Between 2020 and 2021, cannabis vape cartridges saw 25% year-over-year growth and all-in-one vapes grew a whopping 64% as a category during the same time period. Two years later, the vape space shows no signs of slowing down. There are more strain and extraction style options than ever, not to mention advances in consumption device technology.
That huge growth and diversification means consumers have a lot of choices and decisions to make. Cutting through that noise takes a little know-how, however. For a shopper who’s hesitant or overwhelmed when comparing multiple vape options, brands and budtenders can start with some informative, friendly education on how terpenes deserve their consideration.
Why are terpene profiles so important? Imagine going into a wine store and only getting a recommendation for red or white at different price points. You might end up with something delicious that fits your budget, but you’re missing out on deeper nuances that could enrich the experience. Consumers don’t know what they don’t know. But brands can do better.
Terpenes and the Entourage Effect for Vape Products
Instead of the indica-sativa-hybrid trichotomy, focus on the kind of experience you want to have. Understanding terpenes can go a long way to helping consumers find the strains that produce their favorite flavors, scents and sensations. Also key is understanding how terpenes work together in different strains—a phenomenon known as the entourage effect.
The chemical structure of cannabidiol (CBD)
The entourage effect is often simplified to a collaboration between major and minor cannabinoids like CBD, CBG, CBN and THCV. But a true entourage effect isn’t just the combination of different cannabinoids. It’s the combination of terpenes, cannabinoids, flavonoids and other chemicals such as esters.
Why does this matter? The best cannabis represents the best of each of these elements, not simply terpenes and cannabinoids. As a result, the best cannabis vapes are the ones that can preserve all of these elements and produce an entourage effect.
This is where it’s worth pointing out the pros and cons of low-end cannabis vape products. Cheaper strain profiles typically feature fewer ingredients, including the terpenes, flavonoids and esters that contribute to a distinctive entourage effect. It’s not a matter of upselling: Sure, the price point might be attractive, but one-size-fits-all weed isn’t the experience most consumers are ultimately looking for.
How Extraction Methods Impact Cannabinoids, Terpenes and Other Chemical Compounds
The loss of crucial members of a cannabis cultivar’s entourage is one reason extraction methods make such a big difference. It can be hard for many consumers to cut through the jargon of resin vs. rosin, CO2 vs. butane, ice vs. heat and so forth. But one simple way to break it down is this: botanical, aka distillate, terpene profiles typically have 30-60 ingredients. Meanwhile, cannabis-derived terpene profiles will have over 100.
A live rosin vape by Bloom
On the high end of that spectrum is rosin. Rosin products typically will have the largest number and range of flavor components. That’s one reason this category is so popular with cannabis connoisseurs who are particularly dialed into the flavors and effects of the products they consume, vape carts included.
Why Hardware Matters
There are two primary types of vape consumption hardware—510 thread batteries combined with various brands of vape carts, or all-in-one vape devices that come pre-loaded with proprietary concentrates. 510 thread systems were carried over from the nicotine vape space, and quickly became the industry standard because they allow consumers to try vape carts from many different brands with the same rechargeable battery. There is a caveat: Temperature variance can affect the consumer’s experience for the worse, particularly with sensitive terpene boiling points.
All-in-one devices have been gaining popularity because they’re so easy to use. They come pre-loaded with concentrates and don’t require any charging cables or changing device settings. All-in-ones are typically pre-set to a tight temperature range well-suited to their unique concentrate formula—all a consumer has to do is put the device to their lips and pull.
A quality piece of vape hardware won’t produce a burnt flavor or irritate the nose. The flavor will come through cleanly and the draw should be smooth and consistent. Indeed, the latter is another sign of quality vape hardware consumers should know to look for—the resistance of that pull can vary widely between brands. The concentrate should draw easily from the chamber. If it feels like sucking a hefty milkshake through a straw, both the hardware and the concentrates inside are probably not the highest quality.
Whichever terpene profile, strain, extraction technique or device category is on a customer’s mind, it’s critical for brands and budtenders to help guide consumers to their individual best-fit cannabis vape experience.
By Kelsey Cagle, Frank L. Dorman, Jessica Westland No Comments
Sample preparation is an essential part of method development and is critical to successful analytical determinations. With cannabis and cannabis products, the analyst is faced with a very challenging matrix and targets that may range from trace level through percent level thus placing considerable demands on the sample preparation techniques.1 The optimal sample preparation, or “extraction”, method for potency analysis of cannabis flower was determined using a methanol extraction coupled with filtration using regenerated cellulose filters.
In the United States (US), Canada, and other countries where medicinal and/or adult recreational cannabis has been legalized, regulatory entities require a panel of chemical tests to ensure quality and safety of the products prior to retail sales2. Cannabis testing can be divided into two different categories: Quality and Safety. Quality testing, which includes potency analysis (also known as cannabinoid testing or cannabinoid content), is performed to analyze the product in accordance with the producer/grower expectations and government regulations. Safety testing is conducted under regulatory guidelines to ensure that consumers are not exposed to toxicants such as pesticides, mycotoxins, heavy metals, residual solvents and microbial contaminates.
Potency testing evaluates the total amount of cannabinoid content, specifically focusing on tetrahydrocannabinol (THC) and cannabidiol (CBD). In the US, the biggest push for accurate total THC is to differentiate between hemp (legally grown for industrial or medicinal use), which is defined as cannabis sativa with a THC limit ≤ 0.3 %, and cannabis (Cannabis spp.), which is any cannabis plant with THC measured above 0.3 %3. Potency testing is typically performed by liquid chromatography (LC) with UV detection to determine the quantity of major cannabinoids.
