Ozonated glycerin - We will be releasing this ozone gel in early 2025. Enter your email to stay up to date.
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Ozonized glycerin is a highly stabilized solution that combines research-grade glycerin and ozone for various innovative applications. The solution can be formulated as a pure gel or diluted with saline or sterile water to specific concentrations. It is essentially a stabilized form of ozone.
Pure Gel: Undiluted ozonized glycerin.
Ozonated Glycerin Combined with Saline:
-2.5% (25,000 mcg/mL)
-5% (50,000 mcg/mL)
-10% (100,000 mcg/mL)
Ozonated Glycerin Combined with Sterile Water:
-2.5% (25,000 mcg/mL)
-5% (50,000 mcg/mL)
-10% (100,000 mcg/mL)
Materials and Equipment:
-Research-Grade Glycerin: A pure base ingredient with 99.5% or higher purity.
-Ozone Generator: Research-grade equipment capable of producing controlled concentrations of ozone gas (O₃).
-Ozone-Resistant Tubing: Made of silicone to withstand ozone’s oxidative properties.
-Bubbler System: For efficient infusion of ozone gas into the glycerin.
-Glass Reaction Vessel: Inert and ozone-resistant to prevent contamination.
-Cooling mechanism: The reaction vessel needs to be lodged in a cooling mechanism to prevent over heating
Procedure:
Preparation: Pour research-grade glycerin into a sterile glass reaction vessel. Set up the ozone generator and connect it to the bubbler system using ozone-resistant tubing.
Ozonation:
Turn on the ozone generator to produce ozone at a controlled concentration (e.g., 80 - 100 mg/L) at a flow rate of 1/16LPM or lower. Bubble ozone gas through the glycerin for a specified duration (up to seven days), depending on the desired ozonation level.
Dilution (if applicable):
For diluted solutions, mix the ozonized glycerin gel with saline or sterile water to achieve the desired concentration (2.5%, 5%, or 10%).
Stabilization:
Allow the ozonized glycerin to settle and stabilize.Perform quality control tests to ensure consistent ozonation levels.
Packaging:
Sterilized transfer of the ozonized glycerin into sterile, ozone-resistant glass vials. Seal with tamper-evident caps and label appropriately.
Ozonized glycerin should be stored at 2°C to 8°C (36°F to 46°F) in a refrigerator. It must be protected from light and heat to maintain stability. Freezing is not recommended, as it may alter the properties of the solution.
Ozonized glycerin is available in sterile, ozone-resistant glass vials in standard sizes, such as 5 mL, 10 mL, and 20 mL. Custom packaging options can also be provided upon request.
The terms are often used interchangeably, but both refer to glycerin infused with ozone. "Ozonized" is commonly used in technical contexts, while "ozonated" may be more casual.
Yes, customized concentrations and formulations of ozonized glycerin can be prepared to meet the unique needs of research projects.
While we are doing further testing, it appears ozonized glycerin has a half life of approximately 90 days when stored at 2°C to 8°C.
This product is intended for technical, industrial, and research purposes only. It is not intended for human or animal use.
Ozone-resistant glass prevents contamination and degradation caused by the highly reactive nature of ozone. This ensures the stability and purity of the ozonized glycerin throughout its shelf life.
Yes, ozonized glycerin is manufactured in a facility adhering to strict quality control and sterile production standards. Batch testing is conducted to ensure consistency, purity, and compliance with regulatory requirements.
The solution is typically clear to slightly cloudy, depending on the level of ozonation.
We will have ozonized glycerin available in February of 2025.
Ozonized glycerin gel
Ozone-infused glycerin
Stabilized ozone glycerin
Ozone glycerol solution
Saline ozonated glycerin
Sterile water ozonized glycerin
Pure ozonized glycerin
The concentration of ozonized glycerin is measured in micrograms per milliliter (mcg/mL). For example, a 2.5% solution contains 25,000 mcg of ozonized glycerin per milliliter of solution.
Ozonized Glycerin: Fold Changes and Molecular Abundance Compared to Standard Glycerin
The Chemical Properties of Ozonized Glycerin
Using samples provided by Jim Bridge, DVM, I conducted a chemical analysis of ozonized glycerin with LC-MS, provided by Theriome Laboratories. While this serves as preliminary data, it is not an endpoint. Further analysis is required to establish a complete chemical profile of ozonized glycerin. For example, this dataset likely does not account for all molecules present and may contain some misidentified compounds.
The purpose of this newsletter is to provide an open-source foundation for further research. The raw data file and observations are available for review, including three ozonized glycerin samples, three standard glycerin samples, and two quality control samples. If you find this information valuable, I encourage you to share your insights on the chemical characterization by reaching out to [email protected].
This newsletter is intended for those with a chemistry background, as understanding the data requires specialized knowledge.
This observation compared the metabolomic profiles of USP glycerin and ozonated glycerin using untargeted mass spectrometry. Key analyses included principal component analysis (PCA), intensity distributions, heatmap visualization, boxplot comparisons, and a volcano plot to identify metabolites with significant differences. The goal was to identify chemical characterization and understand the chemical differences between the two groups.
-PCA was conducted to reduce dimensionality and visualize variance.
-The first two principal components explained a significant portion of variance.
-Clear separation between USP and ozonated glycerin groups indicated distinct metabolic profiles
-Boxplots displayed intensity distributions for the top 25 metabolites with the largest fold changes (OZ/USP).
-Normalized intensities (z-scores) enhanced visual differentiation.
-A subset of metabolites showed markedly different intensities, highlighting metabolic shifts induced by ozonation..
-A heatmap visualized metabolites with significant differences (fold change > 2, p < 0.05).
-Intensities were normalized to enhance contrast.
