AKT1
CBGa isolate20 mgPLCG1, CNR1/2
CBC isolate15 mgPRKCA, HMOX1, GST, neurogenesis
Total delivered340 mgAll four modules
Tier 3A, non-psychoactiveAdvanced Care
455 mg
delivered per capsule
The non-psychoactive formulation for advanced and refractory presentations where Delta-8 is not appropriate, including employment requiring drug screening, patient preference for a non-psychoactive product, and paediatric oncology contexts. Applied in stage 4 oncology adjunct, end-stage autoimmune presentations, refractory presentations that have not responded adequately to Active Care, severe chemotherapy-induced peripheral neuropathy, palliative care, and high body weight patients requiring a proportional increase.
CannabinoidPer capsulePrimary target coverage
CRD distillate (BK-26-045)200 mgMulti-module entourage backbone
CBD isolate50 mgAKT1 (-8.6), CASP9, CNR2 (-9.2)
CBG isolate75 mgCYCS, CNR1/2, neuropathy relevant
CBN isolate50 mgCNR1 (-9.4), broad PKC and GST
CBDa isolate30 mgTNF (-10.5), AKT1, CAT
CBGa isolate25 mgPLCG1, PPAR
CBC isolate25 mgPRKCA, GST, HMOX1, neurogenesis
Total delivered455 mgAll four modules
Tier 3B, psychoactiveAdvanced Care with Delta-8
475 mg
delivered per capsule
Contains Delta-8 THC. Rectal delivery partially bypasses first-pass liver metabolism, which can reduce the intensity of the psychoactive effect relative to oral use. The product remains psychoactive and will produce a positive result on a standard drug screen. Batch certificate of analysis required.
The Advanced Care formulation with 20 mg Delta-8 added, for patients with the same clinical profile as Tier 3A where drug screening is not a concern and the additional pharmacology of Delta-8 is justified. Delta-8 contributes TNF inhibition matching CBDa, CB1 and CB2 dual agonism, and antiemetic action relevant in chemotherapy-induced nausea and palliative comfort. Patient counselling regarding drug screening is required before supply.
CannabinoidPer capsulePrimary target coverage
CRD distillate (BK-26-045)200 mgMulti-module entourage backbone
CBD isolate50 mgAKT1, CASP9, CNR2
CBG isolate75 mgCYCS, CNR1/2, neuropathy relevant
CBN isolate50 mgCNR1 (-9.4), broad PKC and GST
CBDa isolate30 mgTNF (-10.5), AKT1
CBGa isolate25 mgPLCG1, PPAR
CBC isolate25 mgPRKCA, GST, HMOX1, neurogenesis
Delta-8 THC20 mgTNF (-10.4), GRIN2B (-7.6), CB1/CB2
Total delivered475 mgAll four modules plus NMDA
Neurological adjunct, psychoactiveNeuro Complex
400 mg
delivered per capsule
Contains Delta-8 THC. Rectal delivery partially bypasses first-pass liver metabolism, which can reduce the intensity of the psychoactive effect relative to oral use. The product remains psychoactive and will produce a positive result on a standard drug screen. Batch certificate of analysis required.
A dedicated adjunctive formulation for neurodegenerative presentations, used alongside an appropriate tier formulation, most commonly Foundation or Active Care depending on overall systemic burden. It provides the broadest cannabinoid coverage across the neurodegenerative protein targets of Module 2 and Module 4, including the GRIN2B and NMDA modulation that is unique to Delta-8 in this line. The CBD load is raised to 75 mg for its tau and amyloid relevance, while CBN is held low at 10 mg.
CannabinoidPer capsuleNeurodegenerative role
CRD distillate (BK-26-045)200 mgBroad-spectrum neuroprotection
CBD isolate75 mgTau and amyloid relevant
CBG isolate50 mgPPAR neuroprotection
CBN isolate10 mgCOMT (Parkinson), ALS and HD
CBDa isolate20 mgTNF (-10.5), neuroinflammation
CBGa isolate15 mgPPAR, complementary to CBG
CBC isolate20 mgNeurogenesis support
Delta-8 THC10 mgGRIN2B and NMDA modulation
Total delivered400 mgModules 2 and 4
09 — Cross-formulation summary