In addition to reporting THC and CBD, their respective precursors are also important for reporting total potency. Tetrahydrocannabinolic acid (THCA) is the inactive precursor to THC while cannabidiolic acid (CBDA) is the precursor to CBD.4,5
Methods and Materials
Sample Preparation
All samples were homogenized using an immersion blender with a dry material grinder. The nominal sample amounts were 200 mg of flower, 500 mg of edibles, and 250 mg of candy samples.
Potency Extraction Method (1)
Twenty milliliters (mL) of methanol (MeOH) was added to each sample. The samples were mechanically shaken for 10 minutes and centrifuged for 5 minutes.
Potency Extraction Method (2)
Ten mL of water was added to each sample. The samples were mechanically shaken for 10 minutes. 20 mL of acetonitrile (ACN) was then added to each sample and vortexed. An EN QuEChERS extraction salt packet was added to the sample. The samples were placed on a mechanical shaker for 2 minutes and then centrifuged for 5 minutes.
Each extract was split and evaluated with two filtration/cleanup steps: (1) a regenerated cellulose (RC) syringe filter (Agilent Technologies, 4 mm, 0.45 µm); (2) a PFTE syringe filter (Agilent Technologies, 4 mm, 0.45 µm). The final filtered extracts were injected into the ultra-performance liquid chromatograph coupled with a photodiode array detector (UPLC-PDA) for analysis.
Figure 1: Calibration curve for THC potency
Calibration
Standards were obtained for the following cannabinoids at a concentration of 1 mg/mL: cannabidivarin (CBDV), tetrahydrocannabivarin (THCV), cannabidiol (CBD), cannabigerol (CBG), cannabidiolic acid (CBDA), cannabigerolic acid (CBGA), cannabinol (CBN), tetrahydrocannabinol (9-THC), cannabichromene (CBC), tetrahydrocannabinol acid (THCA). Equal volumes of each standard were mixed with MeOH to make a standard stock solution of 10 ug/mL. Serial dilutions were made from the stock to make concentrations of 5, 1, and 0.5 ug/mL for the calibration curve (Figure 1).
Instrumental Method
All instrument parameters were followed from Agilent Application Note 5991-9285EN.8 A UPLC with a PDA (Waters Corp, Milford, MA) detector was employed for potency analysis. An InfinityLab Poroshell 120 EC-C18, 3.0 x 50 mm, 2.7 um column (Agilent Technologies, Wilmington, DE) was utilized for compound separation. The organic mobile phase composition was 0.05 % (v/v) formic acid in HPLC grade MeOH and the aqueous mobile phase composition was 0.1 % (v/v) formic acid in HPLC grade water. The mobile phase gradient is shown in Table 1. The flow rate was 1 mL/min (9.5 minute total program), injection volume was 5 uL, and column temperature was 50 °C.
Table 1: LC mobile phase gradient for potency samples6
Discussion and Results
Table 2 summarizes the relative standard deviations (% RSD) were found for the THC calibrator (at 1 ug/mL) and one extract of a homogeneous sample (utilizing 7 replicates).
Table 2- %RSD values for the instrument response precision for THC in both the calibrations and the homogeneous extract.
The cannabinoid potency of various cannabis plant and cannabis product samples were determined for the various extraction techniques In the chromatograms THC was observed ~8.08 minutes and CBD was observed ~4.61 minutes (Figure 2).
Figure 2: Chromatogram of the 10ug/mL calibrator for potency/cannabinoid analysis
Total potency for THC & CBD were calculated for each sample using the equations below. Equation 1 was used because it accounts for the presence of THCA as well as the specific weight difference between THC and THCA (since THCA will eventually convert to THC, this needs to be accounted for in the calculations).
Table 3 shows the % THC and the total THC potency values calculated for the same flower samples that went through all four various potency sample preparation techniques as described earlier. Figure 3 also provides LC chromatograms for flower sample 03281913A-2 and edible sample 03281912-1.
Table 3-THC and Total THC potency values for the same cannabis flower sample processed through the combination of extractions and cleanups.Figure 3: Potency/Cannabinoid analysis chromatogram for flower sample 03281913A-2 (red trace) and edible sample 03281912-1 (green trace).
The results indicated that with the “Potency Extraction Method 2” (ACN/QuEChERS extraction) coupled with the RC filter provided a bias of 7.29 % greater for total THC % over the other extraction techniques. Since the other 3 techniques provided total THC values within 2% of each other, the total THC of the sample is more likely ~14%.
Since the sample dilution for the above data set reduced the CBD content, an undiluted sample was run and analyzed. This data is reported in Table 4.
Table 4- CBD and Total CBD potency values for the same cannabis flower sample processed through different sample preparation techniques.
The CBD results indicated that with the “Potency Extraction Method 1” (methanol extraction) coupled with RC filter, allowed for a greater CBD recovery. This may indicate the loss of CBD with an ACN/QuEChERS extraction.
With an average ~14% total THC and 0.06% total CBD for a homogenous cannabis flower sample, the optimal sample preparation extraction was determined to be a methanol extraction coupled with filtration using a regenerated cellulose filter. Since potency continues to remain at the forefront of cannabis regulatory testing it is important to utilize the right sample prep for your cannabis samples.
References
Wang M, Wang YH, Avula B, Radwan MM, Wanas AS, Mehmedic Z, et al. Quantitative Determination of Cannabinoids in Cannabis and Cannabis Products Using Ultra-High-Performance Supercritical Fluid Chromatography and Diode Array/Mass Spectrometric Detection. Journal of Forensic Sciences 2016;62(3):602-11.
