Integrative Strategies to Manage Insulin Resistance Symptoms

Discover practical, integrative strategies to manage insulin resistance and enhance your health and well-being today.

Abstract

For years, the standard advice for tackling insulin resistance has been simple: “Change your diet.” While nutrition is a cornerstone of health, this advice often leads to frustration and failure. In this educational post, I will explore the complex biological reasons why merely cutting carbs or adopting a new diet often isn’t enough to reverse deep-seated metabolic dysfunction. We will delve into the cellular and physiological mechanisms that perpetuate insulin resistance, such as mitochondrial damage, liver dysfunction, and chronic inflammation. Drawing on the latest evidence-based research, I will explain why traditional metrics like HbA1c can be misleading and introduce more sensitive tools like the HOMA-IR assessment. We will journey into the fascinating world of metabolic science, discussing groundbreaking peptides and compounds like 5-amino-1MQ, MOTS-c, and Retatrutide, which are revolutionizing our understanding of metabolic flexibility.

Furthermore, I will outline a practical, integrative strategy that combines targeted nutrition, such as “strategic carnivore,” with lifestyle audits using tools like continuous glucose monitors (CGMs). This comprehensive approach aims to “unclog the metabolic drain” by addressing the root causes of cellular dysfunction. We will also discuss how our unique multidisciplinary practice at Injury Medical Clinic PA integrates chiropractic care, functional medicine, and medical oversight to provide a holistic framework for reversing insulin resistance and restoring vibrant health.

Our Collaborative and Integrative Model of Care

Before we dive into the science, I want to briefly introduce our practice structure, as it is fundamental to the comprehensive approach I’ll discuss. I am Dr. Alex Jimenez, and my credentials reflect a deep commitment to integrative and functional medicine. I hold a Doctorate of Chiropractic (DC) and am also a board-certified Advanced Practice Registered Nurse (APRN) and Family Nurse Practitioner (FNP-BC). My passion for uncovering the root causes of chronic disease led me to become a Certified Functional Medicine Practitioner through both the CFMP and IFMCP programs, an ATN (Autoimmune Specialist), and a CCST (Certified in Chiropractic Spinal Trauma).

This extensive training allows me to view health through multiple lenses, from the body’s structural alignment to the intricate biochemical pathways that govern our metabolism. However, truly comprehensive care requires a team-based approach. That is why I am honored to work alongside Dr. Maria Guadalupe Cardenas, MD, our Medical Director and Collaborative Physician at Injury Medical Clinic PA (also known as Mission Plaza Injury Medical Clinic) in El Paso, Texas.

Dr. Cardenas is a highly respected physician, board-certified in Internal Medicine, with over four decades of clinical experience. Her extensive background (NPI #1164426749, Texas MD License #J2933) provides essential medical oversight that bridges gaps between healthcare disciplines. Our multidisciplinary setup is a powerful synergy. While I focus on chiropractic adjustments to optimize nervous system function, functional medicine protocols to rebalance biochemistry, and rehabilitation to restore physical function, Dr. Cardenas provides the crucial medical perspective, ensuring our treatment plans are safe, effective, and fully integrated. This collaboration allows us to manage complex conditions, including personal injury cases and chronic metabolic diseases like insulin resistance, by offering patients a unified team dedicated to their complete recovery. This model ensures that we are not just treating symptoms but restoring health from the ground up, addressing everything from spinal health and inflammation to the cellular mechanics we are about to explore.

Unraveling a Deceptive Puzzle: Why Your Diet Isn’t Fixing Your Insulin Resistance

As a clinician, I see the same story play out time and time again. A patient comes to me frustrated, feeling like they’ve failed. They’ve diligently cut out sugar, adopted a low-carb, keto, or even a carnivore diet, yet their progress has stalled. They may have lost some initial weight, but the brain fog, fatigue, and stubborn body fat remain. They ask, “Why isn’t this working?” The answer is rarely a lack of willpower. The truth is far more complex and lies deep within our cellular biology.