Delivered Cannabinoid Doses, All Formulations

ComponentT1T23A3BNC
CRD distillate80160200200200
CBD isolate2040505075
CBG isolate2550757550
CBN isolate1535505010
CBDa isolate1020303020
CBGa delivered1020252515
CBC isolate515252520
Delta-8 THCnilnilnil2010
Total delivered (mg)165340455475400

All figures are milligrams delivered per 2 ml capsule. CBGa isolate is held at 72 per cent purity and is weighed heavier than the delivered figure at the bench, where the weigh-out quantity equals delivered dose divided by 0.72. All other isolates sit at 99 per cent or above, where weighed and delivered amounts are equal. Delta-8 is present in Advanced Care with Delta-8 and Neuro Complex only.

10 — Route of administration and delivery system

Why Rectal Delivery in a Long-Chain Lipid Base

The route and the base are a single design decision, and the reasoning runs deeper than tolerability. Oral cannabinoids are absorbed poorly and erratically. CBD taken by mouth in a water-based product reaches systemic circulation at under 10 per cent, often around 6 per cent, because cannabinoids are intensely lipophilic, poorly soluble in the gut, and heavily metabolised by the liver on first pass before reaching circulation. The suppository in a lipid base is built to work around both problems at once, the first-pass loss and the poor solubility.

First-pass bypass

The lower and middle rectal veins drain into the systemic circulation rather than through the portal vein and the liver, so a rectally delivered drug sidesteps much of the hepatic first-pass metabolism that limits oral dosing, and avoids the acidic, enzymatic environment of the stomach entirely. This is not a cannabis-specific quirk but an established route principle: for a range of drugs including morphine, metoclopramide, ergotamine, lidocaine, and propranolol, rectal administration produces systemic exposure that exceeds the oral route, precisely because of this partial first-pass avoidance. On the spectrum that runs from the erratic oral route at one end to intravenous delivery at the other, rectal administration sits toward the favourable end. For the Delta-8 formulations the same bypass is clinically useful in a second way, reducing conversion of THC to its more strongly psychoactive 11-hydroxy metabolite, which is why a rectal dose tends to be less intoxicating than the same dose taken by mouth.

The lymphatic route, and why the lipid base is deliberate

The more important mechanism, and the reason the base is a designed delivery system rather than a moulding medium, is lymphatic transport. A highly lipophilic molecule carried in long-chain fat is not limited to crossing into the blood. Molecules with a partition coefficient above log P 5 and high solubility in long-chain triglyceride associate with chylomicrons, the lipid carriers assembled during fat absorption, and are carried into the lymphatic system and from there directly into the systemic circulation, bypassing the liver. CBD sits squarely in this range, with a log P of approximately 6.3. Co-administration of cannabinoids with long-chain lipids has been shown to increase CBD and THC systemic bioavailability roughly threefold against a lipid-free preparation, with cannabinoid concentrations in the lymph reaching 100 to 250 times those in plasma, by way of this chylomicron-mediated lymphatic uptake.

This reframes the fatty base. A lipophilic cannabinoid in a fatty vehicle releases slowly into the watery mucosal layer, the conventional absorption route, but that is not the route the formulation depends on. The long-chain lipid vehicle instead feeds the lymphatic pathway, which for a molecule this lipophilic is both the higher-exposure route and one that bypasses first-pass metabolism. The base composition is chosen accordingly. Cocoa butter is built from long-chain fatty acids, principally stearic, oleic, and palmitic, and apricot kernel oil is largely oleic and linoleic, also long-chain. This is the lymphotropic profile. A medium-chain base such as coconut or MCT oil would be absorbed more directly into portal blood and is markedly less lymphotropic, so the cocoa butter and apricot combination is better matched to this mechanism than an MCT base would be. It also follows that a synthetic surfactant intended to drive the cannabinoids into the fast aqueous route would work against the lymphatic pathway, not for it, which is why the formulation carries no such additive.