Matthew Curtis, Eric Fausett, Wendi A. Hale, Ron Honnold, Jessica Westland, Peter J. Stone, Jeffery S. Hollis, Anthony Macherone. Cannabis Science and Technology, September/October 2019, Volume 2, Issue 5.
Sian Ferguson. https://www.healthline.com/health/hemp-vs-marijuana. August 27, 2020.
Taschwer M, Schmid MG. Determination of the relative percentage distribution of THCA and 9-THC in herbal cannabis seized in Austria- Impact of different storage temperatures on stability. Forensic Science International 2015; 254:167-71.
Storm C, Zumwalt M, Macherone A. Dedicated Cannabinoid Potency Testing Using the Agilent 1220 Infinity II LC System. Agilent Technologies, Inc. Application Note 5991-9285EN
As we continue to witness and experience the medical cannabis industry grow and mature, many of us are wondering where the head-to-head clinical studies are, and why aren’t there more clinical research studies taking place?
Cannabis products created with the intention for medicinal use often state that their formulations and products stack up against traditional pharmaceutical treatments. However, without a substantial number of clinical studies being performed, it’s difficult to truthfully make such a claim. It’s one thing to share testimonials from people who use particular products and report what their experiences were like. However, to go head-to-head in a controlled environment where factors such as underlying conditions, height, weight, medication, lifestyle and nutrition habits are taken into account to accurately compare the efficacy of a traditional pharmaceutical product versus a cannabis-derived product are two completely different things.
The Need for More Capital
Wouldn’t you agree that if a company is having tremendous success with a particular product, that they’d reinvest capital into a true clinical study to have data to support their marketing efforts? Investing into proper studies would not only benefit a company working hard to earn market share, it would benefit those who are relying on a particular product to regain a quality life. As we’ve learned over the years from numerous scientists and researchers digging into the cannabis plant at a more granular level, there’s much more to the medicinal benefits than meets the eye. Discovering new information about how cannabinoids such as CBG and CBN combined with CBD and certain terpenes can create specific effects has helped make a greater impact on the medical cannabis community. Bringing these powerful blends of anti-inflammatory, cannabis-derived compounds and other immune boosting nutraceuticals to head-to-head clinical studies could be a huge step forward towards further legitimizing the healing effects that cannabis has to offer.
Measuring Efficacy Goes Beyond COAs & Product Reviews
Determining the efficacy of medical cannabis products should be viewed in the same light as traditional pharmaceutical products. Traditional clinical studies are designed with an Institutional Review Board (IRB) approval, subject recruitment, electronic data capture as well as electronic patient reported outcomes. Some companies within the cannabis space have made attempts to conduct surveys with measuring efficacy in mind, but using outdated survey technology that hasn’t been validated only leads to insufficient data collection.
Discovering new information about how cannabinoids can create specific effects has helped make a greater impact on the medical cannabis community. Image: Peggy Greb, USDA
There is nothing wrong with adult-use cannabis. However, for the medical cannabis space to be taken more seriously, it is time for organizations to step up their efforts and take note of certain practices from traditional biotech organizations when it comes to clinical research and collecting data to correctly quantify efficacy of certain products. Well-thought-out studies designed with clinical endpoints and validated questionnaires is a strategic way for the industry to take big steps towards doing what is right for patients.
Patients Are Asking For More Research
After speaking with patients who are interested in pursuing a treatment that includes the responsible use of medicinal cannabis, the one thing they all have in common is the desire for more information that they can rely on to make better decisions. Is it time for patients to push the envelope and not purchase products from companies that are not willing to perform the clinical studies? If companies suffered a loss in sales as a result, would they reconsider their stance on reinvesting capital into clinical trials with their products?
Equally as important as proper research is perpetual tele-monitoring. The value in perpetual tele-monitoring is the data. We can showcase miraculous, life-changing stories of how medical cannabis has helped people turn their lives around. However, when seeking greater buy-in from groups like the FDA, data is key. Qualitative data can go only go so far. It’s the quantitative data that will help move the medical cannabis community forward. The ability to be able to review data on an ongoing basis would enable medical cannabis companies to evaluate how products are working based on the electronic data capture, along with questions that a company may develop to ascertain individualized product feedback.
Imagine having the ability to see patients’ data based on real-time, daily, through something as convenient as a wearable device. Understanding test results and correspondence with doctors for patients would significantly improve.
Sleep health is a large and growing global market. According to Statista, the global market value of the sleep market was $432B in 2019 with an expected CAGR of 6.3% from 2019 to 2024. Supplements are a growing category of popular sleep health products with common ingredients including melatonin, valerian root, and more recently cannabinoids such as CBD and CBN.
RealSleep is a cannabinoid formulation company developing personalized products to improve sleep outcomes. RealSleep’s product strategy has been developed by top scientists and sleep experts, and clinically tested to aid individuals seeking to fall asleep faster, sleep deeper and cut down on sleep disturbances. Their studies have shown that 90% of people taking RealSleep have reported experiencing better sleep immediately
We spoke with Michael Kamins, co-founder and partner of OpenNest Labs and RealSleep, about RealSleep’s innovation in personalized formulations for better sleep. Kamins founded RealSleep as an incubated company under OpenNest Labs, where he is also a founding partner. Michael is the Chief Community Officer of the Wholistic Research and Education Foundation, and just led the world’s largest study on CBD and general health with Wholistic and Radicle Science, where he is also an advisor. Prior to RealSleep, Michael worked in tech where he was an early employee at Musical.ly (now TikTok) building brand partnerships.
Aaron Green: How did you get involved in the cannabis industry?
Michael Kamins, co-founder and partner of OpenNest Labs and RealSleep.
