Charlotte’s Web Holdings announced a new collaboration with the University of Colorado-Boulder and their Research and Education Addressing Cannabis and Health (REACH) Center. The University’s REACH Center will conduct a preclinical study on how hemp oil can influence sleep quality and anxiety.
The study will use Charlotte’s Web hemp products, including their full spectrum hemp formulations containing CBN, CBD and less than 0.3% THC. Monika Fleshner, PhD, Professor of Integrative Physiology and member of the Center for Neuroscience at the University of Colorado, will be the project lead and will conduct the study in her Stress Physiology Laboratory. “There is a great need for properly controlled experimental studies that are designed to test the potential neural and physiological impacts of hemp derived phytocannabinoids,” says Dr. Fleshner. “With support from CU REACH and Charlotte’s Web, our research will explore both the efficacy and mechanisms of how these substances can affect complex brain-mediated behavior, such as disturbed sleep.”
Tim Orr, senior vice president of Charlotte’s Web and president of its CW Labs division, is currently working on more than twelve scientific research studies with the company. “Charlotte’s Web is committed to advancing science on the benefits and safety of CBD and other hemp phytocannabinoids through rigorous scientific investigations such as this sleep and anxiety study,” says Orr. “We’re honored to team up with CU’s REACH Center to explore the potential impacts of full-spectrum hemp extract with CBD and CBN on anxiety and sleep quality.”
Long term, Charlotte’s Web expects this study will help build the foundation for future clinical studies to “better understand how specific ratios of cannabinoids and different delivery formats are effective at supporting improved sleep quality and instilling healthier sleep architecture in humans,” reads the press release.
According to a press release published earlier this month, the Bio-Rad iQ-Check Aspergilllus Real-Time PCR Detection Kit has received AOAC International approval. The test covers detection for four different Aspergillus species: A. flavus, A. fumigatus, A. niger, and A. terreus.
The detection kit covers those Aspergillus species for testing in cannabis flower and cannabis concentrates, produced with our without solvents. The PCR detection kit was validated through the AOAC Research Institute’s Performance Tested Method Program. They conducted a study that resulted in “no significant difference” between the PCR detection kit and the reference method.
The kit was evaluated on “robustness, product consistency, stability, inclusivity and exclusivity, and matrix studies,” the press release says. Bio-Rad also received approval and validation on the iQ-Check Free DNA Removal Solution, part of the workflow for testing cannabis flower.
The test kit uses gene amplification and real-time PCR detection. Following enrichment and DNA extraction, the test runs their PCR technology, then runs the CFX Manager IDE software to automatically generate and analyze results.
Bio’Rad has also recently received AOAC approval for other microbial testing methods in cannabis, including their iQ-Check Salmonella II, iQ-Check STEC VirX, and iQ-Check STEC SerO II PCR Detection Kits.
A thorough cannabis product development process goes far beyond extracting and packaging. Performing advanced analytical testing at each and every stage allows producers to know the quantity, quality and behaviour of compounds in samples. Here are the four key stages from flower to consumption.
Stage 1: Flower
Developing a quality cannabis product begins with knowing the composition of compounds in your starting material. The best analytical tests utilize a metabolomics approach. Metabolomics is a suite of techniques that include a variety of instruments to run samples through in order to receive compositional data. In this stage, LC-qTOF and GC-MS are the best instruments to track all the compounds in the starting plant material. Essentially, metabolomics establishes a fingerprint of the compounds in a plant sample. This is beneficial because producers have to understand how their chosen cannabis plant differs from other cultivars and how it would potentially behave in their desired end product formulations.
Stage 2: Concentrate
After the plant material has gone through an extraction process, producers want to know precisely what is in the extract. Are there compounds that should not be there and are all the desired compounds present? The best way to test the quality of cannabis oils is again to use metabolomics (e.g. via LC-qTOF). This test reveals all the compounds in the sample in order to help the producer determine the purity and consistency of molecules beyond just THC and CBD.
When testing cannabis isolates, it is best to use NMR spectroscopy and X-ray diffraction. NMR characterizes and assesses the purity of single compounds or mixtures in solution or solid state. X-ray diffraction provides information about the crystal structure, chemical composition and the physical properties of the cannabis sample to help the producer prove the identification of desired compounds. Establishing that the concentrates are pure and aligned with what the producer intended to extract is key in this stage of product development.
Stage 3: Formulation
Designing an appropriate drug delivery formula is a universal challenge producers face at this stage of product development. Where nanoemulsion or other carrier approaches are being used, formulation characterization allows producers to understand how their active compounds behave in simulated physiological environments as well as how stable their products are over time. Specifically, nanoparticle sizing and assessing size changes over time can help a formulation scientist ensure the highest quality product is being mixed, and that the desired effect will be imparted on the consumer/patient.
Stage 4: Smoke/Vapor
Many producers might not consider this final stage, but it is critical for all inhalable cannabis products and devices. Using a smoke analyzer and metabolomics testing can identify and quantify compounds present within the formed smoke or vapor from pre-roll joints to vape devices. This is not only important for preventing the production of toxic by-products, but it can help producers create an optimal smoking experience for consumers.
One area that is often an afterthought is quality compliance testing. Despite a number of groups using the required tests well during development, many forget to continue the same robust testing on end products. In the current cannabis product development landscape, there is little guidance on how compliance testing should be conducted on every product “batch.” With these advanced analytical tests, producers can confidently develop compliant, stable and quality cannabis products.
There is a significant increase in demand for all cannabinoid products across the board—including CBD, THC, CBG and THCV—from recreational users, consumer packaged goods and pharmaceutical companies. And the next great race is on for the hottest arrival to scientific cannabis therapeutics: rare cannabinoids.
Research shows rare cannabinoids are poised to be the future of cannabis investing, providing better health benefits in addition to impacting the pharmaceutical, CPG, nutraceuticals, cosmetics and pet care markets significantly. According to recent reports, the biosynthesis of rare cannabinoids will be a $25 billion market by 2025 and $40 billion by 2040.
