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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

In the Thick of It

Traditional culinary arts rely heavily on starches - specifically wheat flour and cornstarch - to build viscosity in sauces, glazes, and gravies. From a metabolic standpoint, these traditional thickeners are pure, unmitigated glucose payloads. When you eliminate these high-glycemic ingredients from your kitchen, you cannot simply reduce a liquid and expect a thick, clinging pan sauce. You must replace the structural mechanics of starch with the precision chemistry of hydrocolloids. Here is the biochemistry of achieving optimal viscosity without incurring a glycemic penalty. The Physics of Viscosity To understand the swap, you must understand the mechanical difference in how these powders behave. Traditional starches thicken through a process called gelatinization . When heated in water, the starch granules swell, burst, and release a web of glucose molecules that trap liquid. This requires significant volume (often tablespoons per cup of liquid) and high thermal application. Hydrocollo...

A Fast Break

My 22-hour fasting window is a highly effective mechanism for driving insulin resistance to zero and maximizing cellular autophagy. However, the moment I decide to break that fast, my digestive system is essentially offline. If you view the refeed simply as an opportunity to consume your daily caloric allowance as quickly as possible, you will (speaking from experience) aggressively shock a dormant gastrointestinal tract. Hitting a sleeping gallbladder with a massive payload of dietary fat leads directly to acute gastrointestinal distress, while the wrong macronutrient sequence triggers an immediate, disproportionate insulin spike. Here is an order of operations for reintroducing food, ensuring you maintain metabolic stability and mechanical digestive efficiency. The Physiology of a Dormant Gut After my 22 hour fast without caloric input, my gastrointestinal architecture scales down its operations to conserve energy. Stomach acid production drops. The pancreas reduces its output of dig...

Making Connections

Most discussions surrounding a ketogenic protocol focus entirely on energy metrics: stabilizing blood glucose, lowering insulin, and burning body fat. We have been conditioned to view Beta-Hydroxybutyrate (BHB) - the primary ketone body produced during carbohydrate restriction or fasting - strictly as an alternative fuel source. The "skeletal form" of β-hydroxybutyrate While BHB is a highly efficient fuel that yields significantly more ATP per oxygen molecule than glucose, viewing it merely as biological gasoline is a massive oversimplification. BHB is a powerful epigenetic signaling molecule. It does not just power your brain; it physically rewires it. Here is the biochemistry of how BHB acts as a neurological messenger, actively stimulating the release of Brain-Derived Neurotrophic Factor (BDNF) to repair synapses and stabilize your cognitive baseline. The Fuel Fallacy When you enter a deep fasted state or maintain strict ketosis, the liver converts fatty acids into water...

Seeing Red

The optical sensors on the back of your smartwatch are not simply counting your pulse; they are executing a continuous, microscopic audit of your cardiovascular system. When you look at the metrics for your Heart Rate Variability (HRV) or your deep sleep architecture, you are looking at the output of a highly complex algorithmic translation. The device itself is not measuring electrical signals from your heart like an EKG in a hospital. It is using a technology called Photoplethysmography (PPG) to measure the physical volume of blood moving through your capillaries via light refraction. Here is the hardware science of how health wearables turn a glowing LED into high-resolution biological data. The Physics of Optical Blood Tracking The fundamental operating principle of PPG is based on light absorption. Blood is red because it reflects red light and naturally absorbs green light. When you strap a wearable to your wrist or slide a smart ring onto your finger, the device fires a high-i...

A Moment's Notice

The human brain is not a single, unified processor. It is a dual-core system with a fundamental flaw in its processing speed. When you encounter a high-friction situation - a critical email, a sharp interpersonal comment, or an unexpected structural failure in a project - your brain processes that data through two entirely different neurological pathways. If you do not consciously manage the latency between those two systems, you will inevitably default to a defensive, reactive posture that damages your long-term strategic goals. Here is the neurological architecture of emotional regulation and the tactical protocol for artificially extending the gap between stimulus and response. The Neurological Mismatch The first processor to receive incoming data is the amygdala . This is your evolutionary legacy hardware. It is a highly efficient, hyper-vigilant threat detection center designed to keep you alive. It processes information in milliseconds, but it lacks all nuance. It categorizes eve...

Flexible Terms

A proper systemic audit requires differentiating between two very distinct biological signals: muscular fatigue and joint inflammation. Muscular fatigue is the expected, healthy byproduct of physical exertion. Joint stiffness, however, is an alarm bell indicating systemic inflammation. You cannot out-stretch a poor biochemical baseline. If you are waking up with rigid joints and limited range of motion, the problem is rarely just tight hamstrings; the problem is the chemical composition of your synovial fluid. Here is a systemic review of how combining a clean ketogenic protocol with a targeted mobility routine clears inflammatory markers and restores the mechanical integrity of your joints. The Chemical Baseline of Stiffness Joints are encased in a membrane that produces synovial fluid - a viscous liquid designed to lubricate the cartilage and reduce friction. When your diet is high in refined carbohydrates, seed oils, or stealth starches, the body produces a surplus of pro-inflammato...

Ghee Whiz

Most discussions surrounding dietary fat within a clean ketogenic framework focus entirely on energy yield or ketone production. We often evaluate fats based purely on how efficiently they power the brain or the skeletal system during a strict 22-hour fast. However, when we audit the gastrointestinal tract, we have to look beyond fuel and focus on structural repair. Clarified ghee is celebrated in the culinary world for its incredibly high smoke point and rich flavor, but its true biological value lies in its chemical composition. It is one of nature's most concentrated sources of butyrate - a compound fundamentally critical to the architectural integrity of your gut. Here is the biochemistry of how this short-chain fatty acid acts as the primary defense mechanism against systemic inflammation. The Architecture of the Gut Wall To understand the value of butyrate , you must first understand the structural vulnerability of the human gut. Your intestinal lining is not a thick sheet of...