Michael Kamins: I got into the industry professionally about two and a half years ago, but my relationship with the plant goes back to high school. Prior to jumping into this space, I was working primarily in digital media. I was an early employee at Musical.ly, (eventually rebranded as TikTok), leading global music partnerships and growth. I helped grow that business by leveraging the social capital of music artists and celebrities and doing partnerships with record labels. At the end of 2018, I really saw the opportunity in the cannabis space. One of my best friends in Los Angeles, Dr. Jeff Chen, someone I did my MBA with at UCLA, became the founder and executive director of cannabis research at UCLA Medical. Seeing all the clinical research that he was doing and the objective health outcome data coming out of that research was really a huge inspiration to me. I saw a massive whitespace and opportunity to help build that bridge between the medical community and the cannabis marketplace. There’s been almost a century of cannabis prohibition setting back our scientific understanding of the plant. We know more about the rivers and plants in the Amazon than we do about the composition and compounds within the cannabis plant with regards to their wellness benefits.
I met my partners, Tyler Wakstein, Kris Bjornerud and Max Goldstein and we started a cannabis venture studio called OpenNest Labs, which is building out a diversified portfolio of cannabis consumer brands. We are focused on leveraging our collective experience at building ventures and communities and rallying those communities around a brand.
Over the last two and a half years, it’s been super exciting building brands that you see on shelves. We’re still in the early stages right now of building brand loyalty. A lot of cannabis consumers are still going into dispensaries and asking, “what is the cheapest product that I can buy with the highest potency?”
Green: Tell me about RealSleep, how did you come up with the idea and what is the basic concept for the end user?
Kamins: RealSleep comes from the passion that I had developed for medicinal aspects of the cannabis and hemp plant, thinking about not only THC and CBD – which are two major cannabinoids in the plant – but also thinking about the other 120 plus cannabinoids, each with their own unique properties.
It turns out that half the world’s population suffers from one poor night of sleep a week, and sleep issues lead to the highest rate of other comorbidities. We were thinking about the addressable sleep market, with ourselves being a part of that market, and wanting to build products that would help not only ourselves, but the countless other people around the world that suffer from poor sleep too, as it impacts their daily lives.
I’ve had issues with sleep myself. I have a genetic hearing condition called tinnitus. It’s a ringing in your ears that other people can experience environmentally from exposure to loud noises. I’ve had loud ringing in my ears my entire life even in quiet situations, like right before I go to sleep. I’ll often be lying in bed awake for an hour or two unable to sleep with the ringing. Everyone else on the team has had their own sleep issues and realized the profound negative impact of lack of sleep on other areas of health and wellness, whether it be next day energy or immunity.
We felt that by leveraging our access to the medical research community and even running clinical research on our own to validate the efficacy of the product relative to other products on the shelves, we could create a product that was safe and effective. We came across a clinical trial on insomnia and CBD by one of our research partners, the Wholistic Research and Education Foundation. What we saw from a lot of that anecdotal data was that CBD, and hemp in general, really helps to provide restful and restorative sleep.
CBD and CBN are two highly effective compounds for sleep and melatonin is by far the most widely researched and used over the counter sleep aid. We are sourcing clinical research on other ingredients such as valerian root, L-Theanine and GABA, and the list of ingredients goes on. We were interested in formulating a product that incorporates these safe and effective ingredients.
We noticed from our research and our access that sleep is as unique to an individual as their fingerprint. Take brainwave patterns when you are sleeping as an example. No one person’s patterns are the same. You could essentially identify an individual based on those patterns. One solution, or one product, is not going to help everyone. So, we worked with UCLA and the head of their laboratory of sleep and circadian medicine, a gentleman by the name of Dr. Chris Colwell, to understand the science of sleep. He is one of the most renowned sleep researchers in the world and is the head of our scientific advisory board for RealSleep. We’ve done clinical studies with over 900 people and 10,200 nights of sleep and used this data to develop a personalization engine in the form of a quiz that takes 90 seconds and allows us to map ingredients to specific answer selections. From these answers we deliver products that are customized to the individual consumer specific to their unique needs
We’re proud of the journey that we’ve gone on to understand the science and research behind sleep and to develop this personalization engine variations of products that work for each individual and their unique needs.
Green: Tell me how the questionnaire and personalization engine works. I understand the ingredient profile will change based on the customer’s responses?
Kamins: Sleep impacts an individual’s general health and wellness. For me, if I don’t sleep well, my next day is filled with anxiety, and that anxiety leads to worse sleep; it’s a vicious cycle. For other people, it could be a metabolic issue that leads to poor sleep or poor sleep that leads to weight issues. The list of other health issues and diseases linked to poor sleep goes on. So, while we’re looking at combating sleep to prevent other health issues down the road, one person who’s looking to get better sleep to improve one aspect of their life could be different from another person and the area of life they are looking to improve upon.
The quiz is essentially a combination of validated, reliable and flexible measures of patient reported outcomes. We use a combination of gold standard patient reported sleep questionnaires, one of which is called the Pittsburgh Sleep Quality Index, another being the RAND MOS scale, and others. We also work with our scientific advisory board and machine learning experts to advise us on customizing these questions with logic. We then use the responses to generate the appropriate formulations for our customers.
The questions cover everything from very specific questions on sleep, like sleep latency (the time it takes to get the bed) or sleep fragmentation (the number of times you wake up in the middle of the night) sleep duration, sleep quality, and then other areas of health that you’re looking to improve upon. Examples include metabolism, cardiovascular health, skin health, anxiety and stress. So, all these things factor into the different ingredients that we layer into the formulation.
