Cannabis and Hemp Extractor Machines Build Your Own Brand Licensing

Infinity Supercritical is now offering the Build Your Own Brand licensing opportunity.

If you have a machine shop, or would like to brand your own Supercritical CO2 Fluid Extraction System for botanicals, Infinity is offering the following:

  • 10L Plans and Parts List
  • ASME Engineer Peer Reviewed and Proven System
  • Closed Loop and Certified in CA, AZ, NV, WA, OR, and CO
  • Machine Your Parts or Purchase Parts From Infinity and Assemble at your location
  • Enter into the Manufacturing Equipment side of Cannabis Industry
  • Typical Research and Development for this type of Equipment exceeds $1 Million
  • Typical Development and Testing Time for New Systems is about 2 years
  • Licensing Technology gives you Instant Access to Industry Sales
  • Optional Drop Ship from our Shop – You Sell and we Build and Ship
  • One Time Fee
  • Market with Infinity Supercritical Inside – Brand Recognition
  • With payment you can start building or selling immediately


With the Build Your Own Brand licensing opportunity, you can customize the frame design and colors. The Infinity frame is completely modular and bolt-together for rapid reconfiguration.


Modular Frame: Our Caster Beam frame allows you to configure your extraction equipment in many ways.


Machining Parts: We can provide you with all the parts, or custom make parts for your system with our Vertical Milling Machine or our Omax Waterjet. We’ve already made the huge investment in the machines, now you have the opportunity to use them for your business.



Quality Extracts: The Infinity Supercritical extraction system can provide extractions from any botanicals and provides a superior product.

Web Page Design and SEO Optimization: You can buy a page on our website, or build your own website to advertising your product. We also have a page optimizing SEO algorithm using Filemaker Database which can point tens of thousands of page links to your site.


How to Select a Supercritical CO2 Fluid Extraction System for Extracting Botanical Oil

Selecting a supercritical CO2 oil extraction system can be a daunting process, given all the choices that are now available. Here is a short, but comprehensive list of important features you should be looking for.


  • Speed of Extraction Process: The time it takes to complete a cycle, with all other factors being equal, will determine your ability to process more material and become more profitable. Batch systems will require you to load, and wait while the system processes the material, which can take up to 12 hours or more for some systems.
  • Quality of Extracted Oil: The manufacturer should provide you with lab results of extracted oil. You can also speak with customers in determining the consistency of oil, and concentrates after post-processing. Profitable machines typically will produce a crude oil, which is then further refined during a separate procedure termed post-processing. This is where waxes and other compounds are removed from the oil to purify the Terpenes, THC, and CBDs (Cannabis and Hemp).
  • Automation vs. Semi-Automation: Extraction professionals prefer semi-automated systems, because it gives them flexibility to produce a variety of products, from live resin, shatter (post processing required), crumb, vape pen oil, dabs, and concentrates. Semi-automation allows you to also run a infinity variety of recipes for the extraction process, including first removing Terpenes (without heat) and then continuing the process with heat for other extracted compounds. Automation is great for single variety processing, and mass production of oil. Limitations of automation include malfunctions with software (or updates), and the use of more CO2 than non-automation machines. Backpressure valves are needed for precise pressure control. Most automated systems require a connection to the internet. Semi-automated systems can be utilized in remote locations, without the need for a internet connection.
  • Beware of Expansion Systems: Most CO2 pumps are designed for a specific flow rate. While this can be varied to some degree, simply adding extraction vessels in 5L or 10L increments drastically changes the system dynamics. Most extraction systems are dialed in for a specific volume and flow of CO2.
  • Delivery Time: Most extraction systems are build to order. 2-4 weeks is a reasonable build time.
  • CO2 Recovery: Well build extraction systems will retain the majority of the CO2 in a holding tank or reservoir. Beware of systems that use commercial CO2 supply cylinders as the storage reservoir, since most suppliers of CO2 will not allow you to return or refill rental or leased bottles, if they contain any traces of botanical oil or residue. Efficient systems will vent off extraction and collection vessel CO2, which needs to be replace for each cycle. Expensive systems will have a CO2 recovery system, which adds to the initial cost, and can be a maintenance headache. In our opinion, a expensive recovery system is a waste of money.
  • CO2 Pumps: Closed loop systems require a robust method to pressurize and circulate the CO2, which is the solvent for the botanicals. There are liquid and gas systems. Both work effectively well, but the liquid system is a smaller footprint, easier to maintain, and provides a more efficient delivery of CO2. diaphragm gas pumps are large, required compressed air (noisy), and expensive to maintain. Efficient liquid CO2 pumps can be powered directly with a electric motor, which allows silent operation (less operator fatigue from no noise), and can have the CO2 heated as it exits the pump, which ensures even heat distribution in the botanicals. Pumps should have easy access to maintenance, and a good system of filtering before the pump, so that little to no carry-over (residual botanical oil which is sticky) reaches the pump. Expect to change the seals on a good pump about once a month, if proper machine operation is followed to reduce carry-over.
  • Training: Supercritical Co2 Extraction systems require proper training to operators for normal operating procedures, safety, and maintenance.