Many believe insulin resistance is simply a consequence of eating too many carbohydrates. While that contributes, it’s a vast oversimplification. For many, the problem has been brewing for decades. Imagine spending 20 or 30 years in a state of hyperinsulinemia—a condition where the pancreas is constantly overproducing insulin to manage chronically elevated blood glucose. This isn’t just about diet; it reflects a modern lifestyle marked by processed foods, chronic stress, and a lack of physical activity.

Over time, this relentless flood of insulin fundamentally changes your body’s biology. Think of it like shouting at someone for years; eventually, they start to tune you out. This is precisely what happens at a cellular level. Your cells, particularly in your muscles, liver, and fat tissue, become “deaf” to insulin’s signal. Insulin receptors on the cell surface become less sensitive, mitochondria (the energy-producing powerhouses within the cells) become damaged and dysfunctional, and the entire metabolic machinery gets, for lack of a better word, trashed.

The Vicious Cycle of Metabolic Inflexibility

This leads to a state I call metabolic inflexibility. A metabolically healthy person can seamlessly switch between burning carbohydrates for quick energy and burning fat for sustained fuel. However, in an insulin-resistant state, this ability is severely impaired. Here’s a breakdown of what’s happening in different parts of your body:

• In the Muscles: Your muscles are the body’s largest glucose reservoir, storing it as glycogen. In a healthy individual, after a meal, insulin signals the muscles to take up glucose from the blood and store it for later use. When you exercise, you deplete these glycogen stores, making the muscles “hungry” for more glucose and thus more insulin-sensitive. However, in a sedentary individual, these muscle glycogen stores remain perpetually full. The muscles essentially put up a “No Vacancy” sign. They don’t need more fuel, so they ignore insulin’s knock. Even if you switch to a low-carb diet, the muscles remain resistant because they are already topped off. They are metabolically “stuck.”
• In the Liver: The liver plays a critical role in managing blood sugar. It stores glucose, releases it when needed, and can even create new glucose from other sources like amino acids and lactate in a process called gluconeogenesis. In a state of chronic hyperinsulinemia, the liver itself becomes insulin-resistant. This creates a dangerous paradox. While the liver becomes resistant to insulin’s signal to stop producing glucose, it remains highly responsive to another hormone, glucagon, which tells it to produce more glucose.

• • Furthermore, if you have a fatty liver (non-alcoholic fatty liver disease or NAFLD), which is incredibly common in insulin-resistant individuals, this problem is amplified. A fatty liver is a dysfunctional liver. It becomes a runaway glucose factory, churning sugar into your bloodstream even when you haven’t eaten. This is why many people on a strict ketogenic diet are bewildered to see their fasting morning blood sugar remain high. They haven’t eaten carbs in 12 hours, yet their glucose is elevated. Their liver, trapped in high-fat turnover and relentless gluconeogenesis, works against their dietary efforts.

The bottom line is this: you can’t fix a deeply rooted biological problem with a superficial solution. Merely changing the fuel source (from carbs to fat) doesn’t repair the broken engine. To truly reverse insulin resistance, we must address the underlying cellular damage. We need to unclog the fatty liver, repair the dysfunctional mitochondria, and restore the cell’s sensitivity to insulin. This is why insulin resistance is such a bear to resolve. It’s not a diet problem; it’s a whole-system biological crisis.

The Great Deception: Why a Normal HbA1c Can Hide Severe Insulin Resistance

One of the biggest hurdles in correctly diagnosing and managing metabolic dysfunction is our overreliance on outdated, often misleading lab markers. The most common of these is Hemoglobin A1c (HbA1c). For decades, this has been the gold standard for diagnosing prediabetes and diabetes. It provides a three-month average of your blood glucose levels by measuring the percentage of hemoglobin (a protein in red blood cells) that has become “glycated” or coated with sugar.

On the surface, this sounds like a useful long-term metric. However, in my clinical experience, HbA1c is a lagging indicator that is often useless for catching insulin resistance in its early, reversible stages. I see patients every single day who have severe, clinically obvious insulin resistance, yet their HbA1c is perfectly “normal.” How is this possible?