Let’s say you don’t have a problem getting to sleep, but you wake up a lot of times in the middle of the night. Your formulation might be very different from someone who has trouble getting to sleep, but they don’t wake up in the middle of the night. Overall, one of our big goals with the formulation of all these products is that they increase your next day cognitive alertness by giving you that high sleep quality and restorative sleep. We don’t want to make anyone groggy the next day. Because overall, what you’re trying to achieve with sleep is you want to be ready to go the next day and be able to perform at your peak.
Green: So, you mentioned CBD, CBN and melatonin already as ingredients. Are there any other ingredients?
Kamins: Depending on what your answer selections are for the quiz, we will layer in L-Theanine, valerian root, Ashwagandha and even some of the other novel cannabinoids like CBC (cannabichromene). We have about 24 different ingredients that we can layer in, so it just depends. When you look at all the permutations and combinations of formulations and dosages, it’s in the trillions. From a supply chain standpoint, we’ve simplified it in a way that makes it very easy to funnel people into one of many predefined combinations of ingredients and dosage levels.
Our algorithm is an unstructured machine learning algorithm. The more people that take the quiz and the more people that provide feedback on their sleep score makes our programming and our personalization engine smarter.
Green: How does your manufacturing and packaging work?
Kamins: We have a strong relationship with a pharmaceutical partner that we have been growing even before RealSleep. It is a pharmaceutical manufacturing facility underneath a regional health care provider in the state of California. Everything they do is incredible. It’s a state-of-the-art facility and focused on complete transparency and building the products with the highest efficacy and safety profiles. They’re based in LA, and they’ve been such a pleasure to build our supply chain with.
Green: What kind of trends are you looking at in the formulation space?
Kamins: From a cannabinoid side, there’s been a bit more of a look towards some of the novel cannabinoids that have traditionally catered to a niche consumer base that is educated on cannabis. From being inside the industry, it’s very easy for me to talk about all the different cannabinoids, but a lot of people still don’t even know the difference between THC and CBD.
Our goal overall is to build efficacious products and educate people on all the different formulations and the different ingredients going in. Outside of cannabis, this year we’ve seen a large boom in consumer demand for Ashwagandha. There’s just so much hype around it in terms of how it impacts stress and energy and even libido, which is interesting. It’s probably the hottest non-cannabinoid ingredient that we’ve seen. Specific to sleep, the combination of L-Theanine and GABA and how they potentiate each other is impactful. Then there’s valerian root, which has been a big one over the last few years for sleep.
Green: Last question. What are you most interested in learning about?
Kamins: A personal interest of mine over the last few years is understanding from a scientific perspective, each of the cannabis compounds in greater detail. I think part of it is just really the curiosity to know the unknown. We’re at a point in the industry where there are still so many unknowns on the science-side of cannabinoids.
My passion for science has led me to support medical researchers in the space, so much so that I am an advisor and chief community officer to a nonprofit medical research organization called the Wholistic Research and Education Foundation, which to date has funded over six and a half million dollars in human clinical trials with cannabinoid rich therapeutics. One we’re currently conducting at UC San Diego is studying the impact of CBD on autism and other neurological conditions. That’s given me incredible exposure to research in the space. I am also a strategic advisor to a for profit medical research organization called Radicle Science, which is a very swiftly running clinical research for CBD and other cannabis brands in the space.
All in all, I’m driven by the possibilities that come with continuing to unlock the science behind the plant. By doing so, we can innovate products with efficacy and can educate people who are uninformed about the therapeutic benefits of cannabis, which will in turn benefit the industry and society. Striving for research breakthroughs and being transparent about our findings is going to help us destigmatize cannabis and legitimize the industry.
Green: That concludes the interview. Thanks, Michael!
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.
Charlotte’s Web and University of Colorado-Boulder Collaborative Study to Assess CBD and CBN’s Potential to Support Improved Sleep (CNW Group/Charlotte’s Web Holdings, Inc.)
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.
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?
Tetrahydrocannabivarin (THCV)
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.
Tetrahydrocannabinol (THC), just one of hundreds of cannabinoids found in cannabis.
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.
The structure of cannabidiol (CBD)
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.
Initial Extraction
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.
Image 1: Summary Data Table for Typical CO2-based Extraction of Phytocannabinoids
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.
Image 2: Summary Data Table for Typical Winterization of a CO2 ExtractImage 3: Summary Data Table for Solvent Removal from a CO2 Extract
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.
Image 4: Summary Data Table for Decarboxylation and Devolatilization of a CO2 Extract
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.
Distillation
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.
Image 5: Summary Data Table for Distillation of a Decarboxylated and Devolatilized Extract
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.
Image 6: Summary Data Table for d9-THC Removal using Chromatography
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.
Image 7: Summary Data Table for THC Destruction through Degradation into CBN
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.”
Image 8: Summary Data Table for Reconciliation of the d9-THC Portion of the 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.
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.
Hemp tissue culture samples like these sat in an incubator aboard the ISS
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.
Jonathan Vaught, Ph.D., CEO and co-founder of Front Range Biosciences
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.
Hemp clones and seeds is a big part of the Front Range Biosciences business
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.
Their nursery services include breeding, propagation and production of cannabis
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!
Editor’s Note: Part 3 will be an interview with Liz Conway, Regional President of Florida at Parallel. In part 4 we’ll sit down with Stephanie Gorecki, vice president of product development at Cresco Labs.
Cannabis infused products manufacturing is quickly becoming a massive new market. With companies producing everything from gummies to lotions, there is a lot of room for growth as consumer data is showing a larger shift away from smokable products to ingestible or infused products.