Advantages with Infinity Supercritical CO2 Botanical Extraction Systems:

-Simplicity: because our systems are not automated, you do not have to
worry about software updates, system shutdowns (in the middle of a run
due to power failure or software hickups), or problematic pressure

-Full Automation: After consulting with more Cannabis extraction
professionals, we have decided against moving forward with full
automation. Our customers are getting such great results with a
semi-automated system, we believe it is not advantageous to deploy
fully automated PLC systems. After talking with several Apeks
customers, we do not believe that a fully automated system, is the
best choice for a production Cannabis oil operation.

-FlowBar: we distribute CO2 over the length of the extraction vessel,
and from the inside of the Cannabis to the outside. The result is a
much faster, and complete extraction. This means that you can run
through 2-4 times more cycles than with the same size competition.
With our system, you can do a extraction cycle in 1-3 hours. Faster
extraction means more profit, so your payback is even faster with our
system. To be conservative, just plan on a 3 hour extraction time, and
experiment with your actual extraction time.

-Electro-Static Precipitation System: we use the action of the CO2
flowing over food-grade Teflon to produce a passive static charge. The
tribo-effect charges the oil entrained in the CO2 gas so that it
sticks to the first contact, which is the first collection vessel.
Better collection equals less or minimal carry-over, which reduces
pump maintenance.

-Tube Size: we use 1/4 to 1/2 inch Swagelok tubes and components,
which allow better flow of the CO2.

-Silent CO2 Pump: we use a highly-modified industrial liquid CO2 pump,
which runs using a motor. Operation is silent. Our extensive
modification means very minimal maintenance, and seal replacement can
be done by removing the pump head (about 5 minutes), cleaning the
pistons (about 10 minutes), and replacing seals (about 10 minutes).

-No Noisy Air Compressor: we do not need, nor use, a external pneumatic air
compressor (or additional chiller to cool the compressor which gets
hot from use). Compressor is so loud, that most systems which require
it, will need a separate room because it’s so noisy. Noise produces
extractor technician fatigue.

-Swagelok Back Pressure Valve: we use a very precise BVP, which allows
us to achieve very accurate pressures. We do not use valveless
technology, which produces pressure swings.

-CO2 Preheat: we use a heat exchanger on our motor-to-pump gearbox,
which preheats the CO2 before it gets into the extraction vessel. By
using the heat (byproduct of the gearbox), we are conserving energy
and preheating the CO2.

-Pressure and Heat Zone Feedback PID: we use compact PLCs to control
the pressure (with a feedback loop via digital sensor) and three zone
heat monitor, control, and feedback.

-Less Complicated: the system we have is modular, on a sturdy
industrial bolt-together frame, with casters, and can be wheeled
through any standard door, hallway, or elevator. The modular cart is
24 inches wide, by 48 inches long, by 71 inches in height. You will
notice the clean lines, minimal tubing, and logical layout of the

-Less Stuff Needed to Run: our system requires a liquid CO2 supply
(cylinders), and a small chiller. That’s it. No air compressor, or
items to support that compressor.

-Quality Extract: our customers who perform extraction, say that their
ultimate customers rave about the quality and aroma of the extracted
oil. The quality terpenes that are extracted and ultimately preserved,
make the end-user experience a quality one.

-New Technology: we’re working on a solid state chiller (bolt-on),
energy saver heating/cooling technology, acoustical ultrasonics, and
other advanced technology, which not only enhance the operator
experience, but will reduce cycle time, while increasing quality of
extract. The bottom line is to save you time, and increase production,
which result in more profit. We are also working on SDR (Spinning Disc
Reactor) technology which will allow continuous flow processing, and
without pressure or CO2.