There is a clinical corollary that bears directly on the autoimmune and oncological applications. The lymphatic system is the immune compartment, holding the majority of the body's lymphocytes. The same research that demonstrated lipid-driven lymphatic uptake of cannabinoids also reported prominent immunomodulatory activity, assessed on lymphocytes drawn from multiple sclerosis patients and from cancer patients undergoing chemotherapy. A lipid-borne cannabinoid therefore does not merely reach the bloodstream, it concentrates in the tissue where immune regulation occurs, which aligns the delivery mechanism with the immunological intent of the line rather than leaving it to chance.

The honest boundary of the claim. The lymphatic transport data is drawn from oral administration and is largely preclinical. The rectum drains partly through lymphatic vessels as well as through the rectal veins, so extending the mechanism to a rectal long-chain-lipid suppository is mechanistically reasonable, but the precise magnitude of lymphatic uptake by the rectal route has not been quantified in controlled human study. The defensible position, and the one this document takes, is that the formulation is designed to exploit a validated lipid-driven lymphatic transport pathway for highly lipophilic cannabinoids, a pathway that bypasses first-pass metabolism and targets the immune compartment. No specific bioavailability percentage is asserted, because none has been established for this route and this base, and the rationale does not require one.

Structural notes on the base

Cocoa butter is the structural matrix as well as the lymphotropic carrier. It requires approximately 80 per cent of total mass to hold its stable Form V crystal structure, which gives a firm suppository, clean demoulding, and a predictable melt at body temperature. Liquid oil load above roughly 20 per cent of capsule mass risks soft units, premature melting, and phase separation. Apricot seed oil provides the liquid long-chain lipid phase into which the distillate and isolates dissolve and disperse evenly, ensuring uniform cannabinoid distribution across each unit and consistent release on melt. Apricot oil load is scaled per formulation, 0.30 ml in Foundation, 0.35 ml in Active Care, and 0.40 ml in Advanced Care and Neuro Complex, with the 0.40 ml load sitting at the safe structural ceiling of approximately 19 per cent of capsule mass. If demoulding issues arise at the ceiling, 8 to 10 g of beeswax per 300-unit batch, around 1.5 per cent by mass, reinforces the matrix without compromising release.

11 — Clinical protocol framework

Administration, Course, and Interactions

Course structure. The standard course follows a four-week minimum assessment period at each formulation, with a full course of six to twelve months. The five-formulation architecture supports both step-up titration and direct entry depending on patient presentation and practitioner judgment.

Dosing schedule. Standard administration is one capsule rectally each evening. Two-suppository daily dosing, morning and evening, may be appropriate in advanced and refractory presentations, particularly at Advanced Care level. Neuro Complex follows the same evening administration and is taken alongside the chosen tier formulation, typically one of each per evening at a five-minute interval.

Drug interactions. Cannabinoids in these formulations inhibit CYP2C9 and CYP3A4. Practitioners should review patient medication lists for substrates of these enzymes, including warfarin, certain statins, calcium channel blockers, immunosuppressants, and chemotherapeutic agents, and monitor accordingly. CBN and Delta-8 may potentiate the sedative effect of opioids and benzodiazepines. CBDa and CBGa shelf life depends on temperature control, and storage below 25 degrees Celsius is required to limit decarboxylation.

Delta-8 specific considerations. In Advanced Care with Delta-8 and Neuro Complex, Delta-8 is psychoactive at the doses used and will register positive on standard urine drug screening for up to 30 days after the last dose. Onset via rectal administration is typically 30 to 60 minutes with a four to eight hour duration, and effects are generally milder than Delta-9-THC. Patients should not drive or operate machinery for at least eight hours after a Delta-8 containing suppository. Patient counselling regarding drug screening implications is required before supply.