This is the second article in a series where we interview leaders in the national infused products market. You can find the first piece here. In this second piece, we talk with Mike Hennesy, vice president of innovation at Wana Brands. Mike started with Wana in 2014 after moving to Colorado and leveraged his science background to transition into product development and innovation where he has helped develop one of the best-known brands in Colorado.
Next week, we’ll sit down with Liz Conway, Regional President of Florida at Parallel. Stay tuned for more!
Aaron Green: Thank you for taking the time today. Just to start off, can you walk me through how you got involved at Wana Brands?
Mike Hennesy: Thanks Aaron. I got involved in the cannabis industry pretty intentionally. After graduating college in 2012, I was determined to get involved. I moved to Colorado from the east coast. I’m originally from Virginia. I moved out here in 2013 and started with Wana in 2014.
Mike Hennesy, Vice President of innovation at Wana Brands
I got involved in the sales side of the business originally – as the company was just starting to emerge into the legal recreational market – and oversaw growth here at Wana during significant changes in the industry. Over time, my role transitioned into innovation and R&D where I am leaning on my background in science.
I now lead new product development and education as Vice President of Innovation, and I’m also completing a master’s degree in cannabis science and therapeutics.
Aaron: So, what does innovation mean to you?
Mike: Innovation for the cannabis industry is pretty unique and interesting. We are just beginning to unpack the pharmacopeia of the cannabis plant as well as starting to understand our own bodies endocannabinoid system.
Innovation spans from genetics of plants and how they are grown to how you deliver cannabinoids to the body and what different ratios and blends of cannabinoids and terpenes you are actually putting in there. So, innovation is not a one size fits all category for cannabis.
Aaron: Sounds like an interesting role! At Wana Brands, and in your role in innovation, how do you think about differentiating in the market with your products?
Mike: I would describe the way we perceive differentiation as going beyond simple developments, such as product forms or new flavors. We see the future of product development trending towards what active ingredients and in what ratios we are putting into products. For example, what kinds of cannabinoids and terpenes are we using? What kinds of drug delivery systems might we be harnessing? How do we put all of these ingredients and technologies into a product to make it more effective?
A simple way to think about all of this is: how is our product going to work better for the consumer? Because that is really the key here. Tasting great is important, but we are delivering a product that provides an experience. We want to continue to make a better experience and a better way for customers to enhance their life.
Aaron: I think that leads nicely into our next question, which is, when you’re thinking about creating a new product for the consumer, what’s your process for creating a new product?
Mike: We have a very full pipeline of new products, and many of these ideas come from networking and speaking with innovators and following the research and science for inspiration and direction. We take this information and start brainstorming as a team. We have a decade of experience in the cannabis space that provides us with a unique lens on how we apply new research to our product development.
From there, we build a product development pipeline of potential ideas and start to prioritize, looking at the feasibility of each of these ideas and their market readiness. Sometimes we have a great idea for a product, but a lack of consumer knowledge may mean we don’t move forward with launching.
Aaron: Can you expand a bit on what you mean by education and how you guys think about education to the end consumer?
Mike: Since product innovation must move with consumer knowledge and cannabis is so new, education is critical. We have a very robust education platform with topics that range from cannabis 101 to the endocannabinoid system, to lessons on terpenes and CBD, as well as trainings on our products themselves. We have both bud tender-facing and consumer-facing trainings. The consumer trainings are on our website, and bud tender trainings are hosted through dispensaries.
Aaron: Is that training electronic training or written material?
Mike: Both, but the primary platform is online in the form of interactive training courses. We also have printed flip book training material in dispensaries and offer in-person presentations, but with the pandemic, we’ve been heavily leaning on the online training content.
Aaron: Alright. So, we’re going to take a different direction here on questions. From your perspective, at the innovation level, can you walk me through your experience with your most recent product launch?
Mike: Most recently, we launched the line of Wana Quick Fast-Acting Gummies. I am extremely excited and proud of this line. They have absolutely exploded in popularity!
The idea for these products started a few years ago as we were learning cannabinoids are not very bioavailable. This means most of the cannabinoids that you consume from an edible do not end up in the bloodstream. Edibles also have a delayed onset and undergo a conversion of THC in the liver, called first pass metabolism, that gives a heavier sedating high. This slow onset and difference in effects with edibles can be a turn off for some consumers, leading us to the idea of developing a fast acting gummie that works differently.
It was about two years of research looking at technologies developed by pharma and nutraceutical companies to improve bioavailability and bypass first pass metabolism. We started looking into nano-emulsions and encapsulation of cannabinoids that help with bioavailability and reduce the onset time. These technologies envelop the cannabinoids like a disguise that tricks the body into absorbing the oily compounds more easily. The encapsulation bypasses the liver and is absorbed into the bloodstream quickly, so their effect starts within five to fifteen minutes. Since they are not processed in the liver, they deliver delta-9 THC instead of 11-hydroxy-THC, giving an effect I describe as a “smoker’s high.”
We trialed and tweaked many technologies before we landed on one that is truly effective and worked with our line of gummies. With this revolutionary technology inside, we then crafted delicious flavors and a new triangular shape to differentiate them from our classic gummies. Because they take effect so quickly and only last about three hours, we thought the Quick Fast-Acting Gummies were the perfect product to use during happy hour. So, we have Happy Hour inspired flavors like Pina Colada, Strawberry Margarita and Peach Bellini.
We launched in March, and already right now, these SKUs in Colorado are #4, #7 and #11 out of all edibles sold in Colorado. And overall, Wana produces eight out of the ten top SKUs in Colorado. That’s according to BDSA, so a pretty impressive achievement!
Aaron: Okay, great, I’d say so! The next question here goes deeper in the supply chain. How do you go about sourcing for the ingredients?
