Since launching my organic tobacco patches in 2022, they’ve remained my best-selling supplement—resonating deeply with those seeking a natural, effective option. This fall, I expanded the line with my 100% pure nicotine-rich, locally-grown nicotiana rustica in MCT oil drops, which are quickly gaining popularity as a convenient and flexible alternative. If you’re hesitant about using a patch, these drops might be the perfect solution. Many of my clients are now discovering the powerful synergy of combining both patches and drops for enhanced benefits and personalized support.

As someone from a multi-generational family of farmers, I am incredibly grateful to partner with local Indigenous farmers who use traditional practices in organically growing tobacco. These farmers use only raw tobacco leaves that are certified organic, ensuring they are cultivated according to rigorous standards. Each certified organic ceremonial tobacco leaf is hand-harvested with care, free from additives and preservatives. The “Certified Organic” designation requires that the land remain free of synthetic pesticides and chemicals for at least three years before planting. Farmers also practice crop rotation to preserve soil health and fertility. This holistic approach to farming offers tremendous benefits—not only in producing genuinely natural tobacco, but also in fostering environmental wellbeing by reducing greenhouse gas emissions, enhancing soil productivity, minimizing toxic chemical exposure to farmers, supporting beneficial insects like ladybugs for natural pest control, and preventing harmful runoff into waterways. Together, these practices contribute to a healthier ecosystem and a tobacco product that honors nature’s balance:

• Reduced green house gas production.
• Increased soil productivity.
• Reduction of direct exposure to farmers of toxic chemicals.
• Increased natural presence of beneficials (such as Lady Bugs; good bugs that operate as nature’s own pest controllers).

In 2020 I learned about the hidden benefits of nicotine. I also noticed that my brother and any friends and family who smoked tobacco were able to stay healthy throughout the pandemic and suffered zero covid symptoms. Me on the other hand? Wow. I was so sick. It took me a few months but when I finally started to recover I didn’t want to waste any time. I began implementing what seemed to have kept a few people around me in good health. Smoking nicotine was not a healthy option though. Even more surprising, when I tested a nicotine patch out for myself, I had a very negative and uncomfortable experience. When I researched the ingredients in pharmaceutical nicotine patches they seemed just as bad as cigarettes. This is what I found:

 

pharmaceutical nicotine patch active ingredient

Synthetic Nicotine in varying doses (typically 7 mg, 14 mg, or 21 mg delivered over 24 hours)

How Synthetic Nicotine Is Made

  • Starting Materials: The synthesis usually begins with chemical precursors such as ethyl nicotinate (an ester of niacin), succinic acid derivatives, or myosmine (from pyridine).

  • Key Chemicals/Reagents: Sodium hydride, sodium ethoxide, various organic solvents (like tetrahydrofuran, DMF), acids (hydrochloric acid, sulfuric acid), sodium borohydride, and other common laboratory reagents are used during the multi-step synthesis.

  • Chemical Steps: The process involves a sequence of controlled chemical reactions including condensation, reduction, methylation, and sometimes the use of enzymes or chiral acids to produce the desired enantiomer of nicotine.

  • No Natural Plants Involved: Unlike naturally extracted nicotine, the synthetic process does not use any part of the tobacco plant.

Typical Ingredients and Precursors

  • Ethyl nicotinate or methyl nicotinate

  • Succinic acid or its esters and imides

  • Myosmine (itself sometimes from synthetic origin)

  • Reducing agents (e.g. sodium borohydride)

  • Strong bases (e.g. sodium hydride, sodium ethoxide)

  • Acids for conversion/purification steps (hydrochloric, sulfuric, hydroiodic)

  • Organic solvents (THF, DMF, methanol, ethyl acetate, dichloromethane)

side effects

Can someone be more sensitive to isolated synthetic nicotine than to a nicotine-rich tobacco plant? Absolutely. Synthetic nicotine’s potency and lack of accompanying tobacco compounds can make some individuals much more sensitive to its effects compared to nicotine derived directly from tobacco plants. Sensitivity reactions can include jitteriness, headaches, nausea, and even vomiting or an exaggerated drug-like effect. Some people may be more tolerant of whole-plant extracts and react more strongly to chemically manufactured compounds. These reasons include:

  • Potency and Isolation: Synthetic nicotine is a highly potent, isolated molecule, sometimes containing both S- and R-nicotine isomers. Its potency means it lacks the complex mixture of other alkaloids, flavonoids, terpenes, and plant compounds found naturally in tobacco, which may modulate nicotine’s effects and reduce harshness or toxicity.

  • Absence of Phytochemicals: Nicotine from whole tobacco or herbal sources comes with many co-factors and phytochemicals have synergistic or balancing effects on the body, potentially making nicotine absorption and metabolism gentler and more harmonious.