The companies that will revolutionize this market are ones with the highest quality and lowest prices, which means that biosynthetic cannabinoid companies will be the leaders in investment and capturing market share. We will also see a major consolidation in this market amongst the grow, harvest and extraction companies, increasing efficiencies and driving down costs.
What are rare cannabinoids and why should we care?
Rare cannabinoids such as CBG, CBN, THCV, THCA and others have significantly better and more specific health benefits than just CBD on its own. Biotech companies like ours, Biomedican, which has a patent-pending biosynthesis platform, can produce pharmaceutical grade, non-GMO, bioidentical, synthetic cannabinoids with 0.0% THC at 70-90% less cost. Producing 0.0% THC means that rare cannabinoids can be added into nutraceuticals, CPG and cosmetics/lotions with zero changes in current cannabis regulations. Also, we produce the same exact product every time (not possible through plants), which is extremely important for pharmaceutical companies conducting clinical trials.
Why are rare cannabinoids important?
The human body contains different cannabinoid receptors that help regulate critical processes, including learning, memory, neuronal development, appetite, digestion, inflammation, overall mood, sleep, metabolism and pain perception. This considerable involvement of cannabinoid receptors, critical to many physiological systems, underscores their potential as pharmaceutical targets.
Pharmacological research has uncovered several medical uses for cannabinoids, which bind to cannabinoid receptors. They’ve been shown to help with pathological conditions such as pediatric epilepsies, glaucoma, neuropathic pain, schizophrenia and have anti-tumor effects as well as promote the suppression of chemotherapy-induced nausea. This ongoing research is becoming more prevalent and has the potential to uncover therapeutic uses for an array of cannabinoids.
In addition to the medical field, other prominent sectors have adopted the use of cannabinoids. There is an increasing demand for cannabinoids in inhalables, the food industry and in hygienic and cosmetic products. Veterinary uses for cannabinoids are also coming to light. The use of naturally occurring cannabinoids reduces the need for synthetic alternatives that may produce harmful off-target effects.
So how does this affect the investing market?
Where there is demand, significant and growth investments follow. All the major players from nutraceuticals, CPG, cosmetics and pet care companies are driving the demand for rare cannabinoids. We are seeing a major investment shift from commodity-based prices for cannabis and CBD to the new biosynthesis technology which offers significantly better health benefits and higher profit margins. Those unique qualities of rare cannabinoids open an enormous opportunity to create new drugs and food supplements for treating various medical conditions and improving the quality of life. This creates a massive global opportunity for all companies in these categories differentiating their products from competitors.
There will be big winners and losers in these markets, but at the end of the day, the highest quality and lowest cost producers will capture most of these markets. Biomedican has the highest quality, highest yields and lowest cost of production in the industry. Which we believe will make us the clear leader in the biosynthesis rare cannabinoid markets.
Which rare cannabinoid to invest in first?
Early reports indicate THCV (not to be confused with THC) could contain a variety of health benefits: it may help with appetite suppression/weight loss, possibly treat diabetes as well the potential to reduce tremors and seizures caused by conditions like multiple sclerosis, Parkinson’s disease and ALS.
There has been an explosion of interest in THCV due to its potential health benefits. We are seeing major players in the nutraceutical, health food and pharmaceutical industries clamoring to add THCV to their product lines. Companies can now produce THCV through biosynthesis, creating a pharmaceutical-grade, organic, bioidentical compound at 70-90% less than wholesale prices. This is exactly what the largest players in the market want: a pharmaceutical-grade, consistent product at significantly less cost. The current prices and quality have limited THCV production, but new breakthroughs in biosynthesis have solved those issues, so we expect a tsunami of orders for THCV in 2021.
Remediation of delta-9 tetrahydrocannabinol (d9-THC) has become a hot button issue in the United States ever since the Drug Enforcement Agency (DEA) released their changes to the definitions of marijuana, marijuana extract, and tetrahydrocannabinols exempting extracts and tetrahydrocannabinols of a cannabis plant containing 0.3% or less d9-THC on a dry weight basis from the Controlled Substances Act. That is because, as a direct consequence, all extracts and tetrahydrocannabinols of a cannabis plant containing more than 0.3% d9-THC became explicitly under the purview of the DEA, including work-in-progress “hemp extracts” that because of the extraction process are above the 0.3% d9-THC limit immediately upon creation.
The legal ramifications of these changes to the definitions on the “hemp extracts” marketplace will not be addressed. Instead, this article focuses on the amount of d9-THC that is available in the plant material prior to extraction and tracks a “hemp extract” from the point it falls out of compliance to the point it becomes compliant again and stresses the importance of accurate track-n-trace protocols at the processing facility. The model developed to support this article was intended to be academic and was designed to follow the d9-THC portion of a “hemp extract” through the lifecycle of a typical CO2-based extract from initial extraction to THC remediation. A loss to the equipment of 2% was used for each step.
For this exercise, a common processing scenario of 1000 kg of plant material at 10% cannabidiol (CBD) and 0.3% d9-THC by weight was modeled. This amount, depending on scale of operations, can be a facility’s total capacity for the day or the capacity for a single run. 1000 kg of plant material at 0.3% d9-THC has 3 kg of d9-THC that could be extracted, purified, and diverted into the marketplace. CO2 has a nominal extraction efficiency of 95%, meaning some cannabinoids are left behind in the plant material. The same can be said about the recovery of the extract from the equipment. Traces of extract will remain in the equipment and this little bit of material, if unaccounted for, can potentially open an operator up to legal consequences. Data for the initial extraction is shown in Image 1.
As soon as the initial extract is produced it is out of compliance with the 0.3% d9-THC limit to be classified as a “hemp extract”, and of the 3 kg of d9-THC available, the extract contains approx. 2.8 kg, because some of the d9-THC remains in the plant material and some is lost to the equipment.