Mike: I am going to start with the cannabis side of things. As I mentioned earlier, cannabis is unique. It is not just one ingredient. It’s many different compounds like the cannabinoids THC, CBD and others, but also terpenes and other beneficial compounds. To make the most effective edibles we partner with growers that care about their genetics, how they are growing, and how they are extracting to create high quality cannabis extracts.
We also understand terpenes are so important in the entourage effect, and that different terpene blends synergize with cannabinoids to produce different effects. Some can be energizing while others are more relaxing. Wana has innovated the terpenes we use by formulating proprietary blends of thirty terpenes or more that replicate indica, sativa and hybrid strains.
We did this by strain hunting the best cannabis in each class and analyzing the strains to understand their profiles. Then using organic, botanically derived terpenes, we build blends in the ratios they are found in the plant and reintroduce them into our edibles. This means Wana edibles match the terpenes that you will find in cannabis, unlike other products that just use distillates where the terpenes are degraded and lost in extraction. This also means we can replicate these blends with our partners in other states, so when you consume a Wana indica or sativa product you’re going to have the same terpene blends and the same experience and feeling every time.
Beyond cannabis and terpenes, we are extremely selective in all of our ingredients. And in the near future we’re implementing an optimized recipe that is all-natural, with no high-fructose corn syrup, as well as moving towards organic ingredient sourcing.
Aaron: Can you give me an example in your role of a challenge that you run into frequently?
Mike: I think that is the exciting thing about working in R&D and new products: there is always a new challenge. I guess I would say if you are not making mistakes, you are not really trying to push the envelope in product development.
We are working with plant matter, terpenes and encapsulation technologies, things that don’t always taste good, and putting them all into edibles. That means we frequently run into the challenge of figuring out how to put the right ingredients for effect in a product, but still make it taste delicious. We are very selective in what ingredients we use and how we’re introducing them to make sure the product still tastes good. We oftentimes come across a great technology—such as a terpene blend or a quick onset delivery system—that does the job, but is not optimal for a gummie recipe, such as the resulting consistency or taste.“These developments are all heading in the direction of delivering consistent repeatable experiences for consumers, which is what I see as the future of cannabis.”
Aaron: Would it be correct to say that formulation is a common thing you run up against in terms of challenges?
Mike: Yes, especially because a lot of the ingredients and technologies we are working with are new. There isn’t a guidebook for how to incorporate encapsulated cannabinoids into a gummy, for example.
That’s the novel aspect of a lot of this: how do you take a terpene blend that’s designed to mimic the cannabis plant and put it in your gummies? What’s the right way to introduce it so they’re not degraded by heat? Formulating with cannabis is about problem solving, and is the backbone to what we do in R&D
Aaron: We’re getting towards the end of the conversation here. And these questions are more geared towards you individually. So, what trends are you following in the industry right now?
Mike: I’ve got to have my eyes on a lot of things. That’s how you innovate in this industry!
I would say No. 1 is still terpenes. We are already innovating there, but I think we’re just scratching the surface of where we’re going to go. I think terpenes are going to unlock a lot of potential in cannabis products in the future, and Wana is going to be innovating there, leading the pack.
Next is minor cannabinoids. Through decades of an illicit black-market, the genetics have skewed towards high THC strains, but the cannabis genome actually allows for many other cannabinoids to be formed. Through the right cultivation and breeding programs, we are going to see a lot more CBG, CBN, CBC, and even more rare cannabinoids like THCV and others. These currently rare cannabinoids are going to be important for new product development as we learn more about their therapeutic effects.
Then there is continued innovation on delivery systems and bioavailability, functional ingredient blends and more natural products. These developments are all heading in the direction of delivering consistent repeatable experiences for consumers, which is what I see as the future of cannabis.
Aaron: Awesome. What are you interested in learning more about? This could be cannabis related or business related.
Mike: Well, fortunately, I am working on a master’s degree right now and so I get to learn a lot every day. I am most curious to see where science takes us with the endocannabinoid system. It was pretty much unheard of until a few decades ago, and now we understand that it interacts with almost every other system in the body. It is like missing the elephant in the room when you are talking about human biology. The amount of information that we’re going to unlock about how the ECS interacts and regulates our body is going to continue to revolutionize the industry There’s a lot more to be understood around how different compounds interact with the ECS and affect us, and I think we are going to learn how we can use it to tailor other products for outcomes such as sleep, pain, anxiety, energy and focus.
Aaron: Just a clarification there. What are you working on for your master’s?
Mike: I’m getting a Master’s in Medical Cannabis Science and Therapeutics from the School of Pharmacy at the University of Maryland. It is the very first master’s level program of its kind, and is taught by doctors and pharmacists, so we discuss cannabis as a drug and how it effects the brain and the body. It has been really exciting and I’m looking forward to continuing learning more about this amazing plant!
For years, tetrahydrocannabinol (THC) got all the attention. While THC certainly delivers its own benefits (such as relaxation and pain relief), there’s a whole host of other – and often overlooked – compounds found in cannabis with important benefits as well. THC is truly only the tip of the iceberg when it comes to cannabis’s potential.
As the cannabis industry evolves with changing consumer tastes and developing medical research, growers may employ techniques to boost cannabinoid and terpene profiles in their harvests – beyond merely focusing on THC. Advanced LEDs allow growers to elicit specific biological responses in cannabis crops, including increased concentrations of these naturally occurring chemical compounds.
The Foundation of Cannabis’s Effects Whether used medicinally or otherwise, cannabis has changed our society and many of our lives – and there’s a collection of naturally occurring chemical compounds, known as cannabinoids and terpenes, to thank.