For more information, please visit:

For extraction supplies, including chillers, rotovap, distillation, and vape pen supplies: Click here

Starting a Cannabis Business | Access for Women | Startup | Business Plan

Infinity Supercritical LLC


Cannabis Search Engine Series Starting a Cannabis Business

PDF Publications Search Engine This real-time PDF document search/retrieve search engine forms dynamic search engine lists and results using Filemaker.  Search engine displays results with both text and a image field of the .pdf page.

Search Complete. Starting a Cannabis Business search was updated in real-time via Filemaker on:

November 16, 2016

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Technology Review of Cell Lysis Methods

PDF Download: 20170718-infinity-supercritical-cell-lysis-methods


Plant Cell Pressure |Strength of Plant Cell Walls | Ways to Break Cell Walls


How to Break Down Cell Walls:


-Grinding: Mortar and pestle, which is often done with plants frozen in liquid nitrogen.

-Beadbeating: Cracking open cells using ceramic or glass beads, typically done in suspension and in a vortex.
-Sonification: Using ultrasound with plant matter in a solution, by cavitation shockwave. -Homogenizer: Shear force by forcing cells through tubes smaller than cells, by rotor- stator (rotating blade) or outer layer shear (French Press).

-Freezing: Cell rupture from freeze thaw process. Can take lots of time.

-High Temperature (and Pressure): Cells walls are disrupted, but denatures proteins, and heat can damage cell contents. Typically by autoclave, microwave, steam, etc.

Non-Mechanical Methods:

-Enzymes: Remove cell wall by using naturally occurring enzymes.

-Chemicals: Organic solvents like ethanol (alcohol), especially for hydrophobic (doesn’t like water) molecules. Commonly used with shearing forces.
-Bacteria: EDTA, negative bacteria, to chelate cations that bore holes in cell walls.

REF: down-the-walls-part-ii-8-methods-to-break- down-cell-walls/


Cell Lysis Methods:
Reagent Based Methods:
-Fast, efficient, reproducible
-Can extract total protein or subcellular fractions
-Disrupts cell wall and or lipid membrane


Physical Methods:
-Expensive equipment
-Larger footprint for equipment

-Less reproducible

-Not compatible with high-throughput and small volumes

-Aggregation and denaturation of protein may occur
-Cells disrupt at different times

REF: https://www.thermofisher. com/us/en/home/life-science/protein- biology/protein-biology-learning- center/protein-biology-resource-library/pierce- protein-methods/traditional-methods-cell-



Tensile Strength of Cell Walls

Cylindrical Cell Shape: 100 atm or 1,470 psi

Spherical Cell Shape: 95 atm or 1,396 psi

Spherical Cell Shape: 30 atm or 441 psi

REF: https://www.ncbi.nlm.nih. gov/pmc/articles/PMC1074911/pdf/plntphys0 0593-0165.pdf

Plant Cell Vacuoles

The central vacuole (may be 80 percent of space) is a membrane bound sac which provides cell support and helps the plant function with growth.

Turgor Pressure: Vacuoles help to maintain and control the rigidity of the cell (structure),

by compensating the osmotic pressure from within the cell and pressure exerted from outside the cell.


Additional Reading:

Cannabis sativa: The Plant of the Thousand and One Molecules



Cell Disruption Using a Microfluidizer

Using a Microfluidizer versus a French Press using the same 20,000 psi back pressure, resulted in 92 percent breakage in 8 passes, versus only 50 percent breakge for the French Press in 7 passes.

REF: disruption-publication-summaries.pdf

Practical Use of Continuous Processing in Developing and Scaling Up Laboratory Processes

Continuous flow reactors allow for better control of exothermic processing than do batch reactions, and allow for a more efficient and safe scale-up of rapid reactions in a smaller footprint.

REF: http://pubs.acs. org/doi/abs/10.1021/op0100605? journalCode=oprdfk

Sustainable Production of Cannabinoids with Supercritical Carbon Dioxide Technologies

PDF Review: 20170815-infinity-supercritical-co2-cannabinoids-review

Source: https://repository.tudelft. nl/islandora/object/uuid%3Ac1b4471f-ea42 -47cb-a230-5555d268fb4c
Title: Sustainable Production of Cannabinoids with Supercritical Carbon Dioxide Technologies

ISBN: 9789085707301

The goal of this thesis was to develop an alternative extraction method of natural compounds of interest from plant material. In specific, the goal was to avoid using organic solvents as much as possible due to residual solvents problems, low selectivity, high energy consumption, and environmental worries.