12 — Glossary

Glossary of Terms

Cannabinoids and extract types

CBD, cannabidiol
The principal non-psychoactive cannabinoid; acts indirectly on the endocannabinoid system and on several other receptors.
CBG, cannabigerol
A minor cannabinoid that partially activates the cannabinoid receptors; studied for neuroprotection.
CBN, cannabinol
A cannabinoid formed as THC ages; the strongest binder of the CB1 receptor in this set, sedative and immune-active.
CBC, cannabichromene
A cannabinoid acting at the CB2 receptor and at sensory ion channels; one of the few with nerve-cell growth activity.
CBDa, cannabidiolic acid
The raw, acidic form of CBD found in the unheated plant; a strong anti-inflammatory binder with higher bioavailability than CBD.
CBGa, cannabigerolic acid
The acidic form of CBG; anti-inflammatory and metabolic targets.
CBDV, cannabidivarin
A close chemical relative of CBD; non-psychoactive, studied for seizures.
CBE, cannabielsoin
A natural breakdown product of CBD with little defined pharmacological activity.
CBTC, cannabicitran
A minor cyclised cannabinoid with little defined pharmacological activity.
CBL, cannabicyclol
A natural conversion product of CBC with no significant defined activity.
HHC, hexahydrocannabinol type (9S-HHCH)
A hydrogenated cannabinoid; mildly psychoactive at higher amounts.
THC, tetrahydrocannabinol
The main psychoactive cannabinoid. Delta-9 is the common form; Delta-8 is a milder variant at roughly two-thirds the potency.
CRD, crystal resistant distillate
A hemp extract processed to stay liquid and to retain a high proportion of minor cannabinoids.
Distillate
A cannabis or hemp extract refined and concentrated by distillation.
Isolate
A single cannabinoid purified to near 100 per cent, with everything else removed.
Broad-spectrum
An extract containing many cannabinoids but with THC reduced to undetectable levels.
Full-spectrum
An extract containing the full natural range of cannabinoids, including THC.
Entourage effect
The principle that cannabinoids and related plant compounds act more effectively together than any one does alone.
Decarboxylation
The heat-driven loss of an acidic cannabinoid's acid group, converting for example CBDa to CBD; the reason acidic cannabinoids need cool storage.

The endocannabinoid system and receptors

ECS, endocannabinoid system
The body's balancing signalling network spanning the nervous, immune, and other systems.
CB1 (CNR1)
The cannabinoid receptor concentrated in the brain and nerves.
CB2 (CNR2)
The cannabinoid receptor concentrated in immune and peripheral tissue.
Endocannabinoids
The body's own cannabinoid-like signalling molecules, chiefly anandamide and 2-AG.
FAAH
The enzyme that breaks down anandamide.
MAGL
The enzyme that breaks down 2-AG.
Endocannabinoid tone
The resting level of activity in the endocannabinoid system.
Agonist, partial agonist
A molecule that activates a receptor; a partial agonist activates it only partway.
Antagonist
A molecule that blocks a receptor.
Allosteric modulator
A molecule that changes how a receptor responds without binding its main site.
TRPV1, TRPA1, TRPM8
Temperature and irritant sensing ion channels involved in pain and inflammation.
GPR55
A receptor sometimes described as a third cannabinoid receptor.
PPAR, PPAR-gamma
A nuclear receptor regulating metabolism and inflammation.
5-HT1A
A serotonin receptor involved in mood and anti-anxiety effects.