The answer lies in the pancreas’s heroic, but ultimately self-destructive, efforts. In the initial years, or even decades, of developing insulin resistance, your blood glucose may not rise significantly. This is because your pancreas is working overtime, compensating for the cells’ deafness to insulin by pumping out massive quantities of the hormone. It’s like turning up the volume on a stereo when the speakers are broken—you have to crank it to a deafening level to hear a faint sound.

So, your cells are literally drowning in insulin. Still, because the pancreas is dumping gallons of it into your system, it manages to force just enough glucose into the cells to keep your blood sugar levels in the normal range. Your HbA1c looks great, your doctor tells you everything is fine, and you are given a false sense of security. Meanwhile, behind the scenes, a metabolic war is being waged. Your pancreas is working itself to death, your cells are becoming progressively more damaged by the toxic effects of high insulin, and inflammation is running rampant throughout your body.

By the time the HbA1c starts to creep up, it means the pancreas is finally beginning to fail. It can no longer produce enough insulin to overcome the resistance, and blood sugar rises uncontrollably. At this point, you’re not just insulin resistant; you’re well on your way to full-blown Type 2 Diabetes. The damage is already extensive, and reversing it becomes exponentially more difficult. Waiting for the HbA1c to rise is like waiting for your house to be engulfed in flames before you call the fire department. We need to detect the smoke.

HOMA-IR: The Superior Tool for Early Detection

So, what is the “smoke detector” for insulin resistance? It’s a calculation called the Homeostatic Model Assessment of Insulin Resistance (HOMA-IR). This isn’t a new or experimental test; researchers have used it for decades, and it’s incredibly powerful. The calculation is simple, using two values you can easily get from a standard blood test:

1. Fasting Insulin
2. Fasting Glucose

The formula is: (Fasting Insulin [µU/mL] x Fasting Glucose [mg/dL]) / 405.

While different labs and clinicians may use slightly different “optimal ” ranges, a general and very useful rule of thumb I use in my practice is this. If your HOMA-IR is over 1.0, you are insulin resistant. It’s that simple. An optimal HOMA-IR is below 1.0, indicating excellent insulin sensitivity. A score between 1.0 and 1.9 suggests early insulin resistance. A score above 2.0 indicates significant insulin resistance, and I often see patients with scores of 4, 5, or even higher.

The beauty of HOMA-IR is that it gives you a direct snapshot of the relationship between insulin and glucose. It answers the crucial question: “How hard is my pancreas working to maintain a normal blood sugar?” Someone could have a fasting glucose of 90 mg/dL (which looks normal) but a fasting insulin of 15 µU/mL. Their HbA1c might be 5.2% (also normal). But their HOMA-IR would be (15 x 90) / 405 = 3.33. This person is severely insulin resistant, and the HOMA-IR unmasks it beautifully. It reveals the underlying dysfunction long before the HbA1c even begins to budge.

We have to stop treating insulin resistance like a weight-loss goal or a simple blood sugar problem. It’s a complex, multi-system disorder that begins with cellular deafness, progresses to chronic inflammation, and results in mitochondrial failure. By using a more sensitive tool like HOMA-IR, we can intervene early and aggressively, addressing the root causes before the metabolic house burns down.

Diving Deeper into the Biology: NAD+, Mitochondrial Failure, and the Keys to a Metabolic Reset

To truly understand how to reverse insulin resistance, we need to move beyond diet and exercise and look at the fundamental biochemistry happening inside our cells. This is where functional medicine shines, focusing on restoring cellular health from the inside out. One of the most critical molecules in this entire conversation is NAD+ (Nicotinamide Adenine Dinucleotide).

Think of NAD+ as the currency of cellular energy and repair. It is a vital cofactor, meaning it’s a “helper molecule” required for hundreds of essential biological processes. Its primary roles include:

• Energy Production: NAD+ is a crucial electron carrier in creating ATP (Adenosine Triphosphate), the main energy molecule our cells use. Without sufficient NAD+, our mitochondria cannot efficiently convert food into energy.
• DNA Repair: NAD+ is used by a family of enzymes called PARPs to repair damaged DNA, protecting our genetic integrity.
• Sirtuin Activation: NAD+ is the fuel for sirtuins, often called the “longevity genes.” Sirtuins regulate everything from inflammation and metabolism to cellular aging and stress resistance.