The alternative method consists of using supercritical fluid CO2 to extract compounds from plant material. There are numerous advantages to doing SFE with CO2, including CO2 being nonflammable, relatively inert, inexpensive, the ease of removal of the solvent, the plant material being non- hazardous afterwards, the different solubility of compounds depending on the temperature and pressure of the fluid, and low critical temperature allowing for extraction of heat- sensitive materials without damage.
The downsides to using CO2 include it not being a great solvent for larger polar molecules and requiring the stream to always be under high pressure which lead to higher initial investment costs. The higher initial investment costs can be outweighed though by how cheap CO2 is and the fewer steps needed for purification.  The focus of the thesis is on the separation of phytocannabinoids (or cannabinoids found in the cannabis plant) from the plant material. There are over 60 different phytocannabinoids with the most commons ones being (-)-D9- tetrahydrocannabinol (D9- THC), cannabidiol (CBD), cannabinol (CBN), cannabichromene CBC), cannabigerol (CBG) and tetrahydrocannabivarin (THCV). This study will focus on D9-THC, CBN, CBD, and CBG. Each of these compounds have their own medicinal effects, from pain relief and nausea relief with D9- THC, a sedative effect with CBN, convulsion, anxiety, and inflammation relief with CBD, and analgesic and anti-inflammatory effects with CBG.

The isolation of these compounds from the plant material is of high interest due to the drawbacks of smoking cannabis and different medicinal effects of each compound.

The production method proposed for cannabinoids with purities higher than 95% involves a pre- treatment step, where the acid forms of the cannabinoids are changed to the neutral ones due to better solubility, extraction using SFE with CO2, winterization of the extract to remove waxes, and then purification through centrifugal partition chromatography (CPC).

The cannabis plant strain used in this thesis is Bedrocan which contains around 18% D9- THC and less than 1% of other cannabinoids, thus the main focus will be on extraction of the D9-THC. CBN can be obtained through specific storage conditions to degrade the D9-THC into CBN. CBD and CBG can be obtained using the same process on different cannabis strains with higher concentrations of other cannabinoids.

CO2 becomes a supercritical fluid at temperatures higher than 31.1 degrees C and pressures higher than 1070 psi. This means that the CO2 can only be described as a fluid as it is indistinguishable between a gas or liquid. This is important because it allows for the tuning of the solvent. By changing the pressure or temperature supercritical CO2 can become more or less liquid-like with increasing or decreasing solvency power. CPC is similar to other chromatography techniques. It uses two immiscible liquid phases and uses a centrifugal field to force the mobile phase through the stationary phase.

Each compound has different interactions with these liquids and thus migrate through the phases at different speeds. Thus, they can be collected at the end of the column in relatively pure amounts. Decarboxylation of D -9-THC is necessary due to the acidic form found in the cannabis plant. Usually this occurs during combustion when smoking the plant, but when it comes to medicinal products it will likely need to be transformed without this step. The usual method for large scale decarboxylation involves organic solvents, basic aqueous solutions, and lots of energy, thus alternatives are preferred. One alternative is to pre-treat the cannabis plant before extraction.

When heating the plant material between 90 and 140 degrees C, the decarboxylation reaction from D9- THCA to its neutral form happens at near 100% selectivity. Since the process happens in a solid-state reaction, which leads to a catalytic process, the process could be estimated with a pseudo first order process. This reaction tends to happen at a lower activation energy than normally assumed possibly due to aliphatic and aromatic acids present as other plant constituents in cannabis. While adding strong acids seem to encourage this reaction and could decrease the activation energy, it causes toxic waste from the process which may be bad for other compounds of interest.

The solubility of D9-THC in supercritical CO2 was found for different temperatures and pressures. Below 1914 psi and 40 degrees C, the solubility could not accurately be recorded due to low solubility. In general, the solubility increases with pressure at all temperatures. At about 2175 psi, the solubility is found to decrease with increasing temperature, and above that pressure the solubility is found to increase with increasing temperature.

Some experimental values for D9-THC in supercritical CO2 from the data collected. At 42 degrees C, changing the pressure from 1914 psi to 3640 psi increased the solubility from by 4 times (0.20 to 0.83). At 54 degrees C, changing the pressure from 2030 psi to 3408 psi increased the solubility by around 6 times (0.33 to 1.99). At 61 degrees C, changing the pressure from 1987 psi to 3190 psi increased the solubility increased the solubility by about 7.3 times (0.32 to 2.33). At 72 degrees C, changing the pressure from 2117 psi to 3190 psi increased the solubility about 3 times (0.98 to 2.95).

