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Want to Start at the Beginning?

"Are you sitting comfortably? Then I'll begin."

"Hello There"  My name is Chris. I'm 53 as I write this in October of 2025, and I'm a gamer, a golfer, and a guy who's been (and continues to be) on a serious health journey. After losing and then gaining over 190 pounds and facing significant cardiac events, I thought I was doing everything right by following a 'keto' diet. I was wrong. I discovered I was eating 'dirty keto'—my 'health foods' were full of inflammatory oils, hidden starches, and artificial sweeteners that were working against me. 'The Path is Too Deep' is my personal blog about ditching the marketing and discovering the power of a Clean, Anti-Inflammatory, Whole-Food Ketogenic Lifestyle. I'll be sharing what I've learned about reading labels, my ongoing journey with weight loss, my strategies for managing mental health (ADHD/dysthymia), and my thoughts on gaming, golf, and technology. It's my personal rulebook for taking back control. "Not all those...
Recent posts

Cell Block

As we discussed in the analysis of Project Silica , the future of data storage relies on fundamentally changing the medium from silicon to quartz glass. However, optical glass storage is still in its infancy. To bridge the gap between the mechanical hard drives of the past and the optical drives of the future, engineers had to completely rethink the physical architecture of the modern Solid-State Drive (SSD). For decades, the technology sector relied on Moore’s Law - the observation that we could consistently shrink transistors and double the density of a microchip every two years. A few years ago, we hit a physical wall. We ran out of horizontal space. Here is the engineering physics of how 3D NAND bypassed the limits of Moore's Law by stacking memory cells vertically into microscopic skyscrapers. The Physics of the Silicon Ceiling Early SSDs utilized a flat, two-dimensional architecture called planar NAND. Millions of microscopic memory cells were arranged side-by-side on a silic...

'No'ing Your Limits

The impulse to accommodate others is universally praised as a social virtue. However, for those naturally inclined to give - and particularly for those of us with a historical tendency to try and "fix" the discomfort of those around us - the inability to decline requests becomes a profound vulnerability. When you habitually prioritize the needs of others over your own, you do not simply lose time; you erode your own foundation. Here is an academic and psychological examination of why saying "no" is not an act of selfishness, but a fundamental requirement for maintaining personal boundaries, emotional capacity, and authentic relationships. The Psychology of Over-Extension To correct the habit of over-giving, we must first examine the psychological mechanism that drives it. The chronic inability to say "no" rarely stems from a well of infinite generosity. More often, it is rooted in a fragile sense of self-worth. We say "yes" to secure our value in...

Testing the Waters

We have previously discussed the importance of removing harsh chemicals from our household cleaners and personal care products to reduce our daily exposure to environmental toxins. However, a comprehensive approach to environmental detoxification must also address the substance we ingest most frequently: our drinking water. While we often assume that water flowing from a municipal tap is inherently pure, the reality of modern water infrastructure is far more complex. Evaluating your daily water consumption is a critical step in protecting your long-term health, particularly the delicate balance of your endocrine system. Here is an examination of the science surrounding municipal water treatment, the hidden presence of microplastics and heavy metals, and the importance of proper filtration. The Limitations of Municipal Treatment Public water treatment facilities are marvels of modern public health, but it is important to understand their primary objective. They are engineered to prevent...

The Great Supper Caper

Capers are frequently dismissed as a simple, salty garnish, utilized merely to add a sharp note of acidity to a dish. However, from a biological and nutritional perspective, they are one of the most potent ingredients you can incorporate into a low-carbohydrate lifestyle. Their true clinical value lies not in their flavor, but in their exceptionally high concentration of a specific flavonoid called quercetin. Building on our recent discussion of autophagy and cellular cleanup, here is an academic breakdown of how quercetin acts as a senolytic compound, actively identifying and eliminating the damaged cells that drive systemic inflammation. The Burden of Senescent Cells To understand the value of quercetin , we must revisit the concept of the senescent cell. When a healthy cell sustains severe DNA damage or reaches the end of its replicative lifespan, it is supposed to undergo a process called apoptosis - programmed cell death. It is a necessary biological sacrifice to keep the surrou...

A Slice of the Action

Cheesecake represents a unique opportunity in low-carbohydrate culinary design. Unlike bread or traditional cakes, which rely entirely on the gluten structure of wheat flour to exist, the core architecture of a cheesecake is already composed of dietary fat and protein. By intelligently substituting the glycemic elements - the sugar and the graham cracker crust - we can create a dessert that is nearly indistinguishable from its traditional counterpart. A classic New York-style cheesecake is defined by its dense, rich texture and a subtle lactic tang. Here is an examination of how to approach this classic dessert through a ketogenic lens, followed by the complete formulation for execution. The Structural Foundation: Almond Flour The traditional graham cracker crust introduces a significant amount of refined sugar and wheat flour into the dessert. To maintain a clean macronutrient profile, we must replace this with a low-glycemic alternative that still provides a sturdy, crumbly base to s...

A Stroke of Genius

As the frost finally thaws across Nova Scotia and local courses prepare to open, it is an ideal time to shift focus from indoor conditioning to the practical mechanics of the game. The standard golf swing is often characterized by the aggressive, kinetic rotation of the drive. It is a complex sequence designed to generate maximum clubhead speed. The putting green, however, requires a completely different biomechanical approach. It is not an exercise in power, but a study in physics and repeatable geometry. Here is an analytical breakdown of the putting stroke, focusing on the mechanics of the pendulum motion and the variables involved in reading the green. The Physics of the Pendulum The most reliable and consistent putting stroke is built on the physical principles of a simple pendulum. A true pendulum relies on a fixed, stationary pivot point and a rigid arm that swings freely beneath it. In the human body, creating this pendulum requires locking the smaller joints to form a stable s...

The Walking Dead

The human body is an inherently efficient organism. When food is abundant, it prioritizes growth and cellular division. However, this constant state of growth comes at a biological cost: the accumulation of cellular waste. When you push a fasting window out to the 22-hour mark, you deliberately flip a metabolic switch. By completely depriving the body of external amino acids, you force it to look inward for the raw materials it needs to survive. This initiates a profound biological recycling process known as autophagy - literally, "self-eating." Here is the precise mechanical breakdown of how your body identifies and dismantles damaged, aging cells to sustain itself during a strict fasting window. The Biological Trigger: AMPK and mTOR To understand autophagy, we must look at two opposing nutrient-sensing pathways in the body: mTOR (mechanistic target of rapamycin) and AMPK (adenosine monophosphate-activated protein kinase). mTOR (The Builder): When you consume protein, the...