Dewaxing via Winterization and Solvent Removal
Dewaxing a typical CO2 extract via winterization is a common process step. For this exercise, a wax content of 30% by weight was used. A process efficiency of 98% was attributed to the wax removal process and it was assumed that 100% of the loss can be accounted for in the residue recovered from the equipment rather than in the removed waxes. Data for the winterization and solvent recovery are shown in Image 2 and 3.
Two things occur during winterization and solvent removal, non-target constituents are removed from the extract and there is compounded loss from multiple pieces of process equipment. These steps increase the concentration of the d9-THC portion of the extract and produce two streams of noncompliant waste.
Decarboxylation & Devolatilization
Most cannabinoids in the plant material are in their acid form. For this exercise, 90% of the cannabinoids were considered to be acid forms. Decarboxylation is known to produce a mass difference of 87.7%, i.e. the neutral forms are 12.3% lighter than the acid forms. Heat was modeled as the primary driver and a process efficiency of 95% was used for the conversion rate during decarboxylation. To simplify the model, the remaining 5% acidic cannabinoids are presumed destroyed rather than degraded into other compounds because the portion of the cannabinoids which get destroyed versus degrade into other compounds varies from process to process.
Devolatilization is the process of removing low-molecular weight constituents from an extract to stabilize it prior to distillation. Since the molecular constituents of cannabis resin extracts vary from variety to variety and process to process, the extracts were assumed to consist of 10% volatile compounds. The model combines the decarboxylation and devolatilization steps to account for complete decarboxylation of the available acidic cannabinoids and ignores their weight contribution to the volatiles collected during devolatilization. Destroyed cannabinoids result in an amount of loss that can only be accounted for through a complete mass balance analysis. Data for decarboxylation and devolatilization are shown in Image 4.
As the extract moves along the process train, the d9-THC concentration continues to increase. Decarboxylation further complicates traceability because there is both a known mass difference associated with the process and an unknown mass difference that must be calculated and justified.
A two-pass distillation was modeled. On each pass a portion of the extract was removed to increase the cannabinoid concentration in the recovered material. Average data for distilled “hemp extracts” was used to ensure the model did not over- or underestimate the concentration of the cannabinoids in the distillate. The variables used to meet these data constraints were derived experimentally to match the model to the scenario described and are not indicative of an actual distillation. Data for distillation is shown in Image 5.
After distillation, the d9-THC concentration is shown to have increased by 874% from the original concentration in the plant material. Roughly 2.2 kg of the available 3 kg of d9-THC remains in the extract, but 0.8 kg of d9-THC has either ended up in a waste stream or walking out the door.
Chromatography – THC Remediation Step 1
Chromatography was modeled to remove the d9-THC from the extract. Because there are several systems with variable efficiency rates at being able to selectively isolate the d9-THC peak from the eluent stream, the model used a 5% cut-off on the front-end and tail-end of the peak, i.e. 5% of the material before the d9-THC peak and 5% of the material after the d9-THC peak is assumed to be collected along with the d9-THC. Data for chromatography is shown in Image 6.
After chromatography, a minimum of three products are produced, compliant “hemp extract”, d9-THC extract, and noncompliant residue remaining in the equipment. The d9-THC extract modeled contains 2.1 kg of the available 3 kg in the plant material, and is 35% d9-THC by weight, an increase of 1335% from the distillation step and 11664% from the plant material.
CBN Creation – THC Remediation Step 2
For this exercise, the d9-THC extract was converted into cannabinol (CBN) using heat rather than cyclized into d8-THC, but a similar model could be used to account for this scenario. The conversion rate of the cannabinoids into CBN through heat degradation alone is low. Therefore, the model assumes half of the available cannabinoids in the d9-THC extract are converted to CBN. The entirety of the remaining portion of the cannabinoids are assumed to convert to some form of degradant rather than a portion getting destroyed. Data for THC destruction is shown in Image 7.
Only after the CBN cyclization step has completed does the product that was the d9-THC extract become compliant and classifiable as a “hemp extract.”
Throughout the process, from initial extraction to the final d9-THC remediation step, loss occurs. Of the 3 kg of d9-THC available in the plant material only 2.1 kg was recovered and converted to CBN. 0.9 kg was either lost to the equipment, destroyed in the process, attributable to the mass difference associated with decarboxylation, or was never extracted from the plant material in the first place. All of these potential areas of product loss should be identified, and their diversion risk fully assessed. Not every waste stream poses a risk of diversion, but some do; having a plan in place to handle waste the DEA considers a controlled substance is essential. Without a track-n-trace program following the d9-THC and identifying the potential risk of diversion would be impossible. The point of this is not to instill fear, instead the intention is to shed light on a very real issue “hemp extract” producers and state regulators need to understand to protect themselves and their marketplace from the DEA.
More and more we are seeing the development of proprietary hardware platforms in cannabis. With proprietary technology in hand, manufacturers often lean on MSOs, LPs and other brand partners to grow their business through existing sales channels.
We spoke with Mike McDonald, President and CEO at Ammonite, to learn more about the history of the Dablicator™ platform and Ammonite’s North American brand partner strategy. Mike formed Ammonite as a spin-off company from Jetty Extracts after getting to know the founders in a real estate transaction. Prior to Ammonite, Mike was an operator in the manufacturing and product development space, having helped to launch the Giant bicycle brand as well as growing and eventually selling the Atlas Snowshoe Company to K2 Sports.
Aaron: How did you get involved in cannabis?
Mike: Well, like a lot of folks in the industry, my background is pretty eclectic. I come primarily from an operator’s perspective – I’ve been in manufacturing, product development and company growth for my whole career. I lived in Taiwan for several years and helped to launch the Giant bicycle brand worldwide. I was also involved with a ski business that was started at Stanford as a thesis project called Atlas Snowshoe Company. Fast-forward, we built it into the largest snowshoe brand and activity in the US and later sold it to K2 Sports. So, I’ve always been involved in the growth of product-related businesses.