  • Processing and Chemical Additives: Synthetic nicotine is chemically synthesized with potential chemical residues or different stereochemistry, which some alternative health practitioners believe could cause stronger or less balanced physiological reactions. For example, pyridine (myosmine) alone can cause side effects and health hazards, especially with prolonged exposure. It can cause neurological effects as well as liver and kidney damage.

 

The positive advantages of choosing herbal nicotine or nicotine-rich plants (rather than synthetic nicotine) include:

  • Phytochemical synergy providing holistic benefits and reducing adverse effects.

  • Natural source perception as more compatible with the body’s systems.

  • Tradition and anecdotal evidence supporting their use as therapeutic herbs.

  • Reduced chemical processing, fewer synthetic residues, and additives.

  • Potential for broader health benefits beyond nicotine itself through whole-plant compound.

 

pharmaceutical nicotine patch ingredient

polyethylene glycol

Also found in tylenol and miralax, polyethylene glycol (PEG) can be used as a component in the adhesive or patch matrix of transdermal drug delivery systems, including nicotine patches. PEG serves as a plasticizer, permeation enhancer, or binding agent to help maintain flexibility and cohesion of the patch, support drug release, and improve skin adhesion. Some studies and patents specifically mention PEG 400 and higher molecular weight PEGs being used in patch formulations for effective drug delivery and optimized adhesive properties.

side effects

  • psychosis + behavioral changes: most acute symptoms in children
  • Gastrointestinal symptoms: Nausea, vomiting, abdominal pain, diarrhea, and dehydration from its osmotic laxative effect.

  • Electrolyte imbalances: Large doses can lead to changes in electrolytes such as sodium, potassium, and calcium due to fluid shifts caused by PEG’s laxative action.

  • Kidney stress: In rare cases of massive ingestion, kidney function may be stressed due to dehydration or the body’s effort to clear PEG.

  • Allergic reactions: Though uncommon, some people may have allergic responses like rash or anaphylaxis.

 

pharmaceutical nicotine patch ingredient

polyurethane

Polyurethane is used in nicotine patches as the main matrix or reservoir that holds and controls the release of nicotine for transdermal delivery. In these patches, liquid nicotine is uniformly dispersed within a polyurethane (often polyether-type) polymer matrix. The polyurethane matrix is created by dissolving medical-grade polyurethane in a solvent, mixing in the nicotine, and then casting the mixture onto an impermeable backing layer. After curing, a medical-grade adhesive is applied to secure the patch to the skin.

side effects

If too much polyurethane is absorbed through the skin into the body, it can pose health risks primarily related to the chemicals used in polyurethane production, notably isocyanates.Reactions can appear soon after direct skin contact and can include swelling, blistering, or persistent eczema-like irritation. Some people can also develop respiratory symptoms, such as coughing or shortness of breath, if exposed to polyurethane fumes or dust. Repeated or long-term contact increases the risk of developing allergic sensitization, meaning future exposures can cause more severe or widespread symptoms.

 

pharmaceutical nicotine patch ingredient

acrylates

Acrylates in nicotine patches are primarily used as part of the adhesive matrix that secures the patch to the skin. Specifically, acrylate polymers (such as poly(ethyl acrylate) or methyl methacrylate copolymers) form a pressure-sensitive adhesive (PSA) that sticks reliably to the skin while being flexible and allowing controlled release of nicotine.

side effects

  • Gastrointestinal irritation: Nausea, vomiting, abdominal pain, diarrhea, and possible burns or inflammation in the mouth, throat, esophagus, and stomach.

  • Systemic toxicity: Some acrylates, such as ethyl acrylate and butyl acrylate, can affect the nervous system causing dizziness, headache, and weakness if absorbed systemically.

  • Respiratory irritation: Inhalation of vapors during accidental ingestion or exposure can cause coughing, shortness of breath, and respiratory tract irritation.

  • Skin and eye irritation: Contact with liquid acrylates during ingestion can cause burns and intense irritation.

  • Long-term effects: Chronic exposure to some acrylates has been linked to liver, kidney, and lung damage in animal studies, and some acrylates are suspected or probable carcinogens.

  • Allergic reactions: Some individuals may develop allergy symptoms, including itching, rashes, or more severe dermatitis with repeated exposure.

