Part Three: What We Actually Put In Our Soap

Now for the good part.

Now for the good part.

What We Actually Put In Our Soap

Every Seedsquatch bar starts from the same foundation — a small set of ingredients chosen because the science behind them is genuinely extraordinary, not because they're cheap. Here's what they are, what they do, and why they work.

Organic Extra Virgin Coconut Oil

The chemistry: Coconut oil is approximately 49% lauric acid — a medium-chain fatty acid with a molecular structure that makes it uniquely hostile to bacteria, fungi, and certain viruses.

Here's the mechanism, and it's genuinely elegant: lauric acid doesn't "kill" bacteria the way antibiotics do. Instead, it disrupts the structural integrity of microbial cell membranes. Bacterial cell walls are made partly of lipids; lauric acid interacts directly with those lipids, destabilizing the membrane until the cell can no longer maintain its structure. It lyses — it falls apart.

The body also converts lauric acid into monolaurin — a compound with even broader antimicrobial activity. Research published in the journal Chemistry & Biodiversity documented lauric acid and monolaurin's ability to inhibit Staphylococcus aureus, Candida albicans, and several viruses including herpes simplex. You're getting pathogen-defeating chemistry every time you lather up.

In soap: Coconut oil is responsible for producing the hard, long-lasting bar and the rich, bubbly, abundant lather. Without it, soap is soft and the lather is thin. With it, the bar holds its shape, lasts longer, and cleans beautifully — without any synthetic surfactant required.

What else it's good for: The same lauric acid that kills bacteria in your soap is why coconut oil has been studied as a treatment for Demodex mites in periodontal disease, and why it's used in clinical protocols for reducing oral pathogens. People have been cooking with it for millennia. It's food. You could eat it. The same cannot be said for SLS.

The cost reality: Organic extra virgin coconut oil currently runs $3–$7+ per pound for small-batch quality. Industrial SLS runs under $1 per pound in bulk. This is the difference between our cost of goods and theirs.

Free-Range Lard

Yes, lard. We know. Breathe.

The chemistry: Pork lard contains oleic acid, palmitic acid, and stearic acid — a fatty acid composition that bears a striking resemblance to human sebum, the natural oil your own skin produces to protect itself.

A 2024 paper published in PMC on the biocompatibility of animal-derived fats with skin confirmed what traditional soap makers have known for centuries: lard-derived triglycerides are recognized and welcomed by skin cells in ways that many synthetic moisturizers and even many plant oils are not.

When a fat's fatty acid profile closely matches sebum, your skin doesn't have to "work" to process it. It absorbs readily, doesn't sit on top of the skin as a coating, and doesn't clog pores despite being a saturated fat. (The "saturated fat = pore-clogging" association is largely a myth when it comes to fats biocompatible with skin.)

Pasture-raised pigs — pigs that see sunlight, which allows them to synthesize vitamin D — have lard that is naturally higher in fat-soluble vitamins: A, D, and E. Vitamin A supports skin cell turnover and reduces inflammation. Vitamin D plays a role in maintaining the skin barrier and has anti-inflammatory properties. Vitamin E is a well-documented antioxidant that protects skin from free radical damage.

You get all three. In a bar of soap. From happy pigs.

In soap: Lard makes the bar harder, longer-lasting, and produces a creamy, conditioning lather that is noticeably different from purely plant-oil soaps — gentler, more nourishing, less stripping. It's the reason lard soap was the standard for most of human history. Grandma wasn't wrong.

What else it's good for: Lard has historically been used in pharmaceutical-grade skin ointments (lard-based "cold creams" were standard in medical practice well into the 20th century). Surgeons and researchers have long used pig skin as a model for human skin in research — because structurally, pig skin is remarkably similar to ours. When you use lard soap, you're essentially working with a material that's biologically close to home.