-A clear clustering pattern showed distinct upregulation or downregulation of metabolites in ozonized glycerin
-Several metabolites were consistently higher in ozonized glycerin, indicating possible enrichment or formation of unique compounds due to ozonation.
-Some metabolites were significantly reduced compared to USP glycerin
-Fold changes >2 and p-values <0.05 were considered significant.
-Red markers highlighted significant metabolites.
-Top 25 significant metabolites were labeled, providing a focused list for further investigation
-Ozonated glycerin showed carboxylic acids increased to 26.5%, suggesting an enrichment of acidic compounds due to ozonation.
-Minor categories like esters, lipids, and halogenated compounds appeared in trace amounts, possibly formed during ozonation
-Displayed unique profiles, including high abundance of (2R)-2,3-dihydroxypropanoic acid, glycolic acid, and glycerol monopropionate, suggesting oxidative transformations.
-Phosphoric acid remained significant, but new compounds such as acrylamides emerged, indicating complex chemical changes
-PCA demonstrated clear group separation, confirming distinct metabolic profiles.
-Heatmap and boxplots highlighted metabolites that varied significantly between the groups.
-The volcano plot identified key metabolites responsible for observed biochemical differences.
-Ozone infusion leads to molecular modifications that require further structural elucidation.
-Structural Characterization: Advanced techniques (RI-NMR, tandem MS) will be utilized for further molecular insights.
-Functional Implications: Evaluating how these modifications affect stability and biological activity.
-Research Collaboration: Seeking analytical chemists and institutions for deeper characterization.
If you are interested in contributing expertise or insights, please reach out.
Stay tuned for future updates.
Ozonized Glycerin Explained: Chemical Properties, Analytical Challenges, and Research Prospects
-Unknown Chemical Composition: No conclusive analysis has determined the exact structure, and reputable chemists recommend deeper analysis.
-Unlikely to Be Glycerol Tri-Peroxide: Multiple experts have independently concluded that ozonized glycerin probably does not form the unstable tri-peroxide compound.
-Ozone Modifies Glycerin: When ozone is infused, it alters glycerin’s properties rather than simply retaining ozone gas, creating a distinct “new” substance.
-Complex & Costly Analysis: High-end, untargeted instrumentation—often exceeding $1,000,000—plus specialized expertise are needed to identify unknown structures.
-Differences from Ozone Gas: Claims of high ozone content (e.g., “300,000mcg per mL”) do not reflect the modified glycerin’s final chemical properties once ozone is infused.
Ozonized glycerin recently generated interest in the United States due to its potential applications in various industries. Despite this attention, the precise chemical composition of ozonized glycerin remains unknown. This overview clarifies current insights, addresses key questions about its molecular structure, and outlines the current objectives in understanding ozone infused glycerin.
Nobody knows exactly what ozonized glycerin contains from a chemical perspective, yet. This has nothing to do with its effectiveness. We have taken it upon ourselves to look deeper into this problem.
Some have speculated that glycerin altered by ozone is "glycerol tri-peroxide". Upon communication with three different world-class chemists, having worked at organizations such as Harvard University, Mayo Clinic, and Pfizer, they all independently agreed it is unlikely to be glycerol tri-peroxide. One of the chemist boasts 100 patents and near 600 publications. They are experts in every respect. These chemists provided potential chemical calculations but ultimately they all recommended running a proper analysis to determine the chemical composition, as this is the only way to have certainty. Furthermore, it is the only way to determine the abundance of chemicals within the ozonized glycerin (the quantity of each molecule).
Other individuals have provided speculations as to the molecules contained in ozonated glycerin. The reality is that it is still under investigation.
When ozone is infused into a substance, it changes the chemical properties of the substance. The substance does not retain ozone, even though ozone is used in the process.
As such, this is to be treated as something "new", even though the knowledge of its existence dates back to the 1890's. It is better to take this view than to perceive ozonized glycerin as an extension of ozone.
There is extremely little data on ozone-infused glycerin. To our knowledge, nobody has run a chemical analysis on the substance. Substances with "unknowns" are challenging. Analytical platforms (like LC–MS) rely on reference libraries of known compounds. When a substance doesn’t match any existing entries in those libraries, you cannot get immediate identification.
Instead, you need to determine molecular weights and generate potential molecular formulas, break the molecule into characteristic fragments, allowing you to piece together structural hints. We will likely need to patch together information from multiple platforms, costing well over $15,000, just for the analysis (which doesn't include the translation).
Identifying unknowns is like assembling a puzzle, each instrument provides a different “clue.” By compiling these clues and comparing them with known structural data, we can characterize the substance.
However, it’s time-intensive and requires specialized expertise.
In addition, you have to know exactly what you’re looking for to even identify the appropriate platforms and organizations that provide it. You cannot go to a standard “chemical analysis” company because they typically run limited, targeted assays (which is a simple search for common and already known compounds). The equipment used for untargeted analysis of unknown compounds often costs in excess of $1,000,000. Additionally, these are typically owned by large pharmaceutical companies (which don’t care about providing it as a service) or within academic institutions. Accessing these platforms within academic institutions is challenging unless you know how to do it.
We plan to perform an analysis and update this article in February.
To reiterate: nobody knows exactly what this is to our knowledge. And skepticism should be applied to those who claim they know what it is unless they can display the untargeted analysis they used.
Comparing ozone doses to ozonized glycerin is comparing apples and oranges - it is not the same. While a certain amount of ozone gas may be infused into the glycerin, that is not inherently representative of ozone gas. For example, saying there is 300,000mcg per mL of ozone infused into it can be technically accurate. That amount may have been infused into the glycerin. But it does not indicate the chemical properties of the glycerin itself, as the glycerin is modified by the ozone, not retaining the ozone molecule.