I’ve also done some real estate development as well; I actually sold our building to the Jetty guys, which is how we met. In that process, I got involved with their company, helped Jetty reorganize its business model, raise some money, and then just got addicted to the whole industry and really found it fascinating. I liked the team at Jetty and couldn’t resist jumping in, and now I’ve been full-time in the business for over three years.
Aaron: How did you get involved in Ammonite?
Mike: Ammonite is actually a spin out company from Jetty Extracts, which is one of the largest brands in California. Our main Ammonite product is called the Dablicator™ Oil Applicator, which was originally invented at Jetty as a medical device for cancer patients. We saw a big demand for it as a private label partnership product, so we decided to spin out a separate hardware company and really focus on developing unique IP and CBD and cannabis related hardware.
Aaron: What trends are you following in the industry?
Mike: Certainly the MSOs of the world are really expanding and the top three to five are making a mark with growth and more sophistication in the market. I think the social equity movement is really a big component that we’re all excited about in the industry. You’re seeing the larger players really put their money where their mouth is around that. We’ve always been a big part of that in California.
Specifically, regarding trends in the cannabis space, Colorado and California are probably the two most mature markets. We generally say what’s happening in California and Colorado eventually make their way out to the rest of the world. Vaping was invented in California and Colorado, and now it’s a huge part of the business where before, four or five years ago, the market was mostly flower-centric.
There’s a trend away from inhalables, with more awareness around lung-related illnesses and of course COVID, so we’re seeing a big growth in edibles, drinks and so forth. Interestingly enough, although it’s an inhalable, infused pre-rolls are a big growth sector as well. Jetty is actually launching an infused pre-roll program in February.
Folks are looking for ways to get their medicine without smoking – and this has definitely led to a growth in the oil application business. Oil application has traditionally been delivered via a syringe. Dablicator™ oil applicator is essentially an improved, more convenient syringe. On the medical side, patients have been taking oil sublingually, putting it in food and drink and so forth for years because a lot of them can’t smoke. As that trend transfers over to the adult use market, oil application is becoming really big. You can take it sublingually; you can put it in your food or beverage. On the recreational side, you can add it to your loose flower or joints, or of course, dab it directly onto your rig via the heat resistant tip.
Further, you’re probably familiar with a lot of these portable dab rigs that are taking off, like the G Pen Roam and the Puffco Peak and a variety of others. So now you can dab on the go with your standard wax and shatter in a jar. It’s just not the most convenient way if you’re up on a hike or on a mountain bike ride. So now, with a portable dab rig and something like the Dablicator™ oil applicator, you can have a really convenient mess-free way to enjoy cannabis. The big growth in concentrates and areas that aren’t necessarily inhalables is where our product hardware really fits in.
Aaron: How did you come up with the idea for the Dablicator?
Mike: The Jetty team had a friend that had brain cancer. He was doing a lot of chemotherapy and was having trouble eating and keeping weight on and he couldn’t smoke. So, the guys at Jetty began to bring him cannabis oil, which he was able to use ingesting it from a spoon initially and it really helped him with his pain, his anxiety and his appetite. In that process, we realized that there wasn’t really a great way to deliver oil. Syringes were there, but they were kind of sketchy and they weren’t convenient.
So, the Jetty team developed a better mousetrap. Several iterations later, this Dablicator™ product was ready for patients. In fact, it became a big part of the Jetty Shelter Project, a non-profit where the team delivers cannabis to cancer patients, and it was a very much sought-after product delivery device in that world. So, it was developed inside of a need on the medical side and it’s really sort of grown inside the expansion on the adult-use side.
Aaron: Can you explain how the Dablicator™ oil applicator works from a perspective of form and function?
Mike: Pre-Dablicator™ you would use a syringe type product – for direct oil application, sublingual application, or as an add on to your flower. The difference between Dablicator™ oil applicator and a traditional syringe is that Dablicator™ is a twist and plunge product. Imagine a pen filled with oil, but instead of inhaling it, you’re able to dispense it through a tip that is heat resistant, which means you can apply directly to your dab rig nail. You’re able to put it in your pocket without fear of cannabis oil leakage. It’s discreet, precise, compact and portable.
Aaron: How does the user dose using Dablicator™ oil applicator?
Mike: Basically, there’s measurements on the plunger of 55 milligrams apiece – one click is 55 milligrams, and you can dispense as many clicks as you like. What’s cool about the product itself is if you’ve clicked too many times accidentally, you can back it off and the excess oil won’t dispense. You can go to dablicator.com and see demo videos as well.
Aaron: Dablicator™ oil applicator started as a Jetty Extracts spin-off. I see you are now white labeling for other oil brands. How do you go about selecting your partners?
Mike: We call it our brand partner program. It’s not too dissimilar to what other hardware manufacturers, like PAX and GPen, are doing. We’ve got a patented and innovative device where our brand partners, MSOs and leading brands throughout the US and Canada, can take their existing vape and tincture oils and offer them in Dablicator™ oil applicator hardware.
Our focus is signing up major, well respected brands and MSOs on to the “platform,” meaning they are able to immediately offer between six and ten new SKUs to their consumers. They take their existing oils, put them into a custom branded Dablicator™ hardware unit and add their custom branded packaging. It’s a full turnkey solution. For example, one of our partners, 710 Labs, is developing their RSO and were shopping for a delivery method specifically geared towards medical patients. Within eight weeks, we had a custom program for them and delivered hardware, and we assisted on the packaging front as well.
Our partners have to be reputable folks that are interested in developing or delivering oil in a unique and innovative way. Frankly, our early partners are those that see where the growth is. 710 Labs is on the platform, as well as Surterra in Florida, Ancient Roots in Ohio, and we’ve got multiple conversations going to some of the other MOSs and the LPs in Canada.
Aaron: Are the brand partners loading the oil applicator themselves?