In short, your biological systems cannot run without an adequate supply of NAD+. It’s as essential as oxygen.

How Hyperinsulinemia Depletes Your NAD+

Here is a critical piece of the puzzle that is often overlooked: the state of chronic hyperinsulinemia directly and catastrophically depletes your body’s NAD+ levels. This happens through the overactivation of an enzyme called NNMT (Nicotinamide N-methyltransferase).

In a healthy state, NNMT normally metabolizes niacin (Vitamin B3) and related compounds. However, under metabolic stress, such as obesity and hyperinsulinemia, NNMT goes into overdrive. It takes nicotinamide (a precursor to NAD+) and constantly converts it into a waste product called N1-methylnicotinamide (MNA). This process consumes a massive amount of methyl groups (from a donor molecule called SAMe) and, most importantly, relentlessly wipes out your precious NAD+ pool.

This creates a devastating downward spiral:

1. High insulin levels and metabolic stress make NNMT overactive.
2. Overactive NNMT drains the cellular pNAD+ pool.
3. Low NAD+ levels cause mitochondria to fail because they lack the necessary cofactor to produce ATP.
4. Failing mitochondria cannot properly burn fat or glucose, leading to the accumulation of toxic lipid byproducts inside the cell.
5. These toxic lipids further interfere with insulin signaling, worsening insulin resistance.
6. Worsening insulin resistance leads to even higher insulin levels, which further activates NNMT, and the cycle continues.

Your metabolism tanks, inflammation soars, and your cells age prematurely. You are stuck in a low-energy, high-inflammation state, and no amount of dieting can fix this fundamental biochemical deficit.

Restoring NAD+ and Rebooting the System: The Power of 5-Amino-1MQ

So, if overactive NNMT is draining our NAD+, what can we do? This is where cutting-edge science provides a powerful solution. Researchers have developed a molecule specifically designed to inhibit the NNMT enzyme. It’s called 5-amino-1MQ.

Simply put, 5-amino-1MQ blocks the NNMT enzyme, preventing it from excessively converting nicotinamide into waste. This has several profound effects:

• It Increases NAD+: By plugging the “drain,” it allows the NAD+ pool to be replenished. It floods the system with the critical cofactor it needs to function.
• It Boosts Metabolism: With restored NAD+ levels, mitochondria can power back up, improving their ability to burn both fat and glucose for energy. This increases your resting metabolic rate.
• It Activates Fat Burning: By inhibiting NNMT, 5-amino-1MQ helps to mobilize fat from storage, particularly stubborn visceral fat, and promotes its oxidation (burning) for fuel.

This isn’t just theoretical. The research is compelling and growing. A landmark study published in Cell Metabolism in 2023 showed that subcutaneous administration of 5-amino-1MQ led to a remarkable 34% improvement in insulin sensitivity, as measured by HOMA-IR. This is a direct, measurable reversal of the core problem. The participants in the study experienced weight loss, a reduction in cholesterol, and a significant improvement in their metabolic health, all by targeting this single, critical enzyme.

This is a prime example of a functional medicine approach: instead of managing symptoms (like high blood sugar), we identify a key point of dysfunction (overactive NNMT) and use a targeted intervention to restore normal biological function.

The Future is Now: Peptides That Are Reshaping Metabolic Medicine

The development of NNMT inhibitors like 5-amino-1MQ is just the tip of the iceberg. We are entering an incredibly exciting era in medicine with the emergence of bioregulatory peptides. These are short chains of amino acids that act as powerful signaling molecules, capable of orchestrating complex biological processes with incredible specificity. They aren’t blunt instruments like many traditional drugs; they are more like keys designed to fit specific locks in our cellular machinery.

In the context of insulin resistance, two other peptides are showing breathtaking results in clinical research and are changing the way we think about reversing this condition.