At most of the temperatures and pressures evaluated in this study the constants created a good predictability for the solubility. The exception being at above 72 degrees C and low pressures.

The solubility of CBN in supercritical CO2 was found for different temperatures and pressures. In general, the solubility increases with pressure at all temperatures, but not as much as with D9-THC. Interestingly, the highest solubility was found at 53 degrees C.

The article concludes that CBN solubility in supercritical CO2 is different enough from D -9-THC that they could be extracted separately to isolate both compounds. This would include a two step extraction, there the plant material is first extracted at 53 degrees C and 1885 psi for CBN and then 2900 psi at the same temperature for D-9-THC.

The solubility of CBG in supercritical CO2 was found for different temperatures and pressures. In general, the solubility increases with pressure at all temperatures, but by a much less magnitude than the D9-THC. Also, the highest solubility was found at the highest temperature.

The article concludes that the solubility trends for CBG are similar to D9-THC, but the actual values are different enough between the two to extract them separately or through fractionation.

The solubility of CBD in supercritical CO2 was found for different temperatures and pressures. In general, the solubility increases with pressure at all temperatures. The difference in solubility between pressures is similar to CBN. Interestingly, the highest solubility occurs at 53 degrees C, like CBN.

The article concludes that CBD’s solubility trends are more similar to CBN and that they are different enough to D9-THC to be extracted separately.

When comparing all four cannabinoids, the difference in solubility can come from a couple things. This includes their melting point (with solid cannabinoids showing better solubility than liquid ones) and their chemical structures (due to CO2 having a higher affinity for non-polar compounds). Overall, CBN has the highest solubility in supercritical CO2. All of the solubility of the different cannabinoids in supercritical CO2 is on the order of 1-2g per kg of CO2 which place them at high enough for SFE.

An example is described to show how one could extract the majority of D-9-THC without other cannabinoids. In a cannabis plant containing 5% D9-THC and 6% CBD (Bediol strain), a first step extraction at ~1885 psi and 42 degrees C would extract 26 percentage of the THC and all of the CBD.

While the CBD would need to be purified, a large amount of the THC could be collected at very pure amounts using this step extraction method.

It was determined that particle size distribution of the plant material had little influence on extraction yields, and thus weren’t investigated.

The highest total yield (extract weight divided by starting weight) was 23.3 percentage and was found at the highest pressure and lowest temperature, 3335 psi and 40 degrees C respectively. This didn’t vary much from the differences in pressure, with 21 percentage being achieved as low as 2175 psi and is believed to be because the extraction was already being ran to completion. This was at flow rates of CO2 of 6 kg per hour for 3 hours. In terms of THC yield, the best yield was found at lower temperatures (40 degrees C).

In terms of time for extraction (at 2610 psi and 6 kg per hour of CO2), the maximum D9- THC yield was found at around 3.75 hours at 40 degrees C. This yield was 98 percentage. Compared to at 50 degrees C, where the maximum yield was reached at about 1.5 hours, however a maximum yield of 74 percentage is reached. During the extraction time, the D9-THC yield increases linearly in time at the same rate between the two temperatures. In comparison to hexane extraction, the D9-THC yields are about the same (85.3 percentage for CO2 and 85.9 percentage for hexane). The other cannabinoid yields were slightly higher with CO2.

The other cannabinoids were found to have the highest yields at 40 degrees C when varying temperature at 2610 psi. All three other cannabinoid yields decrease with increasing pressure at 40 degrees C, while D9-THC’s yield was stable over pressure ranges. This implies that the two step extraction method at 40 degrees C (first at 2175 psi and then at 2900 psi) could first extract the other cannabinoids and then extract the D9-THC, allowing for a more pure extract of D9-THC. This is consistent with what was stated before.

A winterization step could be avoided to remove waxes by having a two stage separator, where the CO2 to decompressed to a medium pressure to precipitate the waxes, followed by another decompression step to recover the cannabinoids. The exact temperatures and pressures would have to be tuned to the solubility of the cannabinoids in the CO2, but should be feasible. In this thesis, a winterization step was included with hexane. This involves dissolving the extract in hexane and freezing it to precipitate out the waxes.