Molecular and protein targets

Network pharmacology
Mapping how a compound acts across many protein targets at once, rather than at a single target.
Molecular docking
A computer simulation that estimates how tightly a molecule binds a protein.
Binding affinity (kcal/mol)
The strength of that binding; a more negative number means stronger binding.
Degree centrality
A measure of how many targets a molecule connects to in the network; high centrality means broad action.
TNF-alpha
A central inflammatory signalling protein and a major target in autoimmune disease.
AKT1, CASP9, PRKCA, PRKCB, PLCG1
Cell-survival, cell-death, and cell-cycle proteins relevant to cancer signalling.
CYCS, cytochrome c
A protein central to the programmed cell-death pathway.
COMT
An enzyme in dopamine metabolism, relevant to Parkinson's disease.
CAT, GSTA2, GSTM3, GSTP1, HMOX1
Antioxidant and detoxification proteins that handle oxidative stress.
CYP17A1
A hormone-synthesis enzyme.
CREB1
A gene-regulation protein involved in memory and neuron survival.
GRIN2B, NMDA receptor
A glutamate receptor subunit involved in the nerve over-stimulation seen in neurodegenerative disease.
COX-2
The inflammation enzyme targeted by common anti-inflammatory drugs.
CYP2C9, CYP3A4 (cytochrome P450)
Liver enzymes that process many medicines; cannabinoids inhibit them, which is the basis for the drug-interaction caution.
Functional module
A cluster of protein targets and disease pathways grouped together in the network analysis.

Delivery and pharmacokinetics

Bioavailability
The fraction of a dose that actually reaches the bloodstream.
First-pass metabolism
The loss of an orally absorbed drug to the liver before it reaches the rest of the body.
Hepatic
Relating to the liver.
Lipophilic
Fat-loving; dissolves in oil rather than water. Cannabinoids are strongly lipophilic.
log P
A number describing lipophilicity; above 5 indicates strong fat solubility and the potential for lymphatic transport.
Lymphatic transport
Absorption of fat-soluble molecules through the lymphatic system, which bypasses the liver.
Chylomicrons
The fat-carrying particles that ferry lipophilic molecules into the lymph.
Long-chain triglyceride (LCT)
A long fatty-acid type that drives lymphatic absorption; cocoa butter and apricot oil are long-chain.
Medium-chain triglyceride (MCT)
A shorter fatty-acid type, such as coconut oil, absorbed mainly into the blood and far less lymphotropic.
11-hydroxy-THC
A more strongly psychoactive product formed when the liver processes THC; reduced by the rectal route.
Portal vein
The vein carrying gut-absorbed substances to the liver.
Rectal mucosa
The absorptive lining of the rectum.
Form V
The stable crystal form of cocoa butter that gives a firm suppository and clean release.
COA, certificate of analysis
The laboratory report verifying a material's contents and purity.
ISO/IEC 17025
The international standard for the competence of testing laboratories.

Clinical terms

Autoimmune
A state in which the immune system attacks the body's own tissue.
Neurodegenerative
Progressive loss of nerve cells, as in Parkinson's, Alzheimer's, and ALS.
Apoptosis
Programmed cell death; beneficial when it clears cancerous cells.
Antiproliferative
Slowing or stopping the multiplication of cells, as in tumour growth.
Immunomodulation
Adjusting immune activity up or down toward balance.
Neurogenesis
The growth of new nerve cells.
Neuropathy, CIPN
Nerve damage causing pain or numbness; CIPN is the chemotherapy-induced form.
Cachexia
The severe weight and muscle loss seen in advanced cancer.
Excitotoxicity
Nerve-cell damage caused by over-stimulation from the neurotransmitter glutamate.
Tau and amyloid
The proteins that misfold and accumulate in Alzheimer's disease.
Antiemetic
Anti-nausea and anti-vomiting.
Palliative
Care focused on comfort rather than cure.
Refractory
Not responding to standard treatment.
13 — References
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14 — Confidentiality

Confidentiality Agreement

This document contains proprietary formulation data, cannabinoid ratios, and clinical rationale that are the confidential trade secrets and intellectual property of Bonner Biotech LLC. It is supplied in confidence and solely for the use of the authorised recipient.

By accepting this document the recipient agrees that they shall not copy, reproduce, photograph, transcribe, distribute, or disclose any part of its contents to any third party without the prior written consent of Bonner Biotech LLC. The recipient shall hold the formulations and figures contained herein in strict confidence, shall use them solely for the purpose for which they were provided, and shall return or securely destroy the document upon request. These obligations continue without expiry and survive the conclusion of any working relationship between the parties.

Bonner Biotech LLC  ·  Denton, Texas  ·  Phytocannabinoid Ingredient Rationale and Scientific Validation  ·  Version 4.0