 

pharmaceutical nicotine patch ingredient

Methacrylic acid copolymers

Methacrylic acid copolymers in nicotine patches serve as part of the adhesive matrix that binds the patch to the skin and helps regulate the controlled release of nicotine. These copolymers contain carboxylic acid groups, which enhance the adhesive properties by improving tack and skin adherence while also influencing the permeability and release profile of nicotine through the skin.

side effects

Methacrylic acid is a highly corrosive and reactive chemical; ingestion can cause severe irritation and burns to the mouth, throat, and digestive tract, along with symptoms like drooling, gagging, vomiting, and gastrointestinal pain. It is also an ocular toxicant and skin irritant. Due to its corrosiveness, methacrylic acid monomer is handled with care and is used industrially to make the copolymers.

 

synthetic nicotine vs herbal nicotine using the whole plant

herbal nicotine using the whole tobacco plant could be potentially safer or gentler than synthetic nicotine if you look closely at the natural origin and absence of synthetic chemicals. However, many holistic sources also caution that ‘natural’ does not always mean risk-free, highlighting that inhaled herbal products or plant extracts can still produce harmful compounds and pose health risks when smoked or used improperly. Overall, herbal nicotine alternatives are viewed as complementary or supportive rather than direct replacements for synthetic nicotine, with safety claims based mostly on tradition and perceived naturalness rather than rigorous scientific proof.

In contrast, synthetic nicotine is known in these circles for being highly processed and lacking the complex phytochemicals found in plant sources that may modulate effects. Alternative health perspectives typically favor plant-derived options for their holistic synergy over isolated or synthetic compounds.

nicotine-rich plants may be considered superior to synthetic nicotine for several reasons:

  1. Phytochemical Synergy: Nicotine from plants comes with a complex mix of other bioactive compounds—alkaloids, flavonoids, terpenes—that may modulate nicotine’s effects, possibly reducing toxicity and enhancing therapeutic benefits through holistic synergy.

  2. Natural Source Perception: Plant-derived nicotine is often viewed as more “natural” and harmonious with the body’s systems, whereas synthetic nicotine is seen as an isolated chemical that may lack beneficial co-factors naturally present in plants.

  3. Lower Processing and Additives: Nicotine from plants can be obtained with fewer chemical steps and less synthetic processing, which appeals to those wary of lab-made substances and potential contaminants or isomers in synthetic nicotine.

  4. Traditional and Anecdotal Use: Nicotine-rich plants have a long history of traditional use in indigenous and herbal medicine for various health benefits beyond nicotine alone, including mood enhancement, cognitive support, and parasite detoxification—attributes not found with purely synthetic nicotine.

  5. Holistic Health Philosophy: Many alternative health practitioners emphasize whole-plant use and bioindividuality, preferring complex plant extracts over single synthetic molecules for a more balanced physiological response.

Environmental Benefits of Natural Tobacco Patches

Choosing natural tobacco patches over synthetic nicotine patches made in a lab generally offers meaningful environmental benefits, especially from an alternative health and ecological perspective.

  • Biodegradable and Plant-Based: Natural tobacco patches use whole plant material that is biodegradable and does not persist as microplastics or chemical waste in the environment. The patch matrix and any plant residue can break down naturally, reducing landfill waste and pollution.

  • Lower Chemical Input: Cultivating organic tobacco often avoids synthetic pesticides, herbicides, and fertilizers, resulting in less soil and water contamination and supporting healthier local ecosystems.

  • Reduced Manufacturing Footprint: Natural patches bypass the energy- and resource-intensive lab synthesis required for synthetic nicotine. Producing synthetic nicotine involves chemical reactions, solvents, energy, and generates hazardous waste. Plant extraction relies more on agricultural and minimally-processed methods.

  • Simpler Waste Stream: Natural tobacco patches tend to contain fewer non-biodegradable additives, binders, or plastics than lab-made products. Even if disposed improperly, plant-based patches decompose much faster than synthetic matrixes which may persist as pollutants or e-waste.

  • Supports Regenerative Agriculture: Responsible tobacco growers can integrate sustainable farming practices—rotation, rewilding, and low-impact harvesting—benefiting biodiversity and soil health.

Environmental Drawbacks of Synthetic Nicotine Patches

  • Lab Manufacturing Impact: Synthetic nicotine production typically uses petroleum-derived chemicals, energy, and creates hazardous chemical waste. Each step—synthesis, purification, and packaging—uses resources that have their own environmental cost.

  • Non-Biodegradable Components: Synthetic patches often contain acrylate copolymers, adhesives, and additives that are not biodegradable, increasing landfill burden and risk of environmental contamination.

  • Potential for Microplastic Pollution: Some synthetic patch matrices or packaging can introduce persistent microplastics, especially if disposed of as litter.