The extraction curves found in this paper determined that the solvent to feed ratio required for extraction of D9-THC is about 0.7g of D9-THC extract per kg of CO2. This is the same for both 40 and 50 degrees C.

It was found that using CO2 as the stationary phase and a water/ethanol mixture as the mobile phase, that no adequate separation could be achieved. Same with CO2 as the stationary phase and a water/methanol mixture as the mobile phase. There are hopes to use supercritical CO2 as the stationary phase, but no commercial CPC machine can handle the pressures required for such a machine.

With the CO2 SFE process outlined, around 80 percentage of the organic solvents can be recycled and 96 percentage of the CO2 can be recycled. Also, the plant matrix after extraction is clean of organic solvent and can be disposed of much easier than with the hydrocarbon extraction. This favors the CO2 SFE process in relation to the environmental impact of the process.

In conclusion CO2 SFE can be used to extract cannabinoids from cannabis plant material. It is heavily favored economically, environmentally, and regulation wise compared to hydrocarbon extraction. The total amount of process steps is also lower than hydrocarbon extraction. It can produce 85 percentage D9-THC extract after a winterization step, which can be further purified. One method of this is CPC which can produce +99 percentage D9-THC. The cost can be largely reduced by having a lower initial cost of cannabis.

Antioxidant and Anti-inflammatory Activities of Oregano Oil Extract

Review PDF: 20170907-infinity-supercritical-oregano-anti-oxidant


Source Review: Yoshino, K., Higashi, N., & Koga, K. (2006). Antioxidant and antiinflammatory activities of oregano extract. Journal of health science, 52(2), 169-173.

Inflammatory diseases due to lifestyle changes like dietary habits can cause serious health issues like digestive ulcers, chronic gastritis, and gastric cancer.

Hydrochloric acid, digestive enzymes, and bacteria in the digestive system can cause damage to mucous membranes which can cause the production of active oxygen species like nitrogen monoxide and anion radicals.

These active oxygen species can directly injure surrounding cells and produce peroxides and other metabolites of acids that can continue to cause more damage which overall promotes inflammation.


Antioxidants are known to suppress inflammation in rat arthritis models.

They can directly scavenge for radicals and act as electron donors for peroxidases (PODs) which helps decompose hydrogen peroxide through a catalytic reaction.

Many herbs include some antioxidant components, and oregano is one such herb.

Some active components in Oregano include rosmarinic acid, caffeic acid, and various flavinoids.

All of these components can also act as substrates in the catalytic reaction for PODs.

To obtain these active components from the plant, commercial oregano leaves were ground up in a mill, added in a ethanol, and shaken at 122 degrees Fahrenheit for an hour. The mixture was then centrifuged at 5000 rpm for 10 minutes. The supernatant was separated, evaporated in vacuum, and then lyophilized (frozen). The oregano extract remains.

To measure the activity of the oregano extract active components as a POD substrate, horseradish POD was added in with oregano extract and hydrogen peroxide and the decomposition was compared to a control and a positive control (phenol, which has a known strong catalytic response).

To measure antioxidant activity, the oregano extract was added in with ferric chloride and the iron-reducing activity was tracked and compared to a standard.

To test reduction of gastric inflammation, mice were give the oregano extract and stressed. After 24 hours of starvation in cold they were killed and their stomachs were examined. The amount of bleeding points were compared to a control and hydrocortisone (a known anti inflammatory agent).

Finally contact hypersensitivity was tested with and without the oregano extract to see if the extract reduced skin swelling (a form of inflammation).

This was tested through applying a compound to make an area of the mouse sensitive, then applying a compound which actively causes swelling. The extract, hydrocortisone, and a control were then added to see which helps reduced swelling.

Oregano extract performed at 60.6 percentage of the phenol as a POD substrate, suggesting it is a good electron donor for POD. This is compared to two other herb extracts, laurel and marjoram, which are known antioxidants, which performed at 28.1 and 25.8 percentage.

It performed as an antioxidant by reducing the iron compound, but not as well as ascorbic acid (Vitamin C). Its iron-reducing ability was roughly half of ascorbic acid.

In the mice studies, oregano extract performed similarly to the hydrocortisone at lower doses where it reduced bleeding points by 30.5 to 34.0 percentage compared to hydrocortisone’s reduction of 47.5 to 49.5 percentage. However at higher doses, hydrocortisone performed much better than oregano extract (80.0 compared to 35.0 percentage).