Our lard specifically: Ours comes from free-range pigs raised on the family farm next door — pigs that eat the food scraps Grace brings home from her job feeding 80 Conservation Corps members. These are, by any objective measure, the most well-fed pigs in Northern California. Well-fed pigs make well-nourished fat. Well-nourished fat makes exceptional soap.

Organic Castor Oil

The chemistry: Approximately 90% of castor oil is ricinoleic acid — an 18-carbon omega-9 fatty acid with a hydroxyl group on its 12th carbon. That last bit matters more than it sounds.

That hydroxyl group is what gives ricinoleic acid its unusual behavior. Unlike most fatty acids, which are primarily emollients (they create a barrier on the skin), ricinoleic acid is simultaneously an emollient and a humectant — it both forms a protective barrier and actively draws moisture from the environment into your skin.

That makes castor oil one of the rare carrier oils that genuinely hydrates rather than simply lubricating. It's working in two directions at once.

In terms of lather: castor oil has the remarkable ability to stabilize and amplify foam — soap bubbles made with castor oil in the formula are denser, longer-lasting, and more luxurious than those made without it. The ricinoleic acid interacts with the soap's lather structure to create what many soap makers describe as a "cloud-like" foam. More practically: you use less, it lathers more, and it feels better.

Research has also documented ricinoleic acid's anti-inflammatory properties — it inhibits COX-2 and 5-LOX enzymes involved in the inflammatory cascade, which helps reduce redness, swelling, and irritation. For skin that's already compromised or sensitive, this matters.

In soap: Castor oil is used in small but precise amounts. Too little and you lose the lather amplification. Too much and the bar becomes sticky. The right proportion is an art form, and it's why our lather behaves differently than soap you've used before.

What else it's good for: Ricinoleic acid inhibits Propionibacterium acnes — the bacteria most associated with acne. It's in hundreds of skin care products for this reason, plus its ability to support wound healing and reduce scar appearance. It's also been used in traditional medicine for thousands of years across African and Indian cultures. The science has simply caught up.

Distilled Water

The chemistry and the point: Tap water contains dissolved minerals — calcium, magnesium, chlorine, and other compounds depending on your local water supply. In the saponification reaction (where lye + oil → soap + glycerin), mineral content in the water can interfere with the chemical process, producing inconsistent results, altering pH, or creating what soap makers call "dreaded orange spots" — rancidity from mineral-catalyzed oxidation.

Distilled water contains none of these variables. Every batch reacts cleanly, predictably, and completely.

The result: Batch-to-batch consistency. The bar you buy today and the bar you buy six months from now are chemically identical. In mass manufacturing, that consistency is achieved with preservatives and stabilizers. In our shop, it's achieved with clean water and attention.

Food-Grade Lye (Sodium Hydroxide)

First: the myth. When people hear "lye," they think: dangerous. Caustic. Industrial. And during production, they're correct — sodium hydroxide is a powerful alkali that must be handled with respect and protective equipment. It will burn skin on contact. We are not minimizing this.

Then: the chemistry. When lye (NaOH) meets fats and oils, something remarkable happens. A reaction called saponification occurs. The lye molecules react chemically with the triglycerides in the oils, breaking the fatty acid chains apart and rearranging them into soap molecules. This reaction is complete. It is not reversible. Zero sodium hydroxide remains in a properly cured bar of soap. What was lye is now soap.

What's also produced in this reaction, along with the soap itself, is natural glycerin — the humectant we talked about earlier that industrial manufacturers extract and sell separately. We don't do that. Our glycerin stays in the bar.

Food-grade designation: The sodium hydroxide we use meets food-grade purity standards. Same stuff used in processing olives. Same essential chemistry humans have been using to make soap for literally thousands of years — evidence of soap made with animal fats and alkali dates back to ancient Babylon, around 2800 BCE. We are not doing anything new here. We are doing something old, on purpose, because it works.

