There’s a lot of confusion around “non-toxic” cookware right now. Many brands use marketing words that sound clean… but the truth is in the materials. After years of researching this (and plenty of trial and error in my own kitchen), here’s where I personally land: First — no cookware is perfect. Every material has tradeoffs. The safest long-term cookware is usually the least “convenient.” So instead of fear-based marketing, I think balance + informed decisions matter most. 🥇 STAINLESS STEEL Best Overall Balance Pros ✔ Extremely durable✔ No coating to scratch off✔ No PFAS/PTFE✔ Great for high heat✔ Dishwasher safe✔ Lasts decades Cons ✘ Food can stick✘ Requires proper cooking technique✘ Lower-quality stainless may leach nickel/chromium 👉 My personal opinion:High-quality stainless is probably the best overall long-term option for most people. 🧪 GLASS Cleanest Chemically Pros ✔ Truly inert✔ No coatings✔ No metal leaching✔ Excellent for baking + storage Cons ✘ Breakable✘ Poor heat conductivity✘ Thermal shock risk 👉 I LOVE glass for: - food storage - reheating - baking - leftovers I use a lot of it personally. 🪨 CAST IRON Durable but Not Perfect Pros ✔ Nearly indestructible✔ Naturally nonstick when seasoned✔ Great heat retention✔ No synthetic coatings Cons ✘ Heavy✘ Maintenance + seasoning required✘ Can rust✘ Can significantly increase iron exposure This is the part many influencers ignore. Cast iron CAN raise iron intake — especially with acidic foods or long simmering. For some people: - low iron → beneficial - high ferritin/hemochromatosis/metabolic inflammation → maybe not ideal That concern is scientifically reasonable. 🍳 CERAMIC-COATED “NONSTICK” Probably Safer… But Still a Coating Most “ceramic cookware” today is NOT solid ceramic. It’s usually: - aluminum underneath - coated with a silica/sol-gel ceramic layer Examples: - Caraway - GreenPan - Our Place - Quince Pros ✔ Usually PFAS/PTFE free✔ Excellent nonstick initially✔ Easy cleanup

There’s a growing conversation happening right now around breast cancer screening. And it’s one that deserves more nuance than: 👉 “Just get your annual mammogram.” Because the truth is… Mammography is not a perfect tool. ⚠️ The Downfalls of Routine Mammography 1. Cumulative Radiation Exposure Mammograms use ionizing radiation. Is one scan dangerous? Mildly. But repeated exposure, year after year, decade after decade… 👉 That becomes a cumulative burden on the body. Especially for women already at higher genetic risk. (Like me!) 2. High False Positive Rates Up to 50–60% of women will experience a false positive over time. That means:• Unnecessary imaging• Biopsies• Anxiety and stress We’ve normalized a system that often creates fear… without clear answers. 3. Overdiagnosis Not every detected tumor is life-threatening. Some are slow-growing and may never cause harm… Yet are still treated aggressively. 👉 Detection without context can lead to overtreatment. 4. Not Effective for Dense Breast Tissue Many women (especially lean, athletic, or younger women) have dense breast tissue. Mammograms often: ❌ Miss tumors in dense tissue ❌ Provide a false sense of security 5. A System Focused on Detection — Not Cause This is the biggest issue. Mammograms look for :👉 What’s already there They do NOT address: • Why the tissue became vulnerable • What’s driving abnormal cell growth • The internal terrain that allowed it 🌿 Our Approach Is Different At Bedrock, we don’t rely on a single tool. We take a terrain + strategy approach. 1️⃣ We Assess Risk First Not every woman should follow the same screening schedule. Factors matter :• Genetics (BRCA, family history) • Metabolic health • Hormonal patterns • Lifestyle + toxin exposure 👉 “Assess, don’t guess.” 2️⃣ We Use Thermography as a Functional Tool Thermography looks at: • Heat patterns • Blood flow • Inflammatory changes ✔ No radiation ✔ Non-invasive ✔ Can detect early physiological changes This gives us insight into function before structure.