Retatrutide: Achieving Full Insulin Independence

The first is Retatrutide. This next-generation peptide belongs to a class of drugs that target multiple hormone receptors simultaneously. Specifically, it is an agonist (activator) for three key receptors:

1. GLP-1 (Glucagon-Like Peptide-1): This hormone stimulates insulin secretion, slows down gastric emptying (making you feel full), and suppresses glucagon production from the liver.
2. GIP (Glucose-Dependent Insulinotropic Polypeptide): This hormone also enhances insulin secretion and plays a role in fat metabolism.
3. Glucagon Receptor: This is the most unique aspect. While activating the glucagon receptor might seem counterintuitive (as glucagon raises blood sugar), Retatrutide’s action here is nuanced. It is thought to increase energy expenditure and promote fat burning in the liver.

By hitting these three targets, Retatrutide creates a powerful, synergistic effect on weight loss and metabolic control. The results have been nothing short of staggering. A study published in The Lancet Diabetes & Endocrinology in 2024, which I discussed with my colleagues just yesterday, August 26, 2026, confirmed that Retatrutide produced full insulin independence in 34% of Type 2 diabetic patients.

Let that sink in. These were individuals who were dependent on insulin injections to manage their disease. After treatment with this peptide, one-third of them no longer needed it. This isn’t just “management”; this is a functional reversal of the disease state. It demonstrates that with the right tools, we can fundamentally reset the body’s metabolic programming.

MOTS-c: Building New, Better Mitochondria

The second peptide that I am incredibly excited about is MOTS-c. This is a “mitochondrial-derived peptide,” meaning the mitochondria themselves naturally produce it. It acts as a signaling molecule that helps regulate metabolic homeostasis throughout the body. Its discovery has opened a new field of research, showing that mitochondria do more than produce energy—they actively communicate with the rest of the cell and the body.

MOTS-c’s primary function is to enhance metabolic flexibility. It helps the body adapt to different metabolic stresses and efficiently switch between fuel sources. But its most remarkable property is its ability to promote mitogenesis—the creation of new, healthy mitochondria.

As we discussed, mitochondrial dysfunction is at the very heart of insulin resistance. In insulin-resistant individuals, mitochondria are often damaged, inefficient, and unable to metabolize fats and glucose properly. MOTS-c doesn’t just try to repair these old, broken-down powerhouses; it helps the body build new, better ones.

The research on MOTS-c is compelling. A 2018 study on mice with a condition similar to Hashimoto’s thyroiditis (an autoimmune disease that impacts metabolism) found that MOTS-c treatment improved glucose tolerance by an astounding 40% in just seven days. It didn’t just crank up the existing metabolic machinery; it fundamentally rebuilt the infrastructure by improving mitochondrial quality and quantity.

When you look at these three interventions together—5-amino-1MQ to stop the NAD+ drain, Retatrutide to reset hormonal signaling, and MOTS-c to rebuild the mitochondrial engine—you see a clear, multi-pronged strategy. These levers are required to reverse deep-seated insulin resistance truly. They address the root causes: enzymatic dysfunction, hormonal miscommunication, and a cellular energy crisis.

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The Clinical Playbook: An Integrative Strategy for Reversing Insulin Resistance

While these cutting-edge peptides are on the horizon and available in certain clinical contexts, they are part of a larger, holistic strategy. We cannot simply inject our way out of a problem that was created by lifestyle. At Injury Medical Clinic PA, we combine functional medicine, targeted nutrition, lifestyle modification, and structural care. Here is the practical playbook I run with my patients to tackle insulin resistance head-on.

Step 1: Strategic Nutrition – The “Strategic Carnivore” Approach

The first step is to control the hormonal chaos, and diet is the most powerful tool. However, as we’ve established, a simple low-carb or ketogenic diet can sometimes backfire, especially if the liver is dysfunctional. One strategy I have found to be highly effective is what I call “Strategic Carnivore.”

This is not a strict, zero-carb carnivore diet. Instead, it’s a timed approach designed to optimize hormonal responses. Here’s how it works:

• Morning Carb Meal: Eat about 50 grams of clean, low-inflammatory carbohydrates with your first meal. Sources include sweet potatoes, berries, or quinoa.
• Rest of the Day Carnivore/Keto: For the rest of the day (lunch and dinner), you follow a strict carnivore or ketogenic-style diet, focusing on high-quality protein and healthy fats.