Why does this matter? Because there is an entire category of products marketed as "SLS-free" or "soap-free" that replace the saponification process entirely with synthesized detergents — mixing surfactants, thickeners, and preservatives to mimic the result of real soap without going through the chemistry. The ingredient list is longer. The process is more industrial. The result is further from what your skin actually wants.

Traditional lye-based saponification with quality oils produces something your skin has coexisted with for most of human history. Your skin knows what to do with it.

Essential Oil Blends

What they are: Pure, plant-derived aromatic compounds extracted by steam distillation or cold-pressing from flowers, bark, leaves, seeds, and peels. Each essential oil is a complex mixture of organic compounds — terpenes, alcohols, aldehydes, esters — that give each plant its characteristic scent.

What they're not: They are not the same as "fragrance oils" used in commercial products — which are typically synthetic compounds designed to mimic a scent profile cheaply and consistently. Many fragrance oils are derived from petroleum. Many contain phthalates. Most are not disclosed in detail on any label.

Why we use them: Every scent decision in a Seedsquatch bar is made specifically — for the scent profile, yes, but also for the skin properties of the oil itself. Many essential oils have independently documented benefits: lavender's documented anti-inflammatory and antimicrobial activity, tea tree's well-researched antibacterial properties, peppermint's cooling and circulation-stimulating effects. When we choose a scent, we're also choosing a function.

For fragrance oils we use: We hold those to the same standard. When we do use a fragrance oil, it must be phthalate-free, skin-safe at the usage rate, and chosen because it contributes to a bar that's genuinely good for your skin — not just because it smells like something marketable.

Every scent in every Seedsquatch bar is listed in that product's ingredient panel. No trade secrets. No "fragrance" hiding seventeen compounds. You see exactly what you're putting on your body.

Skin-Safe Mica Powder

What it is: Mica is a naturally occurring silicate mineral — a group of sheet-like crystalline minerals found in granite, pegmatites, and metamorphic rocks all over the world. It's been used cosmetically since ancient Egypt, where it was ground and applied as eye shadow and skin highlighter. It is the shimmer in your eyeshadow, your highlighter, your bronzer, and your blush right now.

How it's made safe: Raw mica from the earth contains trace heavy metals as naturally occurring impurities — lead, arsenic, chromium — that must be removed before cosmetic use. Cosmetic-grade mica is processed to remove these impurities, then tested and certified to international cosmetic safety standards. What's left is pure mineral pigment.

Completely vegan, cruelty-free, and one of the most skin-safe colorants available. It doesn't dissolve into the skin. It doesn't absorb into tissue. It sits on the surface and reflects light in ways that make our soap look exactly as extraordinary as it is.

Here's what this all adds up to

The Difference, In Plain Language

Commercial soap manufacturers have spent a century optimizing for shelf life, manufacturing cost, visual consistency, and lather performance — using whatever chemistry achieves those goals at the lowest per-unit cost, with relatively little regard for what those chemicals do to the person using them. The regulatory environment in the United States has, largely, permitted this. The result is a multi-billion-dollar industry selling skin-care products that, in documented, peer-reviewed science, damage skin barriers, contain estrogen-mimicking compounds found in tumor tissue, and hide hormonal disruptors behind legally protected trade secrets. And they stripped out the glycerin. That's still the one we can't get over. Seedsquatch starts from the opposite direction. We start with what's good for skin — the fats and oils that have been used for thousands of years, the chemistry that your skin already understands, the ingredients we could put in front of a biochemistry professor and not feel embarrassed about — and we work outward from there. Our bars cost more to make. The materials are more expensive. The process takes more time. We cure our soap for weeks. None of that is a secret or an excuse — it's the work. Every ingredient we use is listed. Every bar is handmade. Every scent has a reason beyond "smells nice." That's not a tagline. That's a policy.

Smell Legendary. Stay Beast.

Seedsquatch Soap is handcrafted in Carlotta, California, on a small farm on the edge of the redwood forest.