You Asked. I Answered. What’s the Truth About Nootropic and Adaptogenic Coffee “Substitutes”? Over the last several years, nootropic coffees, mushroom blends, and adaptogenic drink mixes have gone from niche wellness products to a full-blown trend. They promise smoother energy, better focus, less jitteriness, improved gut health, and even stress support—but are they actually healthier than coffee, or just better marketing? In this edition of my You Asked. I Answered. series, I broke down some of the most popular products through an ancestral, terrain-focused lens to look at the ingredients, the claims, the pros and cons, and the types of clients these products may or may not fit. Because, as with most things in health, the real answer is not hype—it is context, customization, and knowing when a product is a useful tool versus when it becomes just another daily dependency. Attached is a PDF with all the details & highlights/ Video tasting: https://youtu.be/4t0zROwqrvw?si=liXJjPnPoBTonirW

Why Metabolic Health Matters More Than We Thought For decades, Alzheimer’s disease has been framed as a mysterious brain disorder driven by plaques, tangles, and genetics. But a growing body of research is pointing in a different direction. Many scientists now believe that Alzheimer’s may begin as a metabolic disease of the brain. Some researchers even call it: “Type 3 Diabetes.” Not because it is literally diabetes. But because the underlying problem often involves insulin resistance and impaired energy metabolism in brain cells. The Brain Runs on Energy Your brain represents only about 2% of your body weight. Yet it consumes 20–25% of the body’s total energy. That energy is required for: • memory formation • neurotransmitter signaling • nerve conduction • cellular repair • mitochondrial function When the brain cannot access fuel efficiently, neurons begin to struggle. Over time, this energy deficit can lead to: • cognitive decline • memory loss • impaired focus • neurodegeneration The Brain Energy Crisis In many Alzheimer’s patients, researchers observe something remarkable: The brain loses its ability to efficiently use glucose. Brain scans frequently show reduced glucose metabolism decades before symptoms appear. This process is known as: Glucose hypometabolism. At the same time, other metabolic problems often emerge: 🔥 insulin resistance in neurons 🧬 mitochondrial dysfunction ⚡ oxidative stress 🧠 chronic neuroinflammation In other words… The brain is not just aging. It is experiencing an energy crisis. The Brain’s Backup Fuel Here’s where the story becomes fascinating. Even when the brain struggles to use glucose, it can still efficiently use ketones. Ketones are produced when the body shifts into a fat-burning metabolic state, such as during: • fasting • ketogenic nutrition • carbohydrate restriction • metabolic flexibility Ketones provide a clean, efficient fuel source for neurons and can bypass some of the metabolic impairments seen in Alzheimer’s.

What they are, why they form, and how modern footwear contributes Most people think of corns and calluses as cosmetic annoyances. In reality, they are a protective biological response. Your skin is incredibly intelligent. When it experiences repeated pressure, friction, or mechanical stress, it responds by thickening the outer layer (keratin) to protect deeper tissue. This thickening is what we call: • Calluses – broader areas of thickened skin • Corns – smaller, concentrated areas of hardened skin with a central core Both are forms of hyperkeratosis, meaning the skin produces extra keratin in response to mechanical stress. They are signals from the body that something about your movement, posture, or footwear is creating excessive pressure. The Difference Between Corns and Calluses Calluses are generally protective. Corns tend to form when pressure becomes concentrated in a very small area. Why Corns and Calluses Develop The root cause is almost always mechanical stress on the foot. Common contributors include: 1. Tight or Narrow Shoes Shoes that compress the toes force the foot into unnatural shapes. This creates pressure points where the skin begins to thicken. 2. Elevated Heels Even small heels shift body weight forward onto the ball of the foot, increasing friction. 3. Toe Spring Many modern shoes lift the toes upward. This prevents normal toe engagement and increases pressure on the forefoot. 4. Limited Toe Box Traditional shoes narrow at the front, compressing the toes. This leads to friction between toes and between toes and the shoe. 5. Abnormal Foot Mechanics Examples include: • flat feet• high arches• overpronation• bunions• hammertoes These alter pressure distribution during walking. 6. Reduced Foot Mobility Weak intrinsic foot muscles or limited ankle mobility can shift load to small areas of the foot. Why Modern Shoes Make the Problem Worse The human foot contains: • 26 bones• 33 joints• over 100 muscles, tendons, and ligaments It was designed to spread, flex, and grip the ground.