In the testing of the inhibition of contact hypersensitivity, the oregano extract reduced swelling by up to 47.4 percentage. The hydrocortisone reduced swelling by up to 74.7 percentage.

Mouse contact hypersensitivity is known to be suppressed by antioxidants and thus the antioxidant activity of oregano extract is suggested to be what helped with the reduction in swelling.

Peroxide levels are also known to raise in mice subjected to cold and starvation, implying that the reduction in bleeding points could be from the use of the oregano extract’s active components as a substrate for POD.

While this study implies general oregano extract can reduce gastric inflammation and act as an antioxidant, it doesn’t specify which active component of the extract is promoting these activities and more studies would need to be done to confirm which are actually active.

Heisenberg Honey uses Infinity Supercritical CO2 Extraction System to Produce some of the Best Products on the Market in Southern California

Located in Southern California, Heisenberg Honey produces a CBD Infused Oil and Tincture, and concentrates for gourmet edible candy, using organic ingredients. The group uses a Infinity Supercritical CO2 10L extraction system, which runs on almost a daily basis. The system produces a superior extract, which is then winterized and distilled into a pure concentrate, which is then used in medicinal products.



Customers say it’s some of the best extract they’ve had. And that’s a result of a experienced professional running a great extraction machine.

From Todd at Heisenberg, “What’s unique about our lab is that is it run by licensed chemists who know exactly what they are doing. We do not use any kind of Butane and do not make BHO as Butane extraction can be very toxic as it is from petroleum derivatives. Instead we only use CO2 for our extraction process SFE (supercritical CO2 fluid extraction) which is a “green solvent” and safe for consumption. We want to make sure that everything that leaves our lab is 100 percent safe for the consumer to use. This is why we also have our own testing lab to make sure that all product is tested before it goes into our extractor for pesticides or toxins. The product is also tested after processing for potency so you will know exact dosages.”

An Example of Cannabis Terpene Rich Oil Extract From a Infinity Supercritical CO2 Machine

Todd himself has about six years of organic chemistry, and likes how the Infinity Supercritical machine works. And the results are outstanding. Todd has built up a experience and knowledge-base on the system so that the CO2 pump rarely has to be cleaned. Todd likes the simplicity of the machine and that it is semi-automated. “The fully automated extraction machines tend to blow out all the CO2 when there is any issue during the extraction cycle, which can result in large CO2 supply costs, not to mention software updates. With a semi-automated system, you can set the pressure and temperature zones, and they will automatically maintain those settings by use of feedback sensors, which results in some great extraction results,” Todd said.

The Infinity Supercritical 10L System Uses Semi-Automated Pressure Regulation and Temperature Zones to Produce a Terpene Rich Product

“If you make a effort to run the machine properly, and and focus on collection of oil instead of blasting through the closed-loop cycle, you don’t have to clean the pump,” Todd commented. Todd has his botanicals tested for both pesticides and total oil content. That insures that the botanicals are organic (pesticide free) before processing, and knowing the oil content helps to determine the amount of crude oil extract that will be  produced. “Typically, we expect about 5 percent oil content from trim, ” Todd said. “After the post processing and concentrated distillation (polishing), you can expect to lose about 20 percent of the total crude oil extract from waxes, which make the concentrate even more pure, clear, and produces a wonderful aroma (terpene rich oil).”

The Infinity Supercritical CO2 Botanical Extraction System is Certified in California, for use in the Cannabis Industry: The system is completely silent in operation, and has several energy saving features which make cost of operation low, and low demands on a electrical system.

Todd is also offering classes on post processing, including winterizing,  distillation, and the nuances of licensed cannabis extraction for the Los Angeles, and Southern California region. His experience in the industry can help new entries into the cannabis space, which will go recreational legal in 2018.

Contact Info For Heisenberg Honey, Extraction Consulting and Post Processing Classes: 

Todd  – Chief Chemist and Extraction Professional
TEL 310.508.6476









Spinning Disc Reactor – Nanoparticle Production Profit Potential

Review of Article: 20171106-infinity-turbine-sdr-spinning-disc-reactor-nanoparticles-sdr


Spinning Disc Reactors, or SDRs, are a very new type of processing unit that has had new applications discovered every year. All the articles used in this report are under 10 years old, with the newest one being published this year. This demonstrates how new SDRs are, especially in this field. While there is no publicly available information on using SDRs to make quantum dots, I believe that it is possible and most likely is being optimized currently in the private market.