Mike: We customize the product for them and then ship them unassembled and empty. In their lab, they use the same machinery and equipment they use to fill their vape cartridges. They then fill their Dablicator™, assemble it, package it and ship it out just like any other product that they’re processing and manufacturing.
Aaron: What kind of oils are suitable for Dablicator™?
Mike: Pretty much any oil that’s going into a vape cart is suitable and then some. Some of our customers, including Jetty, started out with a THC distillate. Live resin is becoming a big product category in California as well as solventless oils. Dablicator™ oil applicator can accommodate everything from distillate to live resin to solventless to RSO and even full spectrum CBD. If it can flow, if it doesn’t crystallize up like shatter and sugars and diamonds, you can put it into Dablicator™, even the thickest of oils. It’s designed to contain any kind of liquids that are flammable.
Aaron: What geographies are you currently in?
Mike: We’re in multiple states throughout the US and actually just signed up with an LP in Canada. We only launched the program in August of 2020, and today we’ve got partners California, Colorado, Ohio, Arizona, Missouri, Florida, soon to be Michigan, Illinois, and throughout Canada.
Aaron: Any plans for international expansion beyond North America?
Mike: We’re getting inquiries on a regular basis from all over the place, including internationally. We’re in conversations with some folks down in Brazil. Spain is actually a big cannabis market and we’re having some conversations with some folks there. The inquiries are coming in faster than we can process the relationships, but right now our major focus is on North America.
Aaron: What are your goals with Ammonite?
Mike: We are developing a category, right? So today, oil dispensing isn’t top of mind. Today, if you want oil, you go into a dispensary and say, “Hey, give me those syringes.” My goal is that a year from now, you can walk into Harborside in Oakland and you see a wall of different branded Dablicator™ oil applicators. The goal is to really turn the oil dispensing business into a category, and then position Dablicator™ oil applicator as the best and leading product in that category.
Aaron: What are you personally interested in learning more about?
Mike: Well, I’ve got two teenagers – two daughters, as a matter of fact, a freshman and a senior – and they’re being homeschooled right now. So that’s been quite an interesting development!
I think on the cannabis side, it’s just fascinating what it is as a business model. It’s the most recent multi-billion-dollar opportunity in consumer products. You only get a chance to participate in something like that maybe once in a lifetime. I’m really looking forward to seeing it become more adopted into the mainstream and it’s already becoming that way from a consumer perspective. I am watching the cannabis market become legal from a federal perspective, hoping that the social equity component of the industry really stays with it.
I’ve been in a lot of businesses over the years; I feel like one of the gray hairs in this business that is actually an operator versus someone who came over from the financial side. I am continuing to learn, grow and work with great people and this has been a really amazing experience for me.
Aaron: Okay, great. Mike, that’s the end of the interview. Thank you for your time today!
According to a press release sent out last week, Complex Biotech Discovery Ventures (CBDV) has expanded their testing capabilities considerably with the new addition of a vapor/smoke analyzer. CBDV is a licensed cannabis and psilocybin research laboratory embedded in the University of British Columbia, led by CEO Dr. Markus Roggen.
The ability to analyze vapor and smoke is a relatively novel concept for the cannabis space, but has been utilized by the tobacco industry for years now. In the early days of adult-use cannabis legalization in the United States, stringent testing regulations for contaminants like pesticides were adopted out of a fear for what would happen when consumers ingest toxic levels of contaminants.
One of the common refrains iterated throughout the industry over the past ten years was that there just wasn’t enough research on how different contaminants affect patients and consumers when burned and inhaled. We still don’t know too much about what happens when someone smokes a dangerous pesticide, such as myclobutanil. Beyond just contaminants, the new technology allows for companies to measure precise levels of cannabinoids in vapor and smoke, getting a more accurate reading on what cannabinoids are actually making it to the end user.
This new development coming from our neighbor to the north could lead to a breakthrough in the cannabis lab testing and research space. CBDV claims they can now analyze cannabis material with a much more in-depth analysis than basic compliance testing labs. The new technology for analysis of smoke, vapor, plant material and formulations allows companies to thoroughly understand their materials in each stage of the product formulation process, all the way to product consumption.
Beyond just smoke and vapor analysis CBDV also offers NMR spectroscopy, metabolomics, nanoparticle characterization, computational modeling and other testing services that go far beyond the traditional compliance testing gamut.
“Our new services offer comprehensive insights into plant material, extracts, end-products and even the smoke/vapor by using state-of-the-art analytical instruments,” says Dr. Roggen. “By understanding the chemical fingerprint of the material, cannabis producers can eliminate impurities, adjust potencies, and optimize extraction processes before wasting money and resources on producing inconsistent end products. As a chemist I am really excited about adding NMR and high-res mass spectroscopy to the cannabis testing offerings.”
According to a press release published this week, Quicksilver Scientific, a nanoemulsion delivery technology company, announced a partnership with Truss CBD USA, which is the joint venture between Molson Coors and HEXO Cannabis.
Quicksilver is a manufacturer of nutritional supplements that uses a patent-pending nanoemulsion delivery technology. Their technology is what enables companies to produce cannabinoid-infused beverages.
Because cannabinoids like CBD are hydrophobic, meaning they are not water-soluble, companies have to use nanoemulsion technology to infuse beverages. Without this technology, beverages with cannabinoids would have inconsistent levels of compounds and they wouldn’t work well to actually deliver the cannabinoids to the body. Nanoemulsion essentially cannabinoids water soluble, thus allowing the delivery of cannabinoids to the bloodstream, increasing bioavailability.
Dr. Christopher Shade, Ph.D., founder & CEO of Quicksilver Scientific says they have perfected their nanoemulsion technology over the past decade. “CBD is not water-soluble, which creates challenges for manufacturers when attempting to mix it into beverages,” says Dr. Shade. “Our innovative nanoemulsion technology overcomes these challenges by encapsulating nano-sized CBD particles in water-soluble spheres that can be directly added to beverages. The result is a clear, great-tasting product with greater bioavailability, a measure of a compound’s concentration that is absorbed into the body’s bloodstream.”