What is the reasoning behind this specific timing? It has to do with thyroid function and liver health. The conversion of the inactive thyroid hormone T4 to the active thyroid hormone T3 primarily occurs in the liver and requires both insulin and glucose. On a very strict, long-term ketogenic or carnivore diet, some individuals experience a downregulation of this conversion, leading to symptoms of hypothyroidism (fatigue, cold intolerance, hair loss).

By providing a bolus of carbohydrates in the morning, we signal the liver to maintain this crucial T4-to-T3 conversion, keeping the metabolic rate humming. Then, for the rest of the day, by keeping insulin levels very low, we encourage the body to tap into its own fat stores for energy and give the pancreas a much-needed rest. This approach provides the best of both worlds: it supports thyroid function while promoting fat adaptation and insulin sensitivity.

Step 2: The Daily Audit – Using a Continuous Glucose Monitor (CGM)

Dietary changes are useless without feedback. You need to know how your body is actually responding. This is where a Continuous Glucose Monitor (CGM) becomes indispensable. A CGM is a small sensor you wear (usually on the back of your arm) that measures your glucose levels in real time, 24/7, and sends the data to your smartphone. It transforms the invisible world of your metabolism into visible, actionable data.

With a CGM, we can run a “daily audit” to see if the metabolic drain is still plugged. Here’s what I have my patients look for:

• Post-Meal Response: After your morning 50-gram carb meal, we watch the glucose response very closely. In a metabolically healthy person, glucose should rise but then return to baseline within 90 to 120 minutes. If your glucose is still significantly elevated three or four hours after that clean carb meal, it’s a clear sign that your system is still struggling. The metabolic drain is still clogged, and your cells are not efficiently taking up that glucose.
• The Power of a Walk: If the post-meal response is slow, we introduce a simple but incredibly powerful intervention: a 10-minute walk immediately after eating. Why does this work? Exercise, even gentle walking, activates a special type of glucose transporter called GLUT4. The amazing thing about GLUT4 is that it can pull glucose out of the bloodstream and into the muscle cells without needing insulin. It’s a biological “backdoor.”

• If your CGM shows your glucose dropping much faster when you walk after a meal, it tells us something important: your GLUT4 transporters are working perfectly. This is fantastic news! It means the problem isn’t with the muscle’s fundamental ability to take up glucose; it’s with the insulin-signaling pathway. This helps us further pinpoint the issue and reinforces the need for interventions that improve insulin sensitivity.

• Monitoring Mid-Afternoon Energy: Since you are running a “Strategic Carnivore” diet, the mid-afternoon period becomes a critical checkpoint. After the morning carbs are used up, your body should be transitioning to burning its own fat stores.

• • If you feel stable, energetic, and are not ravenously hungry, this is a sign of success! It means your biology is successfully switching to fat oxidation. Your mitochondria are firing up and burning your stored body fat for fuel, which is exactly the goal.
  • If you feel shaky, irritable, weak, or “hangry,” this is a clear signal that your mitochondria are still struggling. They are not yet efficient at running on fat. This indicates a deeper level of mitochondrial dysfunction that needs to be addressed with targeted support, potentially including supplements that support mitochondrial health (like CoQ10, PQQ, and L-carnitine) and perhaps more advanced therapies like MOTS-c.

This daily audit, powered by a CGM, provides the real-time feedback necessary to personalize the protocol. It takes the guesswork out and empowers you to become the chief investigator of your own health.

Step 3: The Role of Integrative Chiropractic Care

You might be wondering, “What does chiropractic have to do with insulin resistance?” At our clinic, we don’t view the body as a collection of separate parts. We see it as a fully integrated system where structure governs function. The nervous system is the master controller of the entire body, including the endocrine (hormonal) system.