A big field of interest as of lately has been process intensification which is a design approach that focuses on smaller, cleaner, safer, and more energy efficient processes. One design that has received considerable attention as of late has been the spinning disc reactor (SDR). Its basic design includes one or more liquid streams being flowed onto a quickly rotating disc.

The centrifugal acceleration from the rotation creates a very thin liquid film which significantly heightens the mass transfer and micro-mixing ability of the liquid streams. It also allows for more process control due to additional variables in the process including RPMs of the disc, the texture on the disc, the disc temperature, the injection site along the disc, disc size, pressure in the reactor, and environment in the reactor (can include speciality gas injection into reactor space). It also is a continuous feed reactor which can be applied to many processes that have relied on large volume and high residence time designs like batch or continuously stirred tank reactors (CSTR).


While the SDR can be used for many different processes, it excels greatly in a specific few. These include processes that rely on precipitation and uniformly mixed reactants. These traits allow for SDRs to be used in the “bottom-up” production of nanoparticles, where particles are created through nucleations and subsequently crystal growth. This is where batch reactors and CSTRs aren’t as easily applied due to their high volumes and lack of sufficient mixing ability. “Top-down” processing where bulk material is ground down into nanoparticles is typically avoided when trying to achieve nanoparticles of a certain size and narrow size distribution due to the lack of control over the process.

In 2010, the global market for quantum dots was low, sitting at $67 million [27]. It was projected to have an amazing 59.3% compound annual growth rate, which was mostly realized and by 2016 it has become a $610 million global market (with the estimated CAGR it was predicted to reach $670 million by 2015) [28]. The current growth rate is estimated at 41.3% now for 2016 to 2021, predicting the global market to reach $3.4 billion by 2021 [28].

Both silver and titanium dioxide nanoparticles have a realized and open market to enter with predicted growth and new applications coming out consistently. The cost to produce the materials is rather low and the production ability seems high enough, especially with silver, that a company could actively pursue using an SDR to produce the nanoparticles with success. Since the proof of concept and idea is already detailed, there would be a low cost of entry into these markets as well. The revenue from such could be used to support R&D into quantum dots or pharmaceutical nanoparticles.



January 1, 2018. The California Weed Gold Rush Has Begun. Are you ready ? Strategy.

Read the PDF: 20170608-infinity-supercritical-california-cannabis

California Cannabis

The California recreational sales has begun. The current strategy is to put up cultivation, and then start extraction after harvest. While this may seem intuitively correct, it is the worst strategy for cash-flow.



Start-up Cultivation Means Delayed Cash-flow

If you start with cultivation, you’re looking at 9 -12 months to begin getting cash-flow (in the process from building the grow-house to mature harvest). The time might be a bit better for pure indoor grow, but still a long time regardless. This means you will need a large amount of initial capital outlay, to build facilities, and during the grow. This is valuable time that can be better utilized.


Start with Extraction of Oil for Cash-flow


The profit-makers out in the Cannabis industry have realized that while you can make money cultivating (which everybody is doing), faster access to cash-flow is from the value-added sector, of running extraction machines to produce live resin, shatter, crumb, concentrates for edibles, and vape- pen oil.


Extraction Revenue

Don’t have your own Cannabis product ? Then check with your state regulations and purchase trim or other products from producers who do not have extraction facilities, and then work the value-added space. $50 a pound trim has the potential to get you more than $200 of oil extract. That’s a minimum of four times the value of the trim, and great cash-flow. Of course you will still need to look into the extraction license and other regulations, but this gets you started faster, and with less capital outlay.

Equity Versus Cash-flow

This type strategy gets you faster cash-flow and the all-important sales. This builds equity faster, and requires less initial capital. Starting with just a licensed extraction facility can provide you with a springboard of capital which you can leverage into your own indoor grow, or expanding extraction machinery and capabilities.


Infinity Supercritical Developing Continuous Flow Winterizing System

Infinity is now developing a modular winterizing system. The continuous flow system will take input fluid (ethanol and botanical oil) will provide a process to solidify the wax, and then remove the wax from the fluid. The system will initially be designed for 1-5 L per hour flow, and will be modular. The system will give botanical oil processors (CO2, BHO, Ethanol, and other extraction methods) a system to quickly winterize oil. The time savings are huge. Traditional winterizing methods require putting fluid into a freezer for 24-48 hours. This process will reduce that to an hour or less.