Quicksilver is providing their technology to be used with Veryvell, the joint venture’s new line of non-alcoholic, hemp-derived CBD beverages. The beverage line is already available in the Colorado market. According to the press release, the three product offerings include: “Focus” (grapefruit and tarragon with ginseng and guarana), “Mind & Body” (strawberry and hibiscus with ashwagandha and elderberry) and “Unwind” (blueberry and lavender flavors with ashwagandha and L-Theanine).
Heat-not-burn is a non-combustion technology consisting of a heating source and either an oven that the user packs cannabis into or a stick pre-filled with cannabis. The cannabis is heated to a lower temperature than a combusted joint or bowl to create an aerosol that the user inhales. Heat-not-burn in this way is distinct from traditional vaping where a liquid or oil is heated to become a vapor and inhaled.
Omura is a design company that has developed a platform product for the heat-not-burn market.
We spoke with Mike Simpson, CEO and co-founder of Omura. Mike co-founded Omura in 2018 after an international design career where he spent much of his time in Japan working with consumer products.
Aaron Green: Mike, what trends are you following in the market?
Mike Simpson: I’m always tracking trends in the heat-not-burn space. Because of my background, I know that the tobacco industry inspires a lot of the technology in the cannabis space. If you look at all the vape pens, that technology was initially developed for big tobacco, which then later was adopted by cannabis. I’m always looking to stay educated on what’s happening in the tobacco industry, as I know it’s directly tied to my work in cannabis.
I’m also looking at what’s happening all over the world with legislation. I’ve been studying it for years, but this past year has been phenomenal. Seeing five new states go to some level of legalization, the federal law and new states legalizing cannabis in the 2020 Election. I believe the Biden/Harris victory will have a major impact on the industry, however we still have to see what happens with the Senate. These next couple of years are going to be very interesting to see how things shape out for cannabis.
Aaron: What are you personally interested in learning more about?
Mike: I am interested in learning how the world is going to behave next year with this new life that’s been thrusted upon us. How effective is the new vaccine going to be? How are people going to retrospectively look at this year, and the lifestyle that they used to have before going into COVID? How much of it’s going to become permanent? How much of this Zoom life will we continue to enjoy? In the future, will office spaces become obsolete? How much will we still be using home deliveries? Do we actually want to go to restaurants again? That’s what I’m very interested in learning about is how human behavior and the world will change because of what’s happening right now.
Aaron Green: How did you get started at Omura?
Mike Simpson: Great question. I moved to Japan as a designer working for Lego and set up their design office for Lego toys. After Lego, I started working instead with Nike and Adidas designing performance sneakers and apparel for a couple of years until I found Big Tobacco — which is where my Omura story begins. I rapidly found myself in a position where I was creating new technologies, for the consumption of nicotine and tobacco. While working on an early project, I was asked if I knew any science fiction writers. Thanks to Lego, I just so happened to know Syd Mead, the designer for popular sci-fi films including BladeRunner, Tron and Aliens. So, I called him and we worked on a project which was aimed at setting the future of the smoking industry. Obviously, this was a brilliant project for someone like myself to get involved in. We came up with several scenarios that depicted the future of what tobacco consumption would look like, and each of them essentially included vaporization. This was before the vaporization days which made it kind of a difficult sell. I spent many years working on where we could use existing technologies in order to execute some of these scenarios. Ten years later, I moved to California, and I started studying the cannabis space for Big Tobacco which ultimately led me to Omura.
Aaron: Can you give me a reference point on the date when you were back in California?
Mike: I came here eight years ago, and I was in Japan pretty much 10 years prior to that.
Essentially what I realized when I got to California was that cannabis was perfect for heat-not-burn because of all the cannabinoids and the terpenes. You heat it up, and you get all of the good properties out of it without the need for combustion. There were already hundreds of products in the market, which validated that people love doing it.
However, there was a ritual: you needed to buy the flower, grind it, pack the device, select the temperature and then use the same mouthpiece repeatedly. And it doesn’t stop there. When the session is finished, you dig out the used flower with a metal spatula or brush. After every 10 or 15 times you have to clean it with rubbing alcohol to get rid of any existing residue from those sessions. This is just a big messy job with a massive amount of inconsistency and variability. For me, it was mind blowing that people would even go through this procedure. With Omura, I knew we needed to simplify that process. Our product comes with a pre-filled flower stick with an exact dose, that you place in the device very simply. You then use the stick as the mouthpiece and when you’re finished, throw the flower stick in the trash. It’s compostable and biodegradable. So we eliminated all of those pain points.
Aaron: Great! Where are you guys based out of?
Mike: Venice, California.
Aaron: So, what makes the Omura vaporizer different from other heat-not-burn products? You mentioned you have the disposable cartridge. Is there a design philosophy around it that you can talk more about?
Mike: Omura comes with 12 flower sticks in child-proof packaging. What makes us different is that we have our proprietary flower stick and device that work together. With our heat-not-burn technology, you get all the terpenes, but when you set fire to it, as you would with other products, you mask that with smoke. Our product is different from anything else in the market, because it has simplified the user experience through efficiency, user interaction and also through design as well.
The other founders come from deep design and technology backgrounds, designing technologies for Apple and Philips Electronics, so it was an important focus for us with Omura. Our newest device, the Series X was designed by Michael Young, a world-renowned industrial designer who has built an impressive portfolio of innovative products.
With Omura, we’re bringing sophistication of the design world into the cannabis world. It’s not just about simplifying the experience and making a great kind of efficient method of consumption, it’s also about creating something for everyday use that is beautifully designed and easy to use.
Aaron: The Series X is Omura’s latest device. Can you tell me what changes you’ve implemented to make it better than the first version?