  • Increased Carbon Footprint: The aggregate impact of chemical production, transportation, and energy use raises the carbon footprint compared to traditional, locally-sourced organic plant patches.

missing out on healing terpenes from the plant itself

Terpenes in the tobacco plant offer surprising healing benefits according to alternative health sources. The main therapeutic properties attributed to tobacco terpenes include:

  • Anti-inflammatory effects: Tobacco terpenes such as solanesol and cembranoid diterpenes exhibit strong anti-inflammatory activity, which may help reduce swelling and pain in various inflammatory conditions.

  • Antimicrobial activity: Terpenes in tobacco have demonstrated antibacterial and antifungal properties, effective against pathogens like Staphylococcus aureus and Pseudomonas aeruginosa. This supports their traditional use in treating wounds and infections.

  • Neuroprotective potential: Studies suggest that tobacco terpenes may protect against neurodegenerative diseases like Alzheimer’s and Parkinson’s by reducing oxidative stress and inflammation in brain cells.

  • Antioxidant benefits: Tobacco terpenes contribute to antioxidant activity that can neutralize free radicals, supporting cellular health and slowing aging processes.

  • Metabolic regulation: Some tobacco terpenoids improve lipid metabolism and insulin sensitivity, offering potential benefits for metabolic syndrome, obesity, and fatty liver disease.

  • Pain relief and calming effects: Terpenes like cembranoids have muscle relaxant and soothing properties, historically used to relieve tremors, spasms, and neuralgia.

These healing benefits come from the complex blend of terpenes and other phytochemicals naturally present in tobacco leaves, offering a holistic therapeutic profile beyond just nicotine. Alternative health traditions have long praised tobacco for its multi-faceted medicinal uses, including its sedative, antimicrobial, anti-inflammatory, and neuroprotective roles. Tobacco plant terpenes provide diverse healing benefits such as reducing inflammation, fighting infection, protecting the nervous system, acting as antioxidants, and supporting metabolic health, making tobacco a valuable medicinal plant in alternative health practices

missing out on minor tobacco alkaloids from the plant itself

Minor tobacco alkaloids like nornicotine, anabasine, myosmine, anatabine, and cotinine play a positive role in nicotine tolerance from an alternative health perspective by modulating the effects of nicotine and supporting balanced neurochemical activity. Positive roles of minor tobacco alkaloids in nicotine tolerance:

  • Partial Nicotinic Receptor Activation: These alkaloids act on nicotinic acetylcholine receptors (nAChRs), similar to nicotine but with lower potency, which can gently stimulate the system. This may help reduce reliance on nicotine alone, balancing receptor stimulation and potentially slowing the development of strong tolerance to nicotine’s effects.

  • Synergistic Effects: The minor alkaloids may work synergistically with nicotine to produce a more moderate and sustained receptor activation. This could result in fewer peaks and troughs in effects, improving mood and cognitive benefits while lowering irritability or withdrawal

  • Neuroprotection and Cognitive Support: For example, cotinine, a nicotine metabolite, has neuroprotective properties and supports cognitive function. It may help counterbalance some of nicotine’s harsher neurochemical effects and promote healthier brain adaptation over time.

  • Holistic Plant Chemistry: The minor alkaloids contribute to the holistic action of tobacco as a medicinal plant in traditional alternative health systems, where the complete chemical profile is seen as offering balanced therapeutic effects beyond nicotine alone.

This multi-alkaloid interaction is often viewed positively for providing a more natural, balanced modulation of the nervous system, enhancing therapeutic benefits while reducing risks of rapid tolerance or dependence to nicotine.

there needs to be more transparency with chemical adhesives in patches

Often the chemical-based adhesives are not mentioned in the pharmaceutical nicotine patches. They are just as important as the active ingredients. 100% of ingredients are transdermally being absorbed directly into the bloodstream and circulating throughout the body. The adhesive ingredients in mainstream nicotine patches are similar to the adhesive ingredients used in lash extensions, which many develop allergic reactions to. It is important to ask the manufacturer if the adhesive contains ‘acrylates’ or ‘vinyl acetate’. As mentioned above, they may be carcinogenic. Also, the commonly used solvent ‘n-hexane’ has been linked to neurotoxicity.☠️ I have carefully chosen the healthiest alternatives available for my patches. It doesn’t make sense to use the whole organic plant and then add a bunch of chemical adhesives.

my natural patch material adhesive: cotton*, moringa polysaccharides, oleic acid from cold-pressed olive oil*

*organically grown

cotton fibers – Cotton is composed of almost pure cellulose, making it an excellent source for pharmaceutical-grade cellulose and its derivatives
natural plant polysaccharides – these are moringa polysaccharides that become sticky when hydrated and are used for their adhesive properties
oleic acid – fatty acids like oleic acid from olive can enhance adhesion and skin compatibility

biodegradable material
polyethylene glycol free
glycerin/glycerol free
time-released
lactose-free
gluten-free
nano-free
soy-free