The cannabinoids THC and CBD are the most common and well-researched, however they are accompanied by more than 200 additional compounds, including cannabinol (CBN), cannabigerol (CBG) and tetrahydrocannabivarin (THCV), among others.
The cannabis plant also contains terpenes. These structures are responsible for giving flowers (including cannabis), fruits and spices their distinctive flavors and aromas. Common terpenes include limonene, linalool, pinene and myrcene.
Both cannabinoids and terpenes are found in the cannabis plant’s glandular structures known as trichomes. Look closely, and you’ll notice trichomes coating the cannabis flowers and leaves, giving the plant an almost frosty appearance.
A macro view of the trichomes and pistils on the plant
Trichomes – which are found across several plant species – are a key aspect of a cannabis plant’s survival. The specific combination of metabolites produced by trichomes may attract certain pollinators and repel plant-eating animals. Moreover, trichomes (and specifically THC) may act as the plant’s form of sunscreen and shield the plant from harmful ultraviolet rays.
While they play an essential part in the cannabis plant’s lifecycle, trichomes are volatile and easily influenced by a range of environmental factors, including light, heat, physical agitation and time. Therefore, environment is a defining variable in the development of these important structures.
How LEDs Support Cannabinoid and Terpene Development in Crops Spectrally tunable LEDs give indoor cannabis growers unparalleled control over their crops. As research has expanded about plants’ responses to the light spectrum, growers have discovered they are able to elicit certain physiological responses in the plant. This phenomenon is called photomorphogenesis. At its root, photomorphogenesis is a survival tactic – it’s how the plant responds to miniscule changes in its environment to increase the chances of reaching full maturity and, eventually, reproducing. While cultivated cannabis plants won’t reproduce at an indoor setting, growers can still use the light spectrum to encourage strong root and stem development, hasten the flowering process and the development of bigger, brightly colored flowers.
It makes sense that using the proper light spectrums may also have an impact on the production of specific cannabinoids and terpenes – an important factor when responding to highly specific consumer needs and desires, both within medical and adult-use markets.
Here are a few more reasons why utilizing full-spectrum LEDs can lead to higher quality cannabis:
Lower Heat, but the Same Intensity. When compared to HPS, fluorescent and other conventional lighting technologies, LEDs have a much lower heat output, but provide the same level of intensity (and often improved uniformity). This represents an enormous advantage for cannabis cultivators, as the lights can be hung much closer to the plant canopy without burning trichomes than they would be able to with other lighting technologies.
UV Light. Cannabinoids and terpenes are part of the cannabis plant’s natural defense mechanism, so it makes sense that lightly stressing plants can boost cannabinoid and terpene numbers. Some studies illustrate an increase in UV-B and UV-A light can lead to richer cannabinoid and terpene profiles.1 It’s a fine line to walk, though – too much UV can result in burned plants, which leads to a noticeable drop in cannabinoids.
Full-Spectrum Capabilities. The cannabis plant evolved over millions of years under the steady and reliable light of the sun. Full-spectrum is the closest thing to natural sunlight that growers will be able to find for indoor growing – and they’ve been shown to perform better in terms of cannabinoid development. A 2018 study titled “The Effect of Light Spectrum on the Morphology and Cannabinoid Content for Cannabis Sativa L.,” explored how an optimized light spectrum resulted in increased expression of cannabinoids CBG and THCV.2
This is the most important tip for indoor growers: your plants’ environment is everything. It can make or break a successful harvest. That means cultivators are responsible for ensuring the plants are kept in ideal conditions. Lights are certainly important at an indoor facility, but there are several other factors to consider that can affect your lights’ performance and the potency of your final product. This includes your temperature regulation, humidity, the density of plants within the space, CO2 concentration and many other variables. For the best results, your lights should be fully aligned with other environmental controls in your space. Nothing sabotages a once-promising crop like recurrent issues in the indoor environment.
Indoor cultivation facilities often use high powered lights that can give off heat
Cannabinoids and terpenes take time to develop – so cultivators will want to avoid harvesting their plants too early. On the other hand, these compounds begin to degrade over time, so growers can’t wait too long either.
Cultivators seeking potent cannabinoid and terpene profiles must find a happy medium for the best results – and the best place to look is where cannabinoids and terpenes develop: the trichomes. With a microscope, cultivators can get up close and personal with these sparkly structures. Younger plants begin with clear trichomes, which eventually become opaque and change to amber. Once your plants show amber-hued trichomes, they’re ready for harvest.
The truth here is that there’s no perfect formula to elicit show-stopping cannabinoids and dizzying terpenes with every harvest. A lot of cannabis cultivation is based around trial-and-error, finding what works for your space, your business and your team. But understanding the basics around indoor environmental controls like lighting and temperature – and how they can affect the development of cannabinoids and terpenes – is an excellent place to start. Using high quality equipment, such as full-spectrum LED lighting can boost both cannabinoid and terpene production, resulting in richer, more potent and higher quality strains.
References:
Lyndon, John, Teramura, Alan H., Coffman, Benjamin C. “UV-B Radiation Effects on Photosynthesis, Growth and Cannabinoid Production of Two Cannabis Sativa Chemotypes.” August 1987. Photochemistry and photobiology. Web. https://onlinelibrary.wiley.com/doi/abs/10.1111/j.1751-1097.1987.tb04757.x?&sid=nlm%3Apubmed
Magagnini G., Grassi G., Kotiranta, S. “The Effect of Light Spectrum on the Morphology and Cannabinoid Content of Cannabis sativa L.” 2018. Medical Cannabis and Cannabinoids. Web: https://www.karger.com/Article/FullText/489030
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