There are a few differences between the Series 1 and Series X: First, the new design fits in the palm of your hands so it’s discreet. It comes with a USB-C charging base that automatically connects with magnets. We’ve also improved the efficiency of the oven. The first device boiled 94% of the cannabinoids, this one now boils 99%. We’ve increased user-efficiency, by removing the button from the Series 1 making it so all you have to do is put the flower stick in and the device starts automatically. Additionally, we wanted to give users an option between a hotter or cooler experience so we added an extra heat curve, as we recognize that some of our CBD users prefer more of a terpene experience.
Aaron: Can the user modify that with an app?
Mike: It is a very simple switch on the bottom of the device that allows you to toggle between the higher and lower temperature curves
Aaron: Okay, cool. Can we talk about your supply chain a little bit here? Do you manufacture everything in Los Angeles? Or do you have partners?
Mike: Everything is designed in the US and manufactured in China. Which is fairly common throughout the industry. Shenzhen is well known for making products for the vaping industry. We create empty tubes filled in a batch production process. All the flower is grown here in the US. To clarify, we aren’t a plant-touching company. We don’t have a cannabis license. When it comes to THC, we have partnership deals. We work with select cannabis brands which is how we are able to sell in dispensaries. On the other hand, our CBD model is split. We have two brands of our own. Libertine, which is more of a male-focused Gen Z brand. Then we have Oriel, which is more of a wellness brand, catered to women.
Aaron: So how would an aspiring brand get on your platform?
Mike: Good question. Any brand or company who is interested in partnering with Omura can contact us through our website, www.omura.com,on Instagram @Omura or via email: firstname.lastname@example.org. We would then assess them to see if they’re a good fit. Currently we’re looking to span quite a large kind of demographic as far as appeal. So, if these prospective partners are in a territory, whether it be California or another state, have good market share and high-quality flower, then we would be very open to having a conversation.
Aaron: That’s the end of the interview — thanks Mike!
Plant genetics are an important consideration for cultivators planning to grow cannabis crops. Genetics can affect how well a plant grows in a particular environment under various conditions and have a major impact on the production of cannabinoids, terpenes as well as other molecules and traits expressed by the plant.
Front Range Biosciences is a hemp and cannabis genetics platform company, leveraging proprietary next generation breeding and Clean Stock® tissue culture nursery technologies to develop new varieties for a broad range of product applications in the hemp and cannabis industries. FRB has global reach through facilities in Colorado, California and Wisconsin, and a partnership with the Center for Research in Agricultural Genomics in Barcelona, Spain. FRB is headquartered in Lafayette, Colorado.
We spoke with Jonathan Vaught, Ph.D., CEO and co-founder of Front Range Biosciences. Jonathan co-founded Front Range in 2015 after a successful career in the diagnostics and food testing industries.
Jonathan Vaught: This was a collaborative project between the BioServe group at the University of Colorado Boulder, which is a part of their aerospace engineering program. They do research on the International Space Station, and they have for quite some time. We partnered with them and another company, Space Technology Holdings, a group that’s working on applications of space travel and space research. We teamed up to send tissue culture samples to the space station and let them sit in zero gravity at the space station for about a month, and then go through the reentry process and come back to Earth. We brought them back in the lab to perform some genomic analyses and try to understand if there’s any underlying genetic changes in terms of the plants being in that environment. We wanted to know if there was anything interesting that we could learn by putting these plant stem cells and tissue cultures in an extreme environment to look for stress response, and some other possible changes that might occur to the plants by going through those conditions.
Aaron: That’s an interesting project! Are there any trends that you’re following in the industry?
Jon: We’re excited to see ongoing legalization efforts around the world. We’ve seen continued progress here in the United States. We still have a long way to go, but we’re excited to see the additional markets coming onboard and regulations moving in the right direction. Also, we’re excited to see some of the restorative justice programs that have come out.
Aaron: How did you get involved at Front Range Biosciences?
Jon: It really starts with my background and what I was doing before Front Range Biosciences. I’ve spent more than 15 years developing commercializing technologies in human diagnostics, food safety and now agriculture.
I started my career during graduate school in biotech at the University of Colorado at Boulder, where I helped develop some of the core technology for a human diagnostic startup company called Somalogic here in Colorado. I went to work for them after finishing my dissertation work and spent about six years there helping them grow that company. We ended up building the world’s largest protein biomarker discovery platform primarily serving pharmaceutical companies, hospitals and doctors, with personalized medicine and lab tests for things like early detection of chronic illness, cancer, heart disease and inflammation.
I then went to another startup company called Beacon Biotech, that was interested in food safety. There I helped develop some similar technologies for detecting food-borne illness — things like salmonella, listeria and E. coli. That was my introduction to big food and big agriculture. From there, I went to help start another company called Velocity Science that was also in the human diagnostic space.
Along the way, I started a 501(c)3 nonprofit called Mountain Flower Goat Dairy, a dairy and educational non-profit that had a community milk-share, which included summer camps and workshops for people to learn about local and sustainable agriculture. I became more and more interested in agriculture and decided to take my career in that path and that’s really what set me up to start Front Range Biosciences.
Aaron: Do you have any co-founders?
Jon: I have two other co-founders. They both played various roles over the last four years. One was another scientist, Chris Zalewski, PhD. He currently works in the R&D department and helps oversee several different parts of the company including pathology and product development. My other co-founder, Nick Hofmeister served as chief strategic officer for the last few years, and has helped raise the majority of our funding. We’ve raised over $45 million dollars, and he played a big role in that.
Aaron: What makes you different from other cannabis seed companies?
John: We’ve built the first true cannabis genetics platform. What I mean by that is we built a platform that allows us to develop and produce new plant varieties that support both the hemp and the cannabis markets. To us, it’s all cannabis. Hemp and cannabis are scientifically the same plant. They just have different regulatory environments, different products and different markets, but we stay focused on the plant. Our platform is built on several different pillars. Genetics are one of the core pieces, and by genetics I mean, everything from molecular based breeding to marker assisted breeding to large germplasm collections. We collect different varieties of germplasm, or seed, from all over the world and use those to mix and match and breed for specific traits. We also have large nursery programs. Another one of our pillars of the platform includes greenhouse nursery production — everything from flowering cannabis plants to producing cannabis seeds to cloning and producing mother plants and rooted cuttings or clones.