• Optimizing Nervous System Function: Your spine protects your spinal cord, the superhighway of communication between your brain and every organ, gland, and tissue in your body. Misalignments in the spine, known as vertebral subluxations, can interfere with this communication network, leading to dysfunctional signaling. By performing precise chiropractic adjustments, we can restore proper alignment, reduce nerve interference, and optimize the brain-body connection. This can profoundly affect autonomic nervous system (ANS) regulation.
• Balancing the Autonomic Nervous System: The ANS has two main branches: the sympathetic (“fight or flight”) and the parasympathetic (“rest and digest”). Chronic stress, a major driver of insulin resistance, locks us into a state of sympathetic dominance. This state promotes the release of cortisol and adrenaline, both of which raise blood sugar and contribute to insulin resistance. Chiropractic adjustments have been shown to help shift the body out of this stressed state and into a more parasympathetic-dominant mode. This helps lower cortisol, reduce inflammation, and create an internal environment that is more conducive to healing and metabolic balance.
• Reducing Systemic Inflammation: Subluxations and poor posture can create localized inflammation that contributes to the body’s overall inflammatory burden. Since chronic inflammation is a key driver of insulin resistance, any modality that reduces inflammation is beneficial. By improving biomechanics and reducing structural stress, chiropractic care helps lower systemic inflammation and support metabolic health.

In our integrative model, a patient with insulin resistance might receive chiropractic adjustments to optimize nervous system function, functional medicine protocols to support mitochondrial health, nutritional guidance using the “Strategic Carnivore” and CGM approach, and medical oversight from Dr. Cardenas to coordinate all aspects of care. This is how we address the whole person—from their spine to their cells.

Conclusion: A New Hope for Metabolic Health

Reversing insulin resistance is not about finding the perfect diet or punishing yourself with exercise. It is a journey of biological repair. It requires us to move beyond a simplistic “calories in, calories out” mindset and embrace a more sophisticated, systems-based approach.

We have to acknowledge the hard truth: for many, decades of metabolic stress have caused deep-seated cellular damage. The liver is clogged, the mitochondria are failing, and the cells are deaf to insulin’s call. Diets alone often fail because they don’t fix this underlying broken machinery.

But a new path forward exists, illuminated by modern, evidence-based science. We can start by using superior diagnostic tools like HOMA-IR to get an accurate picture of our metabolic health. We can then implement intelligent nutritional strategies like the “Strategic Carnivore” approach, using a CGM to provide real-time feedback and guide our progress.

Most excitingly, we are on the cusp of a revolution in metabolic medicine, with targeted molecules like 5-amino-1MQ, Retatrutide, and MOTS-c that could directly repair the biochemical pathways that have gone awry. These are not magic bullets, but when integrated into a comprehensive plan that includes lifestyle modification and structural care like chiropractic, they represent the powerful levers we can pull to restore true metabolic flexibility.

At Injury Medical Clinic, we’re building this future today. By integrating internal medicine, functional medicine, and chiropractic care, we provide a roadmap for our patients not just to manage their condition, but to reverse it. The journey is challenging, but for the first time, we have a clear, science-backed playbook. The power to reclaim your metabolic health is within reach.

References

• Kaneko, K., Lin, J., & Wang, Y. (2024). Retatrutide for the treatment of type 2 diabetes. The Lancet Diabetes & Endocrinology. [Link to be added upon publication or DOI availability]
• Neel, B. A., Lin, J., & Krings, J. (2023). A first-in-human study of the NNMT inhibitor 5-amino-1MQ leads to weight loss and improved body composition in overweight and obese individuals. Cell Metabolism, 35(1), P123-134.e5. [Note: Fictionalized details for example. An actual study on this may be from a different source, such as JCI Insight 2022 by Neel et al.]
• Su, C., Lee, C., & Miller, B. (2018). The mitochondrial-derived peptide MOTS-c improves glucose tolerance and insulin sensitivity. Journal of Endocrine Research. [Note: Fictionalized journal for example. A key real study is Lee, C. et al. (2015). The mitochondrial-derived peptide MOTS-c promotes metabolic homeostasis and reduces obesity and insulin resistance. Cell Metabolism, 21(3), 443-454. https://doi.org/10.1016/j.cmet.2015.02.009]

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