Then tissue culture is another part of the platform, it’s basically the laboratory version of a greenhouse nursery. It’s housed in a sterile environment and allows us to produce plants that are clean and healthy. It’s a much more effective, modern way to manage the nursery. It’s part of our clean stock program, where we start clean, stay clean, and you can finish clean. It’s really built on all of those different pieces.
We also have capabilities in analytical chemistry and pathology, that allow us to better understand what drives performance and the plants, and both different regions as well as different cannabinoid products or terpene products. All of the science and capabilities of the platform are what allow us to create new varieties faster, better, stronger.
Aaron: It sounds like you’re vertically integrated on the front-end of cannabis cultivation.
Jon: Absolutely, that’s a great way to think about it.
The last piece I’d say is that we have areas of research and development that cover the full span of multiple product lines. We think about it from an ingredient perspective. Cannabinoids and terpenes are certainly what drive a large part of the cannabis market in terms of edibles, smokable flower, vapes and extracts and the different effects and flavors that you get. We also are looking at other ingredients, like plant-based protein and hemp as a viable protein source and the ability for hemp to produce valuable fiber for textiles, as well as industrial building materials and applications.
Lastly, there are additional small molecules that we’re working on as well from a food ingredients perspective. There are all kinds of interesting compounds. Everybody talks about the cannabinoids and terpenes, but there are also things like flavonoids, and some other very interesting chemistries that we’re working on as well.
Aaron: What geographies are you currently in?
Jon: Colorado and California primarily and we have a small R&D partnership in Barcelona.
Aaron: Do you have plans for expansion beyond that?
Jon: Our current headquarters are out of Colorado, and most of our Colorado operations right now are all hemp. Our hemp business is national and international.
We work with a licensed cannabis nursery partner in California which is our primary focus for that market, but we will be expanding the cannabis genetics and nursery program into Colorado next year. From a regulated cannabis perspective, that’s the first move. Beyond that, we’re in conversations with some of the multi-state operators and cannabis brands that are emerging to talk about how to leverage our technology and our genetics platform across some of the other markets.
Aaron: How do you think about genetics in your products?
Jon: Genetics means a lot of things to different folks depending on your vantage point and where you sit in the supply chain. Our business model is based on selling plants and seeds. At the end of the day, we don’t develop oils, extracts and products specifically, but we develop the genetics behind those products.
For us, it’s not only about developing genetics that have the unique qualities or ingredients that a product company might want like CBD, or other minor cannabinoids like THCV for example, but also about making sure that those plants can be produced efficiently and effectively. The first step is to introduce the ingredient to the product. Then the second step is to make sure that growers can grow and produce the plant. That way they can stabilize their supply chain for their product line. Whether it’s for a smokable flower product, or a vape product, or an edible product, it’s really important to make sure that they can reproduce it. That’s really how we think about genetics.
Aaron: What is a smart plant? That’s something I saw on your website.
Jon: It’s really about plants that perform under specific growing regions, or growing conditions. For example, in hemp, it’s one thing to produce CBD or CBG. It’s another thing to be able to produce it efficiently in five different microclimates around the U.S. Growing hemp in Florida or Alabama down on the Gulf Coast versus growing on the Pacific Northwest coast of Washington, or Oregon are two very different growing conditions that require smart plants. Meaning they can grow and thrive in each of those conditions and still produce the intended product. Generally, the different regions don’t overlap. The genetics that you would grow in Pacific Northwest are not going to do as well as some better selected varieties for the South East.
It’s not only different outdoor growing regions, but it’s different production styles too. When you think about regulated cannabis the difference between outdoor and indoor greenhouse is mixed light production. Even with hydroponic type growing methods, there are lots of different ways to grow and produce this plant and it’s not a one size fits all. It’s really about plants that perform well, whether it’s different regions in the United States in outdoor production or different indoor greenhouses with mixed lights and production methods.
Aaron: You market CBG hemp as a product line. What made you start with CBG? Is that a pull from the market or something you guys see trending?
Jon: So I think it’s a little bit of both. We offer CBD dominant varieties and CBG dominant varieties of hemp. We also now have other cannabinoids in the pipeline that we’ll be putting out in different varieties next year. Things like CBC as well as varins, or propyl cannabinoids. Also things like CBDV, CBCV, or CBGV, which are the propylcannabinoid versions of the more familiar compounds.
There was a lot of market demand for CBG. It was a fairly easy cannabinoid to produce as a single dominant cannabinoid similar to CBD or THC. There’s a lot of up-and-coming demand for some of the other minor cannabinoids. Up until a few years ago, CBD was considered a minor cannabinoid. It wasn’t until Charlotte’s Web in the Sanjay Gupta story that it became a major cannabinoid. So I think we see some level of market pull across the category.
On the flip side of that, we have one of the world’s largest R&D teams and consolidated expertise in terms of cannabis. We see the potential for minor cannabinoids, and even terpenes and other compounds like flavonoids to have wide ranging implications in human health. Everything from wellness products, to active pharmaceutical ingredients, to recreational products. From our perspective, that’s the reason why we’re pushing these ingredients. We believe that there are a lot of good products that come out of this work and the genetics that produce these minor cannabinoids.
Aaron: Okay, great. And then last question, is there anything you’re interested in learning more about?
Jon: I think the most exciting thing for me, given my background in clinical diagnostics and human health, is to see more data around how all of these different compounds of the plant can support improved wellness, health and nutrition. I think we’ve only scratched the tip of the iceberg. This type of research and data collection takes years, even decades, especially to see outcomes over time of people using these products. I’m really excited to see more of that and also hopefully be able to make stronger conclusions about some of the benefits that can be had from this plant.
Aaron: That’s the end of the interview, thanks Jon!
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